This introduces type parsing for all types used within the scripting
documentation. This improves the generated JSON output and also
validates new code via the unit test.
This is a parser for a very simple language to allow for execution of
dynamic expressions with return values for use as action parameters. The
only "dynamic" part this currently supports are random ranges but more
features are planned for the future.
Controls 0, 1, and 2 - Vectorize Controls_config, Refactor Control Presets, and Use Undosys for undo/redo actions done in the Controls configuration menu.
I just tried building 21.0 which is a higher version than the one used
in the test data which broke this test.
This should be a high enough version to not break any time soon...
This was the last thing that was missing for complete support of all
function parameter declarations.
To ensure parameter lists stay valid a unit test was added that will
validate the argument lists and cause the test to fail if they cannot be
parsed.
Previously, if a script called a function that called another scripting
hook, some hook variables might be removed. This was the case since
after executing the hook the code would remove the set hook variables
again. If these variables had the same name as previously set variables,
they would overwrite and corrupt the state the original script expected.
This was unexpected behavior for script writers so this puts values on a
stack and only adds or removes from the stack instead of overwriting
values. This should make the hook variable state consistent for scripts
even if scripting hooks are called indirectly.
This can be used by script code for reliably storing Lua values without
having to build a custom serialization format.
The C++ code can also be used by other code modules that want to
serialize data. The new classes simply return a byte array with an
unspecified format.
At the moment this uses a plain JSON encoding but could be extended in
the future to include either compression or BSON encoding if necessary.
The format is future compatible by using a simple header to identify
different kinds of formats.
The previous version used the wrong function for the map and so values
added later were not written to the map and so not available to Lua.
This fixes that by using the simple array operator.
The previous system was kind of hacky and made things a bit inflexible.
This improves that system quite a bit and also adds unit tests for the
hook variable functionality.
This adds an Antlr grammar for parsing argument lists instead of using a
hand written parser. This allows to write much more complicated syntax
constructs and have all the code being auto-generated. It will also
produce a much more correct parser instead of having all those hacks in
the hand-written one.
This also adds (in addition to supporting the previous syntax) support
for function types along with support for them in HTML and JSON output
formats.
The ANTLR generated parser is included in source form so that it is not
necessary to have an ANTLR installation around if you are not going to
change the grammar. Also includes the necessary runtime code from Antlr.
This adds a simple parser that takes the existing argument
documentations and parses them so that better documentation can be
generated from that information. This should be sufficient for providing
proper documentation generation for the most common and simple cases of
argument lists (type, name, possible default value, and optional
groups).
This will ensure that Lua functions will always be executed in the
correct Lua state. Since we now have multiple threads (which are
different lua_State objects) it is possible that the current code could
execute a Lua function in the main state instead of the thread that is
currently executing. This can lead to weird behavior and probably also
to issues inside Lua.
This adds a Lua API for representing asynchronous operations and running
coroutines based on those operations comfortably. This is very similar
to features other languages have introduced such as C# or JavaScript. In
fact, the whole "promise" thing is derived from how JavaScript
represents these operations.
This is the initial and very basic system for supporting async
coroutines in Lua. There is no native support for running these
operations at specific points (they run whenever the awaited promise
resolved) or making sure they do not leak through different game states.
This moves towards defining the hooks in the code module that executes
them. Also provides the API necessary for better documentation of hooks.
This only covers a few hooks as a test and demonstration of the new API.
If no issues are found with this it can be extended in the future.