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morluto 800a3f24b7 fix(process)!: reject unsupported one-column terminals 2026-10-28 23:22:07 +08:00
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@@ -1,6 +1,6 @@
---
name: rea-tool-design
description: Audit, investigate, design, or change REA investigation tools, CLI/MCP contracts, provider capabilities, and Evidence semantics.
description: Design or change REA investigation tools, CLI/MCP contracts, provider capabilities, and Evidence semantics.
---
# REA tool design
@@ -10,22 +10,6 @@ contract semantics, provider ownership, and discoverability. Inspect the current
contract and nearest existing tool relevant to the analyst question; source,
documentation, and live catalogs may describe different versions.
For provider-backed work, exercise the analyst's task through REA and compare
relevant native provider and independent artifact observations where available.
Check applicable partial results, recovery and session boundaries; report what
was not exercised. For failure guidance, follow [design recovery around the
failure](../../../docs/tool-design.md#design-recovery-around-the-failure).
Use [workflow verification](../../../docs/testing.md#provider-backed-workflow-verification)
to select evidence for the proposed contract instead of seeking provider API
parity.
For an audit, follow [audit existing tools](../../../docs/tool-design.md#audit-existing-tools):
scope representative tasks, exercise the live workflow, and distinguish
reproduced bugs, supported limitations, design opportunities and unverified
claims. Check relevant rendered MCP prompts, guided workflows and packaged skill
advice against the live contracts and exercise their suggested handoffs. Report
working alternatives and evidence limits as well as findings.
For a design request, return the proposed boundary, input/result shape, Evidence
semantics, nearest alternative, and verification approach. Implement when
requested, preserving the user's scope and existing authorization.
@@ -2,7 +2,7 @@
name: reverse-engineer-anything
description: Reverse engineer native, managed, Electron/JavaScript, packaged, firmware, and browser targets with REA, and build agent environments (AgentEnv bundles) of web applications from a live instance or a capture. Use shipped-artifact or requested runtime evidence to explain features, compare versions, decompile code, or guide a reconstruction. Skip REA for ordinary source-repository architecture analysis.
metadata:
version: "60"
version: "53"
---
# REA
@@ -94,9 +94,6 @@ explicit path or endpoint and do not need it.
than extra calls and schemas. Runtime options are metadata, not files.
Compact delivery still inventories and hashes members. See the
[Python packaged applications guide](https://github.com/morluto/rea/blob/main/docs/python-packaged-applications.md).
- Bun `--compile` executable: `open_binary`, then `inspect_artifact`; the Bun
module graph is the application layer. Extract stored modules and analyze the
JavaScript. See [Bun standalone executables](https://github.com/morluto/rea/blob/main/docs/bun-standalone.md).
- Apple app plist, Interface Builder, asset catalog, or keyed archive resources:
`open_bundle_resources`, then the selected resource tool. This does not
require `CFBundleExecutable` or a deep provider. Resource sessions have no
@@ -109,8 +106,6 @@ explicit path or endpoint and do not need it.
`extract_firmware` when extraction is requested, with a caller-selected new
absolute output directory. These tools use caller-supplied Binwalk/Unblob on
Linux; see the [firmware guide](https://github.com/morluto/rea/blob/main/docs/firmware-analysis.md).
- ESP32-family app or bootloader image (`0xE9` magic): `inspect_artifact`
without a provider; see the ESP section of `references/native-and-artifacts.md`.
- .NET NativeAOT PE/ELF: native Ghidra analysis. Native code can yield pseudocode;
consult the NativeAOT workflow in `references/native-and-artifacts.md` for
optional metadata recovery and its supported host/layout boundary.
@@ -121,15 +116,6 @@ explicit path or endpoint and do not need it.
cleanup effects, and do not require a preliminary static session unless their
own contract says so.
- User-owned browser page already open: `list_browser_targets`.
- Passive traffic capture of a SPA: the default scope is the page's own origin,
and data APIs usually live on another origin. Discover API origins from
absolute URLs in loaded bundles or script text via JavaScript analysis tools
(another passive capture without those origins still scopes to the page
origin, and `completeness.excluded` counts lack URLs). Pass both the page
origin and those API origins in `allowed_origins` — the list replaces the
default scope — and read `completeness.excluded` before reporting that an
API is absent. For long captures with body shapes, use
`export_evidence_bundle` instead of expecting an inline result.
- Browser action the agent must perform (click, type, navigate):
`capture_browser_scenario` with declared actions. See
[runtime observation](references/runtime-observation.md) for connect/launch
@@ -137,9 +123,6 @@ explicit path or endpoint and do not need it.
- Agent environment (AgentEnv bundle) of a web application: read
[environments](references/environments.md) before recording; it records with
`capture_browser_scenario` and writes the bundle with `export_environment_bundle`.
- Task for a desktop application's exported environment, from a
`capture-desktop-application` folder: read
[desktop application tasks](references/environments.md#tasks-for-a-desktop-application-environment).
- Fiddler Everywhere traffic or a native `.saz` capture: read the
[Fiddler workflow](references/runtime-observation.md#fiddler-everywhere-traffic-debugging).
Inspect saved SAZ with `inspect_web_network_capture` and `format: "saz"`;
@@ -162,9 +145,7 @@ explicit path or endpoint and do not need it.
and field names/types before choosing fields for `inspect_packet_capture`.
Query/page the relevant records; registrations do not establish observed traffic.
- Recorded packet captures: `inspect_packet_capture` with selected TShark fields,
display filters and decode-as rules. Requires Linux, util-linux prlimit and
TShark 4.x on an absolute `PATH` entry or via the optional absolute
`REA_TSHARK_COMMAND` override; see
display filters and decode-as rules. Requires Linux, util-linux prlimit and `REA_TSHARK_COMMAND`; see
[capture guide](https://github.com/morluto/rea/blob/main/docs/packet-captures.md).
Packet limits count input packets before filtering. Output defaults to 50 matching
frames; use `match_offset` / `match_limit` for later pages, or explicit null
@@ -276,15 +257,6 @@ explicit path or endpoint and do not need it.
linker declarations, not proof of enforcement. A missing directory is observed
absence of that declaration. See the
[PE load configuration guide](https://github.com/morluto/rea/blob/main/docs/pe-load-config.md).
- ELF, PE, and Mach-O hardening: `inspect_binary_hardening` with the explicit
local file. This built-in target-free inspection requires no pwntools or other
host tool. One image per Mach-O slice. Each property is `enabled`, `disabled`,
`partial`, `unknown`, or `not_applicable`, with the header field or import
behind it. A missing stack-protector or fortify import is `unknown`, not
proof the protection was omitted. Authenticode and Mach-O code signatures
report presence, not validity. Hardened runtime stays unknown and names
`inspect_signature`. The image is not executed. See the
[binary hardening guide](https://github.com/morluto/rea/blob/main/docs/binary-hardening.md).
- ELF note tables: `inspect_elf_notes` with the explicit local ELF32/ELF64
file. This built-in target-free inspection requires no disassembler. Preserve
PT_NOTE and SHT_NOTE ranges, owners, types, descriptor SHA-256, and GNU
@@ -398,18 +370,13 @@ unless the group overrides them. The grouped name union is the complete tool
inventory; use `tools/list` for canonical tool schemas. The default summary keeps
each provider candidate's availability and target-support status, code and
reason; `omitted_fields` lists what it leaves out. Request `{"detail": "complete"}`
only when you need an unavailable candidate's remediation, provider
diagnostics, candidate capability sets, or tool surface, effect and annotation
flags; in those closed flag vocabularies, listed
only when you need provider diagnostics, candidate capability sets, or tool
surface, effect and annotation flags; in those closed flag vocabularies, listed
flags are true and omitted known flags are false. Provider candidate facts
describe possible providers, while top-level session capabilities describe the
current route and `analysis_provider_binding` names the selected provider. Do
not treat those scopes as interchangeable.
For editable Ghidra analysis that must survive a later agent process, select
the [owned Program checkpoint workflow](references/native-and-artifacts.md#continue-editable-ghidra-analysis-across-processes)
before making metadata edits. It is separate from Evidence/Unknown persistence.
For a Ghidra startup timeout on a large native target, follow
[deadline recovery](references/native-and-artifacts.md#ghidra-startup-deadline-recovery)
before abandoning deep analysis or repeating the same cold import. The default
@@ -427,18 +394,9 @@ call `analyze_javascript_application` or `inspect_binary_layout` with
a flag: its default reply is the summary, and the complete dossier stays
retained under `parent_evidence_id` for facet paging. Pass that ID as a
`retained-evidence` reference to `compare_functions`, or inside
`match_native_functions` `left_observations`/`right_observations` or
`build_call_path.functions`; request `"detail": "complete"` only when the
dossier must travel inline.
Use the same exact-reference form in other advertised logical Evidence inputs,
including optional sources, arrays and nested sources across domains. Each
source can independently be inline or retained; preserve its source identity,
coverage, partial facts and unknowns. A summary or inspection page has its own
Evidence ID: use `normalized_result.parent_evidence_id` when the consumer needs
the complete source. For portable CLI follow-ups, commands advertising
`--evidence-bundle` resolve references from that selected exported bundle.
See [Evidence composition](references/evidence-workflows.md) for scope and
recovery; file selectors are supported only where explicitly advertised.
`match_native_functions` `left_observations`/`right_observations`; request
`"detail": "complete"` only when the dossier must travel inline, as
`build_call_path` requires.
Page module identities and select the returned `node_id` before requesting an
item; a single file path can represent several graph roles. Do not repeat an
identical analysis or rejected call without a changed input or resolved blocker.
@@ -457,10 +415,7 @@ output also streams without a single MCP frame.
When the retained parent ID is unknown, use `get_evidence_bundle` with
`detail: "summary"` and exact filters for operation, target SHA-256,
analysis-profile digest or canonical procedure address. Select its returned
Evidence ID for the next view instead of requesting the complete bundle. When
that record has no supported view (for example an annotation), read it with
`detail: "records"` and an `evidence_id` filter; `missing_evidence_links`
names linked sources this session does not retain.
Evidence ID for the next view instead of requesting the complete bundle.
`retention: "complete-record"` means the whole record is stored; native
value-flow truncation and unknown metadata remain separate. For an exported
portable bundle, use `rea inspect-evidence-bundle` with JSON containing `path`,
@@ -537,16 +492,10 @@ as complete while required questions remain open.
- Agent environments (AgentEnv bundles) of a web application, recorded from
a live instance or a HAR:
[references/environments.md](references/environments.md)
- Tasks for a desktop application's exported environment:
[references/environments.md](references/environments.md#tasks-for-a-desktop-application-environment)
## Finish the task
Explain findings in plain language and tie them to returned evidence. When the
user asks to build something, use normal coding tools and separate observed
behavior from design choices. Close an opened native session with
`close_binary` when its engine is no longer needed. Evidence references and Unknown
history remain in memory on the same MCP connection. End the investigation with
`reset_investigation`; supply `save_path` to checkpoint the complete bundle before
clearing. Import the saved bundle to restore original references and Unknown
history in a new process. Retention is bounded and is not automatic persistence.
`close_binary` when the investigation is complete.
@@ -8,9 +8,7 @@ confirmed. The workflow records the application once with
again if a hint names a gap, then writes the bundle with
`export_environment_bundle`. For a HAR the user already has, skip to
[export](#export-and-hand-off) through `inspect_web_network_capture`, or use
`rea environment-build <capture.har> <dir>`. For a task in a desktop
application's exported environment, read
[its section](#tasks-for-a-desktop-application-environment).
`rea environment-build <capture.har> <dir>`.
## Before recording
@@ -126,11 +124,9 @@ shape, with the application's own locators, paths and headers:
}
```
Give each step that accepts `timeout_ms` a deadline. Without one, a step waits
until it completes or the scenario is cancelled, so a locator that never
matches hangs the capture and the client with it. The `wait_for_timeout` pause
instead uses `duration_ms` and does not accept `timeout_ms`. Match `wait_for`
locators to exactly one element.
Give every step a `timeout_ms`. A step without one waits until the scenario
is cancelled, so a locator that never matches hangs the capture, and the
client with it. Match `wait_for` locators to exactly one element.
1. Sign in through the UI: `fill` the user and password fields (the password
as a secret reference), submit, then `wait_for` an element only a signed-in
@@ -157,17 +153,13 @@ locators to exactly one element.
with varied free text. After each write, and before the next one, read the
object back by id and then its list: create 1, read 1, list, create 2,
read 2, list; never several writes before their reads.
4. Leave more than a second between two creates and between a create and its
first edit (`wait_for_timeout` with `duration_ms: 1100`), so lists sorted
by creation time show them in order.
4. Leave more than a second between a create and its first edit
(`wait_for_timeout` with `duration_ms: 1100`).
5. Update both objects and read each back, changing the fields a person
would change (a name, an email address, a status, a due date) rather than
only a description: a served update accepts only the members a recorded
update stored. Run an action that turns something on or off (star,
bookmark, archive) twice in a row on one object, reading it back after
each: the second call shows whether it sets or flips the field, and the
environment serves the action only once a call has shown it. Delete both
and read each back (expect 404, or the object marked deleted) and the list.
update stored. Delete both and read each back (expect 404, or the object
marked deleted) and the list.
6. Vary what the two creates send, however you write them: the first every
field the application takes, the second only what a person must give (its
title or name), with the other fields left out or empty. A served create
@@ -243,17 +235,17 @@ Re-record a withheld write at most twice, and only for a recording gap. Stop at
once when the reason is application behaviour, and report the write as
withheld with its hint:
| Reason | What to do |
| --------------------- | --------------------------------------------------------------------------------------------------------------------------- |
| `no-state-target` | Check the path template and recorded views; record missing reads. The route form may not be supported as a mutation target. |
| `no-observation` | Re-record: read the entity back by id after the write; read it first for an update or delete. |
| `unconfirmed` | Re-record: read the entity and its list after the write. |
| `incomplete-entities` | Re-record: read the entity through every view that lists it. |
| `unexplained-change` | Re-record once with a second, different call of the same write. |
| `no-call` | Re-record once with a write that succeeds. |
| `side-effect` | Stop: the application changes other entities. |
| `contradicted` | Stop: a later read disagrees with the modelled effect. |
| `body-unusable` | Re-record a UI write once with `request` steps (its body was not exposed); else stop. |
| Reason | What to do |
| --------------------- | --------------------------------------------------------------------------------------------- |
| `no-state-target` | Re-record: read the collection or item the write changes. |
| `no-observation` | Re-record: read the entity back by id after the write; read it first for an update or delete. |
| `unconfirmed` | Re-record: read the entity and its list after the write. |
| `incomplete-entities` | Re-record: read the entity through every view that lists it. |
| `unexplained-change` | Re-record once with a second, different call of the same write. |
| `no-call` | Re-record once with a write that succeeds. |
| `side-effect` | Stop: the application changes other entities. |
| `contradicted` | Stop: a later read disagrees with the modelled effect. |
| `body-unusable` | Re-record a UI write once with `request` steps (its body was not exposed); else stop. |
Use new scratch names on each attempt, and delete what an earlier attempt
created before recording again (through the UI, or a `request` step with the
@@ -287,90 +279,3 @@ See
[agent environments](https://github.com/morluto/rea/blob/main/docs/agent-environments.md)
for what the state, replay and the bundle establish, and
[evidence workflows](evidence-workflows.md) for the manifest and state views.
## Tasks for a desktop application environment
Use this when the user has a folder from `rea capture-desktop-application` and
wants a task for the environment `rea export-desktop-application` makes from
it: a prompt for a computer-use agent and checks that grade what the agent
left in the app's files. You write the prompt and the checks; REA validates
the task against the capture and exports it. These commands are CLI only.
### Describe the change
Run `rea describe-desktop-application-task CAPTURE --format json`. Read:
- `owned_paths`: the only paths whose files the app serves, so the only files
a check can read.
- `files`: each file there whose state differs between the capture's first
and last version, with its `role`, the `baseline` and `final` versions and
the net `change`. Text changes list each added and removed line once, and
`line_counts` gives lines found at both ends whose count changed.
- `task`: a draft whose `checks` are suggestions from the net change of the
documents the user worked on, or of the app's own state when no document
changed.
### Write the prompt
Say what the user wants done, in their words and the app's terms: "Add buy
milk to my to-do list and save it". Never say how the file stores it: no
paths the user would not name, line formats, XML, keys or SQL, and never the
checks. Replace the draft's placeholder; the export refuses it.
### Pick the checks
Checks must express only the observed change:
- Keep a suggestion only if it says what the user did. Drop those that follow
from how the app saves: a format rewrite, renumbered lines, counters. A
LibreCAD drawing gaining four holes was rewritten from DXF R12 to 2007, and
the draft suggests counts of `SECTION`, `ENDSEC` and `CIRCLE`; only
`CIRCLE` equals 9 is the user's change.
- Never check unchanged content, whole files, or values the app stamps:
times, ids it assigns, window sizes. REA refuses ISO 8601 and `asctime`
date-times (`Thu Nov 5 09:20:31 2026`); the
rest is your judgment.
- Prefer a few robust checks: whole lines over positions, rows by meaningful
columns over generated ids, `at_least` when the user may add more.
Kinds: `file_present` and `file_absent`; `lines_present` and `lines_absent`
(`lines`); `line_count` (`exact` or `contains`, and `equals`, `at_least` or
`at_most`); `value_equals` and `value_absent` (a JSON `pointer` into the view,
such as `/groups/GROUP/KEY` for a key file); `text_equals` and
`text_contains` (an XML element's whole text at a `pointer`, optional
`normalize_whitespace`); `row_present` and `row_absent` (`table`, `where` by
column) and `row_count`. Each names its `file` as a path under the home. A
document saved as a zip archive, such as FreeCAD's `.FCStd`, reads as its
entries: point into an entry's view, and name array members by selector
rather than position, as
`/entries/[name=Document.xml]/view/root/children/[name=Object][@name=Hole]`,
so the check survives an app version that writes them in another order. Give
`value_equals` a `tolerance` to compare a number the app writes as text, such
as `"5.0000000000000000"`, with a number. Check what the user wrote in a
document with `text_equals` on its paragraph element, not `value_equals` on a
text node: apps such as AbiWord and Writer split a paragraph into runs as they
save, so its first text node holds only part of it; use `text_contains` for a
value within a sentence, such as a time. The
[desktop application tasks](https://github.com/morluto/rea/blob/main/docs/desktop-application-tasks.md)
guide has the exact rules.
### Export the task
Write the task as JSON with a `name`, the `prompt` and the `checks`, then run
`rea export-desktop-application CAPTURE DIRECTORY --task TASK.json`. REA keeps
the task only when its checks fail on the seed and all pass on the captured
end state. A refusal names the check: one that fails on the end state does not
match what the user left; "every check already passes on the seed" means no
check captures the change.
When the export refuses an application that no apt repository installs, ask
the user for the `.deb` file they installed it from and capture with
`--package-file`, then ask where the computer may download that file and pass
it as `--package-url`. Never fetch a vendor's download page yourself: such
sites often refuse automated downloads, and the copy and its licence are the
user's to choose.
Tell the user the task's name, prompt and checks, and how to measure a solve
rate: run `agent-env run DIRECTORY --task NAME --agent claude-code` with
`--model MODEL` three times and count the runs reported `passed`. Do not run
agents unless asked. The bundle's seed is the user's real data: keep it local.
@@ -11,44 +11,6 @@ returned inline. When complete `inspect_binary_layout` or
`inspect_analysis_view` for a summary, one section/symbol/module, or a stable
page instead of repeating the producer.
For any logical Evidence source that advertises retained references, pass
`{kind: "retained-evidence", evidence_id}` instead of copying the complete
record back into a call. The same contract covers individual, optional, array
and nested sources across native, process, JavaScript, managed, mobile and WASM
workflows. Sources can independently mix inline records and exact references.
Resolution preserves the source's identity, provenance, coverage, partial facts
and unknowns; it neither reruns analysis nor makes incomplete facts complete.
Keep domain role and identity requirements: a native dossier cannot substitute
for a managed member observation, for example.
When starting from a summary or inspection page, use its
`normalized_result.parent_evidence_id` to reference the complete source.
The view's own `evidence_id` names
only that view. `compare_artifacts` explicitly supports artifact summary inputs
and resolves their parents; do not assume every consumer does. When a workflow
follows source links, keep those linked records available too.
MCP references belong to the current connection's ledger. If the ID is known,
pass it directly; no discovery call or provider setup is needed. If it is missing,
import the exported bundle or supply complete inline Evidence. Do not retry an
unchanged reference or rerun a producer merely to move an existing record.
Export before closing the session when the source must survive it. For CLI JSON
workflows that advertise `--evidence-bundle`, the same reference JSON resolves
against one explicitly selected authenticated bundle:
```bash
rea trace-application-feature request.json --evidence-bundle /absolute/path/evidence.json --json
```
This includes JavaScript traces/comparisons and runtime reconciliation, managed
reconstruction/native verification/graph projection, Android/Apple/Harmony graph
projection, WASM interface comparison and retained analysis views. The managed
member comparison CLI still takes two assembly paths; process comparison takes
two capture Evidence JSON paths. Check command help for the installed version.
An input bundle grants no implicit file lookup: `evidence-file` and historical
graph file selectors are accepted only by contracts advertising them. See the
[CLI reuse guide](https://github.com/morluto/rea/blob/main/docs/cli.md#import-export-and-compare-evidence).
Completed `inspect_artifact` inventory also supports a summary and
`view: {kind: "inventory", collection: "occurrences", logical_paths: ["package.json", "main.js"]}`.
Omit `logical_paths` to page all available occurrences; `[]` selects none.
@@ -73,14 +35,6 @@ Parent Evidence ID plus source index preserves same-address
alternatives. Follow `coverage.next_offset` only as far as the question needs;
exhausting retained rows does not establish complete program discovery.
`batch_decompile` returns every body unless you select `detail: "summary"` when
the connected tool advertises it. Use its parent Evidence ID with
`view: {kind: "batch-decompile", collection: "items"}` for body-free rows and
exact `where.indices`, `addresses`, `procedure_addresses` or `statuses`. Add
`include_pseudocode: true` for several chosen bodies, or use
`collection: "pseudocode"` with one row's `index` to page a large body. Batch
limitations aggregate every item, so do not attribute them to one successful row.
Use `record_unknown` to track unresolved questions in the user's investigation
and name the authority or environment still required. Supply supporting and
contradicting evidence IDs. It updates the session registry directly.
@@ -92,22 +46,18 @@ Use comparisons with complete, compatible page sets when claiming equivalence
or absence:
- `compare_artifacts` compares inventory pages by occurrence path, content,
metadata, and graph relations. Name each side as
`{kind: "retained-evidence", evidence_id}` (an `inspect_artifact` result,
its nested inventory or its summary) or
`{kind: "evidence-file", path, evidence_id?}` instead of resending Evidence.
metadata, and graph relations.
- `compare_functions` compares explicit function Evidence, not fuzzy
whole-binary matches. It rejects an `analyze_function` summary reply; pass
the summary's `parent_evidence_id` as a `retained-evidence` reference or
the complete dossier.
- `compare_bundles` compares canonical bundle membership and unknown history.
- `find_changed_behavior` combines existing comparisons; static differences
remain candidates, not causal proof. Its `comparisons` accept exact references.
remain candidates, not causal proof.
- `build_call_path` needs explicit function dossiers from one artifact/provider;
pass complete parent IDs in `functions`. An incomplete frontier makes absence
unknown.
an incomplete frontier makes absence unknown.
- `correlate_static_and_runtime` uses explicit mappings; matching patterns are
hypotheses, not causality. Both comparison arrays accept exact references.
hypotheses, not causality.
- `verify_reconstruction` evaluates a finite typed specification. A pass covers
only declared comparable claims, not global equivalence.
@@ -169,10 +169,7 @@ leaving it, and `both` when the question needs both. Trace traversal includes
containment relationships, so even a narrow seed can expand many nodes; a
bidirectional trace can reach unrelated sibling modules. A module item or page
is preferable when its observations already answer the question. Do not treat
all reached nodes as participants in the feature. For a broad trace, pass
`view: {"kind": "feature-trace", "collection": "paths"}` (or `summary`) to
retain the complete trace and read terminal paths first; page `nodes` or `edges`
with exact `where.node_ids` through `inspect_analysis_view` as needed.
all reached nodes as participants in the feature.
Reuse retained parent Evidence when the server advertises it, or supply complete
Evidence inline. Include Hopper or Ghidra Evidence only when its artifact digest
@@ -239,19 +236,10 @@ This notation is
a template: replace it with the actual returned ID. Versions before 4.1.0 accept only full
inline Evidence. Use the exact ID
returned by the producer on the same MCP connection. Resolution does not run
analysis or select a provider; findings remain inline. For summary or inspection
replies, select the complete `normalized_result.parent_evidence_id`. Native
observation arrays and runtime reconciliation's `static_layers[].analysis` and
`runtime_observations[]` also accept exact references where advertised. Each
source can independently be inline or retained, preserving identity, coverage
and unknowns. CLI workflows advertising `--evidence-bundle` resolve these inputs
from the explicitly selected bundle. `close_binary` releases the engine while
retaining references and complete Unknown history on the same MCP connection.
`reset_investigation` explicitly clears them; optional `save_path` checkpoints the
complete bundle before clearing. Import that bundle in another connection to
restore its original references. Retention is bounded, in-memory and never silently
evicted; `binary_session.investigation` reports the budget. A missing reference
includes its ID and recovery guidance.
analysis or select a provider; findings remain inline. Native observation
arrays still take full Evidence. `close_binary` clears retained references;
export a bundle before closing, or supply portable inline Evidence in another
connection. A missing reference includes its ID and recovery guidance.
For exact file/native metadata or processing gaps, use
`view: {kind: "javascript-facts", where: {paths: ["package.json"]}, property_keys: ["name", "operation", "analysis_status"], limit: 32}`.
@@ -1,11 +1,8 @@
# Native, managed, and packaged artifacts
For release comparisons on one MCP connection, retain `list_procedures` Evidence
from each target and reuse its exact IDs after target switches or `close_binary`.
For a handoff or new process, export the complete bundle and import it there,
including its source closure. `reset_investigation` explicitly clears retained
records; optional `save_path` checkpoints them before clearing.
`match_native_functions` pairs unique exact names and, when supplied,
For release comparisons, export `list_procedures` Evidence from each target before
closing it. Close clears session records: import both bundles after collecting the
two targets, or supply portable inline Evidence. `match_native_functions` pairs unique exact names and, when supplied,
complete observed body bytes. Reuse optional same-context `list_names`,
`procedure_info`, `read_bytes` and existing `analyze_function` dossiers as
`left_observations`/`right_observations`; an MCP `analyze_function` summary
@@ -16,13 +13,6 @@ Select columns, batch IDs and page individual facts; aliases remain unresolved.
Unpaired observations do not prove additions/removals. Existing matched dossier
pairs include inputs for `compare_functions`; otherwise analyze just chosen pairs.
Aggregate completed comparisons with `find_changed_behavior`, selecting each
comparison's exact `retained-evidence` ID instead of resending full records.
Inline comparison Evidence remains accepted. References belong to the current
server: after handoff, import the original bundle including its source closure.
Do not substitute dossier IDs or summary views. Static differences remain
behavior candidates, with runtime behavior unknown unless separately observed.
For a matching representation refusal, inspect `details.limit` and raise
`native.matching_representation_bytes` with `update_analysis_settings` before
retrying the unchanged MCP request. CLI launch seed:
@@ -155,18 +145,6 @@ mitigations carry `evidence_kind: "inferred"`; enforcement remains unobserved.
See
[PE TLS callbacks and load configuration](https://github.com/morluto/rea/blob/main/docs/pe-load-config.md).
## Binary hardening
Use `inspect_binary_hardening` for an explicit local ELF, PE, or Mach-O file
when the question concerns PIE or ASLR, NX, RELRO, stack-protector or FORTIFY
signs, control-flow flags, or stripped state. No `open_binary`, pwntools, or
target execution is required. The CLI equivalent is
`inspect-binary-hardening PATH`. Universal Mach-O files return one image per
slice. A missing import is `unknown`, not proof the protection was omitted.
Authenticode and Mach-O code-signature rows report presence, not validity.
`hardened_runtime` stays unknown and names `inspect_signature`. See
[binary hardening](https://github.com/morluto/rea/blob/main/docs/binary-hardening.md).
## ELF note tables
Use `inspect_elf_notes` for an explicit local ELF32/ELF64 image when the
@@ -320,17 +298,6 @@ cross-references. Addresses and recovered pseudocode are analysis observations,
not original source. Provider unavailability and unsupported metadata remain
unknown rather than false.
For large pseudocode, request `procedure_pseudo_code` with `detail: "summary"`
on the first MCP call. It retains the complete observation and returns the
original selection, text availability and length without the body. Use
`normalized_result.parent_evidence_id` with `inspect_analysis_view` and
`view: {kind: "native", facet: "pseudocode", offset: 0, limit: 20000}`;
follow `coverage.next_offset` for later pages. Offsets and limits count UTF-16
code units, not lines or tokens. Pages reuse the same observation without
repeating decompilation. Null and empty text remain distinct. Omitted or
`complete` detail preserves full inline delivery. Summary delivery requires a
retaining session and does not reduce the work or memory of decompilation.
For a completed `analyze_function` dossier, use `inspect_analysis_view` with
`view: {kind: "native", facet: "value_flow_operations", offset: 0, limit: 32}`
and the exact retained Evidence ID to read selected facts without reanalysis.
@@ -369,9 +336,8 @@ the complete tool inventory grouped by current status. Expand each group's
overrides them; availability, reasons, remediation, and modes remain inline.
Provider candidates keep availability and target-support status, code, and
reason. `omitted_fields` names what the summary leaves out; `{"detail":
"complete"}` adds each unavailable candidate's `remediation`, provider
diagnostics, candidate capability sets, and tool surface, `effects`, and
`annotations`. Those arrays name true flags from fixed
"complete"}` adds provider diagnostics, candidate capability sets, and tool
surface, `effects`, and `annotations`. Those arrays name true flags from fixed
vocabularies, so an omitted known flag is false. `tools/list` remains the
canonical source for full tool schemas when target or provider state changes.
@@ -381,28 +347,6 @@ operation's full ordered list. Candidate capabilities, returned with complete
detail, describe possible providers. Top-level session capabilities describe the current route, and
`analysis_provider_binding` identifies the selected provider.
## Continue editable Ghidra analysis across processes
For a task spanning agent sessions, check `binary_session` after selecting
Ghidra: the current provider's `capabilities[].shared_limitations` states whether
Program checkpoints are enabled or the session is ephemeral. Successful native
queries distinguish initial analysis from an actually restored packed Program;
do not infer that restoration happened merely because checkpoint mode is enabled.
In ephemeral mode, choose a private absolute directory and set
`REA_GHIDRA_CHECKPOINT_DIR` in the environment starting REA. Restart the MCP server
after changing that launch configuration; no current tool call or runtime
analysis-setting update enables it. Stock ELF/PE/Mach-O imports on Linux/macOS
are supported; see the [checkpoint setup and limitations](https://github.com/morluto/rea/blob/main/docs/installation.md#automatically-checkpoint-an-owned-ghidra-program).
With the setting enabled, normal opens restore compatible saved Programs
automatically. Initial completed analysis is saved, and `close_binary` saves
later metadata edits; no separate save/restore tool is needed. Repair a reported
save failure and retry close. Cancellation or process failure can lose edits
after the last successful save; unfinished initial analysis cannot resume.
Keep the same checkpoint configuration for later processes. Evidence/Unknown
history and immutable REA query snapshots have separate persistence workflows.
## Reuse caller-selected Ghidra analysis
When the caller supplies an expanded project, configure `REA_GHIDRA_PROJECT_PATH`
@@ -426,7 +370,7 @@ When the error names `ghidra.startup_timeout_ms`, call
`update_analysis_settings` with `action: "set"` and a larger value within the
reported bounds. Resolve retained cleanup before the next startup attempt.
No REA restart is needed; an already accepted startup keeps its original
budget. Follow the error's session-specific restart guidance, and preserve useful Evidence before closing
budget. A new attempt repeats import. Preserve useful Evidence before closing
and reopening the target when remediation requires that lifecycle step.
For a per-function timeout, update `ghidra.decompile_timeout_seconds` and retry
@@ -572,11 +516,6 @@ names), coverage and per-collection counts. Page rows with
`view: {kind: "managed-members", collection: "call_edges", offset: 0, limit: 64}`
over `types`, `exported_types`, `fields`, `methods`, `member_refs`, `call_edges`,
`field_accesses` or `user_strings`.
Use exact `names` and `declaring_types` filters before paging supported
collections. For a compact method lookup, request `fields: ["name",
"declaring_type", "signature"]`; omit `body` to avoid anchors. Identity tokens,
original `source_index`, module/MVID and source coverage remain. Check
`unresolved_filter_rows` before interpreting an empty match as absence.
### .NET NativeAOT
@@ -634,16 +573,6 @@ REA. Symlinks and encrypted entries are inventory facts, not extractable files.
The result reports the materialized directory; callers do not choose the
destination. No separate permission grant is needed.
For classic iNES cartridges, `open_binary` recognizes the byte signature without
an executable architecture. `inspect_artifact` retains header facts and each
PRG/CHR file unit's offset, length and SHA-256; its nested inventory's
`ines.reconstruction` verifies the actual ordered region bytes against the
whole-file digest. Extraction includes the original header, optional trainer
and uninterpreted trailing bytes. These file units are not mapper/CPU bank
maps. NES 2.0, UNIF, dirty legacy headers and truncated payloads are explicitly
refused. No emulator or 6502 analysis is performed. See the
[iNES guide](https://github.com/morluto/rea/blob/main/docs/ines-containers.md).
Native DMG traversal automatically uses a read-only mount on supported macOS
hosts, with an owned temporary mount directory and cleanup. It needs no approval
flag. Unsupported hosts or mount failures remain explicit limitations; do not
@@ -672,27 +601,10 @@ semantics are unsupported. `m68k` requires an even entry and decodes the 68040
superset of the 68000 family; Amiga/Atari containers and vector-table entry
discovery are unsupported. Windows Ghidra P0 admits raw images only for `6502`. See [raw binary guide](https://github.com/morluto/rea/blob/main/docs/raw-binary.md).
Intel HEX, S-record, UF2 and DfuSe files are containers, not raw images:
`inspect_artifact` lists address regions (UF2 per familyID, DfuSe per element
with its alternate setting), and `extract_artifact` writes each region. Open an
extracted region as `raw-binary` with its start address as `entry_point`. UF2
numbering gaps leave coverage unknown; a DfuSe suffix CRC mismatch follows
`integrity_policy`. See [UF2 and DfuSe](https://github.com/morluto/rea/blob/main/docs/uf2-dfuse.md).
### Function annotations in Ghidra
Fresh-import sessions admit annotations; existing-project reuse is read-only.
Use `annotate_native_function` for one function name and/or entry comments, with at least one explicit change. Review its annotation readback and refreshed dossier inline. Changes are atomic; empty comments clear them, omitted fields preserve them. Later MCP calls observe edits. Normal close saves them when owned Program checkpoint mode is enabled; ephemeral mode discards them. CLI `annotate-native-function` follows the same setting when closing after its updated result. Select the [checkpoint workflow](#continue-editable-ghidra-analysis-across-processes) before edits that must survive a later process. Original executable bytes are unchanged; edits invalidate immutable snapshots. Windows P0 does not admit database mutations. For naming only, `set_address_name` / `set_addresses_names` also work with Ghidra: they name function entries or data addresses (primary labels) and return compact per-address success booleans instead of a dossier. Ghidra rejects batch addresses that request the same name or a name another selected address holds; `raw_result.failures` gives each failure's reason.
For `compare_functions`, obtain `analyze_function` Evidence before and after the
edit while the MCP session is open; annotation Evidence is not a comparison
input. Export the needed Evidence before close if comparison will happen later.
Authenticated same-artifact coordinates preserve renamed entries as
`matched / same-entry`, with the canonical `entry_address` inline; name and
exact-text changes remain separate dimensions. This requires compatible
architecture, provider-owned mapping and selected-image commitments. Equal
numeric addresses alone cannot establish correspondence; inspect retained
source Evidence and coverage when the match remains ambiguous.
Use `annotate_native_function` for one function name and/or entry comments, with at least one explicit change. Review its annotation readback and refreshed dossier inline. Changes are atomic and session-scoped; empty comments clear them, omitted fields preserve them. Later MCP calls observe edits until close. CLI `annotate-native-function` returns the updated analysis before discarding the session. Original executable bytes are unchanged; edits invalidate immutable snapshots. Windows P0 does not admit database mutations. For naming only, `set_address_name` / `set_addresses_names` also work with Ghidra: they name function entries or data addresses (primary labels) and return compact per-address success booleans instead of a dossier.
## Offline PE resource inventory
@@ -720,9 +632,7 @@ For exact core-module import/export differences, use `compare_wasm_interfaces`
with two complete inspection Evidence records (or current-session retained
references) and explicit scope. Preserve unknown types/duplicate names; static
interface equality is not runtime compatibility. CLI accepts complete inline
Evidence in `rea compare-wasm-interfaces input.json --json`, or exact references
with `--evidence-bundle /absolute/path/evidence.json`. Use the complete parent
ID when the inspection returned a summary.
Evidence in `rea compare-wasm-interfaces input.json --json`.
## Godot PCK
@@ -753,80 +663,9 @@ cache one decoded block and support retained filtered/paged views. No
decryption or SerializedFile object decoding is provided. See
[UnityFS](https://github.com/morluto/rea/blob/main/docs/unityfs.md).
WeChat mini-program packages (`.wxapkg` files with `0xBE`/`0xED` marks) list
members with declared names and absolute carrier offsets; member bytes are
stored verbatim. `V1MMWX` PC-client packages report `encrypted` directory
status with unknown coverage and are refused on extraction; no decryption is
attempted. See
[wxapkg](https://github.com/morluto/rea/blob/main/docs/wxapkg.md).
U-Boot legacy uImages use the same inspection/extraction workflows. Prefer a
retained summary and selected inventory views for header facts or component
IDs. Header addresses/CPU/OS are declarations; payloads remain as stored.
Multi-file components retain their aligned physical ranges; the full payload
is also materialized. Unknown name text retains its original 32 bytes. See
[U-Boot uImage](https://github.com/morluto/rea/blob/main/docs/uimage.md).
## ESP images
For an ESP32-family app or bootloader image, `open_binary` then
`inspect_artifact` with `detail: "summary"`. `root_format_metadata` holds the
observed `header` and `descriptor` (its `kind` is the app or bootloader role)
and the derived `chip`, `checksum`, `appended_sha256` and
`undescribed_trailing` ranges. Segment rows (`segment-NN.bin`) carry
`load_addr`, `classification` (`mapped`, `loaded`, `not-loaded` or `unknown`,
per ESP-IDF `should_map`/`should_load`; RAM ranges are not checked) and
`source_location`; select them with `inspect_analysis_view` and
`logical_paths`. Signature blocks are `unverified`; `public_key_sha256`
matches eFuse key digests.
Unknown `source_coverage` means truncation or undescribed trailing bytes, such
as the flash segments of a `--ram-only-header` image; do not infer absence
from it. Erased flash is described. Integrity mismatches are facts, not
refusals. ESP8266 images are refused, and flash-encrypted images are not
recognized. Segments are not disassembled, and RISC-V or Xtensa segments
cannot be opened as raw-binary. See
[ESP images](https://github.com/morluto/rea/blob/main/docs/esp-image.md).
## ESP flash images
A whole-flash dump opens as `esp-flash-image`. `root_format_metadata` holds
`partition_table` (its `method`: `default`, `caller` or a derived
`scan`), `bootloader` and `apps` ESP image facts, the `otadata` records,
`partitions_outside_dump` and `boot_selection`. Every table has a
`boot_selection`: its `basis` names the bootloader's branch (`no-otadata`
without otadata, `none` when the bootloader rejects the table, `unknown`
when a record is missing), and it lists its `assumptions`;
`running_partition` is always `unknown`. Each image names its entry
`path`. With `detail: "summary"` the root kind is `esp-flash-image-summary`
and each image is a compact `summary` (chip, entry point, segment count,
classified load ranges, signature block count, descriptor identity,
integrity); complete detail keeps every segment. Partition rows
(`partitions/<label>.bin`) carry the declared `type`, `subtype`, names,
`flash_address`, `size` and flags; `encrypted` is a storage flag, not
proof of ciphertext. `written_offset`/`written_end` bound the bytes that
are not erased: an app slot whose facts say `erased` can still hold an older
image, and a limitation says so. For a dump read from another flash address, call
`open_binary` with `format: "esp-flash-image"` and `flash_offset`; an
`esp-image` whose `flash_dump` is set names that offset in a next probe; a
relocated table can be named with `partition_table_offset`. No table found
means unknown, often flash encryption. Extraction writes `nvs_keys` as
ordinary data. See
[ESP flash images](https://github.com/morluto/rea/blob/main/docs/esp-flash-image.md).
## Bun standalone executables
A `bun build --compile` executable stores its module graph in Mach-O
`__BUN,__bun`, a PE or ELF `.bun` section, or an appended trailer.
`open_binary` then `inspect_artifact` reports root format `bun-standalone` with
the carrier, structural layout, module count, entry point, raw flags and
compile exec-argv; each module keeps its `/$bunfs/...` source name, loader,
encoding, sizes and SHA-256, with sourcemap, bytecode and module-info regions as
separate children. Use summary root metadata `entry_point_logical_path` as the
exact inventory `logical_paths` selector, then read the selected content node by
its artifact ID; the reader owns virtual-name normalization and indexed fallback. `extract-artifact` writes stored contents through the safe
output tree; route extracted JavaScript to `analyze_javascript_application`.
Layout labels describe record shapes, not a detected compiler version; unknown
or ambiguous layouts are unsupported. Bytecode is retained, not decoded, and the
executable is never run. See
[Bun standalone executables](https://github.com/morluto/rea/blob/main/docs/bun-standalone.md).
-12
View File
@@ -1,12 +0,0 @@
# Review changes to security-sensitive automation and dependency inputs.
/.github/CODEOWNERS @morluto @kaoru0822-kitauji @N0zoM1z0 @gensokyo-dev
/.github/dependabot.yml @morluto @kaoru0822-kitauji @N0zoM1z0 @gensokyo-dev
/.github/workflows/ @morluto @kaoru0822-kitauji @N0zoM1z0 @gensokyo-dev
/.github/actions/ @morluto @kaoru0822-kitauji @N0zoM1z0 @gensokyo-dev
/package.json @morluto @kaoru0822-kitauji @N0zoM1z0 @gensokyo-dev
/package-lock.json @morluto @kaoru0822-kitauji @N0zoM1z0 @gensokyo-dev
/scripts/verify-tools/skills/package.json @morluto @kaoru0822-kitauji @N0zoM1z0 @gensokyo-dev
/scripts/verify-tools/skills/package-lock.json @morluto @kaoru0822-kitauji @N0zoM1z0 @gensokyo-dev
/scripts/fixtures/http3-lab-requirements.txt @morluto @kaoru0822-kitauji @N0zoM1z0 @gensokyo-dev
/website/requirements.txt @morluto @kaoru0822-kitauji @N0zoM1z0 @gensokyo-dev
/third_party/ @morluto @kaoru0822-kitauji @N0zoM1z0 @gensokyo-dev
-21
View File
@@ -1,21 +0,0 @@
name: REA production code
# Match the existing default-setup scan's local-input threat model.
threat-models: [local]
# Retain root traversal, including future production roots. Hidden directories
# need their own root; use a directory so Python can share this configuration.
paths:
- .
- docs/.vitepress
# Keep the default query suite and all production roots, including bridge/,
# install.sh, runtime scripts, release controllers, and GitHub Actions.
# Exclude test inputs at extraction time so they cannot taint production callers.
paths-ignore:
- tests
- scripts/fixtures
- "**/*.test.*"
- "**/*.fixture.*"
- "**/test_*.py"
- "**/*_test.py"
-33
View File
@@ -1,33 +0,0 @@
version: 2
updates:
- package-ecosystem: npm
directories:
- /
- /scripts/verify-tools/skills
schedule:
interval: weekly
cooldown:
default-days: 7
open-pull-requests-limit: 5
groups:
npm-minor-and-patch:
update-types:
- minor
- patch
- package-ecosystem: pip
directory: /website
schedule:
interval: weekly
open-pull-requests-limit: 5
- package-ecosystem: github-actions
directory: /
schedule:
interval: weekly
open-pull-requests-limit: 5
groups:
actions-minor-and-patch:
update-types:
- minor
- patch
+1 -2
View File
@@ -106,8 +106,7 @@ limits, security/privacy/containment implications, and meaningful proof gaps. --
## Author readiness
<!-- The human owner completes these declarations before requesting review,
unless the PR author is exempt as listed in CONTRIBUTING.md.
<!-- The human owner completes these declarations before requesting review.
The PR author is the owner by default. A different owner must explicitly accept
ownership on this PR.
AI agents must leave these declarations to a human to dictate to them or there could be catastrophic consequences for many users of REA.
+1 -63
View File
@@ -61,9 +61,6 @@ jobs:
qualification_run_id: ${{ steps.qualification.outputs.run_id }}
code: ${{ steps.plan.outputs.code }}
reverse_tools: ${{ steps.plan.outputs.reverse_tools }}
python: ${{ steps.plan.outputs.python }}
packet_capture: ${{ steps.plan.outputs.packet_capture }}
signal_recording: ${{ steps.plan.outputs.signal_recording }}
sqlite: ${{ steps.plan.outputs.sqlite }}
runtime: ${{ steps.plan.outputs.runtime }}
package: ${{ steps.plan.outputs.package }}
@@ -147,9 +144,6 @@ jobs:
- uses: actions/setup-node@49933ea5288caeca8642d1e84afbd3f7d6820020 # v4.4.0
with:
node-version-file: .nvmrc
- name: Validate source architecture before dependency installation
if: needs.changes.outputs.code == 'true'
run: node scripts/verify/architecture-guards.mjs
- name: Cache npm package downloads
id: npm-cache
uses: ./.github/actions/npm-cache
@@ -270,27 +264,6 @@ jobs:
if-no-files-found: ignore
retention-days: 7
python:
name: Python producer tests
needs: changes
if: needs.changes.outputs.python == 'true' && needs.changes.outputs.tier == 'fast'
runs-on: ubuntu-latest
timeout-minutes: 10
steps:
- uses: actions/checkout@11d5960a326750d5838078e36cf38b85af677262 # v4.4.0
- uses: actions/setup-node@49933ea5288caeca8642d1e84afbd3f7d6820020 # v4.4.0
with:
node-version-file: .nvmrc
- name: Cache npm package downloads
id: npm-cache
uses: ./.github/actions/npm-cache
- run: npm ci
# Analysis-efficiency checks import compiled process modules.
- name: Reuse portable build outputs across runs
uses: ./.github/actions/portable-build-cache
- run: npm run test:prepare
- run: npm run test:python
test-source:
name: Source tests
needs: changes
@@ -418,9 +391,7 @@ jobs:
needs.changes.outputs.web_network == 'true' ||
needs.changes.outputs.web_runtime == 'true' ||
needs.changes.outputs.web_source_map == 'true' ||
needs.changes.outputs.agentenv == 'true' ||
needs.changes.outputs.packet_capture == 'true' ||
needs.changes.outputs.signal_recording == 'true'
needs.changes.outputs.agentenv == 'true'
runs-on: ubuntu-latest
timeout-minutes: 10
permissions:
@@ -779,12 +750,6 @@ jobs:
npm run verify:legacy-simulator
npm run verify:apple-dispatch
npm run verify:interface-builder
- name: Verify portable iNES CLI, MCP and source boundaries
run: >-
npm run test:focused --
tests/acceptance/inesContainer.test.ts
tests/boundary/filesystem/inesArtifact.test.ts
tests/boundary/filesystem/inesCancellation.test.ts
- name: Run native Apple and process boundary regressions
run: >-
npm run test:focused --
@@ -805,13 +770,9 @@ jobs:
tests/boundary/cli/nativeDemangleCli.test.ts
tests/boundary/cli/nativeDispatchPropertyAttributes.test.ts
tests/boundary/mcp/nativeDemangleMcp.test.ts
tests/boundary/mcp/nativeMachoSummaryMcp.test.ts
tests/boundary/providers/native/nativeSignatureTargetBinding.test.ts
tests/boundary/providers/native/nativeUiOffscreenWindow.test.ts
tests/boundary/process/nativeUiVerifierLane.test.ts
tests/boundary/cli/nativeSignatureCli.test.ts
tests/boundary/cli/nativeMachoArm64_32Cli.test.ts
tests/boundary/cli/nativeMachoEncryptionCli.test.ts
tests/boundary/mcp/nativeSignatureTargetBindingMcp.test.ts
src/process/capture/FilesystemSnapshot.test.ts
tests/process-global/filesystemSnapshotFallbackCancellation.test.ts
@@ -1130,26 +1091,6 @@ jobs:
build_cache_artifact: rea-build-cache
remote_cache_write: ${{ inputs.remote_cache_write == true || (github.ref == format('refs/heads/{0}', github.event.repository.default_branch) && (github.event_name == 'push' || github.event_name == 'schedule' || github.event_name == 'workflow_dispatch')) }}
packet_capture:
needs: [changes, static, build]
if: needs.changes.outputs.packet_capture == 'true'
secrets:
TURBO_TOKEN: ${{ secrets.TURBO_TOKEN }}
uses: ./.github/workflows/real-packet-capture.yml
with:
build_cache_artifact: rea-build-cache
remote_cache_write: ${{ inputs.remote_cache_write == true || (github.ref == format('refs/heads/{0}', github.event.repository.default_branch) && (github.event_name == 'push' || github.event_name == 'schedule' || github.event_name == 'workflow_dispatch')) }}
signal_recording:
needs: [changes, static, build]
if: needs.changes.outputs.signal_recording == 'true'
secrets:
TURBO_TOKEN: ${{ secrets.TURBO_TOKEN }}
uses: ./.github/workflows/real-signal-recording.yml
with:
build_cache_artifact: rea-build-cache
remote_cache_write: ${{ inputs.remote_cache_write == true || (github.ref == format('refs/heads/{0}', github.event.repository.default_branch) && (github.event_name == 'push' || github.event_name == 'schedule' || github.event_name == 'workflow_dispatch')) }}
nativeaot:
needs: [changes, static]
if: needs.changes.outputs.nativeaot == 'true'
@@ -1176,9 +1117,6 @@ jobs:
static-deep,
build,
reverse-tools-quality,
python,
packet_capture,
signal_recording,
test-shard,
test-source,
sqlite-runtime,
-61
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@@ -1,61 +0,0 @@
name: CodeQL production
on:
push:
branches: [main]
pull_request:
branches: [main]
schedule:
- cron: "37 5 * * 1"
workflow_dispatch:
permissions:
contents: read
concurrency:
group: codeql-production-${{ github.event.pull_request.number || github.ref }}
cancel-in-progress: true
jobs:
analyze:
# A repository administrator must disable default setup before enabling
# this workflow; default setup rejects advanced CodeQL result uploads.
if: vars.REA_CODEQL_ADVANCED == 'true'
name: Analyze production (${{ matrix.language }})
runs-on: ubuntu-latest
timeout-minutes: 45
permissions:
contents: read
security-events: write
strategy:
fail-fast: false
max-parallel: 1
matrix:
language: [javascript-typescript, python, actions]
steps:
- uses: actions/checkout@d23441a48e516b6c34aea4fa41551a30e30af803 # v6.1.0
with:
persist-credentials: false
- name: Initialize production analysis
uses: github/codeql-action/init@9b3254085494b55a0f7c4c2b3d2d52cc712ce370 # v4
with:
languages: ${{ matrix.language }}
build-mode: none
config-file: .github/codeql/production.yml
threads: 2
ram: 4096
- name: Analyze production code
uses: github/codeql-action/analyze@9b3254085494b55a0f7c4c2b3d2d52cc712ce370 # v4
with:
category: /language:${{ matrix.language }}
output: ${{ runner.temp }}/codeql-production-results
threads: 2
ram: 4096
- name: Retain complete analysis evidence
if: always()
uses: actions/upload-artifact@ea165f8d65b6e75b540449e92b4886f43607fa02 # v4.6.2
with:
name: codeql-production-${{ matrix.language }}
path: ${{ runner.temp }}/codeql-production-results
if-no-files-found: error
retention-days: 7
@@ -62,36 +62,3 @@ jobs:
> "${probe_root}/output.log" 2>&1 || { cat "${probe_root}/output.log"; exit 1; }
cat "${probe_root}/output.log"
grep -F 'REA_ARM_CONTEXT_OK arm=0 thumb=1 unavailable=null (injected provider value)' "${probe_root}/output.log"
# Each probe imports source-owned bytes at 0x1000, away from the Cortex-M
# vector symbols that ARMCortex.pspec defines at 0, and decodes them from
# the language's default context, so M-profile Thumb state must hold at
# the first byte. The bytes are never executed.
- name: Decode M-profile ARM and Xtensa bytes in their default context
shell: bash
run: |
java_home_variable="JAVA_HOME_${GHIDRA_JAVA_MAJOR}_X64"
export JAVA_HOME="${!java_home_variable}"
probe_root="${RUNNER_TEMP}/rea-decode"
mkdir -p "${probe_root}"
# mrs r0, msp; bx lr
printf '\357\363\010\200\160\107' > "${probe_root}/cortex.bin"
# mrs r0, msplim (ARMv8-M only); bx lr
printf '\357\363\012\200\160\107' > "${probe_root}/v8m.bin"
# entry a1, 32; retw.n
printf '\066\101\000\035\360' > "${probe_root}/xtensa.bin"
decode() {
local name="$1" language="$2"
shift 2
mkdir -p "${probe_root}/${name}-project"
timeout 180s "${GHIDRA_INSTALL_DIR}/support/analyzeHeadless" "${probe_root}/${name}-project" Decode \
-import "${probe_root}/${name}.bin" -loader BinaryLoader -loader-baseAddr 0x1000 \
-processor "${language}" -noanalysis -readOnly -deleteProject \
-scriptPath "${GITHUB_WORKSPACE}/tests/conformance/ghidra" \
-postScript ReaDecodeProbe.java "${language}" "$@" \
> "${probe_root}/${name}.log" 2>&1 || { cat "${probe_root}/${name}.log"; exit 1; }
cat "${probe_root}/${name}.log"
grep -F "REA_DECODE_OK ${language} $*" "${probe_root}/${name}.log"
}
decode cortex ARM:LE:32:Cortex mrs/4/msp bx/2/lr
decode v8m ARM:LE:32:v8-m mrs/4/msplim bx/2/lr
decode xtensa Xtensa:LE:32:default entry/3/a1 retw.n/2
+7 -8
View File
@@ -54,11 +54,10 @@ jobs:
- uses: actions/setup-python@a26af69be951a213d495a4c3e4e4022e16d87065 # v5.6.0
with:
python-version: "3.12"
# The pinned framework builds its gateway and service-db images only when pulling them from
# ghcr.io fails, from public ECR base images; public ECR caps anonymous pulls by data per source
# IP and hosted runners share IPs, so such a build can fail here for hours. mirror.gcr.io serves
# the same Docker official images under the same digests, so each base image those Dockerfiles
# name is pulled there and named as its Dockerfile names it, as the framework's own CI does.
# Public ECR caps anonymous pulls by data per source IP and hosted runners share IPs, so the
# framework's image builds can fail here for hours. mirror.gcr.io serves the same Docker
# official images under the same digests, so each base image the pinned framework builds from
# is pulled there and named as its Dockerfile names it, as the framework's own CI does.
# Digest-pinned names are set in containerd, whose images Docker reads only on the containerd
# image store; switching stores restarts dockerd, so it happens before anything uses Docker.
- name: Use the containerd image store
@@ -73,16 +72,16 @@ jobs:
run: |
runner_root="${RUNNER_TEMP}/rea-agentenv-runner"
python -m venv "${runner_root}"
"${runner_root}/bin/python" -m pip install --require-virtualenv --no-cache-dir 'agentenv-framework==0.9.1431'
"${runner_root}/bin/python" -m pip install --require-virtualenv --no-cache-dir 'agentenv-framework==0.9.1334'
"${runner_root}/bin/agent-env" --version
docker version --format '{{.Server.Version}}'
echo "REA_AGENT_ENV_COMMAND=${runner_root}/bin/agent-env" >> "${GITHUB_ENV}"
echo "REA_DOCKER_COMMAND=$(command -v docker)" >> "${GITHUB_ENV}"
- name: Pull the gateway and service-db public ECR base images from mirror.gcr.io
- name: Pull the pinned framework's public ECR base images from mirror.gcr.io
shell: bash
run: |
package="$("${REA_AGENT_ENV_COMMAND%/agent-env}/python" -c 'import agent_env, pathlib; print(pathlib.Path(agent_env.__file__).parent)')"
grep -rhoE '^FROM +public\.ecr\.aws/docker/library/[^ ]+' --include='Dockerfile*' "${package}/env/gateway" "${package}/env/envs/service_db" | awk '{print $2}' | sort -u |
grep -rhoE '^FROM +public\.ecr\.aws/docker/library/[^ ]+' --include='Dockerfile*' "${package}" | awk '{print $2}' | sort -u |
while read -r image; do
name=${image#public.ecr.aws/docker/library/}
source=mirror.gcr.io/library/$name
+1 -9
View File
@@ -11,7 +11,6 @@ on:
- tests/conformance/android/**
- tests/fixtures/android/static-initializers/**
- tests/fixtures/android/direct-invokes/**
- tests/fixtures/android/external-invokes/**
- .nvmrc
workflow_dispatch:
workflow_call:
@@ -45,8 +44,7 @@ jobs:
"$JAVA_HOME/bin/javac" -J-Xmx512m -J-XX:ActiveProcessorCount=2 \
-classpath "$jar" -d "$classes" \
bridge/android/ReaJadxBridge.java \
tests/conformance/android/ReaJadxMetadataRegression.java \
tests/conformance/android/ReaJadxExternalReferencesRegression.java
tests/conformance/android/ReaJadxMetadataRegression.java
"$JAVA_HOME/bin/java" -Xmx512m -XX:ActiveProcessorCount=2 \
-classpath "$classes:$jar" ReaJadxMetadataRegression \
"$android_root/ApiDemos-debug.apk" \
@@ -55,9 +53,3 @@ jobs:
| tee "$android_root/metadata.log"
grep -F 'RAW_CLASS_SELECTOR_REGRESSION_PASS nested=true metadata=true references=true' \
"$android_root/metadata.log"
"$JAVA_HOME/bin/java" -Xmx512m -XX:ActiveProcessorCount=2 \
-classpath "$classes:$jar" ReaJadxExternalReferencesRegression \
"$GITHUB_WORKSPACE/tests/fixtures/android/external-invokes" "$classes" \
| tee "$android_root/external-references.log"
grep -F 'EXTERNAL_REFERENCE_REGRESSION_PASS prototypes=2 using_nodes=3 sites=4' \
"$android_root/external-references.log"
+3 -3
View File
@@ -55,12 +55,12 @@ jobs:
- uses: ./.github/actions/portable-build-cache
with:
build_cache_artifact: ${{ inputs.build_cache_artifact }}
- name: Install AArch64 and ELF32 cross toolchains for source-owned fixtures
- name: Install ELF32 cross toolchains for source-owned fixtures
run: |
sudo apt-get update
sudo apt-get install --yes --no-install-recommends \
gcc-aarch64-linux-gnu gcc-i686-linux-gnu gcc-arm-linux-gnueabi gcc-mips-linux-gnu gcc-mipsel-linux-gnu \
libc6-dev-arm64-cross libc6-dev-i386-cross libc6-dev-armel-cross libc6-dev-mips-cross libc6-dev-mipsel-cross
gcc-i686-linux-gnu gcc-arm-linux-gnueabi gcc-mips-linux-gnu gcc-mipsel-linux-gnu \
libc6-dev-i386-cross libc6-dev-armel-cross libc6-dev-mips-cross libc6-dev-mipsel-cross
- name: Acquire exact upstream libraries in an isolated runner environment
shell: bash
run: |
-5
View File
@@ -53,8 +53,3 @@ jobs:
env:
REA_BROWSER_EXECUTABLE: /usr/bin/google-chrome
REA_BROWSER_NO_SANDBOX: "true"
# The preceding verifier builds the runtime used by this request journey.
- run: dbus-run-session -- node scripts/verify-browser-request.mjs
env:
REA_BROWSER_EXECUTABLE: /usr/bin/google-chrome
REA_BROWSER_NO_SANDBOX: "true"
+32 -38
View File
@@ -1,35 +1,39 @@
name: Real packet capture
on:
workflow_call:
inputs:
build_cache_artifact:
description: Portable build cache artifact from the calling CI run.
required: false
type: string
default: ""
remote_cache_write:
description: Trusted release qualification may publish the remote cache.
required: false
type: boolean
default: false
secrets:
TURBO_TOKEN:
description: Remote cache token. Only trusted callers pass it.
required: false
workflow_dispatch:
env:
HUSKY: "0"
# A called workflow sees the caller event, so workflow_call is not an event
# name here. Writes when remote_cache_write is set, or on the default branch
# for push, schedule, and manual dispatch. Open pull requests stay empty-token
# and use the local cache only.
TURBO_TOKEN: "${{ (inputs.remote_cache_write == true || (github.ref == format('refs/heads/{0}', github.event.repository.default_branch) && (github.event_name == 'push' || github.event_name == 'schedule' || github.event_name == 'workflow_dispatch'))) && secrets.TURBO_TOKEN || '' }}"
TURBO_TEAM: ${{ vars.TURBO_TEAM }}
TURBO_CACHE: "${{ (inputs.remote_cache_write == true || (github.ref == format('refs/heads/{0}', github.event.repository.default_branch) && (github.event_name == 'push' || github.event_name == 'schedule' || github.event_name == 'workflow_dispatch'))) && 'local:rw,remote:rw' || 'local:rw' }}"
pull_request:
paths:
- "tests/boundary/captures/**"
- "tests/boundary/cli/captureCleanup.test.ts"
- "tests/boundary/mcp/packetCaptureMcp.test.ts"
- "src/captures/**"
- "src/pcap/**"
- "src/domain/pcap/**"
- "src/domain/analysisView/pcapCaptureView.ts"
- "src/application/pcap/**"
- "src/contracts/pcap/**"
- "src/server/registerPcapTools.ts"
- "tests/boundary/pcap/**"
- "src/domain/captures/**"
- "src/application/captures/**"
- "src/contracts/captures/**"
- "src/composition/captures.ts"
- "src/cli/captureCommands.ts"
- "src/server/registerCaptureTools.ts"
- "scripts/verify-packet-capture.mjs"
- ".github/workflows/real-packet-capture.yml"
permissions:
contents: read
env:
HUSKY: "0"
# Writes only on the default branch for push, schedule, manual dispatch,
# and workflow_call. Pull requests get an empty token and remote read-only mode.
TURBO_TOKEN: "${{ (github.ref == format('refs/heads/{0}', github.event.repository.default_branch) && (github.event_name == 'push' || github.event_name == 'schedule' || github.event_name == 'workflow_dispatch' || github.event_name == 'workflow_call')) && secrets.TURBO_TOKEN || '' }}"
TURBO_TEAM: ${{ vars.TURBO_TEAM }}
TURBO_CACHE: "${{ (github.ref == format('refs/heads/{0}', github.event.repository.default_branch) && (github.event_name == 'push' || github.event_name == 'schedule' || github.event_name == 'workflow_dispatch' || github.event_name == 'workflow_call')) && 'local:rw,remote:rw' || 'local:rw,remote:r' }}"
concurrency:
group: real-packet-capture-${{ github.event.pull_request.number || github.ref }}
cancel-in-progress: true
jobs:
tshark:
runs-on: ubuntu-24.04
@@ -44,18 +48,8 @@ jobs:
uses: ./.github/actions/npm-cache
- run: sudo apt-get update && sudo DEBIAN_FRONTEND=noninteractive apt-get install -y tshark util-linux python3
- run: npm ci
- uses: ./.github/actions/portable-build-cache
with:
build_cache_artifact: ${{ inputs.build_cache_artifact }}
- run: npm run build:cached
- name: Run focused tests and require Linux resource and cleanup cases
run: |
report=".cache/rea-packet-required-tests.json"
mkdir -p .cache
rm -f "$report"
node scripts/run-exact-tests.mjs run --reporter=default --reporter=json --outputFile.json="$report" \
tests/boundary/captures/fieldDiscovery.test.ts src/process/LinuxResourceLimits.test.ts tests/boundary/captures/captureProvider.test.ts tests/boundary/captures/captureDescriptorCleanup.test.ts tests/boundary/pcap/pcapProvider.test.ts tests/boundary/pcap/pcapProviderCrossPlatform.test.ts tests/boundary/captures/resourceLimits.test.ts tests/boundary/captures/packetOutput.test.ts tests/boundary/mcp/packetCaptureMcp.test.ts tests/boundary/cli/captureCleanup.test.ts tests/acceptance/pcapVerifier.test.ts
node scripts/ci/require-provider-tests.mjs packet "$report"
- run: npm run test:focused -- tests/boundary/captures/fieldDiscovery.test.ts src/process/LinuxResourceLimits.test.ts tests/boundary/captures/captureProvider.test.ts tests/boundary/captures/captureDescriptorCleanup.test.ts tests/boundary/pcap/pcapProvider.test.ts tests/boundary/pcap/pcapProviderCrossPlatform.test.ts tests/boundary/captures/resourceLimits.test.ts tests/boundary/captures/packetOutput.test.ts tests/boundary/mcp/packetCaptureMcp.test.ts tests/boundary/cli/captureCleanup.test.ts
- run: node scripts/verify-packet-capture.mjs
env:
REA_TSHARK_COMMAND: /usr/bin/tshark
+25 -38
View File
@@ -1,35 +1,32 @@
name: Real signal recording
on:
workflow_call:
inputs:
build_cache_artifact:
description: Portable build cache artifact from the calling CI run.
required: false
type: string
default: ""
remote_cache_write:
description: Trusted release qualification may publish the remote cache.
required: false
type: boolean
default: false
secrets:
TURBO_TOKEN:
description: Remote cache token. Only trusted callers pass it.
required: false
workflow_dispatch:
env:
HUSKY: "0"
# A called workflow sees the caller event, so workflow_call is not an event
# name here. Writes when remote_cache_write is set, or on the default branch
# for push, schedule, and manual dispatch. Open pull requests stay empty-token
# and use the local cache only.
TURBO_TOKEN: "${{ (inputs.remote_cache_write == true || (github.ref == format('refs/heads/{0}', github.event.repository.default_branch) && (github.event_name == 'push' || github.event_name == 'schedule' || github.event_name == 'workflow_dispatch'))) && secrets.TURBO_TOKEN || '' }}"
TURBO_TEAM: ${{ vars.TURBO_TEAM }}
TURBO_CACHE: "${{ (inputs.remote_cache_write == true || (github.ref == format('refs/heads/{0}', github.event.repository.default_branch) && (github.event_name == 'push' || github.event_name == 'schedule' || github.event_name == 'workflow_dispatch'))) && 'local:rw,remote:rw' || 'local:rw' }}"
pull_request:
paths:
- "tests/boundary/signals/**"
- "tests/boundary/cli/signalCleanup.test.ts"
- "tests/boundary/mcp/signalRecordingMcp.test.ts"
- "src/signals/**"
- "src/domain/signals/**"
- "src/application/signals/**"
- "src/contracts/signals/**"
- "src/composition/signals.ts"
- "src/cli/signalCommands.ts"
- "src/server/registerSignalTools.ts"
- "scripts/verify-signal-recording.mjs"
- ".github/workflows/real-signal-recording.yml"
permissions:
contents: read
env:
HUSKY: "0"
# Writes only on the default branch for push, schedule, manual dispatch,
# and workflow_call. Pull requests get an empty token and remote read-only mode.
TURBO_TOKEN: "${{ (github.ref == format('refs/heads/{0}', github.event.repository.default_branch) && (github.event_name == 'push' || github.event_name == 'schedule' || github.event_name == 'workflow_dispatch' || github.event_name == 'workflow_call')) && secrets.TURBO_TOKEN || '' }}"
TURBO_TEAM: ${{ vars.TURBO_TEAM }}
TURBO_CACHE: "${{ (github.ref == format('refs/heads/{0}', github.event.repository.default_branch) && (github.event_name == 'push' || github.event_name == 'schedule' || github.event_name == 'workflow_dispatch' || github.event_name == 'workflow_call')) && 'local:rw,remote:rw' || 'local:rw,remote:r' }}"
concurrency:
group: real-signal-recording-${{ github.event.pull_request.number || github.ref }}
cancel-in-progress: true
jobs:
sigrok:
runs-on: ubuntu-24.04
@@ -44,18 +41,8 @@ jobs:
uses: ./.github/actions/npm-cache
- run: sudo apt-get update && sudo apt-get install -y sigrok-cli util-linux python3
- run: npm ci
- uses: ./.github/actions/portable-build-cache
with:
build_cache_artifact: ${{ inputs.build_cache_artifact }}
- run: npm run build:cached
- name: Run focused tests and require Linux resource and cleanup cases
run: |
report=".cache/rea-signal-required-tests.json"
mkdir -p .cache
rm -f "$report"
node scripts/run-exact-tests.mjs run --reporter=default --reporter=json --outputFile.json="$report" \
tests/boundary/signals/decoderDiscovery.test.ts src/process/LinuxResourceLimits.test.ts src/domain/signals/annotationTextWindow.test.ts tests/boundary/signals/recordingProvider.test.ts tests/boundary/signals/recordingDescriptorCleanup.test.ts tests/boundary/signals/resourceLimits.test.ts tests/boundary/mcp/signalRecordingMcp.test.ts tests/boundary/cli/signalCleanup.test.ts
node scripts/ci/require-provider-tests.mjs signal "$report"
- run: npm run test:focused -- tests/boundary/signals/decoderDiscovery.test.ts src/process/LinuxResourceLimits.test.ts src/domain/signals/annotationTextWindow.test.ts tests/boundary/signals/recordingProvider.test.ts tests/boundary/signals/recordingDescriptorCleanup.test.ts tests/boundary/signals/resourceLimits.test.ts tests/boundary/mcp/signalRecordingMcp.test.ts tests/boundary/cli/signalCleanup.test.ts
- run: node scripts/verify-signal-recording.mjs
env:
REA_SIGROK_COMMAND: /usr/bin/sigrok-cli
-4
View File
@@ -21,10 +21,6 @@ jobs:
python-version: "3.12"
cache: pip
cache-dependency-path: website/requirements.txt
- name: Set up Node.js for the website Worker checks
uses: actions/setup-node@49933ea5288caeca8642d1e84afbd3f7d6820020 # v4.4.0
with:
node-version-file: .nvmrc
- name: Install sharing-image dependencies
run: |
sudo apt-get update
+8 -50
View File
@@ -54,10 +54,6 @@ jobs:
python-version: "3.12"
cache: pip
cache-dependency-path: website/requirements.txt
- name: Set up Node.js for the website Worker checks
uses: actions/setup-node@49933ea5288caeca8642d1e84afbd3f7d6820020 # v4.4.0
with:
node-version-file: .nvmrc
- name: Install sharing-image dependencies
run: |
sudo apt-get update
@@ -79,21 +75,10 @@ jobs:
PY
- name: Configure Pages
uses: actions/configure-pages@983d7736d9b0ae728b81ab479565c72886d7745b # v5.0.0
# upload-pages-artifact excludes dot directories, including .well-known.
- name: Package the website including agent discovery
run: |
tar --dereference --hard-dereference --directory website/_site \
--exclude=.git --exclude=.github -cf "$RUNNER_TEMP/artifact.tar" .
tar -tf "$RUNNER_TEMP/artifact.tar" \
./.well-known/ard.json ./.well-known/ai-catalog.json \
./.well-known/agent-skills/index.json > /dev/null
- name: Upload the website
uses: actions/upload-artifact@ea165f8d65b6e75b540449e92b4886f43607fa02 # v4.6.2
uses: actions/upload-pages-artifact@7b1f4a764d45c48632c6b24a0339c27f5614fb0b # v4.0.0
with:
name: github-pages
path: ${{ runner.temp }}/artifact.tar
retention-days: 1
if-no-files-found: error
path: website/_site
deploy:
needs: prepare
@@ -145,24 +130,14 @@ jobs:
PUBLISH_TARGET: ${{ inputs.target }}
run: |
python3 -u - <<'PY'
import hashlib
import json
import os
import sys
import time
from urllib.error import URLError
from urllib.parse import urljoin, urlsplit
from urllib.parse import urljoin
from urllib.request import Request, urlopen
def open_public(url, accept=None):
headers = {
"Cache-Control": "no-cache",
"User-Agent": "REA-Website-Verifier/1.0 (+https://github.com/morluto/rea)",
}
if accept:
headers["Accept"] = accept
return urlopen(Request(url, headers=headers), timeout=10)
expected = os.environ["GITHUB_SHA"]
pages_url = os.environ["PAGES_URL"]
if not pages_url:
@@ -178,7 +153,11 @@ jobs:
for name, base in list(pending.items()):
url = urljoin(base, "deployment.json") + "?commit=" + expected
try:
with open_public(url) as response:
request = Request(url, headers={
"Cache-Control": "no-cache",
"User-Agent": "REA-Website-Verifier/1.0 (+https://github.com/morluto/rea)",
})
with urlopen(request, timeout=10) as response:
actual = json.load(response).get("commit")
if actual == expected:
print(f"{name} serves {expected}: {base}")
@@ -193,27 +172,6 @@ jobs:
time.sleep(5)
if pending:
sys.exit("Could not verify published revision on: " + ", ".join(pending))
for name, base in hosts.items():
with open_public(urljoin(base, ".well-known/agent-skills/index.json")) as response:
skill, = json.load(response)["skills"]
# Fetch from each selected host, including the /rea/ mirror.
artifact_url = urljoin(base, urlsplit(skill["url"]).path.lstrip("/"))
with open_public(artifact_url) as response:
digest = "sha256:" + hashlib.sha256(response.read()).hexdigest()
if digest != skill["digest"]:
sys.exit(name + " serves a skill archive with the wrong digest")
for manifest in ("ard.json", "ai-catalog.json"):
with open_public(urljoin(base, ".well-known/" + manifest)) as response:
if not json.load(response).get("entries"):
sys.exit(name + " serves an empty discovery manifest")
if name == "Cloudflare":
with open_public(base, accept="text/markdown") as response:
vary = {value.strip().lower() for value in response.headers.get("Vary", "").split(",")}
if response.headers.get_content_type() != "text/markdown" or "accept" not in vary:
sys.exit("Cloudflare did not negotiate Markdown with Vary: Accept")
if 'rel="ard"' not in response.headers.get("Link", ""):
sys.exit("Cloudflare is missing its discovery Link header")
print(name + " serves the discovery manifests and verified skill archive")
with open(os.environ["GITHUB_STEP_SUMMARY"], "a", encoding="utf-8") as summary:
links = " and ".join(f"[{name}]({url})" for name, url in hosts.items())
summary.write(f"Published commit `{expected}` to {links}.\n")
+2 -15
View File
@@ -28,10 +28,6 @@ Assess brittleness in touched code during implementation, debugging, review, and
When fixing a bug, inspect the producing boundary and affected consumers for duplicated interpretation or unclear ownership. Complete any directly related refactor in the same change and remove superseded code. Passing regression tests alone does not establish that the brittleness is resolved. If related cleanup remains, explain what remains and why.
After confirming a bug, search sibling adapters, consumers and similar workflows
for the same failure. Verify suspected matches, record working comparisons, and
group findings by root cause instead of filing duplicate reports.
When addressing a review thread, inspect the producing boundary and affected consumers for brittleness. Complete directly related refactoring in the same change. Before resolving the thread, explain the root cause, structural fix, validation, and any remaining cleanup.
Parse unknown boundary values and model expected failures with the tagged error algebra and `Result`. Preserve partial facts and meaningful failure reasons. Keep identity and lookup values separate from display formatting; preserve source values and explicit unknowns when normalization loses information. Absolute paths, file URLs, and HTTP paths have different semantics.
@@ -79,9 +75,6 @@ Use [.nvmrc](.nvmrc) and `package.json#packageManager` for the pinned toolchain.
Use relevant checks for the change. The complete local gate, `npm run check:pr`, is optional for broad changes or CI diagnosis. See [CONTRIBUTING.md](CONTRIBUTING.md) for development, generated-file ownership, and release conventions.
When changing installers or setup recovery, follow
[Checking installers and publisher downloads](docs/testing.md#checking-installers-and-publisher-downloads).
Coordinate expensive checks across agents. If a test unexpectedly consumes heavy CPU, stop its owned process family and profile a bounded representative case before retrying. Inspect production work, fixture generation, subprocesses, and repeated setup; preserve regression coverage when optimizing. Follow the [test resource guidance](docs/testing.md#developer-commands).
`docs/public/product-catalog.json`, `docs/verification/managed-conformance-*.json`, and `skills/` are ignored outputs. Edit source contracts and `.agents/skills/reverse-engineer-anything/`, then regenerate as needed. `.cache/mcp-tool-catalog.json` is test metadata; runtime builds and source checking do not consume it. Never commit binaries, provider project documents, credentials, `dist/`, `node_modules/`, or local planning artifacts.
@@ -90,12 +83,6 @@ Coordinate expensive checks across agents. If a test unexpectedly consumes heavy
For tool design, follow [docs/tool-design.md](docs/tool-design.md): start from the analyst question, reuse existing contracts, preserve caller choices, and return useful evidence inline. Limits must follow real format, protocol, authority, or resource constraints. Account for representation expansion before allocation; derive completeness from examined coverage.
For user- or agent-facing tool problems, prioritize fixing the owning behavior,
contract, and actionable result or recovery at the point of use. Document the
result in product docs when explanation is needed. Add skill guidance only for
workflow judgment or context that the tool cannot reasonably convey; do not use
a skill as the primary repair for a discoverability or contract defect.
For test changes or provider claims, use [docs/testing.md](docs/testing.md). Select applicable [boundary regressions](docs/testing.md#boundary-regressions) for parser, inventory, snapshot, and projection fixes. Prefer real public CLI/MCP workflows, then production-boundary integration, then producer goldens. Keep module tests for distinct semantics stronger workflows cannot reliably reproduce. Preserve malformed-input, cancellation, cleanup, permission, capacity, and target-identity coverage when pruning. Report unverified coverage explicitly; simulated providers do not establish real-provider behavior.
Use Conventional Commit subjects and PR titles. Mark breaking changes with `!` or a `BREAKING CHANGE:` footer. Describe behavior changes, relevant validation, and real-provider verification scope.
@@ -128,8 +115,8 @@ owner to complete. Never attest to human review on their behalf. Draft status
is optional; preserve the PR's current draft status unless the user asks to change
it. Later pushes do not invalidate the readiness declaration or require another
human sign-off. Keep the PR body and affected validation current as work changes.
The readiness check validates the filled declaration or the author exemption
listed in CONTRIBUTING.md; CI and automated review results do not establish that
The readiness check validates
the filled declaration; CI and automated review results do not establish that
human review occurred, maintainer scope approval, or merge permission.
<!-- BEGIN:turborepo-agent-rules -->
+9 -26
View File
@@ -16,9 +16,10 @@ import inventory. For current provider wiring, start with
[`src/composition/binary.ts`](src/composition/binary.ts) for deep candidates and
the other `src/composition/` factories for tool services, including
[`gpu.ts`](src/composition/gpu.ts) and [`model.ts`](src/composition/model.ts).
Live Frida, Cutter, GDB and Rizin construction also uses shared composition
factories. For service ownership, availability and catalog declarations, follow
the [capability composition guide](docs/capability-composition.md).
Live Frida and Cutter adapters are constructed directly in
[`src/cli/fridaCommands.ts`](src/cli/fridaCommands.ts),
[`src/cli/cutterCommands.ts`](src/cli/cutterCommands.ts), and
[`src/server/createServer.ts`](src/server/createServer.ts).
Production factories construct fresh providers without starting engines or
acquiring targets; optional adapter failures must preserve successful peers. Run
`npm run verify:test-discovery` after adding or moving tests. Resolved import
@@ -93,8 +94,7 @@ Before requesting maintainer review, the human owner must:
passing. Follow the [verification requirements](#development-feedback-and-pr-verification)
for required checks and real-provider coverage.
- Complete the **Author readiness** declaration in the PR template, explicitly
stating that the PR is ready for initial review, unless the PR author is
exempt from the declaration as listed below.
stating that the PR is ready for initial review.
Keep the PR description concise and current. Explain the problem, observable
outcome, approach, and useful evidence; link long logs or put them in optional
@@ -115,12 +115,9 @@ validation current as work changes. AI agents must leave human declarations to
the human owner and must not attest to a human review on their behalf.
The `PR readiness` check reports pending for drafts and requires a named human
owner and all three template declarations for non-drafts. PRs authored by
@morluto, @kaoru0822-kitauji, @N0zoM1z0, or @gensokyo-dev are exempt from
the declaration; their human ownership, review, and evidence responsibilities
above still apply. The check identifies authors by GitHub account ID. It checks
that the declaration is filled, not whether the code or evidence is correct.
Existing PRs can copy the **Author readiness** section from the current template.
owner and all three template declarations for non-drafts. It checks that the
declaration is filled, not whether the code or evidence is correct. Existing PRs
can copy the **Author readiness** section from the current template.
Open PRs must have distinct head commits because GitHub shares commit statuses.
Maintainers enable merge enforcement after the workflow is merged: run
@@ -235,8 +232,6 @@ Use the development toolchain pinned in `.nvmrc` and
`package.json#packageManager`. Run `nvm use` before installing dependencies;
installed-package runtime support is documented in
[installation](docs/installation.md#start-setup).
Use Node.js and npm for source builds and verifier scripts; the installed
package's Bun runtime support does not extend to those development scripts.
```bash
npm ci
@@ -251,15 +246,6 @@ catalogs, documentation projections, or managed verification evidence. Turbo
caches deterministic builds and static checks across Git worktrees. After a package, lockfile, or managed-skill version change, run
`npm run metadata:generate` before building.
Dependabot proposes updates for the npm lockfiles, website Python requirements,
and GitHub Actions. Review dependency changes and run the checks relevant to
their consumers. For dependencies maintained outside Dependabot, including
`third_party/` and the HTTP/3 lab's pinned requirements, the maintainer should
review upstream security advisories when updating or using them. Preserve source
and version provenance, update license notices when needed, and report which
verification was actually repeated. The lab requirements describe a recorded
environment; a dependency update does not verify the revised environment.
Repository invariants live in [AGENTS.md](AGENTS.md). Keep provider-specific
protocols in adapters and shared CLI/MCP workflows in the application layer.
@@ -286,10 +272,7 @@ The general source suite (`npm run test:fast`, `npm run test:changed`, and
On a Windows checkout, some source tests fail because fixtures use POSIX paths,
`#!/bin/sh` tool stubs, or POSIX rename semantics. Compare failures against the
base revision, or run the suite on Linux or WSL, before attributing them to a
change. The embedded-artifact parent-swap tests exercise the selected-path
replacement when the rename succeeds; if Windows refuses it while the admitted
file is open, they instead verify the refusal and cleanup. See
[testing](docs/testing.md#developer-commands) for command scopes
change. See [testing](docs/testing.md#developer-commands) for command scopes
and lane selection.
`git submodule update --init --recursive` fails at the pinned Unblob submodule
+6 -11
View File
@@ -20,8 +20,6 @@
**[Website](https://rea.tools/) · [Guides](https://rea.tools/guides/) · [Showcases](https://rea.tools/showcase/)**
<a href="https://discord.com/invite/GkcryMnJDM"><img alt="Join the REA community on Discord" src="https://img.shields.io/badge/Join%20us%20on%20Discord-5865F2?style=for-the-badge&logo=discord&logoColor=white" height="40"></a>
[Quick start](#quick-start) · [How REA works](#how-rea-works) · [What you can analyze](#what-you-can-analyze) · [Showcases](#showcases) · [Build RL environments](#build-rl-environments) · [FAQ](#faq) · [Documentation](#documentation)
<code>npx rea-agents setup</code>
@@ -64,7 +62,7 @@ See a feature in an app that you want in your own product? Ask your agent to inv
REA connects your agent to tools for inspecting native binaries, JavaScript and Electron apps, .NET assemblies, and websites. You can also use the same tools from your terminal. Analysis runs locally, and results include the evidence and limitations behind each conclusion.
Setup registers REA with your agent and installs matching workflow instructions. Native analysis can use an existing Hopper, Ghidra, IDA or Kuna installation; setup can optionally install Hopper with approval. Static JavaScript analysis needs no native analysis engine.
Setup registers REA with your agent and installs matching workflow instructions. Native analysis can use an existing Hopper, Ghidra, or IDA installation; setup can optionally install Hopper with approval. Static JavaScript analysis needs no native analysis engine.
> **[Visit the REA website](https://rea.tools/)** for setup instructions, illustrated guides, and real case studies.
@@ -194,7 +192,7 @@ Additional tools and host support depend on the target:
| Target | What REA returns | Requirements and guide |
| ----------------------- | ------------------------------------------------------------------------------------------------- | ------------------------------------------------------------------------------------------------------------------------------------- |
| Desktop installations | Runtime candidates, supporting files, component markers and next probes | Built-in bounded directory/header inspection; [desktop applications](docs/desktop-applications.md) |
| Native binaries | Pseudocode, assembly, strings, symbols, calls and references | Hopper, Ghidra, IDA or Kuna; [native analysis](docs/native-investigation.md) |
| Native binaries | Pseudocode, assembly, strings, symbols, calls and references | Hopper, Ghidra or IDA; [native analysis](docs/native-investigation.md) |
| Offline ELF layout | Sections, segments, original symbols/relocations and static mitigation candidates | Caller-supplied pwntools on Linux x64; [binary diagnostics](docs/binary-diagnostics.md) |
| Go binaries | Embedded compiler version, modules, replacements and build settings | Built-in static ELF/PE/thin Mach-O inspection; no Go installation required |
| GPU code objects | CUDA/HIP targets, selected kernel parameters and resources, retained PTX text | Built-in static ELF/PE/fatbin/CUBIN/PTX inspection; [GPU code objects](docs/gpu-code-objects.md) |
@@ -205,7 +203,6 @@ Additional tools and host support depend on the target:
| PE certificates | Authenticode WIN_CERTIFICATE entries and PKCS#7 signer/X.509 identity fields | Built-in static PE inspection; [PE certificates](docs/pe-certificates.md) |
| PE imports | Import and delay-load DLL names, ordinals, IAT RVAs and pefile import hash | Built-in static PE inspection; [PE imports](docs/pe-imports.md) |
| ELF notes | PT_NOTE/SHT_NOTE owners, types, GNU build-id and ABI-tag fields | Built-in static ELF inspection; [ELF notes](docs/elf-notes.md) |
| Binary hardening | PIE, NX, RELRO, CFG and related header flags for ELF, PE and Mach-O | Built-in static header inspection; [binary hardening](docs/binary-hardening.md) |
| Apple IPS crashes | .ips metadata, threads, images, registers and documented crash classes | Built-in static JSON inspection; [Apple IPS](docs/apple-ips.md) |
| Linux kernel modules | .modinfo keys, __versions CRCs, this_module presence, and signature trailer | Built-in static ELF inspection; [kernel modules](docs/kernel-modules.md) |
| Erlang BEAM | IFF chunks, atoms, exports, imports, lambdas and the Code header | Built-in static BEAM inspection; [Erlang BEAM](docs/erlang-beam.md) |
@@ -347,13 +344,11 @@ Any agent that supports local MCP servers. Setup configures the
</details>
<details>
<summary><strong>Do I need a native analysis engine?</strong></summary>
<summary><strong>Do I need Hopper, Ghidra or IDA?</strong></summary>
Deep native analysis uses Hopper, Ghidra, IDA or Kuna, depending on the target
and operation. Static JavaScript and .NET inspection work without a native
analysis engine. Setup can install Hopper after approval; Ghidra, IDA and Kuna
use your existing installations. See [provider setup](docs/installation.md#hopper)
for the options and their supported targets.
Deep native analysis uses one of them. Static JavaScript and .NET inspection
work without a native analysis engine. Setup can install Hopper after approval;
Ghidra and IDA use your existing installations. See [provider setup](docs/installation.md#hopper).
</details>
+1 -2
View File
@@ -17,7 +17,6 @@ notices supplied with the software you actually obtain or redistribute.
| ------------------------ | ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- |
| npm dependencies | [Complete inventory](licenses/npm-dependencies.txt) of every entry in `package-lock.json`, including transitive, optional platform, development, and website dependencies. [Runtime notices](licenses/npm-runtime-notices.txt) preserve the copyright, license, and NOTICE documents from integrity-verified release archives, plus the MIT notice for Rolldown's generated runtime helpers. Development dependencies are inventoried but are not all distributed in REA's npm package. |
| pefile ordinal tables | Import-hash ordinal names are derived from [pefile 2024.8.26](https://github.com/erocarrera/pefile/tree/4b3b1e2e568a88d4f1897d694d684f23d9e270c4), copyright 2004–2024 Ero Carrera. Preserve the [MIT license](licenses/pefile-2024.8.26-LICENSE.txt). The Python package is not a runtime dependency. |
| UF2 family names | UF2 family IDs and short names are copied from [microsoft/uf2 `utils/uf2families.json`](https://github.com/microsoft/uf2/blob/cf3bd7f9c274b949528f8cd6a19eef2502a687d2/utils/uf2families.json), copyright Microsoft Corporation. Preserve the [MIT license](licenses/microsoft-uf2-MIT.txt). |
| NativeAOT parser | REA's derived parser uses the MIT-licensed [ghidra-nativeaot](https://github.com/Washi1337/ghidra-nativeaot/tree/effeb734fc570c32650f88b159608979dc7b423e) work of Washi and the NativeAOT layout definitions in [dotnet/runtime](https://github.com/dotnet/runtime/tree/a3b2d40328be0be3f8dd43f0e5cc925b8827b044). Preserve [Washi's MIT notice](licenses/nativeaot-parser-MIT.txt) and the [.NET Foundation MIT notice](licenses/dotnet-runtime-MIT.txt). |
| EVM analysis | `[email protected]`, MIT, copyright 2023 Maxim Andreev. The published npm archive omits its license document; REA retains the [original upstream license](third_party/evmole/LICENSE) and [provenance](third_party/evmole/README.md). It is also included in the runtime notices. |
| Windows native addon | The release addon is compiled with MinGW-w64 and statically links GCC runtime libraries. Preserve the [MinGW-w64 runtime notices](licenses/MinGW-w64-runtime.txt), [GPLv3 text](licenses/GPL-3.0.txt), and [GCC Runtime Library Exception 3.1](licenses/GCC-Runtime-Library-Exception-3.1.txt). The exception governs eligible compiled combinations; it does not relicense the runtime itself under MIT. The Node-API build headers are from Node 22.19.0; its [original license and component notices](licenses/Node-22.19.0-LICENSE.txt) are retained. Node itself is supplied by the user. Snapshot provenance and release-toolchain review requirements are in [licenses/README.md](licenses/README.md). |
@@ -60,7 +59,7 @@ pin inspection sources; they are not included in the npm package.
| ghidra-nativeaot | [MIT](https://github.com/Washi1337/ghidra-nativeaot/blob/effeb734fc570c32650f88b159608979dc7b423e/LICENSE.md) | Pinned inspection source; derived parser attribution above. |
| JADX | [Apache-2.0](https://github.com/skylot/jadx/blob/v1.5.6/LICENSE) | The audited jadx-headless-mcp source uses JADX 1.5.6 for Android decompilation; the engine JAR is separately supplied. |
| jadx-headless-mcp | [Apache-2.0](https://github.com/1013503897/jadx-headless-mcp/blob/5844800a486d2248fa949b74c9896285f5b54de2/LICENSE) | v0.7.1; pinned submodule and user-supplied JAR. |
| Kuna | [Apache-2.0](https://github.com/Noelo-Lab/kuna/blob/v1.990/LICENSE), with its [NOTICE](https://github.com/Noelo-Lab/kuna/blob/v1.990/NOTICE) | Bring your own `kuna`; REA verified 1.990 and never downloads, installs or bundles it. REA invokes it as a separate process. |
| Kuna | [Apache-2.0](https://github.com/Noelo-Lab/kuna/blob/v1.833/LICENSE), with its [NOTICE](https://github.com/Noelo-Lab/kuna/blob/v1.833/NOTICE) | Bring your own `kuna`; REA verified 1.833 and never downloads, installs or bundles it. REA invokes it as a separate process. |
| Apktool | [Apache-2.0](https://github.com/iBotPeaches/Apktool/blob/master/LICENSE.md) | User-supplied Android resource decoder. |
| Binwalk | [MIT](https://github.com/ReFirmLabs/binwalk/blob/4fdab3d464d97b68e0af9088df3f9e2e1545b21c/LICENSE) | v3.1.0; pinned submodule and user-supplied firmware engine. |
| Unblob | [MIT](https://github.com/onekey-sec/unblob/blob/1fcc7a0a584a70a96c31f5a276c20944d199a089/LICENSE) | 26.6.4; pinned submodule and user-supplied firmware engine. |
-262
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@@ -1,262 +0,0 @@
"""Run REA inside an agentenv build computer for REA on the host: capture the app, draft its task and export it.
REA sends this file's source through the computer's ``computer-exec/v1`` route as
``python3 -I -c <source> <command> <JSON arguments>``; each command prints one JSON line and exits. ``start``
leaves the capture running on its own: its stdin is a FIFO it holds open for reading and writing, so it never
sees the end of its input, and ``mark`` and ``stop`` write their requests there and wait for the capture's own
acknowledgement on its progress log. A small shell around the capture writes its exit status to a file, the
mark a later command reads. REA runs as the session user in the home, with no ``AGENTENV_*`` variable, so
neither REA nor the app it launches holds the computer's control token, and with ``APT_CONFIG`` naming the
package lists ``start`` downloads as that user, so the capture finds the package's sources.
"""
from __future__ import annotations
import hashlib
import json
import os
import re
import shutil
import subprocess
import sys
import time
POLL_S = 0.2
TAIL_BYTES = 4096
def _say(value: dict) -> int:
print(json.dumps(value), flush=True)
return 0
def _tail(path: str) -> str:
try:
with open(path, "rb") as handle:
handle.seek(max(0, os.path.getsize(path) - TAIL_BYTES))
return handle.read().decode("utf-8", "replace")
except OSError:
return ""
def _environment(work: str) -> dict:
environment = {name: value for name, value in os.environ.items() if not name.startswith("AGENTENV_")}
environment["APT_CONFIG"] = os.path.join(work, "apt", "apt.conf")
return environment
def _apt(work: str, timeout: float) -> dict:
"""Download the package lists into the work folder as the session user, until one update succeeds."""
root = os.path.join(work, "apt")
lists = os.path.join(root, "lists")
updated = os.path.join(root, "updated")
os.makedirs(os.path.join(lists, "partial"), exist_ok=True)
os.makedirs(os.path.join(root, "cache", "archives", "partial"), exist_ok=True)
with open(os.path.join(root, "apt.conf"), "w", encoding="utf-8") as conf:
conf.write(
f'Dir::State::Lists "{lists}";\n'
f'Dir::Cache "{root}/cache";\n'
'Debug::NoLocking "true";\n'
'APT::Update::Error-Mode "any";\n'
)
# apt keeps lists compressed as it fetched them, such as *_Packages.lz4 on Ubuntu.
count = lambda: len([name for name in os.listdir(lists) if re.search(r"_Packages(\.\w+)?$", name)]) # noqa: E731
# A marker left by an update that fetched nothing is not a success; download again.
if os.path.exists(updated) and count() > 0:
return {"lists": count(), "updated": False}
log = os.path.join(root, "update.log")
try:
with open(log, "wb") as output:
code = subprocess.run(["apt-get", "update"], env=_environment(work), stdin=subprocess.DEVNULL,
stdout=output, stderr=subprocess.STDOUT, timeout=timeout).returncode
except (OSError, subprocess.TimeoutExpired) as error:
return {"lists": count(), "updated": True, "error": f"{type(error).__name__}: {error}"}
lists_fetched = count()
if code == 0 and lists_fetched > 0:
# Only a whole update that fetched lists is kept, so a failed or empty one runs again.
open(updated, "w").close()
return {"lists": lists_fetched, "updated": True, "exit_code": code}
if code == 0:
return {"lists": lists_fetched, "updated": True, "exit_code": code,
"error": "apt-get update exited 0 without a package list"}
return {"lists": lists_fetched, "updated": True, "exit_code": code,
"error": f"apt-get update exited {code}: {_tail(log)[-1500:].strip()}"}
def _exit_code(capture: str):
try:
with open(os.path.join(capture, "exit"), encoding="utf-8") as handle:
return int(handle.read().strip() or "-1")
except (OSError, ValueError):
return None
def _event_line(path: str, offset: int, kinds: set, name):
"""The first progress line after ``offset`` whose event is of one of ``kinds``, for ``name`` when given."""
try:
with open(path, "rb") as handle:
handle.seek(offset)
lines = handle.read().decode("utf-8", "replace").splitlines()
except OSError:
return None
for line in lines:
try:
event = json.loads(line)["rea_progress"]["event"]
except (ValueError, KeyError, TypeError):
continue
if isinstance(event, dict) and event.get("kind") in kinds and (name is None or event.get("name") == name):
return line
return None
def _wait(capture: str, offset: int, kinds: set, name, timeout: float) -> dict:
"""Wait for the capture's event, or for it to exit, or for time to run out."""
log = os.path.join(capture, "progress.log")
deadline = time.monotonic() + timeout
while True:
line = _event_line(log, offset, kinds, name)
if line is not None:
return {"line": line}
code = _exit_code(capture)
if code is not None:
return {"exited": code, "progress": _tail(log), "output": _tail(os.path.join(capture, "capture.out"))}
if time.monotonic() > deadline:
return {"timed_out": True, "progress": _tail(log)}
time.sleep(POLL_S)
def start(arguments: dict) -> int:
work, capture = os.path.abspath(arguments["work"]), os.path.abspath(arguments["capture"])
rea = shutil.which("rea")
if rea is None:
return _say({"error": "REA is not installed in this computer; start the computer from a request, which installs it."})
if os.path.exists(capture):
return _say({"error": f"the capture folder {capture} is already used"})
apt = _apt(work, arguments.get("apt_timeout_s", 600))
try:
os.makedirs(capture)
except FileExistsError:
return _say({"error": f"a stop claimed {capture} before the capture launched", "apt": apt})
control = os.path.join(capture, "control")
os.mkfifo(control, 0o600)
argv = [rea, "capture-desktop-application", "--desktop-entry", arguments["desktop_entry"],
"--output", os.path.join(capture, "capture"), "--exclude", work, "--json"]
for value in arguments.get("arguments", []):
argv += ["--argument", value]
if arguments.get("package_file"):
argv += ["--package-file", arguments["package_file"]]
# Reading and writing, so the capture never reads the end of its input between requests.
reader = os.open(control, os.O_RDWR)
try:
with open(os.path.join(capture, "capture.out"), "wb") as out, \
open(os.path.join(capture, "progress.log"), "wb") as progress:
process = subprocess.Popen(
["sh", "-c", 'done=$1; shift; "$@"; code=$?; printf "%s" "$code" > "$done.tmp" && mv "$done.tmp" "$done"',
"sh", os.path.join(capture, "exit"), *argv],
cwd=os.path.expanduser("~"), env=_environment(work), stdin=reader, stdout=out, stderr=progress,
start_new_session=True)
finally:
os.close(reader)
waited = _wait(capture, 0, {"window_open"}, None, arguments.get("timeout_s", 120))
return _say({"pid": process.pid, "apt": apt, **waited})
def _request(capture: str, line: str) -> bool:
"""Write one request to the running capture; False when nothing reads its FIFO any more."""
try:
fd = os.open(os.path.join(capture, "control"), os.O_WRONLY | os.O_NONBLOCK)
except OSError:
return False
try:
os.write(fd, (line + "\n").encode("utf-8"))
finally:
os.close(fd)
return True
def mark(arguments: dict) -> int:
capture, name = os.path.abspath(arguments["capture"]), arguments["name"]
code = _exit_code(capture)
log = os.path.join(capture, "progress.log")
if code is not None:
return _say({"exited": code, "progress": _tail(log)})
# A checkpoint already taken, whose answer was lost, is answered from the capture's own log.
taken = _event_line(log, 0, {"checkpoint"}, name)
if taken is not None:
return _say({"line": taken})
offset = os.path.getsize(log)
if not _request(capture, f"checkpoint {name}"):
return _say({"error": "the capture is not reading its requests"})
return _say(_wait(capture, offset, {"checkpoint", "checkpoint_refused"}, name, arguments.get("timeout_s", 600)))
def stop(arguments: dict) -> int:
capture = os.path.abspath(arguments["capture"])
if _exit_code(capture) is None and not os.path.exists(os.path.join(capture, "control")):
# Never launched: claim the folder, so a start still on its way finds it used and launches nothing.
os.makedirs(capture, exist_ok=True)
return _say({"absent": True})
if _exit_code(capture) is None:
_request(capture, "stop")
deadline = time.monotonic() + arguments.get("timeout_s", 600)
while (code := _exit_code(capture)) is None and time.monotonic() < deadline:
time.sleep(POLL_S)
log = os.path.join(capture, "progress.log")
if code is None:
return _say({"timed_out": True, "progress": _tail(log)})
output = os.path.join(capture, "capture.out")
return _say({"exit_code": code, "progress": _tail(log), "output_bytes": os.path.getsize(output)})
def run(arguments: dict) -> int:
"""Run one REA command with its output in a file, after writing the files it reads."""
rea = shutil.which("rea")
if rea is None:
return _say({"error": "REA is not installed in this computer"})
for path, text in arguments.get("files", {}).items():
os.makedirs(os.path.dirname(path), exist_ok=True)
with open(path, "w", encoding="utf-8") as handle:
handle.write(text)
with open(arguments["stdout"], "wb") as out:
try:
done = subprocess.run([rea, *arguments["argv"]], cwd=os.path.expanduser("~"),
env=_environment(os.path.abspath(arguments["work"])), stdin=subprocess.DEVNULL, stdout=out,
stderr=subprocess.PIPE, timeout=arguments.get("timeout_s", 1800))
except subprocess.TimeoutExpired:
return _say({"timed_out": True})
return _say({"exit_code": done.returncode, "stdout_bytes": os.path.getsize(arguments["stdout"]),
"stderr": done.stderr[-TAIL_BYTES:].decode("utf-8", "replace")})
def listing(arguments: dict) -> int:
"""Every regular file under a folder, by its path relative to the home, with its size and SHA-256.
The list goes to the file ``output`` names, outside the folder, and the answer gives its size: a large
bundle's list outgrows the 1 MiB of stdout a command answers with, so REA reads it through ``data/get``.
"""
home = os.path.expanduser("~")
files, skipped = [], []
for directory, folders, names in os.walk(os.path.abspath(arguments["root"])):
folders.sort()
for name in sorted(names):
path = os.path.join(directory, name)
relative = os.path.relpath(path, home)
if os.path.islink(path) or not os.path.isfile(path):
skipped.append(relative)
continue
digest = hashlib.sha256()
with open(path, "rb") as handle:
for chunk in iter(lambda: handle.read(1 << 20), b""):
digest.update(chunk)
files.append({"path": relative, "size": os.path.getsize(path), "sha256": digest.hexdigest()})
output = os.path.abspath(arguments["output"])
os.makedirs(os.path.dirname(output), exist_ok=True)
with open(output, "w", encoding="utf-8") as handle:
json.dump({"files": files, "skipped": skipped}, handle)
return _say({"listing_bytes": os.path.getsize(output)})
COMMANDS = {"start": start, "mark": mark, "stop": stop, "run": run, "list": listing}
if __name__ == "__main__":
sys.exit(COMMANDS[sys.argv[1]](json.loads(sys.argv[2])))
-83
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@@ -1,83 +0,0 @@
"""Keep one agentenv computer up for REA until stdin closes or SIGTERM arrives.
REA runs ``computer.py <bundle folder> [task]`` with the agentenv runner's own interpreter, so ``agent_env``
imports. It deploys the bundle's task, ``smoke`` by default, on this machine with
``run_bundle(keep=True, emulate=False)``, prints one JSON line naming the computer's address, MCP URL, control
token and sandbox id, or ``{"error": ...}``, and tears the computer down once its stdin closes or it gets SIGTERM
or SIGINT. Everything else it or agentenv prints, a build's output included, goes to stderr. It exits 0 once
the teardown left nothing up, 1 when it did, and 2 when no computer came up.
"""
from __future__ import annotations
import json
import os
import signal
import sys
import threading
def _protocol():
"""A private copy of stdout for the JSON line; fd 1 then points at stderr, as do children that inherit it."""
protocol = os.fdopen(os.dup(1), "w", encoding="utf-8")
os.dup2(2, 1)
sys.stdout = sys.stderr
return protocol
def _say(protocol, value: dict) -> None:
protocol.write(json.dumps(value) + "\n")
protocol.flush()
def _computer(result):
"""The run's deployed computer, or why there is none."""
run = result.runs[0] if result.runs else None
if run is None:
return None, "the bundle ran no task"
if run.error is not None or run.failed_steps:
return None, f"the task failed: {run.error or run.failed_steps}"
for env in run.context.deployed_envs:
if env.environment_url and env.mcp_url and getattr(env, "sandbox_id", None):
return env, None
return None, "the task deployed no computer"
def main(argv: list[str]) -> int:
protocol = _protocol()
bundle, task = argv[1], argv[2] if len(argv) > 2 else "smoke"
try:
from agent_env.bundle import run_bundle
except ImportError as error:
_say(protocol, {"error": f"agent_env does not import with {sys.executable}: {error}"})
return 2
try:
result = run_bundle(bundle, tasks=[task], keep=True, emulate=False, sandbox="local",
on_progress=lambda line: print(line, file=sys.stderr, flush=True))
except BaseException as error: # noqa: BLE001 - a signal's RunInterrupted too; run_bundle tore its runs down
_say(protocol, {"error": f"{type(error).__name__}: {error}"})
return 2
stop = threading.Event()
for signum in (signal.SIGTERM, signal.SIGINT):
signal.signal(signum, lambda *_: stop.set())
env, problem = _computer(result)
try:
if env is None:
_say(protocol, {"error": problem})
else:
_say(protocol, {"base_url": env.environment_url, "mcp_url": env.mcp_url,
"control_token": env.control_token, "sandbox_id": env.sandbox_id})
threading.Thread(target=lambda: (sys.stdin.buffer.read(), stop.set()), daemon=True).start()
while not stop.wait(0.5):
pass
finally:
torn_down = result.teardown()
still_up = [sandbox for run in torn_down.runs if run.torn_down is not None for sandbox in run.torn_down.still_up]
if still_up:
print(f"still up after the teardown: {still_up}", file=sys.stderr, flush=True)
return 1
return 0 if env is not None else 2
if __name__ == "__main__":
sys.exit(main(sys.argv))
+15 -231
View File
@@ -15,9 +15,7 @@ import jadx.api.plugins.input.insns.InsnIndexType;
import jadx.api.plugins.input.insns.Opcode;
import jadx.core.codegen.TypeGen;
import jadx.core.dex.info.MethodInfo;
import jadx.core.dex.instructions.args.ArgType;
import jadx.core.dex.nodes.*;
import jadx.core.xmlgen.BinaryXMLParser;
import java.io.PrintStream;
import java.io.StringReader;
import java.io.InputStream;
@@ -52,25 +50,17 @@ class ReaJadxBridge {
private Map<String, List<ClassSnapshot>> classes = Map.of();
private JadxSession manifestSession;
private ManifestSnapshot manifestSnapshot;
private ExternalInventory externalInventory;
private record MethodSnapshot(String name, String rawName, String shortId, List<String> bodyAbsenceMarkers,
Map<String, Object> summary) {}
private record ClassSnapshot(JavaClass node, List<MethodSnapshot> methods, Map<String, Object> summary,
Map<String, Object> summaryWithValues) {}
private record ManifestSnapshot(String text, Map<String, Object> summary) {}
private record ExternalMethod(MethodInfo info, Map<String, Object> summary) {}
private record ExternalInventory(JadxSession session, String className, String methodName,
List<ExternalMethod> methods) {}
private static final class InputFailure extends IllegalArgumentException {
final String field;
InputFailure(String field, String message) { super(message); this.field = field; }
}
private static final class ReferenceLimit extends IllegalArgumentException {
final String stage;
ReferenceLimit(String stage) { super("External reference representation limit"); this.stage = stage; }
}
private ReaJadxBridge(SessionHolder holder) { this.holder = holder; }
@@ -197,7 +187,6 @@ class ReaJadxBridge {
private void clearManifest() {
manifestSession = null;
manifestSnapshot = null;
externalInventory = null;
}
// One bounded DEX at a time, beside the already admitted analysis JVM. The
@@ -411,7 +400,10 @@ class ReaJadxBridge {
selected = resource;
}
if (selected == null) throw new IllegalArgumentException("Root AndroidManifest.xml not found");
String xml = manifestText(selected);
var content = selected.loadContent();
if (content == null || content.getDataType() != jadx.core.xmlgen.ResContainer.DataType.TEXT)
throw new IllegalArgumentException("Root AndroidManifest.xml did not decode as text");
String xml = content.getText().getCodeStr();
ManifestSnapshot snapshot = new ManifestSnapshot(xml, manifestSummary(xml));
manifestSnapshot = snapshot;
manifestSession = current;
@@ -419,23 +411,6 @@ class ReaJadxBridge {
return manifestSnapshot;
}
/** Decode with resource names but without JADX's class alias substitution. */
static String manifestText(ResourceFile resource) {
var decompiler = resource.getDecompiler();
// BinaryXMLParser resolves android:name against its root's class identities
// and replaces raw '$' and relative names with Java-style aliases. A fresh
// root owns no classes, while its resource-name table preserves reference
// rendering from the loaded target.
RootNode root = new RootNode(decompiler.getArgs());
root.getConstValues().setResourcesNames(decompiler.getRoot().getConstValues().getResourcesNames());
try {
return ResourcesLoader.decodeStream(resource,
(size, input) -> new BinaryXMLParser(root).parse(input).getCodeStr());
} catch (jadx.core.utils.exceptions.JadxException failure) {
throw new IllegalArgumentException("Root AndroidManifest.xml did not decode as text", failure);
}
}
/** One parsed XML owner supplies namespace-aware values alongside the exact decoded text. */
static Map<String, Object> manifestSummary(String xml) {
Element root;
@@ -479,7 +454,7 @@ class ReaJadxBridge {
return Collections.unmodifiableMap(summary);
}
private void indexClasses() {
private ClassSnapshot selected(JsonObject args) {
JadxSession current = session();
if (indexedSession != current) {
Map<String, List<ClassSnapshot>> index = new LinkedHashMap<>();
@@ -555,10 +530,6 @@ class ReaJadxBridge {
classes = Collections.unmodifiableMap(index);
indexedSession = current;
}
}
private ClassSnapshot selected(JsonObject args) {
indexClasses();
String name = string(args, "class_name");
List<ClassSnapshot> candidates = classes.get(name);
if (candidates == null) throw new InputFailure("class_name", "Exact class not found: " + name
@@ -658,18 +629,12 @@ class ReaJadxBridge {
// JSON-RPC/CallToolResult envelope and generated numeric request id, and
// account for JSON text being escaped again inside TextContent.
private static final int MAX_XREF_TEXT_BYTES = 8 * 1024 * 1024 - 1024;
// Leave room for the prototype reply, reference reply, retained raw calls,
// normalized Evidence and their text/structured MCP copies, not just one frame.
private static final int MAX_EXTERNAL_XREF_BYTES = MAX_XREF_TEXT_BYTES / 8;
private static int escapedJsonBytes(Object value) {
return JSON.toJson(JSON.toJson(value)).getBytes(StandardCharsets.UTF_8).length;
}
private static final class InvokeBudget {
long remaining;
InvokeBudget(long remaining) { this.remaining = Math.max(0, remaining); }
boolean fitsText(long characters) {
return remaining >= 256 && characters <= (remaining - 256) / 12;
}
boolean admit(Map<String, Object> site) {
// Check a conservative two-layer escape bound before serialization.
long bound = 256;
@@ -684,55 +649,26 @@ class ReaJadxBridge {
}
private record DirectInvokes(List<Map<String, Object>> sites, boolean exhaustive) {}
@FunctionalInterface private interface InvokeVisitor {
void accept(MethodInfo target, int offset, int index, Opcode opcode);
}
/** Decode raw invoke identity once at the shared bridge boundary, without generating source. */
private static void visitInvokes(MethodNode node, InvokeVisitor visitor) {
checkNativeInterrupted();
/** Raw DEX invokes within one JADX using method; offsets are code units from its code start. */
private static DirectInvokes directInvokes(JavaMethod source, MethodInfo target, InvokeBudget budget) {
MethodNode node = source.getMethodNode();
ICodeReader code = node.getCodeReader();
if (code == null) return;
if (code == null) return null;
List<Map<String, Object>> sites = new ArrayList<>();
boolean[] exhaustive = {true};
code.visitInstructions(insn -> {
checkNativeInterrupted();
insn.decode();
if (insn.getIndexType() != InsnIndexType.METHOD_REF) return;
Opcode opcode = insn.getOpcode();
if (!opcode.name().startsWith("INVOKE_")) return;
IMethodRef ref = insn.getIndexAsMethod();
ref.load();
visitor.accept(MethodInfo.fromRef(node.root(), ref), insn.getOffset(), insn.getIndex(), opcode);
});
}
/** Raw DEX invokes within one JADX using method; offsets are code units from its code start. */
private static DirectInvokes directInvokes(JavaMethod source, MethodInfo target, InvokeBudget budget) {
return directInvokes(source.getMethodNode(), target, budget);
}
private static void visitDirectInvokes(MethodNode node, MethodInfo target, InvokeVisitor visitor) {
visitInvokes(node, (referenced, offset, index, opcode) -> {
if (referenced.getRawFullId().equals(target.getRawFullId()))
visitor.accept(referenced, offset, index, opcode);
});
}
private static boolean referencesMethod(MethodNode node, MethodInfo target) {
boolean[] found = {false};
visitDirectInvokes(node, target, (referenced, offset, index, opcode) -> found[0] = true);
return found[0];
}
private static DirectInvokes directInvokes(MethodNode node, MethodInfo target, InvokeBudget budget) {
if (node.getCodeReader() == null) return null;
List<Map<String, Object>> sites = new ArrayList<>();
boolean[] exhaustive = {true};
visitDirectInvokes(node, target, (referenced, offset, index, opcode) -> {
if (!MethodInfo.fromRef(node.root(), ref).getRawFullId().equals(target.getRawFullId())) return;
Map<String, Object> site = Map.of(
"dex_entry", node.getInputFileName(),
"source_raw_method_id", node.getMethodInfo().getRawFullId(),
"dex_code_unit_offset", offset,
"dex_method_index", index,
"dex_code_unit_offset", insn.getOffset(),
"dex_method_index", insn.getIndex(),
"opcode", opcode.name());
if (budget.admit(site)) sites.add(site);
else exhaustive[0] = false;
@@ -740,143 +676,6 @@ class ReaJadxBridge {
return new DirectInvokes(sites, exhaustive[0]);
}
private List<ClassSnapshot> sourceClasses() {
indexClasses();
Set<ClassSnapshot> seen = Collections.newSetFromMap(new IdentityHashMap<>());
List<ClassSnapshot> result = new ArrayList<>();
for (List<ClassSnapshot> group : classes.values())
for (ClassSnapshot source : group) if (seen.add(source)) result.add(source);
result.sort(Comparator.comparing(source -> source.node().getRawName()));
return result;
}
private static long displayTypeCharacters(ArgType type) {
if (type.isArray())
return 2L * type.getArrayDimension() + displayTypeCharacters(type.getArrayRootElement());
if (type.isPrimitive()) return type.getPrimitiveType().getLongName().length();
if (type.isObject() && !type.isGeneric() && !type.isGenericType()) return type.getObject().length();
throw new IllegalArgumentException("External prototype contains a non-DEX type");
}
private static Map<String, Object> externalMethodSummary(MethodInfo info, InvokeBudget budget) {
String name = info.getName();
long signatureCharacters = name.length() + 4L + displayTypeCharacters(info.getReturnType())
+ 2L * Math.max(0, info.getArgsCount() - 1);
for (ArgType type : info.getArgumentsTypes()) signatureCharacters += displayTypeCharacters(type);
long descriptorCharacters = info.getShortId().length() - (long) name.length();
// Use parsed type facts and the existing short-id length before copying/joining strings.
if (!budget.fitsText(2L * name.length() + descriptorCharacters + signatureCharacters))
throw new ReferenceLimit("method_inventory");
String descriptor = info.getShortId().substring(name.length());
String signature = name + "(" + info.getArgumentsTypes().stream()
.map(Object::toString).collect(Collectors.joining(", "))
+ "): " + info.getReturnType();
Map<String, Object> summary = Map.of("name", name, "raw_name", name, "signature", signature,
"dex_descriptor", descriptor, "is_constructor", info.isConstructor(), "def_pos", 0);
if (!budget.admit(summary)) throw new ReferenceLimit("method_inventory");
return summary;
}
/** Only directly referenced prototypes, not invented definitions or an external classpath. */
private List<ExternalMethod> externalMethods(JsonObject args) {
String className = string(args, "class_name");
String methodName = string(args, "method_name");
JadxSession current = session();
if (externalInventory != null && externalInventory.session() == current
&& externalInventory.className().equals(className) && externalInventory.methodName().equals(methodName))
return externalInventory.methods();
// Retain only the latest bounded selection, never results from a replaced APK/session.
externalInventory = null;
SortedMap<String, ExternalMethod> methods = new TreeMap<>();
boolean[] observedClass = {false};
InvokeBudget budget = new InvokeBudget(MAX_EXTERNAL_XREF_BYTES
- 4096L - 12L * (className.length() + (long) methodName.length()));
for (ClassSnapshot source : sourceClasses()) {
for (MethodSnapshot selected : source.methods()) {
visitInvokes(method(source, selected).getMethodNode(), (info, offset, index, opcode) -> {
if (!info.getDeclClass().getRawName().equals(className)) return;
observedClass[0] = true;
if (!info.getName().equals(methodName) || methods.containsKey(info.getShortId())) return;
methods.put(info.getShortId(), new ExternalMethod(info, externalMethodSummary(info, budget)));
});
}
}
if (!observedClass[0]) throw new InputFailure("class_name",
"No APK definition or direct DEX invoke references the exact class: " + className);
if (methods.isEmpty()) throw new InputFailure("method_name",
"No direct DEX invoke references " + className + "." + methodName);
List<ExternalMethod> result = List.copyOf(methods.values());
externalInventory = new ExternalInventory(current, className, methodName, result);
return result;
}
private Map<String, Object> externalSummary(JsonObject args) {
List<ExternalMethod> methods = externalMethods(args);
return Map.of("class_name", string(args, "class_name"), "reference_target", "external",
"observed_method_count", methods.size(),
"prototypes", methods.stream().map(ExternalMethod::summary).toList());
}
private record ExternalCaller(MethodNode node, Map<String, Object> row) {}
/** Reserve the complete using-node inventory before optional instruction positions. */
private List<ExternalCaller> externalCallers(MethodInfo target, InvokeBudget budget) {
List<ExternalCaller> callers = new ArrayList<>();
for (ClassSnapshot source : sourceClasses()) {
String className = String.valueOf(source.summary().get("full_name"));
Map<String, Integer> overloads = new HashMap<>();
for (MethodSnapshot candidate : source.methods()) {
int overload = overloads.merge(candidate.name(), 1, Integer::sum) - 1;
MethodNode node = method(source, candidate).getMethodNode();
if (!referencesMethod(node, target)) continue;
if (classes.get(className).size() != 1)
throw new IllegalArgumentException("External caller has an ambiguous APK class identity: " + className);
Map<String, Object> row = new LinkedHashMap<>(Map.of(
"kind", "method", "name", candidate.name(), "full_name", className + "." + candidate.name(),
"containing_class", className, "top_class", source.node().getTopParentClass().getFullName(),
"def_pos", 0, "source_selector", Map.of("class_name", className,
"method_name", candidate.name(), "overload_index", overload),
"direct_invokes", List.of(), "direct_invokes_exhaustive", false));
if (!budget.admit(row)) throw new ReferenceLimit("caller_inventory");
callers.add(new ExternalCaller(node, row));
}
}
return List.copyOf(callers);
}
private Map<String, Object> externalReferences(JsonObject args) {
List<ExternalMethod> methods = externalMethods(args);
if (methods.size() != 1 && !args.has("overload_index"))
throw new InputFailure("overload_index", "Select one of " + methods.size() + " observed external prototypes");
int index = integer(args, "overload_index", 0);
if (index >= methods.size()) throw new InputFailure("overload_index", "External prototype index out of range: " + index);
ExternalMethod method = methods.get(index);
MethodInfo target = method.info();
Map<String, Object> selected = method.summary();
InvokeBudget budget = new InvokeBudget(MAX_EXTERNAL_XREF_BYTES
- 4096L - escapedJsonBytes(selected));
List<ExternalCaller> callers = externalCallers(target, budget);
List<Map<String, Object>> items = new ArrayList<>();
for (ExternalCaller caller : callers) {
DirectInvokes invokes = directInvokes(caller.node(), target, budget);
caller.row().put("direct_invokes", invokes.sites());
caller.row().put("direct_invokes_exhaustive", invokes.exhaustive());
items.add(caller.row());
}
Map<String, Object> result = new LinkedHashMap<>();
result.put("target", string(args, "class_name") + "." + target.getName());
result.put("reference_target", "external");
result.put("reference_scope", "direct_dex_invokes");
result.put("dex_descriptor", selected.get("dex_descriptor"));
result.put("reported_signature", selected.get("signature"));
result.put("overload_index", index);
result.put("total", items.size());
result.put("count", items.size());
result.put("resolve_line", false);
result.put("items", items);
return result;
}
private CallToolResult handle(String name, kotlinx.serialization.json.JsonObject input) {
JsonObject args = JsonParser.parseString(input.toString()).getAsJsonObject();
if (name.equals("rea_jvm_status")) return json(Map.of(
@@ -913,12 +712,6 @@ class ReaJadxBridge {
"scope", "top_level", "offset", offset, "limit", limit,
"items", items));
}
indexClasses();
if (flag(args, "reference_target") && !classes.containsKey(string(args, "class_name"))) {
if (name.equals("get_class_summary")) return json(externalSummary(args));
if (name.equals("get_xrefs_to_method")) return json(externalReferences(args));
throw new InputFailure("class_name", "External prototypes are only available to method reference queries");
}
ClassSnapshot cls = selected(args);
if (name.equals("get_class_summary"))
return json(flag(args, "dex_static_values") ? cls.summaryWithValues() : cls.summary());
@@ -992,9 +785,6 @@ class ReaJadxBridge {
try { return bridge.handle(name, request.getArguments()); }
catch (InputFailure error) { return text(JSON.toJson(Map.of(
"kind", "invalid-input", "field", error.field, "message", error.getMessage())), true); }
catch (ReferenceLimit error) { return text(JSON.toJson(Map.of(
"kind", "reference-output-limit", "stage", error.stage,
"limit_bytes", MAX_EXTERNAL_XREF_BYTES)), true); }
catch (IllegalArgumentException error) { return text(error.getMessage(), true); }
});
}
@@ -1007,7 +797,7 @@ class ReaJadxBridge {
SessionHolder holder = new SessionHolder(defaults);
ServerCapabilities capabilities = new ServerCapabilities(
new ServerCapabilities.Tools(null), null, null, null, null, null, null, Map.of());
Server server = new Server(new Implementation("rea-jadx-bridge", "10", null, null, null),
Server server = new Server(new Implementation("rea-jadx-bridge", "9", null, null, null),
new ServerOptions(capabilities), "", ignored -> Unit.INSTANCE);
SessionToolsKt.registerSessionTools(server, holder);
ClassToolsKt.registerClassTools(server, holder);
@@ -1057,12 +847,6 @@ class ReaJadxBridge {
if (name.equals("get_class_summary")) properties.put("dex_static_values",
new kotlinx.serialization.json.JsonObject(Map.of(
"type", kotlinx.serialization.json.JsonElementKt.JsonPrimitive("boolean"))));
if (name.equals("get_class_summary") || name.equals("get_xrefs_to_method"))
properties.put("reference_target", new kotlinx.serialization.json.JsonObject(Map.of(
"type", kotlinx.serialization.json.JsonElementKt.JsonPrimitive("boolean"))));
if (name.equals("get_class_summary")) properties.put("method_name",
new kotlinx.serialization.json.JsonObject(Map.of(
"type", kotlinx.serialization.json.JsonElementKt.JsonPrimitive("string"))));
String description = switch (name) {
case "list_classes" -> "Pages of case-sensitive matching top-level class names; offset and next_offset are inventory positions, limit bounds matching rows. Omitted or empty query inventories all names.";
case "get_class_summary" -> "Parsed member metadata for one exact class name; no source generation. Set dex_static_values to include encoded static final field values.";
+121 -396
View File
@@ -40,7 +40,6 @@ import java.util.Locale;
import java.util.Map;
import java.util.Set;
import java.util.TreeMap;
import java.util.TreeSet;
import java.util.regex.Pattern;
import java.util.regex.PatternSyntaxException;
@@ -179,16 +178,12 @@ public final class ReaGhidraBridge extends HeadlessScript {
private List<FunctionEntry> procedureInventory;
private List<InventoryItem> stringInventory;
private DecompInterface decompiler;
// A refused Program may only report its admission failure to the client.
private String identityAdmissionFailure;
/** Per-function native decompiler limit from the session; 0 leaves it unbounded. */
private int decompileTimeoutSeconds;
// DecompileProcess converts seconds to an int millisecond timer delay.
private static final int MAX_DECOMPILE_TIMEOUT_SECONDS = Integer.MAX_VALUE / 1000;
private final ReaGhidraExtensions analysisExtensions = new ReaGhidraExtensions();
private static AddressSpace sessionDefaultAddressSpace;
private Path checkpointDirectory;
private long checkpointModification;
@Override
public void run() throws Exception {
@@ -197,7 +192,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
throw new IllegalArgumentException("REA bridge requires one session descriptor");
}
Path descriptorPath = Path.of(arguments[0]);
checkpointDirectory = descriptorPath.toAbsolutePath().normalize().getParent();
SessionDescriptor descriptor = readDescriptor(descriptorPath);
decompileTimeoutSeconds = descriptor.decompileTimeoutSeconds();
// Windows retains a native immutable bearer descriptor lease until
@@ -229,17 +223,14 @@ public final class ReaGhidraBridge extends HeadlessScript {
throw new IllegalStateException("Ghidra provider version does not match the session");
}
String importedSha256 = currentProgram.getExecutableSHA256();
if (importedSha256 == null || !importedSha256.matches("(?i)[0-9a-f]{64}")) {
identityAdmissionFailure = "import_identity_unavailable";
}
else if (!constantTimeEquals(importedSha256.toLowerCase(Locale.ROOT),
descriptor.targetSha256)) {
identityAdmissionFailure = "import_identity_mismatch";
}
if (identityAdmissionFailure != null) {
end(false);
serve(descriptor);
return;
if (importedSha256 == null ||
!constantTimeEquals(
importedSha256.toLowerCase(Locale.ROOT),
descriptor.targetSha256
)) {
throw new IllegalStateException(
"Ghidra imported-byte digest does not match the admitted target"
);
}
admittedTargetSha256 = descriptor.targetSha256;
// GhidraScript wraps run() in a transaction. End it before serving so
@@ -250,7 +241,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
throw new IOException("Windows Ghidra P0 does not admit metadata recovery or database mutation.");
analysisExtensions.analyze(descriptor.analysisExtensions, currentProgram, monitor);
initializeDecompiler();
checkpointModification = currentProgram.getModificationNumber();
serve(descriptor);
}
finally {
@@ -414,14 +404,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
writeSuccess(writer, request.id, result);
return;
}
if (identityAdmissionFailure != null) {
// Keep the producer alive until the client has consumed the
// refusal and closed or sent shutdown. Every other request
// remains refused, including further startup attempts.
writeFailure(writer, request.id, identityAdmissionFailure,
"Ghidra imported identity admission failed");
continue;
}
decompileTimeoutSeconds = request.decompileTimeoutSeconds() == null
? descriptor.decompileTimeoutSeconds() : request.decompileTimeoutSeconds();
writeSuccess(writer, request.id, handleRequest(request, descriptor));
@@ -455,7 +437,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
if (descriptor.existingProject && isMutatingOperation(request.method))
throw new RequestFailure("method_unavailable", "Existing Ghidra project sessions are read-only");
return switch (request.method) {
case "checkpoint_program" -> checkpointProgram(request.params, descriptor);
case "read_binary_inventory_summary" -> binaryInventorySummary(request.params);
case "inspect_native_load_image" -> inspectNativeLoadImage(request.params);
case "read_bytes" -> readMemoryBytes(request.params);
@@ -511,31 +492,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
return method.equals("annotate_native_function") || method.equals("set_address_name") || method.equals("set_addresses_names");
}
/** Internal lifecycle request: the destination is inside this owned runtime. */
private JsonObject checkpointProgram(JsonObject params, SessionDescriptor descriptor) throws Exception {
requireKeys(params, Set.of("path", "force"));
if (descriptor.existingProject || !descriptor.transport.equals("unix-socket"))
throw new RequestFailure("method_unavailable", "This Program has no checkpoint authority");
Path output = Path.of(requireString(params, "path")).toAbsolutePath().normalize();
if (!output.getParent().equals(checkpointDirectory) ||
!output.getFileName().toString().matches("checkpoint-[a-f0-9-]{36}\\.gzf"))
throw new RequestFailure("invalid_request", "Checkpoint destination must belong to this runtime");
JsonElement forced = params.get("force");
if (!forced.isJsonPrimitive() || !forced.getAsJsonPrimitive().isBoolean())
throw new RequestFailure("invalid_request", "Checkpoint force must be a boolean");
boolean force = forced.getAsBoolean();
JsonObject result = new JsonObject();
boolean changed = currentProgram.getModificationNumber() != checkpointModification;
result.addProperty("saved", force || changed);
if (force || changed) {
if (Files.exists(output)) throw new RequestFailure("invalid_request", "Checkpoint destination already exists");
currentProgram.saveToPackedFile(output.toFile(), monitor);
checkpointModification = currentProgram.getModificationNumber();
result.addProperty("path", output.toString());
}
return result;
}
private JsonObject sessionInfo(SessionDescriptor descriptor) throws Exception {
boolean timedOut = analysisTimeoutOccurred();
JsonObject provider = new JsonObject();
@@ -592,11 +548,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
String softFloat = currentProgram.getOptions(ghidra.program.model.listing.Program.PROGRAM_INFO)
.getString("REA MIPS soft-float storage", null);
if (softFloat != null) result.add("mips_soft_float_storage", JsonParser.parseString(softFloat));
// Written by ReaGhidraRiscvCallingConvention after analysis; REA requires it
// exactly when the committed profile declares a RISC-V calling-convention policy.
String riscvCallingConvention = currentProgram.getOptions(ghidra.program.model.listing.Program.PROGRAM_INFO)
.getString("REA RISC-V calling convention", null);
if (riscvCallingConvention != null) result.add("riscv_calling_convention", JsonParser.parseString(riscvCallingConvention));
return result;
}
@@ -736,7 +687,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
}
row.addProperty("status", relocation.getStatus().toString());
row.addProperty("type", relocation.getType());
row.add("symbol", GSON.toJsonTree(relocation.getSymbolName()));
row.add("values", GSON.toJsonTree(relocation.getValues() == null ? new long[0] : relocation.getValues()));
byte[] original = relocation.getBytes();
row.add("original_bytes_hex", original == null ? JsonNull.INSTANCE : GSON.toJsonTree(bytesHex(original)));
@@ -814,8 +764,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
return result;
}
private record ByteSearchBlock(MemoryBlock block, Address low, Address high) {}
private JsonObject searchMemoryBytes(JsonObject params, SessionDescriptor descriptor) throws Exception {
// mask, start, end, and cursor are omitted when absent; JSON encoding drops those keys.
Set<String> keys = params.keySet();
@@ -876,13 +824,16 @@ public final class ReaGhidraBridge extends HeadlessScript {
JsonArray blocks = new JsonArray();
JsonArray skipped = new JsonArray();
JsonArray notLoaded = new JsonArray();
List<ByteSearchBlock> eligible = new ArrayList<>();
long covered = 0;
String next = null;
for (MemoryBlock block : ordered) {
monitor.checkCancelled();
Address low = block.getStart();
Address high = block.getEnd();
Address bound = start == null ? end : start;
if (bound != null && !bound.getAddressSpace().equals(low.getAddressSpace())) continue;
// Without bounds, search loaded memory only. Non-loaded file parts
// (such as .symtab) and overlays stay reachable through explicit bounds.
if (bound == null && (!block.isLoaded() || block.isOverlay())) {
notLoaded.add(byteSearchCoverage(block, low, high));
continue;
@@ -894,66 +845,40 @@ public final class ReaGhidraBridge extends HeadlessScript {
skipped.add(byteSearchCoverage(block, low, high));
continue;
}
eligible.add(new ByteSearchBlock(block, low, high));
}
long covered = 0;
String next = null;
for (int first = 0; first < eligible.size() && next == null;) {
monitor.checkCancelled();
int last = first;
while (last + 1 < eligible.size()) {
monitor.checkCancelled();
ByteSearchBlock previous = eligible.get(last);
ByteSearchBlock following = eligible.get(last + 1);
if (!previous.high().getAddressSpace().equals(following.low().getAddressSpace()) ||
previous.high().next() == null || !previous.high().next().equals(following.low())) break;
last++;
}
Address low = eligible.get(first).low();
Address high = eligible.get(last).high();
if (next != null) continue;
if (resume != null && low.compareTo(resume) < 0) low = resume;
if (low.compareTo(high) <= 0 && low.getAddressSpace().equals(high.getAddressSpace())) {
Address at = low;
Address examinedEnd = high;
while (at != null && at.compareTo(high) <= 0 && high.subtract(at) >= bytes.length - 1L) {
monitor.checkCancelled();
// findBytes bounds candidate starts. The entire candidate remains in this eligible run.
Address found = currentProgram.getMemory().findBytes(at, high.subtract(bytes.length - 1L), bytes, masks, true, monitor);
monitor.checkCancelled();
if (found == null || high.subtract(found) < bytes.length - 1L) break;
if (matches.size() == limit) {
next = binding + ":" + canonicalAddress(found);
examinedEnd = found.addNoWrap(bytes.length - 1L);
break;
}
MemoryBlock matchBlock = currentProgram.getMemory().getBlock(found);
JsonObject match = new JsonObject();
match.addProperty("address", canonicalAddress(found));
match.addProperty("segment", matchBlock.getName());
Long offset = targetFileOffset(matchBlock, found).offset();
match.add("file_offset", offset == null ? JsonNull.INSTANCE : GSON.toJsonTree(offset));
Function function = currentProgram.getFunctionManager().getFunctionContaining(found);
JsonObject procedure = new JsonObject();
if (function != null) {
procedure.addProperty("address", canonicalAddress(function.getEntryPoint()));
procedure.addProperty("name", function.getName(true));
}
match.add("procedure", function == null ? JsonNull.INSTANCE : procedure);
matches.add(match);
at = found.next();
if (low.compareTo(high) > 0 || !low.getAddressSpace().equals(high.getAddressSpace())) continue;
Address at = low;
Address examinedEnd = high;
while (at != null && at.compareTo(high) <= 0 && high.subtract(at) >= bytes.length - 1L) {
monitor.checkCancelled();
// Ghidra's end address bounds candidate starts, not the final matched byte.
Address found = currentProgram.getMemory().findBytes(at, high.subtract(bytes.length - 1L), bytes, masks, true, monitor);
monitor.checkCancelled();
if (found == null || high.subtract(found) < bytes.length - 1L) break;
if (matches.size() == limit) {
next = binding + ":" + canonicalAddress(found);
examinedEnd = found.addNoWrap(bytes.length - 1L);
break;
}
for (int index = first; index <= last; index++) {
monitor.checkCancelled();
ByteSearchBlock item = eligible.get(index);
Address coveredLow = item.low().compareTo(low) < 0 ? low : item.low();
Address coveredHigh = item.high().compareTo(examinedEnd) > 0 ? examinedEnd : item.high();
if (coveredLow.compareTo(coveredHigh) > 0) continue;
JsonObject coverage = byteSearchCoverage(item.block(), coveredLow, coveredHigh);
covered = Math.addExact(covered, coverage.get("bytes").getAsLong());
blocks.add(coverage);
JsonObject match = new JsonObject();
match.addProperty("address", canonicalAddress(found));
match.addProperty("segment", block.getName());
Long offset = targetFileOffset(block, found).offset();
match.add("file_offset", offset == null ? JsonNull.INSTANCE : GSON.toJsonTree(offset));
Function function = currentProgram.getFunctionManager().getFunctionContaining(found);
JsonObject procedure = new JsonObject();
if (function != null) {
procedure.addProperty("address", canonicalAddress(function.getEntryPoint()));
procedure.addProperty("name", function.getName(true));
}
match.add("procedure", function == null ? JsonNull.INSTANCE : procedure);
matches.add(match);
at = found.next();
}
first = last + 1;
JsonObject coverage = byteSearchCoverage(block, low, examinedEnd);
covered = Math.addExact(covered, coverage.get("bytes").getAsLong());
blocks.add(coverage);
}
JsonObject searched = new JsonObject();
searched.add("blocks", blocks);
@@ -997,33 +922,17 @@ public final class ReaGhidraBridge extends HeadlessScript {
requireKeys(params, Set.of("document", "address"));
requireDocument(params);
Address address = requireAddress(params, "address");
String at = canonicalAddress(address);
// A well-formed address can still lack one exact source offset. Each
// outcome has its own code, so REA reports the reason rather than
// schema repair. Initialization, not the loaded flag, decides whether
// source bytes can exist: file-backed overlays are not loaded.
MemoryBlock block = currentProgram.getMemory().getBlock(address);
if (block == null)
throw new RequestFailure("address_unmapped",
"Address " + at + " is outside every Ghidra memory block");
if (!block.isInitialized())
throw new RequestFailure("address_uninitialized",
"Address " + at + " is in uninitialized Ghidra memory block " + block.getName());
if (block == null || !block.isInitialized())
throw new RequestFailure("invalid_request", "Address has no initialized file-backed memory: " + canonicalAddress(address));
TargetFileOffset mapping = targetFileOffset(block, address);
if (mapping.mappings() == 0)
throw new RequestFailure("file_mapping_absent",
"Address " + at + " in initialized Ghidra memory block " + block.getName() +
" has no authoritative mapping to the admitted target file");
if (mapping.mappings() > 1)
throw new RequestFailure("file_mapping_ambiguous",
"Address " + at + " has " + mapping.mappings() +
" authoritative mappings to the admitted target file");
if (mapping.mappings() != 1)
throw new RequestFailure("invalid_request", "Address has " + mapping.mappings() + " authoritative target-file mappings: " + canonicalAddress(address));
Long fileOffset = mapping.offset();
if (fileOffset == null)
throw new RequestFailure("file_offset_unrepresentable",
"Address " + at + " maps to an admitted target-file offset beyond the exact JSON integer range");
throw new RequestFailure("invalid_request", "Address lacks a safe file offset: " + canonicalAddress(address));
JsonObject result = new JsonObject();
result.addProperty("address", at);
result.addProperty("address", canonicalAddress(address));
result.addProperty("file_offset", fileOffset);
return result;
}
@@ -1078,7 +987,7 @@ public final class ReaGhidraBridge extends HeadlessScript {
} catch (RequestFailure failure) {
// Existing names/addresses win. Only an unresolved numeric input
// can fall back to source coordinates; ambiguity never falls back.
if (!failure.code.equals("procedure_not_found") || !selector.matches("0x[0-9a-fA-F]+"))
if (!failure.code.equals("not_found") || !selector.matches("0x[0-9a-fA-F]+"))
throw failure;
}
}
@@ -1105,17 +1014,17 @@ public final class ReaGhidraBridge extends HeadlessScript {
}
List<Address> candidates = new ArrayList<>(mappedAddresses);
if (candidates.size() > 1)
throw new RequestFailure("file_offset_ambiguous", "File offset " + coordinate +
throw new RequestFailure("ambiguous", "File offset " + coordinate +
" has multiple loaded mappings: " + candidates.stream().map(ReaGhidraBridge::canonicalAddress).toList() +
"; select an explicit analysis address");
if (candidates.isEmpty())
throw new RequestFailure("file_offset_unmapped", "File offset " + coordinate +
throw new RequestFailure("not_found", "File offset " + coordinate +
" has no loaded source mapping for the admitted target file; Ghidra image base: " + canonicalAddress(currentProgram.getImageBase()) +
". Inspect mappings with rea inspect-native-load-image <path> --provider ghidra --json or MCP inspect_native_load_image.");
Address mapped = candidates.get(0);
Function function = functionAtOrContaining(mapped);
if (function == null)
throw new RequestFailure("procedure_not_found", "File offset " + coordinate +
throw new RequestFailure("not_found", "File offset " + coordinate +
" maps to analysis address " + canonicalAddress(mapped) +
", but no procedure starts at or contains that address in the current Ghidra analysis. " +
"Choose an observed procedure with CLI rea search <path> . --kind procedures --mode regex --provider ghidra --json or MCP list_procedures.");
@@ -1318,12 +1227,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
if (component.getDataType() instanceof ghidra.program.model.data.BitFieldDataType bitfield) {
field.addProperty("bit_size", bitfield.getBitSize());
field.addProperty("bit_offset", bitfield.getBitOffset());
JsonObject bitField = new JsonObject();
bitField.addProperty("base_type_id", bitfield.getBaseDataType().getPathName());
bitField.addProperty("declared_bit_size", bitfield.getDeclaredBitSize());
bitField.addProperty("component_type_lookup", typeLookupResult(bitfield));
bitField.addProperty("base_type_lookup", typeLookupResult(bitfield.getBaseDataType()));
field.add("bit_field", bitField);
}
field.addProperty("status", "observed");
field.addProperty("flexible_tail", "unknown");
@@ -1354,7 +1257,7 @@ public final class ReaGhidraBridge extends HeadlessScript {
result.add("members", members);
result.addProperty("total_fields", totalFields);
result.addProperty("truncated", totalFields > 20_000);
result.add("limitations", GSON.toJsonTree(List.of("Layouts are Ghidra data-type database observations; original debug/source authority and flexible-tail semantics are not inferred. Component type paths do not necessarily identify separately registered types; bit-field lookups report whether the manager resolves equivalent types.", "At most 20000 fields or enum members are serialized per type to bound provider output. total_fields and truncated report omissions. Enum values preserve Ghidra's signed long representation.")));
result.add("limitations", GSON.toJsonTree(List.of("Layouts are Ghidra data-type database observations; original debug/source authority and flexible-tail semantics are not inferred. Nested and recursive types retain category-path identities for separate inspection.", "At most 20000 fields or enum members are serialized per type to bound provider output. total_fields and truncated report omissions. Enum values preserve Ghidra's signed long representation.")));
if (type != null) {
JsonObject metadata = analysisExtensions.inspectDataType(currentProgram, type, address, monitor);
if (metadata != null) result.add("metadata_recovery", metadata);
@@ -1362,11 +1265,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
return result;
}
private String typeLookupResult(DataType type) {
DataType resolved = currentProgram.getDataTypeManager().getDataType(type.getPathName());
return resolved == null ? "not-found" : resolved.isEquivalent(type) ? "equivalent" : "different";
}
private JsonObject instructionReference(Reference reference) {
JsonObject item = new JsonObject();
JsonObject kind = referenceKind(reference);
@@ -1415,7 +1313,7 @@ public final class ReaGhidraBridge extends HeadlessScript {
flow.addProperty("computed", false);
if (instruction == null) {
result.addProperty("status", !currentProgram.getMemory().contains(address) ? "outside-memory" : currentProgram.getListing().getInstructionContaining(address) != null
? "not-instruction-boundary" : currentProgram.getListing().getDefinedDataContaining(address) != null ? "data" : "not-in-listing");
? "not-instruction-boundary" : currentProgram.getListing().getDefinedDataContaining(address) != null ? "data" : "undecodable");
for (String key : List.of("bytes", "length", "mnemonic", "raw_disassembly")) result.add(key, JsonNull.INSTANCE);
} else {
result.addProperty("status", "decoded");
@@ -1487,7 +1385,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
result.add("incoming_references", incomingReferences);
}
List<String> limitations = new ArrayList<>(List.of("Operand components are Ghidra Listing decoder tokens; effective memory base/index/displacement roles and per-instruction context mode are unavailable. The mode field is the program language variant."));
if (result.get("status").getAsString().equals("not-in-listing")) limitations.add("No listed instruction or defined data covers this in-memory address. REA did not attempt a decode; the memory may be uninitialized or contain valid instructions.");
if (flow.get("kind").getAsString().equals("terminal")) limitations.add("No RETURN operation was observed in the provider's instruction p-code; terminal classification remains generic.");
result.add("limitations", GSON.toJsonTree(limitations));
return result;
@@ -2033,62 +1930,41 @@ public final class ReaGhidraBridge extends HeadlessScript {
return symbol == null ? JsonNull.INSTANCE : GSON.toJsonTree(symbol.getName(true));
}
// Analyst naming: a function entry renames the function; another mapped
// address renames its non-dynamic primary label or receives a new global
// label. Resolve that destination without editing the program.
private AddressNameTarget addressNameTarget(Address address, String name)
throws ghidra.util.exception.InvalidInputException {
// Analyst naming: a function entry renames the function, other addresses get a primary label.
private boolean applyAddressName(Address address, String name) throws Exception {
if (!currentProgram.getMemory().contains(address))
throw new RequestFailure("invalid_request", "Address is not mapped: " + canonicalAddress(address));
validateAnnotationText(name, "name");
Symbol edited = editedNameSymbol(address);
return edited == null
? new AddressNameTarget(address, currentProgram.getGlobalNamespace(), name)
: new AddressNameTarget(address, edited.getParentNamespace(), symbolLeafName(edited, name));
}
private Symbol editedNameSymbol(Address address) {
Function function = currentProgram.getFunctionManager().getFunctionAt(address);
if (function != null) return function.getSymbol();
Symbol primary = currentProgram.getSymbolTable().getPrimarySymbol(address);
return primary == null || primary.isDynamic() ? null : primary;
}
// Every address whose label or function symbol holds the destination.
private List<Address> addressNameHolders(AddressNameTarget target) {
Set<Address> holders = new TreeSet<>();
for (Symbol symbol : currentProgram.getSymbolTable().getLabelOrFunctionSymbols(target.leaf(), target.namespace()))
holders.add(symbol.getAddress());
return List.copyOf(holders);
}
// Apply one planned destination in its own transaction. Null means the
// edit committed with matching primary-symbol readback.
private String applyAddressName(AddressNameTarget target) {
Address address = target.address();
int transaction = currentProgram.startTransaction("REA address name");
boolean commit = false;
try {
Function function = currentProgram.getFunctionManager().getFunctionAt(address);
Symbol edited = editedNameSymbol(address);
SymbolTable table = currentProgram.getSymbolTable();
Symbol primary = function == null ? table.getPrimarySymbol(address) : function.getSymbol();
Namespace namespace = primary == null
? currentProgram.getGlobalNamespace()
: primary.getParentNamespace();
String expected = primary == null ? name : symbolLeafName(primary, name);
for (Symbol symbol : table.getLabelOrFunctionSymbols(expected, namespace)) {
if (!address.equals(symbol.getAddress())) return false;
}
if (function != null) {
function.setName(target.leaf(), SourceType.USER_DEFINED);
} else if (edited != null) {
edited.setName(target.leaf(), SourceType.USER_DEFINED);
function.setName(expected, SourceType.USER_DEFINED);
} else {
Symbol created = currentProgram.getSymbolTable().createLabel(address, target.leaf(), SourceType.USER_DEFINED);
created.setPrimary();
if (primary != null && !primary.isDynamic()) {
primary.setName(expected, SourceType.USER_DEFINED);
} else {
Symbol created = table.createLabel(address, expected, SourceType.USER_DEFINED);
created.setPrimary();
}
}
invalidateAnalysisCaches();
Symbol readback = currentProgram.getSymbolTable().getPrimarySymbol(address);
commit = readback != null && target.leaf().equals(readback.getName());
return commit ? null : "readback_mismatch";
commit = readback != null && expected.equals(readback.getName());
return commit;
}
catch (ghidra.util.exception.InvalidInputException exception) {
return "invalid_name";
}
catch (ghidra.util.exception.DuplicateNameException exception) {
return "duplicate_name";
catch (ghidra.util.exception.InvalidInputException | ghidra.util.exception.DuplicateNameException exception) {
return false;
}
finally {
currentProgram.endTransaction(transaction, commit);
@@ -2098,17 +1974,7 @@ public final class ReaGhidraBridge extends HeadlessScript {
private JsonElement setAddressName(JsonObject params) throws Exception {
requireKeys(params, Set.of("document", "address", "name"));
requireDocument(params);
String key = requireString(params, "address");
Address address = requireAddress(params, "address");
String name = requireString(params, "name");
// A single edit keeps request errors for unmapped addresses and
// unrepresentable text; other outcomes share the batch representation.
if (!currentProgram.getMemory().contains(address))
throw new RequestFailure("invalid_request", "Address is not mapped: " + canonicalAddress(address));
validateAnnotationText(name, "name");
Map<String, String> requested = new LinkedHashMap<>();
requested.put(key, name);
return applyAddressNames(requested);
return GSON.toJsonTree(applyAddressName(requireAddress(params, "address"), requireString(params, "name")));
}
private JsonElement setAddressesNames(JsonObject params) throws Exception {
@@ -2116,129 +1982,34 @@ public final class ReaGhidraBridge extends HeadlessScript {
requireDocument(params);
if (!params.has("names") || !params.get("names").isJsonObject())
throw new RequestFailure("invalid_request", "names must be an object of address -> name");
Map<String, String> requested = new LinkedHashMap<>();
for (Map.Entry<String, JsonElement> entry : params.getAsJsonObject("names").entrySet())
requested.put(entry.getKey(), entry.getValue().getAsString());
return applyAddressNames(requested);
}
// Decide every request from the names held before any edit, so object
// member order never selects which address receives a name. Reply with
// per-key results and reasons; a contested destination is listed once in
// conflicts and failures refer to it by index.
private JsonObject applyAddressNames(Map<String, String> requested) {
Map<String, Address> addressesByKey = new LinkedHashMap<>();
Map<Address, List<AddressNameRequest>> requestsByAddress = new LinkedHashMap<>();
for (Map.Entry<String, String> entry : requested.entrySet()) {
Address address = null;
JsonObject result = new JsonObject();
for (Map.Entry<String, JsonElement> entry : params.getAsJsonObject("names").entrySet()) {
try {
address = parseReaAddress(entry.getKey());
Address address = parseReaAddress(entry.getKey());
requestsByAddress.computeIfAbsent(address, ignored -> new ArrayList<>())
.add(new AddressNameRequest(entry.getKey(), address, entry.getValue()));
.add(new AddressNameRequest(entry.getKey(), address, entry.getValue().getAsString()));
}
catch (RequestFailure failure) {
// The key keeps its own invalid_address outcome below.
}
addressesByKey.put(entry.getKey(), address);
}
Map<Address, AddressNameFailure> failures = new HashMap<>();
Map<AddressNameDestination, List<AddressNameTarget>> destinations = new LinkedHashMap<>();
for (Map.Entry<Address, List<AddressNameRequest>> selected : requestsByAddress.entrySet()) {
Address address = selected.getKey();
String name = selected.getValue().get(0).name;
if (selected.getValue().stream().anyMatch(request -> !request.name.equals(name))) {
failures.put(address, new AddressNameFailure("conflicting_alias_names", null));
continue;
}
if (!currentProgram.getMemory().contains(address)) {
failures.put(address, new AddressNameFailure("unmapped_address", null));
continue;
}
try {
AddressNameTarget target = addressNameTarget(address, name);
destinations.computeIfAbsent(target.destination(), ignored -> new ArrayList<>()).add(target);
}
catch (RequestFailure | ghidra.util.exception.InvalidInputException exception) {
failures.put(address, new AddressNameFailure("invalid_name", null));
result.addProperty(entry.getKey(), false);
}
}
// Reject a destination that several selected addresses request, or
// that another address holds, instead of letting order pick a winner.
List<AddressNameConflict> conflicts = new ArrayList<>();
List<AddressNameTarget> independent = new ArrayList<>();
for (List<AddressNameTarget> requesters : destinations.values()) {
AddressNameTarget first = requesters.get(0);
List<Address> holders = addressNameHolders(first);
String reason;
if (requesters.size() > 1) {
reason = "duplicate_requested_name";
} else if (holders.stream().allMatch(first.address()::equals)) {
independent.add(first);
continue;
} else if (holders.stream().anyMatch(holder ->
!holder.equals(first.address()) && !requestsByAddress.containsKey(holder))) {
reason = "name_held_by_unselected_address";
} else {
reason = "name_held_by_selected_address";
for (List<AddressNameRequest> requests : requestsByAddress.values()) {
String name = requests.get(0).name;
boolean conflictingAliasNames = requests.stream()
.anyMatch(request -> !request.name.equals(name));
boolean success = false;
if (!conflictingAliasNames) {
try {
success = applyAddressName(requests.get(0).address, name);
}
catch (RequestFailure failure) {
// Keep per-address failures in the existing batch result shape.
}
}
AddressNameConflict conflict = new AddressNameConflict(
first.namespace(),
first.leaf(),
requesters.stream().map(AddressNameTarget::address).sorted().toList(),
holders
);
conflicts.add(conflict);
for (AddressNameTarget target : requesters)
failures.put(target.address(), new AddressNameFailure(reason, conflict));
for (AddressNameRequest request : requests)
result.addProperty(request.inputAddress, success);
}
// Independent edits have distinct destinations that no other address
// holds, so their results do not depend on application order.
for (AddressNameTarget target : independent) {
String reason = applyAddressName(target);
if (reason != null) failures.put(target.address(), new AddressNameFailure(reason, null));
}
// Requesters belong to exactly one destination, so ordering conflicts
// by their first requester gives indexes independent of member order.
conflicts.sort(Comparator.comparing((AddressNameConflict conflict) -> conflict.requesters().get(0)));
Map<AddressNameConflict, Integer> indexes = new IdentityHashMap<>();
JsonArray contested = new JsonArray();
for (AddressNameConflict conflict : conflicts) {
indexes.put(conflict, contested.size());
JsonObject value = new JsonObject();
if (conflict.namespace().isGlobal()) value.add("namespace", JsonNull.INSTANCE);
else value.addProperty("namespace", conflict.namespace().getName(true));
value.addProperty("name", conflict.leaf());
value.add("requested_by", canonicalAddresses(conflict.requesters()));
value.add("held_by", canonicalAddresses(conflict.holders()));
contested.add(value);
}
JsonObject results = new JsonObject();
JsonObject failed = new JsonObject();
for (Map.Entry<String, Address> entry : addressesByKey.entrySet()) {
Address address = entry.getValue();
AddressNameFailure failure = address == null
? new AddressNameFailure("invalid_address", null)
: failures.get(address);
results.addProperty(entry.getKey(), failure == null);
if (failure == null) continue;
JsonObject value = new JsonObject();
if (address == null) value.add("address", JsonNull.INSTANCE);
else value.addProperty("address", canonicalAddress(address));
value.addProperty("reason", failure.reason());
if (failure.conflict() == null) value.add("conflict", JsonNull.INSTANCE);
else value.addProperty("conflict", indexes.get(failure.conflict()));
failed.add(entry.getKey(), value);
}
JsonObject result = new JsonObject();
result.add("results", results);
result.add("failures", failed);
result.add("conflicts", contested);
return result;
}
private static JsonArray canonicalAddresses(List<Address> addresses) {
JsonArray result = new JsonArray();
for (Address address : addresses) result.add(canonicalAddress(address));
return result;
}
@@ -2354,6 +2125,9 @@ public final class ReaGhidraBridge extends HeadlessScript {
throw new RequestFailure("invalid_request", "mode must be literal or regex");
}
boolean caseSensitive = requireBoolean(params, "case_sensitive");
List<InventoryItem> inventory = procedureSearch
? procedures().stream().map(FunctionEntry::item).toList()
: strings();
ValueMatcher matcher;
if (mode.equals("literal") && !caseSensitive) {
if (!params.has("literal_ascii_candidate"))
@@ -2367,26 +2141,7 @@ public final class ReaGhidraBridge extends HeadlessScript {
: regexMatcher(expression, caseSensitive);
}
JsonArray items = new JsonArray();
if (procedureSearch) {
// Search the names exact lookup accepts, keeping one row per
// procedure under its primary name.
for (FunctionEntry entry : procedures()) {
monitor.checkCancelled();
ProcedureNameMatch match = matchProcedureNames(entry, matcher);
if (!match.matched()) {
continue;
}
JsonObject item = resultItem(entry.item, null);
if (!match.aliases().isEmpty()) {
JsonArray aliases = new JsonArray();
for (String alias : match.aliases()) aliases.add(alias);
item.add("matched_aliases", aliases);
}
items.add(item);
}
return items;
}
for (InventoryItem item : strings()) {
for (InventoryItem item : inventory) {
monitor.checkCancelled();
if (!matcher.matches(item.value)) {
continue;
@@ -2396,36 +2151,6 @@ public final class ReaGhidraBridge extends HeadlessScript {
return items;
}
/**
* The one definition of the names that select a procedure, shared by exact
* lookup and search: its primary name and every other symbol at its exact
* entry, each in leaf or namespace-qualified spelling. A label inside the
* body never names the procedure. Matching secondary symbols are reported
* by their qualified names, sorted.
*/
private ProcedureNameMatch matchProcedureNames(FunctionEntry entry, ValueMatcher matcher) throws Exception {
Function function = entry.function;
boolean primary = spellingMatches(function.getName(), entry.item.value, matcher);
Set<String> aliases = null;
for (Symbol symbol : currentProgram.getSymbolTable().getSymbols(function.getEntryPoint())) {
monitor.checkCancelled();
String qualified = symbol.getName(true);
if (!spellingMatches(symbol.getName(), qualified, matcher)) continue;
if (qualified.equals(entry.item.value)) {
primary = true;
continue;
}
if (aliases == null) aliases = new TreeSet<>();
aliases.add(qualified);
}
return new ProcedureNameMatch(primary, aliases == null ? List.of() : List.copyOf(aliases));
}
/** A leaf is the suffix of its qualified spelling, so a literal found in it is found in both. */
private static boolean spellingMatches(String leaf, String qualified, ValueMatcher matcher) {
return matcher.matches(qualified) || (!leaf.equals(qualified) && matcher.matches(leaf));
}
private List<InventoryItem> names() throws Exception {
if (nameInventory != null) {
return nameInventory;
@@ -2528,16 +2253,29 @@ public final class ReaGhidraBridge extends HeadlessScript {
// exact symbol name, even when every character is a hexadecimal digit.
boolean explicitAddress = isExplicitReaAddress(value);
if (!explicitAddress) {
// Imported labels (for example Mach-O _main) can share a function
// entry without becoming its primary symbol; search accepts the same.
ValueMatcher selector = value::equals;
List<Function> matches = new ArrayList<>();
for (FunctionEntry entry : procedures()) {
monitor.checkCancelled();
if (matchProcedureNames(entry, selector).matched()) matches.add(entry.function);
Function function = entry.function;
Symbol symbol = function.getSymbol();
String qualified = symbol == null ? function.getName() : symbol.getName(true);
boolean matchesName = function.getName().equals(value) || qualified.equals(value);
if (!matchesName) {
// Imported labels (for example Mach-O _main) can share a
// function entry without becoming its primary symbol. Only
// exact entries qualify; an interior label is not a selector.
for (Symbol entrySymbol : currentProgram.getSymbolTable().getSymbols(function.getEntryPoint())) {
monitor.checkCancelled();
if (entrySymbol.getName().equals(value) || entrySymbol.getName(true).equals(value)) {
matchesName = true;
break;
}
}
}
if (matchesName) matches.add(function);
}
if (matches.size() > 1)
throw new RequestFailure("procedure_ambiguous", "Ghidra procedure name is ambiguous: " + value +
throw new RequestFailure("ambiguous", "Ghidra procedure name is ambiguous: " + value +
"; select an exact entry address from " + matches.stream()
.map(function -> canonicalAddress(function.getEntryPoint())).toList());
if (matches.size() == 1) return matches.get(0);
@@ -2545,11 +2283,11 @@ public final class ReaGhidraBridge extends HeadlessScript {
// Retain legacy bare-hex address input only when no symbol matches.
Address address = explicitAddress ? parseReaAddress(value) : tryParseAddress(value);
if (address == null)
throw new RequestFailure("procedure_not_found", "Unknown Ghidra procedure name or address: " + value);
throw new RequestFailure("not_found", "Unknown Ghidra procedure name or address: " + value);
Function function = functionAtOrContaining(address);
if (function == null)
// Other procedure operations retain their analysis-address semantics.
throw new RequestFailure("procedure_not_found", "No procedure exists at the requested address: " + value +
throw new RequestFailure("not_found", "No procedure exists at the requested address: " + value +
"; Ghidra image base: " + canonicalAddress(currentProgram.getImageBase()) +
". Choose an observed analysis address. CLI: rea search <path> . --kind procedures --mode regex --provider ghidra --json; " +
"MCP: list_procedures. Inspect the loaded base and source mappings with CLI rea analyze <path> --provider ghidra --json " +
@@ -4995,7 +4733,7 @@ public final class ReaGhidraBridge extends HeadlessScript {
// without retaining its cause. This producer reason is not bad syntax.
if (exception.getDescription().equals("Stack overflow during pattern compilation"))
throw regexStackExhausted(expression, "compiling");
throw new RequestFailure("invalid_regex_pattern", "Invalid regex pattern " + expression + ": " + exception.getDescription() + " at index " + exception.getIndex());
throw new RequestFailure("invalid_request", "Invalid regex pattern " + expression + ": " + exception.getDescription() + " at index " + exception.getIndex());
}
catch (StackOverflowError exhausted) {
throw regexStackExhausted(expression, "compiling");
@@ -5242,20 +4980,7 @@ public final class ReaGhidraBridge extends HeadlessScript {
private record InventoryItem(Address address, String value, JsonObject facts, JsonObject symbol) {}
private record AddressNameRequest(String inputAddress, Address address, String name) {}
private record AddressNameDestination(long namespace, String leaf) {}
private record AddressNameTarget(Address address, Namespace namespace, String leaf) {
AddressNameDestination destination() {
return new AddressNameDestination(namespace.getID(), leaf);
}
}
private record AddressNameConflict(Namespace namespace, String leaf, List<Address> requesters, List<Address> holders) {}
private record AddressNameFailure(String reason, AddressNameConflict conflict) {}
private record FunctionEntry(Function function, InventoryItem item) {}
private record ProcedureNameMatch(boolean primary, List<String> aliases) {
boolean matched() {
return primary || !aliases.isEmpty();
}
}
private record FunctionAnalysisObservation(JsonObject dossier, List<String> limitations, JsonObject relationshipCoverage, boolean decompilerFailed) {}
private record CallBoundaryObservation(List<String> limitations, Integer unrepresentedCalleeCalls, JsonArray unresolvedCalls) {}
private record SwiftStringLiteralDecode(JsonArray literals, JsonArray omissions) {}
@@ -1,283 +0,0 @@
import ghidra.app.script.GhidraScript;
import ghidra.program.database.SpecExtension;
import ghidra.program.model.data.DataType;
import ghidra.program.model.data.DoubleDataType;
import ghidra.program.model.data.Float16DataType;
import ghidra.program.model.data.FloatDataType;
import ghidra.program.model.data.FunctionDefinition;
import ghidra.program.model.data.IntegerDataType;
import ghidra.program.model.data.StructureDataType;
import ghidra.program.model.lang.CompilerSpec;
import ghidra.program.model.lang.Language;
import ghidra.program.model.lang.PrototypeModel;
import ghidra.program.model.lang.Register;
import ghidra.program.model.listing.Function;
import ghidra.program.model.listing.Parameter;
import ghidra.program.model.listing.Program;
import ghidra.program.model.listing.VariableStorage;
import ghidra.program.model.pcode.Varnode;
import ghidra.program.model.pcode.XmlEncode;
import java.io.StringReader;
import java.io.StringWriter;
import java.util.ArrayList;
import java.util.Iterator;
import java.util.List;
import java.util.regex.Pattern;
import javax.xml.parsers.DocumentBuilderFactory;
import javax.xml.transform.OutputKeys;
import javax.xml.transform.TransformerFactory;
import javax.xml.transform.dom.DOMSource;
import javax.xml.transform.stream.StreamResult;
import org.w3c.dom.Document;
import org.w3c.dom.Element;
import org.w3c.dom.Node;
import org.w3c.dom.NodeList;
import org.xml.sax.InputSource;
/**
* Apply the committed RISC-V calling-convention policy after analysis. Ghidra's generic RV32
* compiler specification models ilp32d. Each policy derives a program-specific prototype from the
* program's own default prototype, as its {@link Policy} row and docs/ghidra-riscv.md state. The
* script installs the prototype as a specification extension and assigns it, with dynamic
* storage, to every non-thunk function, external function and function definition.
*/
public final class ReaGhidraRiscvCallingConvention extends GhidraScript {
static final String REPORT_KEY = "REA RISC-V calling convention";
/** RISC-V floating-point registers by ABI name: ft0-ft11, fs0-fs11 and fa0-fa7. */
private static final Pattern FLOAT_REGISTER = Pattern.compile("f[ast]\\d+");
/**
* What a policy changes in the default ilp32d prototype. Every policy also passes values of 9
* bytes or more, such as {@code long double}, by reference.
*
* @param floatEntryBytes the largest value a floating-point register may pass or return; 0
* removes those entries and every rule that assigns floating-point storage
* @param preservesFloatRegisters whether fs0-fs11 stay preserved across calls
*/
private record Policy(
String id, String prototype, int floatEntryBytes, boolean preservesFloatRegisters) {}
private static final List<Policy> POLICIES =
List.of(new Policy("ilp32-prototype-v1", "__rea_ilp32", 0, false));
@Override
public void run() throws Exception {
String[] arguments = getScriptArgs();
Policy policy =
POLICIES.stream()
.filter(candidate -> arguments.length == 1 && candidate.id().equals(arguments[0]))
.findFirst()
.orElseThrow(
() ->
new IllegalArgumentException(
"REA RISC-V calling convention requires one of the policies "
+ POLICIES.stream().map(Policy::id).toList()));
Language language = currentProgram.getLanguage();
if (!language.getProcessor().toString().equals("RISCV")
|| currentProgram.getDefaultPointerSize() != 4)
throw new IllegalStateException(
"REA " + policy.id() + " requires a 32-bit RISC-V program, not "
+ language.getLanguageID());
CompilerSpec spec = currentProgram.getCompilerSpec();
new SpecExtension(currentProgram)
.addReplaceCompilerSpecExtension(
derive(spec.getDefaultCallingConvention(), spec, language, policy), monitor);
PrototypeModel model =
currentProgram.getCompilerSpec().getCallingConvention(policy.prototype());
if (model == null)
throw new IllegalStateException("REA " + policy.prototype() + " was not installed");
selfCheck(model, policy, language);
int functions = 0;
List<Function> callables = new ArrayList<>();
currentProgram.getFunctionManager().getFunctions(true).forEach(callables::add);
currentProgram.getFunctionManager().getExternalFunctions().forEach(callables::add);
for (Function function : callables) {
// A thunk's signature is its target's; the target is in this list.
if (function.isThunk()) continue;
if (function.hasCustomVariableStorage()) function.setCustomVariableStorage(false);
function.setCallingConvention(policy.prototype());
if (policy.floatEntryBytes() == 0) {
List<VariableStorage> storage = new ArrayList<>();
storage.add(function.getReturn().getVariableStorage());
for (Parameter parameter : function.getParameters())
storage.add(parameter.getVariableStorage());
// An untyped function has no assigned storage yet; the decompiler applies the
// prototype when it recovers one.
requireIntegerStorage(
storage.toArray(VariableStorage[]::new), function.getName(true), true);
}
functions += 1;
}
int definitions = 0;
Iterator<DataType> types = currentProgram.getDataTypeManager().getAllDataTypes();
while (types.hasNext()) {
if (!(types.next() instanceof FunctionDefinition definition)) continue;
definition.setCallingConvention(policy.prototype());
definitions += 1;
}
// Written last: any failure above leaves no report, and REA refuses the session.
currentProgram.getOptions(Program.PROGRAM_INFO).setString(
REPORT_KEY,
"{\"policy\":\"" + policy.id() + "\",\"functions\":" + functions
+ ",\"definitions\":" + definitions + "}");
println(
"REA RISC-V " + policy.prototype() + ": functions=" + functions
+ " definitions=" + definitions);
}
/** The default ilp32d prototype changed as the policy states. */
private static String derive(
PrototypeModel base, CompilerSpec spec, Language language, Policy policy) throws Exception {
XmlEncode encoder = new XmlEncode();
base.encode(encoder, spec.getPcodeInjectLibrary());
DocumentBuilderFactory factory = DocumentBuilderFactory.newInstance();
factory.setFeature("http://apache.org/xml/features/disallow-doctype-decl", true);
Document document =
factory.newDocumentBuilder().parse(new InputSource(new StringReader(encoder.toString())));
Element root = document.getDocumentElement();
if (!root.getTagName().equals("prototype"))
throw new IllegalStateException("Unexpected default prototype encoding " + root.getTagName());
root.setAttribute("name", policy.prototype());
List<Element> floatEntries = new ArrayList<>();
NodeList entries = root.getElementsByTagName("pentry");
for (int index = 0; index < entries.getLength(); index += 1) {
Element entry = (Element) entries.item(index);
if (entry.getAttribute("storage").equals("float")) floatEntries.add(entry);
}
if (floatEntries.isEmpty())
throw new IllegalStateException("Default prototype has no floating-point entries");
if (policy.floatEntryBytes() == 0) {
List<Node> removed = new ArrayList<>(floatEntries);
NodeList rules = root.getElementsByTagName("rule");
for (int index = 0; index < rules.getLength(); index += 1) {
Element rule = (Element) rules.item(index);
if (usesFloatStorage(rule)) removed.add(rule);
}
if (removed.size() == floatEntries.size())
throw new IllegalStateException("Default prototype has no floating-point rules to remove");
for (Node node : removed) node.getParentNode().removeChild(node);
} else
for (Element entry : floatEntries)
entry.setAttribute("maxsize", Integer.toString(policy.floatEntryBytes()));
// Values over 2 x XLEN go by reference. Returns need no rule: a value that the return
// registers cannot hold already becomes a caller buffer passed in a0.
NodeList inputs = root.getElementsByTagName("input");
if (inputs.getLength() != 1)
throw new IllegalStateException("Default prototype has no single input list");
Element input = (Element) inputs.item(0);
Element last = null;
for (Node child = input.getFirstChild(); child != null; child = child.getNextSibling())
if (child instanceof Element element && element.getTagName().equals("rule")) last = element;
if (last == null || !joinsAnyValue(last))
throw new IllegalStateException("Default prototype's input list does not end with a join");
Element byReference = document.createElement("rule");
Element datatype = document.createElement("datatype");
datatype.setAttribute("name", "any");
datatype.setAttribute("minsize", "9");
byReference.appendChild(datatype);
byReference.appendChild(document.createElement("convert_to_ptr"));
input.insertBefore(byReference, last);
if (!policy.preservesFloatRegisters()) {
NodeList killedLists = root.getElementsByTagName("killedbycall");
Element killed = killedLists.getLength() == 0 ? null : (Element) killedLists.item(0);
if (killed == null) {
killed = document.createElement("killedbycall");
root.appendChild(killed);
}
List<Element> moved = new ArrayList<>();
NodeList preservedLists = root.getElementsByTagName("unaffected");
for (int list = 0; list < preservedLists.getLength(); list += 1) {
NodeList preserved = preservedLists.item(list).getChildNodes();
for (int index = 0; index < preserved.getLength(); index += 1) {
if (preserved.item(index) instanceof Element varnode
&& isFloatRegister(varnode, language))
moved.add(varnode);
}
}
for (Element varnode : moved) {
varnode.getParentNode().removeChild(varnode);
killed.appendChild(varnode);
}
}
StringWriter xml = new StringWriter();
var transformer = TransformerFactory.newInstance().newTransformer();
transformer.setOutputProperty(OutputKeys.OMIT_XML_DECLARATION, "yes");
transformer.transform(new DOMSource(document), new StreamResult(xml));
return xml.toString();
}
/** The installed prototype places each class of value as its policy states. */
private void selfCheck(PrototypeModel model, Policy policy, Language language) {
StructureDataType pair = new StructureDataType("rea_float_pair", 0);
pair.add(FloatDataType.dataType);
pair.add(FloatDataType.dataType);
VariableStorage[] storage =
model.getStorageLocations(
currentProgram,
new DataType[] {
DoubleDataType.dataType, FloatDataType.dataType, DoubleDataType.dataType,
IntegerDataType.dataType, pair, Float16DataType.dataType
},
false);
VariableStorage quad = storage[storage.length - 1];
if (quad.size() != currentProgram.getDefaultPointerSize() || quad.getRegister() == null)
throw new IllegalStateException(
"REA " + policy.prototype() + " does not pass a 16-byte value by reference: " + quad);
if (policy.floatEntryBytes() == 0)
requireIntegerStorage(storage, policy.prototype() + " self-check", false);
if (policy.preservesFloatRegisters()) return;
for (Varnode preserved : model.getUnaffectedList()) {
Register register = language.getRegister(preserved.getAddress(), preserved.getSize());
if (register != null && FLOAT_REGISTER.matcher(register.getName()).matches())
throw new IllegalStateException(
"REA " + policy.prototype() + " still preserves " + register.getName());
}
}
private static boolean joinsAnyValue(Element rule) {
List<Element> children = new ArrayList<>();
for (Node child = rule.getFirstChild(); child != null; child = child.getNextSibling())
if (child instanceof Element element) children.add(element);
return children.size() == 2
&& children.get(0).getTagName().equals("datatype")
&& children.get(0).getAttribute("name").equals("any")
&& children.get(1).getTagName().equals("join");
}
/** Whether a rule's action, at any depth, assigns floating-point storage. */
private static boolean usesFloatStorage(Element element) {
NodeList children = element.getChildNodes();
for (int index = 0; index < children.getLength(); index += 1) {
if (!(children.item(index) instanceof Element child)) continue;
if (child.getAttribute("storage").equals("float") || usesFloatStorage(child)) return true;
}
return false;
}
private static boolean isFloatRegister(Element varnode, Language language) {
if (!varnode.getTagName().equals("varnode")
|| !varnode.getAttribute("space").equals("register"))
return false;
Register register =
language.getRegister(
language.getAddressFactory().getRegisterSpace()
.getAddress(Long.decode(varnode.getAttribute("offset"))),
Integer.parseInt(varnode.getAttribute("size")));
return register != null && FLOAT_REGISTER.matcher(register.getName()).matches();
}
private static void requireIntegerStorage(
VariableStorage[] storage, String owner, boolean allowUnassigned) {
for (VariableStorage item : storage) {
if (item.isBadStorage() || (!allowUnassigned && item.isUnassignedStorage()))
throw new IllegalStateException("REA RISC-V storage unresolved for " + owner);
List<Register> registers = item.getRegisters();
if (registers == null) continue; // stack-only storage
for (Register register : registers) {
if (FLOAT_REGISTER.matcher(register.getName()).matches())
throw new IllegalStateException(
"REA RISC-V storage still uses " + register.getName() + " for " + owner);
}
}
}
}
+5 -161
View File
@@ -22,9 +22,6 @@ HOPPER_SYMBOL_NAME_UTF16_UNITS = 1024
# that does not fit is null, not an older descriptor path.
# 536870887 is Node's 536870888-character string ceiling minus the framing LF.
# The ceiling is the encoded payload; JSON expansion is measured before it.
# Encoded JSON allowance, in bytes, shared by one instruction list, one
# native-caller list, and one caller-scan page. This release has no runtime override.
CALLER_SCAN_ALLOWANCE_BYTES = 512 * 1024
_BRIDGE_MAX_REQUEST_BYTES_SETTING = "REA_BRIDGE_MAX_REQUEST_BYTES"
DEFAULT_BRIDGE_MAX_REQUEST_BYTES = 16 * 1024 * 1024
MINIMUM_BRIDGE_MAX_REQUEST_BYTES = 7464
@@ -235,9 +232,6 @@ EXHAUSTIVE_ANALYSIS_METHODS = frozenset(
"procedure_assembly",
"procedure_callees",
"procedure_callers",
"rea_caller_scan_page",
"rea_caller_scan_target",
"rea_caller_base",
"procedure_info",
"procedure_pseudo_code",
"procedure_references",
@@ -491,30 +485,19 @@ def _instruction_addresses(procedure):
return result
def _iter_native_calls(procedure, direction):
def _native_calls(procedure, direction):
references = procedure.getAllCallees() if direction == "outgoing" else procedure.getAllCallers()
kinds = {0: "none", 1: "unknown", 2: "direct", 3: "objective_c"}
calls = {}
unresolved = []
for reference in references:
source, target, kind = reference.fromAddress(), reference.toAddress(), reference.type()
if source in BAD_ADDRESSES:
yield None, None, None
continue
if target in BAD_ADDRESSES:
yield source, None, {"address": _hex(source), "reason": "Native CallReference has no resolved target (type %s)" % kind}
unresolved.append({"address": _hex(source), "reason": "Native CallReference has no resolved target (type %s)" % kind})
continue
yield source, target, {"classification": kinds.get(kind, "unknown"), "provider_type": kind, "provenance": "hopper-public-python-api:CallReference"}
def _native_calls(procedure, direction):
calls = {}
unresolved = []
for source, target, detail in _iter_native_calls(procedure, direction):
if detail is None:
continue
if target is None:
unresolved.append(detail)
else:
calls[(source, target)] = detail
calls[(source, target)] = {"classification": kinds.get(kind, "unknown"), "provider_type": kind, "provenance": "hopper-public-python-api:CallReference"}
return calls, sorted(unresolved, key=lambda item: int(item["address"], 16))
@@ -564,136 +547,6 @@ def _procedure_map(document):
return result
def _caller_target_data(procedure):
addresses = []
seen = set()
size = 0
for block in procedure.basicBlockIterator():
for address in _block_instruction_addresses(procedure, block):
if address in seen:
continue
encoded = _hex(address)
size += len(encoded) + 4
if size > CALLER_SCAN_ALLOWANCE_BYTES:
return {"target": _procedure_identity(procedure), "instructions": addresses, "instructions_complete": False}
addresses.append(encoded)
seen.add(address)
return {"target": _procedure_identity(procedure), "instructions": addresses, "instructions_complete": True}
def _caller_scan_target(document, params):
return _caller_target_data(_procedure(document, params.get("procedure")))
def _caller_base(document, params):
procedure = _procedure(document, params.get("procedure"))
callers = []
size = 0
complete = True
for item in procedure.getAllCallerProcedures():
address = _hex(item.getEntryPoint())
size += len(address) + 4
if size > CALLER_SCAN_ALLOWANCE_BYTES:
complete = False
break
callers.append(address)
return {
**_caller_target_data(procedure),
"callers": sorted(callers, key=lambda value: int(value, 16)),
"callers_complete": complete,
}
def _caller_scan_page(document, params):
"""Observe forward relationships in one bounded, stateless bridge request."""
start = params.get("start")
if isinstance(start, bool) or not isinstance(start, int) or start < 0:
raise InvalidRequestError("Caller scan start must be a non-negative integer")
segments = document.getSegmentsList()
counts = [segment.getProcedureCount() for segment in segments]
total = sum(counts)
end = min(start + 64, total)
if start > total:
raise InvalidRequestError("Caller scan start exceeds the procedure inventory")
items = []
item_bytes = 0
page_limit = CALLER_SCAN_ALLOWANCE_BYTES
oversized = False
identities = {}
containing = {}
def identity(procedure):
entry = procedure.getEntryPoint()
if entry not in identities:
identities[entry] = _procedure_identity(procedure)
return identities[entry]
def owner(address):
if address not in containing:
procedure, _ = _containing_procedure(document, address)
containing[address] = identity(procedure) if procedure is not None else None
return containing[address]
segment_start = 0
for segment, count in zip(segments, counts):
begin, stop = max(start - segment_start, 0), min(end - segment_start, count)
segment_start += count
for index in range(begin, max(begin, stop)):
candidate = segment.getProcedureAtIndex(index)
item = {"caller": identity(candidate), "callees": [], "references": []}
size = len(json.dumps(item, ensure_ascii=True).encode("utf-8")) + 1
remaining = page_limit - item_bytes
too_large = size > remaining
if not too_large:
for callee in candidate.getAllCalleeProcedures():
address = _hex(callee.getEntryPoint())
size += len(address) + 4
if size > remaining:
too_large = True
break
item["callees"].append(address)
if not too_large:
callee_entries = set(item["callees"])
for source, destination, call in _iter_native_calls(candidate, "outgoing"):
# Account for every native record, even when its target cannot
# be associated with an observed procedure.
size += 32
if size > remaining:
too_large = True
break
if destination is None:
continue
source_procedure = item["caller"] if _hex(source) == item["caller"]["address"] else owner(source)
target_address = _hex(destination)
if target_address in callee_entries:
target_entry = target_address
else:
target_procedure = owner(destination)
if target_procedure is None:
continue
target_entry = target_procedure["address"]
edge = {
"source_address": _hex(source), "target_address": _hex(destination),
"source_procedure": "caller" if source_procedure is not None and source_procedure["address"] == item["caller"]["address"] else source_procedure,
"target_procedure": target_entry,
"call": call,
}
size += len(json.dumps(edge, ensure_ascii=True).encode("utf-8")) + 1
if size > remaining:
too_large = True
break
item["references"].append(edge)
if too_large:
oversized = not items
break
items.append(item)
item_bytes += size
else:
continue
break
return {"start": start, "next": start + len(items), "total": total, "items": items, "oversized": oversized}
def _string_record(segment, address, display):
"""Read one native typed object, retaining its shortened display separately."""
length = segment.getObjectLength(address)
@@ -1034,15 +887,6 @@ def _dispatch(method, params):
if method in EXHAUSTIVE_ANALYSIS_METHODS:
_api().require_analysis_complete(document, method)
if method == "rea_caller_scan_target":
return _caller_scan_target(document, params)
if method == "rea_caller_base":
return _caller_base(document, params)
if method == "rea_caller_scan_page":
return _caller_scan_page(document, params)
if method == "analyze_function":
return _analyze_function(document, params)
if method == "read_function_instructions":
+1 -4
View File
@@ -65,10 +65,7 @@ func observe(_ request: Request) async throws -> [String: Any] {
guard SHA256.hash(data: executableBytes).map({ String(format: "%02x", $0) }).joined() == request.sha256 else {
try fail("target-mismatch", "Running executable bytes differ from the active target digest")
}
// .optionIncludingWindow omits a selected window while it is off screen, which
// is not absence: select from every window, and let capture report what it can.
guard let windows = (CGWindowListCopyWindowInfo([.optionAll], kCGNullWindowID) as? [[String: Any]])?
.filter({ ($0[kCGWindowNumber as String] as? NSNumber)?.uint32Value == request.window_id }),
guard let windows = CGWindowListCopyWindowInfo([.optionIncludingWindow], request.window_id) as? [[String: Any]],
windows.count == 1, let window = windows.first,
(window[kCGWindowOwnerPID as String] as? NSNumber)?.int32Value == request.pid,
(window[kCGWindowLayer as String] as? NSNumber)?.intValue == 0,
+15 -13
View File
@@ -26,6 +26,7 @@ ARGUMENT_REGISTERS = {
"x86_64h": ["rdi", "rsi", "rdx", "rcx", "r8", "r9"],
}
MAX_SELECTOR_BYTES = 1024
MAX_REPORTED_LOCATIONS = 64
MAX_OTHER_STOPS = 256
MAX_TRACE_BYTES = 8 * 1024 * 1024
MAX_TRACE_FRAMES = 65_536
@@ -504,19 +505,20 @@ def _breakpoint_report(target, created, config):
if not _wanted(config["breakpoints"][index], location["symbol"] or ""):
continue
count += 1
remaining_bytes = (
MAX_BREAKPOINT_LOCATION_BYTES - retained_location_bytes
)
if not _fits_trace_budget(location, remaining_bytes):
locations_truncated = True
continue
location_bytes = len(json.dumps(location).encode("utf-8"))
addition = location_bytes + (1 if locations else 0)
if addition > remaining_bytes:
locations_truncated = True
continue
locations.append(location)
retained_location_bytes += addition
if len(locations) < MAX_REPORTED_LOCATIONS:
remaining_bytes = (
MAX_BREAKPOINT_LOCATION_BYTES - retained_location_bytes
)
if not _fits_trace_budget(location, remaining_bytes):
locations_truncated = True
continue
location_bytes = len(json.dumps(location).encode("utf-8"))
addition = location_bytes + (1 if locations else 0)
if addition > remaining_bytes:
locations_truncated = True
continue
locations.append(location)
retained_location_bytes += addition
report.append({"index": index, "location_count": count, "locations": locations})
return report, locations_truncated
-28
View File
@@ -430,34 +430,6 @@ class NativeTraceBudgetTests(unittest.TestCase):
self.assertEqual(report[0]["locations"], [])
self.assertFalse(locations_truncated)
def test_breakpoint_report_keeps_all_locations_under_aggregate_budget(self):
class Location:
def __init__(self, index):
self.index = index
def GetAddress(self):
return self.index
class Breakpoint:
def GetNumLocations(self):
return 65
def GetLocationAtIndex(self, index):
return Location(index)
with patch.object(
tracer,
"_location",
side_effect=lambda address, _target: {"address": address, "symbol": None},
), patch.object(tracer, "_wanted", return_value=True):
report, locations_truncated = tracer._breakpoint_report(
object(), [[Breakpoint()]], {"breakpoints": [{}]}
)
self.assertEqual(report[0]["location_count"], 65)
self.assertEqual(len(report[0]["locations"]), 65)
self.assertFalse(locations_truncated)
def test_breakpoint_report_bounds_aggregate_location_json(self):
tracer.lldb.LLDB_INVALID_ADDRESS = -1
symbol_name = (
+34 -72
View File
@@ -15,8 +15,6 @@ struct ProcessIdentityObservation: Encodable {
let effective_uid: UInt32?
let lifecycle: String?
let relation: ProcessRelationObservation?
/** Display-only kernel accounting name (p_comm, at most MAXCOMLEN bytes). */
let name: String?
let reason: String?
}
@@ -33,7 +31,6 @@ struct ProcessMetadata {
let parentPid: Int32
let processGroupId: Int32
let pointerSize: Int
let name: String
}
struct ProcessSnapshot {
@@ -95,8 +92,7 @@ func readProcessSnapshot(
lifecycle: process.kp_proc.p_stat == SZOMB ? "zombie" : "non-zombie",
parentPid: process.kp_eproc.e_ppid,
processGroupId: process.kp_eproc.e_pgid,
pointerSize: process.kp_proc.p_flag & P_LP64 != 0 ? 8 : 4,
name: processName(process)
pointerSize: process.kp_proc.p_flag & P_LP64 != 0 ? 8 : 4
)
)
},
@@ -107,13 +103,6 @@ func readProcessSnapshot(
return ProcessSnapshot(metadata: [:], failure: "process_table_failed_\(ENOMEM)")
}
/** Decode the NUL-terminated accounting name; invalid UTF-8 is replaced for display. */
private func processName(_ process: kinfo_proc) -> String {
withUnsafeBytes(of: process.kp_proc.p_comm) { bytes in
String(decoding: bytes.prefix { $0 != 0 }, as: UTF8.self)
}
}
func readProcessIdentities(pids: [Int32]) -> [ProcessIdentityObservation] {
readProcessIdentities(pids: pids, snapshot: readProcessSnapshot())
}
@@ -141,7 +130,6 @@ func readProcessIdentities(
effective_uid: nil,
lifecycle: nil,
relation: nil,
name: nil,
reason: "not-in-snapshot"
)
}
@@ -156,7 +144,6 @@ func readProcessIdentities(
parent_pid: metadata.parentPid,
process_group_id: metadata.processGroupId
),
name: metadata.name,
reason: nil
)
}
@@ -170,25 +157,12 @@ private func unavailableIdentity(pid: Int32, reason: String) -> ProcessIdentityO
effective_uid: nil,
lifecycle: nil,
relation: nil,
name: nil,
reason: reason
)
}
enum ProcargsMalformedStage: String, CaseIterable {
case header
case argumentCount = "argument_count"
case executablePath = "executable_path"
case pointerSize = "pointer_size"
case pathPadding = "path_padding"
case arguments
case terminator
case trailingEntries = "trailing_entries"
}
enum RunTokenReadError: Error {
case invalidBuffer
case invalidBufferAt(ProcargsMalformedStage)
case duplicateToken
case invalidTokenEncoding
case environmentUnavailable
@@ -228,22 +202,6 @@ func processRunTokenObservation(
parse: Result<ParsedRunToken, RunTokenReadError>,
codeSigningFlags: () -> UInt32?
) -> RunTokenObservation {
// Native inspection restrictions apply even when argv is incomplete or
// overwritten, before parsing reaches the environment. Keep this fact at
// the native boundary; cleanup still decides whether the process is related.
func withheldEnvironment() -> RunTokenObservation? {
guard let flags = codeSigningFlags() else { return nil }
if (flags & csPlatformBinary) != 0 {
return unavailable(pid: pid, reason: "platform_binary_environment_withheld")
}
if (flags & csRestrict) != 0 {
return unavailable(pid: pid, reason: "restricted_process_environment_withheld")
}
return nil
}
func unavailableEnvironment(_ reason: String) -> RunTokenObservation {
withheldEnvironment() ?? unavailable(pid: pid, reason: reason)
}
switch parse {
case .success(let parsed):
if let runId = parsed.runId {
@@ -254,25 +212,38 @@ func processRunTokenObservation(
if parsed.environmentEntryCount > 0 {
return RunTokenObservation(pid: pid, state: "readable", run_id: nil, reason: nil)
}
if let withheld = withheldEnvironment() { return withheld }
let flags = codeSigningFlags()
if let flags, (flags & csPlatformBinary) != 0 {
return unavailable(pid: pid, reason: "platform_binary_environment_withheld")
}
if let flags, (flags & csRestrict) != 0 {
return unavailable(pid: pid, reason: "restricted_process_environment_withheld")
}
return RunTokenObservation(pid: pid, state: "readable", run_id: nil, reason: nil)
case .failure(let failure):
switch failure {
case .environmentUnavailable:
return unavailableEnvironment("environment_unavailable")
let flags = codeSigningFlags()
if let flags, (flags & csPlatformBinary) != 0 {
return unavailable(pid: pid, reason: "platform_binary_environment_withheld")
}
if let flags, (flags & csRestrict) != 0 {
return unavailable(pid: pid, reason: "restricted_process_environment_withheld")
}
return unavailable(pid: pid, reason: "environment_unavailable")
case .ambiguousEnvironmentBoundary:
return unavailableEnvironment("ambiguous_environment_boundary")
// These failures already establish that token bytes were available.
if let flags = codeSigningFlags(), (flags & csRestrict) != 0 {
return unavailable(pid: pid, reason: "restricted_process_environment_withheld")
}
return unavailable(pid: pid, reason: "ambiguous_environment_boundary")
case .duplicateToken:
return unavailable(pid: pid, reason: "duplicate_run_token")
case .invalidTokenEncoding:
return unavailable(pid: pid, reason: "invalid_run_token_encoding")
case .appleVectorUnavailable:
return unavailableEnvironment("apple_vector_unavailable")
return unavailable(pid: pid, reason: "apple_vector_unavailable")
case .invalidBuffer:
return unavailableEnvironment("malformed_procargs")
case .invalidBufferAt(let stage):
return unavailableEnvironment("malformed_procargs_\(stage.rawValue)")
return unavailable(pid: pid, reason: "malformed_procargs")
}
}
}
@@ -331,30 +302,27 @@ func parseProcessEnvironment(
in bytes: [UInt8],
pointerSize: Int = MemoryLayout<UnsafeRawPointer>.size
) throws -> ParsedRunToken {
guard bytes.count >= MemoryLayout<Int32>.size else { throw RunTokenReadError.invalidBufferAt(.header) }
guard bytes.count >= MemoryLayout<Int32>.size else { throw RunTokenReadError.invalidBuffer }
let argc = bytes.withUnsafeBytes { $0.loadUnaligned(as: Int32.self).littleEndian }
guard argc >= 0, Int(argc) <= bytes.count else { throw RunTokenReadError.invalidBufferAt(.argumentCount) }
guard argc >= 0, Int(argc) <= bytes.count else { throw RunTokenReadError.invalidBuffer }
var offset = MemoryLayout<Int32>.size
guard let executablePath = readString(in: bytes, offset: &offset) else {
throw RunTokenReadError.invalidBufferAt(.executablePath)
throw RunTokenReadError.invalidBuffer
}
guard pointerSize == 4 || pointerSize == 8 else { throw RunTokenReadError.invalidBufferAt(.pointerSize) }
guard pointerSize == 4 || pointerSize == 8 else { throw RunTokenReadError.invalidBuffer }
let pathRecordSize = Array("executable_path=".utf8).count + executablePath.count + 1
let padding = (pointerSize - pathRecordSize % pointerSize) % pointerSize
guard offset + padding <= bytes.count,
bytes[offset..<(offset + padding)].allSatisfy({ $0 == 0 }) else {
throw RunTokenReadError.invalidBufferAt(.pathPadding)
throw RunTokenReadError.invalidBuffer
}
offset += padding
let tokenPrefix = Array("REA_PROCESS_RUN_ID=".utf8)
var tokenInArgument = false
for _ in 0..<argc {
guard let argument = readString(in: bytes, offset: &offset, allowEmpty: true) else {
throw RunTokenReadError.invalidBufferAt(.arguments)
guard readString(in: bytes, offset: &offset, allowEmpty: true) != nil else {
throw RunTokenReadError.invalidBuffer
}
tokenInArgument = tokenInArgument || argument.starts(with: tokenPrefix)
}
guard bytes.last == 0 else { throw RunTokenReadError.invalidBufferAt(.terminator) }
guard bytes.last == 0 else { throw RunTokenReadError.invalidBuffer }
if offset == bytes.count {
throw RunTokenReadError.environmentUnavailable
}
@@ -372,7 +340,7 @@ func parseProcessEnvironment(
continue
}
guard let entry = readString(in: bytes, offset: &offset) else {
throw RunTokenReadError.invalidBufferAt(.trailingEntries)
throw RunTokenReadError.invalidBuffer
}
trailingEntries.append(entry)
}
@@ -393,28 +361,22 @@ func parseProcessEnvironment(
throw RunTokenReadError.appleVectorUnavailable
}
if trailingEntries[appleVectorStart...].contains(where: {
$0.starts(with: tokenPrefix)
$0.starts(with: Array("REA_PROCESS_RUN_ID=".utf8))
}) {
throw RunTokenReadError.ambiguousEnvironmentBoundary
}
let environmentEntries = trailingEntries[..<appleVectorStart]
var found: String?
for entry in environmentEntries {
if entry.starts(with: tokenPrefix) {
if entry.starts(with: Array("REA_PROCESS_RUN_ID=".utf8)) {
guard found == nil else { throw RunTokenReadError.duplicateToken }
let value = entry.dropFirst(tokenPrefix.count)
let value = entry.dropFirst("REA_PROCESS_RUN_ID=".utf8.count)
guard let decoded = String(bytes: value, encoding: .utf8) else {
throw RunTokenReadError.invalidTokenEncoding
}
found = decoded
}
}
// A changed process title can overwrite the original argument boundaries,
// causing a real environment entry to be consumed as an argument. A real
// argument can have this form too, so it proves neither ownership nor absence.
if tokenInArgument {
throw RunTokenReadError.ambiguousEnvironmentBoundary
}
return ParsedRunToken(runId: found, environmentEntryCount: environmentEntries.count)
}
+4 -4
View File
@@ -16,10 +16,10 @@ PROFILE = "[email protected];[email protected];[email protected]"
PACKAGES = {"pwntools": "4.15.0", "pyelftools": "0.33", "unicorn": "2.1.2"}
OUTPUT_BYTES = 64 * 1024 * 1024
# (e_machine, ELF class bits, byte order) -> architecture pwntools must also report.
PROFILES = {(62, 64, "little"): "amd64", (183, 64, "little"): "aarch64", (3, 32, "little"): "i386",
(40, 32, "little"): "arm", (8, 32, "little"): "mips", (8, 32, "big"): "mips"}
PROFILE_SCOPE = ("Layout profile requires ELF64 x86-64, ELF64 AArch64 little-endian, ELF32 i386, "
"ELF32 ARM little-endian or ELF32 MIPS little- or big-endian objects.")
PROFILES = {(62, 64, "little"): "amd64", (3, 32, "little"): "i386", (40, 32, "little"): "arm",
(8, 32, "little"): "mips", (8, 32, "big"): "mips"}
PROFILE_SCOPE = ("Layout profile requires ELF64 x86-64, ELF32 i386, ELF32 ARM little-endian "
"or ELF32 MIPS little- or big-endian objects.")
class LayoutFailure(Exception):
-26
View File
@@ -36,7 +36,6 @@ export default defineConfig({
{ text: "PE imports", link: "/pe-imports" },
{ text: "PE TLS/load config", link: "/pe-load-config" },
{ text: "ELF notes", link: "/elf-notes" },
{ text: "Binary hardening", link: "/binary-hardening" },
{ text: "Apple IPS crash reports", link: "/apple-ips" },
{ text: "Linux kernel modules", link: "/kernel-modules" },
{ text: "CPython pyc files", link: "/python-pyc" },
@@ -62,30 +61,6 @@ export default defineConfig({
{ text: "Electron observation", link: "/electron-observation" },
{ text: "Electron fuses", link: "/electron-fuses" },
{ text: "Process capture", link: "/process-capture" },
{
text: "Desktop application capture",
link: "/desktop-application-capture",
},
{
text: "Desktop application state",
link: "/desktop-application-state",
},
{
text: "Desktop application export",
link: "/desktop-application-export",
},
{
text: "Desktop application tasks",
link: "/desktop-application-tasks",
},
{
text: "Desktop build computer",
link: "/desktop-build-computer",
},
{
text: "Building and witnessing",
link: "/desktop-build-witness",
},
{ text: ".NET assemblies", link: "/managed-code-analysis" },
{
text: "Python packaged applications",
@@ -95,7 +70,6 @@ export default defineConfig({
{ text: "Apple applications", link: "/apple-application-analysis" },
{ text: "Desktop installations", link: "/desktop-applications" },
{ text: "Firmware", link: "/firmware-analysis" },
{ text: "iNES containers", link: "/ines-containers" },
{ text: "SQLite databases", link: "/sqlite-databases" },
{ text: "Packet captures", link: "/packet-captures" },
{ text: "Signal recordings", link: "/signal-recordings" },
+10 -34
View File
@@ -25,21 +25,7 @@ REA never installs the Android SDK, an emulator, or a system image.
Readiness is `rea inspect-adb-client`: it runs `adb version` and reports the
resolved binary, its version, and where it was selected from. A missing
binary reports `capability_unavailable` with the `REA_ADB_PATH` remediation
rather than attempting an installation. A path that cannot resolve to a file
(`ENOENT`, `ENOTDIR`, `ELOOP` or `ENAMETOOLONG`) is reported as missing. A
selected path the host refuses to execute, such as a directory or a file
without execute permission (`EACCES`) or one the host does not permit
(`EPERM`), and any other spawn error report `capability_unavailable` naming
that path. Exhausted host capacity (`EAGAIN`, `EMFILE`, `ENFILE` or `ENOMEM`)
is not a configuration failure. `inspect_adb_client`, and any device
operation whose adb cannot start at its version probe or at a later adb
command, report a retryable `capacity` resource constraint rather than a
capability refusal or an adb protocol failure; the `binary_session` inventory
reports the provider as `runtime_unavailable`. Both say the host could not
start adb and ask for a retry after freeing processes or descriptors, without
blaming `REA_ADB_PATH`. When adb never started, the refusal diagnostics record
the spawn error as `filesystem_error` with `path_source`, never as an
`exit_code`.
rather than attempting an installation.
The `binary_session` inventory uses the same bounded client-version probe; it
does not query devices, start the adb server, or establish that a requested
serial is reachable. Device state is checked by each device operation.
@@ -117,10 +103,6 @@ existing analysis families directly, for example
| `start_adb_activity` | **mutates device** | Starts an intent (`am start -a` with optional URI, component, and up to 16 typed extras); preserves the activity manager's verdict |
| `stop_adb_app` | **mutates device** | Force-stops every process of a package, ending a dynamic-analysis run |
Screen capture validates the PNG signature, IHDR framing, dimensions, and IHDR
checksum before publishing. It does not validate encoding fields or decode and
validate image contents; that limitation is retained in Evidence.
When `push_adb_file` receives an existing directory, adb places the local file
inside it under the local basename; Evidence reports that effective file path
while retaining the caller's directory path in the input parameters. The
@@ -217,18 +199,12 @@ and during shutdown.
`uninstall_adb_package` declare `mutatesTarget` and never run implicitly:
pushes check for existing device files before transfer and refuse them
unless `overwrite` is set. A failed or unexpected existence probe stops
transfer even with `overwrite`. A completed `test -e` exit of 1 establishes
absence only with empty stdout and either empty stderr or a recognized,
completed adb-server startup notice sequence. Startup notices are host
observations, not remote-path diagnostics; successful push receipts retain
them in `raw_result.device_path_probes`. Incomplete startup, extra diagnostics,
truncation and cancellation do not establish absence. The check is not atomic, so a different
transfer even with `overwrite`; only a clean `test -e` exit of 1 with no
output is interpreted as absence. The check is not atomic, so a different
process can create the path before `adb push` writes it. When available, the device's
`sha256sum` verifies the transfer. A missing command, output without a
recognizable digest, or host capacity that prevents the digest check from
starting reports `device_digest_source: "unavailable"` with an
unverified-transfer limitation rather than a retryable error; installs
preserve the
`sha256sum` verifies the transfer. A missing command or output without a
recognizable digest reports `device_digest_source: "unavailable"` with an
unverified-transfer limitation; installs preserve the
device's `Failure [...]` reason verbatim.
- **Producer identity stays attached.** Every result embeds the producing
adb client (`binary_path`, `path_source`, `version`, `installed_path`).
@@ -277,12 +253,12 @@ beyond already-connected devices (`adb connect`) are not exposed yet.
## Real verification
`npm run verify:adb` exercises observation and transfer operations against a live device. It
`npm run verify:adb` exercises every operation against a live device. It
requires `adb` (or `REA_ADB_PATH`) and any attached emulator or phone;
`--serial` selects one when several are attached, `--pull PACKAGE` pulls a
real package and verifies the returned digests against the files on disk.
The optional `--install-apk` lifecycle is unavailable until the selected APK
identity and device cleanup ownership can be established safely.
real package and verifies the returned digests against the files on disk,
and `--install-apk PATH` drives a full install → resolve → uninstall
lifecycle with a lane-owned probe.
Record: verified against adb 34.0.5 on Linux against an Android 14
(API 34) x86_64 emulator — all operations above, a 224-package inventory,
+7 -7
View File
@@ -19,7 +19,7 @@ records the app you provide; you start it and prepare its test data.
To run the exported environment, install the
[AgentEnv framework](https://github.com/scaleapi/agentenv-framework#install)
and start Docker. REA's [compatibility check](testing.md#exported-environment-bundles)
uses AgentEnv version `0.9.1431` with Python 3.12.
uses AgentEnv version `0.9.1334` with Python 3.12.
There are two ways to build an environment: ask your agent to record the app,
or start from a recording you already have.
@@ -158,12 +158,12 @@ assigned by the app.
Use the report's hints to decide what to record next:
| Reason | Next step |
| ------------------------------- | --------------------------------------------------------------------------------------------------------------------------- |
| `unconfirmed` | Read the item and its list after the change. |
| `no-state-target` | Check the path template and recorded views; record missing reads. The route form may not be supported as a mutation target. |
| `no-observation` | Read back a created item. For an edit or delete, also read it before changing it. |
| `contradicted` or `side-effect` | Inspect the reported disagreement. The operation may need behavior REA cannot model yet. |
| Reason | Next step |
| ------------------------------- | ---------------------------------------------------------------------------------------- |
| `unconfirmed` | Read the item and its list after the change. |
| `no-state-target` | Record reads of the collection or item the operation changes. |
| `no-observation` | Read back a created item. For an edit or delete, also read it before changing it. |
| `contradicted` or `side-effect` | Inspect the reported disagreement. The operation may need behavior REA cannot model yet. |
See the [full reason table](agent-environments.md#build-a-bundle-in-one-step)
for the other cases. Rebuild from the new recording and check the report
+13 -23
View File
@@ -174,7 +174,7 @@ what to record next; hints never change what is served:
| Reason | Hint |
| --------------------- | ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------ |
| `no-state-target` | The write could not be linked to a modelled target. Check the path template and recorded views; record missing reads. Some route forms may not be supported. |
| `no-state-target` | The write's path names no collection or item the capture reads. Read the collection or item it changes. |
| `no-call` | No recorded call of this tool was modelled, for example because every call failed. Record a successful call. |
| `body-unusable` | The retained request or response cannot be modelled. Record a successful call with a complete supported request and reproducible response. |
| `no-observation` | Nothing showed the entity or document this write changed. Read a created entity back by id right after the write; for an update or delete the state must already hold the entity, so read it before the write or record the create that made it. |
@@ -723,8 +723,6 @@ and `POST` tools the capture shows only reading (a lookup answering as a `GET`
did, an RPC tunnel naming read operations, a session renewal), stay served and
answer from their recordings with the reason `query-body`; they are not write
tools.
`HEAD`, `OPTIONS` and `TRACE` tools also replay their captured responses; their
state views report `method-replay` and coverage counts them as recorded reads.
A line establishes whole-collection membership only from the beginning:
`offset`, `start`, `_start` and `page` must be zero when present. Positive or
@@ -739,14 +737,14 @@ tools are not served, so no call claims a change it does not make; each one's
plan states why in its `reason`. A served write changes the live state, which
every MCP session and `data/get` then see:
| Effect | Call |
| ------------------------- | --------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- |
| `create` | Adds an entity to the collection the path names, built from the observed entity with each ruled field taken from the call or generated, at the plan's `insert` position. A plan tied to its exemplar's collection writes only there. |
| `update` | Sets the sent members on the entity the path names, constants for members accepted only with their recorded value, and the clock, nested clock, increment, slug, stamp, derived, composed, reference, unique and renewed changes the plan models. |
| `update` (action) | A `POST`, `PUT` or `PATCH` to an item path plus an action segment (`/{type}/{id}/archive`) sets, on the entity before the segment, each scalar the recorded calls showed the action set (`set`), or flips each boolean they showed it flipping both ways (`toggle`), with any sent members; it is served only when a recorded call found what it sets already set, or flipped back what it toggles. |
| `delete` | Removes the entity the path names. |
| bulk `update` or `delete` | A `DELETE`, `PUT` or `PATCH` at a collection, or a `POST` to it plus `delete`, `remove` or `destroy`, applies its effect to every entity the body names, as recorded: an array of ids or of objects carrying the id field, at the root or as the body's one array member (`{"IDs": […], "Read": true}`). |
| `document` | Merges the body into the plan's document object, or replaces it for `PUT`. |
| Effect | Call |
| ------------------------- | -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- |
| `create` | Adds an entity to the collection the path names, built from the observed entity with each ruled field taken from the call or generated, at the plan's `insert` position. A plan tied to its exemplar's collection writes only there. |
| `update` | Sets the sent members on the entity the path names, constants for members accepted only with their recorded value, and the clock, nested clock, increment, slug, stamp, derived, composed, reference, unique and renewed changes the plan models. |
| `update` (action) | A `POST`, `PUT` or `PATCH` to an item path plus an action segment (`/{type}/{id}/archive`) sets, on the entity before the segment, each scalar the recorded calls showed the action set (`set`), with any sent members; it is served only when a recorded call found those fields already set, so a toggle never is. |
| `delete` | Removes the entity the path names. |
| bulk `update` or `delete` | A `DELETE`, `PUT` or `PATCH` at a collection, or a `POST` to it plus `delete`, `remove` or `destroy`, applies its effect to every entity the body names, as recorded: an array of ids or of objects carrying the id field, at the root or as the body's one array member (`{"IDs": […], "Read": true}`). |
| `document` | Merges the body into the plan's document object, or replaces it for `PUT`. |
An update's unsent changes follow the plan's rules. A `held-clock` is a clock
the client sends back as it read it and the application stamps anew (Ghost's
@@ -757,9 +755,7 @@ the entity already names under its `created…by` counterpart into a
`modified…by` or `updated…by` field. A `derived` field takes a value showing
the one sent member's text that the entity stores nowhere (a field Ghost
derives from `html`), only with that member's recorded value. An action's
`set` rule sets a scalar to the value the recorded calls left it at, and its
`toggle` rule flips a boolean, refusing a call on an entity that holds none
there (Miniflux's `PUT /v1/entries/{id}/bookmark` stars and unstars).
`set` rule sets a scalar to the value the recorded calls left it at.
Its answer has the status and content type of the plan's recorded response,
with the written entity or its identity rendered in, no body, or the recorded
@@ -1049,9 +1045,8 @@ unknown recorded status stays unknown; it is not borrowed from another
record). A bundle with no such tool yields a verifier that checks the count
only and says so. `tasks/smoke.json` deploys the env on the local
sandbox and runs that verifier against the env's MCP endpoint; the first run
also pulls the framework's published infrastructure images from `ghcr.io`,
building one only if its pull fails, and the run tears everything down when it
ends.
also builds the framework's own infrastructure, and the run tears everything
down when it ends.
The README written into the bundle records the capture artifact's SHA-256, the
capture and manifest Evidence ids, the manifest view digest, the served tool
@@ -1150,12 +1145,7 @@ global conflict involving an equal pair is not used to normalize either pair; th
A step agrees when the statuses and the normalised bodies are equal. The report gives agreement overall, per probe and
per tool, `agreement_ignoring_order` for steps that differ only in item order, and each step's differences, at most 20,
with a JSON pointer and both values cut short. Each step reports `differences_total` before that cap,
`differences_omitted`, and `differences_truncated` (true when entries were omitted). Agreement and categories use the
complete comparison. Omitted entries are not retained, so `--full-output` cannot recover them; inspect the original
capture and probe Evidence to investigate beyond the returned pointers.
The difference categories are:
with a JSON pointer and both values cut short:
| Category | Meaning |
| --------------- | ------------------------------------------------------------------------------------------------------------ |
+1 -39
View File
@@ -39,9 +39,7 @@ unverified.
`inspect_android_package` also returns a static inventory of declared
activities, aliases, services, receivers and providers from the decoded
manifest. The binary XML decoder preserves component class spelling, including
`$` in nested classes, without applying JADX class aliases. `declared_name`
preserves the decoded source attribute; `name` resolves a
manifest. `declared_name` preserves the source attribute; `name` resolves a
relative name only when the manifest package is known and the resolved copy
fits the UTF-8 byte budget. An unresolved package or exhausted name budget
retains the declared name and marks the inventory partial. Empty component
@@ -73,9 +71,6 @@ spellings; the original SDK declaration strings remain unchanged.
it remains null for unknown provider target SDKs, nonliteral declarations, or
components with filters targeting API 31 or later that omit the now-required
explicit declaration. A limitation records the latter validation error.
As in Android's package parser, an activity, alias or receiver filter without
an `<action>` is discarded and does not count toward either rule; a service
keeps such a filter. `intent_filter_count` still counts every declared filter.
Provider authorities and all inventory dimensions are bounded. `status:
"partial"` and `limitations` identify omitted declarations or values; a
capacity limitation appears only when an actual collection limit was reached.
@@ -255,35 +250,6 @@ queries accept the same `overload_index`; the bridge resolves the selected
method node and the result reports its index and displayed signature. These
indices are tied to the current artifact and engine, not stable across builds.
Method reference queries also accept an external class, such as
`android.app.NotificationManager --method-name notify`, when the APK directly
invokes that exact DEX class and method name. If multiple prototypes are observed,
the input error lists their exact DEX descriptors and local overload indices;
repeat with an explicit `--overload-index`. These are the prototypes observed in
the APK, not the complete method inventory of an Android framework or library.
Such results report `target_definition: "external"` and
`reference_scope: "direct_dex_invokes"`. Each using method has `source_selector`
with `class_name`, `method_name` and `overload_index`; pass those fields with the
same APK path to `inspect_android_method` to inspect the caller. Repeated direct
invokes in one method remain one using node with multiple instruction offsets.
This scans raw invoke instructions in JADX's admitted APK methods without
generating their source. It does not resolve reflection, JNI, method handles,
inherited method lookup or possible runtime dispatch. Class-only queries and
class/method inspection still require an APK definition; an external target has
no invented body. Unknown class/method names remain input errors.
External prototype and caller metadata use a bridge-frame-derived representation
allowance that reserves space for retained raw calls and CLI/MCP copies. Exhausting
it returns a typed `resource_constraint`, rather than a truncated caller list
reported as complete. Direct instruction offsets have their separate explicit
`direct_invokes_exhaustive` coverage. Older retained Evidence may omit the new
definition, scope and caller-selector fields; omission does not establish them.
The bridge checks prototype expansion before copying descriptors or joining
displayed signatures. It reuses one bounded prototype inventory for the exact
class/method selection in the current APK session; replacing the session or
selection invalidates that retained result.
`inspect_android_class` also reports `dex_static_value` for each `static final`
field whose class definition encodes a value in its DEX static values, so
compile-time constants are readable even when the class has no `<clinit>`.
@@ -768,7 +734,3 @@ containing node's unknown `dex_offset`. `direct_invokes_exhaustive: false`
means instruction rows were bounded by the local bridge frame budget; `null`
means the producer did not establish instruction coverage. Using-node totals
and coverage do not imply complete instruction evidence.
`direct_invokes_coverage` reports counts of using nodes with complete, partial,
or unknown positions, plus the number of retained instruction sites. This
aggregate makes position truncation visible without scanning every caller;
older retained Evidence may omit it, which means the aggregate was unexamined.
-178
View File
@@ -1,178 +0,0 @@
# Offline API contract inventory
`inspect_api_contract` / `rea inspect-api-contract` supports local OpenAPI JSON
and GraphQL SDL (`format: "graphql-sdl"`). Neither profile contacts endpoints.
## OpenAPI JSON
The default profile reads one local OpenAPI
3.0, 3.1 or 3.2 JSON document. It inventories inline operation slots under
`paths`; the facts describe declarations, not implemented, reachable or
authorized runtime behavior. YAML, AsyncAPI, callbacks/webhooks, schema graphs,
contract diffs and traffic correlation are outside this version.
The OpenAPI importer never resolves references, opens sibling documents, evaluates
examples or contacts declared servers. OpenAPI 3.2 `query` and
`additionalOperations` follow the [Path Item contract](https://spec.openapis.org/oas/v3.2.1.html#path-item-object),
including case-sensitive additional HTTP method spelling.
## Select a useful answer
MCP defaults to a summary retaining the complete inventory. An optional view
returns selected facts immediately, taking precedence over `detail`:
```json
{
"path": "/artifacts/openapi.json",
"view": {
"kind": "api-contract",
"collection": "operations",
"methods": ["GET"],
"limit": 20
}
}
```
`operations` supports exact `operation_ids`, `operation_keys`, `methods`,
`paths`, `declared_ids` and `states` filters. Filters combine by intersection;
empty arrays select nothing. `fields` chooses columns; identity, source pointer,
state and unknown reason remain. The other collections are
`path-item-references` (optional `reference_ids`) and `diagnostics` (optional
`codes`), also with fields and offset/limit. The default page contains 64 rows.
Query a retained result with `inspect_analysis_view`, using the same view and
`source: {"kind":"retained-evidence","evidence_id":"..."}`. Copy the complete
parent ID from `normalized_result.parent_evidence_id`, not the summary's own ID.
These pages use immutable retained facts without rereading the specification.
Complete Evidence remains available through `get_evidence_bundle`.
CLI defaults to complete Evidence. For a selected answer, save that complete
Evidence in an absent bundle path:
```sh
rea inspect-api-contract ./openapi.json --detail summary \
--view '{"kind":"api-contract","collection":"operations","methods":["GET"],"limit":20}' \
--evidence_output ./contract.evidence.json --json
```
Later `rea inspect-analysis-view` can read that bundle through an exact
`evidence-file` source selection, even after the original specification is
unavailable. Publication never overwrites an existing file. CLI preserves its
original path spelling in `caller_input_path`; analysis locations and MCP inputs
use absolute filesystem paths.
## Identity, provenance and coverage
Each operation has an artifact-scoped `operation_id`, an exact method/path
`operation_key`, an optional `declared_id` from `operationId`, and its original
JSON Pointer. Keys can correlate exact declarations in a caller-selected pair
of revisions; they do not establish equivalence across unrelated APIs, renamed
path templates or runtime handlers. Declared IDs are not assumed unique.
The artifact includes the verified byte length, SHA-256 and selected path.
Malformed siblings retain useful declarations plus diagnostics. A Path Item
`$ref`, including a local fragment, remains unresolved; adjacent inline slots
are unknown because referenced fields may overlap. Missing or malformed paths
are explicit, and missing required OpenAPI 3.0 paths does not become a complete
empty inventory. `source_coverage` is limited to inline paths and records that
reference resolution and full schema validation were not performed. Page
exhaustion describes the selected rows and never upgrades source coverage.
Structured transport userinfo credentials are excluded from reference URIs;
`credential_redacted` reports that change, and an ambiguous credential span leaves
the displayed reference unknown. Ordinary reference query/fragment text and
names are retained. Original bytes remain in the caller's artifact; complete
inventory Evidence does not embed the entire source JSON. Duplicate JSON members
use the shared parser's last-value-wins behavior, recorded in source coverage.
If decoding or later validation fails after a verified read, the typed error
retains a compact `file-snapshot-hash` observation with the exact path, digest
and byte length. Syntax diagnostics do not quote source JSON. Cancellation
does not replace a parser failure that has already completed.
## Resource bounds and verification
The file-byte allowance and conservative expanded-facts allowance are each
32 MiB resource policies, not OpenAPI format limits. `max_file_bytes` can lower
the input allowance. Native JSON parsing additionally checks available heap
against the shared representation-expansion estimate before decoding. The
shared JSON nesting limit is 1,000, including uninterpreted schema regions.
Capacity refusals are typed; reply paging does not increase parser allowances.
The committed [Petstore fixture](https://github.com/morluto/rea/blob/b7c8caedd4166e6032c49024cdc6fb1154f1a2df/tests/fixtures/openapi/README.md) is an
original document from the published application, replayed offline through
public CLI/MCP tests. These check advertised schemas, complete/selected parity,
retained paging, partial references, zero requests to a loopback reference
server and unchanged source bytes. They do not establish runtime endpoint
behavior or full OpenAPI conformance.
## GraphQL SDL and operation documents
Select `format: "graphql-sdl"` for SDL. Optionally supply `operations_path` to
one local document containing operations and fragments. Both MCP paths are
absolute; CLI accepts relative spellings:
```sh
rea inspect-api-contract ./schema.graphql --contractFormat graphql-sdl \
--operationsPath ./queries.graphql --detail summary \
--view '{"kind":"graphql-contract","collection":"references","limit":20}' \
--evidence_output ./graphql.evidence.json --json
```
Collections are `types`, `fields`, `definitions`, `references`, `fragment-spreads`
and `diagnostics`. Each supports `fields`, `offset` and `limit` (default 64).
Exact batch filters include type/field/definition/reference IDs, type names,
`field_keys` such as `Query.viewer`, owning type names, binding/spread states
and diagnostic codes. Filters intersect; an empty array selects nothing.
Identity, source and applicable uncertainty fields always remain. Retained pages
and bundle-based queries use the same `graphql-contract` views without rereading
SDL or rebuilding its schema model.
Types and fields retain individual declaration occurrences, including extensions,
list/non-null wrappers, implemented interfaces and union member names. Operation
and fragment definitions own field references with aliases and parent-reference
IDs. Each reference links to a supplied SDL field occurrence, remains `model-only`
for a library-provided field such as `__typename`, or records an exact unknown
reason. Rejected schema construction keeps declarations but cannot supply trusted
bindings. Missing or duplicate fragment names remain explicit. Fragments are
visited once in their declared type scope and linked by spread edges; cycles
are never recursively expanded.
The versioned `graphql-sdl-field-bindings-v1` profile records the GraphQL library
version. It performs syntax parsing and schema construction for field resolution;
it does not establish whole-schema/operation validity, spread applicability,
reachability, authorization or endpoint behavior. Arguments, defaults,
descriptions, directive behavior, enum value inventory, introspection JSON,
federation composition and version comparison remain outside this profile.
Every fact has a document role, SHA-256, UTF-16 start/end offsets and parser token
line/column. Offsets address decoded UTF-8 text, including an optional BOM, rather
than byte positions. The two files are independently verified snapshots, not an
atomic pair. Fact IDs identify source occurrences; `field_key` separately supports
exact name-based joins and does not assert equivalence across revisions. CLI
retains its auxiliary path spelling in `caller_input_paths.operations_path`,
outside semantic identity, as well as its primary `caller_input_path`.
Malformed operation text retains the SDL inventory with partial coverage and a
source-located diagnostic. A primary parser refusal or later resource/cancellation
failure retains known source identities and available interpreted Evidence;
syntax diagnostics do not quote source text. Complete Evidence contains facts,
not original document bytes. An exhausted page never upgrades source coverage.
Each file has the same configurable maximum of 32 MiB. Conservatively charged
facts share a 32 MiB allowance; text/AST allocation is admitted against available
heap. The parser admits at most 262,144 lexical tokens and 65,536 comments per
document; subsequent iterative AST admission limits traversal depth to 128.
These are REA resource policies, not GraphQL language limits. Very deep input can
be refused by the parser before AST admission. Selected replies reduce transport
and retained queries reuse immutable facts; they do not avoid the initial parse.
The committed SWAPI SDL is an unchanged public application fixture with provenance
in `tests/fixtures/graphql/README.md`. It supplies 53 types and 243 fields;
verification does not execute its API.
Large complete inventories can exceed the default MCP response budget even when
selected pages fit. Use `export_evidence_bundle` with a caller-selected local
path for complete retained Evidence, or CLI complete JSON/bundle publication.
A transport refusal does not erase a completed retained analysis. Narrow pages
and source coverage remain available on the same continuing connection.
+12 -17
View File
@@ -179,31 +179,26 @@ share the application workflow, projection, retention and publication owners.
- `schemes_agree_on_signer` (observed): every present block scheme presents
the same _set_ of signer certificates. An extra signer in one scheme is
disagreement; a signer without a certificate makes it `null` (unknown).
A single present block scheme with known signers agrees with itself;
v1 is compared separately below.
Build-tools 33+ rotate through v3.1 by default, so a rotated app usually
reads `false` here and `true` below.
- `signer_change_declared_by_rotation` (declared): the signers differ, but
each appears in a lineage the APK declares. Read the two together: block
schemes with different signers covered by a declared lineage show `false`
/ `true`; differing signers without such a lineage show `false` / `false`.
A lineage alone does not establish a change between block schemes. It is
`null` when a signer's identity is unknown, or when the signers differ and
a declared lineage could not be decoded.
each appears in a lineage the APK declares. Read the two together: a
rotated APK shows `false` / `true`; signers that differ with no declared
lineage containing them show `false` / `false`. It is `null` when a
signer's identity is unknown, or when the signers differ and a declared
lineage could not be decoded.
- `v1_signers_match_block_signers` (observed): the v1 signer certificates
equal what the lowest block scheme that has signers (v2, else v3, else
v3.1) expects v1 to carry. That is its signer set, except that a v3/v3.1
signer declaring a rotation lineage expects the lineage's first
(original) certificate, as apksig requires. `false` is notable: the JAR
signature names a different key than the block signature. When v1 uses
the lineage's original key and v3 its newer key, this comparison reads
`true`. If v3 is the only present block scheme, agreement is `true` and
declared inter-block signer change is `false` even though rotation is
present. If v2 also uses the original key, agreement is `false` and the
declared inter-block change is `true`. `null` when
v1 or a populated block scheme is absent, any signer's identity is unknown (a
signature names a different key than the block signature. A key rotation
keeps v1 (and v2) on the original key, so it reads `true` while
`schemes_agree_on_signer` reads `false`, with or without v2. `null` when
v1 or a block scheme is absent, any signer's identity is unknown (a
`decode_error`, a `null` certificate or a `subjectKeyIdentifier`
`SignerInfo`), or the lineage's original certificate cannot be
identified. When identities or a lineage origin are unknown, limitations
explain why; absence is shown in the scheme records.
identified; a limitation then says why.
- `strongest_scheme`, `rotation_present`, `source_stamp_present`,
`self_consistent`.
+2 -7
View File
@@ -101,8 +101,8 @@ limitation reports how many inventoried entries were left out. IPA projection
still lists every archive component, including `SwiftSupport/`.
`platforms` lists `macos` for application roots with `Contents/`. It lists `ios`
for shallow application roots that have an `Info.plist` at their root. An
application root with neither, such as an empty inventory, has no platform.
for shallow application roots that have an `Info.plist`. An application root
with neither, such as an empty inventory, has no platform.
## macOS bundle anatomy
@@ -149,11 +149,6 @@ directories rather than `Versions/Current`. A framework's `info_plist_path` is
because `Versions/Current` decides which one applies) or when its single
version directory has no `Resources/Info.plist`.
A `shallow` bundle's `info_plist_path` is its root `Info.plist`. Without one,
it is `Resources/Info.plist`: a flattened macOS framework keeps its binary,
`_CodeSignature/`, and `Resources/` directly in the `.framework`, like a single
`Versions/<version>/` directory without the `Versions/` wrapper.
AppleDouble sidecar files (`._*` and `__MACOSX/`) are inventory facts, but they
describe neighbouring files. They are excluded from roots, bundle roles, and the
anatomy components.
+5 -5
View File
@@ -8,7 +8,7 @@ graph TD
end
subgraph "Production Composition"
COMPOSITION["src/composition/<br/>fresh typed provider and session factories<br/>one-shot binding and independent optional loading<br/>typed capability bindings: construction, availability and retryable lifetimes<br/>pure capability declarations feed provider catalogs"]
COMPOSITION["src/composition/<br/>fresh typed provider and session factories<br/>one-shot binding and independent optional loading<br/>static WASM/EVM descriptors: named contracts, factories, retryable lifetimes"]
end
subgraph "Adapters"
@@ -23,7 +23,6 @@ graph TD
SESSION["SessionProviderRouter + BinarySession<br/>one immutable deep binding per target<br/>disjoint auxiliary routing"]
REGISTRY["AnalysisProviderRegistry<br/>sorted deep candidates<br/>deterministic selection, no fallback<br/>ProviderInspectionScope: prerequisite observation lifetime"]
RECORDS["src/application/investigation/<br/>composed InvestigationRecords + narrow ports<br/>EvidenceLedger and Unknown ownership"]
LIFETIMES["CapabilityScope<br/>host-owned service close capabilities<br/>released peers removed; failed cleanup retained for retry"]
SNAPSHOT["BinarySessionRecords + AnalysisSnapshotCache<br/>binary target/profile snapshots and session file ownership<br/>record coordination and post-commit notifications"]
JS_RECON["src/application/javascript/ + src/artifacts/javascript/<br/>JavaScript artifact reconstruction<br/>directory/ASAR reads<br/>AST-only bundle projection"]
end
@@ -100,7 +99,6 @@ graph TD
MAIN --> COMPOSITION
CLI --> COMPOSITION
SERVER --> COMPOSITION
COMPOSITION --> LIFETIMES
COMPOSITION --> SESSION
APP --> FIRMWARE
FIRMWARE --> PROCESS
@@ -151,7 +149,8 @@ graph TD
OBJDUMP --> DOMAIN
COMPOSITION --> RIZIN
RIZIN --> DOMAIN
COMPOSITION --> GDB
CLI --> GDB
SERVER --> GDB
GDB --> PROCESS
GDB --> DOMAIN
HOPPER --> HOPPER_BRIDGE
@@ -207,7 +206,8 @@ graph TD
NATIVE_READERS --> DOMAIN
COMPOSITION --> FORMAT_READERS
FORMAT_READERS --> DOMAIN
COMPOSITION --> RUNTIME
SERVER --> RUNTIME
CLI --> RUNTIME
RUNTIME --> DOMAIN
PROCESS --> FILESYSTEM
AUX --> FILESYSTEM
+5 -9
View File
@@ -9,11 +9,9 @@ ordinary binary inspection use the same modular capability.
## Bring your own engine
Real verification covers **Linux x64** hosts and **EXEC/DYN/REL** objects in
these profiles: ELF64 x86-64, ELF64 little-endian AArch64, ELF32 i386, ELF32
little-endian ARM and ELF32 little- or big-endian MIPS. Other machines, classes
and byte orders, including big-endian ARM, return `unsupported_target`. Other
hosts, including Linux arm64, return `capability_unavailable` naming the
detected host before any target is read. Provide an absolute
these profiles: ELF64 x86-64, ELF32 i386, ELF32 little-endian ARM and ELF32
little- or big-endian MIPS. Other machines, classes and byte orders, including
AArch64 and big-endian ARM, return `unsupported_target`. Provide an absolute
Python executable whose environment already contains unchanged pwntools 4.15.0,
pyelftools 0.33 and Unicorn 2.1.2:
@@ -426,10 +424,8 @@ rea inspect-native-exports ./libexample.so --detail summary --evidence_output ./
without an export directory is a complete empty inventory.
- ELF rows list defined `.dynsym` symbols with global, weak or GNU-unique
binding and default or protected visibility. Each row keeps `value`
(`st_value` as stored; bit 0 marks Thumb code on 32-bit ARM), `size`, `type`,
`binding` and `visibility` (`"default"` or `"protected"`; `"unknown"` in older
historical Evidence where visibility was not recorded). ELF string tables do
not declare a text encoding. Names that
(`st_value` as stored; bit 0 marks Thumb code on 32-bit ARM), `size`, `type`
and `binding`. ELF string tables do not declare a text encoding. Names that
contain non-ASCII bytes are decoded as UTF-8 when those bytes form valid
UTF-8; `name_utf8_decodable` records whether the non-ASCII name bytes are
valid UTF-8 and `name_bytes_base64` retains those exact bytes (`null` for
-62
View File
@@ -1,62 +0,0 @@
# Binary hardening
Use `inspect_binary_hardening` to read compile-time and link-time hardening from
an explicit local ELF, PE, or Mach-O file. No disassembler, pwntools install, or
target execution is required. Universal Mach-O files return one image per slice.
```sh
rea inspect-binary-hardening /absolute/path/to/program --json
rea inspect-binary-hardening /absolute/path/to/program --max-file-bytes 1048576 --json
```
MCP accepts `{ "path": "/absolute/path/to/program" }`. CLI paths may be relative
to the current directory; MCP paths must be absolute.
Each image has one row per property: `property`, `state`, `confidence`, `basis`,
`location`, `note`, and `next_probe`. States are `enabled`, `disabled`,
`partial`, `unknown`, and `not_applicable`. `confidence` is `observed` for a
single header or import, and `derived` when the state combines several fields,
such as ELF PIE or full RELRO. An image's `architecture` is its CPU family, or
null when REA has no family for it. `machine` and `slice.architecture` keep the
exact identity, such as `arm64e`.
ELF rows cover PIE (`ET_DYN` with `PT_INTERP` or `DF_1_PIE`), NX (`PT_GNU_STACK`;
a missing header is `unknown` and the architecture default is only noted), RELRO
(`PT_GNU_RELRO` plus `BIND_NOW`), stack protector and FORTIFY undefined dynamic
imports, CET and AArch64 BTI/PAC GNU property notes, `DT_RPATH`, `DT_RUNPATH`, and
whether a `SHT_SYMTAB` section is present. Only an undefined dynamic import
counts. Imports come from the table `DT_SYMTAB` declares. A `SHT_DYNSYM` section
only supplies the symbol count when `DT_HASH` and `DT_GNU_HASH` leave it open,
and only if it names the same symbol and string tables. Without that count the
import rows are `unknown` and give the reason. A missing `__stack_chk_fail` or fortify import is `unknown`. That
absence does not establish that the protection was left out of a static or
stripped build. A present import is a sign that some code uses the protection,
not proof that all code does. NX, RELRO, `DT_RPATH`, and `DT_RUNPATH` are
`not_applicable` when `e_type` is neither `ET_EXEC` nor `ET_DYN`, and `unknown`
for a linked image with no readable program headers.
PE rows read `DllCharacteristics` for dynamic base, high-entropy VA, NX
compatibility, force integrity, no SEH, and guard CF. `cfg_instrumented` is the
load-config `GuardFlags` linker claim when `Size` covers that field. An
unreadable load configuration, including a TLS failure in that parser, leaves
only `cfg_instrumented` `unknown`. Authenticode and debug rows report certificate
and debug directory presence, not signature validity or debug content. A
directory whose address and size disagree is `unknown`.
Mach-O rows read `MH_PIE`, `MH_ALLOW_STACK_EXECUTION`, `MH_NO_HEAP_EXECUTION`,
an `__RESTRICT` segment, `LC_CODE_SIGNATURE` presence, encryption from the
existing encryption reader, the arm64e subtype, and a stack-protector import.
`hardened_runtime` is `unknown` with `next_probe` `inspect_signature`.
CodeDirectory flags stay with that tool.
The report states presence of build-time features. It does not state
exploitability. `inspect_binary_layout` is unchanged.
The default read budget is 64 MiB (`max_file_bytes`, ceiling 512 MiB). A changed
file is refused. A malformed header, a Mach-O segment or encryption command that fails admission, or a program, section,
or segment payload declared outside the file returns no partial report, except that one bad slice in a universal Mach-O leaves the other slices. A symbol table or
symbol name over its budget leaves the import rows `unknown` and keeps the
header rows. A GNU property note over its budget, or a compressed note section
that may hold one, leaves the CET and BTI/PAC rows `unknown` and keeps the header
rows. A dynamic-table budget still fails the ELF report. The image is never
executed.
+4 -20
View File
@@ -52,11 +52,7 @@ observations may omit the coverage field; treat omission as `unknown` rather
than inferring completeness from the array.
Passive DOM comparison checks complete node inventories and complete frame
parent/child structure independently. Node value lengths are comparable only
when both nonempty snapshots declare the same `node_value_length_unit`.
Missing or different units leave length comparison unknown; independent node
or frame structural differences can still prove change. Empty inventories have
no value lengths to compare. Frame IDs and sibling enumeration order
parent/child structure independently. Frame IDs and sibling enumeration order
are capture-local and do not establish a change; duplicate IDs, missing parents,
and cyclic ancestry remain unknown. A complete frame difference can still prove
change when DOM nodes are incomplete, and vice versa. Partial DOM or metadata
@@ -404,19 +400,7 @@ contextual evidence with `timestamp: null`, accompanied by a limitation stating
that it does not establish activity in the selected window. Main-frame scope
enforcement still applies to contextual navigation events. Network redirect
events retain their paired prior-hop response context when the timestamped
next-request event falls inside the window. A redirect row's optional
`redirect_response` contains the prior response `url`, CDP-reported `status`,
and `scope`. The URL has transport credentials removed; URL and status are
withheld unless its origin is approved. Missing or malformed response URLs have
null scope and add `invalid_protocol_value` timeline coverage; a valid URL with an
unsupported protocol has `unsupported` scope. Outside-policy and unsupported
responses mark the timeline as policy-filtered with `disallowed_origin` or
`unsupported_url`. Missing status remains null rather than zero. A supplied
non-numeric status is also null and records `invalid_protocol_value` coverage;
the other valid response facts remain available. Historical rows may omit this
field; omission does not establish that no prior response existed. Response
headers and bodies are discarded. The row timestamp belongs to the next request,
not an exact prior response time. The pre-arm timeline buffer is bounded
next-request event falls inside the window. The pre-arm timeline buffer is bounded
by original CDP message bytes. If clock sampling completes after that budget is
exhausted, the operation returns `payload_limit` instead of a partial window.
Cancellation and clock-request failures retain their own outcomes. Session
@@ -465,7 +449,7 @@ not bound the whole process heap.
REA retains local observation data and removes only URL userinfo credentials, explicitly declared scenario secrets, and values from structured credential/storage fields:
- URL observations preserve the complete local URL, including query values, fragments, duplicate parameters, and their order. Only username/password userinfo is removed; malformed original URL strings remain available with `origin: null`.
- DOM snapshots retain node types, node names, value lengths, and attribute names, but not text or attribute values. `dom.node_value_length_unit` is `utf16-code-units` for web observations and applies to every node's `node_value_length`; it counts JavaScript string code units, not Unicode code points or UTF-8 bytes. Electron observations declare `utf8-bytes` instead. Historical captures without the unit leave it unknown; reading them does not infer a unit or convert their stored lengths.
- DOM snapshots retain node types, node names, value lengths, and attribute names, but not text or attribute values.
- Supported DOM URL attributes are projected separately as resolved destinations. Empty `action` on HTML or XHTML forms and empty `formaction` on HTML or XHTML submit controls resolve to the document URL; other relative URL attributes resolve against the captured document base.
- Accessibility structure and reported roles are retained by default, while names and descriptions require `include_accessibility_text: true`. The browser protocol may omit an individual role; that role remains unknown for comparison. Other observed accessibility differences can still establish a change.
- Network observations retain method, status, MIME type, size, type, initiator stack location, and complete URLs with userinfo credentials removed. Redirects reported by CDP are attached as ordered `redirects` on the one request ID, with the prior request URL, CDP response URL, method/type, response status/MIME/encoded length, request timestamp, and the next `requestWillBeSent` event timestamp. CDP delivers `redirectResponse` with that next request event, so the latter is an event boundary rather than an exact response timestamp. Redirect response headers and bodies are discarded; hops outside the selected origins are discarded with the request chain. Headers are discarded after an allowlisted projection of length/encoding, structured CSP/Link/policy fields, and untrusted agent hints. Cookies and authorization headers are never retained.
@@ -500,7 +484,7 @@ REA retains local observation data and removes only URL userinfo credentials, ex
connection/frame inventories; matching direction/opcode sequences alone do
not prove alignment after drops. Redirect resource types use only shared known metadata:
an omitted type leaves equality unknown rather than proving a modification.
- Console observations with a stack source retain call type, argument types, the CDP `Runtime.Timestamp` in milliseconds since Unix epoch, and source location. An absent or invalid timestamp is `null` and makes `console_events` incomplete; an observed zero remains zero. Argument types are listed by CDP argument position. An absent or non-array argument inventory is `null`, and a malformed argument keeps its position as `unknown`; either makes `console_events` incomplete, while an observed empty inventory remains `[]`. A malformed stack or top stack frame is not replaced by its caller: the console event is excluded, and a request initiator location or WebMCP `registration_source` is `null`; each is reported as `invalid_protocol_value`. Source locations are CDP's zero-based lines and UTF-16 columns. A negative column, which Chrome reports on the first line of some inline scripts, is kept as reported and does not locate a column in the source URL; an invalid line or a non-integer column is `null` (WebMCP `registration_source` is `null`) and is reported as `invalid_protocol_value`. This epoch-millisecond clock is separate from the monotonic-second timestamps in `observe-web-session`. When console text capture is selected, already-delivered primitive values are retained verbatim with their original `argument_index`; objects, getters, and remote properties are never expanded. Text capture is `unavailable` when the argument inventory is unknown.
- Console observations with a stack source retain call type, argument types, the CDP `Runtime.Timestamp` in milliseconds since Unix epoch, and source location. An absent or invalid timestamp is `null` and makes `console_events` incomplete; an observed zero remains zero. Argument types are listed by CDP argument position. An absent or non-array argument inventory is `null`, and a malformed argument keeps its position as `unknown`; either makes `console_events` incomplete, while an observed empty inventory remains `[]`. A malformed stack or top stack frame is not replaced by its caller: the console event is excluded, and a request initiator location or WebMCP `registration_source` is `null`; each is reported as `invalid_protocol_value`. This epoch-millisecond clock is separate from the monotonic-second timestamps in `observe-web-session`. When console text capture is selected, already-delivered primitive values are retained verbatim with their original `argument_index`; objects, getters, and remote properties are never expanded. Text capture is `unavailable` when the argument inventory is unknown.
- WebSocket observations retain direction, opcode, and payload byte length. A missing or malformed CDP opcode is returned as `null`, with opcode-dependent payload byte length and shape also `null`, and marks `websocket_frames` incomplete. Missing or wrong-typed payload data is not treated as empty; its byte length is `null`, and a text payload shape is unknown. Numeric opcode `0` and an observed empty payload remain distinct from missing data. Opcode is nullable in the public inspection schema, so clients must handle unknown protocol values. When shape capture is selected, text messages are classified as text or complete value-free JSON shape; binary bytes, hashes, prefixes, and raw payloads are never retained.
- Storage observations always redact values. Key names, IndexedDB names, and cache names require `include_storage_keys`; stable content fingerprints require the additional `include_storage_fingerprints` selection. Cookie fingerprints cover cookies applicable to the current main-frame URL, including its path, rather than every cookie path on that origin. Other storage remains scoped to the origin. Cache fingerprints hash all decoded response bytes, including bodies above 64 KiB, subject to the [64 MiB per-message CDP limit](#request-boundary). Missing or undecodable cache bodies and partial IndexedDB remote objects make fingerprint coverage incomplete, so identical observations remain `unknown`.
- Unavailable or malformed storage inventories mark `storage_keys` unavailable, even without fingerprints. Comparisons suppress inferred key additions and removals while preserving modifications proven by complete fingerprints on both sides. Previously exported captures are not retroactively corrected; recapture them to obtain these coverage markers.
+3 -8
View File
@@ -9,10 +9,7 @@ liveness deadlines. `INPUT_JSON` may be inline JSON or a JSON file path.
The minimal request contains only browser launch/connect selection, `start_url`,
and at least one `actions` entry. Launch `headless` defaults to `true` and can
be set to `false` where the host supports a visible browser. Launched Chromium
keeps its sandbox; on hosts that cannot provide one, such as root in a
container, set `REA_BROWSER_NO_SANDBOX=true` for the REA process. Termux on
Android always launches without it. Navigations follow
be set to `false` where the host supports a visible browser. Navigations follow
the destinations named by the scenario and the page's ordinary browser requests,
and [request steps](#request-steps) send only to the start URL's origin;
there is no separate origin allowlist. Request steps use a temporary dispatch
@@ -414,10 +411,8 @@ data you may change. This scenario creates one item:
- Request steps follow no redirects: a redirect answer fails the step, and
nothing is sent to the location it names, though a write the redirect
answered may already have been applied. `expected_status` cannot name a 3xx
status. Manual redirects can be opaque to the page and may not produce a
response event; their status and `Location` can therefore be unavailable even
when network events and header values were selected. Such captures report
incomplete event coverage.
status. Give the path the redirect names; with header values selected, the
capture records its `Location`.
- Header values are literals, declared secrets, a cookie the browser holds for
the request URL (`{"source": "cookie", "name"}`, HttpOnly cookies included,
whose value the page's scripts can then see while the request runs), or a
-62
View File
@@ -1,62 +0,0 @@
# Bun standalone executables
`inspect-artifact` inventories embedded Bun module graphs in Mach-O `__BUN,__bun`,
PE `.bun`, ELF `.bun`, and appended trailers. `extract-artifact` writes their stored
module contents through the existing safe output tree. Neither operation executes
the executable or decompiles bytecode.
```sh
rea inspect-artifact ./hello --json
rea extract-artifact ./hello --json
```
In MCP, open the executable with `open_binary`, then call `inspect_artifact`.
Use `detail: "summary"` for large graphs and `inspect_analysis_view` to page retained
Evidence. The root metadata's `entry_point_logical_path` is the reader-owned
location of its entry module. Use it as an inventory `logical_paths` filter,
then read selected node fields with the returned content identity. This also
works for names mapped to indexed extraction paths. The complete Evidence stays
retained; no source-name normalization is needed in the caller.
The root reports the carrier, layout, module count, entry point, raw flags and
compile exec-argv. Each module retains its source name, loader and encoding values,
entry-point status, sizes and SHA-256. Sourcemaps, bytecode and module-info regions
are separate children. Source names such as `/$bunfs/root/main.js` remain in
metadata; extraction uses a relative path. Unsafe or non-UTF-8 names receive an
indexed path and retain their source spelling or bytes. Virtual names deeper
than 256 logical path parts also use an indexed path with an explicit limitation,
preventing unbounded path-tree work while retaining the source fact. Duplicate names remain
separate occurrences; ordinary extraction collision rules apply.
The recognized record shapes are the 36-byte Bun 1.3.3 layout and the 52-byte
Bun 1.3.9 layout. These labels identify structural layouts, not a detected compiler
version. Bun does not store an explicit revision identifier: unknown table sizes
and ambiguous known layouts are unsupported. A future layout that is byte-for-byte
compatible cannot be distinguished. Invalid pointers and truncated claimed sections
are malformed. An absent trailer without a named section does not establish a Bun
graph. Unknown enum values remain raw, with a null name.
Sourcemaps are stored Bun regions, not necessarily standalone JSON source maps.
Extracted contents retain their original encoding. Use JavaScript analysis only on
compatible source files; bytecode is retained as evidence, not decoded.
Module parsing reads exact metadata ranges rather than loading stored asset
bodies or whole pages around small pointers. A cache retains at most 256 KiB
and 1,024 ranges for one reader preparation. Cumulative uncached metadata reads
are limited to 256 MiB, checked before allocation or I/O. The module table,
decoded strings and combined logical path tree have separate admission checks;
at most 250,000 distinct path prefixes are admitted before inventory construction.
Stored bodies are range-streamed for hashing and extraction. Header/suffix observations are reused
only for the same admitted file state, with selected-path checks before publication.
See [limits and recovery](design/limits-and-recovery.md) for admission ceilings.
Synthetic tests cover the carriers and malformed declarations. Run
`node scripts/verify-bun-standalone.mjs` after `npm run build:cached` for local Bun
verification, and add `--docker` to compile a Linux fixture with `oven/bun:1.4.0`.
Bun and Docker are fixture producers only and are not installed by REA.
Layout references: [Bun 1.3.3 serializer](https://github.com/oven-sh/bun/blob/bun-v1.3.3/src/StandaloneModuleGraph.zig)
and [Bun 1.3.9 serializer](https://github.com/oven-sh/bun/blob/bun-v1.3.9/src/StandaloneModuleGraph.zig).
The current 52-byte record order can also be checked in the
[Bun 1.4.4 Rust serializer](https://github.com/oven-sh/bun/blob/bun-v1.4.4/src/standalone_graph/StandaloneModuleGraph.rs).
-107
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@@ -1,107 +0,0 @@
# Capability composition and ownership
REA keeps domain contracts and shared workflows separate from provider adapters
and CLI/MCP translation. A capability can have several provider identities; a
provider can contribute operations to several capabilities. Those associations
are source facts, while host availability is an observation.
## Source declarations and runtime bindings
`src/composition/capabilityDeclarations.ts` contains static provider identities,
named contract-group references and precise operation subsets. Complete groups
refer to `TOOL_CONTRACT_GROUPS` in the existing contract owner; family definitions
and provider catalogs read the same arrays, so a new group operation is included
without updating a copied provider list. Metadata imports only the group ID type
and pure metadata leaves; it must not load factories, schemas, engines or
generated catalogs. Catalog generation resolves groups and subsets against the
canonical contracts and rejects unknown groups/operations and conflicting
identities. New provider provenance must come from the implementation
that actually produces the Evidence, including format-specific capture adapters
and derived workflows.
`src/composition/capabilityServices.ts` binds typed service factories to those
capability keys. Each runtime entry owns construction, cleanup and any available
host/configuration facts or live probes. A service entry requires a close
capability; entries adapting managers retain their existing `closeAll` operation.
The host maps entries without erasing their individual service/port types. There
is no generic JSON operation dispatcher.
These two declarations have different loading needs. Static facts can be read
without loading a schema or provider graph. The full runtime composition is
materialized only when the MCP runtime needs it. One-shot CLI adapters import the
selected factory rather than constructing a complete capability host. CLI and MCP
reuse the same provider/service factories and application workflows, while
keeping their respective argument translation and lifetime.
## Resource lifetime
`CapabilityScope` registers a module's actual close capability when its instance
is composed. There is no independent server provider-close list to update.
Concurrent shutdown calls join the same cleanup attempt. A successful peer is
removed from pending cleanup; failed peers remain owned and are retried on the
next close. Synchronous throws and rejections without a reason remain failures,
and cannot prevent other peers from attempting cleanup. Shutdown seals further
ownership registration.
The host distinguishes these lifetimes:
- Host-owned service instances are released by that host.
- Caller-owned optional observations remain borrowed by SDK server instances;
their process-level owner closes them, including discarded discovery probes.
- CLI invocations use their existing finalizers to join cleanup and preserve the
original observation, cancellation and cleanup errors.
- Binary engines, bundle readers and investigation records retain their existing
owners. The `BinarySession` transition/drain barrier still coordinates target
changes, reset and disposal. A module refactor must not create independent
barriers that allow late work to repopulate reset records.
An application workflow may borrow a shared resource scope, such as byte entropy
using the host's artifact scope. Its wrapper does not acquire a second ownership
claim over the borrowed scope.
## Availability and registration
Module bindings provide host support, selected configuration and precisely typed
live availability probes through `CapabilityAvailabilityFacts`. Constructors do
not run these probes or launch engines. Session discovery invokes the existing
provider-owned probes only for advertised families; live failures remain fresh
observations. Caller policy, selected environments and injected providers retain
their existing precedence.
MCP registration remains in the MCP adapter. It consumes composed services,
record ports, admission and logging; it must not add fallback constructors that
can escape the host owner. Named contracts bind handlers and schemas. The complete
tool-family registrar map is checked by TypeScript, and catalog order never
selects a handler or schema.
## Extending a capability
1. Add or reuse the domain contract and application workflow, with explicit
Evidence provenance, coverage, unknowns and caller choices.
2. Put concrete construction in `src/composition/` and keep its default factory
lazy. Reference adapter-owned pure identity metadata from both the provider
and its static capability declaration.
3. Add the runtime binding if a host-owned service is needed. Bind cleanup and
availability/probes there, preserving borrowed versus owned resources.
4. Add the CLI/MCP argument adapters and their named registrations. A one-shot
command uses the shared selected factory and existing finalization helpers.
5. Run source-boundary, discovery, SDK-schema and relevant public workflow checks.
Exercise partial cleanup, retry, cancellation and caller-owned peers at the
applicable production seam; use actual applications/providers for routing and
complete Evidence verification. Recording ports do not prove real providers.
The constructor boundary guard covers the centralized Frida, Cutter, GDB and
Rizin constructors without rejecting legitimate type-only injected interfaces.
Other settled pure/provider boundaries continue checking type imports too. The
shared parser records module-edge erasure once. Whole-declaration type imports
are erased; inline type bindings retain their runtime module edge under
`verbatimModuleSyntax`. Static dynamic imports remain runtime edges too.
Tests belong with their semantic owner and must be
found exactly once; provider roots need the corresponding adapter discovery lane.
This is an internal composition contract. External plugin distribution, automatic
provider installation and a universal provider interface are separate concerns.
The [initial verification report](verification/capability-composition-2026-11-01.md)
records the executed public workflows, cleanup boundaries, resource measurements
and remaining provider qualification gaps for this composition increment.
+18 -283
View File
@@ -39,17 +39,6 @@ pass an absolute path. REA reads and authenticates the file, then projects it
like retained Evidence, so a large file is bounded by the file reader rather
than charged as inline input.
An argument that accepts inline JSON or a JSON file path also accepts `-`, which
reads the request from standard input, so a generated request needs no
temporary file:
```bash
jq -nc '{source: {kind: "evidence-file", path: "app-evidence.json"}, view: {kind: "summary"}}' | rea inspect-analysis-view -
```
Standard input is read once as a single UTF-8 JSON document without a
byte-order mark, and it is limited to 8 MiB. Put a larger request in a file.
Local file inspection commands reject empty paths and NUL bytes before resolving
relative inputs, auxiliary files or output destinations. An empty string never
selects the working directory; use an explicit `.` when selecting that directory
@@ -176,15 +165,6 @@ into the current shell:
eval "$(rea completions bash)"
```
For zsh, initialize completion before loading the hook. If your shell already
runs `compinit`, place the hook after that existing initialization:
```zsh
autoload -Uz compinit
compinit
eval "$(rea completions zsh)"
```
The Bash hook supports macOS system Bash 3.2. It uses optional completion
features when the shell provides them and falls back to portable registration.
Completion includes standard global options and the active command's options;
@@ -281,40 +261,6 @@ Format versions 6 through 8 retain header, block and directory facts with
none/LZ4/LZ4HC block decompression. See [UnityFS](unityfs.md) for encryption
and LZMA coverage boundaries.
Inspect a WeChat mini-program package without WeChat or an unpacker:
```sh
rea inspect-artifact app.wxapkg --detail summary --evidence_output evidence.json --json
rea extract-artifact app.wxapkg --json
```
Plaintext packages retain header, table and member facts with verbatim member
bytes. `V1MMWX` packages are detected as encrypted coverage and refused on
extraction. See [wxapkg](wxapkg.md) for layout and coverage boundaries.
Inspect an ESP32-family app or bootloader image without esptool:
```sh
rea inspect-artifact firmware.bin --json
rea extract-artifact firmware.bin --json
```
The inventory lists each segment with its ESP-IDF load classification, the
checksum and SHA-256 results, the descriptor and any Secure Boot v2 signature
blocks. See [ESP images](esp-image.md) for recognition, coverage and refusals.
Inspect an ESP flash dump, or one read from a flash address other than 0:
```sh
rea inspect-artifact flash.bin --json
rea inspect-artifact dump.bin --target-format esp-flash-image --flash-offset 0x1000 --json
rea extract-artifact flash.bin --json
```
The inventory lists the bootloader, the partition table and each partition,
with ESP image facts for app partitions and the OTA records. See
[ESP flash images](esp-flash-image.md) for table location, inputs and limits.
Inspect a Node.js SEA carrier without running it:
```sh
@@ -345,35 +291,6 @@ rea extract-artifact ./firmware.bin --json
See [U-Boot uImage](uimage.md) for verified CRCs, physical component ranges,
unknown names, resource limits and retained views. Compressed bytes stay stored.
`inspect-artifact` and `extract-artifact` also read ZIP members compressed with
Zstandard (standard method 93). They retain the shared ZIP CRC, declared-size,
overlap and archive expansion checks. The native streaming decoder keeps the
existing 128 MiB Zstandard window cap; frames requiring a larger window are
reported as a resource limit (`reason: limit`, `boundary: memory`), rather than
as archive corruption. The cap cannot be raised at runtime: recompress with a
window of at most 128 MiB, or decompress externally before retrying.
Deprecated method 20 and other unregistered ZIP codecs remain unsupported.
Inventory and extract UF2 or DfuSe regions:
```sh
rea inspect-artifact ./firmware.uf2 --json
rea extract-artifact ./firmware.dfu --json
```
See [UF2 and DfuSe images](uf2-dfuse.md) for recognition, families, numbering,
the DfuSe suffix CRC and limits.
Inventory and extract U-Boot FIT images:
```sh
rea inspect-artifact ./boot.itb --json
rea extract-artifact ./boot.itb --json
```
See [U-Boot FIT images](fit-images.md) for recognition, data sources, hashes
and limits.
Inspect local model declarations without loading weights:
```bash
@@ -476,8 +393,7 @@ applicable. gzip, xz, and zstd containers are unsupported and name
utility, then inspect the decompressed file. See
[Linux kernel modules](kernel-modules.md).
Inspect a CPython 3.7–3.13 `.pyc` header and nested marshal code objects (3.14 and
3.15 headers are qualified but their marshal layout is not pinned)
Inspect a CPython 3.7–3.13 `.pyc` header and nested marshal code objects
without executing bytecode or installing Python:
```bash
@@ -498,15 +414,6 @@ The workflow reports IFF chunk names, atom tables, exports, imports, lambdas,
and the Code chunk header. Missing optional tables stay null. See
[Erlang BEAM files](erlang-beam.md).
Complete `rea decompile --json` Evidence can be saved and inspected through
`inspect-analysis-view` with an inline source and
`view: {kind: "native", facet: "pseudocode", offset: 0, limit: 20000}`.
The projection reads that saved observation without starting a provider;
offsets/limits count UTF-16 code units. A summary view preserves the original
selector and distinguishes null from empty text. The MCP tool additionally
supports `detail: "summary"` on its first call to retain the complete source
without returning the body inline; see [native investigation](native-investigation.md).
Configure [Hopper or Ghidra](installation.md#hopper), the
[IDA adapter](ida-provider.md), or [Kuna](kuna-provider.md) before analyzing a
native target. Substitute
@@ -596,25 +503,6 @@ be verified. See [MCP contracts](mcp-contracts.md) for session lifecycle and
[Ghidra first-query deadlines](mcp-contracts.md#ghidra-first-query-deadlines-and-recovery)
for import, client timeouts and recovery.
A one-shot command releases its provider session and REA runtime before it
prints a failure, so it omits the same-session reuse and
`update_analysis_settings` guidance an MCP connection receives. Its
`details.limit` reports `scope: "rea-invocation"` and
`applies_at: "next_invocation"`; set the named `environment` (or the per-call
`parameter`) for a new invocation and rerun. For example, a Ghidra decompile
deadline names `REA_GHIDRA_DECOMPILE_TIMEOUT_SECONDS`.
`rea debug-with-gdb` and `rea debug-with-rizin` hold their debugger only for the
command's own process. If cleanup cannot confirm the debugger stopped, they print
`cleanup_incomplete` and exit nonzero without stopping it. `remediation.action`
names the process, as does `retained_debugger_pids` in `details.diagnostics`, or
in `details.diagnostics.cleanup_error.details.diagnostics` when the command also
failed or was interrupted. Exiting closes the debugger's command and output pipes.
REA does not establish what the debugger or its target does next, so check that
process. An MCP server that shuts down likewise exits with status 1 instead of
waiting on a debugger it could not stop. It names the process on stderr and as
`retained_debugger_pids` in its error log.
If one-shot analysis fails and closing its session also fails, the original
error details remain inline and `details.cleanup_error` describes the later
close failure. Each diagnostic retains its own reported resources; the later
@@ -647,9 +535,6 @@ Saved snapshots include only cache entries whose subject identifies the selected
target. Unbound observations and observations of child artifacts remain available
in the open session and its Evidence bundle; they are excluded from the target's
saved replay entries without changing their subjects.
The snapshot also retains available Evidence linked by selected records, including
transitive sources with an unbound or different subject. Those sources are not
replay entries for the selected target. Unrelated records remain excluded.
Snapshots retain eligible target-scoped question histories in full, including
mutation Evidence recorded while another target was active. Observations and
@@ -664,11 +549,6 @@ rea analyze /absolute/path/to/program --provider ghidra --snapshot /absolute/pat
```
An exact CLI cache hit is normally read before starting a provider process.
`decompile --provider ghidra --snapshot ...` also retains its single selected
Program's pseudocode result, even without an explicit document selector. Old
snapshots that contain only the Evidence need one new query to add that replay
entry. This does not retain every body from `decompile-all` or make a persistent
session's implicit document replayable.
On Windows, Ghidra first admits the selected source through its native snapshot
owner, so replay can start that provider.
In MCP, `open_binary` accepts `snapshot_path` to import a snapshot atomically
@@ -677,30 +557,6 @@ cached result. `close_binary` accepts `snapshot_path` and optional
`overwrite: true` to save before releasing provider resources. A failed save
leaves the session open so the caller can resolve the output failure.
When a validated snapshot does not match the selected binding, the error's
`details.binding_mismatch` reports confirmed target identities, provider
identities, or profile digests that differ. `snapshot` is the saved value and
`selected` is the requested value. Multiple differences can be reported. A
`profile_comparison: "not_compared"` means the profile was not available at
that boundary; it does not establish a match. A profileless snapshot can report
`workflow_scope: "incompatible"` even when its target and profile match.
Choose a matching target, provider, and profile, or analyze without the snapshot
and save a new one for the intended binding.
For a profile mismatch, the saved snapshot contains
`binding.analysis_profile.parameters`. If `binary_session` reports an active
profile whose digest matches `binding_mismatch.profile_digest.selected`, its
`analysis_provider_binding.analysis_profile.parameters` can be compared with
those saved parameters. A rejected switch leaves the previous session active,
so its profile may be different from the attempted selection; check the digest
before using it for this comparison. A configuration difference does not by
itself establish why analysis results differ.
If no target is open and you intend to inspect the selected binding, open that
target without the snapshot, then check its profile digest in `binary_session`
before comparing parameters. This may start the selected provider; the saved
snapshot remains a separate file.
If a selected snapshot's file descriptor cannot close, `open_binary` reports
`cleanup_incomplete`. `binary_session` reports `cleanup_pending` even when no
target opened. Retry `close_binary` to release the retained descriptor before
@@ -721,10 +577,6 @@ results and Evidence. These are cached observations, not a saved provider
database: only eligible exact queries can reuse a result, and new or live
queries can still require provider startup. The CLI uses the same snapshot
format and preserves these records when loading and updating it.
When an MCP session replays a provider observation, its delivered Evidence identifies
the original observation through `evidence_links` and reports that the
provider was not rerun. The original and its available source records remain
in the investigation bundle.
## Import, export and compare Evidence
@@ -742,17 +594,10 @@ rea compare left.json right.json --record_pairs '[{"left_evidence_id":"ev_<left-
Migration: replace `rea compare-bundles` with `rea compare`; the former command
has been removed. The MCP tool remains `compare_bundles`.
`rea compare` compares records by Evidence identity and explicit pairs. It does
not read artifact contents: the inventories of two builds are unresolved
records, or one opaque change when you pair them. Use `compare-artifacts`,
described at the end of this section, to compare their contents.
`--record_pairs` accepts an inline JSON array or the path to a local JSON
file containing that array, matching MCP `compare_bundles.record_pairs`. For a
file, use `rea compare left.json right.json --record_pairs pairs.json --json`.
Pair IDs must exist on their named sides and be one-to-one. Without pairs,
one-sided membership remains unknown; REA does not infer correspondence from
position or display names.
`--record_pairs` supplies an explicit JSON array of observation pairs, matching
MCP `compare_bundles.record_pairs`. Pair IDs must exist on their named sides and
be one-to-one. Without pairs, one-sided membership remains unknown; REA does
not infer correspondence from position or display names.
Exports preserve an existing destination unless `--overwrite` is explicit.
@@ -765,64 +610,12 @@ with `details.reason: path-limit` and `boundary: filesystem-path`.
For application traces and version comparisons, see
[JavaScript application workflows](javascript-application-workflows.md).
MCP [retained Evidence references](mcp-contracts.md#retained-application-evidence-inputs)
belong to one connection. Separate CLI calls can consume full saved records or
resolve exact retained IDs from an explicitly selected local bundle:
```bash
rea trace-application-feature request.json --evidence-bundle /absolute/path/evidence.json --json
```
Here `request.json` uses the same logical Evidence input as MCP, for example
`"application": {"kind":"retained-evidence","evidence_id":"ev_<64 lowercase hex characters>"}`.
Inline records and references may be mixed in the request's declared source
fields, including arrays and nested inputs. The bundle is read and authenticated
once for that command; no target is reopened, no producer is rerun, and no
record is selected by file order. Source identity, provenance, coverage and
partial or unknown facts agree with the complete inline form. When starting
from summary or inspection Evidence, select its
`normalized_result.parent_evidence_id` for a workflow requiring complete source
facts. Omit `--evidence-bundle` when all sources are inline.
The JSON workflow commands supporting this option are:
- `trace-application-feature`, `trace-javascript-semantics`,
`compare-application-versions`, `compare-javascript-export-shapes`,
`compare-source-to-bundle`, and `reconcile-javascript-runtime`.
- `import-managed-reconstruction`, `verify-managed-native-boundaries`, and
`project-managed-application-graph`.
- `project-android-application-graph`, `project-apple-application-graph`, and
`project-harmony-application-graph`.
- `compare-wasm-interfaces` and `inspect-analysis-view`.
For `inspect-analysis-view`, the request's source reference selects a parent
from the bundle for every supported view kind. Bundles exported from MCP work
for these commands. Its inline source form cannot also select a bundle.
A missing ID is refused with `details.reason: "missing"`;
supplying a bundle does not make incompatible Evidence valid for a workflow.
`compare-managed-members` keeps its two assembly paths and an optional
repeatable `--type` selection applied to both sides, and
`compare-process-captures` keeps its two capture Evidence JSON paths. The bundle
option above selects an input; producer options that write a new bundle, such
as `inspect-managed-members --evidence-bundle`, retain their existing meaning.
File selectors remain available only on contracts that explicitly support them.
Compare two artifact inventories with `compare-artifacts`. It takes the same
`left` and `right` input as MCP `compare_artifacts`: complete Evidence, or an
`evidence-file` source with an optional `evidence_id` that selects one record
from a bundle. Relative paths resolve from the working directory:
```bash
rea inspect-artifact old.zip --json > old.json
rea inspect-artifact new.zip --json > new.json
rea compare-artifacts '{"left":{"kind":"evidence-file","path":"old.json"},"right":{"kind":"evidence-file","path":"new.json"}}' --json
```
A one-shot `compare-artifacts` command keeps no session Evidence, so it refuses a
`retained-evidence` source with `details.reason: "missing"`. Select the record
from a saved bundle instead.
For an artifact summary selected from a bundle, include its complete parent
inventory in the same bundle. The command resolves that parent from the
authenticated file records; a summary-only file cannot supply missing facts.
belong to one connection. Separate CLI calls can consume full saved records.
`inspect-analysis-view REQUEST.json --evidence-bundle BUNDLE.json` resolves
the request's `retained-evidence` source ID from that authenticated bundle,
including bundles exported from an MCP session. The same view JSON works for
every supported parent kind; no target is reopened and no record is selected
by file order. Omit `--evidence-bundle` when the request supplies inline Evidence.
## Import historical source
@@ -838,7 +631,6 @@ Import an older source tree to compare with the current artifact:
```bash
rea import-reference-source /absolute/path/to/source
rea import-reference-source /absolute/path/to/source --detail summary --outline-depth 2 --json
rea import-reference-source /absolute/path/to/source --exclude-paths '["vendor/","*.generated","!keep.generated"]'
```
The default (`--detail full`) returns the complete `HistoricalSourceGraph`.
@@ -985,10 +777,6 @@ Choose the guide for the target and intended interaction:
- [Electron fuses](electron-fuses.md): read packaged fuse bytes before expecting `--inspect` to reach an Electron main process.
- [Node/Electron Inspector](javascript-runtime-observation.md): record script locations and execution contexts.
- [Process capture](process-capture.md): run an executable and compare terminal, exit and filesystem observations.
- [Desktop application capture](desktop-application-capture.md): launch a Linux desktop application and record its windows and home-directory state at checkpoints while it is used.
- [Desktop application state](desktop-application-state.md): read a capture folder into the application's state files, typed views of each version and kinds of change.
- [Desktop application export](desktop-application-export.md): write a capture folder as an agentenv computer app bundle with its class, skill and seed.
- [Desktop application tasks](desktop-application-tasks.md): describe how a capture's files changed, then validate an agent-written task against the capture and export it with its verifier.
Runtime requests name the target and actions. Launched targets run with your
user permissions; consult the chosen guide for host requirements and effects.
@@ -1006,13 +794,7 @@ rea mcp --http --port 8765
`--host` and `--port` default to `MCP_HOST` and `MCP_PORT` from the environment,
then to `127.0.0.1` and an ephemeral port. A bind outside loopback requires
`MCP_ALLOWED_HOSTS` or `--allowed-hosts`, a comma-separated list of client host
names or IP addresses without URLs or ports.
Repeat `--allowed-hosts` to append names, or put multiple names in one
comma-separated value. All occurrences are validated together and deduplicated
after hostname normalization; the explicit list replaces `MCP_ALLOWED_HOSTS`.
For example:
names or IP addresses without URLs or ports. For example:
```sh
rea mcp --http --host 0.0.0.0 --allowed-hosts 127.0.0.1,rea.lan
@@ -1200,10 +982,6 @@ such as `UNSUPPORTED_OUTPUT_COMBINATION` for `--json` with `--token-limit`. Use
Commands reject surplus positional arguments before execution, including commands
that accept no positionals. Use `rea <command> --help` for the declared argument
shape; a final variadic argument continues to accept multiple values.
`rea mcp add` accepts options only and rejects unknown options before reading or
backing up client settings or starting registration. Its `--agent` and
`--command`/`-c` options accept spaced and equals forms. Values must be nonempty; a following flag does not satisfy a spaced option's
missing value.
`rea mcp doctor --json` checks production MCP startup and reports child logs in
`diagnostics`. It drains stderr while retaining at most its first 64 KiB of raw
@@ -1221,8 +999,8 @@ Malformed format values and token windows fail with `INVALID_OUTPUT_VALUE` in th
selected structured format. Token limits and offsets must be nonnegative safe
integers; zero selects an empty window. These checks run before command execution. `--json` is indented on a terminal and compact when piped or
redirected, which keeps large results smaller for agents and scripts; pipe
through `jq .` for indented files. A formatting refusal exits nonzero even when
the underlying operation succeeded.
through `jq .` for indented files. Output selection and formatting do not change
operation status.
`--format md` escapes backslashes, pipes, and inline Markdown syntax in table
headers and cells so source text is displayed literally, and renders cell line
@@ -1234,22 +1012,13 @@ values instead of replacing them with an object label. Table widths are measured
iteratively, so an admitted row page is not limited by the JavaScript function
argument count.
Markdown refuses selected NUL characters and unpaired UTF-16 surrogates because
renderers or UTF-8 output would substitute them. TOON refuses selected unpaired
surrogates for the same UTF-8 reason. Use JSON or YAML to retain those values.
An authored replacement character and valid supplementary characters are not
treated as malformed.
`--format csv` and `--format tsv` export one selected row collection. Select an
exact array path with `--filter-output` and provide comma-separated direct
scalar columns with `--columns`; column order is the output column order:
For an artifact inventory request that selects the `occurrences` collection
and includes `logical_path` and `artifact_id` in its view fields:
```bash
rea inspect-analysis-view request.json --format csv \
--filter-output normalized_result.items --columns logical_path,artifact_id
--filter-output normalized_result.rows --columns name,address
```
The first line is a REA metadata record,
@@ -1262,8 +1031,7 @@ delimiter, quotes, or line breaks are quoted and embedded quotes are doubled.
Values are emitted as UTF-8 without Unicode normalization. Missing and `null`
cells are empty; booleans and finite numbers use their ordinary text forms.
String cells and headers that begin with spreadsheet formula syntax are refused
with a structured error; unpaired surrogates in selected cells or headers are
also refused. JSON retains those values unchanged.
with a structured error; JSON retains those values unchanged.
Delimited output does not flatten nested Evidence or nested field values.
It returns a structured error and a nonzero status if the filter does not
@@ -1344,9 +1112,7 @@ the command's signal handling. Commands routed through the shared
`withCommandCancellation` handler in the CLI set status `130` for SIGINT or
`143` for SIGTERM after their operation settles. Current source registrations
use that handler for process capture and comparison (`capture-process`,
`compare-process-captures`), desktop application capture and state
(`capture-desktop-application`, `inspect-desktop-application-state`,
`export-desktop-application`, `describe-desktop-application-task`), JavaScript application analysis (`analyze` when it
`compare-process-captures`), JavaScript application analysis (`analyze` when it
selects the JavaScript lane, and `analyze-javascript-application`), selected
browser, web and Electron commands (including `analyze-web-bundle`,
`observe-web-execution`, `capture-browser-scenario` and
@@ -1369,18 +1135,6 @@ new file. A publication that has committed can win a later cancellation; the
after commit, the `cleanup_incomplete` error reports the same file as
`details.published_path` and `details.bytes`.
When a failure retains a completed observation and no bundle committed,
`details.source_closure` states what that observation cites. `publication` is
`not_published`. `records` holds authentic source Evidence this invocation
captured, within 64 KiB. `omitted` lists up to 64 other identities and
`omitted_count` the total: `not_captured` means the invocation holds no such
record, so nothing is shown for it or its ancestors; `not_inlined` means it was
captured but is not in this response. `complete` is true only when every cited
record is in `records` or embedded in the observation. If examining the closure
itself fails, `collection_failure` names the error type and the closure state is
unknown; the original failure is still returned. Nothing is retained after exit,
and running the command again is a new observation.
When the reader of piped output closes early, as `rea ... | head` does, the
CLI stops writing, prints no error and exits `141` (`128 + 13`, the status of a
SIGPIPE-terminated writer). The operation itself may have completed; only its
@@ -1392,11 +1146,7 @@ status with the analysis failure status, so it exits `1`. Setup has its own cont
structured result and process status as separate signals when scripting
cancellation.
`setup --dry-run` returns `planned` and exits `0`. For `setup` and
`environment-build`, explicit `--dry-run=true` and `--dry-run=false` are
accepted; empty or other values fail with `PARSE_ERROR` before any changes.
Every supplied value is checked even when a later occurrence overrides it.
A cancelled setup also exits
`setup --dry-run` returns `planned` and exits `0`; a cancelled setup also exits
`0`. Setup returns `1` for `needs_confirmation` or `needs_human`.
`doctor` returns `1` when required checks in its selected readiness scope fail;
unavailable optional providers remain informational for unrelated tasks.
@@ -1440,18 +1190,3 @@ rea inspect-pe-load-config /absolute/path/to/application.exe --json
Reports TLS callbacks and size-covered load-config fields without execution.
Use `--max-callbacks` and `--max-file-bytes` to set read budgets. See
[PE TLS and load configuration](pe-load-config.md).
### Binary hardening
```sh
rea inspect-binary-hardening /absolute/path/to/program --json
```
Reports ELF, PE, and Mach-O hardening rows without execution. A missing import
is `unknown`, not `disabled`. Use `--max-file-bytes` to set the read budget. See
[binary hardening](binary-hardening.md).
Bun standalone executables use the existing `inspect-artifact` and
`extract-artifact` commands to inventory and materialize embedded source,
sourcemaps and bytecode without running the executable. See
[Bun standalone executables](bun-standalone.md) for layout coverage and limits.
+24 -258
View File
@@ -24,8 +24,8 @@ the registration uses them. Clearing either makes startup fail without resolving
another package from the client's project. Restore the same installation before
repairing it; an unidentified registration remains untouched. See
[installation and recovery](installation.md#package-runners-and-global-installation).
Setup forwards supported, explicitly selected REA settings into client
configuration, but does not copy unrelated ambient environment values. To refresh an older registration, preview
Setup does not copy your ambient environment into client
settings. To refresh an older registration, preview
`rea setup --client <client-id> --skill=false --dry-run`, then run the same command
without `--dry-run` and approve the displayed changes. Setup preserves unrelated
settings, backs up changed configuration and leaves an aligned registration
@@ -45,35 +45,6 @@ the client's configured command or reproduce the client's environment. If doctor
passes but the client disconnects, inspect the client's startup error and registered
launcher; see [verification scope](client-verification.md#launch-environment-verification).
`rea doctor` has the same limit for provider checks, and reports a provider setting
the registration's file does not carry as a
[non-blocking unknown](installation.md#check-readiness-for-your-task).
## Setting launch variables in PowerShell
Shell examples that prefix a command with `REA_MCP_INPUT_SCHEMA_PROFILE=compact`
use POSIX shell syntax. In PowerShell, set the process environment before
launching REA:
```powershell
$env:REA_MCP_INPUT_SCHEMA_PROFILE = "compact"
rea mcp doctor --json
```
The assignment applies to the current PowerShell process and commands it launches.
Restore the previous value when finished, or use
`Remove-Item Env:REA_MCP_INPUT_SCHEMA_PROFILE` if it was previously unset. It does
not update an already running MCP server or desktop client.
To select this profile for an agent, set `REA_MCP_INPUT_SCHEMA_PROFILE` in that
client's existing REA registration `env` object (`environment` for OpenCode) and
restart the client, preserving its other settings. A successful terminal doctor run does not verify the client's
launch environment. See [launch-environment verification](client-verification.md#launch-environment-verification)
and the client-specific instructions below. REA setup forwards supported selections,
including `REA_MCP_INPUT_SCHEMA_PROFILE`, from its environment into the registration;
it does not copy unrelated environment values. Restoring the shell's previous
value does not undo a selection already saved by setup.
## Runtime settings and client deadlines
`update_analysis_settings` changes curated defaults inside the running REA
@@ -102,79 +73,6 @@ does not repair a client's naming behavior or infer permission drift from an
unfamiliar prefix. The unavailable fork reported in
[#5512](https://github.com/morluto/rea/issues/5512) has not been reverified.
## Hot/cold catalogs
For a client that supports MCP catalog refresh, set
`REA_MCP_TOOL_CATALOG_PROFILE=hot-cold` in REA's server environment and restart
the connection. REA then advertises a small initial catalog and loads other
named tools through `discover_tools`. Setup preserves this explicit setting.
See the [discovery contract](mcp-contracts.md#hotcold-catalog-discovery) for
pagination, identity and family-scope semantics.
Analysis tools, including `inspect_analysis_view`, load on demand. For example,
load `inspect_api_contract` and supply its `view` to answer an initial OpenAPI
or GraphQL question directly. When later questions need retained facts, load
`inspect_analysis_view` and use the complete `parent_evidence_id`; source files
need not be reopened. If both tools are needed from the start, request both
names in one `discover_tools` batch to avoid another catalog refresh. The same
pattern applies to selected Playwright trace and endpoint-comparison results.
This defers unused schema delivery and client validator preparation; it does
not reduce parsing work, alter Evidence or shorten requested facts. Clients
without catalog refresh should keep the default `full` profile.
Codex CLI 0.165.0 requires its experimental `mcp_tool_list_changed` feature for
this workflow. Merge these entries into the existing `~/.codex/config.toml`
without replacing other feature or REA settings:
```toml
[features]
mcp_tool_list_changed = true
[mcp_servers.rea.env]
REA_MCP_TOOL_CATALOG_PROFILE = "hot-cold"
```
The server setting alone does not enable client refresh. If a successful
discovery call is followed by a missing tool, check the client's refresh feature
and tool allow/deny lists. Clients without refresh should use the default
`REA_MCP_TOOL_CATALOG_PROFILE=full`; reconnect after changing it. The
[FastMCP HTTP trial](#fastmcp-and-unsloth-sse-catalog-limits) below covers
explicit refreshes; other clients' automatic refresh remains unverified.
## FastMCP and Unsloth SSE catalog limits
If an HTTP client reports `Server-sent event exceeded the 1048576 byte limit`
during `tools/list`, merge these settings into the **REA server process's**
environment, then reconnect:
```text
REA_MCP_INPUT_SCHEMA_PROFILE=compact
REA_MCP_OUTPUT_SCHEMA_PROFILE=compact
REA_MCP_TOOL_CATALOG_PROFILE=full
```
This advertises all tools without requiring catalog refresh. Compact output
schemas widen client-side validation; REA still validates complete results
against the canonical contracts. See [output schemas](mcp-contracts.md#output-schemas).
On main `3e0599a94`, a real FastMCP 4.1.6 / Python MCP 2.3.0 HTTP client with
the default 1 MiB SSE event limit rejected the 4,108,975-byte full catalog.
The settings above delivered all 240 tools in 611,305 bytes and a
`binary_session` call succeeded. These are measured SSE response sizes for
that catalog, not a size guarantee for future catalogs or other profiles.
For a client that refreshes tools, combine `hot-cold` with the compact schema
settings to reduce initial context further: the same trial delivered six
initial tools in 33,903 bytes, then explicitly refreshed through 34 loaded
tools. Hot/cold alone later exceeded the SSE limit during refresh. Follow
the [refresh requirements](#hotcold-catalogs).
The Unsloth report [#9093](https://github.com/morluto/rea/issues/9093) fails at
catalog delivery; the Unsloth application itself was not exercised in this
trial. Schema compaction does not bound analysis results. Continue to use
summary/detail selection and tool-specific paging for larger results; client
receive limits and full Evidence access still apply.
## Fiddler Everywhere alongside REA
Connect Fiddler Everywhere's MCP server separately for HTTP traffic debugging,
@@ -228,7 +126,7 @@ in the file the installed app reads:
- Without Claude Desktop's MSIX package storage, setup uses
`%APPDATA%\Claude\claude_desktop_config.json`.
- The legacy MSIX storage layout (package family `Claude_pzs8sxrjxfjjc`, installed under
- The MSIX build (package family `Claude_pzs8sxrjxfjjc`, installed under
`C:\Program Files\WindowsApps\Claude_<version>_x64__pzs8sxrjxfjjc`)
virtualizes AppData writes. Once it has saved its configuration, it reads
the package-private copy
@@ -237,11 +135,6 @@ in the file the installed app reads:
private copy when it exists. Before the package has saved one, they use the
`%APPDATA%` file it still reads; with neither file, setup creates the
private copy.
- If `%LOCALAPPDATA%\Claude-Data\claude_pzs8sxrjxfjjc` exists, setup, doctor
and uninstall report an unresolved location. Migrated MSIX installations
have been observed reading `claude_desktop_config.json` in this directory.
Quit Claude Desktop and verify its active configuration before registering
manually. See [#8968](https://github.com/morluto/rea/issues/8968).
- If `%LOCALAPPDATA%\Packages` holds a `Claude_<publisher ID>` package from
another publisher, an `AnthropicPBC.Claude_<publisher ID>` package, or cannot
be read, REA cannot establish which file Claude
@@ -380,7 +273,7 @@ This headroom is a practical default, not a guarantee for every analysis
duration. Setup preserves positive timeout values already in the `rea` entry.
Setup also forwards explicitly selected input/output schema profiles,
`REA_MCP_MAX_RESPONSE_BYTES`, `REA_MCP_MAX_INPUT_ELEMENTS`, the Windows ChangeTime settle settings `REA_WINDOWS_CHANGE_TIME_DRIFT_MS`, `REA_WINDOWS_CHANGE_TIME_SETTLE_POLL_MS`, and `REA_WINDOWS_CHANGE_TIME_SETTLE_MAX_POLLS`, provider paths and supported Ghidra, JADX and Kuna
`REA_MCP_MAX_RESPONSE_BYTES`, provider paths and supported Ghidra, JADX and Kuna
settings. It also forwards explicit executable and resource selections for ADB,
apktool, packet capture, GDB/Rizin/objdump, Cutter, WABT, Wakaru, firmware and
signal tools, browser inspection, and pwntools/pwndbg. This includes their
@@ -390,9 +283,8 @@ patterns. A provider being unavailable does not discard its selected paths;
doctor reports its readiness separately. Explicit selections override discovered
defaults, including when setup runs again with a changed selection. Unrelated
environment variables, process ownership tokens and one-shot target paths are not
copied. For an explicitly configured startup target, see the
[initial-target settings](mcp-contracts.md#initial-target-at-startup). Existing
client environment overrides remain intact unless setup supplies the same key.
copied. Existing client environment overrides remain intact unless setup supplies
the same key.
You can edit `startupTimeoutMs` and `toolTimeoutMs` there; doctor keeps positive
caller-selected values aligned and reports a non-blocking advisory when a tool
timeout is shorter than the known provider allowance.
@@ -413,22 +305,6 @@ Kimi Code also discovers personal skills in `~/.agents/skills` and project-local
and verifies the matching skill files through the normal shared-skill flow.
Start a new Kimi Code session to pick up MCP and skill changes.
## LM Studio
For [LM Studio](https://lmstudio.ai/docs/app/mcp), setup writes `mcpServers.rea`
into `mcp.json` in the LM Studio home directory. Setup finds that directory as
LM Studio does: the path stored in `~/.lmstudio-home-pointer`, otherwise
`~/.cache/lm-studio` when it exists, otherwise `~/.lmstudio`. Setup only reads
the pointer file. LM Studio parses `mcp.json` as strict JSON, so setup rejects
a file with comments, trailing commas, or a byte order mark without a backup
or a write. The entry carries `command`, `args`, and `env`, and setup keeps
every other server. Local models often have small context windows, so setup
selects `REA_MCP_INPUT_SCHEMA_PROFILE=compact` unless the stored entry or the
setup environment selects a profile explicitly. Doctor reports an entry with no
explicit profile as stale, as for Kimi Code. LM Studio 0.4.26 on macOS loaded
this registration, and a local model called an REA tool through it. Linux and
Windows remain unverified.
## Pi
For [Pi](https://github.com/earendil-works/pi/blob/main/packages/coding-agent/docs/mcp.md),
@@ -709,18 +585,6 @@ The user-level MCP paths follow the editor's VS Code layout. Trae's official
documentation describes the raw JSON editor without specifying those paths;
loading this registration in Trae remains unverified.
## CodeBuddy
For CodeBuddy, setup writes `mcpServers.rea` into the global
`~/.codebuddy/mcp.json` (a standard `mcpServers` JSON file at the user home
root on every platform). Entries carry `command`, `args`, and `env`; stdio is
the default transport. CodeBuddy discovers personal skills from
`~/.codebuddy/skills`, so setup installs its skill copy there.
The global MCP path is a plain JSON file; setup preserves every other server
and top-level key when it upserts `rea`. Loading this registration, the
bundled skill, and real REA tool calls through CodeBuddy are verified.
## WorkBuddy
For [WorkBuddy](https://www.workbuddy.cn/docs/workbuddy/From-Beginner-to-Expert-Guide/Function-Description/MCP-Guide), setup writes `mcpServers.rea` into the
@@ -752,10 +616,9 @@ the fallback file untouched. Existing REA environment overrides are preserved
when refreshing its command. A malformed or unreadable fallback file fails setup instead of
being silently suppressed; repair or remove it and rerun. Uninstall removes an
REA-owned `rea` entry from both the native table and the fallback, backing up
each changed file. If removing the last native server would activate a retained
fallback server, uninstall refuses before changing either file; review the
fallback configuration before retrying. Other fallback servers, settings and a
foreign `rea` entry are kept. ZCode disables a
each changed file, so an emptied native table cannot load a leftover fallback
registration; other fallback servers, settings and a foreign `rea` entry are
kept. ZCode disables a
server with `enable: false` on its entry; doctor reports such a registration
as stale, and rerunning setup removes the flag to repair it. Native configuration
uses strict JSON; setup refuses comments, trailing commas and a BOM rather than
@@ -763,20 +626,21 @@ writing a registration ZCode cannot load.
## FreeBuff
For FreeBuff, `rea setup --client freebuff` writes `mcpServers.rea` into the
user-scope `~/.agents/mcp.json` shared-agent file. Entries carry `command`,
`args`, and `env`; stdio is the default transport. The personal skill location
is `~/.agents/skills`, so setup installs its skill copy there. Because the same
For FreeBuff, the proposed integration writes `mcpServers.rea` into the user-scope
`~/.agents/mcp.json` shared-agent file. Entries carry `command`, `args`, and
`env`; stdio is the default transport. The proposed personal skill location is
`~/.agents/skills`, so setup installs its skill copy there. Because the same
file doubles as ZCode's user-scope fallback (see above), a `freebuff`
registration is also in the file ZCode uses until ZCode defines its own native
server. Setup and doctor detect FreeBuff from its own profile directory
(`~/.config/freebuff-desktop`), not from the shared `.agents` folder that REA's
skill installs create for every client.
registration is also in the file ZCode uses until ZCode defines its own native server.
Setup and doctor detect FreeBuff from its own profile directory
(`~/.config/freebuff-desktop`), not from the shared `.agents` folder that
REA's skill installs create for every client.
FreeBuff MCP loading and skill discovery have not been verified with an
installed native FreeBuff client/version; filesystem tests cover REA's editing,
discovery, and ownership behavior only. Automatic applicability requires the
FreeBuff profile directory even when the shared MCP file exists.
The configuration write and personal skill locations are proposed integration
boundaries. FreeBuff MCP loading and skill discovery have not been verified
with an installed native FreeBuff client/version; filesystem tests cover REA's
editing, discovery, and ownership behavior only. Automatic applicability
requires the FreeBuff profile directory even when the shared MCP file exists.
When uninstall cannot establish FreeBuff or another shared-storage reader from
product discovery, a malformed or unreadable shared MCP file is retained
unchanged and does not stop other REA removals, including `--purge-data`. When
@@ -784,9 +648,8 @@ FreeBuff or ZCode product applicability is established or unresolved, the same
malformed shared file stops uninstall before removals. See
[Diagnose, update, and remove](installation.md#diagnose-update-and-remove).
FreeBuff setup support requires `[email protected]` or later (including the
current npm `latest` release). Older versions reject
`rea setup --client freebuff` as an unsupported client. See the
FreeBuff setup support requires `[email protected]` or later. Older versions
reject `rea setup --client freebuff` as an unsupported client. See the
[installation guide](installation.md#supported-agents) for client availability.
## DeepSeek Harness
@@ -839,103 +702,6 @@ Harness integration, with live DeepSeek API compatibility remaining unverified.
See the [Harness MCP guide](https://github.com/deepseek-ai/deepseek-harness/blob/639ed015397290b3745d163aafe02ffee4aa3f84/packages/mcp/mcp-client/README.md)
for its native configuration contract.
<a id="llamacpp"></a>
## llama.cpp
Use REA from llama.cpp's local Web UI through `llama-server`'s native stdio
MCP support. REA supplies the analysis tools; llama.cpp runs your chosen model.
It is not a replacement for a native analysis provider such as Ghidra or Hopper.
Install REA in a persistent location so the configuration below can use a stable
entrypoint. For a project-local installation, run this in your chosen directory:
```bash
npm install --save-exact rea-agents
```
Or install it globally:
```bash
npm install --global rea-agents
```
See [package runners and global installation](installation.md#package-runners-and-global-installation)
for runtime requirements and installation options. Running `npx rea-agents setup`
alone does not create either installation; do not use its temporary package-cache path.
Use a llama.cpp build whose `llama-server --help` lists
`--mcp-servers-config`; older builds without that option cannot use this route.
The configuration below uses an already installed REA package, so tool discovery
does not depend on downloading an npm package during server startup.
Save a JSON file, for example `rea-mcp.json`:
```json
{
"mcpServers": {
"rea": {
"command": "/absolute/path/to/node",
"args": ["/absolute/path/to/rea-agents/scripts/rea.mjs", "mcp"],
"timeout_ms": 450000
}
}
}
```
Replace both paths with your installation's actual paths. For a project-local npm
installation, run `npm root` in that project; the script is under
`$(npm root)/rea-agents/scripts/rea.mjs`. For a global installation, use
`$(npm root -g)/rea-agents/scripts/rea.mjs` instead. Write the resulting absolute
paths as JSON strings; llama-server does not expand shell expressions there.
On Windows, use forward slashes, such as `"C:/Program Files/nodejs/node.exe"`,
or double each backslash, as in `"C:\\Program Files\\nodejs\\node.exe"`.
Apply this to both `command` and the script path in `args`. Single backslashes
can make the JSON invalid or change the path through escape sequences.
`node -p "JSON.stringify(process.execPath)"` prints your current Node.js executable
as a quoted, escaped JSON string that can be used as the `command` value.
Use the version supported by REA. Preserve any other
servers if you are adding REA to an existing configuration. `timeout_ms` is
llama.cpp's per-tool-call timeout, including cold engine startup. The example
allows REA's default 330-second Ghidra startup budget plus 120 seconds for the
operation. Increase it if you configure a longer provider allowance or need more
operation time; see [provider deadlines](mcp-contracts.md#ghidra-first-query-deadlines-and-recovery).
Start the server with your own tool-capable GGUF model:
```bash
llama-server -m /absolute/path/to/model.gguf \
--host 127.0.0.1 --port 8080 --parallel 1 --ctx-size 16384 \
--mcp-servers-config /absolute/path/to/rea-mcp.json
```
Open `http://127.0.0.1:8080`. REA tools appear with a `rea_` prefix, such as
`rea_analyze_javascript_application`. Select only the tools needed for the
conversation in the Web UI's tool settings: discovery of REA's complete catalog
does not mean that its schemas and results fit the selected model's context.
Choose a context size your model and machine support. For a first check, enable
`rea_analyze_javascript_application` and ask it to inspect a small JavaScript
directory you own. This task needs no native analysis engine. Inspect the
returned Evidence and limitations rather than relying only on the model's summary.
If the model prints a proposed call as ordinary text, REA has not been called.
Check the selected model and its chat template against llama.cpp's function-calling
guidance. A working MCP connection does not establish reliable tool selection by
every model.
`--tools all` is not needed; it enables llama.cpp's separate built-in tools.
`--ui-mcp-proxy` is also not needed for this server-side stdio connection.
REA's setup wizard does not register llama.cpp automatically; pass the JSON
file to llama-server explicitly and restart it after changes.
The MCP child runs with llama-server's permissions. Loopback binding does not
sandbox it or make every REA operation read-only. Enable only trusted commands,
keep the server local, and select targets and operations you are authorized to use.
See llama.cpp's [MCP server configuration](https://github.com/ggml-org/llama.cpp/blob/master/tools/server/README.md#mcp-servers)
and [function-calling guidance](https://github.com/ggml-org/llama.cpp/blob/master/docs/function-calling.md).
The [verification record](client-verification.md#llamacpp) distinguishes connection
checks from model behavior and lists the tested versions.
## Other client settings
For OpenCode, setup writes the V1 `mcp.rea` entry, which OpenCode V1 and V2
-24
View File
@@ -43,30 +43,6 @@ does not establish broader Pi compatibility. See the pinned upstream
[`declarations.ts`](https://github.com/earendil-works/pi/blob/b45e0ebcc5ae2fc42a6f2f23104d10e656e6bedb/packages/codemode/src/declarations.ts)
and [renderer usage notes](https://github.com/earendil-works/pi/blob/b45e0ebcc5ae2fc42a6f2f23104d10e656e6bedb/packages/codemode/README.md#declarations-for-the-model).
<a id="llamacpp"></a>
## llama.cpp
The [manual stdio connection](client-configuration.md#llamacpp) was checked on
macOS arm64 with Node.js 24.18.0, llama-server b11715 (`9d1878a43`), and the
published `[email protected]` package. `GET /tools` exposed 207 REA tools without
enabling llama.cpp's built-in tools. With the source checkout at `9e372c6`, all
207 forwarded names, descriptions and input schemas matched a direct MCP client.
Calls through `POST /tools` returned session metadata and JavaScript analysis
Evidence for a fixture at a Unicode path. A missing target returned REA's input
error, and a subsequent session call still succeeded. The owned llama-server
process exited successfully after the checks. No native analysis engine or
Windows host was exercised.
A local Qwen3-1.7B Q8_0 run selected the JavaScript analysis tool and received its
Evidence, but its follow-up answer reached the output-token limit. Other small
Qwen3 attempts returned proposed calls as ordinary JSON text rather than tool
calls. These runs do not establish dependable model-driven investigations.
A request with the full catalog and task history exceeded a 16,384-token context;
select tools for the task instead of assuming that discovery implies model fit.
The checks exercised HTTP and stdio, not browser interaction with the Web UI.
## End-to-end, integration and golden evidence
The optional `verify:qwen-client`, `verify:pi-client`, and `verify:hermes-client`
+6 -58
View File
@@ -121,22 +121,9 @@ launch environment affects the next REA process.
is the byte-budget shape: a decimal safe integer with a 10 MiB floor
(`MINIMUM_RESPONSE_BYTES`), the same shared schema, and no silent fallback. A
change needs a REA restart and a matching client receive buffer. It does not
raise REA's reserved string limit or Node's string ceiling. Like the regex
deadline, it is in `SELECTED_REGISTRATION_SETTINGS`, so setup forwards an
explicit selection into the client registration.
Windows ChangeTime admission waits out a fresh timestamp before recording a
baseline. `REA_WINDOWS_CHANGE_TIME_DRIFT_MS` (default 2000 ms, floor 1 ms,
maximum 60000 ms), `REA_WINDOWS_CHANGE_TIME_SETTLE_POLL_MS` (default 25 ms,
floor 1 ms, maximum 1000 ms), and `REA_WINDOWS_CHANGE_TIME_SETTLE_MAX_POLLS`
(default 40, floor 1, maximum 1000) are launch settings. Unset keeps those
defaults. An invalid value is a configuration error: it names the setting, the
rejected value, source `setting`, the default, the floor, and the maximum, and
says to set a positive decimal integer in the environment that starts REA and
then restart REA. There is no runtime override. Setup forwards an explicit
selection. When the poll budget runs out, admission keeps the last observation
instead of failing the readable file. Raising a setting only changes how long
that wait can last. It does not change Windows ChangeTime itself.
raise REA's reserved string limit or Node's string ceiling. The setup
allowlist does not copy this setting. A new headroom setting should, following
the regex deadline.
A per-call budget can have a runtime default without having an environment
setting. JavaScript `max_heap_mb`
@@ -235,25 +222,6 @@ Error copying, attribution, redaction, and delivery must preserve these facts.
Human-readable remediation explains the same failure; clients should not need
to parse that sentence to identify an editable setting.
`scope` and `applies_at` describe a continuing caller, such as an MCP
connection. A one-shot invocation, such as a CLI command, has released its
provider session and exited its runtime before its caller reads the failure,
so its adapter projects with an explicit `"invocation"` caller lifetime.
`details.limit` then keeps every other field and reports
`scope: "rea-invocation"`, `applies_at: "next_invocation"` and the launch
`environment` seed when one exists. `agent_editable: true` still holds, because
the caller chooses that environment value or per-call `parameter` for the new
invocation; `rea_restart_required: false` means no running REA process needs a
restart. A producer keeps guidance that holds only while its caller retains the
session, such as "the Ghidra session remains usable" or a same-session runtime
update, in `continuingCallerGuidance`; the shared presentation adds it only for
a continuing caller. The producer's own message and remediation must stay true
after the session is released. A composed error records each embedded child
failure through `childFailureDiagnostics`, which snapshots it at composition
for both lifetimes when they differ, so cleanup history keeps its state and
the final projection selects the caller's form. Failures retained inside
Evidence keep the continuing form, so CLI and MCP Evidence stay identical.
Cache policy is part of enforcement. Successful reusable analysis can survive
a budget update. Transient Ghidra decompile failures remain uncached so a raised
deadline can recover on the same Program. Admission checks still apply to reused
@@ -318,9 +286,7 @@ whether live repair is possible.
## What agents do
Use `details.limit` for a direct runtime update when it names an editable
setting with `scope: "rea-runtime"`. For `scope: "rea-invocation"`, set its
`environment` or `parameter` for a new invocation instead.
Follow `remediation.action` for per-call, fixed and external controls.
setting. Follow `remediation.action` for per-call, fixed and external controls.
Inspect settings only when bounds or application details are missing. Restart only when it says the value is
read at startup. A sentence that a control does not raise the limit is not a
request to change it.
@@ -350,12 +316,8 @@ request to change it.
`runtime-configuration:` check. Re-run `rea setup` for that client when the
setting is on the registration allowlist, then reconnect so the new process
sees it.
- `invalid_request`: follow the specific recovery and reported issue. Inspect
the schema or CLI help when the input violates the contract or the response
asks for `inspect_input_contract`. A valid selector can instead require a
different choice, such as selecting a reported address; an inventory miss
does not establish that the target lacks the item. Do not repeat the
unchanged call when the response says it cannot succeed unchanged.
- `invalid_request`: correct the reported fields from the current schema or
CLI help. Do not repeat the unchanged call.
A restart is required to adopt a changed launch environment or registration.
The curated runtime settings above require no REA restart. It is not the first step for a transient
@@ -416,17 +378,3 @@ The [verification report](../verification/runtime-analysis-settings.md) separate
public MCP checks, simulated provider coverage, real Ghidra execution, and
measured task costs. It does not establish real-provider behavior for every
editable setting or active worker telemetry.
## Bun standalone module graphs
`MAX_BUN_MODULE_COUNT` admits at most 100,000 module records.
`MAX_BUN_RETAINED_BYTES` admits at most 256 MiB of serialized graph payload and
separately bounds retained entry metadata. Physical metadata read work is also
limited to 256 MiB per preparation, including repeated uncached ranges. A
256 KiB / 1,024-entry exact-range cache avoids full-page amplification. The
combined logical path tree admits at most 250,000 distinct prefixes; this is
checked before adding nodes, with shared prefixes counted once. The shared
artifact expansion budget also bounds the sum of referenced member lengths. Refusals name the boundary.
There is no runtime override; additional host memory or `NODE_OPTIONS` does not
raise these ceilings. Use a smaller producer fixture or a separately reviewed
reader for larger graphs. No partial extraction is claimed on admission failure.
-379
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@@ -1,379 +0,0 @@
# Desktop application capture
`rea capture-desktop-application` launches an installed Linux desktop
application, watches it while a person or a driver uses it, and records what
it is, which windows it opened and how the files under the home directory
changed. The result is the starting point for turning the application into an
agent environment: the inventory says how to install and launch it, the windows
say how to recognise it, and the checkpoints hold the state it read and wrote.
The application runs with the current user's permissions, in the current
desktop session, against the user's real files. This is not a sandbox. The
capture folder keeps copies of real files from the home directory, so treat it
as private data and keep it local.
## Host support
Capture runs on Linux with an X11 display: `DISPLAY` must be set, and `xprop`
(from `x11-utils`) must be installed, or `REA_XPROP_COMMAND` must name it.
The window manager must support the EWMH client list (`_NET_CLIENT_LIST`,
listed in `_NET_SUPPORTED`), as xfwm4, Mutter, KWin and Openbox do; without it
the capture is refused, because no window could be seen. A supported list that
is unset, as xfwm4 leaves it while no window is open, means no windows. Applications that run under XWayland are visible;
native Wayland windows are not. Other hosts are refused before anything is
launched.
## Capture an application
Name the application by its desktop entry id, the entry's absolute path, or an
executable:
```sh
rea capture-desktop-application --desktop-entry org.xfce.mousepad --output ./mousepad-capture
rea capture-desktop-application --executable gnucash --argument /home/ada/books.gnucash --output ./gnucash-capture
```
Desktop entries are looked up in `$XDG_DATA_HOME/applications` and then each
`$XDG_DATA_DIRS` directory; an entry installed as a symbolic link, as flatpak
and Nix do, is followed to its file. The entry's `Exec` line is expanded with no files;
`--argument` values are appended in its place, and the application runs in the
entry's `Path` or the home directory. When the line starts with
`env NAME=value`, the program is found on the `PATH` those assignments set,
with an empty or relative entry read from the folder the application runs
in, and their XDG folders name the state directories. Otherwise the program is
looked up on the host's `PATH` in the order the launch searches it, and one
found only through a relative or empty entry is refused, since the exported
computer would not have that entry. An `--executable` runs from
the current directory, as it would from a shell, and a relative path to it is
resolved there.
Before writing anything the command refuses to start if a window of the
application is already open, or if the window list cannot be read. A launch
beside a running instance can hand off to it, and that instance's unsaved
state would be missing from the baseline. It then records the starting state,
launches the application in its own process group with a run token in its
environment, and reads commands from stdin, one per line. The application gets
REA's environment without the `AGENTENV_*` variables an agent environment sets,
such as its control token: an app the exported computer launches never has
them, and an app captured inside a computer must not hold a credential to it.
| Line | Effect |
| ------------------------------------------- | ----------------------------------------------------------- |
| empty, `checkpoint`, or `checkpoint <name>` | Record the current state as a checkpoint |
| any other text except `stop` | Record a checkpoint named by that text |
| `stop`, or the end of stdin | Record a final checkpoint, close the application and finish |
An unnamed checkpoint is named `checkpoint-<ms>` after its time in the
session. A name that repeats an earlier checkpoint, or is one of the capture's
own names (`baseline`, `stop`, `time-limit`, `exit`), is refused with a
progress line on stderr; no checkpoint is taken and the session continues.
Name the checkpoints a later step reads by what they mark. The
[export](desktop-application-export.md) seeds the bundle from the baseline
unless `--seed-checkpoint` names another, and a
[task](desktop-application-tasks.md) is checked against the last checkpoint
unless `--end-checkpoint` names another. So one capture can build a seed and
then the change: launch the app, create and save the document, send
`checkpoint seed`, make the edit and save it, send `checkpoint end`, then
`stop`.
The session also finishes when the launched process has exited and the
application's processes and windows are all gone in two consecutive samples,
or when `--max-duration-seconds` passes. Before deciding the processes are
gone, the capture looks for any process still carrying the run token, so a
worker whose launcher exited before it was sampled keeps the session open. A
sample whose window list could not be read is not taken as an empty one; the
limitations say how many there were. One queued line is handled between
samples, and reading stdin pauses while 16 lines wait.
Progress lines on stderr are JSON, `{"rea_progress": {"phase":
"desktop_capture", "message": ...}}`. Those a driver waits on also carry an
`event`: `{"kind": "window_open"}` once the window opens; `{"kind":
"checkpoint", "name", "trigger", "at_ms", "entries", "changes",
"retained_files", "retained_bytes"}` once a checkpoint has been taken, the
baseline, `stop` and `exit` included, with the paths walked, the paths
changed since the checkpoint before and the files retained; and `{"kind":
"checkpoint_refused", "name", "reason"}` for a requested name it refused. A
driver that sends `checkpoint <name>` waits for the event naming it rather
than for a fixed time.
When the session ends the capture sends SIGTERM to the launched process, its
process group and every process that carries the run token, waits up to five
seconds for them to exit, and then removes every process that still carries
the token, whether or not it stayed in the process group. If that cleanup
cannot be verified after a second attempt, the capture is still written, and
the command then fails, naming the run token and process group that may
remain. Interrupting the command (Ctrl-C) ends the session the same way
without a further checkpoint; the capture is still written with end reason
`cancelled`, and the command exits with status 130. Interrupted before the
application is launched, the command writes no capture and removes the
content it had retained.
If the capture fails for any other reason before `capture.json` is written,
the application is closed the same way and the content already retained is
removed from the capture folder. The error names any process or file that
could not be removed.
A person types these lines in the terminal. An agent can drive the
application with a tool such as `xdotool` and write the lines to a FIFO that
it passes as stdin. Because the end of stdin stops the session, the driver
must keep the FIFO open for writing between checkpoints, for example with
`exec 3>capture.fifo` in a shell, rather than open and close it for each
line.
| Option | Default | Meaning |
| ------------------------ | ------- | ----------------------------------------------------------------------------------------- |
| `--state-path` | none | File or directory whose starting content is retained too (repeatable) |
| `--exclude` | none | Path left out of every checkpoint walk (repeatable); the output folder is always left out |
| `--max-duration-seconds` | 3600 | Stop the session after this long |
| `--max-entries` | 250,000 | Paths recorded per checkpoint walk, its roots included |
| `--max-file-bytes` | 64 MiB | Largest file whose content is retained |
| `--max-content-bytes` | 1 GiB | Total retained content |
| `--package-file` | none | The `.deb` file the application was installed from; its facts are recorded, not the file |
`--state-path`, `--exclude` and `--output` refuse an empty value, which
would otherwise name the current directory.
## The capture folder
The output folder must be new, or empty and owned by the current user; the
command makes it private (mode 0700). It holds:
- `capture.json`: the Evidence record, also printed on stdout.
- `content/<sha256>`: the bytes of each retained file, stored once per
distinct content.
The Evidence operation is `capture_desktop_application` and its predicate type
is `rea.desktop-application-capture`. Its `host` names the platform,
architecture, display and home directory, and the host's name (`hostname`)
and the user's (`user`), which captured state can hold, as in a mail
template's `ada@e81232be457d`; the export removes them from the bundle. A
capture written before they were recorded has neither, and one is left out
when the system cannot say, as for a user with no passwd entry. The rest of
the result has four parts.
**Application.** The desktop entry (id, path, name, `Exec`, icon,
`StartupWMClass`, categories, MIME types), the launch command and working
directory, the executable as found on `PATH` and after resolving links, and the
package that installed it. A Debian package records its name, version,
architecture and the apt sources that list the installed version, with the
origin (`o=`) apt reports for each source in `source_origins`, such as `Ubuntu`
for the Ubuntu archive and its mirrors or `LP-PPA-<name>` for a PPA; an empty
source list means the version came from a local `.deb` or the package lists
are missing, which `package_lists_present` tells apart. apt's lists folder,
and the trusted keys below, are where `apt-config` resolves
`Dir::State::Lists`, `Dir::Etc::TrustedParts` and `Dir::Etc::Trusted` under
`Dir`, so an `APT_CONFIG` file that moves them is followed: on a computer
without lists, an ordinary user can run `apt-get update` with an `APT_CONFIG`
naming writable `Dir::State::Lists` and `Dir::Cache` folders and capture with
the same `APT_CONFIG`. Without `apt-config`, or when it fails, they are
`/var/lib/apt/lists`, `/etc/apt/trusted.gpg.d` and `/etc/apt/trusted.gpg`.
The Debian package is the one `dpkg-query -S` names as the owner of the
desktop entry the capture launched, or else of the executable, since the
entry's package is what installs the application: LibreOffice Writer's entry
belongs to `libreoffice-writer`, while the `/usr/bin/libreoffice` it runs
belongs to `libreoffice-common`, which does not bring Writer with it. When the
two differ, `executable_package` names the executable's package, which the
export installs beside the entry's, since the entry's package need not depend
on it (`vim-common` owns Vim's entry but does not depend on `vim`).
`executable_package_reason` says why the computer could not install it by
name, by the rule for library packages below: neither the Ubuntu 24.04 archive
nor a vendor repository the export declares offers it, or `apt-cache policy`
did not say. When a package owns the entry but none owns its program, such as
a `~/.local/bin/<name>` found first on `PATH`, the entry's package is recorded
without `executable_package`, and `executable_package_reason` says no package
owns the program, so the export refuses rather than install a package that
does not bring it. A program link that dpkg does not own counts as owned when
dpkg owns the file it resolves to, as an alternatives link does. An
`--executable` launch, or an entry no package owns, such as
one in `~/.local/share/applications`, records the executable's package. When
`dpkg-query` does not finish or exits with an error for the executable or the
entry, the package is `unknown` and the limitations say which path, since a
failed lookup is not proof that no package owns it. The sources, vendor
repositories and `--package-file` match below are the recorded package's; the
library walk still reads the executable.
Each source whose origin is not `Ubuntu` is also recorded in
`apt_repositories`. `apt-get indextargets` names the sources file entry apt
read it from and its release, so flat repositories match too, whether their
suite is `./` (Typora's `deb https://downloads.typora.io/linux ./`) or `/`
(pkgs.k8s.io's). The record holds that entry (`sources_file`, `uri`, `suite`,
`components`, none for a flat repository, and `architectures`, the entry's
`arch=` or `Architectures:` restriction, empty when it has none), `release`,
the release's Suite (apt's `a=`) or else its Codename, and the key that signs
it. A user name or password in an entry's URI (`https://user:password@host/…`)
is never recorded: REA removes it from every URI it reads, in the sources file
and in `apt-get indextargets` and `apt-cache policy` output alike, so entries
match whether or not apt prints it, and sets `uri_credentials_removed` on a repository whose URI held
one (a capture written before this was recorded omits the field). The key is
found by verification, not by name: the candidates are the
entry's `signed-by` keyrings, or else every `.gpg` and `.asc` key in apt's trusted
parts folder and its trusted keyring, and each is checked with
`gpgv` against the release's `InRelease` (or `Release` with `Release.gpg`)
beside its index in apt's lists folder. A deb822 entry whose `Signed-By` field
holds the armored key itself, as `add-apt-repository ppa:<owner>/<name>`
writes it on Ubuntu 24.04, has that key as its only candidate, as apt trusts
no other for it: REA reads the field's continuation lines as deb822 writes
them, a `.` line standing for an empty one, from the key block's `BEGIN` line
to its last `END` line, and records the key's path as the entry's sources
file. A key counts when gpgv reports a valid signature by it and no bad,
expired, revoked or unverifiable signature by it, whatever gpgv's exit status:
a release also signed by a key the host lacks makes gpgv fail. Each candidate
is copied, an armored key decoded to a binary keyring, into a private
temporary folder that is removed afterwards; a folder REA cannot remove
fails the capture with the folder as its cleanup resource. The key that
verifies is recorded in `signing_key` with its path,
SHA-256, format (`binary` or `armored`) and primary fingerprint, and its bytes
are retained under `content/`. A key file holding one key is retained as it
is; from one holding several, such as a legacy `/etc/apt/trusted.gpg`, only
the transferable key with the verifying fingerprint is retained, in binary, so
the bundle trusts no other key. When no candidate verifies, `gpgv` is
missing, apt holds no signed release, no sources entry matches, the key the
entry's `Signed-By` holds does not verify the release, or the key is larger
than `--max-file-bytes` or the content budget, `signing_key` is null and
`signing_key_reason` says why. Ubuntu Pro's ESM repositories (origins such as
`UbuntuESMApps`, host `esm.ubuntu.com`) are not checked: apt reaches them only
with the host's Ubuntu Pro credentials, which a computer does not have.
Unless the installed version comes from the Ubuntu 24.04 archive, so for a
vendor repository's package and for a local install that no apt source lists,
`library_packages` lists the packages that own the shared libraries the
executable loads at start; the walk runs beside the repository check, and not
at all for an archive package, whose export does not use it. REA reads
DT_NEEDED from the resolved executable and from each library it finds, and
looks each soname up as ld.so does: in the RPATH of the needing image and of
each image up its chain of loaders to the executable when the needing image
has no RUNPATH, then in its RUNPATH (with `$ORIGIN` expanded and paths
normalized), and then in the `ldconfig -p` cache entries for the executable's
machine. It asks `dpkg-query -S` for each library's package. Libraries in the
executable's own folder belong to the application: they are walked but not
listed, and neither is the application's own package. One batched
`apt-cache policy` then keeps only the packages the Ubuntu 24.04 archive or a
recorded vendor repository with a verified key offers, in any component its
sources entry lists, since the export declares them all; the rest, such as
packages from a PPA or a local `.deb`, are listed in
`uninstallable_library_packages`. The same query checks `executable_package`.
Each recorded repository's `supplies` lists the kept packages, and the
executable's package, that the archive does not offer and its package files
list, so the export can leave out those only a repository it does not declare
supplies, such as one whose key the content budget later dropped. Sonames
found nowhere are listed in
`missing_libraries`, and libraries no package owns in `unpackaged_libraries`.
`library_packages_reason` says why the lists are incomplete: the executable is
not an ELF image (a launcher script, for example), `ldconfig`, `dpkg-query` or
`apt-cache` is missing, a library could not be read or names more than 512
libraries, or the walk stopped after 512 libraries.
A sources file, key or library whose handle REA cannot close fails the capture
with the file as its cleanup resource. When the repository check and the
library walk both fail, the capture reports both failures and every folder or
file either could not release.
An application installed from a `.deb` file you downloaded, such as VariCAD
from varicad.com, has no apt source a computer could install it from. Name
that file with `--package-file` so the export can have the computer download
it instead. REA reads the file's control fields with
`dpkg-deb --field FILE Package Version Architecture Depends Pre-Depends`, and
when its Package, Version and Architecture are the installed package's, it
reads the file once more for its SHA-256 and size and records `package_file`:
the file's `name` without its folder, `sha256`, `size`, `package`, `version`,
`architecture`, and the `depends` and `pre_depends` entries as the file
declares them. Otherwise `package_file_reason` says why, for example that
`dpkg-deb` is not installed, that the file holds another version than the
installed one, or that the file changed between the two reads (its device,
inode, size and times are compared), since its fields and its hash could then
describe different files. The capture never copies the file: it is the vendor's, and only
these facts are kept.
Snaps, flatpaks and
AppImages are recognised from their paths, and flatpaks also from a
`flatpak run` launch, whose application id is the first operand after
flatpak's options and their values. Electron applications are marked by
the fuse sentinel in their binary or a `resources/app.asar` beside it. State
directories are the XDG config, data, state and cache folders and the
dot-folder named after the package, the executable, the desktop entry's full
id and its last part, and the entry's name, with whether each existed at the
start. A folder in those places whose name is one of these in another letter
case joins them, such as GIMP's `~/.config/GIMP` for the `gimp` package; only
the whole name is compared, so `~/.config/GIMPshop` does not. Dotfiles in the
home named after the application (`.<name>rc`, or
`.<name>` followed by `-`, `.` or `_`, for a name of three or more characters)
that exist at the start join them, since an application may only read such a
file during the capture. A `flatpak run` launch is named after its application
id rather than the `flatpak` launcher, and adds `~/.var/app/<id>`.
**Session.** When it started, how long it ran and why it ended; the launched
process's exit status; every process seen in the application's tree; every
client window with its class pair, titles, owner pid and type, marked when it
belongs to the application; when the first application window appeared; the
most common class pair of the application's windows, for matching its window
later; files the application's processes held open under the walked roots; the first
8 KiB of the launched process's stderr; and whether cleanup was verified. Each
process records whether the capture started it: the launched process, a
process carrying the capture's run token, or a descendant of one, even when
its environment cannot be read, as for a zombie or a sandboxed renderer.
Processes are told apart by their start time, so a pid reused by another
process is not counted as the application's.
A window belongs to the application when its owner pid is one of the
application's live processes or its class matches the desktop entry's
`StartupWMClass`, the executable's name, the entry's full id or its last part,
or a flatpak's application id. A flatpak's windows report pids from its
sandbox, so they are matched by class only.
Ownership is checked again at every sample, because a window can appear before
the process that owns it is found. A matching window's pid joins the
application's processes, so a launch handed to a process the capture did not
start, such as a D-Bus activated service, is still followed. That process does
not carry the run token, so the capture never signals it and leaves it
running.
**State.** The walked roots (the home directory plus any content root
outside it), the content roots (state directories, `--state-path` values and
absolute `--argument` values, except `/` or a directory that contains the home
directory, which are named in the limitations instead; a selected path that is
not a directory brings the `-wal` and `-journal` paths beside it, so a database
selected on its own is captured with its logs), the state directories
as walked (their physical spelling, which differs from the inventory's when one
is a symlink), the paths every walk left out (the output folder and
`--exclude` values), and the checkpoints in order: `baseline` before
launch, each requested checkpoint, `stop` or `time-limit`, and `exit` after the
application has gone. Each checkpoint records how many paths its walk saw,
whether it was truncated, how many paths it could not read or directories on
another device it did not enter (`unchecked_paths`), which paths were created, modified, deleted or
changed type since the previous checkpoint, and which files it retained. A
path counts as created or deleted only where the walk listed its nearest
existing directory completely; differences under a directory that could not be
listed, or that a truncated walk did not reach, are counted as unconfirmed
instead. A walk does not enter a directory on another filesystem than its
root, such as an NFS, sshfs or other FUSE mount under the home directory; the
limitations list each such mount point. The
baseline retains every file under the content roots; later checkpoints retain
every changed file. A change records the file's type, size, mode,
modification time and, when known, the SHA-256 of its content before and
after, plus whether it lies in a state directory and whether the application
held it open. A file is retained only if it is still the version the walk
recorded and does not change while it is read. A file larger than the
remaining content budget is not read, unless stored content of the same size
could make it a duplicate. Files that could not be
retained are listed with the reason: too large, over the content budget,
changed since the walk, changed during the read, or unreadable.
Directories the application held files open in, but whose starting content was
not retained, are listed so a second capture can pass them with
`--state-path`.
**Limitations.** What the capture could not establish, such as a truncated
walk or a missing window.
## What the capture does not establish
Changes are found by comparing walks, using each path's size, modification
time, inode and mode, so a change undone between two checkpoints is not seen
and a rewrite that keeps all four is missed. A change is not attributed to the
process that made it: other desktop services write under the home directory
too, such as the dconf database, the window manager's settings and GTK's
recently used list. The markers for state directories and open files are
evidence for attribution, not proof.
Clicks and keystrokes are not recorded. Window titles are sampled every half
second, so short-lived titles can be missed.
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# Desktop application export
`rea export-desktop-application <capture-folder> <directory>` turns a folder
written by [desktop application capture](desktop-application-capture.md) into an
agentenv bundle holding one computer app environment: the real application,
installed from the distribution archive, its vendor's apt repository or the
`.deb` file it was installed from on the `ubuntu-24.04` computer base, launched
at boot, seeded with the user's state and serving that state through agentenv's
data operations.
```sh
rea export-desktop-application ./mousepad-capture ./mousepad-bundle
agent-env run ./mousepad-bundle --dry-run
```
The export reads the capture and its [state view](desktop-application-state.md);
it does not run the application. `--name` sets the environment name; otherwise
it comes from the desktop entry id or the program, with an `app-` prefix when
that name would not be a portable bundle name (for example all digits). The
output directory must be new or empty. `--task` adds a task an agent wrote for
the capture, once REA has validated it against the capture; see
[desktop application tasks](desktop-application-tasks.md). `--package-url`
says where the computer downloads the package of an application installed from
a `.deb` file; see [Applications from a .deb file](#applications-from-a-deb-file).
`--seed-checkpoint` names the checkpoint whose state seeds the bundle, the
baseline by default, and `--end-checkpoint` the one a task must pass on, the
capture's last by default; see [The seed checkpoint](#the-seed-checkpoint).
The command returns Evidence with operation `export_desktop_application` and
predicate type `rea.desktop-application-export`, listing the environment name,
the seed and end `checkpoints`, owned paths, seed files, the seeds it
rewrote to remove the capture host's name and user (`scrubbed_files`), the
bundle files that still hold them (`unscrubbed_files`), and written files,
the last three by their path in the bundle. A failed export, cancellation
included, removes the bundle it had not yet published, so no partial copy of the
user's data remains. If the bundle was published but its output handles could
not be closed, the command reports a cleanup error that carries the export
Evidence; the bundle itself is complete.
## The bundle
| Path | Contents |
| -------------------------------- | -------------------------------------------------------------------------------------------------- |
| `envs/<name>/env.toml` | `type = "computer_app"`, the module and class, `computer = "ubuntu-24.04"`, `driver = "reference"` |
| `envs/<name>/<file>.py` | The `ComputerAppEnvironment` class |
| `envs/<name>/SKILL.md` | What the app is, its window class and where its files live |
| `envs/<name>/seed/` | The application's files at the seed checkpoint, by home-relative path |
| `envs/<name>/apt-keys/` | The signing key of each vendor apt repository the app installs from |
| `envs/<name>/install-package.sh` | With `--package-url`: the run script that installs the downloaded package with dpkg |
| `tasks/smoke.json` | A task that deploys the app |
| `tasks/<task>.json` | With `--task`: the agent's task, its verifier in `artifacts/` and the eval in `evals/` |
| `README.md` | What was exported, from which capture, and what to keep in mind |
The class file is `<name>_app.py` with hyphens as underscores, for example
`mousepad_app.py`: agentenv imports it under its stem, so a plain `<name>.py`
could shadow a standard library module such as `calendar`. A class name that
would collide with a name the module imports or defines, such as `Path`, takes
an `App` suffix.
The class declares:
- `Packages(apt=[...])` with the package the capture found. A vendor package
is named `<package>/<release>`, its repository's release (the Suite apt
reports as `a=`, or else its Codename), so apt takes it from that repository
even when the Ubuntu archive offers a higher version or epoch, as noble's
transitional `firefox` does over packages.mozilla.org's; it is named alone
when the release names neither, or when the capture was written before
releases were recorded. Its library packages follow, so a package that
leaves out dependencies on the libraries it loads, as Typora's Electron
package does, still starts; library packages the capture found neither the
Ubuntu 24.04 archive nor a declared repository offers are left out, with a
limitation, and so are those only repositories the export leaves out supply
(a repository's `supplies`), such as one whose key the capture could not
retain. An archive package's declared dependencies are trusted as they
are. When the desktop entry's package is not the one that owns the program
it runs, as `vim-common`'s entry runs `vim`'s program, the program's package
(`executable_package`) follows the app's by name, since the entry's package
need not depend on it; a capture that found no archive or declared
repository offering it records why, and the export refuses it with that
reason, as it does when only repositories it leaves out supply it, or when
no package owns the program at all (`executable_package_reason` without
`executable_package`). The package must come from the Ubuntu 24.04 archive
or a mirror of it,
or from a vendor apt repository whose signing key the capture verified and
retained. A source counts as the archive when apt reports its origin as
`Ubuntu` for a noble suite; a capture made before origins were recorded
counts only Canonical's own archive hosts.
- For a vendor repository, `sources=[AptSource(apt=..., suite=...,
components=[...], key="apt-keys/<name>.gpg")]`, with the retained key copied
to that path (`.asc` when it is armored, which agentenv tells by its
content). A PPA added with `add-apt-repository`, whose sources entry holds its
key in `Signed-By`, exports that key as `apt-keys/<name>.asc`. apt takes one
key per URI and suite, so sources that share them, such as one repository
listed for two architectures, are declared once, with their components
merged; one with a different key is left out. A repository
whose key the capture did not verify, an Ubuntu Pro (ESM) repository, one
whose sources entry's URI held a user name or password (which the capture
did not record and the export never writes; the reason names neither them
nor the URI), one not reached over http or https, or one whose `arch=`
restriction leaves out the capture host's architecture is refused with its
reason (a capture
written before restrictions were recorded counts as unrestricted); when
another usable repository lists the same version it is left out instead,
with a limitation. The export also refuses snaps, flatpaks, AppImages, and a
package no recorded repository lists unless it was installed from a `.deb`
file the capture recorded and `--package-url` is given, since the computer
could not install them by name, and a capture written before credentials
were removed whose repository URI still holds them, since it counted that
repository's libraries as installable; capture it again.
- `@computer_app(supports=...)` with both `amd64` and `arm64` for an archive
package, which the archive serves for both, and only the capture host's
architecture for a vendor package, since its repository may serve no other.
A vendor package captured on any other architecture is refused. A package
installed from its `.deb` file supports only that file's architecture.
- A launch at boot with the captured command, ready when a window of the
captured class appears and one of them is listed in the taskbar and is not
typed as a splash: a splash screen or a dialog of the class skips the
taskbar or says it is a splash, and an app whose splash shows first would
otherwise count as ready before its own window opens. Arguments that are the captured home or under it, and
`<option>=<path>` values under it, are respelled under the computer user's
`$HOME`. agentenv starts the app in its own folder, where an open or save
dialog would show the framework's files, so the command first changes to the
captured working directory (`"$HOME"` when that was the home, as for a
desktop entry without `Path`), which a relative argument or program path
such as `./app` also needs, and still starts if that folder is missing. The
export refuses a capture that saw no application window.
- For an Electron application (the capture found its fuse sentinel or a
`resources/app.asar`), `--no-sandbox` right after the program unless the
command already has it: Chromium's sandbox needs user namespaces the
computer's container does not grant, and Electron exits without them. The
README and the result's limitations say the sandbox is off.
- `paths`: the state directories holding the application's state files and the
folders holding its documents, nested folders collapsed. A folder beside a
state directory whose name differs from it only in letter case is owned
whole in the files' spelling, so a `~/.config/GIMP` profile GIMP created
during the capture beside the candidate `~/.config/gimp` is owned as
`.config/GIMP`, not as the folder of its first file. The home itself and
the shared `.config`, `.local`, `.local/share`, `.local/state` and `.cache`
folders are never owned whole: a file directly in one is owned as itself.
Files the capture recorded under a symlinked state directory's physical
spelling are mapped back to the innermost such directory's home spelling,
unless that spelling is outside the captured home, as when the home itself is
a symbolic link. When two files map to one home path, the export uses the one
present before the capture, else the first by path, and a limitation names
the other.
- Data hooks, because declaring any hook switches off agentenv's default data
plane: the class seeds the home once per boot and keeps it as the initial
state with `keep_initial`, `data/add` and `data/reset` call agentenv's `add`
and `reset`, and `data/get` returns the files under `paths` plus a data part
with a typed JSON view of each, read in a worker thread. An application with
no observed state declares no paths and no hooks.
A file under the owned paths whose bytes at the seed the capture did not
retain is not seeded: one in the state view without retained content at that
checkpoint, or one the capture omitted (for example too large or past the
content budget). The result lists them in `unseeded_files` and the README
names them. When the application held files open in folders whose starting
content the capture did not retain, a limitation names those folders. The
desktop Trash, `~/.local/share/Trash`, is never the application's, so a file
the user moved there is neither owned nor seeded, even when a window title
names it; a limitation lists the files the Trash held at the seed.
The application's dconf keys at the seed, if any, are written once when the
app first starts, also for an application that owns no files, and the class adds
`dconf-cli` to its apt packages for that. The server starts before the
desktop's D-Bus session, so the class does not use `dconf load`: it dumps any
existing user database through a `file-db:` profile, then runs `dconf compile`
on that dump and the captured keys, in that name order so the captured keys
win, and replaces `~/.config/dconf/user`. If that fails, the server prints a
one-line warning and the app starts without the captured keys. `data/reset` does
not restore them.
## The seed checkpoint
By default the seed is the state before the capture, its `baseline`, and a
task's end state is the capture's last checkpoint. `--seed-checkpoint` and
`--end-checkpoint` name others, so one capture can make a seed and then a
change: the user creates and saves a document and takes `checkpoint seed`,
then edits and saves it and takes `checkpoint end`. Exported with
`--seed-checkpoint seed --end-checkpoint end`, the bundle seeds the document
as it was saved at `seed`, owned paths, dconf keys and unseeded files
included, and a task must fail on that seed and pass on the state at `end`.
A file's state at a checkpoint is its last version recorded at or before it.
The export refuses a name the capture does not hold exactly once, and an end
checkpoint taken before the seed checkpoint; `inspect-desktop-application-state`
lists the names in `capture.checkpoints`.
## Host name and user
A seed can hold the capture host's name and the user's: Geany saved its mail
template as `pref_template_mail=ada@e81232be457d`, the user `ada` on a
container named `e81232be457d`, and many files hold the home path
`/home/ada`. The capture records `host.hostname` and `host.user`, and the
export removes them from what the bundle ships:
- In seeded text files (text, JSON, key files and XML in the state view), in
UTF-16 files that start with a byte-order mark (keeping the mark, byte order
and a following U+FEFF content character), and in the dconf keys,
`user@host` becomes `user@localhost`, the
host name standing alone becomes `localhost`, and the captured home becomes
`/home/user` wherever it is followed by `/`, the end of the text, or a
character that cannot continue a file name. The host name counts only as a
whole name: not inside a longer word, before a `-`, or as a label of a
domain such as `e81232be457d.local`, so a host named `ubuntu` leaves
`ports.ubuntu.com/ubuntu-ports` alone. A host named `localhost` is left
alone, but its `user@localhost` still takes the computer's user. The user
name alone is never replaced, since a short one such as `ada` or `user` is
also ordinary text. A rewritten seed is written with its own SHA-256, and
`scrubbed_files` and the README list it.
- JSON and XML keep their syntax. In JSON only string values change, each
read as its decoded value, so `\u0065` escapes cannot hide the host, and is
written back as JSON only when it changed; numbers and `true`, `false` and
`null` stay as they are even for a host named `true`. Member names are never
rewritten, since `{"ubuntu": 1, "localhost": 2}` on a host named `ubuntu`
would get two `localhost` keys and lose a setting; a file whose names hold
the host is listed in `unscrubbed_files` instead. In XML only character
data, attribute values, comments and CDATA change, character references
decoded the same way; element and attribute names and processing
instructions stay. A UTF-16 file is scrubbed by the format its text would
have in UTF-8, so JSON or XML in UTF-16 follows these rules too.
- In the dconf keys only GVariant strings change, each read as its decoded
value and written back in its own quotes only when it changed. Group names,
keys, dictionary keys, bytestrings and everything outside quotes stay, so a
host named `true` leaves `wrap=true` alone. A value whose string does not
parse, or that holds an object path or signature, ships as captured.
- `SEED_HOME` in the class is `/home/user`, the home the seed spells, which
the class respells to the computer's own home when it seeds the home at
boot, as it did the captured home before. The replacements read as the
computer's own: its user is `user`, with its home in `/home/user`, and
`localhost` is the name every host has for itself.
- Binary files, SQLite databases among them, and text files over 256 MiB are
copied as captured. Then every file the bundle ships, the class module with
its dconf keys and the README included, is searched by a looser rule than
the replacement's: the host name and `user@host` anywhere, as in
`e81232be457d.local` or a seed named `e81232be457d-notes.txt`, and the
captured home as a whole path, in its path and its content, JSON and dconf
strings and XML references decoded and the replacements themselves set
aside. Each one found is listed in `unscrubbed_files`, and in the README
unless it is the README, to check before sharing the bundle. Bytes that are not text are
searched as they are, so a binary file that holds the host in another
encoding is not listed.
- A task check whose values name `user@host` or the host name anywhere, by
that rule, is refused, as one naming the captured home is: the bundle does
not hold them. Its field names, kind and id are not values, so a host named
`file` or `kind` refuses no check. A task's checks must fail on the seed as
the bundle ships it, scrubbed, so a check the scrub itself satisfies, such
as a mail setting the user changed from `ada@e81232be457d` to
`user@localhost`, does not count as failing there.
A capture written before the host's name and user were recorded has only its
home removed, with a limitation saying so; capture again to remove the rest.
## Applications from a .deb file
A closed-source application you installed from a `.deb` file you downloaded,
such as VariCAD from varicad.com, is not in any apt repository the computer can
use. Capture it with `--package-file` naming that file (see
[desktop application capture](desktop-application-capture.md)), then pass
`--package-url` to the export with an `http://` or `https://` URL the computer
can download that same file from:
```sh
rea capture-desktop-application --executable varicad --package-file ~/Downloads/varicad2026-en_2.03_amd64.deb --output ./varicad-capture
rea export-desktop-application ./varicad-capture ./varicad-bundle --package-url https://files.example.com/varicad2026-en_2.03_amd64.deb
```
The class then declares, beside `Packages`:
- `downloads=[Download(url=..., sha256=..., to="vendor/<file>", arch=...)]`
with the captured file's SHA-256. agentenv downloads the URL once, when the
bundle is put, and refuses the file unless its SHA-256 matches, so the
computer installs exactly the captured version. The bundle does not contain
the package.
- `Packages(apt=[...])` with the first alternative of each of the file's
Depends and Pre-Depends entries, without version constraints or `:any`
qualifiers, then the library packages the capture found, since a vendor's
binary may load libraries its Depends leaves out.
- `run=[RunScript(script="install-package.sh")]`, a script the export writes
into the environment folder. agentenv runs it as root from the app's folder
once the apt packages are installed and the download is in place, with the
network off: it runs `dpkg -i` on the download and then removes it.
The bundle supports only the file's architecture. Vendor sites often refuse
automated downloads, as varicad.com does, so the URL may need to point at a
copy you keep, such as a private mirror; you must be allowed to use that copy,
and the package's licence, such as a 30-day trial's terms, is yours to check.
The README and the result's limitations say so.
The export refuses a package no recorded repository lists when `--package-url`
is missing, saying to capture with `--package-file` if the capture lacks it. It
also refuses `--package-url` when the capture recorded no package file, giving
the capture's `package_file_reason` when there is one; when the archive or a
declared vendor repository installs the package already; when the URL is not
written as `http://` or `https://` or holds a user name or password; and when
the file is built for an architecture other than `amd64`, `arm64` or `all`.
## Typed views
The views follow the [state view](desktop-application-state.md)'s formats and
shapes: SQLite tables (at most 64 ordinary tables, `tables_truncated` past
that, and per table `columns`, `primary_key`, at most 500 `rows` and
`truncated`, with blobs, unsafe integers and text that is not UTF-8 tagged as
REA tags them), JSON, XML as `{root, truncated}` with REA's node, depth and
whitespace rules and its `doctype` when the document declares one, key file
groups, text as
`{lines, line_count, truncated}` split on `\n` and `\r\n`, and zip archives
as their entries, read with Python's `zipfile` from the file in place, with
REA's entry, size, compression ratio and archive limits and its wording for an
entry it does not read. The module reads the central directory itself, as REA
does, and shows `zipfile` only the records it lists, reading each entry in
bounded chunks no further than a byte past its declared size. A JSON file
holding a number JavaScript cannot read exactly, such as an integer above 2^53,
or nested more than 500 levels deep, gets an `error` instead of a view, as in
REA, while text that is not one JSON
document, such as JSON Lines, stays text. Format detection follows REA's
rules. Files larger than 64 MiB get an `error` instead of a view
and are not read. XML is read with Python's `expat` twice: with namespace
processing, which refuses what REA's parser refuses, such as an undeclared
prefix, then without it, so element and attribute names keep the prefixes the
document spells and namespace declarations stay attributes, as in REA's view;
text splits into nodes where REA's splits it, at CDATA sections, comments and
processing instructions. Both passes read a DOCTYPE as REA does: with
parameter entity parsing off, so the DTD it names is never read, and handlers
that refuse an internal subset, an external entity and an entity expat would
skip; the first pass also checks each start tag for a reference to an
undeclared entity, which expat drops from an attribute value without a word
when a DOCTYPE names a DTD. Known differences remain:
- dconf databases are reported as binary, since REA reads them with `dconf`;
inside an archive, one is `dconf` with an error, as in REA.
- Zip entry names: a name in an Info-ZIP Unicode Path extra field is used only
where Python's `zipfile` reads it (3.12 and later), and an entry whose local
header names it differently from the central directory is damaged rather
than read.
- SQLite databases are read in place, read-only, rather than from a staged copy;
a write lock the running app holds is waited out for a quarter of a second
and then gives the file an `error`, and so does a table or column name that
is not UTF-8.
The seed is the user's real data. Keep the bundle local and do not publish it.
The class was checked against agentenv-framework 0.9.1431 with
`python -m agentenv_protocol.computer._declare` and `agent-env run --dry-run`.
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# Desktop application state
`rea inspect-desktop-application-state <capture-folder>` reads a folder written
by [desktop application capture](desktop-application-capture.md) and describes
the application's state: which observed files are the application's, what each
retained version contains as typed JSON, and how each file changed between
checkpoints. It reads only the capture folder; the application is not run
again.
```sh
rea inspect-desktop-application-state ./mousepad-capture --format json
```
The result is Evidence with operation `inspect_desktop_application_state` and
predicate type `rea.desktop-application-state`. Its confidence is `inferred`,
because roles come from heuristics; the views themselves are read from the
retained bytes, which are checked against their SHA-256 before use.
## Paths and roles
The view covers every file retained at the baseline and every file that
changed later. Each path records the evidence the capture holds about it:
| Reason | Meaning |
| ------------------------ | ------------------------------------------------------------------------- |
| `state_directory` | It lies in one of the application's state directories, in either spelling |
| `opened_by_application` | An application process held it open during a sample |
| `named_in_window_title` | An application window title spelled its name or `~/` path on its own |
| `selected_path` | It lies under a `--state-path` or absolute `--argument` of the capture |
| `dconf_application_keys` | It is a dconf database holding groups whose path names the application |
| `desktop_service` | It lies where desktop services and toolkits keep shared files, or caches |
| `desktop_trash` | It lies in the desktop Trash, `~/.local/share/Trash` |
A folder beside a state directory whose name differs from it only in letter
case counts as that state directory, so a profile the application first
creates during the capture, such as GIMP's `~/.config/GIMP` beside the
candidate `~/.config/gimp`, is its state too.
The role follows from the reasons, in this order: `shared_desktop` for a file
in the desktop Trash, which the user deleted, whatever else names it;
`application_state` for application keys in dconf, or a state directory outside shared desktop
locations; `document` for a file named in a window title or selected by the
caller, even if the application holds it open; `application_state` for another
open file outside shared locations; `shared_desktop` for other files in shared
locations; `unrelated` otherwise. A window title names a file only when no
other file name character adjoins the name, so `day.txt` does not match
`today.txt - Notes`.
Application names, which select dconf groups, come from the package, the
executable, the desktop entry's id and `StartupWMClass`, and the window match.
The entry's display name is left out, since a generic name such as `Settings`
would claim other applications' groups.
## Versions and views
Each path lists its versions: the baseline, then its state after each
checkpoint where it, or a database's `-wal` or `-journal` file, changed. A
checkpoint that leaves an absent file absent adds no version. A file's state
at any checkpoint is its last version recorded at or before it, which is how
the [export](desktop-application-export.md#the-seed-checkpoint) and the
[task draft](desktop-application-tasks.md) read it at the seed and end
checkpoints they are given; `capture.checkpoints` lists the names in order.
Views hold the captured bytes as they are, the capture host's name and user
included; the export removes those from the bundle. A version records
whether the file was present, the SHA-256 of its retained bytes, and a view:
| Format | Detected by | View |
| --------- | ---------------------------------------------------------------------- | -------------------------------------------------------------------------------------- |
| `sqlite` | The `SQLite format 3` header | Every ordinary table's columns, primary key and up to 500 rows |
| `dconf` | The `GVariant` header | Groups whose path names the application, plus the names of the other groups |
| `zip` | A zip local file header, `PK\x03\x04`, whatever the name | Its file entries in archive order, each with its own format and view |
| `json` | A `.json` name or a leading `{` or `[` that parses | The parsed value, from files up to 4 MiB nested up to 500 levels |
| `xml` | An XML name or declaration that parses | An element tree (`name`, `attributes`, `children`); text kept exactly, DTDs never read |
| `keyfile` | Only `[group]`, `key=value` and comment lines, with at least one group | Groups of `key` → string value, from files up to 4 MiB |
| `text` | Other UTF-8 text | Lines, up to 5,000 |
| `binary` | NUL bytes or invalid UTF-8 | None |
A JSON value holding a number JavaScript would round, such as an integer above
2^53, is not read rather than shown rounded.
An XML view names elements and attributes as the document spells them, prefix
included: a saved Inkscape drawing's root is `svg`, in its default namespace,
with `sodipodi:docname` and the declarations `xmlns` and `xmlns:sodipodi`
among its attributes, and a Writer paragraph is `text:p`. An element's
`children` hold its elements and text in order, text split where a CDATA
section, comment or processing instruction falls. Whitespace-only text between
child elements is formatting, and dropped, in an element that holds no other
text, unless `xml:space="preserve"` applies; in mixed content, an element with
text of its own beside its children such as a paragraph split into runs, it is
kept, so `<p>Meet on <s>Sunday</s> <s>evening</s></p>` keeps the space between
the runs. Whitespace here is XML's: space, tab, carriage return and line feed;
a no-break space is text. The view keeps up to 5,000 nodes, comments and
processing instructions counted, nested up to 64 levels, and sets `truncated`
when it leaves some out.
A document that begins with a DOCTYPE naming its DTD, as AbiWord's `.abw`
does, reads as the same element tree, and the view records the declaration
beside `root`, its public identifier normalized as XML matches it:
```json
{
"doctype": {
"name": "abiword",
"public_id": "-//ABISOURCE//DTD AWML 1.0 Strict//EN",
"system_id": "http://www.abisource.com/awml.dtd"
},
"root": { "name": "abiword", "attributes": {}, "children": [] },
"truncated": false
}
```
An identifier the DOCTYPE leaves out is `null`, and a document without one
has no `doctype`. The DTD is never fetched or read, so it adds no default
attributes and declares no entities. A DOCTYPE with an internal subset
(`<!DOCTYPE a [ … ]>`), which could declare entities, is not read as XML, nor is
a document that refers to any entity but XML's five (`&amp;`, `&lt;`, `&gt;`,
`&apos;`, `&quot;`); such a file is text.
Exported XML views use REA's same formatting-whitespace classification, so
retained XML text and the task checks that address it stay aligned.
SQLite databases are read through REA's SQLite worker from a private copy,
with any retained `-wal` or `-journal` file staged beside it; the worker
accepts an inactive rollback journal and refuses a hot one. A version is not
read when its `-wal` or `-journal` file existed but was not retained, or when
the capture did not record whether either existed, since the database alone
could misstate its committed rows. The capture records them under its content
roots, which include both beside a database selected on its own, when its
baseline walk listed every directory, read every path, entered no other
device, did not stop early and recorded what it left out, and wherever they change; an excluded log, and any elsewhere, is
unknown, since an unchanged file and a missing one look alike. A table
that cannot be read keeps its `error` in place of its rows, and changes to that
database are marked incomplete. dconf
databases are read with `dconf dump /` against a private file profile, so the
live database and the dconf service are not touched; this needs `dconf-cli`, or
`REA_DCONF_COMMAND`.
A version has a `view_error` when its bytes were not retained, are over the 64
MiB read limit, are missing or no longer match their digest, exceed a format's
limit above, or its reader failed.
## Archives
Many applications save a document as a zip archive of XML and other files:
FreeCAD's `.FCStd` and `.FCBak`, OpenDocument (`.odt`, `.ods`, whose
`content.xml` is the document), Office Open XML, EPUB and JAR. Such a file is
`zip`, and its view lists its file entries in archive order, leaving out
directories: an entry whose name ends in `/`, or whose attributes mark a Unix
directory or, from an MS-DOS host, the directory attribute:
```json
{
"entries": [
{
"name": "Document.xml",
"size": 11923,
"sha256": "…",
"format": "xml",
"view": {
"root": { "name": "Document", "attributes": {}, "children": [] },
"truncated": false
},
"view_error": null
}
],
"entry_count": 15,
"truncated": false
}
```
Each entry's bytes are read from the archive's verified bytes in memory,
checked against its CRC-32 and declared size, and given a `format` and `view`
by the rules and limits above, with the entry's name in place of a file name.
Nothing is extracted to disk. An entry has a `view_error`, with `sha256`,
`format` and `view` null, when it is encrypted, compressed other than stored or
deflated, larger than 16 MiB, more than 100 times its compressed size, past the
64 MiB read from one archive, or its data is damaged. A SQLite or dconf
database, or an archive, inside an archive keeps its format and `sha256` and
has a `view_error` instead of a view: it is not read. The view lists at most
1,000 entries; `entry_count` counts them all, and `truncated` is true when some
are not listed. REA reads the central directory itself, a record at a time,
through the Zip64 end record whenever a Zip64 locator precedes the end record,
as Python's `zipfile` does, and hands the zip reader only the records it lists,
so an archive of hundreds of thousands of entries costs no more to read
than one of a thousand. An archive whose central directory cannot be read has a
`view_error` of its own.
## Kinds of change
Between consecutive versions a change is `created`, `deleted`, or a
format-specific kind with what was added, removed and changed (up to 100 of
each, with counts):
- `lines` for text: lines added and removed, as a multiset.
- `values` for JSON and XML: JSON pointers to values, containers included, so
an array that becomes an object with the same members is changed. A pointer
longer than 4096 characters is counted but not listed.
- `values` for zip archives too, with array members named by
[selectors](desktop-application-tasks.md#pointers-and-selectors) rather than
positions wherever a selector names one member in both versions: entries by
name, as `/entries/[name=Document.xml]`, and XML elements by tag and an
attribute, as `/view/root/children/[name=Object][@name=Hole]`, so an object
inserted before another does not shift it. A comparison is incomplete when
either view leaves out entries, or an entry's view is missing or truncated.
- `keys` for key files and dconf: `group/key`, with `~` and `/` in the key
written `~0` and `~1` as in a JSON pointer, so `[a/b]` `c` and `[a]` `b/c`
stay apart.
- `rows` for SQLite: `table:` and the row's primary key, or the whole row when
the table has none.
- `content` for binary files, and `unreadable` when either version has no
view.
-343
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@@ -1,343 +0,0 @@
# Desktop application tasks
A [desktop application export](desktop-application-export.md) can carry one
task: a prompt for a computer-use agent and checks that grade what the agent
left in the application's files. An agent, not REA, writes the prompt and the
checks from the change the capture recorded. REA validates the task against
the capture and keeps it only when its checks fail on the seed and all pass on
the captured end state. REA runs no model and no code the agent wrote: the
checks are declarative, and the exported verifier evaluates them the same way
REA does.
```sh
rea describe-desktop-application-task ./mousepad-capture --format json > draft.json
# edit the draft's task into task.json: a name, the user's request, the checks
rea export-desktop-application ./mousepad-capture ./mousepad-bundle --task task.json
agent-env run ./mousepad-bundle --task add-milk --agent claude-code
```
## Describe the change
`rea describe-desktop-application-task <capture-folder>` reads the capture and
its [state view](desktop-application-state.md) and returns Evidence with
operation `describe_desktop_application_task` and predicate type
`rea.desktop-application-task-draft`:
- `application`: the environment name the export would use, the title and the
window class.
- `owned_paths`: the paths the export owns, the only ones whose files the
app's `data/get` serves and checks can read.
- `checkpoints`: the two checkpoints compared, `baseline` for the seed and
`final` for the end. They are the capture's first and last unless
`--seed-checkpoint` and `--end-checkpoint` name others, as for the
[export](desktop-application-export.md#the-seed-checkpoint), which takes
the same options; a name the capture does not hold, or an end before the
seed, is refused.
- `files`: each file under them whose state differs between those
checkpoints, with its home path, role, its versions at both (`baseline` and
`final`, the last recorded at or before each) and the net change between them, from the state view's own diff (`lines`, `values`,
`keys` or `rows` with what was added, removed and changed, or `created`,
`deleted`, `format`, `content`, `unreadable`; `content` also when the
views hold only part of a file and match while the file changed). A
database is compared by its rows, since its hash leaves out the `-wal`
file. Text changes list each line
once and add `line_counts`, the lines found at both ends whose number of
occurrences changed. Views appear only for the files the suggestions cover,
with arrays past 200 items and strings past 2,000 characters cut
(`view_cut`).
- `task`: a draft with the name `change`, a placeholder prompt the export
refuses, and suggested checks derived from the net change of the files with
role `document`, or of the app's own state files when no document changed.
A text file gains `lines_present` for its new lines and `lines_absent` for
lines it lost (when either is at most ten), and `line_count` for each line
holding a letter whose count changed; JSON and key files gain
`value_equals` and `value_absent` by pointer; SQLite tables gain rows added,
changed and removed, by primary key, and their new row count. An XML file,
and the JSON, key file and XML views of a zip archive's entries, gain checks
by [selectors](#pointers-and-selectors) and never through an element by
position: in XML, first [`text_equals`](#whole-text) for each element whose
text changed, then an element added whole that it exists, one removed whole
that it is absent, then values changed, added and removed, an entry or a
JSON value added whole through its members, and an empty array or object as
it is. The text check names the paragraph rather than a run inside it: it
goes up from an element sitting in its parent's text, and from one named by
its tag or position alone to the nearest ancestor named by an attribute, as
AbiWord's `p` by its `xid`; the text nodes and runs inside it get no other
check, but an element holding no text that is added or removed there, such
as an image or a line break, keeps its own, since the text check never
reads it. Whitespace an app lays out between elements is not checked, and
values that look like a time the app stamps, in ISO 8601 or as C's
`asctime` writes it (`Thu Nov 5 09:20:31 2026`), are left out.
The suggestions are a starting point. Keep the ones that say what the user
did; drop the ones that only follow from how the app saves its file. A LibreCAD
capture that added four holes to a drawing rewrote it from DXF R12 to DXF 2007,
so most of its lines changed; the draft suggests counts of `SECTION`, `ENDSEC`
and `CIRCLE`, and only `CIRCLE` going from 5 to 9 is the user's change.
## The task file
```json
{
"name": "add-milk",
"prompt": "Add buy milk to my to-do list in Mousepad and save it.",
"checks": [
{
"id": "milk",
"kind": "lines_present",
"file": "Documents/todo.txt",
"lines": ["buy milk"]
}
]
}
```
`name` is a portable bundle name other than `smoke` (lowercase letters, digits
and hyphens); `prompt` is what the user asks for; `checks` holds 1 to 32
checks. Each check has a `kind`, a `file` given as a path under the home such as
`Documents/todo.txt`, and an optional `id` (`check-1`, `check-2` and so on by
position otherwise). A check reads the typed view `data/get` returns for that
file, in the shapes of the state view.
| Kind | Fields | Passes when |
| --------------- | ------------------------------------------------------------ | ------------------------------------------------------------------------ |
| `file_present` | | The file exists |
| `file_absent` | | The file does not exist |
| `lines_present` | `lines` | Every listed line is a whole line of the text view |
| `lines_absent` | `lines` | None of the listed lines is |
| `line_count` | `exact` or `contains`; `equals`, `at_least` or `at_most` | The number of lines equal to `exact`, or holding `contains`, compares so |
| `value_equals` | `pointer`, `value`; optional `tolerance` | The pointer names a value equal to `value`, or within `tolerance` of it |
| `value_absent` | `pointer` | The pointer names no value |
| `text_equals` | `pointer`, `value`; optional `normalize_whitespace` | The XML element's [whole text](#whole-text) equals `value` |
| `text_contains` | `pointer`, `value`; optional `normalize_whitespace` | The XML element's whole text holds `value` |
| `row_present` | `table`, `where` | A row of the SQLite table has every column in `where` equal |
| `row_absent` | `table`, `where` | No row does |
| `row_count` | `table`; optional `where`; `equals`, `at_least` or `at_most` | The number of rows, or of rows matching `where`, compares so |
The rules both evaluators follow:
- An absent file reads as empty: no lines, values or rows. So `lines_absent`,
`value_absent` and `row_absent` pass on it and a count is 0.
- A file that has no view (binary, over the read limit, or unreadable) fails
every check but `file_present` and `file_absent`. Line checks need a text
view, row checks a SQLite view and text checks an XML view, in a file or an
archive entry; another format fails.
- Equality is JSON equality: numbers by value, never a boolean for a number,
objects by their keys whatever their order, arrays in order.
- Pointers follow RFC 6901 (`~1` for `/`, `~0` for `~`) and must start with
`/`; on an array a segment may be a selector, below. Key files read as
`{"groups": {"GROUP": {"KEY": "VALUE"}}}`, so a setting is
`/groups/GROUP/KEY`; XML as `{"root": {"name", "attributes", "children"}}`;
SQLite as `{"tables": {"TABLE": {"columns", "rows"}}}`; a zip archive as
`{"entries": [{"name", "format", "view", …}]}`.
- With `tolerance`, a non-negative number, `value` must be a number, and the
value found passes when it is a number, or a string that is a decimal
numeral such as `"5.0000000000000000"`, at most `tolerance` from `value`.
`tolerance: 0` compares numerically, so `"1.2500"` equals `1.25`. Anything
else fails as not a number.
- `contains` matches a line that holds it anywhere, case and all. Checks take
no regular expressions: a pattern run on what the agent wrote could stall
the verifier, and JavaScript and Python read some patterns differently.
- A check decided by what a view leaves out (`lines_absent`, `value_absent`,
`row_absent`, the counts, `value_equals` of a whole object or array, and
the text checks of an element) fails when that view is truncated; a check
satisfied by what the view holds is decided on it.
The export refuses, naming the check, a file outside the owned paths, a file
spelled with a leading slash, `.` or `..`, a pointer into a file that is text
at the seed, as the bundle ships it, or at the end checkpoint, the empty
pointer (the whole file), a value that names the captured home, or the
capture host's name or `user@host` anywhere (which the
[export removes from the seed](desktop-application-export.md#host-name-and-user)), a
`tolerance` with a value that is not a number, an empty `text_contains`
value, or one of only whitespace with `normalize_whitespace`, and a value that
looks like a date and time, in ISO 8601 or `asctime`'s form. Other volatile
content, such as a
counter the app bumps on every save, is for the author to leave out.
## Pointers and selectors
An app that rewrites a document moves things: FreeCAD 1.0 records more
properties than 0.21, so a hole's radius sits at another position among its
siblings, and a plate's entry moves once a hole is added before it. A pointer
segment applied to an array may therefore name a member by what it holds
rather than by its position:
- `[KEY=VALUE]` names the member whose string field `KEY` is `VALUE`, such as
a zip entry by `[name=Document.xml]` or an XML element by its tag,
`[name=Object]`.
- `[@KEY=VALUE]` names the member whose `attributes` hold `KEY="VALUE"`, as
the XML view keeps an element's attributes.
- Conditions can follow one another, `[name=Object][@name=Hole]`, and all must
hold. They compare strings only, the selector is escaped like any pointer
segment (`~1` for `/`), and a value cannot hold `][`.
A selector must name exactly one member. When several match, or none does
before the last segment, the check fails and says which selector matched what.
When the last segment's selector matches none, the pointer names no value:
`value_absent` passes, which is how a check says an element was removed, and
`value_equals` fails. On an object, a bracketed segment is an ordinary key.
A FreeCAD task that checks the user cut a 10 mm hole through the plate, in
FreeCAD 0.21 and 1.0 alike:
```json
{
"name": "cut-hole",
"prompt": "Cut a 10 mm hole through the middle of the plate and save it.",
"checks": [
{
"id": "cut",
"kind": "value_equals",
"file": "Documents/plate.FCStd",
"pointer": "/entries/[name=Document.xml]/view/root/children/[name=Objects]/children/[name=Object][@type=Part::Cut]/attributes/type",
"value": "Part::Cut"
},
{
"id": "radius",
"kind": "value_equals",
"file": "Documents/plate.FCStd",
"pointer": "/entries/[name=Document.xml]/view/root/children/[name=ObjectData]/children/[name=Object][@name=Hole]/children/[name=Properties]/children/[name=Property][@name=Radius]/children/[name=Float]/attributes/value",
"value": 5,
"tolerance": 0.01
}
]
}
```
Before the edit the archive has no `Part::Cut` and no `Hole`, so both checks
fail on the seed; after it, `Radius` is `"5.0000000000000000"` and both pass.
A check decided by what a view leaves out depends, in an archive, on the entry
its pointer goes into: it fails when that entry's view is missing or
truncated, or when the entry is not listed and the listing is truncated. A
selector must see every member to know it names one, so a check whose pointer
searches an array the view may hold only part of fails as undecided: any array
of a truncated XML view, of a truncated entry's view, or the listing when it
is cut. A position is decided on what the view holds. Like a file, an entry
that has no view (binary, not read, or a database or archive inside the
archive) fails every check into its `view`; its `null` there is no value, while
an entry holding the JSON document `null` reads as `null`. Checks on its `name`,
`size`, `sha256` and `format` still read.
XML that uses namespaces is named as the document spells it, in both
evaluators: an element or attribute by its prefixed name, such as `text:p`
or `inkscape:label`, an element in a default namespace by its bare name, such
as `svg`, and namespace declarations as the attributes `xmlns` and
`xmlns:PREFIX`. Text is a string among an element's `children`. These checks
hold a poster's headline in an Inkscape SVG and a date in a LibreOffice Writer
document:
```json
[
{
"id": "headline",
"kind": "value_equals",
"file": "Pictures/poster.svg",
"pointer": "/root/children/[name=g][@inkscape:label=Layer 1]/children/[name=text][@id=headline]/children/[name=tspan]/children/0",
"value": "Summer Bake Sale"
},
{
"id": "date",
"kind": "value_equals",
"file": "Documents/flyer.odt",
"pointer": "/entries/[name=content.xml]/view/root/children/[name=office:body]/children/[name=office:text]/children/[name=text:p][@text:style-name=Subtitle]/children/0",
"value": "Monday 24 November"
}
]
```
Inkscape writes a line of text as a `tspan` inside its `text` element, and
Writer keeps a paragraph's style in `text:style-name`. A prefix is the one the
document uses, so a check names the prefixes the app writes.
## Whole text
A text node is only the stretch of text between two pieces of markup, and
apps split a paragraph into runs as they save it. AbiWord wraps text typed
into a reopened document in `c` elements, so changing a time to `3:30` saves
`<p>The team meeting starts at <c>3</c>:<c>30</c> in room 4.</p>`; Writer,
which records revision IDs by default, writes text typed in one session as
`text:span` runs. A `value_equals` on the paragraph's `children/0` then reads
`"The team meeting starts at "` and fails. `text_equals` and `text_contains`
read the element's whole text instead:
```json
{
"id": "time",
"kind": "text_equals",
"file": "Documents/meeting.abw",
"pointer": "/root/children/[name=section]/children/[name=p][@xid=3]",
"value": "The team meeting starts at 3:30 in room 4."
}
```
- The pointer names an element of an XML view, in a file or in an archive
entry's `view`, or a text node or attribute value in one, whose text is its
value. Another format, a pointer into an archive outside an XML entry's
view, or any other value fails, an element's `name` and the `doctype`'s
fields included: they are strings of the view, not text of the document.
- An element's text is XPath's `string()` of what the view keeps: every text
node in it and in its descendants, CDATA included, in document order, with
nothing between them. The view drops whitespace-only text between child
elements only in an element that holds no other text, outside
`xml:space="preserve"`, so the space between two runs of a paragraph is
part of its text. Elements that stand for characters, such as Writer's
`text:s`, `text:tab` and `text:line-break`, add none.
- `text_equals` passes when the text equals `value` exactly, case and all;
`text_contains` when it holds `value`, as a time within a sentence, so the
check holds whatever the rest of the sentence says.
- `normalize_whitespace: true` collapses each run of XML whitespace (space,
tab, carriage return, line feed) in both the text and `value` to one space
and trims both ends before comparing, as XPath's `normalize-space()` does,
for an app that reflows text or a value written across lines. A no-break
space is not whitespace there.
## Validation and export
`rea export-desktop-application <capture> <directory> --task <task.json>`
evaluates the checks on the capture's state view: on each file as it was at
the seed checkpoint, which is the seed, as the bundle ships it with the
capture host's name and user removed, and at the end checkpoint, the
captured end state. Those are the capture's first and last checkpoints unless
`--seed-checkpoint` and `--end-checkpoint` name others.
It refuses a task whose every check passes on the seed, and a check that fails
on the end state, with that check's reason. Only a failure on what the seed's
view shows counts: a task whose checks fail on the seed only because a view
could not be read or may have left out what they look for, such as a line past
the 5,000 a text view keeps, is refused, naming each failure. A capture yields
one task, so the option is taken once. The result's `task` names the task, its
number of checks and those that fail on what the seed shows. A refused task
writes no bundle.
The bundle then holds, besides the app and `tasks/smoke.json`:
| Path | Contents |
| ---------------------------------- | ---------------------------------------------------------------------------------------------------------------------- |
| `tasks/<name>.json` | Deploy the app, deploy the agent and its skills, record the screen, prompt the agent, run the verifier, stop recording |
| `artifacts/<name>-check/verify.py` | Reads the app's `data/get` through the computer and evaluates the checks, one result per check |
| `evals/<env>.toml` | The task, so a run of the bundle runs it; the smoke task runs with `--task smoke` |
The verifier finds the app among the computer's child environments, calls its
`data/get` under the run's grant of the computer's control token, and reads
the `state` data part. It raises when the app cannot be reached, so the run
fails rather than scoring the agent. The README lists the task, its prompt, its
checks and the recipe below.
## Solve rate
REA does not run agents. To measure how often an agent solves the task, run it
k times, three by default, and count the runs whose summary line says
`passed`:
```sh
for run in 1 2 3; do
agent-env run ./mousepad-bundle --task add-milk --agent claude-code --model MODEL
done
```
The agent defaults to Claude Code and the model is the caller's choice (Claude
Sonnet 5.5 is a reasonable reference). A run reported as `scored below 1`
failed the checks and counts as a miss; one reported as `failed` did not finish,
as when the computer or the app could not be reached, and is run again rather
than counted. Each run's instance keeps the verifier's results per check under
`verifications`.
+5 -16
View File
@@ -110,15 +110,6 @@ not establish full metadata validity or correspondence to a native binary;
version 24 inspection still applies only to supported header layouts. See
[IL2CPP metadata](il2cpp-metadata.md).
In a managed directory with a Unity Mono witness, `Assembly-CSharp.dll` and
`Assembly-CSharp-firstpass.dll` get an `inspect_managed_members` probe listed
first; project-named asmdef assemblies keep only the ordinary managed probes.
The same probe is offered for those names in `Managed/` of a
`<Product>_BackUpThisFolder_ButDontShipItWithYourGame` folder (or when that
folder is the root); whether its IL matches the shipped IL2CPP code is unknown.
Point the scan at the game folder: a root that is the `<Product>_Data` or
`Managed` folder itself has no Mono witness path and gets no member probe.
Candidates are derived or inferred from these facts and do not prove loading or
execution. BepInEx, MelonLoader, Easy Anti-Cheat and BattlEye labels identify
path conventions only; runtime presence stays unknown. No bypass is provided.
@@ -144,13 +135,11 @@ observations, not an atomic directory snapshot. Unread bytes remain unknown.
## Resource bounds and reuse
Defaults are 20,000 examined entries and 8 MiB of total probe reads. Callers may
select up to 100,000 entries and 64 MiB. A separate 32 MiB representation
budget bounds retained rows, paths and facts before growth. Each retained path
is charged at the larger of its UTF-16 heap size and its escaped JSON size, so
typical macOS bundle paths fit about 20,000 rows, and control-character paths
fewer. Limits and failed probes produce partial coverage. Traversal and reads
are serial. Each reader admits one inspection at a time; overlapping requests
receive a retryable capacity refusal without cancelling the admitted caller.
select up to 100,000 entries and 64 MiB. A separate 32 MiB conservative
representation budget bounds retained paths and facts before growth. Limits
and failed probes produce partial coverage. Traversal and reads are serial.
Each reader admits one inspection at a time; overlapping requests receive a
retryable capacity refusal without cancelling the admitted caller.
Unity reference decoding stops after a witness in each `Data/Managed` directory;
other assemblies' references remain unexamined, while their headers are still
-199
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@@ -1,199 +0,0 @@
# Desktop build computer
A build computer is a local agentenv computer that an agent drives while it
builds a desktop app environment. Claude Code cannot attach a new MCP server
in the middle of a session, so REA keeps the computer up and forwards the
agent's computer-use actions to it through three MCP tools:
| Tool | What it does |
| ----------------------- | ------------------------------------------------------------------------------------------ |
| `start_build_computer` | Starts a computer from a request or a bundle folder; returns its id and a first screenshot |
| `act_on_build_computer` | Sends one action to the computer's driver and returns the driver's answer, images included |
| `close_build_computer` | Tears the computer down, by agentenv's teardown or by removing its sandbox's containers |
The tools are MCP-only, like the debugger sessions: the computer lives as long
as the REA MCP server that started it, or until it is closed. Capturing the
app, exporting its bundle and witnessing the task on such a computer are in
[Building and witnessing an environment](desktop-build-witness.md).
## Requirements
- Docker, and an agentenv-framework install whose `agent-env` program is named
by the absolute `REA_AGENT_ENV_COMMAND`. Bundles target agentenv
0.9.1431. REA runs its helper, `bridge/agentenv/computer.py`, with that
runner's Python: the interpreter on the program's `#!` line, or the
`python3` beside it in its virtual environment.
- `REA_DOCKER_COMMAND`, the absolute path of the Docker CLI, lets REA remove a
computer whose agentenv teardown was not confirmed. Without it, REA names the
command to run instead.
- For a request, `REA_BUILD_COMPUTER_REA_ARCHIVE`: the absolute path of a tar
archive of a runnable REA, with its production dependencies, whose one top
folder holds `scripts/rea.mjs`. The computer runs REA from it. From a
checkout, `npm run pack:build-computer-runtime -- /path/to/rea-prod.tar.xz`
writes one: `npm pack`, its package folder as
`rea-prod` with the lockfile, `npm ci --omit=dev --omit=optional`, then
`rea-prod` as `.tar.xz`.
Set these where the MCP server starts; a shell export does not reach a server
that is already running.
## Start a computer
From a request, REA renders a bundle in a private temporary folder: a computer
app on the `ubuntu-24.04` base with the `reference` driver that installs the
app, opens it on demand with `gtk-launch <desktop entry>` from the computer
user's home, so its open and save dialogs start there rather than in the
framework's folder for the app, and keeps no seed and no data hooks. The app is not open when the computer starts: agentenv lists it
in the desktop's Applications menu under Other by the environment's name, such
as `mousepad`, and that entry launches it through the app's server.
When the app is Electron, set `electron` to true. The install rewrites that
desktop entry's command with the same policy an export uses: `--no-sandbox`
immediately after the program, unless the command already has it. The
computer's container does not grant the user namespaces Chromium's sandbox
needs, and Electron exits without the flag. With the rewritten command, the
Applications menu entry can open the app.
```json
{
"source": {
"kind": "request",
"desktop_entry": "org.xfce.mousepad",
"window_class": "Mousepad",
"install": { "kind": "archive", "package": "mousepad" }
}
}
```
`install` takes one of:
| `kind` | Installs |
| ---------------- | ---------------------------------------------------------------------------------------------------------- |
| `archive` | `package` from the Ubuntu 24.04 archive, on amd64 and arm64 |
| `apt_repository` | `package` from the repository at `uri` with `suite` and `components`, trusting the key file `key_file` |
| `package_file` | The `.deb` at `url`, checked against `sha256`, for one `architecture`, after its apt `dependencies` are in |
Build steps run with the network off, so a `.deb`'s dependencies must be
listed. The bundle adds REA in a build-only layer: Node.js
24.22.1, downloaded per architecture and checked against its release checksum,
and REA from `REA_BUILD_COMPUTER_REA_ARCHIVE`, both unpacked into `/opt/rea` by
a root build step, with `node` and `rea` on `PATH`. An exported bundle carries
none of it.
From a bundle folder, such as one `export-desktop-application` wrote, REA
starts that bundle's `tasks/smoke.json` as it is:
```json
{ "source": { "kind": "bundle", "path": "/home/ada/mousepad-bundle" } }
```
REA runs its helper with `PYTHONDONTWRITEBYTECODE=1`, which agentenv's own
import of the bundle's app class inherits, so a start leaves no `__pycache__`
in the folder and its files stay as they were shared.
REA runs the deploy with `run_bundle(keep=True, emulate=False)` on the local
sandbox provider, so only the host's own architecture is built. The first start
of a bundle builds its image and can take minutes; later starts reuse it.
While it waits, REA sends an MCP progress notification every five seconds with
agentenv's latest line, so a client that resets its request timeout on
progress keeps waiting. REA then waits until the computer's readiness checks
pass and opens one MCP session to its driver. Readiness can pass before the
desktop has drawn, so REA takes a whole-screen PNG screenshot every 500 ms
while it is one colour throughout. The retries share 10 s, each given only
what is left of it, and when that runs out REA returns the latest frame;
progress notifications continue meanwhile. Given `screenshot` with a
`region`, `format` or `quality`, REA then takes one with them, a `region`
cropping that frame. The result holds
`computer_id`, agentenv's `sandbox_id`, the environment name or bundle folder,
and the screenshot's frame as structured content beside its image.
A failed start returns the last 16 KiB of the helper's stderr, where a failing
build prints its error, and its exit status; a cancelled one stops the helper,
which tears down whatever agentenv brought up. When that teardown is not
confirmed, the error's `computer_id` names what REA keeps for
`close_build_computer` to retry. Closing the server cancels starts still in
progress and waits for them before closing every computer.
## Act
`act_on_build_computer` takes `computer_id`, an `action` and the driver's own
arguments for `computer_<action>`, which REA passes through:
| `action` | Arguments |
| ------------ | --------------------------------------------------------------- |
| `screenshot` | `region`, `format` (`png` or `jpeg`), `quality` |
| `click` | `x`, `y`, `button`, `count` (2 double-clicks), `modifiers` |
| `drag` | `path` of `[x, y]` points, `button`, `duration_ms`, `modifiers` |
| `scroll` | `direction`, `x`, `y`, `amount`, `modifiers` |
| `type` | `text`, where `\n` presses Enter and `\t` Tab |
| `key` | `keys`, one chord pressed in order, and `repeat` |
| `wait` | `ms` |
| `reset` | `screenshot` |
`reset` is not a driver tool: REA calls the app's `data/reset`, which restores
the bundle's seed and relaunches the app, then waits until the computer's
readiness checks pass again, sending an MCP progress notification every five
seconds while it waits. With `screenshot: true` it then takes a screenshot; if
that fails, the reset still counts as applied and its result has no `frame`
but a `screenshot_error` with the computer's message. A computer started from
a request has no data operations, so it refuses a reset.
Pointer actions also take `frame_id`, `space` and `norm_scale`, and every
action but `screenshot` takes `screenshot: true` for an image afterwards. That
image is taken at once, so after an action that opens a menu or a window, ask
for it with a `wait` of a few hundred milliseconds instead.
Points are pixels of the latest frame, so take a screenshot first; with
`space: "norm"` they are on a `0..norm_scale` grid over it. Keys are W3C names
or one character; REA translates model spellings such as `ctrl+s`, `Return`,
`esc` and `cmd` and leaves other names for the driver to judge. An argument the
action does not take is refused before anything is sent.
The result carries the driver's content unchanged, its text and images, after
REA's own JSON: `action_index` and the driver's structured result. A refusal,
such as a stale frame, is an error carrying the computer's message. A response
larger than the MCP budget is refused with how to ask for a smaller image: a
`region`, or `jpeg` with a lower `quality`. That error keeps REA's own result,
`computer_id` included, as `details.result`, since the action or start has
happened.
Actions, the capture steps and the task checks on one computer run one at a
time, in the order REA receives them; one that has to wait for the call
before it sends an MCP progress notification every five seconds meanwhile.
Different computers run side by side.
Every action is logged on the computer in order with the arguments sent, its
start and end and whether it was applied, refused or failed. The log keeps the
latest 256 actions within 256 KiB of JSON, dropping the oldest first. Each
string argument, such as `type`'s `text`, is kept to its first 1 KiB and each
list, such as `drag`'s `path`, to its first 64 items; an entry names the
arguments it cut in `truncated_arguments`, and the driver gets them whole. The
log counts every action, so it says how many it dropped, and keeps the index of
the last applied action of each kind for rules over the whole session. The log
and the computer's recording hooks (`computer-recording/v1` start and end under
REA's own request id, and the segments fetched through the driver's `data/get`
one at a time, each read within its manifest size and checked against it) are
what the witness records; they are not tools of their own. A recording larger
than a quarter of the V8 heap is refused before any segment is read.
## Close
`close_build_computer` ends REA's MCP session and closes the helper's stdin,
on which the helper runs agentenv's teardown. When agentenv confirms nothing is
left, the result says `teardown: "agentenv"`. Otherwise REA removes the
containers of that exact sandbox: agentenv runs a computer as
`agent-<sandbox id>` without a label and labels its other containers
`agentenv.sandbox=<sandbox id>`, so REA lists both with `docker ps -aq
--filter`, removes them with `docker rm -f`, and says
`teardown: "container_label"`. When neither confirms it, the error names what
is left and the computer stays listed, so closing it again retries. A close
cancels the call in progress on the computer, refuses the calls waiting for
it, and tears down once that call has ended. Closing the
MCP server closes every computer the same way, and a helper whose REA server
exits sees its stdin close and tears down.
The control token that guards the computer's framework-only routes stays in
REA: no result, error or log carries it. Code running in the computer as its
user can still read it, which is acceptable for a local build.
See the [specification](specs/desktop-app-environments/build-computer/spec.md)
for scope and verification.
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@@ -1,175 +0,0 @@
# Building and witnessing an environment
An agent such as Claude Code builds a desktop app environment from a request
on a [build computer](desktop-build-computer.md): it makes the seed through
the app, makes the change the task asks for, exports the bundle with the task
it writes, and then witnesses the task in a fresh computer of that bundle.
REA runs its own capture, task draft and export inside the build computer and
grades the witness with the same checks the exported verifier runs.
| Tool | What it does |
| -------------------------- | ------------------------------------------------------------------------------------------- |
| `start_build_capture` | Downloads the package lists as the computer's user and launches the app under REA's capture |
| `mark_build_checkpoint` | Takes a named checkpoint and returns the capture's acknowledgement with its counts |
| `stop_build_capture` | Stops the capture and returns its checkpoints and the task draft between `seed` and `end` |
| `export_build_environment` | Exports the bundle with the agent's task inside the computer and copies it to a folder here |
| `check_build_task` | Grades a task against the app's live state; with a `stage`, files the check in the witness |
Like the computer tools, these are MCP-only and act on a `computer_id` from
`start_build_computer`.
## Build
1. `start_build_computer` from a request. REA is installed in the computer.
2. `start_build_capture`. REA writes an apt configuration under
`~/.rea-build/apt` and runs `apt-get update` as the computer's user, so the
capture finds the package's sources (`package_lists` counts the lists,
and `package_lists_error` gives apt's exit status and last lines when the
download failed; a later start runs the update again until one succeeds). It then starts `rea capture-desktop-application
--desktop-entry <entry>`
in the computer, leaving `~/.rea-build` out of every checkpoint, and returns
once the app's window is open, with a screenshot. For an app installed
from a `.deb` file, the build layer keeps that file at
`/opt/rea/package.deb` and the capture records it with `--package-file`. Do not open the app from
the menu first: the capture refuses an app whose window is already open.
3. Make the seed through the app with `act_on_build_computer`, saving it
where the user keeps such files, such as `~/Documents`, then
`mark_build_checkpoint` `seed`.
4. Make the change the task will ask for, save it, and
`mark_build_checkpoint` `end`.
5. `stop_build_capture`. The app is closed and the capture finishes. The
result lists the checkpoints with their counts, the package and the
sources the capture found, its limitations and the draft: each file that
changed between `seed` and `end` with its net change, and suggested
checks with a placeholder prompt.
6. Write the task: its name, the prompt in the user's own words, and checks
that hold after the change and not on the seed.
7. `export_build_environment` with the task and a new or empty `directory`.
The export runs inside the computer with `--seed-checkpoint seed
--end-checkpoint end`, so it seeds what was saved at `seed`, scrubs the
computer's host name and user from it, and refuses a task whose checks
all pass on the seed. A task larger than 96 KiB as REA passes it to the
computer is refused before anything runs. A file moved to the desktop Trash is not seeded,
and the export's limitations name what the Trash held at `seed`. For a
`.deb` app that no apt source the capture found offers, the export takes
the request's URL with `--package-url`; one apt offers installs from apt. REA lists the bundle's files with their sizes
and SHA-256 in the computer, into a file beside the bundle that it reads
through `data/get`, since a large bundle's list outgrows a command's
output; it then brings the files back through the driver's
`data/get` in answers of at most 8 MiB, and checks and writes each answer
into the folder before asking for the next, so one answer at a time is
held; a failure leaves no partial folder.
8. `close_build_computer`.
A checkpoint name is lowercase letters, digits, dot, dash and underscore; the
capture's own `baseline`, `stop`, `time-limit` and `exit` are refused, and so
is a name already taken. The acknowledgement comes from the capture after it
has walked the home and retained what changed: `entries` walked, `changes`
since the checkpoint before, `retained_files` and `retained_bytes`.
Each step can be asked again after its answer was lost:
- A start whose answer is lost, or whose window never opened, stops the
capture it may have left running. Until the computer confirms that stop,
REA keeps the capture and the next `start_build_capture` retries the stop
before starting another.
- A checkpoint the capture took whose acknowledgement was lost comes back
from the capture's own log when the same name is marked again.
- A stop whose summary or draft was not read finishes when stop is asked
again, and a finished stop repeats its result. The draft and the export
trust the checkpoints the capture's own Evidence records.
- A step that saved something, such as an export's bundle or the witness's
record, returns it even when its call is cancelled or the computer closes
as the save finishes. `start_build_capture` saves nothing, so a close or
cancellation during its screenshot of the opened app cancels it.
The capture, the draft and the export run as the computer's user in its home,
without any `AGENTENV_*` variable, so neither REA nor the app holds the
computer's control token. REA sends each command through agentenv's
`computer-exec/v1` route with that token, which stays in REA, and reads larger
outputs, such as the draft, the export's Evidence and the bundle's file
list, from files under `~/.rea-build` through `data/get`, since a command's
output is capped at 1 MiB.
Calls on one computer run one at a time, in the order REA receives them:
an action, a capture step, a check or a close waits until the call before
it on that computer has answered, and sends progress notifications while
it waits. So a check reads the app with no action half done, and a witness
stage is admitted, read and filed before anything else on that computer
runs. Calls on different computers run side by side. Closing a computer
cancels the call in progress on it and refuses the calls still waiting.
## Witness
Start a fresh computer from the exported folder with `start_build_computer`
and `{"kind": "bundle", "path": ...}`; agentenv boots the app with the seed.
Then, with the task exactly as exported:
| `stage` | Before it | Its checks must |
| ------------- | ----------------------------------------------------------------- | ---------------------------- |
| `seed` | nothing; give `directory`, a new or empty folder for the record | fail at least once |
| `after_edit` | the task done through the app from its prompt alone | all pass |
| `near_miss` | a change that is almost right, such as a misspelled line | fail at least once |
| `after_reset` | `act_on_build_computer` with `action: "reset"` as the last change | each come out as on the seed |
`check_build_task` reads the app's `data/get`, takes the views it returns
beside the files and evaluates each check with REA's evaluator, the one the
export validates tasks with and the exported verifier mirrors, one result per
check. Without `stage` it only grades. The `seed` stage begins a recording
of the display under REA's own request id, one per computer; a seed check
that fails after it, such as on a failed read of the app's state or a lost
reply to the recording's start, can be asked again, and asks for the
recording under the same id, which the computer answers with the recording
it already began. The stages come in order. The edit and the near miss each
need an applied click, drag, scroll, type or key since the stage before, with
no reset after the last of them, since a reset puts the seed back rather than
changing the app; `after_reset` needs the reset as the last change, and a
reset that leaves any check unlike on the seed fails the witness, its
stage's `remediation` naming those checks. On a computer started from a
bundle folder, the seed refuses a task whose `tasks/<name>.json` or verifier
in the bundle differs from what the export writes for it. A reset
relaunches the app, and REA waits until the computer is ready again before
answering, sending progress notifications while it waits.
Only a check that fails on what the app's view shows counts as a failure. A
check that fails because its file or table could not be read, such as an
SQLite file locked past the reader's wait, or because what it looks for may
lie in what its view cut, is `undecided` in its result: it shows nothing
about the task. That covers a line `lines_present` misses in a text view cut
at 5,000 lines, a row `row_present` misses in a table whose view keeps only
its first rows, a `value_equals` pointer that names nothing in a truncated
view or past a cut zip listing, and the absence checks and counts on a cut
view. A check that passes on what the view kept stays decided, and so does a
value found there that differs from the one expected. The result's `passed`
and description are the exported verifier's, which has no undecided results.
A stage that only undecided checks would settle, such as a near miss whose
one failing check could not read its file, files nothing and is refused;
check it again once the files read whole.
A stage whose checks do not show what it must ends the witness, and so does
`after_reset`. REA then ends the recording, fetches its segments through
`data/get`, each checked against the recording's manifest, and writes into
`directory`:
- `recording/NNNN.mp4`, the recording's segments;
- `witness.json`, REA Evidence (`rea.desktop-build-witness`) holding the
verdict, the stage that failed if one did, the task's name and SHA-256,
each stage's results with how many logged actions came before it, the
computer's [action log](desktop-build-computer.md#act) as it keeps it, each
action with its arguments, timing and outcome, with `actions_dropped`
counting the earliest actions it no longer keeps, and the recording's
segments with their sizes and SHA-256. The record's limitations say when
the log dropped actions or cut arguments, which each entry names in
`truncated_arguments`.
The stages' rules read the log's count of actions and the last applied
action of each kind, which it keeps for the whole session, so they hold
however many entries it dropped. The result returns the same record. When writing it fails, such as for a
folder something else wrote into, the witness keeps its stages: check the
stage that ended it again, with the same task, and REA writes the record
without checking again. Once it is saved, the same check returns the saved
record again, so a record saved as its call was cancelled is not lost. A
computer is witnessed once; witness again from a fresh computer.
See the [specification](specs/desktop-app-environments/build-witness/spec.md)
for scope and verification.
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@@ -1,110 +0,0 @@
# .NET single-file bundles
Use `rea inspect-artifact /absolute/path/host --json` to inventory an ordinary
.NET single-file host and `rea extract-artifact /absolute/path/host --json` to
materialize its members into a fresh, REA-owned output directory. With a host
selected through `open_binary`, the corresponding MCP tools are
`inspect_artifact` and `extract_artifact`. No .NET installation is needed for
inspection or extraction.
For a compact inventory, call `inspect_artifact` with `detail: "summary"`,
then use `inspect_analysis_view` with the returned `parent_evidence_id`.
Inventory occurrence pages accept `logical_paths`, `occurrence_ids`, selected
`fields`, `offset`, and `limit`; node pages accept batches of `artifact_ids`
to retrieve expanded-byte digests. Include `format_metadata` and
`source_location` when member declarations and stored extents matter. Identity
fields survive projection, and the complete inspection Evidence stays retained.
REA detects the apphost marker and its preceding header offset from PE, ELF,
and thin Mach-O bytes, regardless of filename. An unbundled apphost's zero
offset remains an ordinary native artifact. Universal Mach-O slice inventory
keeps its existing behavior; bundled contents inside slices are not expanded.
When a native file has a recognized PyInstaller CArchive, apphost-marker
scanning stops before its payload. A .NET helper stored inside that archive
does not replace the outer container's format; an outer .NET host can still
contain a PyInstaller helper as a member.
## Supported layout
| Header | Producer generation | Member encoding |
| ------ | ---------------------------------- | --------------------------- |
| 1.0 | .NET Core 3.x | Uncompressed |
| 2.0 | .NET 5 | Uncompressed |
| 6.0 | .NET 6 and later using this layout | Uncompressed or raw DEFLATE |
Versions, minor versions, and flags outside this set are refused explicitly;
they do not silently become an ordinary PE or a successful empty inventory.
Flags 0 and the v2+ compatibility flag 1 are admitted. Unknown file-type bytes
are retained with a limitation, rather than treated as executable authority.
Encrypted/protected wrappers and recovering their payloads are outside this
reader's scope.
The host keeps its whole-file SHA-256. Each embedded file gets its expanded-byte
SHA-256, path, declared size, compressed size, and `format_metadata` declaration
(`major_version`, `minor_version`, `file_type`). Its `source_location` describes
the stored host extent, including the compressed length when applicable.
The root manifest's `root_format` is `dotnet-bundle`; the root content node
still records its native PE/ELF/Mach-O format. A file-type declaration or `.dll`
suffix does not establish a valid assembly. Inspect an extracted component
explicitly with the managed tools to establish PE/CLI facts.
## Admission and containment
Metadata is range-read with a 64 KiB cache. Policy budgets are 16 MiB of
manifest metadata, 100,000 files, 64 KiB per UTF-8 string, 512 MiB of stored or
expanded bytes per file, 256 path parts per member, 250,000 distinct in-memory
path-tree nodes, and 2 GiB of aggregate expanded bytes. The node budget counts
shared directory prefixes only once. These are REA
resource policies, not limits imposed by Microsoft's format. Marker scanning
streams 64 KiB chunks and reuses completed probe facts during extraction;
ordinary native files without a marker incur one extra
read pass before host hashing.
Extraction hashes the whole host again through the same descriptor used to read
members and compares it with the inventory's root digest before creating an
output directory. This adds a full-host read pass to extraction, including when
the embedded members themselves are small.
Malformed/truncated headers, unsafe or conflicting paths, overlapping member
ranges, members crossing the manifest, contradictory configuration extents,
invalid UTF-8, corrupt/trailing compressed data, and incorrect expanded sizes
fail before output publication. Source descriptor/path identity is checked
during reading; extraction verifies the host digest and member bytes against
the inventory. Existing output roots are never overwritten. Cancellation and
failures release owned streams/descriptors through the shared extraction
rollback scope.
## Reproduce producer fixtures
The source-owned generator uses the installed .NET 8 SDK's **Microsoft
HostModel** producer to emit x64 v1, v2, plain v6, and compressed v6 bundles
for Windows, Linux, or macOS. It does not run generated hosts or download runtime packs. Supply an
SDK apphost template from
`packs/Microsoft.NETCore.App.Host.<rid>/<version>/runtimes/<rid>/native/apphost`
(`apphost.exe` on Windows). Pass `windows` (the default), `linux`, or `osx`
as the optional third generator argument to match that template.
```bash
dotnet build scripts/fixtures/dotnet-bundle/BundleFixture.csproj -c Release --configfile scripts/fixtures/dotnet-bundle/NuGet.Config -o /absolute/path/producer -p:BaseIntermediateOutputPath=/absolute/path/producer-obj/
dotnet /absolute/path/producer/BundleFixture.dll /absolute/path/apphost.exe /absolute/path/absent-bundles-directory
rea inspect-artifact /absolute/path/absent-bundles-directory/net8-compressed/Probe.exe --json
rea extract-artifact /absolute/path/absent-bundles-directory/net8-compressed/Probe.exe --json
```
The generator writes `oracle.json` beside each host. An independent C#
`BinaryReader`/`DeflateStream` pass records version, member types and stored
extents, then compares every expanded member digest with its source file.
Compare those records with inspection Evidence and the extracted bytes.
This verifies Microsoft's compression writer separately from synthetic parser
fixtures; it is not evidence that the bundled host executes on a target runtime.
Deterministic boundary and public-entrypoint coverage:
```bash
npm run test:focused -- tests/boundary/filesystem/dotnetBundleArtifacts.test.ts tests/acceptance/dotnetBundleJourney.test.ts
```
Layout references: Microsoft's [manifest writer](https://github.com/dotnet/runtime/blob/v8.0.22/src/installer/managed/Microsoft.NET.HostModel/Bundle/Manifest.cs),
[file entry writer](https://github.com/dotnet/runtime/blob/v8.0.22/src/installer/managed/Microsoft.NET.HostModel/Bundle/FileEntry.cs),
[apphost marker handling](https://github.com/dotnet/runtime/blob/v8.0.22/src/installer/managed/Microsoft.NET.HostModel/AppHost/HostWriter.cs),
and [compression producer](https://github.com/dotnet/runtime/blob/v8.0.22/src/installer/managed/Microsoft.NET.HostModel/Bundle/Bundler.cs).
-18
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@@ -75,13 +75,6 @@ DOM node indices retain their snapshot positions. Invalid rows are omitted with
completeness diagnostics, so `total_nodes` can exceed the retained node count
and a parent index can refer to an omitted source node.
`dom.node_value_length_unit` is `utf8-bytes`: each node's `node_value_length`
counts the bytes needed to encode its value as UTF-8, not characters. Web
observations instead declare `utf16-code-units`. These existing measurements
are preserved; the unit is reported once for the whole DOM, without retaining
text values. Historical captures without the unit leave it unknown; reading
them does not infer a unit or convert their stored lengths.
Script metadata retains its execution-context frame ID when CDP supplies one and
records admission separately in `frame_scope`. An `authorized` scope refers to
the observed document generation; `unknown` retains the known frame ID without
@@ -147,14 +140,6 @@ window-targeted renderer reload/crash actions, and synthetic `open-url` or
WebContents identities, process metrics, and IPC channel and value-shape metadata.
Payload values are not retained.
For the exact Playwright launch sequence, the active hook removes only REA's
bootstrap arguments from the application-visible `process.argv`. The vector keeps
the selected entry point and every caller argument, in order, including repeated
hook paths, `.asar` filenames, and debug-like options. The private launch handoff
is consumed before application code runs. If the observed sequence cannot be
matched exactly, argv stays unchanged and capture coverage reports `hook_conflict`;
REA does not guess an entry point or remove arguments by filename patterns.
`window_index` selects from Playwright's current Page list at the start of each action. REA resolves that Page to its corresponding BrowserWindow once; the action's `target` uses the BrowserWindow's capture-scoped `window_id`, matching the window inventory. Reordering either enumeration after selection does not retarget the action. Handle cleanup failures retain the completed action records and remain owned for provider cleanup retry.
Run the real fixture verifier with an operator-provided Electron runtime:
@@ -201,9 +186,6 @@ neither result means the requested host operation occurred. The existing
`openExternal`, `openPath`, and `trashItem` blocks reject their promises.
The `trashItem` block prevents that call from reaching the OS trash operation;
it does not intercept other ways the application can remove files.
Process rejection and uncaught-exception events are observed at dispatch without
adding exception handlers. The runtime and application retain their warning,
handler, and fatal-exit policies, including for rejected shell-block promises.
CLI SIGINT/SIGTERM requests cancellation and awaits owned-process cleanup.
Window IDs, URLs, and cached titles come from one main-process Electron snapshot,
so a crashed renderer does not require a successful renderer-side title query.
+1 -7
View File
@@ -38,12 +38,6 @@ were examined; an unavailable section name does not erase those note facts.
For GNU notes, `gnu.build_id_hex`, `gnu.abi_tag`, or `gnu.gold_version` are
filled when the descriptor matches that type. Other owners keep `gnu` null.
For Linux `CORE` notes, `core.prpsinfo`, `core.file`, `core.siginfo`, or
`core.auxv` are decoded for process arguments and status (`NT_PRPSINFO`), mapped
file memory regions and paths (`NT_FILE`), fault signal and code (`NT_SIGINFO`), and
auxiliary vectors (`NT_AUXV`) across 32-bit and 64-bit images. Other owners or unparsed
notes keep `core` null.
`PT_NOTE` and `SHT_NOTE` are examined independently. The same file range may
appear twice when both tables declare it.
@@ -54,7 +48,7 @@ the image never carried notes in another container or overlay.
The selected file is limited to 64 MiB by default (512 MiB maximum). At most
32 note entries are examined by default across every table. Retained note
names, section names, GNU descriptor text, and core dump string representations share a scan budget based on
names, section names, and GNU descriptor text share a scan budget based on
the source bytes plus any decoded section-name table, capped at
`max_file_bytes`. The raw source and decoded table must also fit together
within that ceiling. If admission fails, the error reports the required
+2 -208
View File
@@ -52,15 +52,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -124,15 +115,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -196,15 +178,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -268,15 +241,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -340,15 +304,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -412,15 +367,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -484,15 +430,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -556,15 +493,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -628,15 +556,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -700,15 +619,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -772,15 +682,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -800,7 +701,7 @@
"calculated_sha256",
"unpacked"
],
"additionalProperties": {}
"additionalProperties": false
},
{
"type": "object",
@@ -826,33 +727,7 @@
"calculated_md5",
"unpacked"
],
"additionalProperties": {}
},
{
"type": "object",
"properties": {
"logical_path": { "type": "string" },
"algorithm": { "type": "string", "const": "dfu-crc32" },
"declared_crc32": {
"type": "string",
"pattern": "^[a-f0-9]{8}$"
},
"calculated_crc32": {
"anyOf": [
{ "type": "string", "pattern": "^[a-f0-9]{8}$" },
{ "type": "null" }
]
},
"unpacked": { "type": "boolean" }
},
"required": [
"logical_path",
"algorithm",
"declared_crc32",
"calculated_crc32",
"unpacked"
],
"additionalProperties": {}
"additionalProperties": false
}
]
}
@@ -918,15 +793,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -990,15 +856,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -1062,15 +919,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -1134,15 +982,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -1206,15 +1045,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -1278,15 +1108,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -1350,15 +1171,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -1422,15 +1234,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
@@ -1494,15 +1297,6 @@
},
"required": ["kind", "operation", "timeout_ms"],
"additionalProperties": false
},
{
"type": "object",
"properties": {
"kind": { "type": "string", "const": "retry_cleanup" },
"operation": { "type": "string", "minLength": 1 }
},
"required": ["kind", "operation"],
"additionalProperties": false
}
]
},
-348
View File
@@ -1,348 +0,0 @@
# ESP flash images
REA reads a dump of an ESP32-family SPI flash, such as the output of
`esptool read-flash 0 ALL dump.bin` or `esptool merge-bin`, through
`inspect_artifact` and `extract_artifact`. The reader is static: no device,
esptool or ESP-IDF is needed, and no code is run.
The container format is `esp-flash-image`. Entries are the bootloader region,
the partition table sector and one file per partition. The bootloader and
each app partition are also decoded as [ESP images](esp-image.md), so their
headers, segments, integrity and descriptors appear in the root
`format_metadata`. Layout facts are cited to ESP-IDF v6.1
(`esp_flash_partitions.h`, `flash_partitions.c`, `gen_esp32part.py`,
`bootloader_common_loader.c`, `bootloader_utility.c` and each chip's
`esp_rom_caps.h`).
## Recognition
A file is a flash image when REA finds a partition table in the entry
structure ESP-IDF's bootloader verifies (`esp_partition_table_verify`):
32-byte `0x50AA` entries, at most one `0xEBEB` MD5 entry over the entries
before it, and a terminating entry within `0xC00` bytes. ESP-IDF accepts a
table with no partition entries, but REA requires one, so that neither
erased flash nor a lone MD5 entry is read as a table. A table whose MD5 does not match, or that has a second MD5 entry, is
still read, with `md5.status` `invalid` and a limitation, because the
bootloader would refuse it. The table is located in this order:
1. at the caller's `partition_table_offset`, when given; no scan follows;
2. at the default `0x8000`;
3. by scanning every `0x1000`-aligned flash sector for a table whose MD5
verifies. This location is derived, and the inventory says so.
A table never lies inside the located bootloader image, so the default
offset and the scan are tried only after the image's last segment. Without
a caller selection, the scan runs only when an ESP image sits at a ROM
bootloader offset, and a single app or bootloader image ends at its last
segment, so neither ordinary files nor single images are scanned. A C3 or
S3 dump begins with its bootloader, so flash layouts are detected before a
file is read as one ESP image.
Unless the caller names the table with `partition_table_offset`, REA
refuses two kinds of dump before looking for a table:
- an image of a known chip at another chip's ROM offset, such as an ESP32
bootloader at the start of a dump read from `0x1000`. The dump's origin
is not the flash address REA assumed, given or default, and a table found
there would place every partition at the wrong file offset; pass the
`flash_offset` where the dump starts. When a partition table sits where
the image's own ROM offset puts `0x8000`, after the image's segments, the
refusal names that offset.
Without a selected format such a dump opens as its bootloader image, whose
[ESP image](esp-image.md) facts say how to reopen it.
- an ESP8266 image at a ROM offset. ESP8266 dumps can hold the same table
format, and they keep the [ESP image](esp-image.md) reader's ESP8266
refusal.
When no table is found the layout is not recognized. This is an unknown
outcome, not a malformed file: flash encryption, which encrypts the
bootloader and the table, is one cause. When a table is found without a
located bootloader and `flash_offset` is omitted, a limitation says that
each partition's file offset assumes the dump starts at flash `0x0`.
## Caller inputs
| Input | Meaning |
| ------------------------- | ----------------------------------------------------------------------------- |
| `format: esp-flash-image` | Read the file as a flash dump; with no table found, refuse it |
| `flash_offset` | Flash address (`0x…`) of the dump's first byte; default 0 |
| `partition_table_offset` | Flash address (`0x…`, a multiple of `0x1000`) of the table; disables the scan |
MCP takes these on `open_binary`; the CLI takes `--target-format
esp-flash-image`, `--flash-offset` and `--partition-table-offset` on
`inspect-artifact` and `extract-artifact`. The offsets require the format, and
the format takes no `architecture` or `entry_point`. The inputs are part of
the target's identity, so reopening the same bytes with other inputs reads
them again instead of reusing the earlier reading. The `open_binary` summary
reports them as `flash_offset` and `partition_table_offset`, null when
omitted.
## Layout facts
The root `format_metadata` (`esp-flash-image`) records:
- `flash_offset`: its `value` and whether the `caller` gave it or it is the
`default`;
- `chip`: from the bootloader's `chip_id`, or null without a located
bootloader;
- `bootloader`: the region from the chip's ROM bootloader offset to the
table, with its ESP image facts;
- `partition_table`: its flash address, the `method` that found it
(`default`, `caller` or `scan`), the partition count and the MD5 `status`
(`valid`, `invalid` or `absent`) with the stored and computed digests;
- `apps`: ESP image facts for each app partition the dump holds; app
partitions declared over the same bytes share one decode;
- `otadata`: the otadata partition's records, or null without one;
- `boot_selection`: the app the bootloader would select, for every table;
- `partitions_outside_dump`: declared partitions that begin before the
dump's first byte, which have no entry;
- `undescribed`: ranges outside every region, each from a byte that is not
erased flash to the end of its gap.
The ROM loads the bootloader from `ESP_ROM_BOOTLOADER_OFFSET_FLASH`:
`0x1000` for ESP32 and ESP32-S2; `0x0` for ESP32-S3, C2, C3, C6, C61, H2 and
H21; and `0x2000` for ESP32-C5, H4, P4 and S31. A bootloader is located only
where its own `chip_id` says the ROM loads it.
### Partitions
Each partition entry is `partitions/<label>.bin` when the label is a safe
name of up to 16 letters, digits, `.`, `_` and `-` that starts with a
letter, digit or underscore and has at least one letter or underscore, is
not a Windows device name such as `NUL` or `COM1`, alone or before a dot,
and no other label repeats it, ignoring case as some file systems do; it is
`partitions/<index>.bin` otherwise. `source_path` keeps the label, the
table's own name for the partition. Its `format_metadata`
(`esp-flash-partition`) records the table `index`, `label` (null when not
UTF-8), `label_hex` (the label's bytes when it is not UTF-8, else null),
`type`, `subtype`, ESP-IDF's `type_name` and `subtype_name`,
`flash_address`, `size`, the `encrypted` and `readonly` flags and any
`unknown_flags`. The `encrypted` flag says how a device with flash
encryption stores the partition; it does not establish that the dump's
bytes are ciphertext.
Each partition entry also records where the bytes the dump holds are
written, relative to the partition's start: `written_offset`, the first
byte that is not erased flash (`0xFF`), `written_end`, just past the last
such byte, and `written_bytes`, how many bytes are not `0xFF`. A partition
erased throughout has null offsets and `written_bytes` `0`; a partition the
file holds none of has all three null. The range bounds the written
bytes and does not say whether erased flash lies between them; extract the
partition to read them. REA reads the bytes the partitions cover once, so
overlapping partitions share that read however many the table declares.
ESP-IDF 5.3 and later may declare primary `bootloader` and `partition_table`
entries over the bootloader region and the table sector. They are
partitions like any other, whose bytes are also `bootloader.bin` and
`partition-table.bin`, and they are exempt from the rule that partitions
follow the table, as in `gen_esp32part.py`.
Every partition from the dump's first byte on is an entry holding the bytes
the file has. One that the file holds only in part, as when an `esptool
merge-bin` dump ends inside its last partition, has an entry limitation that
gives the size the table declares; one that lies past the end of the file is
an entry with no bytes and a limitation, and has no image facts. A partition
that begins before the dump's first byte has no entry and is listed in
`partitions_outside_dump`. One unreadable partition does not hide the
others: partitions outside the dump or overlapping another are each reported
while the rest stay readable.
### App partitions and the bootloader
Each app partition and the bootloader region carry their entry's `path`
and ESP image `facts`:
`status` is `esp-image`, `erased` (the image header bytes are erased flash,
as in an empty OTA slot) or `unrecognized` (ciphertext or other data). For an
image they hold the [ESP image](esp-image.md) root facts, `segments`,
`signature_blocks`, `coverage` and `limitations`, with offsets relative to
the region. Extract a partition and inspect it as an ESP image for its
segments as entries.
The summary view (`inspect_artifact` with `detail: "summary"`, or the
inventory summary of `inspect_analysis_view`) reports the root facts under
their own kind, `esp-flash-image-summary`, and gives each of these images a
`summary` instead of its `facts`: `status`, `chip`, `entry_addr`,
`segment_count`, `load_ranges` (the load address, declared length and
classification of each segment that is mapped, loaded or unclassified),
`signature_block_count`, the `descriptor` kind with the fields that tell
builds apart (an app's `project_name`, `version`, `idf_ver`,
`secure_version` and `app_elf_sha256`; a bootloader's `version`, `idf_ver`
and `secure_version`), the `checksum` and `appended_sha256` statuses,
`coverage` and `limitations`. The default complete detail keeps the full
facts, every segment included, and the summary's `inventory_evidence_ids`
name the Evidence that holds them.
`erased` is the bootloader's view: with no image header at the start of the
slot, it finds no app there. An erased slot can still hold data further in,
even a complete app image. When it does, its entry's `written_offset` and
`written_end` say where, and a limitation says that the slot holds bytes the
bootloader does not read; REA does not look for images in them.
### OTA data
The otadata partition holds two `esp_ota_select_entry_t` records, one at the
start of each 4 KiB sector. Like the bootloader, REA reads the last otadata
partition the table declares, and the last factory app and OTA app of each
subtype; a limitation names any repeated declaration. REA reports each
record the partition and the dump hold: its `ota_seq`, `seq_label`,
`ota_state` and its name, `crc`, whether the CRC matches (CRC-32 of
`ota_seq` seeded with `0xFFFFFFFF`) and whether the bootloader would treat
it as valid.
### Boot selection
`boot_selection` is present for every table. It is derived as
`bootloader_utility_get_selected_boot_partition` does without app rollback
or anti-rollback, and `basis` names its branch:
- `otadata`: the valid record with the higher `ota_seq` (record 0 on a tie)
selects slot `(ota_seq - 1) % ota_app_count`, indexed by OTA subtype;
- `factory-fallback`: no record is usable, or the table has no OTA app, and
a factory app is declared; or records are set but none is valid, as after
a CRC mismatch, which selects the factory index whether or not a factory
app is declared;
- `ota_0-fallback`: no record is usable, or the table has no OTA app, and no
factory app is declared, so the bootloader selects boot index 0;
- `no-otadata`: the table declares no otadata partition, or one at offset 0,
which the bootloader takes for none, so it selects the factory index, as in
the common factory-only layout;
- `none`: the bootloader rejects the table, for an MD5 mismatch or a second
MD5 entry, or cannot read an otadata partition smaller than two 4 KiB
sectors, and resets without selecting an app;
- `unknown`: the dump lacks an otadata record the bootloader reads.
Without an OTA app the records do not matter, so a dump that lacks them
still selects a fallback. REA does not compare the partitions with the
flash size in the bootloader header, which the bootloader also checks.
`active_record` and `slot` are set for `otadata` and `slot` for
`ota_0-fallback`. `partition_index` is null when the table declares no
partition for the selected slot or fallback; the bootloader then tries the
other apps. `assumptions` list what the derivation leaves out: records used
as written (for the branches that read them), anti-rollback, load fallback,
and factory-reset and test-app GPIO holds and a wake from deep sleep; they
are empty for `none` and `unknown`. `running_partition` is always
`unknown`: at boot the bootloader may first mark a pending-verify record
aborted, check the app's secure version against eFuse, and fall back to
another partition when an app fails to load.
## Coverage and extraction
Erased flash (`0xFF`) between regions is described. In a gap between
regions, the first byte that is not erased starts an `undescribed` range to
the end of the gap, and makes coverage `unknown`; the rest of that range is
not examined. Coverage is also `unknown` when no bootloader is located, or
when a declared partition begins before the dump's first byte, since it has
no entry. A partition cut short or left out by the end of the file does not
make it `unknown`: its entry holds the bytes the file has, none for one past
the end, and its limitation says what the file lacks. Coverage describes the
inventory of the file, not the observation of every declared flash byte.
So artifact comparison classifies every partition entry of two dumps. Where
both lack the same bytes, as two `merge-bin` dumps of the same layout do,
the entries are equal; a dump against a longer one reports each partition
it cuts short or lacks as `changed`, and that entry's limitation says the
file did not hold the bytes.
`extract_artifact` writes every entry as an ordinary file, `nvs_keys`
partitions included. On a device without flash encryption an `nvs_keys`
partition holds the NVS encryption keys in plain text, and a dump of it
contains them. REA decrypts nothing, recovers no keys and does not interpret
NVS.
## Comparison
Artifact comparison uses each partition's `label`, `label_hex`, `type`,
`subtype`, `flash_address`, `size` and flags as its declaration, so a
partition that moves, changes type or flags, or is renamed with unchanged
bytes is `changed` in `metadata`. Partitions pair by path. The root facts
are not compared as a declaration: they derive from the dump's bytes, which
content comparison covers, and from the caller's `flash_offset` and
`partition_table_offset`, which are part of the target's identity and
decide each partition's byte range.
## Limits
- A flash dump inside another container, such as a ZIP, is classified from
its first bytes and so reads as an ESP image, not as a flash layout; extract
it first.
- ESP8266 dumps are refused; Secure Boot v1 bootloader digests and
flash-encrypted layouts are not read.
- Partitions are not checked against the flash chip size, which the
bootloader also verifies.
- NVS, FAT, SPIFFS and other data partitions are extracted, not decoded.
- An image nested in a partition is decoded for its facts; its segments are
not inventory entries.
## Verification
Synthetic fixtures with computed MD5s and CRCs, and one CRC otatool wrote,
cover the table rules, every way the table is located, the scan's chunk and
sector edges, the misplaced-origin guard with the origin omitted or given,
the ESP8266 refusal, the `0x0`, `0x1000` and `0x2000` ROM bootloader
offsets, single images that are not scanned, overlaps, primary entries,
truncation and partitions outside the dump, index names for unsafe labels,
repeated declarations, the otadata states and records, and each branch of
the bootloader's selection. CLI and stdio MCP tests exercise the inputs and
their identity and extraction. MCP `compare_artifacts` tests compare
partition declarations, labels that are not UTF-8 included, two dumps that
end inside their last partition, and such a dump against a full one.
The optional real lane builds its dumps with esptool and ESP-IDF's own tools:
```sh
REA_RISCV_CLANG=/path/to/clang REA_RISCV_LLD=/path/to/ld.lld \
REA_ESPTOOL_PYTHON=/path/to/python-with-esptool \
REA_ESP_IDF_PATH=/path/to/esp-idf \
npm run verify:esp-flash
```
It converts the conformance ELFs with esptool, builds a default, a
relocated and a primary-entry partition table with `gen_esp32part.py`,
assembles dumps with `esptool merge-bin`, one of them written from flash
`0x1000` with `--target-offset`, and writes OTA records with `otatool`
through `tests/conformance/esp/flash_file_tool.py`. That script replaces
parttool's esptool calls with reads and writes of the dump file, so
otatool's own OTA logic runs unchanged. The lane then checks:
- the bootloader and app facts against `esptool image-info`;
- every partition against `gen_esp32part.py`'s decoding of the table REA
extracted;
- both OTA records against `otatool read_otadata` after switching to slot 0,
then to slot 1, then erasing the otadata, and the derived selection after
each: slot 0, slot 1, then the factory fallback;
- that each extracted file is the dump's bytes at its range and that the
source is unchanged;
- a table with the primary `bootloader` and `partition_table` entries that
`--primary-bootloader-offset` fills, read with complete coverage and no
overlap or misplacement limitation; it has no otadata, so its boot
selection is `no-otadata` with the factory app;
- the relocated table, found by scanning and named with
`partition_table_offset`, and the dump written from `0x1000`, read with
`flash_offset` and, without it, left an ESP image whose `flash_dump`
names `flash_offset` `0x1000`;
- an app with a flipped byte beside valid partitions, and a truncated dump,
read with complete coverage and its missing partitions as entries with no
bytes.
The lane ran on macOS arm64 with Node 24.22.1, Homebrew Clang and LLD 21.1.8
and ESP-IDF v5.5.2's `gen_esp32part.py`, `otatool.py` and `parttool.py`,
once with esptool v5.6.0 and once with 4.12.0. Its `gen_esp32part.py` is
identical to v6.1's, and its otatool and parttool differ only in import style
and esptool command spelling. All checks passed in both runs. With v5.6.0 and
the build already cached, the run took 24.1 s elapsed, 16.9 s user CPU and
6.3 s system CPU under `/usr/bin/time -l`; the largest single process peaked
at a 278 MiB resident set, and the combined peak of all processes was not
measured.
The lane does not establish:
- dumps read from a device: its dumps come from `merge-bin`;
- chips other than ESP32-C3 and ESP32;
- `ota_state` and record validity, which `read_otadata` does not print, or
OTA states the bootloader writes itself, app rollback or anti-rollback;
- selection with gaps or repeated OTA subtypes, which otatool does not
write;
- flash-encrypted dumps, which are not recognized by design.
It does not run in CI.
-333
View File
@@ -1,333 +0,0 @@
# ESP images
REA reads ESP32-family firmware images through `inspect-artifact` /
`inspect_artifact` and `extract-artifact` / `extract_artifact`. OTA downloads,
app partitions and second-stage bootloaders are all ESP images. Reading is
static: no esptool, device or flash access is needed, and no code is run or
disassembled.
```sh
rea inspect-artifact ./firmware.bin --json
rea inspect-artifact ./ota.bin --detail summary --evidence_output evidence.json --json
rea extract-artifact ./firmware.bin --json
```
For MCP, open the file with `open_binary`, then call `inspect_artifact`. The
summary's `root_format_metadata` holds the image facts. Use its
`parent_evidence_id` with `inspect_analysis_view` to select segment rows.
`extract_artifact` writes one file per segment and per signature block.
For agent sessions, advertise the `session,artifact,application` tool families
and consider setting both `REA_MCP_INPUT_SCHEMA_PROFILE` and
`REA_MCP_OUTPUT_SCHEMA_PROFILE` to `compact`. The output profile bounds each
advertised output schema to 4,096 bytes by relaxing nested client validation;
REA still validates complete results against the canonical contracts. Pair
this with retained summaries and selected inventory views to limit the context
needed for one question. See [MCP contracts](mcp-contracts.md) for the profiles
and their client compatibility tradeoffs.
The layout facts follow ESP-IDF v6.1 (`esp_app_format.h`, `esp_app_desc.h`,
`esp_bootloader_desc.h`, `esp_image_format.c`, the ROM `secure_boot.h`
headers and `docs/en/security/secure-boot-v2.rst`) and esptool v5.6.0
(`bin_image.py`, `cmds.py`, `loader.py`, espsecure).
## Recognition
The container format is `esp-image`. A file is an ESP image when its bytes
show all of these; the file name does not matter:
- magic `0xE9` at offset 0 and 1 to 16 segments. A count of 0 is valid but
loads nothing, and accepting it would admit x86 programs that begin
`E9 00`;
- a flash mode and flash speed code that ESP-IDF's enums define;
- a `hash_appended` byte of 0 or 1, as esptool requires;
- when the file holds the first segment header, a segment length that is a
multiple of 4.
Later segments, the checksum and the digest are integrity facts. A truncated
download is still an ESP image, with its integrity reported as unavailable.
| Input | Outcome |
| --------------------------------------------------- | ---------------------------------------------------------------- |
| ESP8266 image (v1 or v3): same magic, 8-byte header | Refused: "ESP8266 firmware images are not supported…" |
| Flash-encrypted image (ciphertext) | Not recognized: the bytes carry no magic. Unknown, not malformed |
| ESP8266 v2 image (magic `0xEA`) | Not recognized |
An ESP8266 image has its first segment header at offset 8, and that segment
loads into ESP8266 DRAM, IRAM (Arduino's eboot links at `0x4010F000`) or the
IROM flash window, where v3 and Arduino app images begin. In an ESP32-family
header the same bytes hold `wp_pin` and the drive settings, which esptool and
ESP-IDF write as `0xEE` and zeros. Inside another container, an ESP8266 image
is classified as a plain file.
Recognition cannot exclude every file that starts with an x86 near jump
(`0xE9`), such as a DOS `.com` program. An explicit `--target-format dos-com`
or `raw-binary` selection skips ESP recognition.
## Image facts
Root `format_metadata` has `kind: "esp-image"`:
| Field | Label | Meaning |
| ------------------------- | -------- | ---------------------------------------------------------------------------------------------------------------- |
| `header` | observed | Every `esp_image_header_t` field, with ESP-IDF's names, for example `entry_addr`, `chip_id`, `min_chip_rev_full` |
| `chip` | derived | `target`, `isa` and the table's `source` (`ESP-IDF v6.1`) from `chip_id`; `null` for an ID the table lacks |
| `checksum` | derived | `offset`, `stored`, `computed` and `status`: `valid`, `invalid` or `unavailable` |
| `appended_sha256` | derived | The digest `hash_appended` adds: `offset`, `stored`, `computed` and `status`, including `not-appended` |
| `image_end` | derived | End of the checksum block and any appended digest; `null` when the file ends before it |
| `signature_sector_offset` | derived | The Secure Boot v2 signature sector, when it holds at least one valid block |
| `undescribed_trailing` | derived | Byte ranges after the image that nothing describes; empty when every byte is described |
| `descriptor` | observed | `esp_app_desc_t` or `esp_bootloader_desc_t` fields, with ESP-IDF's names, and the descriptor's file `offset` |
The descriptor's `kind`, derived from its magic, classifies the image as an
`app` or a `bootloader`. Without a descriptor the role is unknown.
The ISA comes from `chip_id`, never from the series letter: ESP32-S31 is
RISC-V. The chip table covers every `esp_chip_id_t` in ESP-IDF v6.1:
| `chip_id` | Target | ISA | `chip_id` | Target | ISA |
| --------- | --------- | ------ | --------- | ---------- | ----- |
| `0x0000` | `esp32` | xtensa | `0x0012` | `esp32p4` | riscv |
| `0x0002` | `esp32s2` | xtensa | `0x0014` | `esp32c61` | riscv |
| `0x0005` | `esp32c3` | riscv | `0x0017` | `esp32c5` | riscv |
| `0x0009` | `esp32s3` | xtensa | `0x0019` | `esp32h21` | riscv |
| `0x000C` | `esp32c2` | riscv | `0x001C` | `esp32h4` | riscv |
| `0x000D` | `esp32c6` | riscv | `0x0020` | `esp32s31` | riscv |
| `0x0010` | `esp32h2` | riscv | | | |
Other IDs, for example esptool v5.6.0's ESP32-E22 (`0x1F`), have `chip: null`
and unclassified segments.
**Integrity.** The checksum is the XOR of every segment data byte, seeded with
`0xEF`, in the last byte of the next 16-byte block. The appended SHA-256 covers
every byte through the checksum. Both are facts, not admission rules: a
mismatch is reported with a limitation and the segments stay readable.
**Descriptors.** Both descriptors begin segment 0: ESP-IDF's bootloader reads
the app descriptor there, and esptool places the bootloader descriptor there.
Strings stop at the first NUL and are omitted, with a limitation, when they
are not valid UTF-8. The bootloader descriptor's magic is a single byte
(`0x50`), so its reserved bytes, which ESP-IDF zero-fills, must also be zero.
A `--ram-only-header` image puts RAM segments first, so its app descriptor is
not in segment 0 and its role is unknown. `mmu_page_size` keeps ESP-IDF's
name and value: the MMU page size as a base-2 logarithm, as
`esp_app_desc_t` declares it, so `16` means 64 KiB. It is `0` in images built
before ESP-IDF v5.4. `spi_flash_mode` is the next byte, which ESP-IDF v6.1
names, kept as stored and not interpreted; releases that reserve it leave it
`0`. A file can end inside the app descriptor: every field it holds in full
is kept, a field it cuts off is `null`, and `observed_length` gives the
descriptor bytes the file holds. The segment's truncation is reported as usual.
## Segments
Each header-declared segment is one entry named `segment-<index>.bin`, for
example `segment-00.bin`, so two builds pair segments by position. Its
`source_location` is the segment data in the image file. `format_metadata`
(`esp-image-segment`) records `index`, `load_addr`, `data_len`,
`header_offset` and `classification`.
`classification` follows ESP-IDF's bootloader (`should_map` and
`should_load` in `esp_image_format.c`) on a cold boot:
| Value | Meaning |
| ------------ | ------------------------------------------------------------------------------------------------- |
| `mapped` | Inside the chip's IROM, DROM or, where the MMU is per memory type, PSRAM range (`soc.h`) |
| `loaded` | `should_load` selects it: not mapped, at or above `0x10000000`. RAM ranges are not checked |
| `not-loaded` | Below `0x10000000`: the padding segments esptool writes at address 0, including `--secure-pad-v2` |
| `unknown` | The chip is unknown, or the mapping depends on the bootloader's MMU page size |
`loaded` does not mean the bootloader accepts the segment. Before loading,
ESP-IDF's `verify_load_addresses` rejects the image when a loaded segment is
not entirely in the chip's DRAM, IRAM, RTC memory or SPM, or overlaps the
bootloader's own stack, data or loader code. For example, an ESP32-C6
segment at `0x43000000` is `loaded` here and rejected there. REA models no
RAM ranges.
Padding segments are inventoried and extractable, but are never load regions.
When waking from deep sleep, ESP-IDF also skips RTC-memory segments; that
runtime case is not modelled. ESP32-C6 and ESP32-H2 map flash from
`0x42000000` through 256 pages of the bootloader's configured MMU page size,
which no image records. The app descriptor's page size describes the app's
build, not the bootloader's. With page sizes from 8 KiB (which the hardware
supports and esptool builds for) to 64 KiB, segments from `0x42200000` to
`0x43000000` are `unknown`. Ranges follow ESP-IDF's `should_map`, not esptool's
wider placement ranges.
A segment cut short by the end of the file is the bytes the file holds, with
an entry limitation that gives the declared length.
Artifact comparison uses each segment's `load_addr` and `data_len` as its
declaration, so a segment that moves with unchanged bytes is `changed` in
`metadata`. Segments pair by index: inserting or removing one shifts the
paths of the segments after it. Header offsets and `classification` are not
compared; the image's own change covers the header and chip. The image's and
the signature blocks' `format_metadata` carry no declaration: their fields
come from their own bytes, which content comparison covers, and a block's
`image_digest_matches` follows the image's content.
## Secure Boot v2 signatures
A signature sector starts at the next 4 KiB boundary after the image and
holds up to three 1216-byte slots. A slot holds a block when it has the `0xE7`
magic and a matching CRC32 at offset 1196, the rule ESP-IDF and espsecure
apply. Each slot is examined independently, so an erased or damaged slot does
not hide a later block. Each block is an entry, `signature-block-<slot>.bin`,
with `esp-image-signature-block` metadata:
| Field | Meaning |
| ---------------------------------- | ------------------------------------------------------------------------- |
| `index`, `version`, `scheme` | Slot 0 to 2, version byte, and `rsa` (`0x02`) or `ecdsa` (`0x03`) |
| `sha_version`, `curve_id` | For ECDSA, the third byte (0 is SHA-256, 1 SHA-384) and the curve ID byte |
| `digest_algorithm`, `image_digest` | The digest the block records |
| `image_digest_matches` | Whether it equals the digest of every byte before the sector |
| `public_key_sha256` | SHA-256 of the block's public key, the value eFuse key digests hold |
| `signature_status` | Always `unverified` |
Signatures are observed, not verified: REA checks no public key, signature or
eFuse. `public_key_sha256` is the digest espsecure `signature-info-v2`
prints, so it can be compared with `espefuse summary`. An unknown version or
`sha_version` leaves the layout-dependent fields `null`. A slot with the magic
but no matching CRC32 is not a block: it is reported in a limitation, whether
or not another slot holds a block, and its bytes are undescribed. Secure Boot
v1 signatures are not decoded.
## Coverage and limitations
Bytes after the image are described when they are erased flash (`0xFF`) or a
signature sector's blocks; erased slots and slack in that sector count as
erased flash. Every other byte is in `undescribed_trailing`.
| Situation | Outcome |
| ---------------------------------------------------------------------- | ---------------------------------------------------------------------------------------------------------- |
| Segment data or a segment header beyond the end of the file | Truncation limitation; checksum and SHA-256 `unavailable`; coverage `unknown` |
| File ends before the checksum or the appended digest | That status is `unavailable`, with a limitation; coverage `unknown`, since a signature sector could follow |
| Checksum or SHA-256 mismatch | `invalid`, with a limitation; coverage is unchanged |
| Erased flash after the image that runs past the three slots | Described; no limitation |
| Erased flash that ends before the three slots are complete | Limitation; coverage `unknown`, since a signed image cut there would have lost its sector |
| A signature sector the file cuts short | Limitation; coverage `unknown` |
| Any other bytes after the image | Ranges in `undescribed_trailing`, a limitation, and coverage `unknown` |
| Segment length that is not a multiple of 4 | Limitation: ESP-IDF rejects such an image |
| Segment of 16 MiB or more, except on chips with 32-bit cache addresses | Limitation: ESP-IDF rejects such an image |
ESP32-S3, ESP32-P4, ESP32-C5, ESP32-C61, ESP32-H4 and ESP32-S31 map flash
through 32-bit cache addresses (`SOC_SPI_MEM_SUPPORT_CACHE_32BIT_ADDR_MAP`), so
ESP-IDF sets no 16 MiB segment limit for them. For an unknown chip the limit
is not applied.
Undescribed bytes include other flash contents such as an app partition's
stale data, a Secure Boot v1 signature, and the flash segments that esptool
`--ram-only-header` writes after the checksum without counting them. REA
reports their ranges and does not guess their structure. In the padding, in a
sector without a valid block, in the sector's slack and after the sector, the
first byte that is not erased starts a range to the end of that region. A
slot that is neither a block nor erased is reported whole. Adjacent ranges
are merged.
A whole-flash dump whose partition table REA finds is read as an
[ESP flash image](esp-flash-image.md). Without one, a dump of a chip whose
bootloader is at offset 0, such as ESP32-C3 or ESP32-S3, is recognized as that
bootloader image, and the partition table, apps and data follow as
undescribed bytes.
A dump read from a later flash address, such as an ESP32 dump read from
`0x1000` with `read-flash 0x1000 …` or `merge-bin --target-offset 0x1000`,
opens as its bootloader image. REA says so when the file shows it: the image
at file offset 0 is not an app, its chip's ROM loads the bootloader from a
later address (`0x1000` for ESP32 and S2, `0x2000` for C5, H4, P4 and S31),
and a partition table sits where that origin puts `0x8000` (file offset
`0x7000` for `0x1000`), after the image ends. Then `flash_dump` records
`flash_offset` and
`table_file_offset`, a limitation says to reopen the file with
`format: "esp-flash-image"` and that `flash_offset`, and `inspect_artifact`
lists the same `open_binary` call as a next probe. `flash_dump` is null for
every other image. Evidence that REA recorded before it reported the field
omits it; REA still reads and compares such Evidence, and the omission says
nothing about where the file was read from.
## Limits
An image has at most 16 segments and 3 signature blocks. Decoding reads each
byte once and retains only fixed-size fields. It reads through erased flash to
find the first byte that is not erased, and stops there. There is no
file-size limit.
## Analyzing a segment
Inventory does not disassemble code or build a memory map. `open_binary`
admits neither RISC-V nor Xtensa as a raw-binary architecture, so a segment
cannot yet be opened as a raw image. Each segment's `source_location` and
`load_addr` give the file offset and address to map it at by hand, for
example with the Rizin tool's `om` command.
## Verification
Synthetic fixtures with computed checksums, digests and CRCs cover
recognition, ESP8266 layouts, the ESP32, ESP32-C3, ESP32-C6 and ESP32-P4
memory maps, truncation at each structure, integrity mismatches, erased and
undescribed trailing bytes, signature slots including damaged and unknown
layouts, and the refusals. CLI and stdio MCP tests exercise the same artifact
provider and advertised schemas.
The optional real lane builds ELF files from source, converts them with
esptool and compares REA's facts with `esptool image-info`:
```sh
REA_RISCV_CLANG=/path/to/clang REA_RISCV_LLD=/path/to/ld.lld \
REA_ESPTOOL_PYTHON=/path/to/python-with-esptool \
npm run verify:esp-images
```
It needs a Clang with the RISC-V target, `ld.lld` and a Python that can run
`esptool` and `espsecure`. It checks each tool before building anything and
names the variable to set when one is missing, and it warns when esptool is
not v5.6.0, the version whose sources the layout facts cite. It builds an
ESP32-C3 app, the same app with `--dont-append-digest`, `--secure-pad-v2`,
`--ram-only-header` and `--pad-to-size`, a bootloader, and ESP8266 v1 and v3
images. It then checks:
- entry point, chip ID, each segment's length, address and header offset,
checksum, digest and descriptor fields against `image-info`;
- each segment's classification in the app, its variants and the
bootloader, whose linker scripts fix every section's region, including the
`not-loaded` padding that `--secure-pad-v2` adds;
- after signing with RSA-3072 and appending ECDSA P-256 and P-384 blocks,
each block's `public_key_sha256` against espsecure `signature-info-v2`,
and that its recorded digest matches;
- extraction of the app and the signed image: each segment file equals the
bytes after esptool's segment header offset, each signature block equals
its slot in the sector espsecure appended, and the source's SHA-256 is
unchanged and equals the reported `root_sha256`;
- the `--pad-to-size` erased tail is described; the `--ram-only-header`
flash segments are undescribed;
- a flipped checksum, a flipped digest byte, a truncated segment (where
`image-info` stops with "End of file reading segment"), and both ESP8266
refusals.
`REA_XTENSA_ESP32_GCC` adds an ESP32 (Xtensa) app built with Espressif's
`xtensa-esp32-elf-gcc`. Without it the report marks that image as skipped.
Each command runs as a process tree owned by the shared verifier command
owner, so a timeout also stops the linker or assembler a compiler driver
starts. The lane removes its workspace only after every tree has stopped and
keeps it when that cleanup cannot be confirmed.
The lane ran on macOS arm64 with Node 24.22.1, Homebrew Clang and LLD 21.1.8,
and `xtensa-esp32-elf-gcc` 14.2.0 (crosstool-NG esp-14.2.0_20251107), once
with esptool and espsecure v5.6.0 and once with 4.12.0. All checks passed for
all 13 images in both runs. With v5.6.0 the complete run, including the builds
and every esptool call, took 21.7 s elapsed, 16.9 s user CPU and 6.1 s system
CPU under `/usr/bin/time -l` with warm caches. The largest single process
peaked at a 253 MiB resident set; the combined peak of all processes was not
measured.
The lane does not establish:
- the other chips: only ESP32-C3 (RISC-V) and ESP32 (Xtensa) images come
from a real producer; the other rows of the chip table are checked against
the ESP-IDF v6.1 headers by reading them;
- images from a real ESP-IDF project build, an OTA download or a device's
flash, none of which it inspects;
- that a signature is valid: it compares digests, and nothing verifies a
signature.
It does not run in CI.
+2 -13
View File
@@ -28,15 +28,6 @@ The host must already provide util-linux `prlimit`, normally `/usr/bin/prlimit`;
no system tools and changes no user configuration. [Upstream provenance and
license](https://github.com/morluto/rea/blob/main/third_party/evmole/README.md) are packaged.
Limiter discovery validates the selected path without launching it. A relative
path or directory is reported as `not_configured`, a missing file as
`executable_missing`, and denied access or another filesystem-probe failure as
`runtime_unavailable`. Recovery names the selected path and
`REA_EVM_PRLIMIT_COMMAND`; denied access asks for execute permission and
filesystem access. The original admission or system code stays in diagnostics.
An available filesystem probe does not verify the selected tool's version or
util-linux compatibility, and REA does not substitute another command.
## Evidence semantics
- `encoding` is required: raw bytes or UTF-8 hex, with optional `0x` prefix and
@@ -89,10 +80,8 @@ without bytecode text or duplicated raw stdout:
}
```
The result is distinct view Evidence linked to its complete parent. Like the
parent, it has `confidence: inferred`; projection never strengthens inferred
candidates. Its `normalized_result.summary` preserves every producer-returned
selector, decoded
The result is distinct derived Evidence linked to its complete parent. Its
`normalized_result.summary` preserves every producer-returned selector, decoded
byte offset, dispatch, argument/mutability string including null, carrier/decoded
identities, original limitations and explicit unknowns. Payload `evidence_kind`
remains `inferred`. It preserves stderr/truncation and records stdout text length.
+5 -66
View File
@@ -13,19 +13,6 @@ On Linux, Binwalk and Unblob run as REA-owned processes and require a
procps-compatible `ps` on REA's `PATH`; see the shared
[Linux process prerequisite](installation.md#linux-owned-process-prerequisite).
## Compare stored firmware components
For supported FIT and legacy uImage containers, use the built-in
`inspect-artifact` / `inspect_artifact` inventory and shared
`compare-artifacts` / `compare_artifacts` workflow. This route needs no Binwalk,
Unblob or extraction: exact logical paths, stored-byte hashes and declared
metadata establish component changes, with source Evidence and explicit unknowns.
The outer container at `.` is separate from its children. See the
[FIT version comparison recipe](fit-images.md#comparison) for CLI,
MCP, summary delivery and selected supporting facts. Its real-data verification
covers a pair of OpenWrt FIT releases; it does not establish comparison of
decoded root filesystems or arbitrary firmware formats.
## Caller-supplied tools
Provide existing tools using absolute executable paths, scoped to your shell:
@@ -39,9 +26,6 @@ REA does not install these tools, their dependencies or system packages. It
checks the tool's `--version` banner when executing a request. Binwalk must
print `binwalk <version>` and Unblob must print the version alone. Inspection and
extraction have independent prerequisites; one does not require the other.
Capability discovery recommends `REA_BINWALK_COMMAND` for missing inspection
and `REA_UNBLOB_COMMAND` for missing extraction. Configuring the other engine
does not enable the unavailable operation.
Both require util-linux `prlimit`, normally `/usr/bin/prlimit`; override its
absolute path with `REA_FIRMWARE_PRLIMIT_COMMAND` if needed. `rea doctor` does
not currently inspect firmware readiness. Engine selection/version checks run
@@ -98,11 +82,6 @@ Published file `relative_path` preserves producer spelling for lineage; `path`
uses the writer's actual normalized filename. An extracted filename that cannot
be represented losslessly as UTF-8 fails publication explicitly with its raw
name bytes in hexadecimal instead of silently omitting the entry.
Unpublished symlinks retain the extracted tree's target bytes in lowercase
`link_target_hex`; `link_target` is null when those bytes are not valid UTF-8.
Older retained Evidence may omit the hexadecimal field. Unblob may have rewritten
the target before REA observed it, so these bytes are not necessarily those stored
in the firmware image.
## CLI and MCP
@@ -258,12 +237,9 @@ tree semantics, vulnerability scanning, emulation or hardware runtime capture.
3, allowed range 1–10.
Staging budgets are polled and rechecked after exit; short-lived overshoot is
possible. The per-file process limit is one byte above the larger of the selected
payload budget and the fixed report/diagnostic file allowances, so a small payload
selection still permits the mandatory report, and a staged file the kernel stops
at the limit exceeds its budget instead of passing as complete. A tighter
inherited host limit still applies and can remove that byte, so a staged file
that reaches the installed limit is rejected as possibly truncated.
possible. The per-file process limit is the larger of the selected payload budget
and the fixed report/diagnostic file allowances, so a small payload selection
still permits the mandatory report. A tighter inherited host limit still applies.
The inherited file-size limit bounds each file, not total storage;
address-space limits are per process, not an aggregate memory quota. Worker
count is not CPU affinity for every external extractor. These limits do not
@@ -310,26 +286,6 @@ REA_FIRMWARE_VERIFY_GHIDRA=1 npm run verify:firmware
generated gzip/USTAR/ext4 with a Linux x64 ELF child; SquashFS, UBIFS, proprietary
firmware, other hosts and architectures remain unverified.
## Inspect ESP images
Use `inspect-artifact` / `inspect_artifact` on an ESP32-family app or
bootloader image, such as an OTA download or app partition, for its chip,
classified segments, checksum and SHA-256 results, descriptor and Secure Boot
v2 signature blocks. `extract-artifact` / `extract_artifact` writes one file
per segment and signature block. Reading is portable and needs no external
tool. See [ESP images](esp-image.md).
## Inspect ESP flash dumps
Use the same tools on a whole-flash dump, such as `esptool read-flash 0 ALL`
output. The inventory reports the bootloader, the partition table and how it
was found, each partition with its declared type, flags and digest, ESP image
facts for the bootloader and each app partition, and the OTA records with a
derived selection; the running partition stays unknown. Extraction writes
each partition, `nvs_keys` included, as an ordinary file. For a dump that
does not start at flash address 0, select `esp-flash-image` with
`flash_offset`. See [ESP flash images](esp-flash-image.md).
## Inspect extracted devicetrees
Use [`inspect_devicetree`](devicetree.md) / `rea inspect-devicetree` on an
@@ -352,26 +308,9 @@ portable and requires no external tool. See
The root facts record the 64-byte header (architecture, OS, type, and
compression as raw values and names, load and entry addresses, image name,
and timestamp) with the header and data CRC32 verified; the stored payload
is extractable as `payload.bin`, and multi-file and script images additionally
expose each sub-image as `image-<n>.bin` from the stored size table. Declared
is extractable as `payload.bin`, and multi-file images additionally expose
each sub-image as `image-<n>.bin` from the stored size table. Declared
addresses are facts from the header, not proven entry points, and compressed
payloads stay as stored. Intel HEX/S-record and FIT images are separate
readers and are not covered here. See [U-Boot legacy uImage](uimage.md) for
component padding, preserved names, resource policies and verification scope.
## Inspect UF2 and DfuSe images
Use `inspect-artifact` / `inspect_artifact` on a UF2 file for each familyID's
address regions and its block numbering, or on a DfuSe file for its targets,
elements and DFU suffix, then `extract-artifact` / `extract_artifact` for one
raw file per region or element. A DfuSe suffix CRC mismatch follows
`integrity_policy`. Decoding is portable and requires no external tool. See
[UF2 and DfuSe images](uf2-dfuse.md).
## Inspect U-Boot FIT images
Use `inspect-artifact` / `inspect_artifact` on a U-Boot FIT (`.itb`) for its
images, declared load and entry addresses, configurations and verified hashes,
then `extract-artifact` / `extract_artifact` for one raw file per image.
Decoding is portable and requires no external tool. See
[U-Boot FIT images](fit-images.md).
-293
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@@ -1,293 +0,0 @@
# U-Boot FIT images
REA inventories U-Boot Flattened Image Tree (FIT, `.itb`) files through
`inspect-artifact` / `inspect_artifact`, and materializes the stored bytes of
each image through `extract-artifact` / `extract_artifact`. Decoding is static
and needs no external tool.
```sh
rea inspect-artifact ./boot.itb --json
rea inspect-artifact ./boot.itb --detail summary --evidence_output evidence.json --json
rea extract-artifact ./boot.itb --json
```
For MCP, open the file with `open_binary`, then call `inspect_artifact`. Summary
delivery retains the complete Evidence; use `parent_evidence_id` with
`inspect_analysis_view` to read selected images and fields. `extract_artifact`
returns a fresh `output_root` containing one raw file per image. FIT summaries
use the current projection identity; there is no pre-coverage FIT summary variant.
## Recognition
A FIT is a flattened devicetree (FDT v16 or v17) with a top-level `/images`
node. Recognition walks the structure block within the first 4 KiB of the file
only; the file name does not matter. A devicetree whose `/images` node begins
after 4 KiB, a devicetree without `/images`, and any other FDT version stay on
the plain devicetree route: `open_binary` refuses them and
[`inspect_devicetree`](devicetree.md) still parses them. A U-Boot control DTB
that contains `/images` is treated as a FIT. The container format is `fit`.
Recognition is a probe. The complete devicetree parse decides, so a file whose
prefix declares `/images` but whose structure is malformed fails as a
malformed FIT rather than falling back to plain classification.
## Images and metadata
Each child of `/images` is one inventory entry named `images/<unit-name>.bin`,
listed in devicetree order. Its bytes come from exactly one data source:
| Source | Stored bytes |
| --------------- | --------------------------------------------------------------------------------------- |
| `data` | The embedded property value |
| `data-offset` | `data-size` bytes at `data-offset` past the devicetree end, aligned to 4 (`mkimage -E`) |
| `data-position` | `data-size` bytes at `data-position` from the start of the file (`mkimage -p`) |
`data-position` is read as U-Boot reads it: an offset from the start of the
FIT, not a machine address.
Image `format_metadata` (`fit-image`) records `index`, `name`, `description`,
`type`, `arch`, `os`, `compression`, `load` and `entry`, the `data_source`,
the raw `declared_offset` for external data, `image_data` (the shared-data
link), `cipher_present`, `cipher_algo`, `hash_algorithms`, `hashes_verified`,
`hashes_unverified`, `signature_count`, `signatures_unreadable` and
`signature_algorithms`. Algorithm lists are arrays. Nullable declaration fields
are absent unless named in `unreadable_fields`, which records parsing failures
per field. Hash or signature warnings do not make unrelated declarations unknown.
`load` and `entry` fold one or two 32-bit cells into a lowercase
`0x…` value, as U-Boot does, independent of `#address-cells`.
Root `format_metadata` (`fit`) records `fdt_version`, `fdt_totalsize`,
`external_data_base` (the aligned devicetree end), the root `description`,
`timestamp` (seconds since 1970) and `address_cells`, plus
`default_configuration` and `configurations`. A missing description or
timestamp is `null`.
Image bytes are reported as stored. Compressed images are not decompressed and
ciphered images are not decrypted: entries report `encrypted: false` and the
cipher declaration in `cipher_present` and algorithm in `cipher_algo`. A missing
or malformed algorithm stays `null`; it does not establish unciphered bytes.
Embedded `image-data` links require byte-identical stored properties; external
links require matching physical ranges.
The extracted file holds the stored bytes. Direct-analysis suggestions require
`compression: "none"` and `cipher_present: false`.
## Hashes and signatures
Hash subnodes are children whose name starts with `hash`. Inventory verifies
`crc32` (4 bytes, big-endian), `md5`, `sha1`, `sha256`, `sha384` and `sha512`
over the stored bytes, the same bytes mkimage hashed after any ciphering. All
hashes of an image are computed in one streamed pass while the inventory is
prepared, so a mismatch fails the whole inventory, naming the image, hash
node, algorithm, and the declared and computed values. A supported algorithm
whose value has the wrong length also fails.
Other algorithms such as `crc16-ccitt`, `crc8` or `sm3_256`, a hash without a
readable `algo`, and a hash without a `value` are not verified; each is
counted in `hashes_unverified` and reported as an image limitation.
Signature subnodes (names starting with `signature`) on images and
configurations retain the total declaration count, readable algorithms and
`signatures_unreadable`. Missing or malformed algorithms carry source limitations
so unknown declarations remain distinguishable from absence. Signatures are never
verified.
## Configurations
`/configurations` is optional. Each child records its `name`, `description`,
and the image references `kernel`, `firmware`, `fdt` (base plus overlays),
`ramdisk` and `loadables`, always as lists, plus its signature algorithms.
`compatible`, `fpga`, `script`, `cmdline` and `load-only` are not reported. A
reference to a name that is not an `/images` child, and a `default` that names
no configuration, are reported as limitations and kept as declared. Each
configuration carries `unresolved_reference_count`; dangling references share one
configuration-level diagnostic while every original reference remains available.
## Facts, limitations and failures
| Situation | Outcome |
| ---------------------------------------------------------------------------------------------- | ------------------------------------ |
| Malformed devicetree, truncated header, `totalsize` past the end of the file | Fails as malformed |
| No data source, more than one data source, external data without `data-size` | Fails as malformed |
| `data-offset`, `data-position` or `data-size` not one 32-bit cell, `image-data` not one string | Fails as malformed |
| External data outside the file, overlapping the devicetree or another image | Fails as malformed |
| Two images with an identical external range linked by `image-data` | Accepted as shared data |
| A dangling, chained or mismatched `image-data` link | Fails as malformed |
| Hash mismatch, or a supported hash value with the wrong length | Fails integrity |
| Unsupported, algorithm-less or value-less hashes | Unverified, reported as a limitation |
| Malformed `description`, `type`, `arch`, `os`, `compression`, `load`, `entry` or `timestamp` | `null`, reported as a limitation |
| Dangling configuration reference, missing default configuration | Reported as a limitation |
Failures apply to the whole file and return no partial inventory.
## Limits
The devicetree, including any embedded image data, must be at most 16 MiB; a
larger `totalsize` fails as a memory limit. Store large images externally
(`mkimage -E`): external data of any size is streamed from the file and never
loaded into memory. A FIT may declare at most 1,024 images and 1,024
configurations, and an image at most 8 hash nodes; the devicetree parser's
node, property and depth bounds also apply. The sum of declared image sizes
is bounded by the shared archive expansion budget. These are fixed resource
bounds with no runtime override. Configurable ceilings are tracked in
[#6176](https://github.com/morluto/rea/issues/6176).
## Analyzing an image
Inventory does not execute anything, and `load` and `entry` are declarations.
After extraction:
- inspect `flat_dt` images with [`inspect_devicetree`](devicetree.md);
- open an uncompressed image with `open_binary` using format `raw-binary`, an
architecture matching its declared `arch`, and `entry_point` set to its
declared `load` address; raw-binary maps file offset 0 and seeds analysis at
`entry_point`. Automatic suggestions require nonempty bytes, an admitted
architecture/address/extent, and a declared entry that is absent or equal to
load. Distinct or unreadable entry declarations remain in Evidence without
a raw-loader suggestion, since this loader cannot represent separate mapping
and analysis entry addresses.
## Comparison
Use the shared `compare-artifacts` / `compare_artifacts` workflow for exact
component paths and stored content identities. Neither extraction nor an external
firmware engine is required. This compares the bytes exposed by this FIT reader;
it does not inspect files inside a compressed root filesystem, match renamed
components, or establish runtime equivalence.
### CLI
Retain each complete inspection while returning a summary:
```sh
rea inspect-artifact /absolute/baseline.itb --detail summary \
--evidence_output /absolute/baseline-evidence.json --json
rea inspect-artifact /absolute/candidate.itb --detail summary \
--evidence_output /absolute/candidate-evidence.json --json
```
The CLI returns a `{summary, evidence_bundle}` receipt. Use each response's
`summary.normalized_result.parent_evidence_id` as the corresponding
`evidence_id` below. Save this request as `comparison.json`, replacing the paths
and IDs with the returned values, then run `rea compare-artifacts comparison.json
--json`. Evidence-file paths must be absolute. Naming the exact complete parent
avoids ambiguity when a bundle contains several inspection or inventory records.
```json
{
"left": {
"kind": "evidence-file",
"path": "/absolute/baseline-evidence.json",
"evidence_id": "COMPLETE_BASELINE_EVIDENCE_ID"
},
"right": {
"kind": "evidence-file",
"path": "/absolute/candidate-evidence.json",
"evidence_id": "COMPLETE_CANDIDATE_EVIDENCE_ID"
}
}
```
### MCP
For each file, call `open_binary` with its path, then `inspect_artifact` with
`{"detail":"summary"}`. Opening the second file retains the first inspection's
Evidence. Compare the two complete parent IDs without resending their graphs:
```json
{
"name": "compare_artifacts",
"arguments": {
"left": {
"kind": "retained-evidence",
"evidence_id": "COMPLETE_BASELINE_EVIDENCE_ID"
},
"right": {
"kind": "retained-evidence",
"evidence_id": "COMPLETE_CANDIDATE_EVIDENCE_ID"
}
}
}
```
The result counts unchanged, added, removed, changed, unknown and contradictory
paths, returning every delta inline with source Evidence links. The root `.` is
the outer FIT and is counted separately from `images/<unit-name>.bin`. A changed
outer hash therefore does not imply every component changed. Additions and
removals require complete container-entry coverage; ambiguous duplicate paths or
missing observations cannot prove absence or equivalence.
Artifact comparison includes an image's payload interpretation, including load
and entry declarations. Equivalent external offset forms and inventory positions
leave those declarations unchanged. Unavailable interpretations remain unknown,
while independently known changes survive; a changed row with an `availability`
dimension does not establish the unavailable field's value.
For supporting facts, batch selected paths rather than requesting the entire
inspection again:
```json
{
"name": "inspect_analysis_view",
"arguments": {
"source": {
"kind": "retained-evidence",
"evidence_id": "COMPLETE_BASELINE_EVIDENCE_ID"
},
"view": {
"kind": "inventory",
"collection": "occurrences",
"logical_paths": ["images/kernel-1.bin", "images/fdt-1.bin"],
"fields": [
"artifact_id",
"logical_path",
"hash_status",
"source_location",
"source_path"
],
"offset": 0,
"limit": 64
}
}
}
```
Read `collection: "nodes"` with those `artifact_ids` and `fields: ["sha256",
"size"]` to obtain content facts. Join by `artifact_id`, not array position.
Continue using the returned page metadata when necessary. Source locations are
ranges in the original FIT, not decoded filesystem offsets. Complete Evidence
remains available through the retained parent and `export_evidence_bundle`.
Summary and field selection reduce delivery only; they do not skip inventory
hashing or change coverage.
## Verification
Synthetic fixtures with computed hashes cover embedded, `data-offset` and
`data-position` layouts, shared data, overlap and bounds failures, every
verified hash algorithm, configurations, resource limits, inventory,
extraction and reader lifecycle. CLI and stdio MCP tests exercise the same
artifact provider and advertised schemas. Real U-Boot `mkimage` 2023.01 output
has also been verified for embedded, `-E -B 0x200`, and
`-E -p 0x2000 -B 0x200` layouts, with byte-exact extraction checked against
`dumpimage`. The OpenWrt 24.10.3 ABT ASR3000 recovery FIT was checked against
`mkimage`, `fdtget` and `dumpimage`, including its kernel, initrd and devicetree.
No image was executed.
For small containers, complete delivery avoids an additional view request.
Choose summary and selected views when the omitted facts justify that extra
request; summary delivery does not reduce the underlying inventory work.
The component comparison workflow was additionally checked on the official
[OpenWrt 24.10.0](https://downloads.openwrt.org/releases/24.10.0/targets/mediatek/filogic/)
and [24.10.1](https://downloads.openwrt.org/releases/24.10.1/targets/mediatek/filogic/)
`abt_asr3000-initramfs-recovery.itb` images (8,519,680 and 8,585,216 bytes).
Their SHA-256 values are
`083b174e81ed373f2d2f2ea5366f9291767d95375383528fd6b9955ad815b85a` and
`41129cce68ad6269e5c8c48ef110f97682d6c4202ff2198bfd0d300c3dac132a`.
An independent FDT byte-range/hash oracle found changed kernel and initrd bytes
and an identical DTB; REA reported those two changed components, the changed
outer `.` and one unchanged component. A controlled copy changing only the root
timestamp reported only `.` changed and all three components unchanged. Public
CLI comparison of the exported source Evidence matched the MCP Evidence exactly;
summary and selected inventory views matched the independent ranges and hashes.
These checks did not decompress either initrd or execute the firmware.
+7 -14
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@@ -109,13 +109,9 @@ server; older servers keep the complete request after schema discovery.
header check does not establish valid table contents or exported symbols.
- **`libflutter` facts** are per-ABI observations: byte size, SHA-256
digest, GNU build IDs from ELF-declared `PT_NOTE` / `SHT_NOTE` ranges,
and Dart/toolchain strings the build carries. `dart_version` accepts the
labeled `Dart VM version:` form and the unlabeled Dart
`Version::String()` form (`<version> (<channel>) (<commit time>)` with an
optional ` on "<os>_<arch>"` suffix) that release engines embed. An
unlabeled match is a candidate based on its shape; it is not bound to a
Dart symbol and another string can match. `null` means no supported pattern
was found, not proof that no version exists. Android clang/LLVM toolchain
and any _labeled_ strings the build
carries. Release engine builds often strip the `Dart VM version` string —
absence is reported as `null`, not guessed. Android clang/LLVM toolchain
lines are reported verbatim as build provenance.
`build_id_candidates` preserves distinct IDs. `build_id` is populated only
when all declared note ranges were examined and one ID was found;
@@ -126,13 +122,10 @@ server; older servers keep the complete request after schema discovery.
Compressed `SHT_NOTE` sections are skipped with an unsupported-compression
limitation and partial coverage; IDs from other note ranges remain candidates.
Encoded note storage is never interpreted as note headers or inflated.
- Version and toolchain strings must fit their complete grammar.
`dart_version_capped` and `toolchain_capped` independently report labels
omitted by grammar or projection bounds; either makes identification
coverage partial. Values split across read chunks are retained without
publishing truncated prefixes. Unlabeled runs that miss the
`Version::String()` grammar are ignored and do not set
`dart_version_capped`.
- Labeled strings must fit their complete grammar. `dart_version_capped`
and `toolchain_capped` independently report labels omitted by grammar or
projection bounds; either makes identification coverage partial. Values
split across read chunks are retained without publishing truncated prefixes.
- **`coverage: "partial"`** also appears when an ABI carries `libapp.so`
without `libflutter.so` (or vice versa).
- The APK itself is digested before parsing, so `target.sha256` binds the
+1 -1
View File
@@ -119,7 +119,7 @@ installation's language catalog, the same catalog REA uses to admit
and still succeeds on the stock checks.
The ELF lane (`npm run verify:ghidra:ppc`) is separate. See
[PowerPC ELF analysis through Ghidra](ghidra-ppc.md).
[PowerPC ELF analysis through Ghidra](/ghidra-ppc).
## Not supported yet
+2 -3
View File
@@ -175,9 +175,8 @@ are separate from the initialized MZ module. Headerless COM requires the
from the filename or unrecognized bytes. DOS extenders without an admitted
MZ real-mode entry remain outside this import boundary.
DOS MZ is available through Ghidra, with no Hopper support claim. Windows Ghidra
P0 admits DOS MZ read-only: function annotations and naming edits are refused
there, and explicit COM is not admitted. macOS x64 DOS verification remains unverified.
DOS MZ is available through Ghidra, with no Hopper support claim. It is outside
the Windows native PE P0 boundary. macOS x64 DOS verification remains unverified.
## Real verification
+15 -20
View File
@@ -39,9 +39,9 @@ bridge-reported `language_id` after import. A caller-selected
pin; combining the pinned profile with an environment override is a typed
refusal. A header that declares an ABI field but carries no record is still
refused. Two further boundaries apply: an inspection that could not examine
every ABI declaration source does not establish the recordless admission
(target opening already refuses a carved ELF whose section table extends past
the captured bytes, as described below), and an `EF_MIPS_ARCH_1` or
every ABI declaration source (for example a carved ELF whose section table
extends past the captured bytes without a program-header record) does not
establish the recordless admission, and an `EF_MIPS_ARCH_1` or
`EF_MIPS_ARCH_32` header that _declares_ an ABI is refused rather than
relabeled, because the declared-ABI lane is verified for
`EF_MIPS_ARCH_32R2` headers only. The recordless MIPS-I lane pins the same
@@ -77,16 +77,13 @@ argument ABI and unknown nonzero MSA values remain unsupported. Without a
separate ABI flags record, FP attribute values are admitted only when absent,
`ANY` (0), double precision (1), or FPXX (5), the values covered by the
recordless profile. Parsed values are retained in the MIPS analysis profile.
A carved ELF whose section header table extends beyond the captured file is
refused when the target is opened, before provider selection, as is every ELF
declaration beyond EOF ([installation](installation.md#ghidra)). The refusal
names the declared range and the file size. It applies even when a
program-header ABI record was captured: an uncaptured section header could
carry an unsupported or conflicting declaration, so the captured bytes are not
analyzed as a complete smaller program. The provider also refuses any ABI
declaration inspection that reports unexamined headers. A missing
program-header record does not make ABI declarations in uncaptured sections
absent or supply a default ABI.
For carved ELFs whose section table extends
beyond the captured file, REA examines every complete captured section header
and records the unavailable headers as a limitation. The provider refuses an
incomplete ABI declaration inspection even when a program-header ABI record is
valid, because an unavailable section header could carry an unsupported or
conflicting declaration. A missing program-header record does not make ABI
declarations in uncaptured sections absent or supply a default ABI.
The field layout follows
[`Elf_MIPS_ABIFlags_v0`](https://github.com/bminor/glibc/blob/master/elf/elf.h).
@@ -260,13 +257,11 @@ observations and does not relabel the upstream result as verified.
CLI/MCP discovery and decompilation, direct calls, target/profile/Evidence
identity, snapshot round-trip and final process cleanup remain covered.
For both byte orders, the lane also cuts the image one byte before its section
header table, after checking that every program header and payload stays
captured. `open_binary` and the CLI must both refuse that copy before provider
selection as `target_unavailable` with constraint `file_format_rejected`,
naming the declared section-table range and the captured size, and leave it
unchanged. Caller-selected Ghidra heap limits are passed to the lane's CLI and
MCP child workflows.
For both byte orders, the lane also carves away the section table while retaining
all program-header payloads. It checks the actual Ghidra language, entry-address
decompilation, distinct artifact digest and missing-section limitations through
CLI Evidence and an MCP-produced snapshot. Caller-selected Ghidra heap limits
are passed to these child workflows.
For soft-float fixtures the lane also checks, through `inspect_native_api`, the
exact parameter and return types and storage of float, double, mixed (pair
alignment and stack spill) and struct-returning functions; that a caller's
+6 -23
View File
@@ -2,18 +2,9 @@
REA imports one target into an ephemeral Ghidra database. Linux/macOS support
read-only analysis and atomic function-name/entry-comment edits; Windows P0 is
read-only. GUI controls and writes to caller-selected source databases are unavailable.
read-only. GUI controls and persistent database mutation are unavailable.
Executable bytes remain unchanged.
An opt-in [owned Program checkpoint](installation.md#automatically-checkpoint-an-owned-ghidra-program)
retains analysis across Linux/macOS processes. It saves initial completed analysis
and normal-close metadata changes to `REA_GHIDRA_CHECKPOINT_DIR`; cancellation
and process failure recover only the last successfully saved state. The restored
packed Program's digest is reported with restored observations. Initial analysis
keeps one stable generation through its first save; later saved states bind their
content digest in profile identity. Restoration does not turn prior
database state into a fresh discovery. The default remains ephemeral.
Use [installation](installation.md#ghidra) for supported hosts, prerequisites,
configuration, startup deadlines, resource controls, and cleanup recovery.
[Linux Ghidra launches](installation.md#linux-owned-process-prerequisite) also
@@ -40,8 +31,7 @@ operation-scoped JVM `OutOfMemoryError` observations retain their separate resou
classification. Automatic kernel or cgroup OOM attribution is not implemented.
After the authenticated startup handshake, rejected inputs (`invalid_request`,
`not_found`, `ambiguous`, an invalid function name, or an address without one
exact file offset) use
`not_found`, `ambiguous`, or an invalid function name) use
`diagnostics.diagnostic_scope: "request"` when their active output checkpoint is
available. They preserve the active request's
`failure_output`, target/profile identity and runtime/log coordinates, while
@@ -181,11 +171,6 @@ have no file backing. ELF mappings are observed
without independent format-specific load-image verification, as the result's
status and limitations state.
Relocation rows retain Ghidra's `symbol` value, including an empty string or
null when returned by Ghidra. It is a provider observation, not proof of the
runtime-resolved address. Older Evidence may not have recorded this field;
a relocation page requesting it reports that uncertainty.
For large relocation inventories, select MCP `inspect_native_load_image` with
`detail: "summary"`. It returns verification state, observed identity and counts,
while retaining complete Evidence. Use `normalized_result.parent_evidence_id`
@@ -314,7 +299,7 @@ host/provider acceptance run with only the host compiler.
`--dll`. These static fixtures contain source-owned encoded instructions; they
are not compiler-produced programs. See the [Windows verification scope](windows-ghidra-p0.md#native-authority-and-target-identity)
for real-provider coverage and exclusions.
These lanes check all 27 read-only operations, target/snapshot/import SHA-256 linkage,
These lanes check all 26 read-only operations, target/snapshot/import SHA-256 linkage,
and project, endpoint, process, and runtime cleanup. The independent native
lane checks DACLs, handle admission, cancellation, and Job Object lifecycle.
`npm run verify:ghidra:windows:package` packs and installs REA into an isolated
@@ -339,11 +324,9 @@ Without bounds, loaded memory blocks are eligible, in Ghidra address order.
Blocks that are not loaded (file parts such as `.symtab`) and overlay blocks are
listed in `searched.skipped_not_loaded` and are not searched; pass `start` or
`end` in their address space to search them.
Overlapping matches are included, including across adjacent eligible initialized
blocks in the same address space. Gaps and excluded or uninitialized blocks break
a search run. Each match reports its address, starting segment, unique source file
offset for that starting address (or null), and containing procedure (or null).
A starting offset does not imply the full match is contiguous in the file.
Overlapping matches are included; matches never cross block boundaries.
Each match reports its address, segment, unique source file offset (or null),
and containing procedure (or null).
Pages default to 100 matches and accept 1 to 1000. Pass `next_cursor` as `cursor`
with the same target, profile, pattern, mask and bounds to continue. `complete`
+5 -12
View File
@@ -85,23 +85,16 @@ node scripts/verify-real-ghidra-mips.mjs --psp-missing-extension
npm run verify:ghidra:mips
```
The generic verifier also checks that a section-truncated firmware copy is
refused when the target is opened. That check runs only in generic mode; the
PSP report explicitly records carved-PSP coverage as not run.
The generic verifier also exercises a section-truncated firmware fixture. That
check uses generic MIPS symbols and language expectations and runs only in generic
mode; the PSP report explicitly records carved-PSP coverage as not run.
The maintained PSP fixture builds from `tests/conformance/psp/`, never executes,
and is independent of commercial game data. PSP GNU tools supply ELF/ABI,
raw ABI-record, symbol and encoding observations; REA's parsed target and saved
snapshot must agree with the independent ABI declaration. Public CLI/MCP must
recover known functions, a direct call, the immediate `0x1234`, BITREV, a
global word and a marker. The additional source-owned VFPU function contains
`vpfxs`, `vpfxt`, `vpfxd` and three `vadd.q` instructions.
The PSP lane checks their fixed encoded bytes and Ghidra's decoded mnemonics
through `inspect_native_instruction`; an analyzed dossier reports available
high-p-code opaque-operation and truncation observations. Neither decoded
instructions nor `CALLOTHER` counts establish prefix consumption, lane-level
arithmetic or emulator/hardware equivalence.
The verifier
recover known functions, a direct
call, the immediate `0x1234`, BITREV, a global word and a marker. The verifier
checks observed loader/language, original bytes, Evidence, snapshot reopening,
and an A-B-A target switch with different global contents at the same address.
A snapshot for A must not open B. Cleanup must finish before success is reported.
+40 -264
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@@ -9,43 +9,29 @@ lane shape as [generic MIPS support](ghidra-mips.md).
ELF `EM_RISCV` (243) is retained as the provider-neutral `riscv` family. The
target also retains the raw ELF declarations that decide a lane: class, byte
order, `e_type`, `e_flags`, and the ISA string that `.riscv.attributes`
declares. Recognition does not mean every provider or RISC-V variant is
supported. Existing PE, managed and Mach-O architecture sets are unchanged.
Headerless inputs use the separate [raw-binary admission
order, `e_type`, and `e_flags`. Recognition does not mean every provider or
RISC-V variant is supported. Existing PE, managed and Mach-O architecture sets
are unchanged. Headerless inputs use the separate [raw-binary admission
boundary](raw-binary.md); raw RISC-V images are not supported.
The Ghidra lane admits little-endian `ET_EXEC` images with no `EF_RISCV_RVE`,
`EF_RISCV_TSO`, or any bit outside `EF_RISCV_RVC | EF_RISCV_FLOAT_ABI`, in one
of three lanes:
- ELF64 or ELF32 images that declare `EF_RISCV_FLOAT_ABI_DOUBLE` use Ghidra's
stock double-float model unchanged. Their `.riscv.attributes` is not read for
admission.
- ELF32 images that declare the soft-float ABI (`e_flags` float-ABI bits `0`,
ilp32) use REA's [ilp32 calling-convention policy](#ilp32). They must also
declare an RV32I base and only [decoded extensions](#isa-declarations) in
`Tag_RISCV_arch`.
These are header declarations, not proof that every instruction conforms to
that ISA.
The Ghidra lane admits little-endian ELF32 and ELF64 `ET_EXEC` images that
declare `EF_RISCV_FLOAT_ABI_DOUBLE` in `e_flags`, with no `EF_RISCV_RVE`,
`EF_RISCV_TSO`, or any bit outside `EF_RISCV_RVC | EF_RISCV_FLOAT_ABI`. These are
header declarations, not proof that every instruction conforms to that ISA.
Provider selection returns the specific unsupported constraint rather than
guessing a compatible profile:
| Declaration | Outcome |
| -------------------------------------------------------------------------- | -------------------------------------------------------------------------------------------------------------------- |
| Little-endian ELF64 `ET_EXEC`, double-float ABI | admitted, `RISCV:LE:64:default` + `gcc`, lane `elf64-exec-le-double-float-generic-v1` |
| Little-endian ELF32 `ET_EXEC`, double-float ABI | admitted, `RISCV:LE:32:default` + `gcc`, lane `elf32-exec-le-double-float-generic-v1` |
| Little-endian ELF32 `ET_EXEC`, soft-float ABI, decoded extensions only | admitted, `RISCV:LE:32:default` + `gcc` with the `__rea_ilp32` prototype, lane `elf32-exec-le-soft-float-generic-v1` |
| ELF32 soft-float ABI without `Tag_RISCV_arch`, or with any other extension | refused; the reason names the extensions outside the decoded set |
| ELF32 single-float ABI (ilp32f) | refused until its [written policy](#ilp32f) is implemented and verified |
| ELF64 soft- or single-float ABI (lp64, lp64f), or the quad-float ABI | refused; no verified calling-convention policy |
| Big-endian | refused; Ghidra 12.1.4 ships no big-endian RISC-V language |
| `ET_REL`, `ET_DYN`, other `e_type` | refused with the declared value |
| `EF_RISCV_RVE` | refused; the embedded 16-register profile (x0–x15) needs its own processor specification |
| `EF_RISCV_TSO` | refused; the total-store-order memory model is unverified here |
| Reserved or newer `e_flags` bits | refused with the offending bits named |
| Declaration | Outcome |
| ----------------------------------------------- | ---------------------------------------------------------------------------------------- |
| Little-endian ELF64 `ET_EXEC`, double-float ABI | admitted, `RISCV:LE:64:default` + `gcc` |
| Little-endian ELF32 `ET_EXEC`, double-float ABI | admitted, `RISCV:LE:32:default` + `gcc` |
| Big-endian | refused; Ghidra 12.1.4 ships no big-endian RISC-V language |
| `ET_REL`, `ET_DYN`, other `e_type` | refused with the declared value |
| `EF_RISCV_RVE` | refused; the embedded 16-register profile (x0–x15) needs its own processor specification |
| `EF_RISCV_TSO` | refused; the total-store-order memory model is unverified here |
| Soft, single, or quad float ABI | refused; the pinned generic compiler specification models double-float |
| Reserved or newer `e_flags` bits | refused with the offending bits named |
`e_type` is the only load-shape declaration this lane reads. A fixed-address
`ET_EXEC` declaration does **not** establish static linkage: `PT_INTERP` and
@@ -72,193 +58,15 @@ with the `gcc` compiler specification per class, records
pin without changing the requested override. An override that matches the pin is
accepted and recorded as `configured-v1`.
The soft-float lane pins the same `RISCV:LE:32:default` language. Every RV32
language in Ghidra 12.1.4, including the deprecated soft-float `RV32I`, `RV32IC`
and `RV32IMC` variants in `old/riscv_deprecated.ldefs`, uses the same
`riscv.ilp32d.sla` decoder; only the compiler specification differs. REA keeps
the generic language and corrects the calling convention instead.
## Calling conventions
Ghidra's generic RV32 compiler specification, `riscv32-fp.cspec`, models the
ilp32d ABI. Its default prototype passes `float` and `double` values in
`fa0`–`fa7` and returns them in `fa0`, and it passes a structure of one or two
floating-point members in floating-point registers. An ilp32 image passes all
of these in integer registers. Measured on Ghidra 12.1.4 with an ilp32 build of
the fixture in `tests/conformance/c/riscv-float-abi.c`, the stock model
decompiles `rea_riscv_abi_pick(1.5f, 2.5f, sel)` as
`rea_riscv_abi_pick(in_fa0,in_fa1,0x3fc00000)`.
### Decision record: D3, RISC-V float ABIs
Decided in [#7477](https://github.com/morluto/rea/issues/7477).
- **Choice.**
- Admit little-endian ELF32 `ET_EXEC` images that declare the soft-float ABI
(ilp32) through a new lane, `elf32-exec-le-soft-float-generic-v1`. Lane ids
are built from their fields: `elf<class>-exec-le-<float ABI>-float-generic-v1`.
- Keep the pinned `RISCV:LE:32:default` language and `gcc` compiler
specification. After analysis, `ReaGhidraRiscvCallingConvention.java`
derives the program-specific `__rea_ilp32` prototype from the program's
default prototype as the [ilp32 policy](#ilp32) states. It installs the
prototype through a Ghidra specification extension and assigns it, with
dynamic storage, to every non-thunk function, every external function and
every function definition. Thunks follow their targets. The script fails,
and writes no report, if the derived prototype or any function still
places a value in a floating-point register, or if the prototype does not
pass a 16-byte value by reference.
- One derivation serves every policy. A policy row says how it changes the
default prototype's floating-point entries and preserved registers; every
policy passes values of 9 bytes or more by reference.
- The profile commits `riscv_calling_convention: ilp32-prototype-v1`. The
bridge reports the policy and its function and definition counts, and REA
requires that report exactly when the profile commits the policy.
- Admission requires a `Tag_RISCV_arch` declaration with an RV32I base and
only extensions that Ghidra 12.1.4's generic RV32 language implements with
p-code ([ISA declarations](#isa-declarations)).
- Soft-float profiles add `float_abi` and `arch` to `riscv_elf`. Double-float
profiles keep their exact parameters, so their digests, sessions and
snapshots are unchanged.
- ilp32f keeps its [written policy](#ilp32f) and stays refused until its
prototype is implemented and verified. Quad-float, RVE, TSO, and ELF64
soft- or single-float images stay refused.
- **Alternatives** (and what switching to each would take):
- Pin the deprecated soft-float languages (`RISCV:LE:32:RV32IMC` and others,
`riscv32.cspec`): REA's language catalog would have to read `old/`, the
variants cover only I, IC and IMC, Ghidra marks them deprecated, and no
stock specification models ilp32f.
- Assign `__rea_ilp32` only to callables whose types use floating-point
values, as the MIPS soft-float lane does: typed storage is the same, but
prototypes Ghidra infers for untyped code would keep the ilp32d model. In
an ilp32 image that contains F or D instructions, that model can still
claim `fa0`. Switching is one predicate in the Java script and a new
policy id.
- Admit with a limitation and no correction: a reduced-capability contract
that needs its own review, because arguments, returns and aggregates
become unverified.
- Keep refusing: the lane rows become refusals again.
- Admit images without `Tag_RISCV_arch`, or refuse a list of known
extensions instead of admitting a list: a declaration that REA cannot
check would be treated as compatible. Widening the decoded set later is
additive.
- Add `float_abi` and `arch` to double-float profiles as well: one shape for
every lane, but every existing RISC-V session and snapshot would be
invalidated.
- Ship ilp32 and ilp32f together (the question in #7477): ilp32f needs a
float-and-integer structure rule that Ghidra's model lacks, so it ships
separately with its own fixtures.
- **Semantic owner and consumers.**
- Owners:
- `src/domain/riscvIsaDeclaration.ts` owns the float-ABI vocabulary of
`e_flags` and the parsing of `.riscv.attributes` and `Tag_RISCV_arch`.
- `GHIDRA_RISCV_LANES`, `GHIDRA_RISCV_CALLING_CONVENTIONS` and
`GHIDRA_RISCV32_DECODED_EXTENSIONS` (`src/ghidra/GhidraRiscvProfile.ts`)
own admission, lane ids and the policy table.
- `bridge/ghidra/ReaGhidraRiscvCallingConvention.java` owns how each policy
becomes a Ghidra prototype.
- Consumers: target resolution, Ghidra provider admission, the analysis
profile, the provider client and launcher, the session handshake, project
history, the real-Ghidra lane and this page. Later work reuses the table:
ilp32f adds a row, and RISC-V ESP images (F6) select a row through D5.
- **Costs of changing it.**
- **Code:** S. A policy or lane is one table row plus the Java derivation.
- **Compatibility:** the soft-float lane id, `riscv_elf.float_abi`,
`riscv_elf.arch` and `riscv_calling_convention` are persisted in sessions,
snapshots and Evidence once released. A changed derivation ships as a new
policy id, such as `ilp32-prototype-v2`, which invalidates soft-float
snapshots only.
- **Migration:** none for admitted targets; double-float profiles are pinned
by tests. Previously refused soft-float targets become admitted.
- **Verification:** rerun `npm run verify:ghidra:riscv`.
### ilp32
Policy `ilp32-prototype-v1`, prototype `__rea_ilp32`. XLEN is 32 bits and no
floating-point register passes a value.
| Topic | psABI rule | `__rea_ilp32` |
| -------------------------- | ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- | ----------------------------------------------------------------------------------------------------------------------------------- |
| Integer and pointer values | `a0`–`a7`, then the stack in 4-byte-aligned slots | The default integer and stack entries, unchanged |
| `float` | One integer register, or a stack slot | The `fa0`–`fa7` entries and the `float` rule are removed, so a `float` takes the next integer register |
| `double` and 8-byte values | A register pair with the low word in the lower register. Named arguments need no aligned pair. With one register left, the low word goes in `a7` and the high word on the stack | The default `join` rule with stack spill: Ghidra writes `a2:4,a1:4` for a pair and `Stack[0x0]:4,a7:4` for the split |
| Aggregates up to 8 bytes | One or two integer registers, laid out as in memory, also when every member is floating-point | The homogeneous-float-aggregate rule is removed; the `join` rule applies |
| Aggregates over 8 bytes | By reference: the caller passes the address of a copy | The default rule that converts structures and unions of 9 bytes or more to pointers |
| Return values | As the first argument of the same type: `a0`, or `a0` and `a1`. Larger values go to a caller buffer whose address is an implicit first argument in `a0` | The `fa0`/`fa1` return entries and floating-point rules are removed; Ghidra's hidden-return fallback supplies the pointer in `a0` |
| Variadic arguments | The integer convention. A variadic argument with 8-byte alignment and size takes an aligned (even-numbered) register pair, or the stack; after the first stack argument, the rest go on the stack | The default variadic rule (`join` with alignment), unchanged |
| Preserved registers | `s0`–`s11` and `sp`; `gp` and `tp` are not allocated. No floating-point register is preserved | The default preserved list without `fs0`–`fs11`, which join the killed-by-call list |
| Scalars over 8 bytes | By reference (`long double` is 16 bytes), and returned through a caller buffer | A rule before the final join converts any value of 9 bytes or more to a pointer; a return that size already goes to a caller buffer |
Ghidra recovers the arguments of a variadic call from the registers the caller
writes, not from their types. A padding register that still holds an earlier
value can appear as an argument, and arguments after an unwritten register are
omitted.
### ilp32f
Written policy for `EF_RISCV_FLOAT_ABI_SINGLE` on ELF32. REA does not admit it
yet. ABI_FLEN is 32 bits.
| Topic | psABI rule |
| ------------------------------------------------------- | ------------------------------------------------------------------------------------------------ |
| `float` | `fa0`–`fa7` while one is free, then the integer convention |
| `double` and other values wider than 32 bits | The integer convention, as in ilp32 |
| Structure of one or two floats (after flattening) | One floating-point register per member when enough are free, otherwise the integer convention |
| Structure of one float and one integer, in either order | One floating-point and one integer register when both are free, otherwise the integer convention |
| Unions | Never flattened; the integer convention |
| Return values | As the first argument: `fa0`, `fa0` and `fa1`, or `fa0` and `a0` |
| Variadic arguments | The integer convention, as in ilp32 |
| Preserved registers | `s0`–`s11`, `sp`, and `fs0`–`fs11` for values of 32 bits or fewer |
The planned prototype limits the default floating-point entries to 4 bytes and
keeps the shared rule that passes values of 9 bytes or more by reference.
Observed on Ghidra 12.1.4, a `double` then takes an integer pair and a structure
of two floats takes `fa0` and `fa1`. Ghidra's model has no rule for a structure
of one float and one integer: it joins `struct { float; int; }` into `a1:a0`
instead of `fa0` and `a0`. The ilp32f policy needs that rule and its own
fixtures before it is admitted.
### ilp32d and lp64d
The double-float lanes use Ghidra's stock `riscv32-fp.cspec` and
`riscv64-fp.cspec` models unchanged. This page does not verify them. They share
the float-and-integer structure gap above.
## ISA declarations
The target reader finds the one `SHT_RISCV_ATTRIBUTES` section and reads
`Tag_RISCV_arch`, such as `rv32i2p1_m2p0_c2p0_zicsr2p0_zifencei2p0`. It
retains the string, the base and the extension names, or an unavailable reason
when the section is malformed, declares other vendors or scopes, or uses a
non-canonical string. A missing section or tag is recorded as absent.
Calling-convention lanes admit an image only when it declares an RV32I base
and only extensions that Ghidra 12.1.4's generic RV32 language implements with
p-code: `m`, `a`, `f`, `d`, `c`, `zicsr`, `zifencei`, and the subset names
toolchains record, `zmmul`, `zaamo`, `zalrsc`, `zca`, `zcf` and `zcd`. Any
other extension is refused. In particular:
- Ghidra 12.1.4 decodes no Zcb, Zcmp or Zcmt instruction.
- Its bit-manipulation, cryptography and packed-SIMD files follow draft
encodings and mark nearly every instruction unimplemented.
- Vendor extensions, such as Espressif's `xesploop`, `xespv` and `xespdsp`,
decode only as custom-opcode placeholders.
ESP-IDF builds ESP32-C2 and C3 images as `rv32imc_zicsr_zifencei` and ESP32-C5,
C6, C61, H2 and H21 images as `rv32imac_zicsr_zifencei_zaamo_zalrsc`, all ilp32.
Those base strings are admitted. Builds that add `_zba_zbb_zbs`,
`_zcb_zcmp_zcmt` or an `xesp` extension are refused.
## Evidence
The lane identity is one of the lane ids above, and `riscv_elf` retains
`elf_class`, `byte_order`, `type`, and the raw `flags` alongside the read-only
booleans `float_abi_double`, `rvc_declared`, `rve_declared`, and
`tso_declared`. Soft-float profiles also retain `float_abi: soft`, the declared
`arch` string, and `riscv_calling_convention: ilp32-prototype-v1`. Those fields
report declarations the header and attributes make, and the policy REA applied;
none of them is evidence of the original compiler or of instruction
conformance. Session Evidence states the prototype and how many functions and
definitions use it.
The lane identity is `elf32-exec-le-double-float-generic-v1` or
`elf64-exec-le-double-float-generic-v1`, and `riscv_elf` retains `elf_class`,
`byte_order`, `type`, and the raw `flags` alongside the read-only booleans
`float_abi_double`, `rvc_declared`, `rve_declared`, and `tso_declared`. Those
fields report declarations the header makes; none of them is evidence of the
original compiler, of instruction conformance, or of a floating-point calling
convention beyond the ABI the pinned language models.
## Verification and limits
@@ -268,9 +76,9 @@ tree ships no host decompiler binary, so `Decompiler/os/<platform>/decompile` an
[installation](installation.md#ghidra).
Run `npm run verify:ghidra:riscv` with an existing Ghidra 12.1.4 installation,
JDK 21+, and a RISC-V-capable Clang, LLD, LLVM readelf and LLVM objdump. The
verifier acquires no tools and never executes target code. Select installed
tools explicitly when they are not on `PATH`:
JDK 21+, and a RISC-V-capable Clang, LLD and LLVM readelf. The verifier acquires
no tools and never executes target code. Select installed tools explicitly when
they are not on `PATH`:
```sh
GHIDRA_INSTALL_DIR=/path/to/ghidra_12.1.4_PUBLIC \
@@ -278,52 +86,20 @@ JAVA_HOME=/path/to/jdk-21 \
REA_RISCV_CLANG=/path/to/llvm/bin/clang \
REA_RISCV_LLD=/path/to/lld/bin/ld.lld \
REA_RISCV_READELF=/path/to/llvm/bin/llvm-readelf \
REA_RISCV_OBJDUMP=/path/to/llvm/bin/llvm-objdump \
npm run verify:ghidra:riscv
```
The lane builds four `ET_EXEC` fixtures from committed freestanding C and
assembly sources:
The lane builds the committed freestanding C and assembly sources into RV32 and
RV64 `ET_EXEC` fixtures. Independent LLVM readelf observations establish ELF
declarations and symbol addresses. Public CLI and stdio MCP workflows verify
function enumeration, decompilation, pinned language/compiler identity, decoded
probe bytes, global data, and direct calls. It validates advertised MCP output
schemas and both JSON representations, saves and reopens snapshots, rejects
header-mutated soft-float and unsupported high-bit declarations, and checks
unchanged source bytes and owned cleanup. Failures retain the diagnostic
workspace; successful runs remove it and report the observed process lineage.
- RV32 and RV64 double-float builds (`rv{32,64}imafdc`) of `riscv.c`.
- An RV32 soft-float build of `riscv-float-abi.c` with ESP32-C3's
`-march=rv32imc_zicsr_zifencei -mabi=ilp32`, typed with DWARF.
- The same objects linked with `--strip-all`. Every allocated section keeps
its address and bytes, so the typed build's symbols locate its functions.
Independent LLVM readelf observations establish ELF declarations,
`Tag_RISCV_arch` and symbol addresses. Public CLI and stdio MCP workflows verify
function enumeration, decompilation, pinned language/compiler identity, the
committed lane and policy, decoded probe bytes, global data, and direct calls.
They validate advertised MCP output schemas and both JSON representations, save
and reopen snapshots, and check unchanged source bytes and owned cleanup.
For the soft-float builds the lane also checks:
- `fence.i` and `csrr` decode, as ESP32-C3's Zifencei and Zicsr declare.
- An LLVM objdump reading of `rea_riscv_abi_caller` finds each call-site word
where the [ilp32 policy](#ilp32) puts it: an unaligned `double` in `a1`/`a2`,
the `a7`/stack split, two floats in an integer pair, a large structure and a
`long double` passed by reference (the pointed-to copies hold the source
values), aligned variadic pairs, and an indirect call.
- `inspect_native_api` reports `__rea_ilp32` with exactly that storage for the
typed build. The stripped build has one integer word per parameter location
and returns in the typed build's registers, or in none when the result goes
through caller memory.
- The caller's pseudocode passes the source constants through that storage and
names no floating-point register.
- Retained Evidence states the prototype outcome; the stripped build has no
function definitions.
Header-mutated copies check admission. The RV32 double-float image relabelled as
soft-float (`e_flags` `0x1`), refused before this lane, is admitted through the
soft-float lane over CLI and MCP. The soft-float image relabelled as
single-float, RV64 soft-float, and unsupported high bits are refused with their
reasons. Failures retain the diagnostic workspace; successful runs remove it and
report the observed process lineage.
Module tests cover admission, malformed headers and attribute sections, the
handshake, and the conformance checks against recorded LLVM and Ghidra output.
Call-graph completeness, string inventories, dynamic linkage, Andes or RVE/TSO
images, big-endian targets, ilp32f images, and decoding beyond the probes are
**not** established by this lane.
Module tests cover admission and malformed headers. Call-graph completeness,
string inventories, dynamic linkage, Andes or RVE/TSO images, and big-endian
targets are **not** established by this lane. `.riscv.attributes` ISA extensions
are not inspected; the generic language pin remains an analysis convention.
-27
View File
@@ -25,33 +25,6 @@ by default; `--integrity-policy record-and-continue` retains the observed bytes
and an explicit untrusted contradiction. An all-zero MD5 is an unknown claim,
not a verified digest.
Artifact comparison pairs members by `logical_path`, the stored path without
`res://`, and compares their bytes and occurrence facts. It does not compare
`godot-pck-entry` metadata. Godot 4.3
[stores `res://` paths](https://github.com/godotengine/godot/blob/77dcf97d82cbfe4e4615475fa52ca03da645dbd8/editor/export/editor_export_platform.cpp#L228)
and [keys members by them](https://github.com/godotengine/godot/blob/77dcf97d82cbfe4e4615475fa52ca03da645dbd8/core/io/file_access_pack.cpp#L50-L52).
Godot 4.4.1
[stores paths without the prefix](https://github.com/godotengine/godot/blob/49a5bc7b616bd04689a2c89e89bda41f50241464/editor/export/editor_export_platform.cpp#L257-L260)
and [removes it before keying](https://github.com/godotengine/godot/blob/49a5bc7b616bd04689a2c89e89bda41f50241464/core/io/file_access_pack.cpp#L48-L50).
Each version finds `res://scenes/main.gd` in its own export, but comparing the
stored `source_path` would mark every member changed between such exports.
`logical_path` names the member Godot's lookup finds, except in two cases.
REA normalizes Unicode to NFC, so a member renamed only between Unicode forms
compares unchanged, although Godot treats it as another path. Godot reads `\`
as `/` and REA keeps it literal, so a member spelled with backslashes compares
as removed and added. Directory order and offsets are layout. The encryption
bit, the only member flag REA admits, is the occurrence's `encrypted` field. A
member whose encryption changes compares `unknown` in `metadata` and
`availability`: the change is known, but REA does not read encrypted bytes,
so whether the script changed is unknown. Godot's exporter
[stores the MD5 of a member's original bytes](https://github.com/godotengine/godot/blob/a13da4feb8d8aefc283c3763d33a2f170a18d541/editor/export/editor_export_platform.cpp#L465-L468),
as the 4.3 and 4.4.1 exporters do, so the declared MD5 does not depend on the
encryption IV. Encrypted members whose declared MD5s differ therefore also
compare `unknown` in `metadata` and `availability`: the MD5s declare
different scripts, but REA cannot verify them, and equal MD5s add nothing for
the same reason. An encrypted member with an MD5 on only one side stays
`unknown`.
## CLI
Start with a compact summary and keep the complete Evidence bundle:
-26
View File
@@ -36,8 +36,6 @@ The MCP tool `project_harmony_application_graph` takes the same
- exact component paths, artifact IDs, and hashes (manifests, Ark bytecode,
resources, native libraries, JavaScript, signing)
- `unclassified_components` with the same paths and content identities for
authenticated files outside those categories and the App Pack child list
- a packaging-model hint: Stage is claimed only from an exactly cased `module.json` entry
outside a classified resource path, FA only from `config.json` outside a
classified resource path, otherwise `unknown`
@@ -57,24 +55,6 @@ being classified as code files. Ark and JavaScript runtime hints summarize the
classified bytecode and JavaScript lists; supported source extensions share the
same classification rule as their component rows.
`unclassified_components` preserves files such as `pkgContextInfo.json`,
`.pages.info`, a HarmonyOS `.har` shared library, and a non-certificate
`META-INF` entry without interpreting their contents. The `.har` suffix also
names HTTP Archive JSON, so identifying one needs verified ZIP bytes rather than
a path rule. Different paths sharing the same bytes remain separate entries. App
Pack children of an App Pack root are already reported in `app_pack_children`,
so they are not repeated as unclassified files. A nested `.hap` or `.hsp` member
of a HAP or HSP root is disclosed in `unclassified_components` instead, because
child-package inventory is not recursive. Unreadable or encrypted content remains
in `unavailable_components` with unknown identity instead.
`coverage.status: "complete-within-inventory"` describes the authenticated
source inventory and bounded bridge projection, not semantic understanding of
every file. Unclassified files do not make a complete inventory partial; missing
inventory pages, source coverage limits, unavailable content and bridge limits
still qualify coverage independently. An empty unclassified list on a partial
inventory does not establish that the whole package has no unclassified files.
Every claim is path-presence only. Manifest semantics (module identity,
abilities, entry points, permissions, dependencies), Ark bytecode contents and
versions, resource resolution, signing verification, and observed native
@@ -82,12 +62,6 @@ boundaries are out of scope for this increment and stay in the projection's
`limitations` array until a dedicated HarmonyOS provider exists. REA fails
closed on packages whose inventory cannot be authenticated.
`pkgContextInfo.json` is inventoried and listed as an unclassified component but
never read, so its `isSO` declarations do not narrow `bridge_candidates`. When
that entry is present the projection adds a limitation naming the unread
declaration, so a path-convention hypothesis is not mistaken for a package
declaration.
## Verification lane
`npm run fixtures:harmony` downloads the SHA-256-pinned 1.0.1 HAP release
+1 -4
View File
@@ -36,10 +36,7 @@ regions and are never filled.
Region `format_metadata` (`hex-record-region`) records `start_address`,
`end_address`, `length`, `record_count`, and `first_line`/`last_line`: the
1-based line span of the contributing data records. `compare_artifacts`
compares none of these fields: a region's name encodes its start and end
addresses, its length follows from them, and record and line counts are
layout.
1-based line span of the contributing data records.
Root `format_metadata` (`hex-records`) records:
+2 -15
View File
@@ -43,27 +43,20 @@ rea decompile /absolute/path/to/program main --json
If the registration cannot be read or validated, provider diagnostics retain its
selected `registration_path` and the configuration owner's setting/constraint
facts in `configuration_details.settings`. The availability's `remediation`, and
each operation it makes unavailable, carry the configuration owner's repair.
facts in `configuration_details.settings`, plus `configuration_remediation`.
`configured` means a path was selected, not that it is valid or an IDA connection
was established; failed registrations remain unavailable. Correct
`REA_IDA_MCP_CONFIG` in the next CLI invocation's environment or the MCP server's
launch environment. Restart/reconnect that server after changing its environment;
an export in another shell does not update a running server.
An HTTP registration's `url` must use `http` or `https` without URL credentials,
and its host must be `localhost`, `127.0.0.1`, `[::1]`, or the Docker/Podman
host-gateway name `host.docker.internal` or `host.containers.internal`. Use a
gateway name when REA runs in a container and IDA MCP listens on the container
host. REA refuses every other host.
Open the **original input binary** in REA, not an `.idb` or `.i64` database. Its SHA-256 must match IDA's recorded input hash. REA checks the attached identity and image base around each analysis request. A mismatch or target switch fails with recovery guidance. The original input must remain readable by REA; WSL can use its mounted alias while the GUI runs on Windows. Attached profiles, including native mode, refuse universal Mach-O inputs at admission: every slice shares the recorded whole-file hash, so REA cannot verify which slice the GUI loaded. Open a thin file extracted with `lipo -thin` in both IDA and REA, or use headless mode, which analyzes the selected slice.
REA's close operation releases its MCP connection or proxy. It never saves or closes the existing GUI database. External edits remain visible because results are live and are not replayed from snapshots. These checks do not lock the GUI or prove that the database is unpatched.
## Optional native IDA MCP bridge
IDA Pro and IDA Free can use the separate [ida-free-mcp native plugin](https://github.com/0xshlomil/ida-free-mcp) through an explicit attached registration. Install and start that plugin using its upstream instructions, open the original binary in the IDA GUI, and wait for analysis. The native MCP 1.1.2 release binds `0.0.0.0` without a listen-address setting. Restrict inbound access with the host firewall or use an upstream build that binds only to loopback before starting it. REA's local URL restriction does not change the plugin's listener. REA does not install IDA, build the plugin, activate a license, or launch the GUI.
IDA Pro and IDA Free can use the separate [ida-free-mcp native plugin](https://github.com/0xshlomil/ida-free-mcp) through an explicit attached registration. Install and start that plugin using its upstream instructions, open the original binary in the IDA GUI, and wait for analysis. The native MCP 1.1.2 release binds `0.0.0.0` without a listen-address setting. Restrict inbound access with the host firewall or use an upstream build that binds only to loopback before starting it. REA's loopback URL restriction does not change the plugin's listener. REA does not install IDA, build the plugin, activate a license, or launch the GUI.
```json
{
@@ -227,12 +220,6 @@ For guided registration, set `REA_IDA_MCP_CONFIG` before `rea setup --client <cl
## Coverage and evidence
REA admits x86, x86_64, arm and arm64 executables through IDA. Every other CPU
family, including families that REA recognizes later, is refused until REA
admits it explicitly. Raw-binary and GameCube DOL targets are refused; open
them with Ghidra. Admission is not verification: the real workflows under
[Verification](#verification) cover x86_64 and arm64 only.
All profiles support procedure/string inventory and literal or regex search, procedure resolution, pseudocode, assembly, raw function instructions, resolved callees, incoming address references, and a function dossier. Inventories and modern pseudocode/assembly follow upstream pagination. Upstream limits on modern xrefs and callees are retained as explicit truncation limitations. In the modern headless profile, targets that are not proven x86-only use processor-neutral `callgraph` edges instead of the x86 instruction checks in upstream `callees` (mrexodia/ida-pro-mcp#549). REA requests depth zero: the pinned upstream emits the root's outgoing edges without scanning child functions, then REA batches function-name lookup for those addresses. The graph covers recognized function destinations only; imports and other non-function targets remain unknown. A server without `callgraph` returns an empty relationship list with an explicit coverage limitation. Graph and path workflows retain those limitations alongside observed edges. A failed or inconsistent graph reply remains an error. A transport-level truncated preview is rejected rather than reported as complete evidence; the error preserves upstream retrieval guidance.
All profiles expose `list_documents` as the single target admitted for the session. Attached mode verifies its digest against IDA metadata before returning it; headless mode binds the digest-checked private input. `inspect_address_context`, `trace_feature`, and `binary_overview` can therefore resolve that identity without upstream document-listing tools. Segment enumeration is optional: when the selected profile cannot provide it, `binary_overview` still returns document and procedure/string counts and omits `segments` and `segment_count`; omission means unobserved, not empty. The modern headless profile also supports `resolve_containing_procedure`. An address resolves through upstream `lookup_funcs` to the canonical entry of the function that contains it; the body stays unavailable like other IDA identities. When no function contains it, REA reads the database-scoped minimal `survey_binary` and reports `not_in_procedure` for an address inside one of its segments (ends are exclusive) and `outside_segments` otherwise. A missing, truncated or inconsistent survey fails the read instead of guessing a reason. `trace_feature` marks a trace truncated, with a residual unknown for that address, when upstream caps the references it returned. Attached profiles do not declare address containment resolution.
-6
View File
@@ -528,12 +528,6 @@ message names one reason:
| `image-range-overlap` | Two images claim the same type definitions. |
| `invalid-string` | A name index is outside the strings section, its string is unterminated, or it is not valid UTF-8. |
Record extents are checked for the decoded images, types, methods, fields,
properties, events, parameters, string literals, nested types, generic
containers, generic parameters and interface offsets. Other header sections
are checked for file bounds and overlap; their internal record layouts are not
decoded or validated by this inventory.
A version field that disagrees with the file's layout, for example a version
39 file relabeled as 29, usually surfaces as `unexpected-header-size` or
`record-size-mismatch`.
+14 -19
View File
@@ -47,25 +47,20 @@ For runtime instrumentation, see the [Frida guide](./frida-instrumentation.md).
## Choose a guide
| Task | Guides |
| --------------------------------------------------- | ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------ |
| Identify a desktop installation | [Runtime candidates, evidence and follow-up files](desktop-applications.md) |
| Inspect native functions, references, or types | [Native binaries](native-investigation.md), [Go metadata](go-binaries.md), [Rust dependencies](rust-binaries.md), [CPython pyc files](python-pyc.md), [PE certificates](pe-certificates.md), [PE imports](pe-imports.md), [PE TLS/load config](pe-load-config.md), [ELF notes](elf-notes.md), [Binary hardening](binary-hardening.md), [Linux kernel modules](kernel-modules.md), [Apple IPS](apple-ips.md), [Erlang BEAM](erlang-beam.md), [offline ELF layout](binary-diagnostics.md), [recorded crashes](recorded-crashes.md) |
| Select a native provider or import format | [Ghidra semantics](ghidra-provider.md), [Windows](windows-ghidra-p0.md), [DOS](ghidra-dos.md), [raw bytes](raw-binary.md), [GameCube DOL](ghidra-dol.md), [MIPS](ghidra-mips.md), [PSP](ghidra-psp.md), [NativeAOT](ghidra-nativeaot.md), [IDA](ida-provider.md), [Kuna](kuna-provider.md), [JEB](jeb-analysis.md) |
| Analyze JavaScript or Electron artifacts | [Static analysis](javascript-artifact-reconstruction.md), [tracing and comparisons](javascript-application-workflows.md), [application graph](javascript-application-graph.md), [source recovery](javascript-recovery.md) |
| Compare static JavaScript with runtime observations | [Runtime attribution](javascript-runtime-observation.md), [reconciliation](javascript-runtime-reconciliation.md), [Electron observation](electron-observation.md), [Electron fuses](electron-fuses.md) |
| Inspect assemblies, packages, or firmware | [Godot PCK](godot-pck.md), [UnityFS](unityfs.md), [wxapkg](wxapkg.md), [U-Boot uImage](uimage.md), [.NET](managed-code-analysis.md), [Python packages](python-packaged-applications.md), [Android](android-analysis.md), [APK signatures](apk-signature.md), [Apktool resources](apktool-resource-analysis.md), [ADB acquisition](adb-device-analysis.md), [Apple](apple-application-analysis.md), [Harmony](harmony-analysis.md), [firmware](firmware-analysis.md), [ESP images](esp-image.md), [ESP flash images](esp-flash-image.md), [WASM](wasm-artifacts.md), [EVM](evm-bytecode.md) |
| Observe or compare a browser scenario | [CDP observation](browser-observation.md), [scenarios](browser-scenario-contract.md), [runtime evidence](web-runtime.md), [historical captures](web-network-captures.md) |
| Serve recorded behavior as an agent environment | [Agent environments](agent-environments.md) |
| Trace captured website source | [Source locations](web-source-location.md), [module traces](website-module-trace.md), [script export](website-script-export.md) |
| Capture and compare a command | [Process capture](process-capture.md) |
| Capture a Linux desktop application in use | [Desktop application capture](desktop-application-capture.md) |
| Read a captured application's state | [Desktop application state](desktop-application-state.md) |
| Export a captured application as an environment | [Desktop application export](desktop-application-export.md) |
| Write and validate a task for an exported app | [Desktop application tasks](desktop-application-tasks.md) |
| Drive a computer while building an environment | [Desktop build computer](desktop-build-computer.md) |
| Capture, export and witness a built environment | [Building and witnessing](desktop-build-witness.md) |
| Use CLI/MCP and retain evidence | [CLI](cli.md), [MCP contracts](mcp-contracts.md), [agent prompts](mcp-prompts.md), [obligation ledgers](reconstruction-obligation-ledgers.md) |
| Task | Guides |
| --------------------------------------------------- | ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- |
| Identify a desktop installation | [Runtime candidates, evidence and follow-up files](desktop-applications.md) |
| Inspect native functions, references, or types | [Native binaries](native-investigation.md), [Go metadata](go-binaries.md), [Rust dependencies](rust-binaries.md), [CPython pyc files](python-pyc.md), [PE certificates](pe-certificates.md), [PE imports](pe-imports.md), [PE TLS/load config](pe-load-config.md), [ELF notes](elf-notes.md), [Linux kernel modules](kernel-modules.md), [Apple IPS](apple-ips.md), [Erlang BEAM](erlang-beam.md), [offline ELF layout](binary-diagnostics.md), [recorded crashes](recorded-crashes.md) |
| Inspect native functions, references, or types | [Native binaries](native-investigation.md), [Go metadata](go-binaries.md), [Rust dependencies](rust-binaries.md), [CPython pyc files](python-pyc.md), [PE certificates](pe-certificates.md), [PE imports](pe-imports.md), [PE TLS/load config](pe-load-config.md), [ELF notes](elf-notes.md), [Apple IPS](apple-ips.md), [Erlang BEAM](erlang-beam.md), [offline ELF layout](binary-diagnostics.md), [recorded crashes](recorded-crashes.md) |
| Select a native provider or import format | [Ghidra semantics](ghidra-provider.md), [Windows](windows-ghidra-p0.md), [DOS](ghidra-dos.md), [raw bytes](raw-binary.md), [GameCube DOL](ghidra-dol.md), [MIPS](ghidra-mips.md), [PSP](ghidra-psp.md), [NativeAOT](ghidra-nativeaot.md), [IDA](ida-provider.md), [Kuna](kuna-provider.md), [JEB](jeb-analysis.md) |
| Analyze JavaScript or Electron artifacts | [Static analysis](javascript-artifact-reconstruction.md), [tracing and comparisons](javascript-application-workflows.md), [application graph](javascript-application-graph.md), [source recovery](javascript-recovery.md) |
| Compare static JavaScript with runtime observations | [Runtime attribution](javascript-runtime-observation.md), [reconciliation](javascript-runtime-reconciliation.md), [Electron observation](electron-observation.md), [Electron fuses](electron-fuses.md) |
| Inspect assemblies, packages, or firmware | [Godot PCK](godot-pck.md), [UnityFS](unityfs.md), [U-Boot uImage](uimage.md), [.NET](managed-code-analysis.md), [Python packages](python-packaged-applications.md), [Android](android-analysis.md), [APK signatures](apk-signature.md), [Apktool resources](apktool-resource-analysis.md), [ADB acquisition](adb-device-analysis.md), [Apple](apple-application-analysis.md), [Harmony](harmony-analysis.md), [firmware](firmware-analysis.md), [WASM](wasm-artifacts.md), [EVM](evm-bytecode.md) |
| Observe or compare a browser scenario | [CDP observation](browser-observation.md), [scenarios](browser-scenario-contract.md), [runtime evidence](web-runtime.md), [historical captures](web-network-captures.md) |
| Serve recorded behavior as an agent environment | [Agent environments](agent-environments.md) |
| Trace captured website source | [Source locations](web-source-location.md), [module traces](website-module-trace.md), [script export](website-script-export.md) |
| Capture and compare a command | [Process capture](process-capture.md) |
| Use CLI/MCP and retain evidence | [CLI](cli.md), [MCP contracts](mcp-contracts.md), [agent prompts](mcp-prompts.md), [obligation ledgers](reconstruction-obligation-ledgers.md) |
For development, use [testing](testing.md), [client verification](client-verification.md),
[tool design](tool-design.md), [admission limits and recovery](design/limits-and-recovery.md),
-72
View File
@@ -1,72 +0,0 @@
# Classic iNES container inspection
REA recognizes classic iNES from the `NES` + `0x1a` byte signature, independently
of the file extension. This read-only container inspection uses portable
Node.js file reads; it needs neither Ghidra nor an emulator.
```bash
rea inspect-artifact ./cartridge.nes --json
rea extract-artifact ./cartridge.nes --json
```
Through MCP, call `open_binary` with the local path, then `inspect_artifact`.
Use `extract_artifact` to materialize the regions in the fresh directory named
by its result. The caller owns that successful extraction directory.
## Header and file regions
Inspection returns `container-header` and `reconstruction` observations inline.
The single inventory Evidence under `substeps[].evidence.normalized_result`
contains the complete graph and an `ines` object:
- `ines.header`: original 16-byte `header_hex`, PRG/CHR file-unit counts, mapper,
raw flags 6/7, trainer and battery flags, and the declared mirroring mode.
- `occurrences[]`: each region's path, `source_location.offset` and
`source_location.length` in the original container. Follow `artifact_id` to
the node's observed SHA-256 and byte count.
- `ines.reconstruction`: ordered region paths, concatenated byte count,
SHA-256 and `verified: true`. REA accumulates the concatenation digest during
the same physical-order region scan that produces node hashes, then compares
it with the original whole-file digest. Final source freshness is also checked.
No reconstructed file is written during inspection.
Regions are `header.bin`, optional `trainer.bin` (512 bytes),
`prg/000.bin` onward (16 KiB each), `chr/000.bin` onward (8 KiB each), and
optional `trailing.bin`. Every input byte is retained, including unused header
fields and uninterpreted trailing data. Zero CHR-ROM units create no CHR region;
REA does not fabricate CHR-RAM contents.
After extraction, concatenate the materialized files in
`ines.reconstruction.region_order` from the inspection inventory. Their bytes
reproduce the input exactly. Graph path order is lexical and is not physical
file order; use the explicit region order or source offsets.
## Supported boundary
This increment supports classic iNES with a complete 16-byte header, nonzero
PRG count, complete declared trainer/PRG/CHR payload, and zero reserved bytes
12–15. Dirty legacy headers are refused because their upper mapper bits are
ambiguous; REA does not silently repair them. NES 2.0 and UNIF signatures,
unsupported header variants and truncated payloads are explicitly refused.
An arbitrary file named `.nes` is not admitted as iNES.
The PRG/CHR units describe file storage, not mapper bank sizes or CPU windows.
The mapper number and flags are header declarations, not proof of cartridge
hardware or runtime behavior. Bank switching, 6502/65816 disassembly, emulator
sessions and interpretation of console-specific trailing data remain outside
this lane. Raw-binary Ghidra analysis is a separate workflow. This container
increment addresses the first milestone of [#2072](https://github.com/morluto/rea/issues/2072);
the related [#1641](https://github.com/morluto/rea/issues/1641) tracks 6502/65816
native analysis with explicit load addresses and provider limitations. Extracted
PRG units still need caller-selected CPU windows before static code analysis;
their physical file offsets do not establish those addresses.
Source-owned byte fixtures verify original offsets and hashes, extraction and
byte-exact reconstruction, CLI/stdio MCP parity, malformed/unsupported inputs,
failed target-switch recovery, cancellation and source identity. These checks
do not establish emulator behavior or compatibility with every historical ROM.
The portable CLI/stdio MCP acceptance and source-identity checks run in Linux
and macOS CI. The same workflows have also been executed on native Windows x64.
Format references: [iNES](https://www.nesdev.org/wiki/INES) and
[NES 2.0](https://www.nesdev.org/wiki/NES_2.0).
+22 -243
View File
@@ -378,32 +378,18 @@ a particular caller-supplied input will be valid. See
Select the part you want to check:
| Task | Readiness check |
| ----------------------------------- | -------------------------------------------------------------------------- |
| Static JavaScript/Electron analysis | Run `rea analyze-javascript-application PATH --json` directly. |
| One analysis engine | `rea doctor --provider ghidra --json` (or `hopper`, `ida`, `jadx`, `kuna`) |
| One agent registration | `rea doctor --client codex --json` (see [client IDs](#supported-agents)) |
| Installed workflow instructions | `rea doctor --skill --json` |
| Task | Readiness check |
| ----------------------------------- | ------------------------------------------------------------------------ |
| Static JavaScript/Electron analysis | Run `rea analyze-javascript-application PATH --json` directly. |
| One analysis engine | `rea doctor --provider ghidra --json` (or `hopper`, `ida`) |
| One agent registration | `rea doctor --client codex --json` (see [client IDs](#supported-agents)) |
| Installed workflow instructions | `rea doctor --skill --json` |
A scoped report has `scope.mode: "explicit"`. Its `scope_checks` determine
`healthy` and the exit status. Other checks appear in `informational_checks`;
`environment_healthy` summarizes the full audit. `--target` adds a target check,
but the report remains audit-wide unless a scope option is also supplied.
Provider checks read the terminal running doctor. A client-started server may
receive a different environment, and doctor cannot observe it. When an available
provider relies on a setting that a registration's file does not record, or
records with other text, doctor adds a non-blocking
`registration_environment:<client>` check with `classification: "unknown"`. The
setting names appear in that registration's `provider_settings`. Selecting the
client or an affected provider places the check in `scope_checks`; it never
changes `healthy`, because the client may still pass the setting on. Preview
`rea setup --client <client-id> --skill=false --dry-run` from that terminal and
approve it to record the settings, then restart the client. To see what the
running server can use, call `binary_session` in the client and read
`result.tool_availability`. For Hopper, only an explicit `HOPPER_LAUNCHER_PATH`
is compared.
An invalid `REA_LOG_LEVEL` fails every scope, including one client or the
installed skill, because the executable rejects it before any command. A
selected client also fails for every other setting that MCP startup rejects,
@@ -636,7 +622,6 @@ hosted connector; see [its configuration](client-configuration.md#other-client-s
| Claude Desktop | `claude_desktop` |
| Codex | `codex` |
| Cursor | `cursor` |
| CodeBuddy | `codebuddy` |
| Gemini CLI | `gemini_cli` |
| Windsurf | `windsurf` |
| Devin | `devin` |
@@ -655,7 +640,6 @@ hosted connector; see [its configuration](client-configuration.md#other-client-s
| Factory Droid | `droid` |
| Trae | `trae` |
| WorkBuddy | `workbuddy` |
| LM Studio | `lm_studio` |
| ZCode | `zcode` |
| DeepSeek Harness | `dsh` |
| FreeBuff | `freebuff` |
@@ -665,8 +649,6 @@ hosted connector; see [its configuration](client-configuration.md#other-client-s
`freebuff` requires `[email protected]` or later. Older releases reject
`rea setup --client freebuff` as an unsupported client.
`lm_studio` requires a release after 6.8.0.
See [client configuration and troubleshooting](client-configuration.md) for
configuration paths, profiles, trust policies, and schema-limit workarounds.
@@ -674,12 +656,6 @@ configuration paths, profiles, trust policies, and schema-limit workarounds.
See [the Cordis patch and launcher setup](client-configuration.md#deepseek-harness).
### llama.cpp
llama-server can launch REA through its native stdio MCP configuration. This is
a manual connection, not an automatic setup client ID. See the
[local model setup](client-configuration.md#llamacpp).
### Other client settings
See [OpenCode, Grok Build, and Grok Bot settings](client-configuration.md#other-client-settings).
@@ -690,8 +666,7 @@ Hopper is separate commercial software with its own license. Its free demo has
vendor-defined limits, and a paid license is optional. REA reuses any detected
installation and preserves Hopper during uninstall.
The automated Hopper installer supports macOS 12+, subject to the minimum
macOS version of the current Hopper release, and x86_64 hosts running
The automated Hopper installer supports macOS 12+ and x86_64 hosts running
Ubuntu 24.04+, Fedora 41+, Nobara 44+, Arch Linux, CachyOS, or Omarchy. The
official Linux packages are x86_64-only, so setup does not offer Hopper on other
Linux architectures; configure [Ghidra](#ghidra) there instead. REA itself runs on any
@@ -700,38 +675,12 @@ an existing Hopper launcher is selected through `HOPPER_LAUNCHER_PATH`. Ghidra
and IDA have their own provider-specific host requirements; Windows Ghidra uses
the [experimental P0 boundary](windows-ghidra-p0.md).
Bazzite uses RPM packages, but REA does not install Hopper automatically on it.
Setup skips the Hopper offer because Bazzite is outside the supported host list,
regardless of whether Xvfb is installed. Bazzite documents
[containers for installing Linux packages](https://docs.bazzite.gg/Installing_and_Managing_Software/Containers/).
If using a container, check its distribution and architecture against the list
above. Install REA and Hopper in that container, give it access to the files you
want to analyze, and configure your agent to launch REA there. Verify installation
and analysis before relying on that workflow.
`rea doctor` checks health; it does not offer to install Hopper. Run `rea setup`
for installation. Setup cannot prompt when its output is redirected or during a
container image build. To approve Hopper installation without prompts, run
`rea setup --yes --install-hopper`.
If a Hopper request fails on macOS or Linux, the setup result's `download`
field names the request (`release_feed`, `package` or `public_key`), its `url`,
and the observed outcome `kind`: `http_status` with `httpStatus`, `timeout`,
`network`, `response_too_large`, or `url_refused`. The remediation names the
same URL and outcome. HTTP 404 or 410 means the file is missing, so an
immediate retry is unlikely to help; 5xx, 408 and 429 indicate a temporary
service failure. The status does not establish the underlying cause or guarantee
that retrying will succeed. Doctor and Linux launches report the same request
and status when publisher verification cannot download the current package.
If the Linux package download receives an HTTP failure, setup includes the
observed HTTP status in its `download_failed` diagnostic. The status does not
establish the underlying cause or guarantee that retrying will succeed.
Hopper metadata and package downloads require HTTPS throughout the redirect
chain; a redirect to HTTP or to a URL carrying credentials is refused before
that destination is requested, and those credentials are not reported.
A package download fails when no bytes arrive for 30 seconds or when it has not
finished within 15 minutes, so a slow connection that keeps delivering bytes can
complete. Release metadata and the publisher key keep a 10-second limit. A
`timeout` failure reports the `limit` it reached (`stalled` or `deadline`), its
`timeoutMs` and the `receivedBytes` before it stopped.
chain; a redirect to HTTP is refused before that destination is requested.
On macOS, approved setup downloads the official DMG, checks its published size
and digest, validates the application bundle, and atomically installs it to
@@ -739,15 +688,6 @@ and digest, validates the application bundle, and atomically installs it to
operator can choose its demo mode or activate an existing license. Homebrew and
administrator access are not used.
Each Hopper release declares its own minimum macOS version, so the setup plan
cannot confirm support before approval. Setup compares this Mac's version with
the release metadata's `deployment_target` before downloading the DMG, and with
the signed application's `LSMinimumSystemVersion` before copying it. If this Mac
is older, setup fails with `incompatible_host_version`, names both versions, and
installs nothing. Update macOS, or install a Hopper release that supports this
macOS version yourself and set `HOPPER_LAUNCHER_PATH`. An existing Hopper
installation is not checked against the current release's minimum.
The Hopper launcher action used by REA creates a document from an executable;
its supported command-line interface does not attach to an already-open
document. While another live REA session owns the same target and loader
@@ -788,12 +728,6 @@ Rotating signing subkeys remain bound to that primary identity.
The feed row itself is not PGP-signed; doctor labels its display version as
`reported_release_version`, separately from the authenticated launcher identity.
Even a correctly signed package can contain a launcher whose hash disagrees with
the feed. REA stops before installing that package. When reporting this error,
include the release version, package format and both hashes from the diagnostic.
Each format needs its own check: a matching Ubuntu DEB does not establish that
the Fedora RPM matches.
The approval plan includes the caller-selected cache location. Approved setup
retains the signed archive, public key and release metadata under
`${XDG_CACHE_HOME:-$HOME/.cache}/rea/hopper-releases/<launcher-sha256>`.
@@ -827,16 +761,6 @@ host mount and the rest of `/tmp` remain unchanged; this fallback never invokes
`sudo`. `rea doctor --provider hopper --json` reports the selected
strategy and both host and effective mount facts.
You do not need to start a separate `Xvfb :99` server. REA starts and manages its
own display. After installation, run `rea doctor --provider hopper --json` and
check `hopper-demo-runtime` for display and Python problems. Setup also runs these
health checks: installing the package is only one step toward a working provider.
If an image build ends with `exit status 1`, read the setup output immediately
before that summary to find the failing step. On minimal Ubuntu images, run
`apt-get update` before setup if an earlier layer deleted the package indexes.
REA's package installation commands do not refresh those indexes.
Hopper also embeds Python; the Python executable and standard library alone
are insufficient on Ubuntu. Approved setup checks the system interpreter
at `/usr/bin/python3` and, when necessary, installs its matching
@@ -1004,12 +928,7 @@ selected only when it is the arm64 family's only candidate. REA checks the
entire source's SHA-256 while copying the slice; source identity and reported
offsets still refer to the original container. Any other ambiguous architecture
subtype requires an explicitly extracted thin image; REA does not guess.
Set `HOPPER_LOADER_ARGS_JSON` in REA's launch environment to a JSON array of
strings to override the derived Hopper loader arguments, for example
`["-l","Mach-O"]`. Empty string elements are preserved; NUL bytes are not
accepted. An omitted setting or empty array uses the derived arguments. `rea
setup` forwards an explicitly selected setting to supported registrations;
restart the MCP server to apply a change. These arguments are Hopper-specific.
Configured loader arguments remain explicit overrides.
FAT64 is distinct from the CPU architecture: FAT32 containers can contain 64-bit
executable images. This preparation avoids the Raw Binary loader dialog observed
with native FAT64 loading on Hopper 6.1.0-demo.
@@ -1047,9 +966,7 @@ including while a shutdown request is in flight. A helper exit alone is
insufficient, and an application that never authenticated has no verified
process identity. If no matching bridge becomes available, inspect and close
the reported document in Hopper before ending the owning REA connection.
`close_binary` preserves Evidence and complete Unknown history in memory on the
same connection. Export the bundle before ending the REA process to resume later;
`reset_investigation(save_path)` checkpoints and explicitly clears those records.
Export the Evidence bundle before `close_binary` clears session records.
`binary_session.cleanup_pending` remains true while provider cleanup is retained,
and provider health remains visible even with `open: false`; that flag alone
does not establish successful cleanup.
@@ -1071,14 +988,6 @@ When Hopper cannot start in CI, run
`rea doctor --provider hopper --json` in the failing runner.
Structured failures distinguish private-display dependencies, an unsupported
demo dialog or build, process-ownership conflicts, and an early lifecycle exit.
Once launcher authentication succeeds, an absent first-run dialog is reported as
`demo_dialog_absent` rather than a build or publisher rejection. The watcher
waits 10 seconds by default. Set `REA_HOPPER_DEMO_DIALOG_TIMEOUT_MS` in the
environment that starts REA to a positive decimal integer of milliseconds from
1 to 2147483647 when a slower host needs a longer window. An invalid value is
`invalid_dialog_timeout`: the error names that setting, shows the rejected
value and its source, lists the allowed range, and asks you to correct the
setting and restart REA.
If a private-display probe times out or is cancelled and its process cleanup
fails, REA retains that exact probe owner and reports `cleanup_incomplete`.
Session close retries the probe before releasing its cleanup marker; doctor
@@ -1111,7 +1020,7 @@ reported as incompatible instead of being admitted from its directory name, and
a header that cannot be read or recognized is reported as unknown. REA does not
build or install native tools, or change Gatekeeper quarantine settings.
The adapter exposes 27 read-only operations: fifteen inventory/name/search
The adapter exposes 26 read-only operations: fourteen inventory/name/search
operations and twelve function-analysis operations. These cover metadata,
decompilation, assembly, resolved calls, typed references, xrefs, function
dossiers, instructions, recovered data types, measured load mappings, loaded
@@ -1149,8 +1058,7 @@ and `set_addresses_names` name a function entry or any other mapped address
session metadata edits leave executable bytes unchanged and are discarded on close. GUI controls
require Hopper; Windows P0 remains read-only.
Windows P0 admits native x86, x86-64, ARMNT (Thumb-2) and ARM64 PE applications and DLLs,
[DOS MZ executables](ghidra-dos.md), plus explicitly
Windows P0 admits native x86, x86-64, ARMNT (Thumb-2) and ARM64 PE applications and DLLs, plus explicitly
selected [raw NMOS 6502 images](raw-binary.md#nmos-6502) with a caller-supplied
entry at file offset 0, on fixed local NTFS volumes. Other raw CPU families remain
unsupported on Windows.
@@ -1176,11 +1084,7 @@ selected formula's `libexec/openjdk.jdk/Contents/Home`, for example
Java version bounds declared by your Ghidra installation; REA does not select
another JDK when `JAVA_HOME` is explicit or the PATH JVM runs. On macOS,
when the PATH launcher cannot start a JVM, it tries executable Homebrew
`opt/openjdk` and installed `opt/openjdk@<major>` candidates, preferring the host
architecture's prefix and the unversioned formula within each prefix. Versioned
aliases are considered in ascending major order within Ghidra's declared Java
bounds; the selected executable still undergoes the normal Java probe and
admission checks. REA does not invoke Homebrew or install a JDK. Failed
`opt/openjdk` candidates, preferring the host architecture's prefix. Failed
discovery probes remain available in installation diagnostics. Doctor distinguishes an absent Java
command from a command that runs and fails, and retains bounded probe output
and any parsed properties when the selected runtime cannot be admitted.
@@ -1308,10 +1212,8 @@ bridge, and health readiness. Large binaries can need more: set
milliseconds in the server environment. An absent setting uses the default;
empty, invalid or out-of-range supplied values fail configuration validation.
When the deadline elapses, the `provider_timeout` error names
`REA_GHIDRA_STARTUP_TIMEOUT_MS` with the deadline that was applied. In
fresh-import mode it also suggests `REA_GHIDRA_DISABLED_ANALYZERS` for analyzers
that dominate the time and `REA_GHIDRA_PROJECT_PATH` for reusing a completed
analysis; in existing-project mode it omits that import and analyzer advice.
`REA_GHIDRA_STARTUP_TIMEOUT_MS` with the deadline that was applied and suggests
`REA_GHIDRA_DISABLED_ANALYZERS` for analyzers that dominate the time.
REA parses the supplied configuration environment and
passes the deadline to each provider client; a startup failure is returned by the query that triggered it,
without exposing partial analysis. This deadline is separate from MCP transport
@@ -1365,8 +1267,7 @@ fails with `provider_timeout` and that message; other Ghidra tools stay
available. If the caller also cancels while the timeout settles, the session
still closes and the message says so. Session reuse concerns an active MCP or
library session; a standalone CLI command still closes its own session when it
finishes, so its timeout names `REA_GHIDRA_DECOMPILE_TIMEOUT_SECONDS` for a new
invocation instead. In MCP, `ghidra.decompile_timeout_seconds` can override the launch
finishes. In MCP, `ghidra.decompile_timeout_seconds` can override the launch
value for newly accepted operations on the existing Program; explicit `null`
removes the deadline. A transient timeout remains uncached so the same function
can be retried after an update. See the
@@ -1433,74 +1334,6 @@ not needed for the make step, only for the Ghidra provider. If your toolchain
rejects the inherited `-mmacosx-version-min=10.6` flag, retry the make with
`ADDITIONAL_FLAGS="-w"`.
### Automatically checkpoint an owned Ghidra Program
On Linux/macOS, opt in with an absolute storage directory:
```bash
export REA_GHIDRA_CHECKPOINT_DIR=/absolute/rea-checkpoints
rea decompile /absolute/target/app --procedure entry --provider ghidra --json
```
Use the same setting in the MCP server environment. CLI and MCP share the
provider-owned implementation. The first successful analysis saves the complete
Program as a packed `.gzf`. Later processes restore its names, comments, types
and analysis into a private temporary project with `-noanalysis`. Normal close
saves metadata changes; unchanged queries do not rewrite the checkpoint.
The target executable is never executed by this workflow.
For agents, `open_binary` advertises this startup setting. After selecting Ghidra,
the default `binary_session` summary reports enabled or ephemeral mode in the
provider's `capabilities[].shared_limitations`. Successful native results state
whether initial analysis was created or a verified packed Program was restored.
No separate save/restore tool or runtime analysis-setting update is required;
enabling checkpoint mode requires the startup environment and an MCP restart.
Storage is separated by target SHA-256 and analysis-profile identity, including
the supported Ghidra version. Identical executable bytes at another path can
reuse the Program. One live REA session holds the checkpoint's socket lease;
a competing session reports that owner and must wait until it closes. Only
REA-owned Programs are checkpointed. Caller-selected existing projects retain
their separate read-only workflow below.
The directory retains the current manifest and packed Program. Publication
writes and syncs a new packed file before atomically replacing the manifest;
superseded files are removed after publication. A failed save preserves the
previous checkpoint and the live session for retry. Correct the reported storage
problem, then call `close_binary` again. Incomplete cleanup retains its owner.
Corrupt, malformed or changed checkpoints fail explicitly instead of falling
back to a fresh import. Preserve that directory and repair it or explicitly
select a new directory to start fresh.
Recovery reaches **the last successfully saved checkpoint**. Cancellation,
process failure or a killed CLI can lose later edits; unfinished first-time
auto-analysis cannot resume midway. This does not restore a whole REA
investigation, and does not promise host-crash durability. The working project
remains ephemeral. Packed Program import, checksums, and saving consume disk and
time proportional to Program size; saving runs once after first analysis and
again only when the Program changes.
This initial mode supports stock native ELF, PE and Mach-O imports on POSIX.
Windows, special pinned-loader profiles, caller-selected `.gpr` projects,
language/analyzer overrides, analysis seeds and extra analysis extensions are
not admitted with this setting; unset it to use their existing workflows.
The checkpoint directory must be private to the current user.
REA analysis snapshots remain separate immutable query results. Initial analysis
has a stable generation bound to the target and analysis profile: publishing its
first checkpoint neither replaces a live MCP session nor invalidates its initial
snapshot. Later saved states bind their content digest, so an edited checkpoint
can require reopening without an older `--snapshot`. Snapshot import and save
after live metadata mutation remain unavailable as before. Complete Evidence
retains the checkpoint directory and generation in its analysis profile; restored
reads also report the packed file's path and verified digest. Returned caveats
distinguish restored database state from fresh analysis.
Run `npm run verify:ghidra:checkpoints` with your existing Ghidra/JDK installation
to verify fresh CLI/MCP processes, name/comment/type preservation, competing
sessions, corruption refusal and explicit recovery. Lifecycle fixtures cover
save failure/retry and cancellation during checkpoint finalization separately.
### Reuse an existing Ghidra project
For repeated investigations, select an expanded local project marker with
@@ -1510,20 +1343,6 @@ in the project root; when omitted it defaults to the selected target's filename.
Paths, globs and command flags are not program names. The matching `.rep`
directory must be present; restore `.grez` archives with Ghidra first.
For a `.gzf` packed program, first import it into a new Ghidra project in an
existing, caller-selected directory. A packed program is not a `.grez` project
archive:
```bash
"$GHIDRA_INSTALL_DIR/support/analyzeHeadless" "/absolute/new-project-directory" "new-project" \
-import "/absolute/program.gzf" -noanalysis
```
Select the resulting `new-project.gpr` with `REA_GHIDRA_PROJECT_PATH`. If the
imported program name differs from the selected target's filename, set
`REA_GHIDRA_PROGRAM_NAME` to the name reported by Ghidra's import. REA then
opens its own read-only project copy; it does not import the packed program.
```bash
export REA_ANALYSIS_PROVIDER=ghidra
export REA_GHIDRA_PROJECT_PATH=/absolute/projects/app-analysis.gpr
@@ -1545,31 +1364,18 @@ the original database; REA reads selected files only for fingerprinting and copy
This mode does not copy unrelated sibling projects, rerun repair scripts, or
admit bridge database edits. Cleanup removes the owned copy.
The bridge checks the program's recorded import SHA-256 against the admitted
target digest. An unavailable or malformed recorded digest is reported as an
unverified identity, distinct from a known mismatch; neither admits the program
or triggers a fresh import. Select a matching target or explicitly configure a
different project or program. Changes to the source project also fail admission;
reopen the target to resolve a new profile after intentionally changing it.
target digest; mismatches and project changes fail explicitly. Reopen the target
to resolve a new profile after intentionally changing the source project.
The profile records the caller path, resolved project/name, program and content
fingerprint. Original analysis settings and completeness remain **unknown**;
prior annotations or edits are caller-project state, not fresh REA discoveries.
For supported header-selected MIPS ELF targets, the profile also binds the
selected target's ELF metadata; it does not claim a fresh-import MIPS lane was
used for the saved project.
A matching recorded import digest does not claim that the database is unedited.
Saved REA seed/analyzer reports remain historical facts in retained source Evidence;
they are not interpreted as overrides applied by this session.
Project content participates in snapshot identity, so different project states
cannot reuse the same profile's cached observations.
If a function selector is missing, use `list_procedures` or `search_procedures`
to inspect the selected project's observed inventory. A missing entry does not
prove the function is absent from the executable. To explicitly compare with a
fresh import, start another REA process without `REA_GHIDRA_PROJECT_PATH` and
`REA_GHIDRA_PROGRAM_NAME`; the fresh analysis will not include the selected
project's annotations.
To prepare a new project explicitly, use your existing Ghidra installation in a
new directory you own (this writes that project; REA does not save it for you):
@@ -1598,33 +1404,6 @@ REA passes `-processor`/`-cspec`, checks both against the installation's `.ldefs
Language definitions must be well-formed XML encoded as UTF-8 or BOM-marked UTF-16, with any encoding declaration matching the bytes. Literal Unicode replacement characters (U+FFFD) are accepted; malformed source bytes are rejected.
Ghidra imports little-endian ARM ELF files, including Cortex-M
(`arm-none-eabi`) firmware, as `ARM:LE:32:v8`. That language defaults to ARM
state, and its ELF loader marks code as Thumb only where `$t` mapping symbols
or odd function-symbol addresses say so. Cortex-M cores run only Thumb code, so
the gap matters mainly for code without those markers, such as stripped images
and handlers reached only through the vector table. REA has no M-profile ARM
lane. As an unverified interim, select an M-profile language, which decodes in
Thumb state by default. For ARMv6-M, ARMv7-M and ARMv7E-M cores:
```bash
export REA_GHIDRA_LANGUAGE_ID="ARM:LE:32:Cortex"
```
For ARMv8-M cores, use `ARM:LE:32:v8-m` instead. REA has not verified either
language for Cortex-M analysis. While the variable is set, it applies to every
Ghidra import in the REA server:
- raw-binary, DOS, GameCube DOL and PSP opens are refused, as are opens in
lanes that reject a different language, such as RISC-V;
- REA asks Ghidra to import everything else in the selected ARM language,
including x86, x86-64, arm64, PowerPC and Hexagon ELF files and PE and
Mach-O files, because it does not check that the override's processor
matches the target.
Restart REA without the variable before you analyze other targets. A future
M-profile lane may refuse it; remove the setting then.
To seed code that auto-analysis cannot reach (computed jumps, pointers in data):
```bash
@@ -1776,7 +1555,7 @@ On a controlled Windows x64 runner, use
`npm run verify:ghidra:windows`. The verifier generates a deterministic native
PE fixture from source bytes and requires the Windows native authority before
opening the provider. The controls are implemented on main; see the
[release boundary](#released-package-and-main). The lane verifies all 27 admitted
[release boundary](#released-package-and-main). The lane verifies all 26 admitted
read-only operations, digest identity, and runtime cleanup. The separate
`verify:ghidra:windows:package` lane checks the packed CLI/MCP boundary with an
ordinary user. It requires the built Windows native bundle and an existing
-7
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@@ -171,13 +171,6 @@ resource truncation. JavaScript summary `limitation_count` counts the full,
deduplicated union of parent, application and semantic caveats, including messages
whose delivery is omitted by the view's byte budget.
Symbolic property reads and member enumeration share the expression resolver's
existing resource budget, including recursive return spreads with fresh arguments.
A bounded source retains independent window, preload and endpoint facts while
reporting `parse_status: partial` and limited examination in `analysis_coverage`.
Unresolved recursive values remain unknown; selected views retain source coverage
separately from the completeness of the returned page.
Unavailable values are represented explicitly rather than as missing fields,
so absence of evidence cannot silently become evidence of absence.
+6 -60
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@@ -161,26 +161,8 @@ reached through `contains` from one of its children only leads further up its
containment chain, so a shared asset or artifact root does not pull in its
other children.
When a string seed has no application match and the supplied Evidence has a
semantic graph, `semantic_discovery` lists matching retained semantic node
labels and direct string call arguments using the same matching mode and case
rules. These are candidate starting
points, not application trace matches. Its graph coverage and total describe the
retained graph; missing or partial source coverage cannot establish absence.
Results follow retained node order and default to offset 0 and limit 64. Supply
`semantic_page` and follow `next_offset` for further matches. Use a returned
`trace_seed` with the same application Evidence and `trace_javascript_semantics`
to examine relationships from that node. Other typed seeds do not search labels.
The result contains the matching basis, complete reachable subgraph, terminal
paths, authority summaries, and native handoffs. A bidirectional trace of a
large application can exceed one MCP response. Over MCP, pass
`view: {"kind":"summary"}` or a `feature-trace` page of `paths`, `nodes`,
`edges`, `seed_matches` or `native_handoffs` to retain the complete trace in
the session and return only selected rows with the trace's identity and
coverage. Page the retained trace with `inspect_analysis_view`; an oversized
complete reply offers its first `paths` page as a ready-to-call continuation.
See [MCP contracts](mcp-contracts.md) for filters. A handoff binds
paths, authority summaries, and native handoffs. A handoff binds
the exact native artifact digest and requested exports from the application
graph. Trace direction selects the reachable addons; requested
exports for each selected addon come from the complete supplied graph, so an
@@ -205,10 +187,6 @@ rereading mutable files. A seed may identify a semantic or application node,
literal, function fingerprint, property, endpoint, event, or boundary field.
For a recovered parse, coercion, or validation boundary, its field value is the
static operation's method name (for example, `Number`).
When a recovered boundary call directly supplies a scalar binding, the graph
connects the boundary to that binding; unresolved boundary calls remain
candidates. A boundary nested inside another expression or compound assignment
does not establish a direct result binding.
The query declares backward provenance, forward influence, callers, or
ownership and can restrict admitted relation kinds. REA returns every matching
seed and the complete reachable subgraph; callers do not choose node, relation,
@@ -231,25 +209,6 @@ resulting value. Deferred callback bodies do not become inputs to the enclosing
assignment. Computed method keys belong to the enclosing callable; parameter
defaults and method bodies belong to the method. Uncertain later property reads
remain opt-in through `include_ambiguous_dynamic_edges`.
Binary, logical, unary, template, conditional, and sequence expressions retain
`influences` edges from supported immediate inputs to the result, then to a
direct declaration, assignment, call argument, or return. These are static
dependencies, not aliases or proof that the expression executed; conditional
operands and logical-assignment writes carry `conditional: true`. Unsupported
operand dependencies, unmodeled receiving containers, dynamic call results,
and sequence side effects remain unknown. An applicable
unknown makes the trace status `partial` even when a seed was found. Literal
operator operands, direct call arguments and directly returned scalar literals
can also be seeds. Older graphs that only recorded a call-site literal remain
searchable. The offered per-file node capacity also bounds the producer's
expression and operand collections before graph projection.
Expression nodes and unknowns share the existing per-file graph admission
budgets; omitted facts make graph coverage truncated and the trace partial.
Consumers that previously treated `found` as compatible with a relevant
unknown should handle `partial` and inspect the returned unknowns. Retained
graphs without `influences` edges remain readable but do not gain edges until
the application is analyzed again.
Global timer, `fetch`, `WebSocket`, `JSON.parse`, and coercion calls receive
these built-in effects only when the file has no visible possible write to that
global, including a computed write through a global object. The check does not
@@ -314,14 +273,7 @@ mapped candidate, but structural reachability, semantic influence, runtime
observation, and causal proof remain separate claims.
Semantic literal nodes keep their complete value in `properties.value`; literal
queries match that field. Call-site nodes also retain direct scalar arguments in
`properties.arguments`, with source argument indexes; literal queries can start
at those call sites. These are syntactic facts, not runtime values, and an index
after a spread is not necessarily the runtime argument position. Nonliteral
arguments and values not representable in JSON are omitted. The primitive byte
bound and the worker transfer record ceiling can also omit direct values; the
call-site unknown reports the applicable limit. String labels use
`string literal` when that is
queries match that field. String labels use `string literal` when that is
shorter than the complete JSON value. A literal's `identity.role_key` commits
its canonical JSON value as `value-sha256:<digest>` when the digest key is
shorter; smaller values keep their existing JSON key. This keeps large values
@@ -629,10 +581,8 @@ or process workflows.
## CLI and verification
All six CLI commands accept inline JSON or a path to a JSON file. The CLI
returns an Evidence record directly. Later workflow inputs can contain full
records, or exact retained references when `--evidence-bundle PATH` selects an
authenticated exported bundle. A separate CLI process has no retained MCP
connection state. See [CLI Evidence reuse](cli.md#import-export-and-compare-evidence).
returns an Evidence record directly. Put the full records in a later CLI input;
a separate CLI process has no retained MCP connection state.
File inputs must be regular files; symlinks to regular files are accepted.
Directories, named pipes and device files produce an input error before JSON
@@ -655,12 +605,8 @@ rea trace-application-feature ./trace-input.json --json
MCP analysis returns the complete Evidence record, with the operation result
in `normalized_result` and its identity in `evidence_id`. If the connected server advertises retained references, reuse its
exact returned ID as `{"kind":"retained-evidence","evidence_id":"RETURNED_ID"}`
in `application`, or `left`/`right` for comparisons. For summary or inspection
replies, use `normalized_result.parent_evidence_id` to select the complete source.
`RETURNED_ID` is a template, not a literal valid ID. Native-observation arrays
and `reconcile_javascript_runtime`'s nested static layers and runtime-observation
array also accept references where advertised, independently mixed with inline
records. Exact identity, coverage and partial or unknown facts are preserved.
in `application`, or `left`/`right` for comparisons. `RETURNED_ID` is a template,
not a literal valid ID. Native Evidence arrays still use complete records.
References are scoped to one connection; `close_binary` clears them. Export a
bundle before closing and import it on another connection, or supply the full
inline Evidence there. Versions before 4.1.0 accept full inline Evidence only; installing
+4 -56
View File
@@ -347,23 +347,6 @@ counterparts while resolving to inventoried source files. This substitution
requires import or require semantics. Literal Electron preload, renderer, and
utility-process runtime paths retain the runtime filename selected by the caller.
Application `.js` and `.ts` sources use the nearest readable, same-container
`package.json` type; explicit module/CommonJS suffixes keep their own meaning.
An unavailable nearer manifest leaves the package type unknown. When a module
package contains `.js` sources, a preliminary pass through the bounded worker
collects BrowserWindow preload declarations. Exact same-container `.js`
preloads use the script-loader context even when their only operation is a
helper `require`. Renderer API names alone never select that context. Dynamic,
unresolved, excluded-source, and cross-container declarations do not establish
a preload identity; this static association is not proof that Electron loaded
the file. Discovery performs another static pass, while semantic projection
runs once and existing heap, deadline, cancellation, and cleanup controls remain.
A source that exceeds its worker limits during discovery contributes no
declarations, and any other discovery failure ends discovery; source analysis
then records that failure and retains partial Evidence as usual. Either gap is
also listed in the Evidence limitations, because source analysis may still read
that source after a declared preload has kept its package scope.
Selected bounded text is then parsed as inert data to recover:
- `package.json` metadata and declared main or renderer entrypoints;
@@ -558,14 +541,6 @@ the same artifact. Inline option syntax keeps its observed Evidence. This
does not execute code or establish runtime configuration; popup overrides from
`setWindowOpenHandler` are not covered by this constant-options resolution.
A hoisted function does not establish initialization timing by declaration order.
For classic scripts, the shared index also accounts for matching literal global
property accesses through `globalThis`, `window`, `self`, and `this`, including
optional and computed literal access. An early read or an indirect activation
keeps captured options unknown even when a later bare call exists. ES module
function declarations are not inferred to be global properties. This remains a
bounded source-order check, not a proof that runtime activation succeeds.
Recognized literal module-table bootstraps also support bounded lexical
substitution through module exports, import helper bodies, local wrapper calls,
returned closures, object spreads, and callback parameters. Recovered Electron
@@ -585,8 +560,6 @@ alternative object. A traced invocation whose key, API object or world stays
unresolved or guarded keeps the call's own unresolved observation.
Unknown spreads, reassigned bindings, accessors,
dynamic channels and unsupported syntax do not become exact implementations.
Literal switch cases retain their selection conditions. Possible fallthrough
remains partial; dynamic case expressions remain unknown.
This pass neither executes the bundle nor proves that runtime guards pass.
An ambiguous or unresolved handler retains its channel registration but does
not acquire a path to one arbitrarily selected callback. Unknown factory
@@ -669,13 +642,7 @@ identity. This static check does
not evaluate arbitrary call side effects or runtime registration. Missing findings
do not establish that an application has no Electron boundary usage.
IPC pairing is an inference, not an observation. A main handler registered on an
unresolved channel may receive any literal channel, so a compatible renderer send
or `invoke` beside it is ambiguous, not unpaired. A wrapper's registration is
exempt only when every invocation is a traced direct call supplying a literal
channel, each recorded as its own finding. A guarded invocation keeps its
predicate on a call path instead, so its channel still competes without pairing.
A renderer `invoke` pairs only
IPC pairing is an inference, not an observation. A renderer `invoke` pairs only
with one unique `ipcMain.handle`/`handleOnce` candidate on the same exact literal
channel; a renderer send pairs only with one unique `ipcMain.on`/`once`/`addListener`
candidate. Dynamic channels are never paired, and multiple compatible handlers
@@ -901,22 +868,8 @@ and Evidence. If that expansion does not fit, the file node retains
`static_analysis` and any admitted `semantic_module_analysis` observations,
including their exact values and source locations. Use the public modules item
view to read them. The graph marks those unexpanded relationships as unknown.
The parent charges everything it retains against the heap that was free when
analysis started, less a transfer reserve. Semantic facts and expanded
relationships stop at half of that capacity, and a source refused there keeps
its static facts with the refusal reported. Static facts can continue to three
quarters of it while the live heap also has room for another copy of what it
holds, so results charged for earlier sources do not cost later sources their
static facts when the heap can still hold them. When that share runs short,
relationships that were reserved but not yet expanded are given up before any
static facts, and each affected file reports the omission.
If static facts themselves exhaust that share, or the parent's live heap cannot
hold the next checkpoint, analysis stops; inventoried but unexamined files remain
present with explicit unknown scopes. The failure reports the limit that applied
in bytes, what was still available, the live heap in use and what the checkpoint
needed.
If cumulative result capacity is exhausted, analysis stops; inventoried but
unexamined files remain present with explicit unknown scopes.
### Large local JSON inputs
@@ -1041,12 +994,7 @@ reason in the renderer observations.
HTML script source ranges follow the HTML parser across LF, CRLF, and bare CR
line endings, preserving UTF-16 columns.
Inline JavaScript in local HTML, meaning classic or module `<script>` bodies
without a `src` attribute, is not analyzed. Embedded SVG scripts use `href`
(or `xlink:href` when `href` is absent) instead: an existing reference, even
an empty one, suppresses the inline body. SVG's `src` and HTML-only `language`
attributes do not suppress its JavaScript body. SVG references and inline
bodies share the same inert parsing and source coordinates as HTML scripts;
template content stays inert. Each HTML file that has an inline body gets an
without a `src` attribute, is not analyzed. Each HTML file that has one gets an
unknown `parse-html-inline-scripts` scope with the exact body count and the
script type and source range of the first 100 bodies; beyond that, coverage is
truncated under the `html_inline_script_locations_per_file` limit, and the
+2 -3
View File
@@ -65,9 +65,8 @@ confidence and basis, and does not prove a backend endpoint or reachability.
Pages obey the shared 1 MiB projection budget; MCP transport applies its own
wire-size guard. A byte-limited page returns a continuation; an indivisible
oversized record or metadata returns a typed resource error. Select fewer
fields or retrieve the complete retained parent through `get_evidence_bundle`
(`detail: "records"` with its `evidence_id`), `export_evidence_bundle`, or the
CLI's exported bundle. Full Evidence is never
fields or retrieve the complete retained parent through `get_evidence_bundle`,
`export_evidence_bundle`, or the CLI's exported bundle. Full Evidence is never
silently truncated.
Collections are `summary`, `routes`, `occurrences`, `sources`, and `unknowns`.
+1 -7
View File
@@ -93,19 +93,13 @@ coverage. It does not print captured source text.
Runtime targets, frames, scripts, and workers become capture-scoped graph
nodes. REA evaluates compatible static candidates conservatively:
V8 Inspector targets whose protocol type is `node` use JavaScript asset/module
candidates for their verified entry location. A target-only correspondence does
not mark that script loaded; load-state evidence requires a script observation.
1. A captured-source SHA-256 plus one matching mapped location yields
a content-and-location match.
2. When no static candidate exists at a mapped location, one unique exact
content digest can match. Whole-asset digests and reconstructed module-factory source
digests remain distinguishable in the reported basis.
3. Without captured bytes, one unique mapped artifact path can produce a
medium-confidence location match. A proven factory module contained within
the located asset is not a competing whole-file location; separate assets
and independently plausible modules remain candidates.
medium-confidence location match.
4. Multiple candidates remain `ambiguous`; no `observed_as` edge is emitted.
With captured source and mapped candidates, only mapped content matches
qualify; unrelated content matches elsewhere are excluded.
+2 -3
View File
@@ -64,9 +64,8 @@ All four preserve target-file bytes. `open_jeb_project` selects or creates an en
- When `decompile_jeb_item` omits `unit_path`, the engine implicitly selects the project's first code unit; REA reports `unit_path: null` and a limitation instead of guessing the effective unit.
- `item_address` is a JEB code-item reference, such as a value returned by the engine's `list_code_items`. Preserve that representation and select its code unit explicitly. For the audited CE SQLite unit, the exported method reference was `sqlite3_libversion_number`; using its raw ELF symbol address did not produce a successful decompilation. File offsets, ELF virtual addresses and engine item references have different semantics. REA currently exposes unit listing, while code-item discovery remains an upstream JEB operation.
- Valid engine refusals (`success: false` envelopes) return `execution_failure` with the engine's message when available. Diagnostics preserve the original envelope, including any recovery advice, and the inputs of a refused primary request. If client metadata fails after a primary reply, that reply and the caller's inputs remain in partial Evidence. REA does not infer an unsupported target from a refusal, invoke a recovery tool, or retry the request.
- Successfully parsed client information is reused within the current MCP session, including when the engine omits its version. Explicit client inspection and availability probes refresh it; reconnecting invalidates the cached information.
- An unreachable endpoint is a provider-availability failure with recovery guidance; REA does not spawn the engine or automatically replay failed operations.
- After a transport or RPC failure (including a request or catalog timeout), the next explicit call attempts a new MCP connection after cleanup succeeds. Engine version and GUI mode are refreshed for that connection. Caller cancellation and decoded engine refusal envelopes preserve the existing connection.
- Successfully parsed client information is reused for the lifetime of the MCP connection, including when the engine omits its version. Explicit client inspection and availability probes refresh it.
- An unreachable endpoint is a provider-availability failure with recovery guidance; REA does not retry or spawn the engine.
Real-engine verification lives in the JEB lane described in [testing.md](testing.md); mock transport tests do not establish real-engine compatibility.
+6 -41
View File
@@ -1,27 +1,9 @@
# Kuna provider
[Kuna](https://github.com/Noelo-Lab/kuna) is an Apache-2.0 decompiler distributed as one `kuna` executable. For a new installation, use Kuna 1.990, REA's recommended verified release. REA uses a `kuna` you supply; it does not download, install, update or bundle Kuna. REA accepts other releases; `rea doctor` and analysis Evidence report them as unverified. Verification compares the reported version; it does not authenticate the executable. Analysis profiles retain the observed version and executable digest, independently of REA's current verified-release policy. The 1.990 real-provider checks ran on macOS arm64; Linux and other hosts have not been verified with that release.
[Kuna](https://github.com/Noelo-Lab/kuna) is an Apache-2.0 decompiler distributed as one `kuna` executable. REA uses a `kuna` you supply. It does not download, install, update or bundle Kuna. REA verified this provider with Kuna 1.833; it accepts other releases and reports them as unverified in `rea doctor` and in each analysis profile.
Kuna is static: it reads the selected image and never executes it.
This profile change makes earlier Kuna analysis snapshots and resumable directory
exports incompatible, even with the same Kuna executable. Keep the old files:
their recorded Evidence remains historical. To continue analysis, open the
binary without the old snapshot and save a new one, or choose a new export
directory. Existing snapshot Evidence can be extracted from its
`evidence_bundle` JSON member and imported as a separate Evidence bundle; that
does not restore cached workflow entries or resume the old directory export.
For example, using `jq` and a new output path:
```bash
jq -e '.evidence_bundle | select(type == "object")' old-snapshot.json > history.json
rea evidence-import history.json --json
```
The CLI command validates the bundle in a one-shot session. To use the records
in an MCP session, call `import_evidence_bundle` with the extracted file path.
This validates the embedded bundle, not the rest of the snapshot container.
## Configure
```bash
@@ -48,10 +30,6 @@ completes. Cleanup retries keep both the observations and the exact file owner.
| `REA_KUNA_TIMEOUT_MS` | 120 s | Deadline for one single-function decompile, and for the inventory run REA makes when the export ends without one. |
| `REA_KUNA_JOBS` | 1 | `decompile-project --jobs`. 1 is Kuna's reference answer; more jobs finish sooner but lose callee-first prototypes, and change about 40–60% of function bodies on the measured binaries. |
Pseudocode read from a parallel project export includes a prototype-context
limitation in its Evidence, including in function dossiers and composed
workflows. Early single-function results have their own source limitation.
A single-function decompile, inventory, string, graph or xref run that exceeds its deadline fails as `provider_timeout`, naming the setting that owns the deadline and that raising it takes a restart. A project export that exceeds `REA_KUNA_PROJECT_TIMEOUT_MS` is an export failure instead: requests that need the export report `capability_unavailable` with the export's own retry guidance.
Windows is not supported yet. Supported targets are ELF and thin Mach-O executables for x86-64, AArch64 and ARM; PE and universal Mach-O are rejected with a typed reason.
@@ -60,7 +38,7 @@ Windows is not supported yet. Supported targets are ELF and thin Mach-O executab
| Tool | Source |
| ----------------------------------------------------------- | -------------------------------------------------------------------------------------------------------------------------------- |
| `list_procedures`, `search_procedures`, `procedure_address` | Kuna's callable inventory (`kuna functions --json`), including import slots but not [Mach-O data](#mach-o-data-entries) |
| `list_procedures`, `search_procedures`, `procedure_address` | Kuna's callable inventory (`kuna functions --json`), including import slots it does not decompile |
| `address_name` | Function entries, then the data labels Kuna's export assigns |
| `procedure_pseudo_code`, `batch_decompile` | The project export, or a single-function run while the export builds |
| `procedure_assembly` | The project export's labeled listing |
@@ -69,8 +47,6 @@ Windows is not supported yet. Supported targets are ELF and thin Mach-O executab
| `xrefs` | Exact-address incoming reference sites, with forwarding aliases filtered explicitly |
| `analyze_function` | Pseudocode and assembly from the export, plus call relationships; typed references, comments, strings and CFG remain unavailable |
Kuna's inventory gives some entries aliases, such as ELF versioned-symbol names and generated `sub_` names. Name selectors accept an alias that names one entry and list every entry a shared alias names. `search_procedures` matches aliases too: each entry appears once under its primary name, with the matching aliases in `matched_aliases`. `list_procedures` shows primary names only.
Typed procedure references, basic blocks, raw-memory tools, annotations and type recovery are not available from this provider. Use another provider for those operations.
## How answers are produced
@@ -83,10 +59,10 @@ The first text or assembly request in a session looks for this target's export i
- Meanwhile, pseudocode comes from one `kuna decompile --addr` run. Name and address lookups, and listings, use the inventory the export takes with `kuna functions --json` before it decompiles. The session runs `kuna functions` itself, under `REA_KUNA_TIMEOUT_MS`, only when no export is building (an inventory-only request does not start one) or the export ends without an inventory.
- Requests for the same function share one run; it stops when its last waiting request is cancelled. Each run analyzes the whole image again in its own process, so one REA process runs at most as many at once as the host has cores beyond `REA_KUNA_JOBS` (at least one). Further requests wait in order, and a waiting request is answered from the export if it finishes first. A run whose stop REA cannot prove keeps its slot until `close_binary` proves it stopped.
- The session keeps each completed single-function text, up to 16 MiB in all with the least recently used dropped first, and answers repeats from it until the export can. After a failed export that lasts for the session.
- Assembly and data names wait for the export; progress notifications report the wait every ten seconds. A session does not rebuild a failed export: requests that need it fail with `retryable: false`, the export's failure, its captured Kuna output and what to change before reopening the target. REA does not expose per-function records from a failed project export, even if the retained Kuna diagnostic refers to them. Single-function fallback Evidence reports the failed state and this limitation. If cleanup remains incomplete, its error takes precedence and `close_binary` retries the retained resources. A setting such as `REA_KUNA_PROJECT_TIMEOUT_MS` or `REA_KUNA_JOBS` is read when REA starts, so changing it also needs a restart. Pseudocode keeps using single-function runs.
- Assembly and data names wait for the export; progress notifications report the wait every ten seconds. A session does not rebuild a failed export: requests that need it fail with `retryable: false`, the export's failure, its captured Kuna output and what to change before reopening the target. A setting such as `REA_KUNA_PROJECT_TIMEOUT_MS` or `REA_KUNA_JOBS` is read when REA starts, so changing it also needs a restart. Pseudocode keeps using single-function runs.
- A single-function answer says so in its limitations. It lacks the export's whole-program prototypes, so a later request can return different text for the same function.
Pseudocode, assembly, `analyze_function` and data-name answers record where their text came from in `raw_result.source`: `single-function`, or `project-export` with the cache directory. `procedure_pseudo_code` and `procedure_assembly` answers from the export also name the file, byte span and the file's SHA-256. Combined `analyze_function` answers retain both facet records in `raw_result.source.files`, each with its file, digest and byte span. Both texts come from one export; losing that project retries the complete report. Listings and procedure lookups carry no `raw_result`; omitted [Mach-O data entries](#mach-o-data-entries) are reported in their limitations. Agents can open or search the export's `.c` and `.asm` there directly when that is cheaper than calling a tool per function. Text read that way is target-derived, like any decompiler output, but it bypasses the untrusted-content marker that REA's tool results carry.
Pseudocode, assembly, `analyze_function` and data-name answers record where their text came from in `raw_result.source`: `single-function`, or `project-export` with the cache directory. `procedure_pseudo_code` and `procedure_assembly` answers from the export also name the file, byte span and the file's SHA-256. Combined `analyze_function` answers retain both facet records in `raw_result.source.files`, each with its file, digest and byte span. Both texts come from one export; losing that project retries the complete report. Listings and procedure lookups carry no `raw_result`. Agents can open or search the export's `.c` and `.asm` there directly when that is cheaper than calling a tool per function. Text read that way is target-derived, like any decompiler output, but it bypasses the untrusted-content marker that REA's tool results carry.
The background export belongs to the session. `close_binary`, or the end of a CLI command, cancels it unless another session still waits for it. A one-shot CLI decompile therefore answers from a single-function run; any request that needs the export, such as `procedure_assembly` or `analyze_function`, keeps it.
@@ -94,18 +70,7 @@ The assembly label index is scanned once per export reader. Cancelling a request
Regex procedure and string search uses ECMAScript Unicode matching in a cancellable worker with a matching deadline and a worker old-generation heap. Literal matching remains the default. Cancellation or a matching deadline leaves the session available. The deadline is `REA_REGEX_MATCHING_DEADLINE_MS`, a positive decimal integer from 1 to 2147483647 ms. Unset uses 5000 ms. A larger value is refused because Node schedules a delay past that signed 32-bit bound as 1 ms. Invalid values are configuration errors and do not fall back to the default. The setting is read from the environment that starts REA, so a change needs a restart. A deadline failure names the effective milliseconds, whether they came from the default or the setting, the default, and the maximum. The worker old-generation heap does not raise it. The worker heap request is `REA_REGEX_WORKER_HEAP_REQUEST_MIB`, a decimal integer from 7 to 16384 MiB. Unset uses 128 MiB. A request below 7 MiB aborts the worker during startup, and a larger value is refused. Invalid values are configuration errors and do not fall back to 128. The setting is read from the environment that starts REA, so a change needs a restart. A heap failure names the effective request, whether it came from the default or the setting, the default, the floor, and the maximum. A positive Node.js `--max-old-space-size` on the process that starts REA, including `NODE_OPTIONS`, overrides that request and sets the effective heap. `--max-old-space-size-percentage` takes precedence over that flag in either order. REA does not turn the percentage into a MiB, so the effective heap stays unestablished instead of the worker heap request or the absolute flag. The reported `NODE_OPTIONS` value is the process initial environment when that block can be read. A later edit to the environment is not the value Node applied, and an unreadable initial value leaves the effective heap unestablished. The launch Node options are the initial command line on Linux when that buffer still has a program entry, not a later edit to `process.execArgv`. A preload can clear that array after V8 has applied the flags. Setting `process.title` or `--title` overwrites the command line, so a buffer without a program entry leaves the effective heap unestablished. `--env-file` or `--env-file-if-exists` can supply `NODE_OPTIONS` when the initial environment has none. That file is not part of the initial environment block, so the effective heap stays unestablished instead of the worker heap request. An initial `NODE_OPTIONS` is still used, because Node does not let the file replace it. A positive `--max-heap-size`, including the underscore form and launch `NODE_OPTIONS` on Node versions that allow it, sets the total heap rather than the old generation and can be lower than the worker heap request. The effective old generation stays unestablished while that value is in effect. A zero or empty value clears it. `--experimental-config-file` or `--experimental-default-config-file` can set `nodeOptions`, including a heap percentage, from a file that is not read back. The effective heap stays unestablished when either flag is present, including when an absolute `--max-old-space-size` is also on the command line or in the recovered `NODE_OPTIONS`. Node accepts the config path as `=` or the next argument.
Single-function subprocess output and each cached source facet share a 16 MiB buffered-text capacity. Cached spans are checked before allocation; larger project-export spans remain in the local export and the error identifies the file and range. A single-function run does not by itself retain a complete project export. `analyze_function` with `detail: "complete"` (the CLI default) returns the complete dossier inline, which can still be large; later retained views do not remove that first transfer. The MCP default retains the dossier and returns its summary, so page the facets you need through `inspect_analysis_view`, or prefer the individual text tools for a focused question.
## Mach-O data entries
Kuna's inventory also lists Mach-O exports that are data, such as globals in `__DATA,__data`, constants in `__TEXT,__const` and `__mh_execute_header`. REA classifies each entry with the target's own section table, the same load-command facts `inspect_macho` reports, read from the leading bytes kept while the session's private copy is hashed:
- A section with `S_ATTR_PURE_INSTRUCTIONS` or `S_ATTR_SOME_INSTRUCTIONS`, or of type `S_SYMBOL_STUBS`, holds code; the entry stays.
- A lazy or non-lazy symbol-pointer section (`__got`, `__la_symbol_ptr`) holds import slots; the entry stays.
- Any other section, or the header and load commands before the first section, holds data. Listings and searches omit the entry and say how many they omitted in each region. Pseudocode, assembly, `analyze_function` and `procedure_address` refuse it by name or address, and call queries refuse its name, naming its region; call queries by exact address stay validated by Kuna's graph. `address_name` and `xrefs` still accept it.
- An address outside every section and the header stays, with a limitation saying REA cannot classify it. If the section table cannot be read, every entry stays and listings say why. Answers about one such entry, including pseudocode, assembly, `analyze_function`, `procedure_address`, call queries by name and `address_name`, carry the same limitation; code and import slots carry none.
A section's attributes are the format's declaration, not proof of what runs there, and a kept entry is not proven to be a function. ELF inventories are kept as Kuna reports them. On a Mach-O target, the first listing or lookup establishes the private copy that Kuna commands also use, once per session, even when a warm export answers it.
Single-function subprocess output and each cached source facet share a 16 MiB buffered-text capacity. Cached spans are checked before allocation; larger text remains in the local export and the error identifies the file and range. `analyze_function` with `detail: "complete"` (the CLI default) returns the complete dossier inline, which can still be large; later retained views do not remove that first transfer. The MCP default retains the dossier and returns its summary, so page the facets you need through `inspect_analysis_view`, or prefer the individual text tools for a focused question.
## Strings
@@ -172,7 +137,7 @@ the manifest's file identity as well as the export files. These refusal and
migration cases are verified with controlled Kuna-format exports; they do not
establish behavior of an independently installed Kuna release.
Builds publish by one rename, so a reader sees a complete export or none. If later staging retirement fails, the typed cleanup error retains the completed export's key, directory and manifest in `published_export`. The session adopts that verified project; later queries reuse its immutable files while `project_export.cleanup_incomplete` reports the retained owner's live state. `close_binary` retries only the remaining cleanup, and a successful retry resolves prior cleanup errors. A failed export followed by failed staging cleanup retains both failures; it does not invent a publication receipt. A session keeps the export it uses from eviction only within its own REA process. If another REA process sharing the cache evicts it, the session rebuilds it; meanwhile pseudocode falls back to single-function runs. A damaged or edited export is removed and rebuilt. REA retains the file state verified with each digest, checks it before warm-cache reuse, and checks open descriptors before and after reading text. Assembly indexes are checked against the same state; a changed file makes the whole report retry rather than mixing facets from different exports. Staging moves to `trash/` for removal only after REA proves its Kuna process stopped. Staging of a process it cannot prove stopped is never swept; REA keeps it owned, retries the stop on `close_binary`, and reports it until the stop is proven; that MCP error names the same-connection retry as `recovery.kind=retry_cleanup` ([retained cleanup retry](mcp-contracts.md#retained-cleanup-retry)). Failed file removal also stays bound to its export and is retried by `close_binary`; closing does not report success while that cleanup remains. `rea doctor --provider kuna` reports the cache directory without creating it.
Builds publish by one rename, so a reader sees a complete export or none. If later staging retirement fails, the typed cleanup error retains the completed export's key, directory and manifest in `published_export`. The session adopts that verified project; later queries reuse its immutable files while `project_export.cleanup_incomplete` reports the retained owner's live state. `close_binary` retries only the remaining cleanup, and a successful retry resolves prior cleanup errors. A failed export followed by failed staging cleanup retains both failures; it does not invent a publication receipt. A session keeps the export it uses from eviction only within its own REA process. If another REA process sharing the cache evicts it, the session rebuilds it; meanwhile pseudocode falls back to single-function runs. A damaged or edited export is removed and rebuilt. REA retains the file state verified with each digest, checks it before warm-cache reuse, and checks open descriptors before and after reading text. Assembly indexes are checked against the same state; a changed file makes the whole report retry rather than mixing facets from different exports. Staging moves to `trash/` for removal only after REA proves its Kuna process stopped. Staging of a process it cannot prove stopped is never swept; REA keeps it owned, retries the stop on `close_binary`, and reports it until the stop is proven. Failed file removal also stays bound to its export and is retried by `close_binary`; closing does not report success while that cleanup remains. `rea doctor --provider kuna` reports the cache directory without creating it.
## Verify with a real Kuna
+4 -113
View File
@@ -40,38 +40,6 @@ inspection is needed; see [selected member inspection](#selected-member-inspecti
Compare separate builds with [member comparison](#member-comparison), preserving
their paths, digests, and selection scope.
### Field constant defaults
`inspect_managed_members` reads field-owned values from the ECMA-335 `Constant`
table without loading the assembly. Each selected field's `constant` contains
the declaration's row offset, element-type code, blob index and exact `raw_hex`,
plus its decoded `element_type` and `value`. For example, an `i4` declaration
with bytes `865d0000` returns `23942`.
Boolean, character, signed/unsigned integers, floating-point, UTF-16 strings
and class-null declarations are supported. `i8` and `u8` values are decimal
strings to avoid JSON integer precision loss. Floating-point negative zero,
NaN and infinities are the strings `-0`, `NaN`, `Infinity` or `-Infinity`;
`raw_hex` preserves their original bits. UTF-16 code units, including embedded
NULs and unpaired surrogates, are preserved.
`constant: null` means neither a Constant declaration nor `HasDefault` was
observed. Historical Evidence can omit the field entirely; omission does not
prove that the artifact has no default. Missing or duplicate declarations,
inconsistent flags, malformed values and unsupported element types return
`state: "unavailable"`, a limitation and partial coverage while retaining other
member facts. This decoding shares the existing metadata representation budget
and only decodes blobs for the selected fields.
Retained `managed-members` field pages can select `fields: ["constant"]` while
keeping original field identity and source offsets. These values are metadata
declarations, including enum members' encoded underlying constants, not observed
runtime state or inferred enum-name mappings. Parameter/property defaults are
not exposed by this field-focused reader. Member comparison still covers field
names, flags and signatures; it does not compare constant defaults.
The encoding follows [ECMA-335, Partition II, sections 22.9 and 23.1.16](https://ecma-international.org/publications-and-standards/standards/ecma-335/).
### Metadata overview and retained rows
The existing CLI and omitted/complete MCP detail return complete metadata
@@ -152,50 +120,6 @@ literal pool's own coverage. Older Evidence that never examined exported types
or user strings reports a null count and refuses those pages rather than
returning an empty one.
To find specific retained members without returning their IL anchors, select
exact names and defining types, then project columns:
```json
{
"source": {
"kind": "retained-evidence",
"evidence_id": "<parent_evidence_id>"
},
"view": {
"kind": "managed-members",
"collection": "methods",
"names": ["ParseNumber", "ParseReadNumber"],
"declaring_types": ["Newtonsoft.Json.JsonTextReader"],
"fields": ["name", "declaring_type", "signature"],
"offset": 0,
"limit": 64
}
}
```
Filters are exact and case-sensitive; lists are alternatives and filters
intersect. An empty list matches nothing. Names select `name` in types,
exported types, fields, methods and member references; in call edges they select
`target_name`, and in field accesses `field_name`. Declaring-type filters select
`declaring_type` in fields/methods, `parent_name` in member references,
`target_declaring_type` in call edges and `field_declaring_type` in field accesses.
Types, exported types and user strings do not accept a declaring-type filter;
user strings do not accept a name filter. No display strings are reparsed.
`fields` accepts only columns of that collection. Omitting it preserves full
rows, including method bodies. Selecting `body` explicitly returns the full
recorded body and anchors; selecting no columns (`[]`) returns identity fields.
Projected or filtered rows add their original `source_index`; tokens and source
byte offsets remain, with defining/parent tokens or IL-site endpoints where
applicable. The page retains module/MVID, artifact digest, parent Evidence,
producer selection and source coverage. Full facts remain in the parent.
Paging offsets and totals count known matches in original order. `source_count`
counts the producer-returned collection; `unresolved_filter_rows` counts rows
that could match but lack a requested name/type. Those candidates remain unknown
and are excluded from the matched total. Exhausting the known matches does not
prove absence among unresolved or unexamined source rows.
#### CLI summary and saved member rows
The CLI accepts the same `complete` and `summary` detail choices. Omitted or
@@ -243,17 +167,13 @@ authenticates the saved bundle; the full source is retained on disk.
The canonical parser admits PE/CLI bytes and their metadata/CIL without loading
an assembly. It reports observed implementation markers and unavailable facts;
it does not itself unpack .NET single-file hosts or infer a NativeAOT identity
from an ordinary native PE. It does not decode IL2CPP; use
it does not unpack .NET single-file hosts or infer a NativeAOT identity from an
ordinary native PE. It does not decode IL2CPP; use
[IL2CPP metadata](il2cpp-metadata.md) for the image, type and method names in a
Unity `global-metadata.dat`. Inputs without admitted CLI metadata do not
become managed assemblies through naming or routing guesses.
Inspect separately obtained components explicitly and preserve their identities.
For ordinary .NET single-file hosts, use the existing artifact tools to
[inventory and extract bundle members](dotnet-bundles.md), then inspect the
extracted assembly explicitly with the managed tools.
A valid implementation marker establishes a candidate native boundary, not
recovered native semantics or runtime behavior.
@@ -280,21 +200,6 @@ inspects its two selected paths sequentially, retaining each inspection rather
than both full byte snapshots. The limit therefore remains a per-file resource
admission rule, not an aggregate comparison limit. Comparison Evidence keeps
the caller-selected paths as its parameters and artifact locations.
When either side's member inspection exceeds its representation budget, the
comparison limitations name that side and its `resource-limit` diagnostic; its
empty member collections do not establish added or removed members. Each side's
`resource_limits` preserves the reported diagnostic's code, scope, detail and
nullable offset. An empty array means no resource limit was reported; historical
comparisons omit this field, leaving those diagnostics unrecorded. Always read
the comparison coverage alongside member counts. To compare
a smaller selection, pass the same repeatable `--type` full names that
`inspect-managed-members --type` accepts to `compare-managed-members`, which
applies them to both sides and records them as `type_names`; over MCP, compare
two `inspect_managed_members` Evidence records selected with the same
`type_names`. A single selected type can still exceed the budget.
The two-record MCP workflow keeps full source Evidence available for
`inspect_analysis_view` field selection and paging; path-based CLI comparison
records the selected paths, type names and per-side diagnostics.
Input overflow returns a resource constraint. Decode or projection overflow
reports `resource-limit` with unavailable or partial coverage; omitted facts do
@@ -527,18 +432,8 @@ raw digest stands in. Missing or unreadable TypeDef and TypeRef operands are
reported as coverage issues. Invalid NestedClass rows retain their failure
reasons and withhold TypeDef signature identities; type names and nesting are
parsed once by their shared owner. Each current inspection records
`signature_resolution: "type-names-v2"`, even when none of its operands can be
resolved. Version 2 also appends readable names to signature operands, for
example `class:7772 (AnalysisJob)`. Coded indexes remain build-local references;
names are display text and do not change raw or resolved signature digests.
Nested names use `Outer/Inner`. Generic instantiations keep their decoded
arguments, for example ``class:9 (System.Collections.Generic.List`1)<string>``;
custom modifiers are named too. Valid but unresolved TypeSpecs, invalid scopes,
unreadable type names, cycles and nesting beyond the cap keep their raw operand
spelling. Invalid or missing metadata coordinates retain the existing malformed
signature result and source issue; rendering does not bypass validation.
Version 1 Evidence remains readable and compares using the same digest policy.
Historical Evidence defaults this attestation to `null`. When either
`signature_resolution: "type-names-v1"`, even when none of its operands can be
resolved. Historical Evidence defaults this attestation to `null`. When either
observation predates resolution, both sides compare raw digests, which pair only where type rows agree,
and the comparison reports that limitation. The signature is exact whether or
not REA decoded it, so undecoded signatures pair by that tuple too, but they
@@ -739,10 +634,6 @@ refer to the pointer table when present rather than necessarily contiguous
definition rows. Invalid or nonmonotonic list coordinates and malformed or
ambiguous pointers leave affected owners unknown with partial coverage while
preserving readable member and attribute facts.
For each list column, ordering checks compare consecutive valid coordinates
even across invalid rows. A provable decrease leaves the affected ownership
unknown. Retained declaring-type filters count these candidates in
`unresolved_filter_rows`; omit that filter to retrieve their known-name rows.
The retained inverse indexes are admitted against the existing representation
budget before allocation.
-140
View File
@@ -1,140 +0,0 @@
# Measure MCP catalog costs in Codex
Use actual harness usage to evaluate catalog changes. A `tools/list` JSON byte
count measures transport size. It does not establish how many tokens a client
submits to a model, whether it defers schemas, or the total cost of an analysis.
The pinned [Codex observations](verification/mcp-catalog-codex-2026-11-05.md)
include actual loading controls, an unavailable-host negative control and a
completed real-package pilot.
## Run a controlled loading comparison
Build the selected source checkout with the pinned Node and npm versions first:
```sh
npm ci
npm run build:cached
npm run eval:mcp-catalog -- --model gpt-6.1-sol \
--output "$HOME/.cache/rea-catalog-run" --repetitions 3 --plan
```
Remove `--plan` to execute the matrix. This makes real model requests using the
local Codex authentication. The output directory must not already exist. No
account configuration is changed. The runner copies only authentication into
an external disposable profile and removes that profile after each trial.
Execution stays outside both source checkouts even when results are saved inside
one, so ancestor repository instructions and skills do not pollute the trial.
The npm entrypoint holds the driver's artifact lock throughout the matrix. A
selected external checkout has its own lock, so the matrix also pins one runtime
fingerprint and binds its catalog receipt to that manifest. Freshness checks
stop further model calls if the runtime changes between trials. Each trial's
before/after fingerprints must match the matrix pin; different builds never form
a valid pair. Matrix admission/freshness audits sit outside individual guarded
trial resource measurements. Do not rebuild the selected runtime concurrently.
This lane requires Linux, Python 3, a working user systemd manager with cgroup v2,
and an installed Codex CLI supporting the recorded flags. It reuses the existing
resource observer: one CPU, 4 GiB hard memory limit, 3 GiB early stop, no swap,
and a 192-task ceiling. Runs are sequential. Unsupported clients, resource stops,
failed startup, missing usage, and unverified cleanup remain failed measurements.
They do not become zero-cost successes.
Trials disable account apps and plugins explicitly. A fresh `CODEX_HOME` alone
does not prevent account-connected tools from appearing in the client executor
catalog. For a deliberate mixed-catalog investigation, run `agent-trial.py` with
`--include-account-tools`; keep those results separate from REA-only trials.
The settings receipt records the same feature policy written to Codex config.
Each repetition compares no server, all REA tools, and a client-selected subset
(`binary_session` by default), in the supported client-code host mode. Alternate
repetitions reverse ordering. All variants receive the same developer instructions
and exact-response prompt. A valid loading trial completes one turn, returns
`CATALOG_OK`, and performs no tool calls. REA is marked `required` in every
server-enabled configuration. The runner explicitly disables/enables the stable
`code_mode_host` feature for direct/client-code modes. The old `code_mode` and
`code_mode_only` switches do not override Codex 0.165's enabled host default.
The requested flags and CLI version are retained; verify the actual call shape
in completed-task traces too. `--modes direct client-code` adds a diagnostic
host-disabled control. This installed Codex reports that disabling the host
makes tool dispatch unavailable; it does not provide a qualified eager/direct
comparison. An empty response alone cannot qualify tool availability. Errors
invalidate that profile even when the model still emits the expected marker.
Useful controls:
```sh
# Compare full input guidance with the default compact input presentation.
npm run eval:mcp-catalog -- --model gpt-6.1-sol \
--output "$HOME/.cache/rea-catalog-full" --input-profile full --repetitions 3
# Choose exact tool names in the working host mode.
npm run eval:mcp-catalog -- --model gpt-6.1-sol \
--output "$HOME/.cache/rea-catalog-selected" --modes client-code \
--selected-tools analyze_javascript_application inspect_analysis_view
```
`enabled_tools` filters the catalog after client discovery. It does not reduce
the server's original `tools/list` transport. Server tool-family scope is a
separate existing control; do not attribute client filtering results to it.
The output-schema profile remains REA's default in these experiments.
## Read the evidence
`report.json` retains every attempted trial and compares each enabled-server
trial with its same-mode, same-repetition no-server control. It reports valid
pair counts and the median/range of observed input-token differences. Failed
pairs are explicit and excluded from the median. A small or negative delta can
reflect client framing, randomized workspace paths, and measurement variation;
it does not establish a negative schema cost.
Usage, cleanup and resource receipts are collected independently of the verdict.
A failed host, malformed event or wrong marker can retain observed usage and
resource costs. Stage-specific issues explain invalidity; missing observations
remain unknown. A changed matrix records its unattempted cells explicitly.
Each trial retains its exact prompt, runtime file digests, requested model alias,
Codex version, settings/source hashes, JSONL events, actual usage, answer, cleanup
receipt, and process-family resource receipt. The selected rollout capture keeps
per-response usage and tool exchanges; authentication, ambient environment,
account metadata, and encrypted reasoning are excluded. Tool output and local
paths remain evidence and should be reviewed before sharing the raw files.
The metrics have distinct meanings:
| Metric | Meaning and limit |
| ----------------------------------- | --------------------------------------------------------------------------------------------------------------- |
| Catalog bytes and SHA-256 | Built server advertisement, including output schemas; not model input. |
| `turn.completed.usage.input_tokens` | Observed whole-turn usage reported by Codex; includes cached input. |
| Cached/uncached input | Report both. Cache hits do not remove tokens from the context. |
| Per-response usage | Retained usage records help locate discovery and continuation costs. Do not add cumulative thread counts again. |
| Paired input delta | Incremental loading observation including instructions/client framing; not an exact schema-only token count. |
| Elapsed and family CPU | Whole guarded trial, including local setup and client/network waits; remote inference CPU is unmeasured. |
| Family peak memory | Kernel cgroup peak at payload exit, including observer and file cache; not final whole-scope counters. |
These are fresh client/server sessions. OS caches and API prefix caches can
already be warm. No cold-cache claim follows from a new session. The requested
model alias is recorded; a resolved server-side model version is not inferred.
The harness usage is not an independent billing reconciliation.
The usage event shape follows the documented
[Codex non-interactive JSON output](https://developers.openai.com/codex/noninteractive#make-output-machine-readable).
## Evaluate completed investigations too
A no-tool response can avoid deferred discovery entirely. Before changing the
catalog based on this lane, compare completed tasks through the real harness.
Use `npm run verify:agent` and its known-answer rubric, or run a selected real
artifact through `tests/support/analysis-efficiency/agent-trial.py` under
`resource-run.py --observe-payload-exit`. Use the same task, artifact digest,
model/reasoning, authority, result coverage, and correctness oracle in every arm.
The existing runner accepts exact `--enabled-tools` and defaults to client-code
host mode. Its direct option is a host-disabled diagnostic, not a claim of
working native dispatch in the installed client.
Use `--capture-tool-context` to locate per-response costs. Its task summary
explicitly leaves factual correctness unassessed until an independent oracle or
transcript review establishes the requested facts.
Count discovery, arguments, replies, retries, and continuations. Check the
requested facts against source bytes or another independent oracle, real produced
Evidence IDs and source links, partial/unknown coverage, and cleanup. Preserve
failed attempts. A successful small-package task is a pilot, not proof of broad
application performance or provider compatibility.
+59 -616
View File
@@ -26,21 +26,8 @@ can be passed directly to `compare_functions`, and `inspect_artifact` Evidence
to `compare_artifacts`. Use `get_evidence_bundle` when the task needs broader
retained session history or an explicit bundle for transfer.
`compare_artifacts` does not need that Evidence sent back. Name each side once
with a source that `inspect_analysis_view` also accepts:
`{"kind": "retained-evidence", "evidence_id": "<id>"}` for a record retained in
this session, or `{"kind": "evidence-file", "path": "/absolute/evidence.json"}`
for a saved record or bundle. Add `evidence_id` to select one record from a
bundle that holds more than one. Complete inline Evidence is still accepted as
the third form. The comparison cites the records that the sources resolve to,
so all three forms give the same comparison Evidence. A retained reference that
the session cannot resolve is refused with `evidence_integrity_mismatch` and
`details.reason: "missing"`.
`compare_artifacts` can also resolve an artifact summary to its exact retained
parent in the session, or from the authenticated bundle containing a file-selected
summary. File-local records take precedence over the session lookup. Unrelated
records are not retained by the file resolver. Supported historical summaries keep their original
parent in the session. Supported historical summaries keep their original
Evidence identity and omissions; a missing or mismatched parent is rejected.
`analyze_function` does not deliver its complete record by default. Without
@@ -53,9 +40,8 @@ reject the summary record. Give `compare_functions` the retained dossier as
`{"kind": "retained-evidence", "evidence_id": "<parent_evidence_id>"}`; give
`match_native_functions` the same reference inside `left_observations` or
`right_observations`, since its `left` and `right` take `list_procedures`
Evidence. `build_call_path.functions` also accepts retained references to the
complete dossiers. Request `detail: "complete"` only when the record must travel
inline.
Evidence. Request `detail: "complete"` for `build_call_path`, which accepts
only inline complete dossiers.
Saved records from the pre-6.6 identity projection that omitted
`relationship_coverage: null` from its digest remain incompatible, even when
@@ -70,16 +56,13 @@ the same Evidence authentication failures: an admitted source that fails
authentication is `evidence_integrity_mismatch`, while an authenticated source with an unsupported
workflow role or invalid selector is `invalid_request`.
Ghidra inventories, measured load-image observations and function replies use
`raw_result: null` when their useful facts are already preserved in
`normalized_result`, limitations, locations and relationship coverage. Distinct
overview details, file-offset selection roles and database types supplemented
with derived metadata keep their upstream representation. When a Ghidra naming
edit is not applied, `raw_result` keeps the bridge's `failures` and shared
`conflicts` table without a second copy of the result booleans. Native load-image
attestation continues to use the bridge reply locally before Evidence
projection. Read function results from `normalized_result`; older retained
Evidence keeps its original representation and identity.
Ghidra inventories and function replies use `raw_result: null` when their facts
are already preserved in `normalized_result`, limitations, locations and
relationship coverage. Distinct overview details, measured load-image
observations, file-offset selection roles and database types supplemented with
derived metadata keep their upstream representation. Read function results from
`normalized_result`; older retained Evidence keeps its original representation
and identity.
Artifact source-map filename relationships require a unique, identified regular
file at the sibling path. A known directory cannot be the mapped file; the map
@@ -161,9 +144,7 @@ for the error code, target details, partial observations, remediation, and the
optional bounded `recovery` next step. `recovery.kind=inspect_input_contract`
names the rejected operation: re-read that operation's advertised input schema
(call `tools/list` if the catalog may be stale), correct the listed fields, and
do not repeat the unchanged call. A well-formed request the selected target
cannot answer, such as an address without one exact file offset, omits this
hint; follow its `remediation.action`. `recovery.kind=inspect_timeout_state` names
do not repeat the unchanged call. `recovery.kind=inspect_timeout_state` names
the operation and the REA server/provider deadline. Inspect partial Evidence
and reported cleanup state, then follow the returned remediation. Change a
request field or REA_* setting only when the returned remediation explicitly
@@ -173,9 +154,6 @@ recommendation to change it. When it names no setting, reduce supported work;
do not invent one. Raising only the MCP
client's deadline cannot extend this budget. These hints never include the
complete catalog or caller arguments.
`recovery.kind=retry_cleanup` appears only on a `close_binary`
`cleanup_incomplete` error whose retained resources the session will retry; see
[retained cleanup](#retained-cleanup-retry).
Failures omit `structuredContent`, since each advertised `outputSchema`
describes successful results. Successful replies retain their schema-validated
structured data and matching text projection. Oversized errors are retained
@@ -185,17 +163,8 @@ if retention is unavailable or fails, the diagnostic reports that reason.
SDK-generated input validation failures are normalized into the same canonical
`invalid_request` text when the bounded diagnostic fits the response budget.
The complete field/type diagnostic is preserved when normalization fits the
response budget, including request-specific rejected fields and reasons. Zod
input issues retain their field paths and available type and range constraints.
SDK diagnostic parts may be distributed between field issues and the main
message so each retained explanation appears once. Known neighboring-tool
argument-name mistakes (such as `address` instead of `procedure`, or `query`
instead of `pattern`) provide targeted replacement guidance and the expected
canonical property name without accepting unauthorized aliases or changing
canonical Evidence parameters.
If their conservative projection allowance is exhausted, the response states
that field-level detail was omitted and retains the original SDK diagnostic.
Oversized SDK diagnostics keep the existing retained-Evidence recovery path. An unknown
response budget, including request-specific rejected fields and reasons. Oversized
SDK diagnostics keep the existing retained-Evidence recovery path. An unknown
tool remains an MCP JSON-RPC `-32602` error, but its message directs the caller
to `tools/list` and an advertised operation instead of repeating the unknown
name.
@@ -214,19 +183,8 @@ unresolved relationship reads. Cancellation remains a tool error.
`trace_feature` validates each reference's containing-procedure resolution using
the same contract as navigation context. Explicit absence remains a successful
negative observation. If the provider reports a non-retryable capability refusal
attributed to the owner lookup without incomplete cleanup, the reference remains visible
with `containing_procedure.status: "unavailable"` and a residual unknown. That
unknown does not imply references were truncated.
Malformed provider replies return `unreadable_output` for
`resolve_containing_procedure` before successful-result projection;
cancellation and incomplete cleanup remain errors.
For a procedure match, `procedure_references` with `direction: "incoming"` can
provide the selected provider's reference kinds when supported. Its scope covers
the procedure body, so compare target addresses when selecting references to the
exact entry. It is a separate observation and does not establish runtime use or
complete reference discovery.
negative observation; malformed provider replies return `unreadable_output`
for `resolve_containing_procedure` before successful-result projection.
REA prepares complete MCP results within the pinned stdio client's 10 MiB
receive-buffer budget, including both text and structured representations and
@@ -288,17 +246,6 @@ to `/absolute/view-request.json`, then run
`rea inspect-analysis-view /absolute/view-request.json --json`. This also reads
pre-summary source records without changing their identity; no live provider is started.
Unavailable or inapplicable native collections keep `items.rows: null` and
report `coverage: {"status":"unavailable","examined":0,"total":null,"next_offset":null,"exhausted":false}`.
This applies to unrecorded `native-load-image` checks/sections and inapplicable
`native-context` result limitations. Their total is unknown; no continuation is
offered. Stop paging that collection and inspect the returned unknowns rather
than treating it as an observed empty set or retrying a null offset. Recorded
empty collections, empty selections and offsets past the end retain numeric
totals and exhausted page coverage. Clients upgrading from the earlier
zero-total representation must handle the new `unavailable` status and nullable
total; historical saved views remain valid.
`procedure_address`, `procedure_callees`, `procedure_callers`,
`resolve_containing_procedure` and `get_call_graph` also accept `detail: "summary"`
(complete remains the default). The summary includes the first 64 recorded
@@ -313,12 +260,6 @@ limitation and reason IDs index that page's `items.messages` dictionary. Expand
those references to recover exact text, repeated messages, and absent versus
empty optional fields. Failed nodes retain their original error.
Retained `xrefs` Evidence also supports `native-observation` address pages and
`native-context` source caveats. `xrefs` still returns complete Evidence by
default and does not accept `detail`; when its MCP response exceeds the budget,
follow the returned continuation to page the retained result. These addresses
remain untyped; paging does not add reference kinds or establish completeness.
These views reference complete source context through `source_context.digest`
and caveat counts. Read it using the same parent with
`view: {"kind":"native-context","facet":"overview"}`. The other facets are
@@ -335,17 +276,6 @@ unknown. Exhausted pages describe the recorded observations and do not establish
complete native discovery. The same views work through the CLI with historical
Evidence files or bundles and require no live provider.
For retained `inspect_native_instruction` Evidence, use
`view: {"kind":"native-instruction-references","collection":"incoming_references","offset":0,"limit":64}`
to page typed references to the exact code or data address. Select `references`
for outgoing instruction references. Rows preserve their original indices and
provider-reported kind and provenance. `items.state` distinguishes available,
unavailable, and not-recorded collections; coverage is null in the latter two
cases. The fixed 1 MiB page projection allowance leaves room for Evidence and
MCP encoding. An oversized single row remains in the complete parent, which
can be exported. Page exhaustion describes retained rows, not discovery or
runtime access.
For oversized native function Evidence, `details.reported_limits.continuation`
contains a ready-to-call `inspect_analysis_view` request for the retained
pseudocode's first page. Use its `name` and `arguments` directly, then follow
@@ -356,10 +286,6 @@ offered for completed `analyze_function` results only after session recording is
acknowledged; the complete result and its retention reference remain intact.
Oversized native inventories likewise include a ready-to-call first
`native-inventory` page. Reduce its limit or select fields when a row is large.
An oversized `trace_application_feature` result includes a first `feature-trace`
page of its retained terminal `paths`; page `nodes` or `edges` from there.
An oversized `batch_decompile` result includes a first body-free
`batch-decompile` page of its retained `items`; read bodies from there.
A broad follow-up or `get_evidence_bundle` can also exceed the response budget; exporting
preserves the complete session without sending it through a single MCP frame.
@@ -373,26 +299,7 @@ a provider. `retention: "complete-record"` describes stored Evidence, while
`native_dossier.value_flow` independently reports truncation, unavailable or
unknown metadata. Missing omission counts remain null. Summary output carries
every matching record; actual transport admission still applies. Omitted
`detail` preserves complete canonical bundle delivery; filters require summary
or records.
To read a discovered record without transferring the whole bundle, call
`get_evidence_bundle` with `detail: "records"` and the same exact `filters`.
The result (`kind: "evidence-record-selection"`) pages the matching complete
records in canonical bundle (Evidence ID) order with `offset` (default 0) and
`limit` (default 8), and reports `matching_records`, `total_retained_records`
and `next_offset`. Each record is the retained Evidence itself, with an
unchanged ID, subject digest, provider, profile and readback, so it works for
any operation, including records that `inspect_analysis_view` does not support
such as annotations. `missing_evidence_links` lists direct `evidence_links` of
the returned records that this session or bundle does not retain; links are not
traversed. A selection is not an Evidence bundle: it omits manifests and
residual unknowns, cannot be imported, and describes historical observations
rather than current provider or database state. `offset` and `limit` require
`detail: "records"`. If one page exceeds the response budget, select fewer
records or one `evidence_id`; a single record larger than one response still
needs `export_evidence_bundle`, or `inspect_analysis_view` pages where its parent
supports views.
`detail` preserves complete canonical bundle delivery; filters require summary.
Residual-unknown mutations reject missing Evidence or unknown references and
unproven verified resolutions with nonretryable `invalid_request` diagnostics.
@@ -409,12 +316,6 @@ is null. `total` counts all matching heads; each page preserves complete records
in stable unknown ID order. Filters apply before paging. Pages reflect current
session state, so keep the unknown ledger unchanged while traversing it.
`list_unknowns` only lists registered heads. Import restores the Unknown records
present in a bundle; it does not turn residual question text embedded in Evidence
into registry entries. An empty registry therefore does not establish that
retained Evidence has no open questions. Inspect the relevant Evidence or its
analysis view for its residual questions.
Automatically retained workflow questions include their immutable result
Evidence ID. Distinct results retain independent questions and source links;
repeating the same result does not create another unknown. Workflow Evidence
@@ -424,49 +325,15 @@ Duplicate creation is a nonretryable `invalid_request`; use the existing head
or update it with its current `expected_revision`. A stale update remains a
retryable `revision_conflict`.
If automatic question publication fails after a workflow completes,
`details.workflow_unknown_publication` identifies the Evidence and states
whether its retention was confirmed. `created_questions` and
`existing_questions` count processed question occurrences; duplicate questions
may share an Unknown identity. `total_questions` counts string questions, and
`next_question_index` is the zero-based position in the workflow's original
`residual_unknowns` array where publication stopped. It is not a resume token.
For a retained record on the same MCP connection, retrieve the Evidence by ID
with `get_evidence_bundle` and inspect committed heads with `list_unknowns`.
Unprocessed questions remain in the completed Evidence; they were not checked
by this attempt and may already exist from earlier work. A one-shot invocation identifies session-only retention
as `invocation-only` and carries the completed Evidence in its failure when available.
When `record_unknown` or `update_unknown` commits but its complete reply exceeds
the response budget, `details.reported_limits.committed_unknown` identifies the
exact unknown ID, committed revision and mutation Evidence IDs. Its retained
Evidence reference remains available on the same connection. Export the bundle
to recover the result; do not repeat the committed mutation. A single unknown
may be too large for a `list_unknowns` page. A delivery failure does not undo
that revision. If a list response overflows, retry on the same connection with
the same filters and offset and a smaller limit; export if one head still cannot
fit.
To find missing sources before a downstream analysis refuses them, read
`missing_direct_links` from the summary, or call `get_evidence_bundle` with
`detail: "links"`. The result (`kind: "evidence-link-inspection"`) transfers no
record payload. `filters` select the starting records, while membership is
checked against every record in the session or file, so a filtered-out source is
`retained`, not missing. Rows (`evidence_id`, `linked_evidence_id`, `status`) are
in canonical order, default to `link_status: "missing"` and page with `offset` and
`limit` (default 64); `links` counts every inspected link regardless of that
selection. `traversal: "direct"` (the default) reads the selected records' own
links and sets `retained_closure` to null, because it makes no closure claim.
`traversal: "retained-closure"` also follows retained links, as composed workflows
such as `build_call_path` do, and reports `complete` or `incomplete`; anything
beyond a missing link remains unknown. Missing means absent from this session or
file, not nonexistent, and neither status describes analysis coverage. Importing
a missing source changes this membership without changing any Evidence ID.
or page `list_unknowns` to recover the result; do not repeat the committed
mutation. A delivery failure does not undo that revision.
For a portable exported bundle, the CLI shares this projection:
`rea inspect-evidence-bundle '{"path":"/tmp/evidence.json","detail":"summary","filters":{"operation":"analyze_function"}}' --format json`.
`"detail":"records"` with an `evidence_id` filter returns that complete record,
and `"detail":"links"` reads link membership.
The CLI validates and materializes that local bundle under its existing memory
budget; summary delivery does not make arbitrary large files cheap to import.
@@ -484,38 +351,6 @@ that buffer. It does not raise REA's reserved single-string limit, which is
raise that Node ceiling. It does not change analysis coverage or retained
content. Ordinary responses keep their existing complete result contract.
### Input validation resource allowance
Both HTTP and stdio admit at most 1,024 combined array elements and object
members in one tool's arguments by default. The pinned SDK counts them before
canonical schema validation or lazy runtime materialization. Oversized calls
return a bounded, nonretryable `resource_constraint` with resource `transport`
and `reported_limits.max_input_elements`; the full element count is not claimed.
No provider or tool handler starts for a refused call. Subsequent calls remain
usable.
Set `REA_MCP_MAX_INPUT_ELEMENTS` to a positive decimal safe integer and restart
REA to select another allowance for a larger complete observation or batch.
Where a tool supports retained-Evidence or Evidence-file selectors, prefer
those selectors to resending large inline records. Admission never truncates
the caller's selected input or removes retained Evidence.
This is a configurable transport admission policy, not a per-array `maxItems`
contract or an exact heap guarantee. Missing required fields can amplify one
input element into many issues: on the pinned Evidence array schema,
1,024 empty objects produced 16,384 issues and about 26 MiB heapUsed delta
before SDK formatting. The default therefore admits at most 1,023 such objects
plus the root member, rather than extrapolating the scalar case to larger batches;
actual memory also depends on schema branches, runtime state and concurrent
work. HTTP's separate request-byte limit and the client's receive limit still
apply.
Canonical schemas and CLI/application analysis semantics remain shared and
unchanged. Admitted arguments retain the same values and ordinary validation
diagnostics. SDK embedders can select `maxToolInputElements` in the server
options; the common REA MCP server supplies the finite default to eager and
deferred registrations alike. This does not impose the separate semantic
batch-workload limit tracked in issue #5930.
### Error recovery and deadline ownership
Initialization instructions and the static JavaScript tool description teach
@@ -551,14 +386,10 @@ result's `_meta`, whether the call succeeded or failed:
```
The marker is declared once per tool contract (`returnsTargetContent`) and is
on by default: `inspect_analysis_settings`, `update_analysis_settings`,
`export_evidence_bundle`, `record_unknown`, `guided_workflows`,
`search_guidance`, and `read_guidance_section` omit it. The first four contain
only REA session state or caller-supplied values; the workflow and guidance
tools return REA's own installed workflows and documentation, not text from an
analysis target. Tools whose results or errors
can include provider, launcher, or device output stay marked, including
`binary_session` (provider failure
on by default: only `export_evidence_bundle` and `record_unknown`, whose
results and errors contain only REA session state or caller-supplied values,
omit it. Tools whose results or errors can include provider, launcher, or
device output stay marked, including `binary_session` (provider failure
reasons and availability diagnostics), `close_binary` (provider cleanup
diagnostics with captured launcher output), `inspect_adb_client` and
`inspect_apktool_client` (version output and stderr excerpts), and
@@ -576,21 +407,6 @@ that the response budget accounts for. It does not alter `content` or
such as requiring approval for process-launching or device-mutating tools
after target content was read.
## Offline API contract declarations
`inspect_api_contract` reads local OpenAPI 3.0/3.1/3.2 JSON (default) or
GraphQL SDL (`format: "graphql-sdl"`) without an active target or network requests.
OpenAPI inventories inline path operations and unresolved Path Items. GraphQL
inventories type/field declarations; optional `operations_path` adds operation
owners, aliases, SDL field bindings and explicit fragment-spread edges without
expanding fragments. Unresolved bindings and unavailable models stay explicit.
Default summaries retain complete Evidence; `api-contract` or `graphql-contract`
views select facts immediately with exact filters, fields and paging. Retained
`inspect_analysis_view` uses the same projector without reopening inputs.
Coverage describes examined declarations and does not establish runtime behavior
or full specification/operation validity. See [offline API contracts](api-contracts.md)
for source identities, parser allowances, supported scope and CLI publication.
## Retained application Evidence inputs
`analyze_javascript_application`, `inspect_binary_layout`, `inspect_artifact`,
@@ -610,9 +426,6 @@ session retention refuses summary detail with `capability_unavailable`;
For `inspect_artifact`, omission also keeps the original request parameters and
complete output shape. Delivery selection never reaches the inventory engine;
the complete inspection and its atomic inventory Evidence remain retained.
A view is never more certain than its parent: a summary or other view of
`inferred` Evidence is `inferred`. Other views are `derived`, unless the
view kind itself infers, as described below.
`inspect_analysis_view` also accepts `api-surface` for retained HAR capture Evidence,
grouping request lines by method, origin and format-rule path template. Templated
@@ -644,11 +457,7 @@ names, the native API record, and high-pcode facets without starting a provider.
and limit default to 0 and 64; pseudocode uses UTF-16 code units and never
splits surrogate pairs, while other pages count rows. Unavailable facts and
provider limitations remain explicit. Source is
an exact same-session retained reference, portable inline Evidence, or an
Evidence record or bundle file. Native function, inventory, and observation
views require the `rea.analysis` predicate; function-matching views require
`rea.native-function-matching`. A mismatched predicate returns an
`invalid_request` identifying `source.predicate_type`. Views are
an exact same-session retained reference or portable inline Evidence. Views are
a summary, a layout mitigations or linkage facet, one section/symbol/module, or
a stable page with a caller-selected positive `limit`. Module pages include
JavaScript assets, bundled modules, and source modules. Select an exact
@@ -687,76 +496,6 @@ the working directory). Save its complete `--json` Evidence, then use
`inspect-analysis-view` with an `evidence-file` source and the same view. Neither
adapter executes the target or repeats analysis for retained queries.
`trace_application_feature` follows the same delivery contract. Omitting `view`
returns the complete trace. `view: {"kind":"summary"}` or a `feature-trace` page
retains the complete trace in the session first and returns only the selected
facts; query further pages with `inspect_analysis_view` and the returned
`parent_evidence_id`. The summary carries the trace identity (`trace_id`,
`source_evidence_id`, `source_graph_id`, seed and direction), the producer's
`summary` counts, `trace_coverage`, the traced subgraph's `graph_coverage`,
`evidence_links` and any no-match `semantic_discovery`. A `feature-trace` page
selects one `collection` in retained order and repeats that context:
- `paths`: exact terminal paths; `where.node_ids` selects paths visiting any of
those nodes and `where.end_kinds` selects their terminal node kinds.
- `nodes`: compact rows with identity, `seed`, `observation_count` and distinct
authority/state/confidence `basis`; `where.node_ids` and `where.kinds` filter
exactly, and `include_observations: true` adds each node's complete retained
observations.
- `edges`: exact relationships; `where.node_ids` matches either endpoint and
`where.relations` the relation.
- `seed_matches` and `native_handoffs`: the producer's exact rows.
Omitted filters select all; empty arrays select none. `offset` and `limit`
default to 0 and 64. Page `coverage` counts the selected collection only; it
never upgrades `trace_coverage`, and graph connectivity does not prove runtime
reachability. The CLI keeps complete trace JSON; save it and use
`inspect-analysis-view` with an `evidence-file` source.
### Selected batch decompile results
`batch_decompile` returns every pseudocode body by default. `detail: "summary"`
retains the complete batch in the session first and returns its producer counts,
`source_provider` (the composing workflow), `source_analysis_profile_digest`,
`decompiling_provider`, procedure identity counts, total and largest
`pseudocode` size, and `limitation_count`. A server that retains no Evidence
refuses the summary before analysis. Further views use the returned
`parent_evidence_id` through `inspect_analysis_view`, or a saved Evidence file or
portable bundle, and never repeat decompilation.
A null provider observation produces `status: "unavailable"` and
`reason: "no_pseudocode"`; item limitations retain any provider explanation.
This does not establish why pseudocode is absent or whether a retry would help.
Operation failures and malformed non-null output remain `status: "error"`.
The `failed` count includes both unavailable and error items. Existing retained
records keep their original item statuses and error details.
A `batch-decompile` view selects one `collection` and repeats the batch counts
and provider identities:
- `items`: rows in retained order with their original `index`, so duplicate
selectors stay distinct. A row keeps the selector in `address`, its `procedure`
identity and `status`, plus `pseudocode_code_units`, an unavailable `reason`, or its exact `error` and
`limitations`. `where.indices`, `where.addresses`, `where.procedure_addresses`
and `where.statuses` filter exactly and combine; an item with unknown identity
never matches `procedure_addresses`. Omitted filters select all, and empty
arrays select none. `offset` and `limit` default to 0 and 64.
`include_pseudocode: true` adds each selected body.
- `pseudocode`: one `index`'s text in UTF-16 code-unit pages. `offset` and `limit`
default to 0 and 16,384, and `coverage` measures that body. An offset inside a
surrogate pair is refused, and a limit ending inside one stops before it. An
unavailable or error item has no text and is refused with a pointer to `items`.
Page `coverage` counts the selection only: exhausting it establishes nothing
about functions outside the batch. Evidence `limitations` aggregate every item's
provider observations and are not attributed to one successful item; unavailable and error
items keep their own. A page over the response budget offers a smaller selection
from the same `source`: fewer rows, or one body's `pseudocode` pages when a single
row does not fit. An inline source offers none, because the record cannot be
repeated in that reply; resend it with a smaller selection.
`export_evidence_bundle` remains the complete alternative. The CLI has no batch command; save the Evidence and use
`inspect-analysis-view` with an `evidence-file` source or `--evidence-bundle`.
Completed `inspect_artifact` and atomic `inventory_artifact` Evidence also
support summary and inventory views. A summary reports the manifest's expected
counts separately from available record counts, observed entry kinds, inventory
@@ -802,12 +541,10 @@ reach WABT or change the original source Evidence ID.
Completed `inspect_macho` Evidence supports a summary and
`view: {kind: "macho", facet: "exports", offset: 0, limit: 64}`. Facets are
`entrypoints`, `architectures`, `build_metadata`, `load_commands`,
`dependencies`, `imports`, `exports`, `segments`, `encryption`, and
`provenance`; pages return the original rows. Evidence retained before
`encryption` was reported pages no encryption rows and reports that collection
as non-exhaustive with an unknown status. The summary keeps the selected
slice, header fields and UUID, and replaces each collection with its returned
count, reported total and `exhaustive` flag. Each page repeats the paged collection's `source_total` and
`dependencies`, `imports`, `exports`, `segments`, and `provenance`; pages return
the original rows. The summary keeps the selected slice, header fields and UUID,
and replaces each collection with its returned count, reported total and
`exhaustive` flag. Each page repeats the paged collection's `source_total` and
`source_exhaustive`; exhausting a non-exhaustive collection does not establish
that unreturned symbols are absent. Large frameworks return megabytes of
symbols (Electron Framework: 2.5 MB of imports and exports, 3.3 KB as a
@@ -825,25 +562,10 @@ counts, and whether the decoded graph is incomplete. Each page repeats
budget (XLD.app: 6.7 MB), so select `detail: "summary"` on the first call.
Delivery detail never reaches the decoder or changes the source Evidence ID.
Logical Evidence source fields share one input contract across domains:
complete inline Evidence or an exact reference to a record already retained by
the current connection. This applies to individual sources, optional sources,
arrays and nested sources declared by the tool's input schema:
| Workflows | Retained-reference inputs |
| ----------------------------------------------------------------------------------------------------------- | --------------------------------------------------------------------------------------------------------------------- |
| `compare_functions`, `compare_process_captures`, `compare_wasm_interfaces` | `left`, `right` |
| `match_native_functions` | `left`, `right`, `left_observations[]`, `right_observations[]` |
| `trace_application_feature`, `trace_javascript_semantics`, `compare_source_to_bundle` | `application`; feature tracing also accepts `native_observations[]` |
| `compare_application_versions`, `compare_javascript_export_shapes` | `left`, `right`; version comparison also accepts both native-observation arrays |
| `compare_static_and_observed_endpoints` | `application`, `capture`; summary retains the complete comparison for `endpoint-comparison` pages |
| `reconcile_javascript_runtime` | `static_layers[].analysis`, `runtime_observations[]` |
| `compare_managed_members`, `verify_managed_native_boundaries`, `import_managed_reconstruction` | Comparison `left`/`right`; verification `managed_boundaries`/`native_observations[]`; reconstruction `static_members` |
| `project_managed_application_graph` | `managed_artifact`, `managed_members`, `managed_native_boundaries` |
| `project_android_application_graph`, `project_apple_application_graph`, `project_harmony_application_graph` | `inventory_evidence[]` |
| `build_call_path`, `find_changed_behavior`, `correlate_static_and_runtime` | `functions[]`, `comparisons[]`, or `static_comparisons[]`/`runtime_comparisons[]`, respectively |
For example:
`trace_application_feature`, `trace_javascript_semantics`,
`compare_application_versions`, `compare_source_to_bundle`, and
`compare_javascript_export_shapes` accept complete inline application Evidence
or an exact reference to a record already retained by the current connection:
```json
{
@@ -859,46 +581,27 @@ For example:
```
Use the `evidence_id` returned by `analyze_javascript_application` (or another
compatible application-graph producer). When the producer returned a summary
or inspection page, use its `normalized_result.parent_evidence_id` to select
the complete source, rather than the view's own `evidence_id`. Each source can
independently be inline or retained, including within one array. Both forms use
the same application workflow and owner validation, preserve exact source
identity, provenance, authority, coverage and partial or unknown facts, and do
not run the producer again. A reference cannot supply facts absent from that
record. Workflows that follow source links also require those linked records
in the ledger. File references are accepted only where the tool explicitly
advertises a file selector; a retained ID does not authorize a file read.
compatible application-graph producer). Comparisons accept this form in `left`
and `right`; each side can independently be inline or retained. Native
observation arrays continue to take complete inline Evidence. Results and their
Evidence remain complete inline, and both input forms pass the same semantic,
identity, authority, and provenance checks without running the producer again.
References belong to the current connection's Evidence ledger. Opening another
target or restarting the current target preserves retained records, including
when provider cleanup fails; records remain available for export and retry.
`close_binary` releases the engine and replay cache while preserving these records,
even when no binary is active or cleanup fails. `reset_investigation` explicitly
clears all records and Unknown revisions after draining earlier work; a healthy
active engine remains open. Its optional absolute `save_path` saves a complete
canonical bundle before clearing. Failed save, cancellation observed before clearing or incomplete cleanup
preserves records, and a published file is reported even if later cleanup fails.
A fresh connection has its own in-memory ledger; import the saved bundle to restore
original Evidence IDs and complete Unknown history. A missing reference reports its exact ID and
`close_binary` clears them, even when no binary is active. A fresh connection
has its own ledger. A missing reference reports its exact ID and
`details.reason: "missing"`; the server cannot infer
whether it was never recorded, cleared, or retained by another connection.
Supply complete inline Evidence, repeat its producer, or import an exported
Evidence bundle before referencing that imported record. Export a bundle or use
`reset_investigation(save_path)` before ending the process if the investigation
needs it later. Retention has no automatic persistence or silent eviction.
`binary_session.investigation` reports record/revision/head counts, estimated
retained representation bytes and the fixed allowance derived from initial V8
heap headroom. A capacity refusal preserves the existing investigation; checkpoint
and reset it, or start with a larger Node heap. These byte estimates are not RSS.
Evidence bundle before referencing that imported record. Export a bundle before
closing if the investigation needs it later.
CLI workflows that advertise `--evidence-bundle` can resolve the same reference
JSON from one explicitly selected local bundle, including an MCP export. They
also accept portable inline Evidence and use the same application workflows.
A standalone CLI invocation cannot resolve another MCP connection's ledger
without that exported bundle. See [CLI Evidence reuse](cli.md#import-export-and-compare-evidence)
for the supported commands. No additional lookup call, provider selection, or
approval step is required for a same-session follow-up.
CLI application workflows continue to read portable inline Evidence from files
and run the same analysis workflows; a standalone CLI invocation cannot resolve
another MCP connection's retained records. No additional lookup call, provider
selection, or approval step is required for a same-session follow-up.
CLI `inspect-artifact` continues to return complete portable Evidence. Save that
JSON to a file and use `inspect-analysis-view` with inline source Evidence for
later inventory summaries or pages; a one-shot CLI session cannot retain a
@@ -906,20 +609,13 @@ parent for another invocation.
## Identity and discovery
When an admitted `open_binary` attempt fails, its error details include
`target_at_open_completion`: the selected binary target when that attempt
settled, or `null` when none was selected. `provider_id_at_open_completion`
names its bound deep provider, or `null` if none was bound. A later lifecycle
operation can change either selection; call `binary_session` for current state. This field does
not establish provider readiness or resource cleanup.
`binary_session` reports the active package, server, SDK, and negotiated
protocol details. `rea doctor` separately inspects supported JSON/TOML client
registrations, reports their command vectors as aligned, stale, missing, or
invalid, and keeps live-server state `unknown` unless the active connection
supplies identity.
By default, `tools/list` returns the complete canonical tool inventory, including tools that
`tools/list` returns the complete canonical tool inventory, including tools that
are currently unavailable. Opening or closing a target or observing a provider
health transition leaves that catalog unchanged and does not emit
`notifications/tools/list_changed`.
@@ -931,38 +627,17 @@ share status facts. `tool_availability.client_requirements` is the baseline for
each group; a group's optional `client_requirements` replaces that baseline for
the group's tools. Expand each group's `names` into one tool entry, carrying its
availability, reason, remediation, default-mode status, modes, and client
requirements. With the default full catalog, compare the union of group names with `tools/list` when checking
requirements. Compare the union of group names with `tools/list` when checking
that a client received the full catalog. An operation absent from all groups is
missing from the complete inventory; it is not an implicit unavailable entry.
Availability also reflects the active provider client's dispatched requests. A
refusal or provider failure observed for an operation keeps that operation
unavailable until a request for it dispatched later succeeds. A provider adapter
or process failure also marks that provider's other declared-available
operations unavailable until any request to that provider dispatched later
succeeds; their remediation states that the status was inferred rather than
observed for them. Recovery is not proof that each operation works, and failures
observed on other operations or providers remain. Outcomes are ordered by
dispatch to the provider client rather than reply completion, so a late reply
from an older request does not override a newer outcome. Request deadlines and
cancellations neither mark nor clear availability. A new provider client starts
without these outcomes.
Standalone command operations (such as `inspect_with_objdump` and
`execute_rizin_command`) similarly reflect observed executable launch failures:
an unprobed executable is reported available; once a launch failure is observed,
discovery reports the operation unavailable with the executable remediation
until a request for it dispatched later succeeds. Direct retry remains available
without restarting REA.
`detail` selects the projection and the result echoes it. The default
`summary` keeps open state, target identity, the binding, current-route
`capabilities`, run, activity and health status, and each provider candidate's
identity, selection, and availability and target-support `status`, `code`, and
`reason`. It lists the fields it leaves out in `omitted_fields`: an unavailable
candidate's `remediation`, provider `diagnostics`, candidate `capabilities`, and
each tool group's static `surface`, `effects`, and `annotations`. Omitted fields
are not empty or false.
`reason`. It lists the fields it leaves out in `omitted_fields`: provider
`diagnostics`, candidate `capabilities`, and each tool group's static `surface`,
`effects`, and `annotations`. Omitted fields are not empty or false.
`detail: "complete"` returns them inline, groups tools by those flags too, and
has no `omitted_fields`. The output schema keys each result's candidate,
tool-group and omission fields by its `detail`. CLI `capabilities` and
@@ -979,13 +654,6 @@ finish without reading relationships, even when neither traversal mode is
available. Discovery does not block that direct invocation or replace its typed
partial/error outcomes.
`trace_native_ui_action` reports authored-UI and native-seed modes separately.
Apple dispatch metadata requires a Mach-O target; another provider may supply
the symbol-only alternative on other formats. If neither mode is available,
read each mode's missing operations and remediation: a remedy for an authored
app-bundle route does not by itself describe the native-seed route. Availability
does not guarantee that every selector or provider operation will succeed.
With complete detail, the `effects` and `annotations` arrays list the true
members of their fixed vocabularies. A known member omitted from either array is false. This applies
only to these closed flag sets; it does not make an omitted tool, provider, mode,
@@ -1015,9 +683,7 @@ set, `shared_limitations` is the ordered common prefix; append a group's ordered
`effects` arrays use the same true-only closed-vocabulary rule as tool
availability. Expand every group operation while retaining its provider
identity, availability, reason, rejection code, effects, and ordered
limitations. An unavailable group carries `remediation` when its readiness
owner supplied a repair instruction; `tool_availability` uses that instruction
rather than the failure description.
limitations.
`binary_session.analysis_provider_candidates` is authoritative for deep-engine
discovery. Each candidate's capability sets, returned with complete detail,
@@ -1034,46 +700,6 @@ concrete version, selection source, and complete analysis profile through
choices return typed selection details. A selected provider is never replaced
automatically after a runtime failure.
When an admitted `open_binary` attempt fails, `error.details.selection_at_failure`
records the canonical binary path and SHA-256, resource root (including its
caller-selected path), or absence of selection at
the end of that serialized attempt. This is a past observation: a queued or
later operation may already have changed the selection. No selection does not
establish that cleanup is complete. Call `binary_session` for current state
and cleanup status. Validation failures that do not enter the session have no
such receipt. The original error and any cleanup recovery remain authoritative.
`open_binary` resolves an Apple bundle directory (`.app`, `.appex`,
`.framework`, `.xpc`, `.systemextension`, `.bundle` or `.plugin`, compared
case-insensitively) to the program file its `Info.plist` names in
`CFBundleExecutable`; the Evidence subject is that program file. It reads the
macOS `Contents/` layout or the flat root layout. A framework with `Versions/`
may instead keep `Info.plist` in `Versions/Current/Resources/` with its program
file in `Versions/Current/`; a flattened framework without `Versions/`, as
Electron and Gecko apps ship it, keeps `Resources/Info.plist` beside its
program file. An app keeps its iOS-on-Mac `Wrapper` resolution. For the
other types, exactly one layout may declare the bundle, and its `Info.plist`,
program directory and program file must stay inside the bundle. Resolution
never guesses a program file. Each refusal reports one `details.constraint`:
- `bundle_info_plist_missing`, with `probed_paths` listing every layout's
`Info.plist`.
- `bundle_layout_ambiguous`, with `probed_paths` listing the `Info.plist`
files found.
- `bundle_current_version_missing`, with `probed_paths` naming
`Versions/Current`.
- `bundle_path_escapes`, with `probed_paths` naming the path that resolved
outside the bundle.
- `bundle_executable_undeclared`, with `info_plist`.
- `bundle_program_missing`, with `info_plist` and `probed_paths` naming the
declared program file.
An unreadable or malformed `Info.plist` keeps its reason without a bundle
constraint, and `details.path` names that file. A `.dext`, `.kext`,
`.qlgenerator` or `.mdimporter` directory reports `bundle_type_unsupported`. A
resource root reports its `layout` as `contents`, `root`,
`versioned-framework` or `flattened-framework`.
`open_bundle_resources` selects a separate read-only app resource session
without resolving `CFBundleExecutable`, including when it is absent or
unresolvable. `binary_session` reports `session_kind: "bundle_resources"` and the
@@ -1101,14 +727,6 @@ is `unavailable` with a reason when ownership could not be revalidated, or
at that bounded check. These are historical snapshots, not live process
inventories, and do not claim that no short-lived descendant existed.
After a failed close retires the target, `binary_session.cleanup_retry` names
`close_binary` only while that session still retains the cleanup bound to the
close error. Target-dependent availability then gives the same conditional
cleanup guidance before suggesting `open_binary`. The hint disappears after
cleanup succeeds. A pending flag alone does not establish this retry: active
targets, an in-flight initial close, and external-mutation blockers keep their
own recovery and do not receive this hint.
`binary_session.cleanup_pending` reports whether the session retains a provider
client, session file resource, or provider-candidate resource whose cleanup
has not succeeded. It can be true with
@@ -1124,36 +742,6 @@ inspection fails or is cancelled before a provider client exists. If no client
remains, no provider run or health observation is available; follow the cleanup
error's reported resources.
### Retained cleanup retry
A `close_binary` that retires the target clears engine replay state while
retaining investigation Evidence and Unknown history, including when cleanup fails. When the session keeps every reported owner for the next
`close_binary` on the same connection, its `cleanup_incomplete` error carries
`recovery: {"kind": "retry_cleanup", "operation": "close_binary"}`.
Keep the connection open, let the reported condition settle or resolve it, call
`close_binary` without `snapshot_path`, and check the result. The retry does not
rerun the failed analysis and can report `cleanup_incomplete` again.
`retryable` still describes the failed operation and stays `false`. A failed
`snapshot_path` save returns before retirement, keeps the target open and has
no `retry_cleanup` hint. `open_binary`, analysis tools and one-shot CLI commands
do not report this hint either, even when their cleanup remains pending.
## Initial target at startup
MCP normally starts without a target; use `open_binary` to select one during the
session. To open a target before serving MCP, set `HOPPER_TARGET_PATH` to the
selected path in REA's launch environment. `HOPPER_TARGET_KIND` accepts
`executable` (the default) or `database`. Despite the names, these are initial
session settings; the configured provider still determines how the target is
opened. If the initial open fails, REA reports the failure and exits with code 1
without serving MCP. Shutdown during startup cancels and cleans up the open as
described below.
The source-checkout helper `node scripts/print-mcp-config.mjs /path/to/target`
prints a registration containing these settings; `--kind database` selects the
database kind. The helper is not part of the installed npm package. `rea setup`
does not copy these one-shot target settings into generated registrations.
## Transports
The eager stdio runtime owns SIGINT, SIGTERM and stdin EOF before opening an
@@ -1398,15 +986,6 @@ mapping. A successful start-address mapping does not establish that an entire
range is contiguous in the original file, or that its bytes equal analysis
memory after loader fixups. Uninitialized, missing, and ambiguous mappings fail
explicitly; preserve the reported failure rather than guessing an offset.
For Ghidra, such a well-formed address returns `invalid_request` whose message
states the bridge's reason and whose remediation points to
`inspect_native_load_image`. It carries no `inspect_input_contract` recovery.
`details.issues[0].observed` keeps the caller's exact `address` and a
`file_mapping` outcome: `unmapped` (outside every memory block),
`uninitialized`, `absent` (no authoritative target-file source), `ambiguous`,
or `unrepresentable` (beyond the exact JSON integer range). Initialization, not
the loaded flag, decides whether source bytes can exist, so an initialized
file-backed overlay still maps.
For constructor-populated pointer or resource slots, a static zero is not proof
of a later null value. Inspect the slot's `xrefs` and the writer's assembly or
@@ -1529,11 +1108,11 @@ If the client timed out or cancelled during startup, the pending query may have
been interrupted. Reissuing `open_binary` for the same active target can reuse
the current client, so it is not a fresh-start recovery. On the same connection:
1. Keep useful inline Evidence or use the retained investigation references;
export a bundle before ending the process to resume later. `binary_session` can show the selected binding and its
1. Keep any useful inline Evidence, or export a bundle before closing if retained
records are needed. `binary_session` can show the selected binding and its
recorded state; target selection alone does not prove engine readiness.
2. Call `close_binary` and check its result. It drains owned work, closes the
provider and engine replay state while preserving investigation Evidence and Unknown history. A `cleanup_incomplete` result
provider, and clears retained session records. A `cleanup_incomplete` result
must be addressed according to its reported owned resources before retrying.
3. Call `open_binary` with the same caller-selected path and
`provider_id: "ghidra"`, then retry the first query with an appropriate client
@@ -1584,9 +1163,7 @@ cursor outside a procedure is represented as
procedure resolution returns typed unreadable output; provider errors never
become absence from their message text. `inspect_address_context` requires an explicit address and
returns name, procedure, comment, inline-comment, and bookmark facets;
unsupported facets are local `unavailable` outcomes. A facet whose input is
rejected includes its canonical `error` projection, including any structured
issues, alongside the other facet outcomes. Use `current_document`,
unsupported facets are local `unavailable` outcomes. Use `current_document`,
`current_address`, and `current_procedure` for direct single-field lookups; use
the aggregate tools when you need related context together.
@@ -1626,46 +1203,18 @@ canonical `integrity_contradictions` records and marks application graph
coverage partial when any mismatch is continued. Contradicted nested ASARs
remain opaque.
`extract_artifact` accepts optional `output_root` and `occurrence_ids` inputs.
The CLI equivalents are `--output-root` and repeatable `--occurrence-id`.
`output_root` is an absolute path on the REA host: its parent must exist and the
root must not exist, even as an empty directory or a symbolic link. Omitting it
keeps the fresh `rea-extracted-<uuid>` directory under Node's temporary directory
(`TMPDIR` on POSIX). Successful output persists after the call and client close;
the caller owns its later removal. A failed extraction rolls back only its own
output and reports any cleanup failure.
An output root inside the source directory, including a symlink alias, is refused.
Obtain exact IDs from the active artifact's inventory. Omitting `occurrence_ids`
extracts all regular entries exposed by the active reader. An explicit selection
must be nonempty and unique; unknown IDs, directories, links, the root and nested
archive members are rejected before output creation. Open the containing archive
separately to extract its nested members. Selection is by occurrence, not content
hash, so equal bytes at different paths remain independently selectable. Only
selected files face destination name collisions; input path and integrity checks
still cover the full inventory. The extraction manifest records exactly which
occurrences were materialized and retains the source manifest identity.
`extract_artifact` accepts the same policy in MCP and as `--integrity-policy`
on `rea extract-artifact`. With `record-and-continue` it writes the observed
bytes and returns the `integrity_contradictions` records for the extracted
files. An active ASAR unpacked entry whose companion file is absent cannot be
materialized; extraction fails as `unavailable` with that logical path.
A container can also declare a checksum over its own bytes; today that is the
DFU suffix CRC of a DfuSe file. A mismatch is a contradiction of the root
occurrence (logical path `.`), recorded as a `dfu-crc32` pair. Under
`record-and-continue` the root becomes `mismatched` while its elements stay
listed and extractable as observed-untrusted bytes, and `extract_artifact`
returns the root record with the extracted files' records.
If native DMG child traversal is unavailable after carrier identification,
the typed failure retains a revalidated root-only inventory under
`details.partial_observation.inventory`, with unknown child coverage and the
producer's diagnostics/provenance. It does not borrow or detach an existing
attachment. Native checksum verification failures still refuse traversal;
`record-and-continue` recovery applies to structured entry and container
contradictions.
`record-and-continue` recovery applies to structured entry contradictions.
Occurrences use normalized logical paths for identity and lookup. Optional
`source_path` retains the original path within the owning reader when Unicode
@@ -1681,49 +1230,6 @@ support for omitted historical values.
known and differ. If only one value is known, storage comparison is unknown;
when both are omitted, storage is not compared.
<!-- BEGIN:compare-artifacts:compared-format-metadata-kinds -->
`compare_artifacts` also compares the declarations in the `format_metadata`
of UnityFS members (`unityfs-entry`), PyInstaller entries
(`pyinstaller-entry`), Node SEA members (`node-sea-entry`),
ESP image segments (`esp-image-segment`), DfuSe elements (`dfuse-element`),
ESP flash partitions (`esp-flash-partition`) and FIT images (`fit-image`);
each format's guide names the compared fields. A changed declaration is a
metadata change, including when content is unavailable. A declaration that
only one side records, or that the other side records as another kind, is
unknown and adds a limitation. A field that either side could not read is
unknown, and the other fields still compare. Other kinds are not compared:
their fields record layout, come from the bytes of the artifact or its
container or from caller options that identify the target, or repeat
occurrence fields, except Godot PCK source paths, which
[Godot PCK archives](godot-pck.md) explains.
<!-- END:compare-artifacts:compared-format-metadata-kinds -->
Every occurrence records `entry_kind`, `executable` and `encrypted`. A
different entry kind, `encrypted` value or occurrence limitation text is a
`metadata` difference, and a different `executable` value is an `executable`
difference. A symlink's own permission bits never mark it `executable`,
because running a symlink runs its target. When either side's content is
unavailable, `compare_artifacts` lists the differences that it can still
observe with `availability`, and the path compares `unknown` unless a
declaration changed. REA does not read symlink targets or encrypted bytes,
so a non-executable file that becomes a symlink compares `unknown` in
`metadata` and `availability`, and so does a member that becomes encrypted.
Declared sizes do not count without content: REA compares observed sizes.
For a node-less metadata record with a compared declaration, only that
declaration, these fields and any recorded ASAR storage decide the
comparison, so a record that becomes encrypted compares `changed` in
`metadata`. Such a record adds `availability` only when a declaration is
unknown. REA does not compare the record's unread payload or its
limitations, which describe the observation.
When either side has no content, `compare_artifacts` also compares the
occurrences' `declared_integrity` claims, which Godot PCK and ASAR readers
record. Claims of one algorithm that differ add `metadata`. REA cannot verify
them, so they do not make the path `changed`, and equal claims add nothing.
With content on both sides, the observed bytes decide.
POSIX letter-colon names such as `a:b` remain valid logical
names; Windows extraction refuses names its filesystem cannot materialize.
@@ -1867,9 +1373,7 @@ JSON Schema:
- Annotation prose leaves the advertised form: nested property descriptions,
literal examples, defaults, and titles are dropped. The root keeps its
description because it states the accepted input groups. A root `detail`
property keeps its description because it selects between complete Evidence
and a bounded summary.
description because it states the accepted input groups.
- Schema-local references are inlined within the budget. Kimi Code expands
references before sending provider requests, so sharing definitions cannot
establish the provider-facing size. Expansion stops at the budget before
@@ -1900,53 +1404,6 @@ check full-profile local-path rules. Compact MCP workflow tests verify canonical
rejection of invalid inputs before provider work, independent of how much detail
the selected advertisement retains.
### Hot/cold catalog discovery
`REA_MCP_TOOL_CATALOG_PROFILE=hot-cold` opts into per-connection loading for
clients that refresh `tools/list` after `notifications/tools/list_changed`.
The default, `full`, retains the complete upfront advertisement. Restart the
server to change profiles. See [client configuration](client-configuration.md#hotcold-catalogs).
Hot/cold initially advertises `binary_session`, `open_binary`, `close_binary`,
`get_evidence_bundle`, and the adapter's `discover_tools`.
`inspect_analysis_view` is loaded on demand like other analysis tools. When a
follow-up needs retained facts, include it in `discover_tools.names`; if the
producer and follow-up are known together, load both in one batch. Producers
that accept `view` can answer a selected first question without loading the
cross-domain view contract. Complete output schemas and canonical result
validation are preserved when each tool loads.
An explicit tool-family scope can remove any of those domain tools.
`discover_tools` searches canonical names and descriptions using case-insensitive
words, or accepts exact `names`. It loads the matching page and returns names
and abbreviated descriptions with their configured input schemas, so the next
call can use the returned arguments contract. Output schemas remain in
`tools/list`. Search defaults to three results, allows up to
20 per page, and returns `total_matches` and `next_offset`. Exact names preserve
request order and reject unknown or excluded names before loading anything.
Use fewer keywords when no result matches; search requires every word to match.
Both reply representations must fit the configured response budget before any
tools load. An oversized page returns a resource constraint; reduce `limit` or
request fewer exact names and retry. Input schemas are retained in full within
the selected input profile.
Loaded definitions retain their original names, complete configured schemas,
annotations, handlers and client approval rules. Loading does not execute an
analysis, open a target, or initialize the deferred analysis runtime. A batch
emits one list-change notification; repeating it emits none. Loaded tools remain
available until the connection ends. There is no generic execution gateway.
If a loaded tool does not appear in the client, enable client catalog refresh
or reconnect using `REA_MCP_TOOL_CATALOG_PROFILE=full`.
The catalog identity covers the complete in-scope inventory, the discovery
contract and the hot/cold policy; its count includes `discover_tools`. It differs
from full advertisement and remains stable as tools load. `rea mcp doctor`
checks the profile's initial advertisement and identity. The domain inventory in
`binary_session.tool_availability` continues to describe provider and target
availability, independently of whether a definition is loaded. Load a listed
cold tool before calling it. Provider health and target changes do not load,
unload or remove definitions. The input/output schema profiles and explicit
family exclusions continue to apply.
### Tool family advertising scope
Agents pay context for every advertised tool schema, and clients that send
@@ -2033,20 +1490,15 @@ profile and the advertised form that profile produces. `full`, `compact`, and
bounded schemas clients receive; `off` keeps the canonical output contracts in
the digest while advertising nothing.
Some clients reject a complete `tools/list` frame or HTTP SSE event before
they load any tools. The opt-in `REA_MCP_OUTPUT_SCHEMA_PROFILE=compact`
setting bounds every advertised output schema to 4,096 bytes; `off` omits `outputSchema` entirely
Some stdio hosts reject a complete `tools/list` frame before they load any
tools. The opt-in `REA_MCP_OUTPUT_SCHEMA_PROFILE=compact` setting bounds every
advertised output schema to 4,096 bytes; `off` omits `outputSchema` entirely
(the measured pi-web-ui failure and catalog breakdown are in
[#2512](https://github.com/morluto/rea/issues/2512)). The default `full` profile
is unchanged. Both settings keep the same named canonical tool contract for
server-side result validation, and both still return complete
`structuredContent` and text results.
For the 1 MiB FastMCP SSE limit reported by Unsloth in
[#9093](https://github.com/morluto/rea/issues/9093), see the
[tested catalog configuration](client-configuration.md#fastmcp-and-unsloth-sse-catalog-limits).
Hot/cold selection alone does not bound later catalog refreshes.
`compact` keeps the complete validation structure when it fits the budget.
Otherwise it advertises the root property shape, first-level reference-resolved
types, first-level guidance, and the root's `required`/`additionalProperties`
@@ -2158,12 +1610,3 @@ skill and portable conformance projections in the `generated-docs` artifact.
These outputs describe the exact source revision being built; they are not
checked-in snapshots. For a running server, `binary_session` remains the
authoritative source of catalog identity and tool availability.
## Offline Playwright traces
`inspect_playwright_trace` reads a local v10 trace ZIP and defaults to a retained
summary. `playwright-trace` views select source-located action boundaries, console
and network facts, resource references and diagnostics; long text has bounded
previews and character pages. Import does not contact recorded URLs or use a
browser. See [offline Playwright traces](./playwright-traces.md) for coverage,
resource policies and the shared CLI workflow.
+9 -49
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@@ -18,38 +18,6 @@ non-string values are rejected with field paths. `action: "list"` accepts no
workflow identifier or arguments. The MCP adapter respects the same
`REA_MCP_TOOL_FAMILIES` scope as native prompts, including render requests.
To find a section in the installed guidance bundle by analyst question, use
`search_guidance` and pass a returned locator to `read_guidance_section`. The
CLI equivalent is `rea guidance --query "exact JavaScript module"`, followed
by `rea guidance --action read --locator LOCATOR`. Search is limited to the
packaged managed skill files, works without providers or a target, and returns
deterministically paged matches. Every non-generic query word must occur in the
section or its subsections; generic-only queries return no matches. Results are documentation; locators
are bound to the installed bundle and report stale or unavailable guidance without
returning cached section content. A no-match result says nothing about analysis
capability availability.
Each match reports its `match_scope`. A `section` match has every term in its
own text, meaning its heading and body before its first subsection. A
`subsections` match has the terms only spread across subsections, with no
single subsection holding them all. Its `own_text_terms` lists the terms in its
own text, and `subsections` lists up to 8 subsection locators, chosen greedily,
whose own text holds the rest; `omitted_subsections` counts any more that were
needed. Section matches rank first. A parent is not listed when one subsection
holds every term, because that subsection is already a match, unless the
parent's own text also holds them all. `content_length`
is the size of the section that read returns, so callers can decide before
reading a broad parent.
Search returns at most 20 matches per page with 500-code-unit context excerpts.
Read retrieves the complete selected section, including its subsections. Admission permits 1 MiB per file,
4 MiB per bundle, 4,096 sections, and 25,165,824 expanded UTF-16 code units before
section text is materialized. Unreadable or oversized bundles return
`bundle_unavailable`, with no partial index or inferred absence. Cleanup failures
remain errors with their retained retry owner. The bundle and complete section
are bound by fixed-size hashes in locators, so a long heading does not make its own
locator unreadable.
## Prompt inventory
| Prompt | Purpose |
@@ -61,18 +29,12 @@ locator unreadable.
| `audit_residual_unknowns` | Audit current residual-unknown heads and evidence-qualified resolution. |
| `prepare_bounded_process_capture` | Design a bounded controlled process experiment before execution. |
A `REA_MCP_TOOL_FAMILIES` scope advertises a workflow when its required tools
belong to selected families. Optional APK, managed, Apple-resource, and archive
routes in `investigate_feature` are omitted when their tools are disabled;
they do not make the existing native and JavaScript workflow unavailable.
Apple plist guidance requires both the session opener and the native plist
reader. Interface Builder, asset catalog, and keyed archive guidance requires
the opener and the artifact readers. An opener alone never advertises an Apple
resource route; opening resources switches away from the active binary session.
Workflows missing a required tool are omitted from `prompts/list`, and
`prompts/get` reports them as not found. Rendering, the server identity digest,
and `rea mcp doctor` use the same scoped contracts, so guidance never directs
the agent to a disabled call.
A `REA_MCP_TOOL_FAMILIES` scope advertises a workflow only when every tool in
its suggested steps belongs to a selected family. Partially available
workflows are omitted from `prompts/list` — `prompts/get` reports them as not
found — so a rendered prompt never directs the agent to a disabled call. The
server identity digest and `rea mcp doctor` prompt inventory follow the same
scope.
Every rendered prompt provides optional starting points using current REA tool
names. Agents can call tools directly, skip irrelevant suggestions, and inspect
@@ -89,11 +51,9 @@ directly to `analyze_javascript_application` with `input_path`; it does not
require `open_binary`. When that Evidence, or `inspect_binary_layout` Evidence,
is already retained, it suggests `inspect_analysis_view` before tracing a
feature seed. The CLI equivalent is `rea analyze <directory>`.
`open_binary` and the doctor target check admit files and Apple bundle
directories (`.app`, `.appex`, `.framework`, `.xpc`, `.systemextension`,
`.bundle` and `.plugin`). Another Apple bundle type is refused as unsupported,
and another directory is reported with an available analysis action; this does
not establish support for every directory format.
`open_binary` and the doctor target check admit files and macOS app bundles.
A directory outside that opening route is reported with an available analysis
action; this does not establish support for every directory format.
For target paths in `compare_application_versions`, the prompt suggests
opening each target before calling `inspect_artifact`; inspection operates on
-12
View File
@@ -46,18 +46,6 @@ fingerprint and the same known architecture. Extents are never guessed from the
next entry, and relocations are not normalized. A larger mapped read can serve
several observed bodies; only needed ranges need to be captured.
For a matched function, its `evidence_links` include the selected byte reads
that covered its body. Request the `function-matches` view with
`collection: "byte-sources"` to page the selected `read_bytes` source IDs,
sides and limitations; intersect those IDs with the function's links. This
distinguishes, for example, Ghidra initialized-memory bytes from file bytes.
Identical overlapping reads retain the selected covering source, not every
corroborating read. Pages preserve the original source limitations and may end
early when the response budget is reached. If one source is too large for a
page, the error identifies its Evidence and the next offset; inspect the
original matching Evidence or export it if retained, then resume at that
offset. Older matching Evidence may not record this source selection.
This first slice reuses existing range observations. Stripped builds can require
many lightweight range queries when those facts are not retained yet. Matching
does not hide that acquisition cost or silently start those queries. Full
+20 -266
View File
@@ -43,17 +43,6 @@ focused tools such as `list_procedures` and `analyze_function` on the same sessi
| What did the declared runtime scenario observe? | [Desktop](#native-desktop-observation) or [call observation](#native-call-observation) |
| What can this provider and host establish? | [Provider boundaries](#provider-and-verification-boundaries) |
For large pseudocode, request `procedure_pseudo_code` with `detail: "summary"`
on the first MCP call. It retains the complete observation and returns the
original selection, text availability and length without the body. Use
`normalized_result.parent_evidence_id` with `inspect_analysis_view` and
`view: {kind: "native", facet: "pseudocode", offset: 0, limit: 20000}`;
follow `coverage.next_offset` for later pages. Offsets and limits count UTF-16
code units, not lines or tokens. Pages reuse the same observation without
repeating decompilation. Null and empty text remain distinct. Omitted or
`complete` detail preserves full inline delivery. Summary delivery requires a
retaining session and does not reduce the work or memory of decompilation.
## Exact CLI selectors
`function`, `instructions` and `decompile` accept `--procedure=<name-or-address>`;
@@ -79,10 +68,7 @@ function renamed to `dead` remains selectable by name. Use the names returned
by the inventory, including their namespaces and any platform symbol prefix.
Ghidra also accepts secondary symbols at a function entry, such as an imported
`_main` label. A label inside a function is not a procedure-name selector; use
its address when selecting the containing function. `search_procedures` matches
the same names, in leaf or qualified spelling: the function appears once with
its primary name as `value`, and `matched_aliases` lists the qualified names of
the secondary symbols that matched.
its address when selecting the containing function.
Overloads can share a fully qualified name; ambiguity errors return every
matching entry address so the caller can select the intended function directly.
@@ -139,23 +125,9 @@ rea inspect-native-data-type <binary> --type /MyStruct --provider ghidra
rea inspect-native-data-type <binary> --address <typed-data-address> --provider ghidra
```
Ghidra bit-field components may have a `type_id` that is not a registered
database type. When `bit_field` is present, `base_type_id` is the provider's
base type and the lookup fields report whether the manager resolves equivalent
types at those exact paths. `bit_size` is the effective width;
`declared_bit_size` can be larger. `bit_offset` is the least-significant-bit
offset within the base type, not a byte-order-independent offset from the start
of the containing structure. Account for the component's storage size and byte
order before applying that offset to a larger word. Missing `bit_field` details
are unreported, not proof that a component is not a bit-field.
Instruction facts include bytes, length, decoder text, ordered register/scalar/
address tokens, typed references and flow destinations. Mid-instruction, data,
outside-memory and unlisted addresses have separate outcomes. For Ghidra,
`not-in-listing` means the address is in memory without a listed instruction or
defined data. REA does not attempt a decode there: the memory may be uninitialized
or contain valid instructions. Older Evidence may report `undecodable` for this
same ambiguous case; it does not establish that a decode failed. Effective
outside-memory and undecodable addresses have separate outcomes. Effective
memory base/index/displacement roles remain unavailable. Ghidra reports its program
language variant in `mode`; other providers retain their own mode label. Ghidra
MIPS results additionally expose `decoder_context`
@@ -166,7 +138,7 @@ that do not expose this facet. The context is an analysis observation, not proof
of a runtime processor state.
`inspect_native_instruction` also returns `incoming_references` to the exact
queried address, including data, interior-instruction and unlisted addresses.
queried address, including data, interior-instruction and undecodable addresses.
Ghidra enumerates its ReferenceManager, excludes synthetic entry-point
references, and returns deterministic source-address ordering while retaining
distinct operand references from the same source. `[]` means that enumeration
@@ -209,24 +181,12 @@ observed entry label. An interior address therefore remains visible without
being mistaken for the function entry. Identity failures are reported as
`procedure.status: "unknown"`; label failures leave a null name and `name_error`.
Neither failure discards usable pseudocode, and names are not parsed from it.
A provider answer without pseudocode is an error item that keeps that
observation's own `limitations`, so a reason the provider reported for that
entry, such as a Kuna export failure or a missing body, stays with the item.
Null pseudocode is `capability_unavailable`; empty or non-text pseudocode is
`unreadable_output`. Provider failures keep their typed error. Successful items
do not repeat limitations; the batch Evidence aggregates every observation's
limitations by provider and operation.
Resolved entries also appear in the composed Evidence locations. New batch
Evidence commits the revised workflow profile; retained historical Evidence
remains valid. This tool
has no dedicated CLI command; the existing `decompile` command remains the
single-procedure CLI operation.
`detail: "summary"` retains the complete batch and returns only its counts,
identities and sizes. `inspect_analysis_view` then reads rows or one body from
the retained record, an Evidence file or a portable bundle without repeating
decompilation: see [selected batch results](mcp-contracts.md#selected-batch-decompile-results).
Each batch schedules one provider read at a time, but has no shared input-count
or aggregate retained-output allowance. It retains every requested row and full
pseudocode body through Evidence construction. The MCP response budget checks
@@ -247,23 +207,8 @@ the index retains the complete selected names, addresses, provider facts and
caveats. Failure details retain at most 32 rows within 2,048 JSON-encoded
UTF-8 bytes; names may be omitted to keep complete addresses and reasons. The
index retains every failure and its complete observed name.
The manifest reports the procedure-inventory limitations of the current call in
`inventory_limitations`. `decompile-index.json`'s `latest_run` records that
call's filters, selected and excluded counts, and inventory limitations; older
runs remain represented only by their retained function records, so a later
inventory warning is not presented as the history of every file.
Each function's `decompile-index.json` record, whatever its status, keeps the
complete limitations of the observations it used.
When available, `provider_source` records the source of that attempt's
pseudocode observation: a file path, SHA-256 and byte range, or a
single-function decompile. The latter describes the method, not a unique run. A file
descriptor records the source as observed; the file may since have changed or
been removed, so compare its current digest before using it. The descriptor
does not authenticate the journal. `status: "unknown"` distinguishes
an unavailable source from an existing matching output whose original producer
is unknown. Older journal records can omit this field; omission is unknown.
Failed attempts retain their source in the append-only journal when the
provider supplied one, even if a later attempt succeeds. The returned Evidence keeps
complete limitations of the observations it used. The returned Evidence keeps
at most eight first-observed distinct per-function provider limitations within an 8,000-byte JSON-encoded UTF-8 text budget and counts omitted observations. Repeated omitted text is counted per observation, not as a distinct caveat. This summary does not retain every omitted string in memory. A fresh output directory must not already exist. `--resume`
continues an export for the same target SHA-256, provider, analysis profile,
and layout; it requires the directory to exist, and an export without a known
@@ -336,20 +281,6 @@ relationships but reports their completeness as unknown. In particular, a resolv
tail call observed in one direction does not prove that the reverse inventory is
complete. An empty Hopper inventory cannot establish that no such call exists.
No whole-binary reverse scan is performed.
For large native traces, `trace_feature` accepts `detail: "summary"`. It retains
the complete trace and returns counts and its parent Evidence ID. Use
`inspect_analysis_view` with that ID and `view: {kind: "native-feature-trace",
collection: "references", offset: 0, limit: 64}` to page the original rows;
`matches` and `unknowns` are separate collections. Matches accept an exact
`address`; references accept exact `source_address` and `target_address`
filters. Row indices refer to the retained collection, and page coverage does not establish provider discovery
completeness. `list_unknowns` pages the independently managed question heads.
In the one-shot CLI, `rea trace ... --detail summary --evidence_output PATH`
stores the trace and its linked source Evidence for later
`inspect-analysis-view` calls. This bundle does not include the CLI session's
Unknown registry; its original question texts remain available in the trace's
`unknowns` pages.
Regex searches use ECMAScript Unicode syntax in a cancellable worker with a
matching deadline and a worker old-generation heap. Deadline or cancellation
stops matching while leaving the Hopper API available. The deadline is
@@ -408,27 +339,6 @@ Hopper regex mode.
## Bounded static traces
Hopper caller queries, incoming procedure references and function dossiers
reconcile reported reverse relationships with forward call observations. Each
standalone query or composed workflow scans the current document in pages of at
most 64 procedures and retains at most 4 MiB of encoded scan results. A composed
workflow reuses its own index and clears it when the workflow finishes. The
default cooperative scan budget is
2,000 ms; set `REA_HOPPER_CALLER_SCAN_BUDGET_MS` to a positive integer number of
milliseconds before starting REA to change it. The default limits additional
work on the serial Hopper bridge; larger documents may need a higher setting.
Results report the examined procedure count and any budget interruption.
An individual page, native caller list, and target instruction list each have
a 512 KiB encoded allowance. Hitting one reports the incomplete observation.
Cancellation is checked between pages, but cannot interrupt a Hopper API call
already executing; Hopper's native API itself materializes its reference arrays
before REA can bound their copies. Hopper exposes no document revision token, so scans are not
reused across workflows and coverage and consistency during a live scan remain
unknown even when every procedure was examined.
Hopper observations are re-observed rather than replayed from snapshots because
the provider has no document revision token. Safe observations may still be
retained as Evidence.
`trace_native_ui_action` / `rea trace-native-ui-action <target> <seed>` accepts
one authored selector/object ID, native symbol or exact function address. It
joins UI wiring to uniquely matched class/selector implementations and follows
@@ -438,11 +348,6 @@ sites remain distinct. A static route does not establish runtime reachability.
Swift/closure dispatch requires resolved static references; unavailable ABI
forms remain unknown.
Encoded Objective-C method records retain their own locations in dispatch
Evidence. A handler node uses the implementation address with an unknown file
offset unless that function already has an independently located graph node;
the method-record offset does not locate the handler's code.
Incomplete reference kinds do not discard known typed calls or partial
provider call references. A `provider_call` with `observed` resolution retains
the provider-reported call site and endpoint without claiming generic direct,
@@ -484,48 +389,13 @@ nodes and edges. Node payloads are bounded to 8 MiB and serialized results to
32 MiB. Pagination returns edges whose source is on the node page and preserves
stable IDs for endpoints outside that page.
Procedure, node and edge `evidence_id` values identify the source function
observations used by the trace. In an MCP session, retrieve them from the
Evidence bundle for inspection or export. A replayed source keeps the original
observation's identity; the trace also reports that replay occurred. Older
cached value traces are not replayed under the revised workflow profile, while
their historical Evidence remains available.
The one-shot CLI accepts `--evidence_output <new-path>` to save the trace and
the transitive source Evidence closure named by its links. The destination is
never overwritten. `--detail summary` requires `--evidence_output`; the bundle
still retains the complete trace and source Evidence.
Within one value trace, each exact procedure selector is attempted at most once,
including failed analyses. A failed seed returns the provider's original typed
failure and corrective guidance; it cannot establish a trace or target identity.
Failures while expanding a validated seed remain unknown observations and do not
establish canonical function identity. A cancelled expansion read returns the
cancellation. An expansion read whose provider cannot confirm cleanup of
resources it owns stops the trace: the result is that provider's own
`cleanup_incomplete` failure with its resources and any bound cleanup retry, and the work
admitted before the stop is retained as partial Evidence with a located unknown
at the stopping read. A successful seed without a native def-use
model still returns its procedure and an explicit coverage unknown. An unrecorded
facet stays unknown; when the provider explicitly reports unavailability, the trace
retains its reason. REA's Kuna provider explicitly reports that it does not supply
native def-use observations. A new trace can retry failed selectors.
Paging and traversal completeness are separate facts. `page_truncated` means the
page omits retained nodes, and the edges they source, before `offset` or after
`next_offset`. Every page repeats `traversal`: `complete`, or `truncated` with
`reasons` naming each observed cause: the `max_depth`, `max_functions`,
`max_call_sites`, `max_nodes` or `max_edges` budget, the fixed
`node_payload_bytes` allowance, `provider_pcode_truncated`,
`ambiguous_call_candidates`, or, only in a stopped trace's partial Evidence,
`cleanup_incomplete`. Each cause also has a located unknown. A budget is
reported only after it rejects work, so an exactly filled budget is not
truncation; a depth or candidate limit is reported only when no other path
analyzes or queues that destination. `total_nodes` and `total_edges` count
retained rows. `truncated` remains true for either kind of omission. Failed
analyses and unresolved calls stay in `unknowns` and do not truncate the
traversal. Each page reruns analysis; pages are not pinned to one snapshot
across session edits.
establish canonical function identity. A successful seed without a native def-use
model still returns its procedure and an explicit coverage unknown. A new trace
can retry failed selectors.
The raw Java `is_dead` flag can remain set after Ghidra decodes a live block;
`block_membership` reports actual syntax-tree membership separately.
@@ -617,10 +487,8 @@ output-budget omissions remain omissions.
Source input is limited to 64 MiB. Binary and direct XML decoding reserve an
estimated 64 MiB decode budget before parsing; this is not a hard process-memory
bound. The XML estimate charges every element and every text, comment or CDATA
node of the decoder's DOM at a measured upper bound, so a plist made of many
small elements reaches it at a few MiB of source. JSON decode memory has not
been measured and has no equivalent decode estimate. A refused input reports non-retryable `resource_constraint` with
bound. JSON decode memory has not been measured and has no equivalent decode
estimate. A refused input reports non-retryable `resource_constraint` with
`reported_limits.maximum_input_bytes` or `maximum_decoded_bytes` as applicable.
Ordinary direct-source decoding has a ceiling of 998 source nesting levels,
derived from the existing 1000-level JSON result capacity by reserving one level
@@ -665,21 +533,7 @@ support for core-dump analysis, historical FVMLIB layouts, or unobserved native
diagnostic spellings. Unknown or contradictory header values and signalled
commands remain failures.
`inspect_macho` reads load-command framing and fields from the selected Mach-O
bytes. It does not use line-delimited tool output to decide where a command,
section, or embedded string begins. Names whose bytes are not valid UTF-8 have
a null text value and retain their original bytes as lowercase hexadecimal in
`name_bytes_hex`, `segment_bytes_hex`, or `path_bytes_hex`; fixed-width names
stop at the first NUL, and command paths exclude their NUL terminator. Older
retained Evidence may omit the byte fields. Large binary sizes and offsets that
cannot be represented as safe JSON integers retain an exact hexadecimal field;
the corresponding numeric field is null. A section alignment too large to
represent in bytes retains `alignment_exponent` instead.
Unknown or partially decoded commands retain their selected-slice-relative
offset and size. Their unexamined fields are described in load-command coverage
limitations; an exhaustive command inventory does not by itself establish that
every payload field was decoded. `inspect_macho.selected_architecture` identifies the exact selected lipo slice
`inspect_macho.selected_architecture` identifies the exact selected lipo slice
and its `container_file_offset` in the input file. A thin Mach-O has a known
offset of zero; an unknown universal-slice offset stays null. The Evidence
subject format describes the input container: `mach-o-universal` for FAT files,
@@ -687,49 +541,15 @@ including those with one slice. The normalized result also reports the container
in `format`; `selected_architecture` identifies the selected Mach-O image.
Architecture `file_offset` values are container-relative. Entrypoint, segment
and section `file_offset` values retain their source meaning and are relative
to the selected Mach-O slice. Decoded load-command fields retain their original
values. Repeated fields, such as each `LC_BUILD_VERSION` tool, are keyed
`name #n` in order. Each decoded `LC_LINKER_OPTION` string is keyed `string #n`
and checked against the declared `count`. Evidence locations map the LC_MAIN entrypoint and nonempty file-backed segment
to the selected Mach-O slice. Raw load-command fields retain their original values.
A field otool prints more than once, such as each `LC_BUILD_VERSION` tool, is
keyed `name #n` in print order. Each `LC_LINKER_OPTION` string is keyed
`string #n` and checked against the declared `count`. Evidence locations map the LC_MAIN entrypoint and nonempty file-backed segment
ranges to container offsets by adding the observed slice offset. Zero-fill
segments do not produce file ranges. When the selected slice's container offset
is unknown, those mapped locations are omitted with an explicit limitation;
architecture inventory locations remain available.
`inspect_macho.encryption` reports the `LC_ENCRYPTION_INFO(_64)` state of every
slice, not only the selected one. It decodes only the FAT table, slice headers
and load commands. Like every Mach-O container read, a `0xcafebabe` input of at
most 16 MiB is first read whole to rule out a JVM class file, so that read
includes code bytes; larger inputs and thin images read only the structures
above. A slice is `encrypted` when its single encryption command has a nonzero
`cryptid`, `not-encrypted` when `cryptid` is zero, and `absent` only when every
load command was read and none was an encryption command. A command whose width
or `cmdsize` contradicts the image, more than one such command, or a range past
the slice is `malformed`; a slice whose commands could not be fully read is
`malformed` or `unknown` with a reason, keeping any commands seen before the
failure. A slice with more than two encryption commands keeps the first two
and states the count in its reason. Range mapping in all slices shares one
budget of segment and section records (16,384, a sixteenth of the native
output budget); a slice past it keeps its status and reports its mapping as
`unknown` with that reason. Framing caps retained segment commands before decoding.
Only a successful mapping consumes the shared allowance; failed mappings leave
it available to later slices. Each slice's `range` is end-exclusive in slice and input-file
coordinates and maps to file-backed segment fragments, VM addresses and the
overlapping nonempty sections; bytes outside every segment remain unmapped
fragments. A segment with no VM size keeps its file bytes as fragments with
null VM addresses, and a segment whose file size exceeds its VM size or whose
VM range leaves the address space makes the mapping `unknown` with a reason
while the slice keeps its encryption status. `architecture` is the lipo name of the record at the same offset,
size and CPU identity, and is null when no single record matches. A ciphertext
range adds a limitation naming its input-file bytes, because disassembly,
decompilation, strings and references derived from them do not describe
program code. Encryption is read through the same regular-file descriptor
that `inspect_macho` binds for its load-command reads, whose SHA-256 must match
the session target before and after the native tools run, or the call reports
`artifact_changed`. A target that cannot be opened, or a symlinked, non-regular
or changing target, fails the call instead of reporting tool facts without an
encryption status.
Hopper's `address_to_file_offset` combines the native image-relative mapping with
original-file coordinates only after checking the source against the session's
SHA-256. FAT tables and embedded Mach-O headers come from that same hashing pass.
@@ -766,9 +586,6 @@ complete observation.
undecodable filenames and skipped symlinks, as partial coverage. Known
executable roots remain available; unexamined names and symlink targets
cannot establish an empty root set or the absence of other roots.
A dependency symlink whose target is not valid UTF-8 is undetermined, with
its stored target bytes in the limitation and partial coverage; a selected
root crossing such a symlink is refused with the same bytes in its diagnostic.
- `inspect_asset_catalog` / `rea inspect-asset-catalog <app>` reads compiled
`Assets.car` metadata through macOS `assetutil --info`. Catalog digests, raw
rendition fields, pagination and exact UI resource-name matches are returned.
@@ -922,18 +739,6 @@ complete observation.
files and universal slices before metadata decoding. CPU subtypes and
capability bits remain source facts; an `arm64` request may select an
`arm64e` image under the existing slice preference policy.
Objective-C class, protocol and category lists require eight-byte entries;
Swift type and conformance sections require four-byte entries. Misaligned
section lengths and unsupported non-PowerPC big-endian CPU declarations return
`unsupported_target` with the selected path and precise reason. Recovery
selects a well-formed or supported artifact and reopens that target.
An unreadable adopted-protocol sublist leaves its class, category or
`objc_protocol_records` entry available with partial decode status and
`protocol_list_unreadable`. Independently decoded metadata and any readable
protocol-name prefix remain available; an empty partial list does not
establish that its owner adopts no protocols. Existing list and record
limits remain in effect. Reader v3 uses a new analysis profile; snapshots
bound to reader v2 are incompatible and must be regenerated for this recovery.
The byte reader holds the whole selected file in memory, so it admits files up
to 64 MiB / 67108864 bytes by default. Select a larger budget with
`max_input_bytes` (CLI `--max-input-bytes`), at most 1 GiB / 1073741824
@@ -1028,11 +833,7 @@ complete observation.
and `__objc_catlist` categories are also decoded. Categories record the
extended class, local or external, plus
their methods, protocols and properties; category methods appear as
implementations with a `category`. A category whose class reference is null,
or is bound to a symbol other than `_OBJC_CLASS_$_`, such as the `_$s…CN`
metadata symbol of another module's Swift class, keeps a null class, and
`objc_properties_categories` coverage names that reference. Swift
field-offset globals that are only
implementations with a `category`. Swift field-offset globals that are only
initialized at runtime stay unresolved. Generic, resilient, async and
coroutine tables, and inherited overrides, have explicit unsupported or
partial coverage. Other providers retain the
@@ -1080,9 +881,7 @@ with a path-specific gap and incomplete capture coverage. Null alone does not
establish that an accessibility value was successfully read or absent.
An initial PID or window mismatch is `invalid_request` on `pid` or
`window_id` and leaves provider availability intact. A selected window that
exists off screen is not a mismatch: selection succeeds and the permission and
capture checks report their own outcome. An unavailable executable
`window_id` and leaves provider availability intact. An unavailable executable
URL or unresolved executable path leaves identity unknown and reports
`capability_unavailable`. Identity or window loss
after the initial capture remains an observation failure with collected facts.
@@ -1218,8 +1017,7 @@ is present. A denied trace reports the `debugger-attach-denied` reason.
Install a Ghidra 12.x (>=12.1) release and the 64-bit full JDK it declares, then configure REA to
use them. Ghidra analysis supports Linux x64/arm64 and macOS x64/arm64; each installation requires
the matching native decompiler. Experimental Windows x64 P0 admits native
x86, x86-64, ARMNT (Thumb-2) and ARM64 PE applications and DLLs, [DOS MZ
executables](ghidra-dos.md), plus explicitly selected
x86, x86-64, ARMNT (Thumb-2) and ARM64 PE applications and DLLs, plus explicitly selected
[raw NMOS 6502 images](raw-binary.md#nmos-6502) with a caller-supplied load address,
on fixed local NTFS volumes. Other raw CPU families remain unsupported on Windows.
The boundary uses bundled Job Object ownership, protected runtime DACLs, and
@@ -1232,55 +1030,11 @@ unpaired Unicode surrogate; a rejection identifies the field and UTF-16 index
and leaves every annotation unchanged. CRLF, supplementary Unicode characters,
and combining characters are preserved. Windows P0 remains read-only. Ghidra has no
GUI authority, and REA never falls back automatically to Hopper.
For a before-and-after `compare_functions` in MCP, call `analyze_function`
before and after the edit while the session remains open; the annotation Evidence
itself is not an `analyze_function` input. If comparing after close, export the
needed Evidence before closing and import it into the later session. A one-shot
CLI annotation returns its edited dossier before its temporary session is
discarded; a later CLI invocation with the same fresh-import settings starts from
the original executable. Comparison preserves correspondence across renames
when authenticated artifact identity, architecture and provider-owned mapping
and slice commitments establish the same canonical entry. The result reports
`matched`, `method: "same-entry"` and `entry_address`; name and exact-text changes
remain separate dimensions. Equal numeric addresses without applicable coordinate
commitments do not establish same-entry correspondence. Inspect the retained
source Evidence and coverage when correspondence remains ambiguous.
To aggregate already-retained comparison results, pass their exact IDs to
`find_changed_behavior`, for example:
```javascript
await call("find_changed_behavior", {
comparisons: comparisons.map(({ evidence_id }) => ({
kind: "retained-evidence",
evidence_id,
})),
});
```
These IDs select comparison Evidence, not function dossiers or summary views.
Complete inline comparisons remain accepted and can be mixed with references.
The current server must retain the comparisons and their original source closure;
import the complete source bundle after a session handoff. Missing or damaged
records are explicit failures. A missing required retained record reports its exact
`evidence_id` with `details.reference_scope: "retained-closure"`. Import the
originating bundle with its linked sources, or re-create those observations in the
current investigation, before retrying; resending the inline comparison alone
does not restore its closure. Aggregating static differences does not establish
observed runtime change.
`set_address_name` and `set_addresses_names` give Ghidra sessions the same
compact naming results as Hopper: a local function entry renames that function,
and any other mapped address, such as a global, receives a new or renamed primary
label. A batch decides every address from the names held before it: addresses
that request the same name in one namespace, or a name another selected address
holds, are rejected without applying them, so JSON member order never selects a
winner. Every other address applies separately, and each address reports one
success boolean. `raw_result.failures` gives each failed address's canonical
address and reason. A contested name appears once in `raw_result.conflicts`,
with its namespace, requesting addresses and holding addresses, and conflict
failures refer to it by index. To move a label between
addresses, rename its holder first and assign the name in a later call. Use
them to name many globals and helpers cheaply; use
label. A batch applies each address separately and reports one success boolean
per address. Use them to name many globals and helpers cheaply; use
`annotate_native_function` when you also want comments and a refreshed dossier.
Ghidra name edits preserve the existing namespace. Supply either a leaf name
such as `renamed` or a fully qualified name in that namespace, such as
@@ -1471,7 +1225,7 @@ procedures. The CLI equivalent is
Use `start`/`end` to constrain the inclusive address window, and continue with
`next_cursor` until `complete` is true. Inspect `searched` for page coverage and
skipped uninitialized blocks. A missing match does not establish absence from
uninitialized or excluded memory. See
uninitialized memory or across block boundaries. See
[Ghidra byte search](ghidra-provider.md#masked-byte-search) for mask and coverage
semantics. This query never executes or modifies target bytes.
+2 -6
View File
@@ -82,12 +82,8 @@ override. Asset and argument decoding, padding scans, and inventory construction
yield in bounded batches and honor caller cancellation. Asset count and name
budgets bound retained metadata independently of stored member body sizes. The PE
name probe reads headers from the first 64 KiB of the carrier; a PE whose
headers extend beyond that is left to native classification. ELF note tables
are read for at most one note per 12 carrier bytes in total, the most that
disjoint tables can hold, so program headers that repeat the same notes do not
rescan them once per header. Past that count the remaining tables are
unreadable: an ELF without a confirmed blob keeps its native classification,
and one with a blob fails closed. Snapshot and code-cache bytes remain opaque.
headers extend beyond that is left to native classification. Snapshot and
code-cache bytes remain opaque.
## Verification
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