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22 Commits
Author SHA1 Message Date
byuu 7dec0b2a3c Update to bsnes v014 release.
This version adds speed regulation, greatly improves PPU rendering, and increases speed by ~30% over the previous version.
Changelog:
    - Rewrote offset-per-tile mode emulation, should be correct now. Fixes Chrono Trigger, Contra III, Tetris Attack, etc.
    - Fixed a bug with HDMA occuring during interrupts. Fixes Tales of Phantasia souond test screen
    - Updated compiler to Visual Studio 2005, and enabled profile guided optimizations
    - Added conditional compilation of debugging functions (faster without them)
    - Added conditional compilation of core classes as pointers (allowing polymorphism) or objects (allowing inlining). The latter results in a speed increase
    - Small fixes to BG and OAM rendering routines
    - Corrected sprite tile bounds wrapping
    - Corrected sprite rendering in hires video modes
    - Rewrote color add/sub routines, should be correct now. Fixes Illusion of Gaia menu, etc.
    - Optimized video blitting routines, will temporarilly break mixed video mode screenshots
    - Prevented selecting menu options via return key from being recognized as keypresses by the emulator
    - Added system speed regulation (60hz/NTSC or 50hz/PAL)! Many thanks to kode54, GIGO, and Richard Bannister for their assistance
I disabled the debugger and polymorphism, and enabled profile guided optimizations for this build, to maximize speed. The debugger and polymorphism can be re-enabled via uncommenting the respective #defines in src/base.h and recompiling, or bsnes v0.013 can be used. I may start releasing two separate builds in the future... not sure yet.
2005-11-12 16:49:26 +00:00
byuu f288280ceb Update to bsnes v013r02 release.
[No changelog available]
2005-10-25 23:25:28 +00:00
byuu c6c5f4669c Update to bsnes v013 release.
- Greatly improved HDMA timing and accuracy with help from anomie and DMV27 -- fixes bugs in Energy Breaker and Street Fighter Alpha 2
    - Fixed a problem with color add/sub code -- fixes opening battle in Tales of Phantasia and clouds in Energy Breaker
    - Temporarily added DMV27's bugfix for the DSP KON register -- fixes sound in Der Langrisser, but this is not a hardware-accurate fix
    - Disabled VRAM writes outside of vblank -- fixes Hook, but breaks many PD ROMs and fan translations (Roto's BS Zelda hack, Gideon Zhi's Ys 4 translation, etc). I might add an option in the future to toggle this behavior, but for now these games will no longer work. Please keep in mind these games will not run properly on real SNES hardware, either.
    - Improved frameskipping code thanks to a suggestion from Richard Bannister
    - Misc. other code cleanups and improvements (notably in the color table generation code)
    - bsnes is now endian-safe and runs on Mac OS X
    - Added caching support for window clipping tables resulting in a slight speedup. Please let me know if you spot any errors as a result of this change.
2005-10-23 23:32:30 +00:00
byuu 397b9c4505 Update to bsnes v012 release.
Changelog:
    - Added S-DSP emulation
    - Added sound output support via DirectSound -- no sound buffering though, so sound is muted by default
    - Added option to record raw sound output to WAV files
    - Added multiple color adjustment filters to the video output
    - Added mode3/4 direct color support
    - Added mode7 direct color and mosaic support
    - Greatly improved mode7 rendering algorithm thanks to anomie
    - Fixed mode7 screen repitition and EXTBG effects
    - Greatly increased accuracy of NMI and IRQ timing, and emulated many newly discovered hardware quirks involving the two
    - A few speed improvements courtesy of Nach for profiling the code for me
I'm now looking for assistance with sound buffering. Specifically, I need help modifying the DirectSound code to allow the emulator to be ran between 50%-400% normal speed, while keeping the sound output relatively good. If you have experience with this and can help, please get in touch with me (setsunakun0 at hotmail dot com).
2005-10-02 00:38:34 +00:00
byuu 7e2cfb6d40 Update to bsnes v011 release.
- Fixed Mode 0 color palette index problem. Fixes ToP, DQ5, etc.
    - Improved LoROM memory mapper to support 32mbit images. Fixes Tokimeki Memorial, etc.
    - Added full S-DD1 support, SFA2 and Star Ocean are now playable. Special thanks to Andreas Naive
    - Updated BGnxOFS / Mode7 registers with anomie's latest findings
    - Added basic ROM mirroring support. Fixes copy protection issues in MMX, etc.
    - Rewrote string library to work better on gcc/linux
    - Cleaned up S-RTC/S-DD1 emulation to make way for future add-on chip emulation
    - Rewrote DMA code, now runs cycle-by-cycle
    - Rewrote HDMA code, now allows HDMA to be enabled mid-frame, fixes many games
    - Fixed a bug in Mode7 vertical screen flip mode. Fixes FF5 title screen, etc.
    - Greatly improved IRQ triggering. Fixes Der Langrisser, etc.
    - Added full support for open bus. This includes PPU1 and PPU2 open bus support
    - Modified CPU core back to cycle-based system. Slower, but improves debugger
    - Implemented temporary fix for debugger to handle new cycle-based cores
    - Modified CGRAM to ignore highest bit, since it is not used at all by the SNES, and is impossible to read on real hardware. Lowers memory usage by ~1.2mb
    - Added mostly accurate PAL timing support. This should increase compatibility by ~30% or so
    - More stuff I'm forgetting at the moment...
2005-08-26 20:38:00 +00:00
byuu 970dcea0ac Update to bsnes v010 release.
bsnes now supports SPC700 emulation (no DSP or sound support, however), and has greatly improved compatibility. It also now contains a keyboard-only joypad configuration tool.
2005-08-03 21:22:42 +00:00
byuu 402c146a53 Update to bsnes v009 release.
- Fixed non-interlaced display modes from not drawing every other frame
    - Changed OAM halve to skip every other scanline in 224-height modes
    - Updated renderer to properly support games that switch resolutions mid-frame
    - Fixed VRAM address remapping modes, fixes DQ3R, FF: MQ
    - Fixed a bug in main color window clipping affecting BGs
    - Added video color curve option, thanks to Overload for the idea + color table
    - Added vblank, FPS counter, and DDraw surface memory options to settings menu
    - Added fullscreen modes 640x480 and 1024x768 to video modes
    - Added option to toggle the menubar on and off by pressing the escape key
    - Mode3 was not rendering sprites
    - Priorities were wrong for modes 2-4, thanks to anomie for info
    - Fixed a serious bug in IRQ interrupts. May not be perfect, but helps many games
2005-06-26 11:07:38 +00:00
byuu a471c150c9 Update to bsnes v008 release.
moving the window + main color window clipping into the bg/oam/mode7 rendering routines themselves, I was able to greatly simplify the most complicated part of rendering: the final pass where color add/sub effects are applied. As a result, the new PPU core is not only ~35% faster (on graphics intensive screens, even faster on simpler screens), but more accurate as well. Awesome.
In celebration, I´m releasing bsnes v0.008. I can actually run all games I have at >60fps on my Athlon 1.67ghz PC. Probably not something to brag about, though ...
Oh, and I also updated the keyboard polling code to only capture keypresses if the main window has focus. I´ve been meaning to do this for the better part of a year now, but never got around to it.
If, for some reason, you still want to use the old renderer, you can uncomment the first line in src/ppu/bppu/bppu.h and recompile the emulator yourself. Or you can use v0.007a, I´ll leave it up for a bit.
2005-06-21 09:13:40 +00:00
byuu ea38ea2537 Update to bsnes v007a release.
[No changelog available]
2005-06-13 04:34:10 +00:00
byuu 09b326ae86 Update to bsnes v007 release.
I have done quite a bit, so I´ll try my best to recap most of the fixes since the last release...
    - HDMA was not running during DMA transfers
    - Emulator did not recognize any filetype other than .smc
    - Added configuration file support and imported my vector/string/config libraries into bsnes
    - Added option to use system RAM instead of video RAM for display, this can greatly increase speed on certain video cards
    - Increased speed by ~15% by adding 256x224 renderer (still very buggy when the SNES mixes video modes mid-frame)
    - mvn/mvp opcodes were not setting the DB register
    - Fixed joypad input in many games (Super Mario: All Stars, Dragon Quest III, etc.)
    - Major speedup with frakeskip option
    - Fixed default aspect ratio when emulator is first started
There´s probably a lot more, but that´s all I remember offhand... this release should be a lot closer to the quality of v0.005a, but still needs a bit more polishing.
2005-06-12 08:15:22 +00:00
byuu a60f667b25 Update to bsnes v006 release.
The rewrite is now complete. I finished adding frameskip, and fixed some crashing issues with loading multiple ROMs. I wrapped all malloc/free calls with memalloc/memfree, which are custom functions that log each call, and let you pass sprintf-style arguments to them to debug memory leaks. Don´t see any, nor have I noticed any in bsnes; but it makes a nice test tool anyway.
I found out today that the mvn/mvp instructions actually set the DB register to the destination bank. Weird. This fixed Final Fantasy V, Chrono Trigger, and Dragon Quest III (which now runs as a result) graphics. Not all of them, but quite a few. I had also previously been setting the M/X flags of the P register when xce was executed. I never anticipated a game using xce while in native mode to switch to... native mode... but apparently, Chrono Trigger does. And my code was incorrect. So now Chrono Trigger gets past the name select screen, but dies a few screens after still.
The only really major flaw I am aware of that bsnes v0.005 did not have is with the battle screens in Squaresoft games. I get horrible flickering and "crushed scanlines" every other frame on them, for some reason. I´ll try and track that down for the next release, but I didn´t want to hold up a new release any longer. As a result, I´ll leave up v0.005a for the time being until I get this problem fixed.
2005-05-13 12:03:02 +00:00
byuu 6f7cf1bd31 Update to bsnes v005a release.
[No changelog available]
2005-02-06 04:04:32 +00:00
byuu 8751bc433f Update to bsnes v005 release.
Released a new version of bsnes today. Version 0.0.005 is up on the main page now.
The changes since .004 wip10 include: DRAM timing fix (now occurs mid-opcode), memory address speed fix, added CPU cycle condition 4 to all opcodes that use it, and fixed a bug where DRAM refresh was not changing start positions every other scanline.
With the new version, Chrono Trigger should get a little further, and Final Fantasy 5 should get in-game now. The only problem FF5 seems to have is sprite corrution in the menus. I´m too busy with the CPU timing to mess around with the PPU right now, though. Also, the APU is not bridged to the CPU in this release, so compatibility is (still) really low.
After I get the APU working fairly well, I´ll (try and) start keeping a what´s new file so that people can know what all changed between public releases of the emulator without having to follow this page. Sorry for the inconvenience in the mean time.

[No archive available]
2005-02-05 00:00:00 +00:00
byuu afbee40bc0 Update to bsnes v004 release.
[No changelog available]

[No archive available]
2004-12-24 00:00:00 +00:00
byuu 81e9be64d2 Update to bsnes v003r01 release.
[No changelog available]

[No archive available]
2004-12-13 00:00:00 +00:00
byuu 0cd4972d11 Update to bsnes v002 ir11 release.
Doubled the width of sprites when the width of the screen is 512. The SNES Test Program now runs through all of the character test correctly. The windows are off-by-one though.
Added the very bizarre 00:4300-00:437f memory region that is unique from 7e:4300-7e:437f. Then I added read support from $2180. This allowed the SNES Test Program to not crash after failing the electronics test, and it also fixed the horrible graphics corruption in Der Langrisser.
The fonts were still failing, so I went in with my tracer and found out what was causing it. The following code:
	gx816->regs.pc += (signed char)(arg + 2);
This is the code used to increment the pc counter after relative branches. The problem is that I had parinthesis around the + 2 as well as arg. Therefore, if arg was 0x7e, 0x7f, 0xfe, or 0xff, it would change the sign. This would in turn make the program counter off by 256 bytes. Very bad. Fixing this fixed the font in Der Langrisser, and also fixed Super Mario World, when Yoshi spits a turtle out, the game will no longer crash.
Next, via the Der Langrisser world map, I realized that anomie´s description of the BG/mode7 register latches was reversed: the BG registers (may) share a common latch between all of them, but the mode7 registers do not. I removed the common latches from the mode7 regs, but I haven´t added the latch to the BG registers yet.
I also realized that clearing the entire screen on a BG mode change would probably not be a good thing for games that change video modes mid-frame. So I tried working on getting the weird single-frame garble that pops up every minute or so to go away, but to no avail. I´m having a difficult time tracking down the exact cause of the error, but I believe it to be a buffer overflow, or something along those lines.

[No archive available]
2004-12-11 00:00:00 +00:00
byuu 938609818f Update to bsnes v002 ir9 release.
[No changelog available]
2004-12-07 01:12:32 +00:00
byuu 487491e6f2 Update to bsnes v002 ir7 release.
The bug in the Bahamut Lagoon mode7 screens turned out to be that I never added the dividend result to $4216/$4217. It always returned the multiplication of $4202/$4203. This also fixed the sprites in battles for Dai Kaijuu Monogatari. I added a bunch of window stuff, including a double size windowed mode, and a fullscreen mode. Lots of fixes to the interface, as well as code cleanup. It's still pretty buggy, there's a lot of variables to keep up with in the GUI at present...
I also added better tile caching, I just cache all tiles when they are rendered, for all 3 color depths (4, 16, 256). Seems to help a little. A portion of the speed gain was lost by fixing the dividend result, though. Very strange, since I wouldn't think much work would go into a simple line of code that's called 20 times a frame probably at best... oh well.

[No archive available]
2004-12-05 00:00:00 +00:00
byuu a6ccc7e5d2 Update to unreleased version.
First, I fixed some issues with the mode7 / scroll regs thanks to info from anomie. Qwertie's mode7 demo runs without modification now. Next, I fixed a small glitch with tiles getting cut off on the right edge of the screen, fixes some flickering on the edges in Zelda 3. Finally, I added tile caching to all 4 BG layers. It didn't really increase speed by much (~10%), and upped the RAM requirements by 1.2mb... I left the old code in case I need to fall back on it. My only guess (hope) is that the bottleneck lies somewhere else...

[No archive available]
2004-12-04 00:00:00 +00:00
byuu 39dd39cc09 Update to unreleased version.
Had a small glitch in the OAM $2102/$2103 register settings, fixed that and now both Zelda 3 and Super Mario World always show sprites perfectly. The only error to my knowledge in the below screenshots is that the large version of the mario sprite in the third pic is not shown at the top left of the screen. Which could be because I have no mosaic support. But at any rate, both games should be completely playable now, albeit very slowly. I tried to speed up things by caching some stuff in the PPU, but I couldn't find a nice way to implement it that would result in a significant speed increase. Oh yeah, Zelda won't follow you in Zelda 3, but you can just go to the throne room and push the picture to the right yourself, and she'll appear when you reach the sanctuary.
I also updated the debugger, it uses a smaller font, which is a bit harder to read, but saves a lot of screen space. This will definately be needed when I add in more of the debugging windows in the future, so it's better to get used to it now than later.

[No archive available]
2004-11-27 00:00:00 +00:00
byuu 1a017ff697 Update to unreleased version.
Added SRAM support. It's compatible with other emulators. It maps both the LoROM SRAM between $700000-$7dffff, and HiROM SRAM between $3n6000-$3n7fff (where n = 0 - f).
Modified the screen to redraw at scanline 224, instead of 0. Fixes some flickering between screens in some games.
Moved the lighting adjustment code ($2100 bits 0-3) directly into the PPU, rather than outside in the platform-specific code. This is because games have the ability to adjust this value per scanline. Also allowed the games to control the background enable ($2100 bit 7) flag per scanline now. This allowed Bahamut Lagoon's dragon intro to work.
I then added mode2 support, so now all that's missing is modes 5 and 6 (interlaced).
I also created an easy #define to select between the public domain mode7 code I wrote, and the snes9x mode7 code. I'll go through one of these days and rewrite the snes9x code in a clean environment (e.g. without using the current mode7 file as a reference) to avoid the issue altogether, but for now... the snes9x code is twice as fast, and that's good enough for me.
Lastly, I also added in a trace checkbox to enable tracing. As such, the zip file of my work up now has debug mode enabled by default. I really need an overhaul of the gui implementation, and a configuration file. I have a very nice string library system (that I wrote myself) that I would love to take advantage of in this project.
Here's some screenshots of the dragon intro. Lots of HDMA here, showing that I pretty much have HDMA down, now. I remember zsnes used to have a problem with these screens, and had to do something with an HDMA hack to get around it. They figured out what the problem was, eventually. I was actually quite surprised my emulator does not suffer from this same problem. Lucky for me, as they never did mention what the problem was to begin with. The HDMA is technically drawing too soon (at the start of the scanline instead of the end) which probably messes things up a bit, and I'm guessing the scroll registers are screwing up in one or two of the below pics. No mosaic support either.

[No archive available]
2004-11-21 00:00:00 +00:00
byuu 591adfcb25 Update to unreleased version.
Initial release

[No archive available]
2004-10-14 00:00:00 +00:00
3133 changed files with 31195 additions and 459837 deletions

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name: Build
on:
push:
branches: [ master ]
tags: [ 'v*' ]
pull_request:
branches: [ master ]
jobs:
build:
strategy:
matrix:
program:
- ares
os:
- name: windows
version: latest
- name: macos
version: latest
- name: ubuntu
version: latest
runs-on: ${{ matrix.os.name }}-${{ matrix.os.version }}
steps:
- uses: actions/checkout@v2
- name: Install Dependencies
if: matrix.os.name == 'ubuntu'
run: |
sudo apt-get update -y -qq
sudo apt-get install libsdl2-dev libgtksourceview2.0-dev libgtk2.0-dev libao-dev libopenal-dev
- name: Make
run: make -j4 -C desktop-ui build=optimized local=false lto=true
- name: Upload
uses: actions/upload-artifact@v2
with:
name: ${{ matrix.program }}-${{ matrix.os.name }}
path: desktop-ui/out/*
release:
if: github.ref == 'refs/heads/master' || startsWith(github.ref, 'refs/tags/')
runs-on: ubuntu-latest
needs:
- build
steps:
- uses: actions/checkout@v2
with:
path: 'src'
- name: Download Artifacts
uses: actions/download-artifact@v2
with:
path: 'bin'
- name: Package Artifacts
run: |
set -eu
case ${GITHUB_REF} in
refs/tags/*) suffix="-${GITHUB_REF#refs/tags/}" ;;
refs/heads/master) suffix="-nightly" ;;
*) suffix="" ;;
esac
srcdir="${GITHUB_WORKSPACE}/src"
bindir="${GITHUB_WORKSPACE}/bin"
# Hack: Workaround for GitHub artifacts losing attributes.
chmod +x ${bindir}/ares-macos/ares.app/Contents/MacOS/ares
for os in windows macos
do
mkdir "${os}"
cd "${os}"
# Package ares.
outdir=ares${suffix}
mkdir ${outdir}
cp -ar ${bindir}/ares-${os}/* ${outdir}
zip -r ../ares-${os}.zip ${outdir}
cd -
done
- name: Create Release
id: release
env:
GITHUB_TOKEN: ${{ secrets.GITHUB_TOKEN }}
run: |
set -eu
github_rest()
{
local method="${1}"
local url="https://api.github.com${2}"
shift 2
>&2 echo "${method} ${url}"
curl \
--fail \
-H "Accept: application/vnd.github.v3+json" \
-H "Authorization: token ${GITHUB_TOKEN}" \
-X "${method}" \
"${url}" \
"$@"
}
github_get_release_id_for_tag()
{
payload=$(github_rest GET "/repos/${GITHUB_REPOSITORY}/releases/tags/${1}") || return
echo "${payload}" | jq .id
}
github_delete_release_by_id()
{
github_rest DELETE "/repos/${GITHUB_REPOSITORY}/releases/${1}"
}
github_create_release()
{
local payload="{
\"tag_name\": \"${1}\",
\"target_commitish\": \"${2}\",
\"name\": \"${3}\",
\"body\": \"${4}\",
\"draft\": ${5},
\"prerelease\": ${6}
}"
github_rest POST "/repos/${GITHUB_REPOSITORY}/releases" -d "${payload}"
}
make_nightly_release()
{
github_create_release \
nightly \
"${GITHUB_SHA}" \
"ares nightly $(date +"%Y-%m-%d")" \
"Auto-generated nightly release on $(date -u +"%Y-%m-%d %T %Z")" \
false \
true
}
make_version_release()
{
github_create_release \
"${1}" \
"${GITHUB_SHA}" \
"ares ${1}" \
"This is ares ${1}, released on $(date +"%Y-%m-%d")." \
false \
false
}
case ${GITHUB_REF} in
refs/tags/*)
# Create a new version release using the current revision.
echo "UPLOAD_URL=$(make_version_release ${GITHUB_REF#refs/tags/} | jq -r .upload_url)" >> $GITHUB_ENV
;;
refs/heads/master)
# Check for an existing nightly release.
{ release_id=$(github_get_release_id_for_tag nightly); status=$?; } || true
# Delete existing nightly release if it exists.
case ${status} in
0) github_delete_release_by_id "${release_id}" ;;
22) >&2 echo "No current nightly release; skipping tag deletion." ;;
*) >&2 echo "API call failed unexpectedly." && exit 1 ;;
esac
# Create a new nightly release using the current revision.
echo "UPLOAD_URL=$(make_nightly_release | jq -r .upload_url)" >> $GITHUB_ENV
;;
esac
- name: Upload ares-windows
uses: actions/upload-release-asset@v1
env: { GITHUB_TOKEN: '${{ secrets.GITHUB_TOKEN }}' }
with: { upload_url: '${{ env.UPLOAD_URL }}', asset_path: 'ares-windows.zip', asset_name: 'ares-windows.zip', asset_content_type: 'application/zip' }
- name: Upload ares-macos
uses: actions/upload-release-asset@v1
env: { GITHUB_TOKEN: '${{ secrets.GITHUB_TOKEN }}' }
with: { upload_url: '${{ env.UPLOAD_URL }}', asset_path: 'ares-macos.zip', asset_name: 'ares-macos.zip', asset_content_type: 'application/zip' }
# - name: Upload ares-ubuntu
# uses: actions/upload-release-asset@v1
# env: { GITHUB_TOKEN: '${{ secrets.GITHUB_TOKEN }}' }
# with: { upload_url: '${{ env.UPLOAD_URL }}', asset_path: 'ares-ubuntu.zip', asset_name: 'ares-ubuntu.zip', asset_content_type: 'application/zip' }
-15
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@@ -1,15 +0,0 @@
ares
Copyright (c) 2004-2021 ares team, Near et al
Permission to use, copy, modify, and/or distribute this software for any
purpose with or without fee is hereby granted, provided that the above
copyright notice and this permission notice appear in all copies.
THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL WARRANTIES
WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED WARRANTIES OF
MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR
ANY SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES
WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN
ACTION OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF
OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
-18
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# ares
[![License: ISC](https://img.shields.io/badge/License-ISC-blue.svg)](https://github.com/higan-emu/ares/blob/master/LICENSE)
**ares** is a multi-system emulator that began development on October 14th, 2004.
It is a descendent of [higan](https://github.com/higan-emu/higan) and [bsnes](https://github.com/bsnes-emu/bsnes/), and focuses on accuracy and preservation.
Official Releases
-----------------
Official releases are available from
[the ares website](https://ares-emulator.github.io).
Nightly Builds
--------------
Automated, untested builds of ares are available for Windows and macOS as a [pre-release](https://github.com/higan-emu/ares/releases/tag/nightly).
Only the latest nightly build is kept.
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ifeq ($(platform),windows)
options += -luuid -lkernel32 -luser32 -lgdi32 -lcomctl32 -lcomdlg32 -lshell32
options += -Wl,-enable-auto-import
options += -Wl,-enable-runtime-pseudo-reloc
else ifeq ($(platform),macos)
else ifneq ($(filter $(platform),linux bsd),)
options += -Wl,-export-dynamic
options += -lX11 -lXext
else
$(error "ares is a library and cannot be built directly.")
endif
ares.objects := ares ares-fixed-allocator
$(object.path)/ares.o: $(ares.path)/ares/ares.cpp
$(object.path)/ares-fixed-allocator.o: $(ares.path)/ares/memory/fixed-allocator.cpp
ifeq ($(vulkan),true)
flags += -DVULKAN
endif
ifeq ($(profile),accuracy)
flags += -DPROFILE_ACCURACY
endif
ifeq ($(profile),performance)
flags += -DPROFILE_PERFORMANCE
endif
ifneq ($(filter $(cores),fc),)
include $(ares.path)/fc/GNUmakefile
endif
ifneq ($(filter $(cores),sfc),)
include $(ares.path)/sfc/GNUmakefile
endif
ifneq ($(filter $(cores),n64),)
include $(ares.path)/n64/GNUmakefile
endif
ifneq ($(filter $(cores),sg),)
include $(ares.path)/sg/GNUmakefile
endif
ifneq ($(filter $(cores),ms),)
include $(ares.path)/ms/GNUmakefile
endif
ifneq ($(filter $(cores),md),)
include $(ares.path)/md/GNUmakefile
endif
ifneq ($(filter $(cores),saturn),)
include $(ares.path)/saturn/GNUmakefile
endif
ifneq ($(filter $(cores),ps1),)
include $(ares.path)/ps1/GNUmakefile
endif
ifneq ($(filter $(cores),pce),)
include $(ares.path)/pce/GNUmakefile
endif
ifneq ($(filter $(cores),msx),)
include $(ares.path)/msx/GNUmakefile
endif
ifneq ($(filter $(cores),cv),)
include $(ares.path)/cv/GNUmakefile
endif
ifneq ($(filter $(cores),gb),)
include $(ares.path)/gb/GNUmakefile
endif
ifneq ($(filter $(cores),gba),)
include $(ares.path)/gba/GNUmakefile
endif
ifneq ($(filter $(cores),ws),)
include $(ares.path)/ws/GNUmakefile
endif
ifneq ($(filter $(cores),ng),)
include $(ares.path)/ng/GNUmakefile
endif
ifneq ($(filter $(cores),ngp),)
include $(ares.path)/ngp/GNUmakefile
endif
include $(ares.path)/component/GNUmakefile
flags += $(foreach c,$(call strupper,$(cores)),-DCORE_$c)
ares.objects := $(ares.objects:%=$(object.path)/%.o)
-81
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#version 150
//anti-aliased nearest-neighbor
precision highp float;
uniform sampler2D source[];
uniform vec4 sourceSize[];
uniform vec4 targetSize[];
in Vertex {
vec2 texCoord;
};
out vec4 fragColor;
vec4 vpow(vec4 n, float e) {
return vec4(pow(n.x, e), pow(n.y, e), pow(n.z, e), pow(n.w, e));
}
vec4 toLQV(vec3 c) {
return vec4(c.r, c.g, c.b, c.r * 0.2989 + c.g * 0.5870 + c.b * 0.1140);
}
vec3 fromLQV(vec4 c) {
float f = c.w / (c.r * 0.2989 + c.g * 0.5870 + c.b * 0.1140);
return vec3(c.rgb) * f;
}
vec3 percent(float ssize, float tsize, float coord) {
float minfull = (coord * tsize - 0.5) / tsize * ssize;
float maxfull = (coord * tsize + 0.5) / tsize * ssize;
float realfull = floor(maxfull);
if(minfull > realfull) {
return vec3(
1,
(realfull + 0.5) / ssize,
(realfull + 0.5) / ssize
);
}
return vec3(
(maxfull - realfull) / (maxfull - minfull),
(realfull - 0.5) / ssize,
(realfull + 0.5) / ssize
);
}
void main() {
float srgb = 2.1;
float gamma = 3.0;
vec3 x = percent(sourceSize[0].x, targetSize[0].x, texCoord.x);
vec3 y = percent(sourceSize[0].y, targetSize[0].y, texCoord.y);
//get points to interpolate across in linear RGB
vec4 a = toLQV(vpow(texture(source[0], vec2(x[1], y[1])), srgb).rgb);
vec4 b = toLQV(vpow(texture(source[0], vec2(x[2], y[1])), srgb).rgb);
vec4 c = toLQV(vpow(texture(source[0], vec2(x[1], y[2])), srgb).rgb);
vec4 d = toLQV(vpow(texture(source[0], vec2(x[2], y[2])), srgb).rgb);
//use perceptual gamma for luminance component
a.w = pow(a.w, 1 / gamma);
b.w = pow(b.w, 1 / gamma);
c.w = pow(c.w, 1 / gamma);
d.w = pow(d.w, 1 / gamma);
//interpolate
vec4 gammaLQV =
(1.0 - x[0]) * (1.0 - y[0]) * a +
(0.0 + x[0]) * (1.0 - y[0]) * b +
(1.0 - x[0]) * (0.0 + y[0]) * c +
(0.0 + x[0]) * (0.0 + y[0]) * d;
//convert luminance gamma back to linear
gammaLQV.w = pow(gammaLQV.w, gamma);
//convert color back to sRGB
fragColor = vpow(vec4(fromLQV(gammaLQV), 1), 1 / srgb);
}
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input
filter: nearest
program
fragment: AANN.fs
output
filter: nearest
@@ -1,10 +0,0 @@
input
filter: nearest
program
filter: nearest
wrap: border
fragment: shadertoy.fs
output
filter: nearest
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//
// PUBLIC DOMAIN CRT STYLED SCAN-LINE SHADER
//
// by Timothy Lottes
//
// This is more along the style of a really good CGA arcade monitor.
// With RGB inputs instead of NTSC.
// The shadow mask example has the mask rotated 90 degrees for less chromatic aberration.
//
// Left it unoptimized to show the theory behind the algorithm.
//
// It is an example what I personally would want as a display option for pixel art games.
// Please take and use, change, or whatever.
//
#version 150
uniform sampler2D source[];
uniform vec4 sourceSize[];
uniform int phase;
in Vertex {
vec2 texCoord;
};
out vec4 fragColor;
// Emulated input resolution.
vec2 res=sourceSize[0].xy;
// Hardness of scanline.
// -8.0 = soft
// -16.0 = medium
float hardScan=-8.0;
// Hardness of pixels in scanline.
// -2.0 = soft
// -4.0 = hard
float hardPix=-3.0;
// Display warp.
// 0.0 = none
// 1.0/8.0 = extreme
vec2 warp=vec2(1.0/32.0,1.0/24.0);
// Amount of shadow mask.
float maskDark=0.5;
float maskLight=1.5;
//------------------------------------------------------------------------
// sRGB to Linear.
// Assuing using sRGB typed textures this should not be needed.
float ToLinear1(float c){return(c<=0.04045)?c/12.92:pow((c+0.055)/1.055,2.4);}
vec3 ToLinear(vec3 c){return vec3(ToLinear1(c.r),ToLinear1(c.g),ToLinear1(c.b));}
// Linear to sRGB.
// Assuing using sRGB typed textures this should not be needed.
float ToSrgb1(float c){return(c<0.0031308?c*12.92:1.055*pow(c,0.41666)-0.055);}
vec3 ToSrgb(vec3 c){return vec3(ToSrgb1(c.r),ToSrgb1(c.g),ToSrgb1(c.b));}
// Nearest emulated sample given floating point position and texel offset.
// Also zero's off screen.
vec3 Fetch(vec2 pos,vec2 off){
pos=(floor(pos*res+off)+vec2(0.5,0.5))/res;
return ToLinear(1.2 * texture(source[0],pos.xy,-16.0).rgb);}
// Distance in emulated pixels to nearest texel.
vec2 Dist(vec2 pos){pos=pos*res;return -((pos-floor(pos))-vec2(0.5));}
// 1D Gaussian.
float Gaus(float pos,float scale){return exp2(scale*pos*pos);}
// 3-tap Gaussian filter along horz line.
vec3 Horz3(vec2 pos,float off){
vec3 b=Fetch(pos,vec2(-1.0,off));
vec3 c=Fetch(pos,vec2( 0.0,off));
vec3 d=Fetch(pos,vec2( 1.0,off));
float dst=Dist(pos).x;
// Convert distance to weight.
float scale=hardPix;
float wb=Gaus(dst-1.0,scale);
float wc=Gaus(dst+0.0,scale);
float wd=Gaus(dst+1.0,scale);
// Return filtered sample.
return (b*wb+c*wc+d*wd)/(wb+wc+wd);}
// 5-tap Gaussian filter along horz line.
vec3 Horz5(vec2 pos,float off){
vec3 a=Fetch(pos,vec2(-2.0,off));
vec3 b=Fetch(pos,vec2(-1.0,off));
vec3 c=Fetch(pos,vec2( 0.0,off));
vec3 d=Fetch(pos,vec2( 1.0,off));
vec3 e=Fetch(pos,vec2( 2.0,off));
float dst=Dist(pos).x;
// Convert distance to weight.
float scale=hardPix;
float wa=Gaus(dst-2.0,scale);
float wb=Gaus(dst-1.0,scale);
float wc=Gaus(dst+0.0,scale);
float wd=Gaus(dst+1.0,scale);
float we=Gaus(dst+2.0,scale);
// Return filtered sample.
return (a*wa+b*wb+c*wc+d*wd+e*we)/(wa+wb+wc+wd+we);}
// Return scanline weight.
float Scan(vec2 pos,float off){
float dst=Dist(pos).y;
return Gaus(dst+off,hardScan);}
// Allow nearest three lines to effect pixel.
vec3 Tri(vec2 pos){
vec3 a=Horz3(pos,-1.0);
vec3 b=Horz5(pos, 0.0);
vec3 c=Horz3(pos, 1.0);
float wa=Scan(pos,-1.0);
float wb=Scan(pos, 0.0);
float wc=Scan(pos, 1.0);
return a*wa+b*wb+c*wc;}
// Distortion of scanlines, and end of screen alpha.
vec2 Warp(vec2 pos){
pos=pos*2.0-1.0;
pos*=vec2(1.0+(pos.y*pos.y)*warp.x,1.0+(pos.x*pos.x)*warp.y);
return pos*0.5+0.5;}
// Shadow mask.
vec3 Mask(vec2 pos){
pos.x+=pos.y*3.0;
vec3 mask=vec3(maskDark,maskDark,maskDark);
pos.x=fract(pos.x/6.0);
if(pos.x<0.333)mask.r=maskLight;
else if(pos.x<0.666)mask.g=maskLight;
else mask.b=maskLight;
return mask;}
void main() {
vec2 pos = texCoord.xy * 1.0001;
hardScan=-12.0;
// maskDark=maskLight;
pos=Warp(pos.xy);
fragColor.rgb=Tri(pos)*Mask(gl_FragCoord.xy);
fragColor.a=1.0;
fragColor = vec4(ToSrgb(fragColor.rgb), fragColor.a);
}
-609
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#version 150
//_____________________________/\_______________________________
//==============================================================
//
//
// [CRTS] PUBLIC DOMAIN CRT-STYLED SCALAR - 20180120b
//
// by Timothy Lottes
// https://www.shadertoy.com/view/MtSfRK
// adapted for quark syntax by hunterk
//
//
//==============================================================
////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////
//_____________________________/\_______________________________
//==============================================================
//
// WHAT'S NEW
//
//--------------------------------------------------------------
// Evolution of prior shadertoy example
//--------------------------------------------------------------
// This one is semi-optimized
// - Less texture fetches
// - Didn't get to instruction level optimization
// - Could likely use texture fetch to generate phosphor mask
//--------------------------------------------------------------
// Added options to disable unused features
//--------------------------------------------------------------
// Added in exposure matching
// - Given scan-line effect and mask always darkens image
// - Uses generalized tonemapper to boost mid-level
// - Note this can compress highlights
// - And won't get back peak brightness
// - But best option if one doesn't want as much darkening
//--------------------------------------------------------------
// Includes option saturation and contrast controls
//--------------------------------------------------------------
// Added in subtractive aperture grille
// - This is a bit brighter than prior
//--------------------------------------------------------------
// Make sure input to this filter is already low-resolution
// - This is not designed to work on titles doing the following
// - Rendering to hi-res with nearest sampling
//--------------------------------------------------------------
// Added a fast and more pixely option for 2 tap/pixel
//--------------------------------------------------------------
// Improved the vignette when WARP is enabled
//--------------------------------------------------------------
// Didn't test HLSL or CPU options
// - Will incorportate patches if they are broken
// - But out of time to try them myself
//==============================================================
////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////
//_____________________________/\_______________________________
//==============================================================
//
// LICENSE = UNLICENSE (aka PUBLIC DOMAIN)
//
//--------------------------------------------------------------
// This is free and unencumbered software released into the
// public domain.
//--------------------------------------------------------------
// Anyone is free to copy, modify, publish, use, compile, sell,
// or distribute this software, either in source code form or as
// a compiled binary, for any purpose, commercial or
// non-commercial, and by any means.
//--------------------------------------------------------------
// In jurisdictions that recognize copyright laws, the author or
// authors of this software dedicate any and all copyright
// interest in the software to the public domain. We make this
// dedication for the benefit of the public at large and to the
// detriment of our heirs and successors. We intend this
// dedication to be an overt act of relinquishment in perpetuity
// of all present and future rights to this software under
// copyright law.
//--------------------------------------------------------------
// THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY
// KIND, EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE
// WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR
// PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS BE
// LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN
// AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT
// OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER
// DEALINGS IN THE SOFTWARE.
//--------------------------------------------------------------
// For more information, please refer to
// <http://unlicense.org/>
//==============================================================
////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////
#define MASK 1.0
#define MASK_INTENSITY 0.5
#define SCANLINE_THINNESS 0.5
#define SCAN_BLUR 2.5
#define CURVATURE 0.02
#define TRINITRON_CURVE 0.0
#define CORNER 3.0
#define CRT_GAMMA 2.4
uniform sampler2D source[];
uniform vec4 sourceSize[];
uniform vec4 outputSize;
in Vertex {
vec2 vTexCoord;
};
out vec4 FragColor;
//_____________________________/\_______________________________
//==============================================================
//
// GAMMA FUNCTIONS
//
//--------------------------------------------------------------
//--------------------------------------------------------------
// Since shadertoy doesn't have sRGB textures
// And we need linear input into shader
// Don't do this in your code
float FromSrgb1(float c){
return (c<=0.04045)?c*(1.0/12.92):
pow(c*(1.0/1.055)+(0.055/1.055),CRT_GAMMA);}
//--------------------------------------------------------------
vec3 FromSrgb(vec3 c){return vec3(
FromSrgb1(c.r),FromSrgb1(c.g),FromSrgb1(c.b));}
// Convert from linear to sRGB
// Since shader toy output is not linear
float ToSrgb1(float c){
return(c<0.0031308?c*12.92:1.055*pow(c,0.41666)-0.055);}
//--------------------------------------------------------------
vec3 ToSrgb(vec3 c){return vec3(
ToSrgb1(c.r),ToSrgb1(c.g),ToSrgb1(c.b));}
//--------------------------------------------------------------
//_____________________________/\_______________________________
//==============================================================
//
// DEFINES
//
//--------------------------------------------------------------
// CRTS_CPU - CPU code
// CRTS_GPU - GPU code
//--------------------------------------------------------------
// CRTS_GLSL - GLSL
// CRTS_HLSL - HLSL (not tested yet)
//--------------------------------------------------------------
// CRTS_DEBUG - Define to see on/off split screen
//--------------------------------------------------------------
// CRTS_WARP - Apply screen warp
//--------------------------------------------------------------
// CRTS_2_TAP - Faster very pixely 2-tap filter (off is 8)
//--------------------------------------------------------------
// CRTS_MASK_GRILLE - Aperture grille (aka Trinitron)
// CRTS_MASK_GRILLE_LITE - Brighter (subtractive channels)
// CRTS_MASK_NONE - No mask
// CRTS_MASK_SHADOW - Horizontally stretched shadow mask
//--------------------------------------------------------------
// CRTS_TONE - Normalize mid-level and process color
// CRTS_CONTRAST - Process color - enable contrast control
// CRTS_SATURATION - Process color - enable saturation control
//--------------------------------------------------------------
#define CRTS_STATIC
#define CrtsPow
#define CRTS_RESTRICT
//==============================================================
////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////
//==============================================================
// SETUP FOR CRTS
//--------------------------------------------------------------
//==============================================================
//#define CRTS_DEBUG 1
#define CRTS_GPU 1
#define CRTS_GLSL 1
//--------------------------------------------------------------
//#define CRTS_2_TAP 1
//--------------------------------------------------------------
#define CRTS_TONE 1
#define CRTS_CONTRAST 0
#define CRTS_SATURATION 0
//--------------------------------------------------------------
#define CRTS_WARP 1
//--------------------------------------------------------------
// Try different masks -> moved to runtime parameters
//#define CRTS_MASK_GRILLE 1
//#define CRTS_MASK_GRILLE_LITE 1
//#define CRTS_MASK_NONE 1
//#define CRTS_MASK_SHADOW 1
//--------------------------------------------------------------
// Scanline thinness
// 0.50 = fused scanlines
// 0.70 = recommended default
// 1.00 = thinner scanlines (too thin)
#define INPUT_THIN (0.5 + (0.5 * SCANLINE_THINNESS))
//--------------------------------------------------------------
// Horizonal scan blur
// -3.0 = pixely
// -2.5 = default
// -2.0 = smooth
// -1.0 = too blurry
#define INPUT_BLUR (-1.0 * SCAN_BLUR)
//--------------------------------------------------------------
// Shadow mask effect, ranges from,
// 0.25 = large amount of mask (not recommended, too dark)
// 0.50 = recommended default
// 1.00 = no shadow mask
#define INPUT_MASK (1.0 - MASK_INTENSITY)
//--------------------------------------------------------------
#define INPUT_X sourceSize[0].x
#define INPUT_Y sourceSize[0].y
//--------------------------------------------------------------
// Setup the function which returns input image color
vec3 CrtsFetch(vec2 uv){
// For shadertoy, scale to get native texels in the image
uv*=vec2(INPUT_X,INPUT_Y)/sourceSize[0].xy;
// Move towards intersting parts
// uv+=vec2(0.5,0.5);
// Non-shadertoy case would not have the color conversion
return FromSrgb(texture(source[0],uv.xy,-16.0).rgb);}
////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////
//_____________________________/\_______________________________
//==============================================================
//
// GPU CODE
//
//==============================================================
#ifdef CRTS_GPU
//_____________________________/\_______________________________
//==============================================================
// PORTABILITY
//==============================================================
#ifdef CRTS_GLSL
#define CrtsF1 float
#define CrtsF2 vec2
#define CrtsF3 vec3
#define CrtsF4 vec4
#define CrtsFractF1 fract
#define CrtsRcpF1(x) (1.0/(x))
#define CrtsSatF1(x) clamp((x),0.0,1.0)
//--------------------------------------------------------------
CrtsF1 CrtsMax3F1(CrtsF1 a,CrtsF1 b,CrtsF1 c){
return max(a,max(b,c));}
#endif
//==============================================================
#ifdef CRTS_HLSL
#define CrtsF1 float
#define CrtsF2 float2
#define CrtsF3 float3
#define CrtsF4 float4
#define CrtsFractF1 frac
#define CrtsRcpF1(x) (1.0/(x))
#define CrtsSatF1(x) saturate(x)
//--------------------------------------------------------------
CrtsF1 CrtsMax3F1(CrtsF1 a,CrtsF1 b,CrtsF1 c){
return max(a,max(b,c));}
#endif
//_____________________________/\_______________________________
//==============================================================
// TONAL CONTROL CONSTANT GENERATION
//--------------------------------------------------------------
// This is in here for rapid prototyping
// Please use the CPU code and pass in as constants
//==============================================================
CrtsF4 CrtsTone(
CrtsF1 contrast,
CrtsF1 saturation,
CrtsF1 thin,
CrtsF1 mask){
//--------------------------------------------------------------
if(MASK == 0.0) mask=1.0;
//--------------------------------------------------------------
if(MASK == 1.0){
// Normal R mask is {1.0,mask,mask}
// LITE R mask is {mask,1.0,1.0}
mask=0.5+mask*0.5;
}
//--------------------------------------------------------------
CrtsF4 ret;
CrtsF1 midOut=0.18/((1.5-thin)*(0.5*mask+0.5));
CrtsF1 pMidIn=pow(0.18,contrast);
ret.x=contrast;
ret.y=((-pMidIn)+midOut)/((1.0-pMidIn)*midOut);
ret.z=((-pMidIn)*midOut+pMidIn)/(midOut*(-pMidIn)+midOut);
ret.w=contrast+saturation;
return ret;}
//_____________________________/\_______________________________
//==============================================================
// MASK
//--------------------------------------------------------------
// Letting LCD/OLED pixel elements function like CRT phosphors
// So "phosphor" resolution scales with display resolution
//--------------------------------------------------------------
// Not applying any warp to the mask (want high frequency)
// Real aperture grille has a mask which gets wider on ends
// Not attempting to be "real" but instead look the best
//--------------------------------------------------------------
// Shadow mask is stretched horizontally
// RRGGBB
// GBBRRG
// RRGGBB
// This tends to look better on LCDs than vertical
// Also 2 pixel width is required to get triad centered
//--------------------------------------------------------------
// The LITE version of the Aperture Grille is brighter
// Uses {dark,1.0,1.0} for R channel
// Non LITE version uses {1.0,dark,dark}
//--------------------------------------------------------------
// 'pos' - This is 'fragCoord.xy'
// Pixel {0,0} should be {0.5,0.5}
// Pixel {1,1} should be {1.5,1.5}
//--------------------------------------------------------------
// 'dark' - Exposure of of masked channel
// 0.0=fully off, 1.0=no effect
//==============================================================
CrtsF3 CrtsMask(CrtsF2 pos,CrtsF1 dark){
if(MASK == 2.0){
CrtsF3 m=CrtsF3(dark,dark,dark);
CrtsF1 x=CrtsFractF1(pos.x*(1.0/3.0));
if(x<(1.0/3.0))m.r=1.0;
else if(x<(2.0/3.0))m.g=1.0;
else m.b=1.0;
return m;
}
//--------------------------------------------------------------
if(MASK == 1.0){
CrtsF3 m=CrtsF3(1.0,1.0,1.0);
CrtsF1 x=CrtsFractF1(pos.x*(1.0/3.0));
if(x<(1.0/3.0))m.r=dark;
else if(x<(2.0/3.0))m.g=dark;
else m.b=dark;
return m;
}
//--------------------------------------------------------------
if(MASK == 0.0){
return CrtsF3(1.0,1.0,1.0);
}
//--------------------------------------------------------------
if(MASK == 3.0){
pos.x+=pos.y*2.9999;
CrtsF3 m=CrtsF3(dark,dark,dark);
CrtsF1 x=CrtsFractF1(pos.x*(1.0/6.0));
if(x<(1.0/3.0))m.r=1.0;
else if(x<(2.0/3.0))m.g=1.0;
else m.b=1.0;
return m;
}
}
//_____________________________/\_______________________________
//==============================================================
// FILTER ENTRY
//--------------------------------------------------------------
// Input must be linear
// Output color is linear
//--------------------------------------------------------------
// Must have fetch function setup: CrtsF3 CrtsFetch(CrtsF2 uv)
// - The 'uv' range is {0.0 to 1.0} for input texture
// - Output of this must be linear color
//--------------------------------------------------------------
// SCANLINE MATH & AUTO-EXPOSURE NOTES
// ===================================
// Each output line has contribution from at most 2 scanlines
// Scanlines are shaped by a windowed cosine function
// This shape blends together well with only 2 lines of overlap
//--------------------------------------------------------------
// Base scanline intensity is as follows
// which leaves output intensity range from {0 to 1.0}
// --------
// thin := range {thick 0.5 to thin 1.0}
// off := range {0.0 to <1.0},
// sub-pixel offset between two scanlines
// --------
// a0=cos(min(0.5, off *thin)*2pi)*0.5+0.5;
// a1=cos(min(0.5,(1.0-off)*thin)*2pi)*0.5+0.5;
//--------------------------------------------------------------
// This leads to a image darkening factor of roughly:
// {(1.5-thin)/1.0}
// This is further reduced by the mask:
// {1.0/2.0+mask*1.0/2.0}
// Reciprocal of combined effect is used for auto-exposure
// to scale up the mid-level in the tonemapper
//==============================================================
CrtsF3 CrtsFilter(
//--------------------------------------------------------------
// SV_POSITION, fragCoord.xy
CrtsF2 ipos,
//--------------------------------------------------------------
// inputSize / outputSize (in pixels)
CrtsF2 inputSizeDivOutputSize,
//--------------------------------------------------------------
// 0.5 * inputSize (in pixels)
CrtsF2 halfInputSize,
//--------------------------------------------------------------
// 1.0 / inputSize (in pixels)
CrtsF2 rcpInputSize,
//--------------------------------------------------------------
// 1.0 / outputSize (in pixels)
CrtsF2 rcpOutputSize,
//--------------------------------------------------------------
// 2.0 / outputSize (in pixels)
CrtsF2 twoDivOutputSize,
//--------------------------------------------------------------
// inputSize.y
CrtsF1 inputHeight,
//--------------------------------------------------------------
// Warp scanlines but not phosphor mask
// 0.0 = no warp
// 1.0/64.0 = light warping
// 1.0/32.0 = more warping
// Want x and y warping to be different (based on aspect)
CrtsF2 warp,
//--------------------------------------------------------------
// Scanline thinness
// 0.50 = fused scanlines
// 0.70 = recommended default
// 1.00 = thinner scanlines (too thin)
// Shared with CrtsTone() function
CrtsF1 thin,
//--------------------------------------------------------------
// Horizonal scan blur
// -3.0 = pixely
// -2.5 = default
// -2.0 = smooth
// -1.0 = too blurry
CrtsF1 blur,
//--------------------------------------------------------------
// Shadow mask effect, ranges from,
// 0.25 = large amount of mask (not recommended, too dark)
// 0.50 = recommended default
// 1.00 = no shadow mask
// Shared with CrtsTone() function
CrtsF1 mask,
//--------------------------------------------------------------
// Tonal curve parameters generated by CrtsTone()
CrtsF4 tone
//--------------------------------------------------------------
){
//--------------------------------------------------------------
#ifdef CRTS_DEBUG
CrtsF2 uv=ipos*rcpOutputSize;
// Show second half processed, and first half un-processed
if(uv.x<0.5){
// Force nearest to get squares
uv*=1.0/rcpInputSize;
uv=floor(uv)+CrtsF2(0.5,0.5);
uv*=rcpInputSize;
CrtsF3 color=CrtsFetch(uv);
return color;}
#endif
//--------------------------------------------------------------
// Optional apply warp
CrtsF2 pos;
#ifdef CRTS_WARP
// Convert to {-1 to 1} range
pos=ipos*twoDivOutputSize-CrtsF2(1.0,1.0);
// Distort pushes image outside {-1 to 1} range
pos*=CrtsF2(
1.0+(pos.y*pos.y)*warp.x,
1.0+(pos.x*pos.x)*warp.y);
// TODO: Vignette needs optimization
CrtsF1 vin=(1.0-(
(1.0-CrtsSatF1(pos.x*pos.x))*(1.0-CrtsSatF1(pos.y*pos.y)))) * (0.998 + (0.001 * CORNER));
vin=CrtsSatF1((-vin)*inputHeight+inputHeight);
// Leave in {0 to inputSize}
pos=pos*halfInputSize+halfInputSize;
#else
pos=ipos*inputSizeDivOutputSize;
#endif
//--------------------------------------------------------------
// Snap to center of first scanline
CrtsF1 y0=floor(pos.y-0.5)+0.5;
#ifdef CRTS_2_TAP
// Using Inigo's "Improved Texture Interpolation"
// http://iquilezles.org/www/articles/texture/texture.htm
pos.x+=0.5;
CrtsF1 xi=floor(pos.x);
CrtsF1 xf=pos.x-xi;
xf=xf*xf*xf*(xf*(xf*6.0-15.0)+10.0);
CrtsF1 x0=xi+xf-0.5;
CrtsF2 p=CrtsF2(x0*rcpInputSize.x,y0*rcpInputSize.y);
// Coordinate adjusted bilinear fetch from 2 nearest scanlines
CrtsF3 colA=CrtsFetch(p);
p.y+=rcpInputSize.y;
CrtsF3 colB=CrtsFetch(p);
#else
// Snap to center of one of four pixels
CrtsF1 x0=floor(pos.x-1.5)+0.5;
// Inital UV position
CrtsF2 p=CrtsF2(x0*rcpInputSize.x,y0*rcpInputSize.y);
// Fetch 4 nearest texels from 2 nearest scanlines
CrtsF3 colA0=CrtsFetch(p);
p.x+=rcpInputSize.x;
CrtsF3 colA1=CrtsFetch(p);
p.x+=rcpInputSize.x;
CrtsF3 colA2=CrtsFetch(p);
p.x+=rcpInputSize.x;
CrtsF3 colA3=CrtsFetch(p);
p.y+=rcpInputSize.y;
CrtsF3 colB3=CrtsFetch(p);
p.x-=rcpInputSize.x;
CrtsF3 colB2=CrtsFetch(p);
p.x-=rcpInputSize.x;
CrtsF3 colB1=CrtsFetch(p);
p.x-=rcpInputSize.x;
CrtsF3 colB0=CrtsFetch(p);
#endif
//--------------------------------------------------------------
// Vertical filter
// Scanline intensity is using sine wave
// Easy filter window and integral used later in exposure
CrtsF1 off=pos.y-y0;
CrtsF1 pi2=6.28318530717958;
CrtsF1 hlf=0.5;
CrtsF1 scanA=cos(min(0.5, off *thin )*pi2)*hlf+hlf;
CrtsF1 scanB=cos(min(0.5,(-off)*thin+thin)*pi2)*hlf+hlf;
//--------------------------------------------------------------
#ifdef CRTS_2_TAP
#ifdef CRTS_WARP
// Get rid of wrong pixels on edge
scanA*=vin;
scanB*=vin;
#endif
// Apply vertical filter
CrtsF3 color=(colA*scanA)+(colB*scanB);
#else
// Horizontal kernel is simple gaussian filter
CrtsF1 off0=pos.x-x0;
CrtsF1 off1=off0-1.0;
CrtsF1 off2=off0-2.0;
CrtsF1 off3=off0-3.0;
CrtsF1 pix0=exp2(blur*off0*off0);
CrtsF1 pix1=exp2(blur*off1*off1);
CrtsF1 pix2=exp2(blur*off2*off2);
CrtsF1 pix3=exp2(blur*off3*off3);
CrtsF1 pixT=CrtsRcpF1(pix0+pix1+pix2+pix3);
#ifdef CRTS_WARP
// Get rid of wrong pixels on edge
pixT*=vin;
#endif
scanA*=pixT;
scanB*=pixT;
// Apply horizontal and vertical filters
CrtsF3 color=
(colA0*pix0+colA1*pix1+colA2*pix2+colA3*pix3)*scanA +
(colB0*pix0+colB1*pix1+colB2*pix2+colB3*pix3)*scanB;
#endif
//--------------------------------------------------------------
// Apply phosphor mask
color*=CrtsMask(ipos,mask);
//--------------------------------------------------------------
// Optional color processing
#ifdef CRTS_TONE
// Tonal control, start by protecting from /0
CrtsF1 peak=max(1.0/(256.0*65536.0),
CrtsMax3F1(color.r,color.g,color.b));
// Compute the ratios of {R,G,B}
CrtsF3 ratio=color*CrtsRcpF1(peak);
// Apply tonal curve to peak value
#ifdef CRTS_CONTRAST
peak=pow(peak,tone.x);
#endif
peak=peak*CrtsRcpF1(peak*tone.y+tone.z);
// Apply saturation
#ifdef CRTS_SATURATION
ratio=pow(ratio,CrtsF3(tone.w,tone.w,tone.w));
#endif
// Reconstruct color
return ratio*peak;
#else
return color;
#endif
//--------------------------------------------------------------
}
#endif
void main() {
vec2 warp_factor;
warp_factor.x = CURVATURE;
warp_factor.y = (3.0 / 4.0) * warp_factor.x; // assume 4:3 aspect
warp_factor.x *= (1.0 - TRINITRON_CURVE);
FragColor.rgb = CrtsFilter(vTexCoord.xy * outputSize.xy,
sourceSize[0].xy * outputSize.zw,
sourceSize[0].xy * vec2(0.5,0.5),
sourceSize[0].zw,
outputSize.zw,
2.0 * outputSize.zw,
sourceSize[0].y,
warp_factor,
INPUT_THIN,
INPUT_BLUR,
INPUT_MASK,
CrtsTone(1.0,0.0,INPUT_THIN,INPUT_MASK));
// Shadertoy outputs non-linear color
FragColor.rgb = ToSrgb(FragColor.rgb);
}
-16
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@@ -1,16 +0,0 @@
#version 150
in vec4 position;
in vec2 texCoord;
out Vertex {
vec2 vTexCoord;
};
uniform vec4 targetSize;
uniform vec4 sourceSize[];
void main() {
gl_Position = position;
vTexCoord = texCoord;
}
@@ -1,12 +0,0 @@
input
filter: nearest
program
filter: nearest
vertex: lottes.vs
fragment: lottes.fs
output
height: 0
width: 0
filter: linear
@@ -1,21 +0,0 @@
#version 150
#define distortion 0.2
uniform sampler2D source[];
uniform vec4 sourceSize[];
in Vertex {
vec2 texCoord;
};
out vec4 fragColor;
vec2 radialDistortion(vec2 coord) {
vec2 cc = coord - vec2(0.5);
float dist = dot(cc, cc) * distortion;
return coord + cc * (1.0 - dist) * dist;
}
void main() {
fragColor = texture(source[0], radialDistortion(texCoord));
}
@@ -1,4 +0,0 @@
program
filter: linear
wrap: border
fragment: curvature.fs
@@ -1,25 +0,0 @@
#version 150
uniform sampler2D source[];
uniform vec4 sourceSize[];
in Vertex {
vec2 texCoord;
};
out vec4 fragColor;
vec3 grayscale(vec3 color) {
return vec3(dot(color, vec3(0.3, 0.59, 0.11)));
}
void main() {
vec2 offset = fract(texCoord * sourceSize[0].xy) - 0.5;
offset /= sourceSize[0].xy;
vec3 cx = texture(source[0], texCoord - offset).xyz;
vec3 cy = texture(source[0], texCoord).xyz;
vec3 cz = vec3(5.0 * grayscale(abs(cx - cy)));
fragColor = vec4(clamp(cz, 0.0, 1.0), 1.0);
}
@@ -1,4 +0,0 @@
program
filter: linear
wrap: edge
fragment: edge-detection.fs
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#version 150
// GritsScanlines by torridgristle
// license: public domain (https://forums.libretro.com/t/lightweight-lut-based-scanline-glow-concept-prototype-glsl/18336/7)
/* Runtime parameters
#in LuminanceDawnbringer
#in LuminanceLUT
#in ScanlinesOpacity
#in GammaCorrection
#in TrinitronColors
*/
// static parameters
//#define LuminanceDawnbringer
#define LuminanceLUT
//#define TrinitronColors
#define ScanlinesOpacity 0.9
//#define GammaCorrection 1.2
uniform sampler2D source[];
uniform vec4 sourceSize[];
uniform vec4 targetSize;
uniform sampler2D pixmap[];
in Vertex {
vec2 texCoord;
};
out vec4 fragColor;
#ifdef LuminanceLUT
#define LUT_SizeLum 16.0
// Code taken from RetroArch's LUT shader
float luminancelut(vec4 org)
{
vec4 imgColorLum = org;
float redLum = ( imgColorLum.r * (LUT_SizeLum - 1.0) + 0.4999 ) / (LUT_SizeLum * LUT_SizeLum);
float greenLum = ( imgColorLum.g * (LUT_SizeLum - 1.0) + 0.4999 ) / LUT_SizeLum;
float blue1Lum = (floor( imgColorLum.b * (LUT_SizeLum - 1.0) ) / LUT_SizeLum) + redLum;
float blue2Lum = (ceil( imgColorLum.b * (LUT_SizeLum - 1.0) ) / LUT_SizeLum) + redLum;
float mixerLum = clamp(max((imgColorLum.b - blue1Lum) / (blue2Lum - blue1Lum), 0.0), 0.0, 32.0);
float color1Lum = texture(pixmap[1], vec2( blue1Lum, greenLum )).x;
float color2Lum = texture(pixmap[1], vec2( blue2Lum, greenLum )).x;
return mix(color1Lum, color2Lum, mixerLum);
}
#endif
#ifdef TrinitronColors
#define LUT_SizeTrinitron 32.0
vec4 TrinitronD50(vec4 org)
{
vec4 imgColorTrinitron = org;
float redTrinitron = ( imgColorTrinitron.r * (LUT_SizeTrinitron - 1.0) + 0.4999 ) / (LUT_SizeTrinitron * LUT_SizeTrinitron);
float greenTrinitron = ( imgColorTrinitron.g * (LUT_SizeTrinitron - 1.0) + 0.4999 ) / LUT_SizeTrinitron;
float blue1Trinitron = (floor( imgColorTrinitron.b * (LUT_SizeTrinitron - 1.0) ) / LUT_SizeTrinitron) + redTrinitron;
float blue2Trinitron = (ceil( imgColorTrinitron.b * (LUT_SizeTrinitron - 1.0) ) / LUT_SizeTrinitron) + redTrinitron;
float mixerTrinitron = clamp(max((imgColorTrinitron.b - blue1Trinitron) / (blue2Trinitron - blue1Trinitron), 0.0), 0.0, 32.0);
vec4 color1Trinitron = texture(pixmap[2], vec2( blue1Trinitron, greenTrinitron ));
vec4 color2Trinitron = texture(pixmap[2], vec2( blue2Trinitron, greenTrinitron ));
vec4 fragColorTrinitron = mix(color1Trinitron, color2Trinitron, mixerTrinitron);
return vec4(pow(fragColorTrinitron.rgb,vec3(GammaCorrection,GammaCorrection,GammaCorrection)),1.0);
}
#endif
void main() {
//Source Image
vec4 org = texture(source[0], texCoord);
#ifdef LuminanceLUT
// Use a 3DLUT instead of an equation so that it can use any arbitrary mess you can come up with.
float luminance = luminancelut(org);
#elif defined LuminanceDawnbringer
// Dawnbringer's brightness equation from Dawnbringer's Toolbox scripts for Grafx2
float luminance = sqrt(org.r*org.r*0.0676 + org.g*org.g*0.3025 + org.b*org.b*0.0361) * 1.5690256395005606;
#else
// Plain, standard, fine; slightly faster
float luminance = ((0.299*org.r) + (0.587*org.g) + (0.114*org.b));
#endif
// Don't let it exceed 1.0
luminance = clamp(luminance, 0.0, 1.0);
// Scanline Mapping, based on the Phosphor LUT shader's method of tiling a texture over the screen
vec2 LUTeffectiveCoord = vec2(luminance,fract((texCoord.y*targetSize.y)/4.0));
// Scanline Layer
vec4 screen = texture(pixmap[0], LUTeffectiveCoord);
// Output multiplying the scanlines into the original image, with control over opacity
#ifdef TrinitronColors
org = TrinitronD50(org);
#endif
fragColor = ((screen*ScanlinesOpacity)+(1.0 - ScanlinesOpacity)) * (org);
}
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@@ -1,35 +0,0 @@
settings
LuminanceDawnbringer
active: false
LuminanceLUT
active: false
TrinitronColors
active: true
ScanlinesOpacity: 0.9
min: 0.0
max: 1.0
step: 0.05
GammaCorrection: 1.2
min: 0.5
max: 2.0
step: 0.1
program
filter: nearest
wrap: edge
width: 100%
height: 400%
fragment: GritsScanlines.fs
pixmap: Scanline-LUT-4px.png
filter: linear
wrap: edge
pixmap: Fake-Self-Illumination.png
filter: linear
wrap: edge
pixmap: Trinitron D50 Absolute Colorimetric - LUT.png
filter: linear
wrap: edge
output1
filter: linear
@@ -1,39 +0,0 @@
#version 150
/*
Interlacing
Author: hunterk
License: Public domain
Note: This shader is designed to work with the typical interlaced output from an emulator, which displays both even and odd fields twice.
This shader will un-weave the image, resulting in a standard, alternating-field interlacing.
*/
uniform sampler2D source[];
uniform vec2 targetSize;
uniform vec4 sourceSize[];
uniform int phase;
in Vertex {
vec2 texCoord;
};
out vec4 fragColor;
// This controls how bright the intermediate lines are; 0.0 = totally black
#define percent 0.0
void main()
{
vec4 res = texture(source[0], texCoord);
float y = 0.0;
// assume anything with a vertical resolution greater than 400 lines is interlaced
if (sourceSize[0].y > 400.0) y = sourceSize[0].y * texCoord.y + phase;
else
y = 2.00001 * sourceSize[0].y * texCoord.y;
if (mod(y, 2.0) > 0.99999) fragColor = res;
else
fragColor = vec4(percent) * res;
}
@@ -1,6 +0,0 @@
input
filter: nearest
program
fragment: interlace.fs
modulo: 2
@@ -1,11 +0,0 @@
input
filter: nearest
program
filter: nearest
height: 100%
fragment: pal-r57shell.fs
output
height: 0
filter: linear
@@ -1,368 +0,0 @@
#version 150
// NES PAL composite signal simulation for RetroArch
// shader by r57shell
// thanks to feos & HardWareMan & NewRisingSun
// also TV subpixels and scanlines
// LICENSE: PUBLIC DOMAIN
// NOTE: for nice TV subpixels and scanlines I recommend to
// disable this features here and apply CRT-specialized shader.
// Quality considerations
// there are three main options:
// USE_RAW (R), USE_DELAY_LINE (D), USE_COLORIMETRY (C)
// here is table of quality in decreasing order:
// RDC, RD, RC, DC, D, C
// compatibility macros
#define float2 vec2
#define float3 vec3
#define float4 vec4
#define frac(c) fract(c)
#define saturate(c) clamp(c, 0.0, 1.0)
#define fmod(x,y) mod(x,y)
#define mul(x,y) (y*x)
#define float2x2 mat2
#define float3x3 mat3
#define float4x4 mat4
#define bool2 bvec2
#define bool3 bvec3
#define bool4 bvec4
#define static
uniform sampler2D source[];
uniform vec4 sourceSize[];
uniform vec4 outputSize;
uniform int phase;
in Vertex {
vec2 texCoord;
};
out vec4 fragColor;
// TWEAKS start
// use delay line technique
// without delay line technique, color would interleave
// to avoid this, set HueRotation to zero.
#define USE_DELAY_LINE
// use this if you need to swap even/odd V sign.
// sign of V changes each scanline
// so if some scanline is positive, then next is negative
// and if you want to match picture
// to actual running PAL NES on TV
// you may want to have this option, to change signs
// if they don't match
//#define SWAP_VSIGN
// rough simulation of scanlines
// better if you use additional shader instead
// if you still use it, make sure that SizeY
// is at least twice lower than output height
#define USE_SCANLINES // FIXME: scanlines are broken and I'm too lazy to fix it right now
// to change gamma of virtual TV from 2.2 to something else
#define USE_GAMMA
// use sampled version. it's much more slower version of shader.
// because it is computing x4 more values. NOT RECOMMENDED.
//#define USE_SAMPLED
#ifndef PARAMETER_UNIFORM
// NTSC standard gamma = 2.2
// PAL standard gamma = 2.8
// according to many sources, very unlikely gamma of TV is 2.8
// most likely gamma of PAL TV is in range 2.4-2.5
const float Gamma_static = 2.8; // gamma of virtual TV
const float Brightness_static = 0.25;
const float Contrast_static = 1.1;
const float Saturation_static = 1.1;
const int
Ywidth_static = 12,
Uwidth_static = 23,
Vwidth_static = 23;
#define Brightness Brightness_static
#define Gamma Gamma_static
#define Ywidth Ywidth_static
#define Uwidth Uwidth_static
#define Vwidth Vwidth_static
#define SCANLINE_MUL (sw.x*dark_scanline+sw.y)
int Mwidth = int(max(float(Ywidth), max(float(Uwidth), float(Vwidth))));
// correct one is -2.5
// works only with USE_RAW
const float HueShift = -2.5;
// rotation of hue due to luma level.
const float HueRotation = 2.;
// touch this only if you know what you doing
const float Phase_Y = 2.; // fmod(341*10,12)
const float Phase_One = 0.; // alternating phases.
const float Phase_Two = 8.;
// screen size, scanlines = y*2; y one field, and y other field.
const int SizeX = 256;
const int SizeY = 240;
// count of pixels of virtual TV.
// value close to 1000 produce small artifacts
const int TV_Pixels = 400;
const float dark_scanline = 0.5; // half
#endif
// this is using following matrixes.
// it provides more scientific approach
// by conversion into linear XYZ space
// and back to sRGB.
// it's using Gamma setting too.
// define USE_GAMMA is not required.
#define USE_COLORIMETRY
const float3x3 RGB_to_XYZ =
mat3(
0.4306190, 0.3415419, 0.1783091,
0.2220379, 0.7066384, 0.0713236,
0.0201853, 0.1295504, 0.9390944
);
const float3x3 XYZ_to_sRGB =
mat3(
3.2406, -1.5372, -0.4986,
-0.9689, 1.8758, 0.0415,
0.0557, -0.2040, 1.0570
);
// TWEAKS end
const float YUV_u = 0.492;
const float YUV_v = 0.877;
const mat3 RGB_to_YUV =
mat3(
float3( 0.299, 0.587, 0.114), //Y
float3(-0.299,-0.587, 0.886)*YUV_u, //B-Y
float3( 0.701,-0.587,-0.114)*YUV_v //R-Y
);
#ifdef USE_DELAY_LINE
const float comb_line = 1.;
#else
const float comb_line = 2.;
#endif
static const float Voltage_0 = 0.518;
static const float Voltage_1 = 1.962;
static const float DeltaV = (Voltage_1-Voltage_0);
float RGB_y = Contrast_static/Ywidth_static/DeltaV;
float RGB_u = comb_line*Contrast_static*Saturation_static/YUV_u/Uwidth_static/DeltaV;
float RGB_v = comb_line*Contrast_static*Saturation_static/YUV_v/Vwidth_static/DeltaV;
mat3 YUV_to_RGB =
mat3(
float3(1., 1., 1.)*RGB_y,
float3(0., -0.114/0.587, 1.)*RGB_u,
float3(1., -0.299/0.587, 0.)*RGB_v
);
const float pi = 3.1415926535897932384626433832795;
float sinn(float x)
{
return sin(/*fmod(x,24)*/x*(pi*2./24.));
}
float coss(float x)
{
return cos(/*fmod(x,24)*/x*(pi*2./24.));
}
float3 monitor(sampler2D tex, float2 p)
{
float2 size = sourceSize[0].xy;//float2(SizeX,SizeY);
// align vertical coord to center of texel
float2 uv = float2(
p.x,
(floor(p.y*sourceSize[0].y)+0.5)/sourceSize[0].y);
#ifdef USE_DELAY_LINE
float2 sh = (sourceSize[0].xy/sourceSize[0].xy/size)*float2(14./10.,-1.0);
#endif
float2 pc = uv*sourceSize[0].xy/sourceSize[0].xy*size*float2(10.,1.);
float alpha = dot(floor(float2(pc.x,pc.y)),float2(2.,Phase_Y*2.));
alpha += Phase_One*2.;
// 1/size.x of screen in uv coords = sourceSize[0].x/sourceSize[0].x/size.x;
// then 1/10*size.x of screen:
float ustep = sourceSize[0].x/sourceSize[0].x/size.x/10.;
float border = sourceSize[0].x/sourceSize[0].x;
float ss = 2.0;
#ifdef SWAP_VSIGN
#define PAL_SWITCH(A) A < 1.
#else
#define PAL_SWITCH(A) A > 1.
#endif
if (PAL_SWITCH(fmod(uv.y*sourceSize[0].y/sourceSize[0].y*size.y,2.0)))
{
// cos(pi-alpha) = -cos(alpha)
// sin(pi-alpha) = sin(alpha)
// pi - alpha
alpha = -alpha+12012.0;
ss = -2.0;
}
float ysum = 0., usum = 0., vsum = 0.;
for (int i=0; i<Mwidth; ++i)
{
float4 res = texture(tex, uv);
float3 yuv = mul(RGB_to_YUV, res.xyz);
float a1 = alpha+(HueShift+2.5)*2.-yuv.x*ss*HueRotation;
float sig = yuv.x+dot(yuv.yz,sign(float2(sinn(a1),coss(a1))));
#ifdef USE_DELAY_LINE
float4 res1 = texture(tex, uv+sh);
float3 yuv1 = mul(RGB_to_YUV, res1.xyz);
float a2 = (HueShift+2.5)*2.+12012.0-alpha+yuv.x*ss*HueRotation;
float sig1 = yuv1.x+dot(yuv1.yz,sign(float2(sinn(a2),coss(a2))));
#endif
if (i < Ywidth)
ysum += sig;
#ifdef USE_DELAY_LINE
if (i < Uwidth)
usum += (sig+sig1)*sinn(alpha);
if (i < Vwidth)
vsum += (sig-sig1)*coss(alpha);
#else
if (i < Uwidth)
usum += sig*sinn(alpha);
if (i < Vwidth)
vsum += sig*coss(alpha);
#endif
alpha -= ss;
uv.x -= ustep;
}
float3 rgb = mul(float3(ysum+Brightness*Ywidth_static,usum,vsum), YUV_to_RGB);
#if defined(USE_GAMMA) && !defined(USE_COLORIMETRY)
float3 rgb1 = saturate(rgb);
rgb = pow(rgb1, Gamma/2.2);
#endif
#ifdef USE_COLORIMETRY
float3 rgb1 = saturate(rgb);
rgb = pow(rgb1, float3(Gamma, Gamma, Gamma));
#endif
#if (defined(USE_SCANLINES))
float2 q = (p*sourceSize[0].xy/sourceSize[0].xy)*float2(TV_Pixels*3.,size.y*2.);
#endif
#ifdef USE_SCANLINES
float scanlines = size.y * outputSize.z;
float top = fmod(q.y-0.5*scanlines*2.,2.);
float bottom = top+frac(scanlines)*2.;
float2 sw = saturate(min(float2(1.,2.),float2(bottom, bottom))
-max(float2(0.,1.),float2(top)))
+saturate(min(float2(3.,4.),float2(bottom, bottom))
-max(float2(2.,3.),float2(top)))
+floor(scanlines);
rgb = rgb*SCANLINE_MUL/(sw.x+sw.y);
/*
//old stupid method
float z =
#ifdef ANIMATE_SCANLINE
fmod(phase,2.0)+
#endif
0.5;
if (abs(fmod(q.y+0.5,2)-z)<0.5)
rgb *= dark_scanline;
*/
#endif
// size of pixel screen in texture coords:
//float output_pixel_size = sourceSize[0].x/(outputSize.x*sourceSize[0].x);
// correctness check
//if (fmod(p.x*output_pixel_size,2.0) < 1.0)
// rgb = float3(0.,0.,0.);
#ifdef USE_COLORIMETRY
float3 xyz1 = mul(RGB_to_XYZ,rgb);
float3 srgb = saturate(mul(XYZ_to_sRGB,xyz1));
float3 a1 = 12.92*srgb;
float3 a2 = 1.055*pow(srgb,float3(1./2.4))-0.055;
float3 ssrgb;
ssrgb.x = (srgb.x<0.0031308?a1.x:a2.x);
ssrgb.y = (srgb.y<0.0031308?a1.y:a2.y);
ssrgb.z = (srgb.z<0.0031308?a1.z:a2.z);
return ssrgb;
#else
return rgb;
#endif
}
// pos (left corner, sample size)
float4 monitor_sample(sampler2D tex, float2 p, float2 sample_)
{
// linear interpolation was...
// now other thing.
// http://imgur.com/m8Z8trV
// AT LAST IT WORKS!!!!
// going to check in retroarch...
float2 size = sourceSize[0].xy;
float2 next = float2(.25,1.)/size;
float2 f = frac(float2(4.,1.)*size*p);
sample_ *= float2(4.,1.)*size;
float2 l;
float2 r;
if (f.x+sample_.x < 1.)
{
l.x = f.x+sample_.x;
r.x = 0.;
}
else
{
l.x = 1.-f.x;
r.x = min(1.,f.x+sample_.x-1.);
}
if (f.y+sample_.y < 1.)
{
l.y = f.y+sample_.y;
r.y = 0.;
}
else
{
l.y = 1.-f.y;
r.y = min(1.,f.y+sample_.y-1.);
}
float3 top = mix(monitor(tex, p), monitor(tex, p+float2(next.x,0.)), r.x/(l.x+r.x));
float3 bottom = mix(monitor(tex, p+float2(0.,next.y)), monitor(tex, p+next), r.x/(l.x+r.x));
return float4(mix(top,bottom, r.y/(l.y+r.y)),1.0);
}
void main() {
#ifdef USE_SAMPLED
fragColor = vec4(monitor_sample(source[0], texCoord, outputSize.zw).rgb, 1.0);
#else
fragColor = float4(monitor(source[0], texCoord), 1.);
#endif
}
@@ -1,2 +0,0 @@
program
fragment: phosphorish.fs
@@ -1,56 +0,0 @@
/* Phosphorish
Copyright (C) 2011 Themaister
This program is licensed in the public domain
*/
#version 150
uniform sampler2D source[];
uniform vec4 sourceSize[];
uniform vec4 targetSize;
in Vertex {
vec2 texCoord;
};
out vec4 fragColor;
vec3 to_focus(float pixel)
{
pixel = mod(pixel + 3.0, 3.0);
if (pixel >= 2.0) // Blue
return vec3(pixel - 2.0, 0.0, 3.0 - pixel);
else if (pixel >= 1.0) // Green
return vec3(0.0, 2.0 - pixel, pixel - 1.0);
else // Red
return vec3(1.0 - pixel, pixel, 0.0);
}
void main()
{
float y = mod(texCoord.y * sourceSize[0].y, 1.0);
float intensity = exp(-0.2 * y);
vec2 one_x = vec2(1.0 / (3.0 * sourceSize[0].x), 0.0);
vec3 color = texture(source[0], texCoord.xy - 0.0 * one_x).rgb;
vec3 color_prev = texture(source[0], texCoord.xy - 1.0 * one_x).rgb;
vec3 color_prev_prev = texture(source[0], texCoord.xy - 2.0 * one_x).rgb;
float pixel_x = 3.0 * texCoord.x * sourceSize[0].x;
vec3 focus = to_focus(pixel_x - 0.0);
vec3 focus_prev = to_focus(pixel_x - 1.0);
vec3 focus_prev_prev = to_focus(pixel_x - 2.0);
vec3 result =
0.8 * color * focus +
0.6 * color_prev * focus_prev +
0.3 * color_prev_prev * focus_prev_prev;
result = 2.3 * pow(result, vec3(1.4));
fragColor = vec4(intensity * result, 1.0);
}
@@ -1,4 +0,0 @@
program
filter: linear
wrap: border
fragment: scanline.fs
-20
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@@ -1,20 +0,0 @@
#version 150
uniform sampler2D source[];
in Vertex {
vec2 texCoord;
};
out vec4 fragColor;
void main() {
vec4 rgba = texture(source[0], texCoord);
vec4 intensity;
if(fract(gl_FragCoord.y * (0.5 * 4.0 / 3.0)) > 0.5) {
intensity = vec4(0);
} else {
intensity = smoothstep(0.2, 0.8, rgba) + normalize(rgba);
}
fragColor = intensity * -0.25 + rgba * 1.1;
}
@@ -1,8 +0,0 @@
input
filter: linear
program
fragment: sharp-bilinear.fs
output
filter: linear
@@ -1,33 +0,0 @@
#version 150
// Sharp Bilinear
// Author: Themaister
// License: Public Domain
uniform sampler2D source[];
uniform vec4 sourceSize[];
uniform vec4 targetSize;
in Vertex {
vec2 texCoord;
};
out vec4 fragColor;
void main() {
float prescale = floor(targetSize.y / sourceSize[0].y);
vec2 texel = texCoord.xy * sourceSize[0].xy;
vec2 texel_floored = floor(texel);
vec2 s = fract(texel);
float region_range = 0.5 - 0.5 / prescale;
// Figure out where in the texel to sample to get correct pre-scaled bilinear.
// Uses the hardware bilinear interpolator to avoid having to sample 4 times manually.
vec2 center_dist = s - 0.5;
vec2 f = (center_dist - clamp(center_dist, -region_range, region_range)) * prescale + 0.5;
vec2 mod_texel = texel_floored + f;
fragColor = texture(source[0], mod_texel / sourceSize[0].xy);;
}
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@@ -1,122 +0,0 @@
layout
name: Japanese
//row 0
key: 0 わ を
key: 1 ! ぬ
key: 2 " ふ
key: 3 # あ ぁ
key: 4 $ う ぅ
key: 5 % え ぇ
key: 6 & お ぉ
key: 7 ’ や ゃ
//row 1
key: 8 ( ゆ ゅ
key: 9 ) よ ょ
key: - = ほ
key: ^ ~ へ
key: ¥ | ー
key: @ ‘ "
key: [ { 。
key: ; + れ
//row 2
key: : * け
key: ] } む
key: , < ね `
key: . > る 。
key: / ? め .
key: - ろ
key: A ち
key: B こ
//row 3
key: C そ
key: D し
key: E い ぃ
key: F は
key: G き
key: H く
key: I に
key: J ま
//row 4
key: K の
key: L り
key: M も
key: N み
key: O ら
key: P せ
key: Q た
key: R す
//row 5
key: S と
key: T か
key: U な
key: V ひ
key: W て
key: X さ
key: Y ん
key: Z つ っ
//row 6
key: SHIFT
key: CTRL
key: GRAPH
key: CAPS
key: かな
key: F1 F6
key: F2 F7
key: F3 F8
//row 7
key: F4 F9
key: F5 F10
key: ESC
key: TAB
key: STOP
key: BS
key: SELECT
key: RETURN
//row 8
key: SPACE
key: CLS/HOME
key: INS
key: DEL
key: ←
key: ↑
key: ↓
key: →
//row 9
key: *
key: +
key: /
key: 0
key: 1
key: 2
key: 3
key: 4
//row 10
key: 5
key: 6
key: 7
key: 8
key: 9
key: -
key: ,
key: .
//row 11
key:
key: 実行
key:
key: 取消
key:
key:
key:
key:
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@@ -1,122 +0,0 @@
layout
name: Japanese
//row 0
key: 0 わ を
key: 1 ! ぬ
key: 2 " ふ
key: 3 # あ ぁ
key: 4 $ う ぅ
key: 5 % え ぇ
key: 6 & お ぉ
key: 7 ’ や ゃ
//row 1
key: 8 ( ゆ ゅ
key: 9 ) よ ょ
key: - = ほ
key: ^ ~ へ
key: ¥ | ー
key: @ ‘ "
key: [ { 。
key: ; + れ
//row 2
key: : * け
key: ] } む
key: , < ね `
key: . > る 。
key: / ? め .
key: - ろ
key: A ち
key: B こ
//row 3
key: C そ
key: D し
key: E い ぃ
key: F は
key: G き
key: H く
key: I に
key: J ま
//row 4
key: K の
key: L り
key: M も
key: N み
key: O ら
key: P せ
key: Q た
key: R す
//row 5
key: S と
key: T か
key: U な
key: V ひ
key: W て
key: X さ
key: Y ん
key: Z つ っ
//row 6
key: SHIFT
key: CTRL
key: GRAPH
key: CAPS
key: かな
key: F1 F6
key: F2 F7
key: F3 F8
//row 7
key: F4 F9
key: F5 F10
key: ESC
key: TAB
key: STOP
key: BS
key: SELECT
key: RETURN
//row 8
key: SPACE
key: CLS/HOME
key: INS
key: DEL
key: ←
key: ↑
key: ↓
key: →
//row 9
key: *
key: +
key: /
key: 0
key: 1
key: 2
key: 3
key: 4
//row 10
key: 5
key: 6
key: 7
key: 8
key: 9
key: -
key: ,
key: .
//row 11
key:
key: 実行
key:
key: 取消
key:
key:
key:
key:
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-970
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@@ -1,970 +0,0 @@
database
revision: 2020-11-09
//Boards (Production)
database
revision: 2020-01-21
board: BANDAI-PT-923
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff mask=0x8000
slot type=SufamiTurbo
rom
map address=20-3f,a0-bf:8000-ffff mask=0x8000
ram
map address=60-6f,e0-ef:0000-ffff
slot type=SufamiTurbo
rom
map address=40-5f,c0-df:0000-ffff mask=0x8000
ram
map address=70-7d,f0-ff:0000-ffff
board: BSC-1A5B9P-01
memory type=RAM content=Save
map address=10-17:5000-5fff mask=0xf000
processor identifier=MCC
map address=00-0f:5000-5fff
mcu
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
map address=20-3f,a0-bf:6000-7fff
memory type=ROM content=Program
memory type=RAM content=Download
slot type=BSMemory
board: BSC-1A5M-02
memory type=ROM content=Program
map address=00-1f:8000-ffff mask=0xe08000 base=0x000000
map address=20-3f:8000-ffff mask=0xe08000 base=0x100000
map address=80-9f:8000-ffff mask=0xe08000 base=0x200000
map address=a0-bf:8000-ffff mask=0xe08000 base=0x100000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
slot type=BSMemory
map address=c0-ef:0000-ffff
board: BSC-1A7M-(01,10)
memory type=ROM content=Program
map address=00-1f:8000-ffff mask=0xe08000 base=0x000000
map address=20-3f:8000-ffff mask=0xe08000 base=0x100000
map address=80-9f:8000-ffff mask=0xe08000 base=0x200000
map address=a0-bf:8000-ffff mask=0xe08000 base=0x100000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
slot type=BSMemory
map address=c0-ef:0000-ffff
board: BSC-1J3M-01
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff
map address=40-5f,c0-df:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
slot type=BSMemory
map address=20-3f,a0-bf:8000-ffff
map address=60-7d,e0-ff:0000-ffff
board: BSC-1J5M-01
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff
map address=40-5f,c0-df:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
slot type=BSMemory
map address=20-3f,a0-bf:8000-ffff
map address=60-7d,e0-ff:0000-ffff
board: BSC-1L3B-01
processor architecture=W65C816S
map address=00-3f,80-bf:2200-23ff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x408000
map address=c0-ff:0000-ffff
memory type=ROM content=Program
slot type=BSMemory
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=40-4f:0000-ffff
memory type=RAM content=Internal
map address=00-3f,80-bf:3000-37ff size=0x800
board: BSC-1L5B-01
processor architecture=W65C816S
map address=00-3f,80-bf:2200-23ff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x408000
map address=c0-ff:0000-ffff
memory type=ROM content=Program
slot type=BSMemory
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=40-4f:0000-ffff
memory type=RAM content=Internal
map address=00-3f,80-bf:3000-37ff size=0x800
board: SGB-R-10
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
map address=40-7d,c0-ff:0000-7fff mask=0x8000
processor identifier=ICD revision=2
map address=00-3f,80-bf:6000-67ff,7000-7fff
memory type=ROM content=Boot architecture=SM83
slot type=GameBoy
board: SHVC-1A0N-(01,02,10,20,30)
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
map address=40-7d,c0-ff:0000-7fff mask=0x8000
board: SHVC-1A1B-(04,05,06)
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-ffff
board: SHVC-1A1M-(01,10,11,20)
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: SHVC-1A3B-(11,12,13)
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-ffff
board: SHVC-1A3B-20
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: SHVC-1A3M-(10,20,21,30)
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: SHVC-1A5B-(02,04)
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-ffff
board: SHVC-1A5M-(01,11,20)
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: SHVC-1B0N-(02,03,10)
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff mask=0x8000
processor architecture=uPD7725
map address=30-3f,b0-bf:8000-ffff mask=0x3fff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: SHVC-1B5B-02
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-ffff
processor architecture=uPD7725
map address=20-3f,a0-bf:8000-ffff mask=0x3fff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: SHVC-1C0N
processor architecture=GSU
map address=00-3f,80-bf:3000-34ff
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=60-7d,e0-ff:0000-ffff
board: SHVC-1C0N5S-01
processor architecture=GSU
map address=00-3f,80-bf:3000-34ff
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=60-7d,e0-ff:0000-ffff
board: SHVC-1CA0N5S-01
processor architecture=GSU
map address=00-3f,80-bf:3000-34ff
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
map address=40-5f,c0-df:0000-ffff
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=70-71,f0-f1:0000-ffff
board: SHVC-1CA0N6S-01
processor architecture=GSU
map address=00-3f,80-bf:3000-34ff
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
map address=40-5f,c0-df:0000-ffff
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=70-71,f0-f1:0000-ffff
board: SHVC-1CA6B-01
processor architecture=GSU
map address=00-3f,80-bf:3000-34ff
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
map address=40-5f,c0-df:0000-ffff
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=70-71,f0-f1:0000-ffff
board: SHVC-1CB0N7S-01
processor architecture=GSU
map address=00-3f,80-bf:3000-34ff
memory type=ROM content=Program
map address=00-3f:8000-ffff mask=0x8000
map address=40-5f:0000-ffff
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=70-71:0000-ffff
board: SHVC-1CB5B-(01,20)
processor architecture=GSU
map address=00-3f,80-bf:3000-34ff
memory type=ROM content=Program
map address=00-3f:8000-ffff mask=0x8000
map address=40-5f:0000-ffff
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=70-71:0000-ffff
board: SHVC-1CB7B-01
processor architecture=GSU
map address=00-3f,80-bf:3000-34ff
memory type=ROM content=Program
map address=00-3f:8000-ffff mask=0x8000
map address=40-5f:0000-ffff
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=70-71:0000-ffff
board: SHVC-1DC0N-01
processor architecture=HG51BS169
map address=00-3f,80-bf:6c00-6fff,7c00-7fff
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-77:0000-7fff
memory type=ROM content=Data architecture=HG51BS169
memory type=RAM content=Data architecture=HG51BS169
map address=00-3f,80-bf:6000-6bff,7000-7bff mask=0xf000
oscillator
board: SHVC-1DS0B-20
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
processor architecture=uPD96050
map address=60-67,e0-e7:0000-3fff
memory type=ROM content=Program architecture=uPD96050
memory type=ROM content=Data architecture=uPD96050
memory type=RAM content=Data architecture=uPD96050
map address=68-6f,e8-ef:0000-7fff mask=0x8000
oscillator
board: SHVC-1J0N-(01,10,20)
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
board: SHVC-1J1M-(11,20)
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
board: SHVC-1J3B-01
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
board: SHVC-1J3M-(01,11,20)
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
board: SHVC-1J5M-(01,11,20)
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
board: SHVC-1K0N-01
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
processor architecture=uPD7725
map address=00-1f,80-9f:6000-7fff mask=0xfff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: SHVC-1K1B-01
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
processor architecture=uPD7725
map address=00-1f,80-9f:6000-7fff mask=0xfff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: SHVC-1K1X-10
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
processor architecture=uPD7725
map address=00-1f,80-9f:6000-7fff mask=0xfff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: SHVC-1L0N3S-01
processor architecture=W65C816S
map address=00-3f,80-bf:2200-23ff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x408000
map address=c0-ff:0000-ffff
memory type=ROM content=Program
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=40-4f:0000-ffff
memory type=RAM content=Internal
map address=00-3f,80-bf:3000-37ff size=0x800
board: SHVC-1L3B-(02,11)
processor architecture=W65C816S
map address=00-3f,80-bf:2200-23ff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x408000
map address=c0-ff:0000-ffff
memory type=ROM content=Program
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=40-4f:0000-ffff
memory type=RAM content=Internal
map address=00-3f,80-bf:3000-37ff size=0x800
board: SHVC-1L5B-(11,20)
processor architecture=W65C816S
map address=00-3f,80-bf:2200-23ff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x408000
map address=c0-ff:0000-ffff
memory type=ROM content=Program
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=40-4f:0000-ffff
memory type=RAM content=Internal
map address=00-3f,80-bf:3000-37ff size=0x800
board: SHVC-1N0N-(01,10)
processor identifier=SDD1
map address=00-3f,80-bf:4800-480f
mcu
map address=00-3f,80-bf:8000-ffff
map address=c0-ff:0000-ffff
memory type=ROM content=Program
board: SHVC-2A0N-01#A
memory type=ROM content=Program
map address=00-2f,80-af:8000-ffff mask=0x8000
map address=40-6f,c0-ef:0000-ffff mask=0x8000
board: SHVC-2A0N-(01,10,11,20)
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
map address=40-7d,c0-ff:0000-7fff mask=0x8000
board: SHVC-2A1M-01
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: SHVC-2A3B-01
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: SHVC-2A3M-01#A
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: SHVC-2A3M-(01,11,20)
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: SHVC-2A5M-01
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: SHVC-2B3B-01
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
processor architecture=uPD7725
map address=60-6f,e0-ef:0000-7fff mask=0x3fff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: SHVC-2DC0N-01
processor architecture=HG51BS169
map address=00-3f,80-bf:6c00-6fff,7c00-7fff
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-77:0000-7fff
memory type=ROM content=Data architecture=HG51BS169
memory type=RAM content=Data architecture=HG51BS169
map address=00-3f,80-bf:6000-6bff,7000-7bff mask=0xf000
oscillator
board: SHVC-2E3M-01
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
processor identifier=OBC1
map address=00-3f,80-bf:6000-7fff mask=0xe000
map address=70-71,f0-f1:6000-7fff,e000-ffff mask=0xe000
memory type=RAM content=Save
board: SHVC-2J0N-(01,10,11,20)
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
board: SHVC-2J3M-(01,11,20)
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=10-1f,30-3f,90-9f,b0-bf:6000-7fff mask=0xe000
board: SHVC-2J5M-01
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=10-1f,30-3f,90-9f,b0-bf:6000-7fff mask=0xe000
board: SHVC-3J0N-01
memory type=ROM content=Program
map address=00-2f,80-af:8000-ffff
map address=40-6f,c0-ef:0000-ffff
board: SHVC-BA0N-(01,10)
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
map address=40-7d,c0-ff:0000-7fff mask=0x8000
board: SHVC-BA1M-01
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: SHVC-BA3M-(01,10)
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: SHVC-BJ0N-(01,20)
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
board: SHVC-BJ1M-(10,20)
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
board: SHVC-BJ3M-(10,20)
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
board: SHVC-LDH3C-01
processor identifier=SPC7110
map address=00-3f,80-bf:4800-483f
map address=50,58:0000-ffff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x800000
map address=c0-ff:0000-ffff mask=0xc00000
memory type=ROM content=Program
memory type=ROM content=Data
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff mask=0xe000
rtc manufacturer=Epson
map address=00-3f,80-bf:4840-4842
memory type=RTC content=Time manufacturer=Epson
board: SHVC-LJ3M-01
memory type=ROM content=Program
map address=00-3f:8000-ffff base=0x400000
map address=40-7d:0000-ffff base=0x400000
map address=80-bf:8000-ffff mask=0xc00000
map address=c0-ff:0000-ffff mask=0xc00000
memory type=RAM content=Save
map address=80-bf:6000-7fff mask=0xe000
board: SHVC-LN3B-01
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff mask=0xe000
map address=70-73:0000-ffff
processor identifier=SDD1
map address=00-3f,80-bf:4800-480f
mcu
map address=00-3f,80-bf:8000-ffff
map address=c0-ff:0000-ffff
memory type=ROM content=Program
board: SHVC-SGB2-01
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
map address=40-7d,c0-ff:0000-7fff mask=0x8000
processor identifier=ICD revision=2
map address=00-3f,80-bf:6000-67ff,7000-7fff
memory type=ROM content=Boot architecture=SM83
oscillator
slot type=GameBoy
board: SHVC-YA0N-01
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
map address=40-7d,c0-ff:0000-7fff mask=0x8000
board: SHVC-YJ0N-01
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
//Boards (Generic)
database
revision: 2020-11-09
board: ARM-LOROM-RAM
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
map address=40-6f,c0-ef:0000-7fff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-ffff
processor architecture=ARM6
map address=00-3f,80-bf:3800-38ff
memory type=ROM content=Program architecture=ARM6
memory type=ROM content=Data architecture=ARM6
memory type=RAM content=Data architecture=ARM6
oscillator
board: BS-HIROM-RAM
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff
map address=40-5f,c0-df:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
slot type=BSMemory
map address=20-3f,a0-bf:8000-ffff
map address=60-7d,e0-ff:0000-ffff
board: BS-LOROM-RAM
memory type=ROM content=Program
map address=00-1f:8000-ffff mask=0xe08000 base=0x000000
map address=20-3f:8000-ffff mask=0xe08000 base=0x100000
map address=80-9f:8000-ffff mask=0xe08000 base=0x200000
map address=a0-bf:8000-ffff mask=0xe08000 base=0x100000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
slot type=BSMemory
map address=c0-ef:0000-ffff
board: BS-MCC-RAM
memory type=RAM content=Save
map address=10-17:5000-5fff mask=0xf000
processor identifier=MCC
map address=00-0f:5000-5fff
mcu
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
map address=20-3f,a0-bf:6000-7fff
memory type=ROM content=Program
memory type=RAM content=Download
slot type=BSMemory
board: BS-SA1-RAM
processor architecture=W65C816S
map address=00-3f,80-bf:2200-23ff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x408000
map address=c0-ff:0000-ffff
memory type=ROM content=Program
slot type=BSMemory
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=40-4f:0000-ffff
memory type=RAM content=Internal
map address=00-3f,80-bf:3000-37ff size=0x800
board: EVENT-CC92
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
processor manufacturer=NEC architecture=uPD78214
identifier: Campus Challenge '92
map address=c0,e0:0000
mcu
map address=00-1f,80-9f:8000-ffff
memory type=ROM content=Program
memory type=ROM content=Level-1
memory type=ROM content=Level-2
memory type=ROM content=Level-3
dip
processor manufacturer=NEC architecture=uPD7725
map address=20-3f,a0-bf:8000-ffff mask=0x7fff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: EVENT-PF94
memory type=RAM content=Save
map address=30-3f,b0-bf:6000-7fff mask=0xe000
processor manufacturer=NEC architecture=uPD78214
identifier: PowerFest '94
map address=10,20:6000
mcu
map address=00-3f,80-bf:8000-ffff
map address=c0-ff:0000-ffff
memory type=ROM content=Program
memory type=ROM content=Level-1
memory type=ROM content=Level-2
memory type=ROM content=Level-3
dip
processor manufacturer=NEC architecture=uPD7725
map address=00-0f,80-8f:6000-7fff mask=0xfff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: EXHIROM
memory type=ROM content=Program
map address=00-3f:8000-ffff base=0x400000
map address=40-7d:0000-ffff base=0x400000
map address=80-bf:8000-ffff mask=0xc00000
map address=c0-ff:0000-ffff mask=0xc00000
board: EXHIROM-RAM
memory type=ROM content=Program
map address=00-3f:8000-ffff base=0x400000
map address=40-7d:0000-ffff base=0x400000
map address=80-bf:8000-ffff mask=0xc00000
map address=c0-ff:0000-ffff mask=0xc00000
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
board: EXHIROM-RAM-SHARPRTC
memory type=ROM content=Program
map address=00-3f:8000-ffff base=0x400000
map address=40-7d:0000-ffff base=0x400000
map address=80-bf:8000-ffff mask=0xc00000
map address=c0-ff:0000-ffff mask=0xc00000
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
rtc manufacturer=Sharp
map address=00-3f,80-bf:2800-2801
memory type=RTC content=Time manufacturer=Sharp
board: EXLOROM
memory type=ROM content=Program
map address=00-7d:8000-ffff mask=0x808000 base=0x400000
map address=80-ff:8000-ffff mask=0x808000 base=0x000000
board: EXLOROM-RAM
memory type=ROM content=Program
map address=00-7d:8000-ffff mask=0x808000 base=0x400000
map address=80-ff:8000-ffff mask=0x808000 base=0x000000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: EXNEC-LOROM
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
processor architecture=uPD96050
map address=60-67,e0-e7:0000-3fff
memory type=ROM content=Program architecture=uPD96050
memory type=ROM content=Data architecture=uPD96050
memory type=RAM content=Data architecture=uPD96050
map address=68-6f,e8-ef:0000-7fff mask=0x8000
oscillator
board: EXSPC7110-RAM-EPSONRTC
memory type=ROM content=Expansion
map address=40-4f:0000-ffff
processor identifier=SPC7110
map address=00-3f,80-bf:4800-483f
map address=50,58:0000-ffff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x800000
map address=c0-ff:0000-ffff mask=0xc00000
memory type=ROM content=Program
memory type=ROM content=Data
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff mask=0xe000
rtc manufacturer=Epson
map address=00-3f,80-bf:4840-4842
memory type=RTC content=Time manufacturer=Epson
board: GB-LOROM
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
map address=40-7d,c0-ff:0000-7fff mask=0x8000
processor identifier=ICD revision=2
map address=00-3f,80-bf:6000-67ff,7000-7fff
memory type=ROM content=Boot architecture=SM83
oscillator
slot type=GameBoy
board: GSU-RAM
processor architecture=GSU
map address=00-3f,80-bf:3000-34ff
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
map address=40-5f,c0-df:0000-ffff
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=70-71,f0-f1:0000-ffff
board: HIROM
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
board: HIROM-RAM
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
board: HITACHI-LOROM
processor architecture=HG51BS169
map address=00-3f,80-bf:6c00-6fff,7c00-7fff
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-77:0000-7fff
memory type=ROM content=Data architecture=HG51BS169
memory type=RAM content=Data architecture=HG51BS169
map address=00-3f,80-bf:6000-6bff,7000-7bff mask=0xf000
oscillator
board: LOROM
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
board: LOROM-RAM
memory type=ROM content=Program
map address=00-7d,80-ff:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
board: LOROM-RAM#A
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-ffff mask=0x8000
board: NEC-HIROM
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
processor architecture=uPD7725
map address=00-1f,80-9f:6000-7fff mask=0xfff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: NEC-HIROM-RAM
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff
map address=40-7d,c0-ff:0000-ffff
memory type=RAM content=Save
map address=20-3f,a0-bf:6000-7fff mask=0xe000
processor architecture=uPD7725
map address=00-1f,80-9f:6000-7fff mask=0xfff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: NEC-LOROM
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff mask=0x8000
processor architecture=uPD7725
map address=30-3f,b0-bf:8000-ffff mask=0x3fff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: NEC-LOROM-RAM
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-7fff mask=0x8000
processor architecture=uPD7725
map address=60-6f,e0-ef:0000-7fff mask=0x3fff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: NEC-LOROM-RAM#A
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff mask=0x8000
memory type=RAM content=Save
map address=70-7d,f0-ff:0000-ffff
processor architecture=uPD7725
map address=20-3f,a0-bf:8000-ffff mask=0x3fff
memory type=ROM content=Program architecture=uPD7725
memory type=ROM content=Data architecture=uPD7725
memory type=RAM content=Data architecture=uPD7725
oscillator
board: OBC1-LOROM-RAM
memory type=ROM content=Program
map address=00-3f,80-bf:8000-ffff mask=0x8000
processor identifier=OBC1
map address=00-3f,80-bf:6000-7fff mask=0xe000
map address=70-71,f0-f1:6000-7fff,e000-ffff mask=0xe000
memory type=RAM content=Save
board: SA1
processor architecture=W65C816S
map address=00-3f,80-bf:2200-23ff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x408000
map address=c0-ff:0000-ffff
memory type=ROM content=Program
memory type=RAM content=Internal
map address=00-3f,80-bf:3000-37ff size=0x800
board: SA1-RAM
processor architecture=W65C816S
map address=00-3f,80-bf:2200-23ff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x408000
map address=c0-ff:0000-ffff
memory type=ROM content=Program
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff size=0x2000
map address=40-4f:0000-ffff
memory type=RAM content=Internal
map address=00-3f,80-bf:3000-37ff size=0x800
board: SDD1
processor identifier=SDD1
map address=00-3f,80-bf:4800-480f
mcu
map address=00-3f,80-bf:8000-ffff
map address=c0-ff:0000-ffff
memory type=ROM content=Program
board: SDD1-RAM
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff mask=0xe000
map address=70-73:0000-ffff mask=0x8000
processor identifier=SDD1
map address=00-3f,80-bf:4800-480f
mcu
map address=00-3f,80-bf:8000-ffff
map address=c0-ff:0000-ffff
memory type=ROM content=Program
board: SPC7110-RAM
processor identifier=SPC7110
map address=00-3f,80-bf:4800-483f
map address=50,58:0000-ffff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x800000
map address=c0-ff:0000-ffff mask=0xc00000
memory type=ROM content=Program
memory type=ROM content=Data
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff mask=0xe000
board: SPC7110-RAM-EPSONRTC
processor identifier=SPC7110
map address=00-3f,80-bf:4800-483f
map address=50,58:0000-ffff
mcu
map address=00-3f,80-bf:8000-ffff mask=0x800000
map address=c0-ff:0000-ffff mask=0xc00000
memory type=ROM content=Program
memory type=ROM content=Data
memory type=RAM content=Save
map address=00-3f,80-bf:6000-7fff mask=0xe000
rtc manufacturer=Epson
map address=00-3f,80-bf:4840-4842
memory type=RTC content=Time manufacturer=Epson
board: ST-LOROM
memory type=ROM content=Program
map address=00-1f,80-9f:8000-ffff mask=0x8000
slot type=SufamiTurbo
rom
map address=20-3f,a0-bf:8000-ffff mask=0x8000
ram
map address=60-6f,e0-ef:0000-ffff
slot type=SufamiTurbo
rom
map address=40-5f,c0-df:0000-ffff mask=0x8000
ram
map address=70-7d,f0-ff:0000-ffff
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-11
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@@ -1,11 +0,0 @@
#include <ares/ares.hpp>
#include <ares/debug/debug.cpp>
#include <ares/node/node.cpp>
#include <ares/resource/resource.cpp>
namespace ares {
Platform* platform = nullptr;
bool _runAhead = false;
}
-80
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@@ -1,80 +0,0 @@
#pragma once
#include <libco/libco.h>
#include <nall/platform.hpp>
#include <nall/adaptive-array.hpp>
#include <nall/any.hpp>
#include <nall/array.hpp>
#include <nall/bump-allocator.hpp>
#include <nall/chrono.hpp>
#include <nall/directory.hpp>
#include <nall/dl.hpp>
#include <nall/endian.hpp>
#include <nall/image.hpp>
#include <nall/literals.hpp>
#include <nall/priority-queue.hpp>
#include <nall/queue.hpp>
#include <nall/random.hpp>
#include <nall/serializer.hpp>
#include <nall/set.hpp>
#include <nall/shared-pointer.hpp>
#include <nall/string.hpp>
#include <nall/terminal.hpp>
#include <nall/thread.hpp>
#include <nall/traits.hpp>
#include <nall/unique-pointer.hpp>
#include <nall/variant.hpp>
#include <nall/vector.hpp>
#include <nall/vfs.hpp>
#include <nall/cd.hpp>
#include <nall/dsp/iir/one-pole.hpp>
#include <nall/dsp/iir/biquad.hpp>
#include <nall/dsp/resampler/cubic.hpp>
#include <nall/hash/crc32.hpp>
#include <nall/hash/sha256.hpp>
using namespace nall;
namespace ares {
static const string Name = "ares";
static const string Version = "124";
static const string Copyright = "ares team, Near";
static const string License = "ISC";
static const string LicenseURI = "https://opensource.org/licenses/ISC";
static const string Website = "ares-emulator.github.io";
static const string WebsiteURI = "https://ares-emulator.github.io";
//incremented only when serialization format changes
static const u32 SerializerSignature = 0x31545342; //"BST1" (little-endian)
static const string SerializerVersion = "123.1";
namespace VFS {
using Pak = shared_pointer<vfs::directory>;
using File = shared_pointer<vfs::file>;
}
namespace Video {
static constexpr bool Threaded = true;
}
namespace Constants {
namespace Colorburst {
static constexpr f64 NTSC = 315.0 / 88.0 * 1'000'000.0;
static constexpr f64 PAL = 283.75 * 15'625.0 + 25.0;
}
}
extern bool _runAhead;
inline auto runAhead() -> bool { return _runAhead; }
inline auto setRunAhead(bool runAhead) -> void { _runAhead = runAhead; }
}
#include <ares/types.hpp>
#include <ares/random.hpp>
#include <ares/debug/debug.hpp>
#include <ares/node/node.hpp>
#include <ares/platform.hpp>
#include <ares/memory/fixed-allocator.hpp>
#include <ares/memory/readable.hpp>
#include <ares/memory/writable.hpp>
#include <ares/resource/resource.hpp>
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namespace ares {
Debug _debug;
auto Debug::reset() -> void {
_totalNotices = 0;
_unhandledNotices.reset();
_unimplementedNotices.reset();
_unusualNotices.reset();
_unverifiedNotices.reset();
}
auto Debug::_unhandled(const string& text) -> void {
if(_unhandledNotices.find(text)) return;
if(_totalNotices++ > 256) return;
_unhandledNotices.append(text);
print(terminal::color::yellow("[unhandled] "), text, "\n");
}
auto Debug::_unimplemented(const string& text) -> void {
if(_unimplementedNotices.find(text)) return;
if(_totalNotices++ > 256) return;
_unimplementedNotices.append(text);
print(terminal::color::magenta("[unimplemented] "), text, "\n");
}
auto Debug::_unusual(const string& text) -> void {
if(_unusualNotices.find(text)) return;
if(_totalNotices++ > 256) return;
_unusualNotices.append(text);
print(terminal::color::cyan("[unusual] "), text, "\n");
}
auto Debug::_unverified(const string& text) -> void {
if(_unverifiedNotices.find(text)) return;
if(_totalNotices++ > 256) return;
_unverifiedNotices.append(text);
print(terminal::color::gray("[unverified] "), text, "\n");
}
}
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namespace ares {
struct Debug {
auto reset() -> void;
template<typename... P> auto unhandled(P&&... p) -> void {
return _unhandled({forward<P>(p)...});
}
template<typename... P> auto unimplemented(P&&... p) -> void {
return _unimplemented({forward<P>(p)...});
}
template<typename... P> auto unusual(P&&... p) -> void {
return _unusual({forward<P>(p)...});
}
template<typename... P> auto unverified(P&&... p) -> void {
return _unverified({forward<P>(p)...});
}
private:
auto _unhandled(const string&) -> void;
auto _unimplemented(const string&) -> void;
auto _unusual(const string&) -> void;
auto _unverified(const string&) -> void;
u64 _totalNotices = 0;
vector<string> _unhandledNotices;
vector<string> _unimplementedNotices;
vector<string> _unusualNotices;
vector<string> _unverifiedNotices;
};
extern Debug _debug;
}
#define debug(function, ...) if constexpr(1) ares::_debug.function(__VA_ARGS__)
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#include <ares/scheduler/thread.hpp>
#include <ares/scheduler/scheduler.hpp>
#include <ares/scheduler/thread.cpp>
#include <ares/scheduler/scheduler.cpp>
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#include <ares/ares.hpp>
namespace ares::Memory {
alignas(4096) u8 fixedBuffer[1_GiB];
FixedAllocator::FixedAllocator() {
_allocator.resize(sizeof(fixedBuffer), 0, fixedBuffer);
}
auto FixedAllocator::get() -> bump_allocator& {
static FixedAllocator allocator;
return allocator._allocator;
}
}
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#pragma once
namespace ares::Memory {
struct FixedAllocator {
static auto get() -> bump_allocator&;
private:
FixedAllocator();
bump_allocator _allocator;
};
}
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#pragma once
namespace ares::Memory {
inline auto mirror(u32 address, u32 size) -> u32 {
if(size == 0) return 0;
u32 base = 0;
u32 mask = 1 << 31;
while(address >= size) {
while(!(address & mask)) mask >>= 1;
address -= mask;
if(size > mask) {
size -= mask;
base += mask;
}
mask >>= 1;
}
return base + address;
}
inline auto reduce(u32 address, u32 mask) -> u32 {
while(mask) {
u32 bits = (mask & -mask) - 1;
address = address >> 1 & ~bits | address & bits;
mask = (mask & mask - 1) >> 1;
}
return address;
}
}
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#pragma once
#include <ares/memory/memory.hpp>
namespace ares::Memory {
template<typename T>
struct Readable {
~Readable() { reset(); }
auto reset() -> void {
delete[] self.data;
self.data = nullptr;
self.size = 0;
self.mask = 0;
}
auto allocate(u32 size, T fill = (T)~0ull) -> void {
if(!size) return reset();
delete[] self.data;
self.size = size;
self.mask = bit::round(self.size) - 1;
self.data = new T[self.mask + 1];
memory::fill<T>(self.data, self.mask + 1, fill);
}
auto fill(T fill = ~0ull) -> void {
for(u32 address : range(self.size)) {
self.data[address] = fill;
}
}
auto load(VFS::File fp) -> void {
if(!self.size) allocate(fp->size());
fp->read({self.data, min(fp->size(), self.size * sizeof(T))});
for(u32 address = self.size; address <= self.mask; address++) {
self.data[address] = self.data[mirror(address, self.size)];
}
}
auto save(VFS::File fp) -> void {
fp->write({self.data, min(fp->size(), self.size * sizeof(T))});
}
explicit operator bool() const { return (bool)self.data; }
auto data() const -> const T* { return self.data; }
auto size() const -> u32 { return self.size; }
auto mask() const -> u32 { return self.mask; }
auto operator[](u32 address) const -> T { return self.data[address & self.mask]; }
auto read(u32 address) const -> T { return self.data[address & self.mask]; }
auto write(u32 address, T data) const -> void {}
auto program(u32 address, T data) const -> void { self.data[address & self.mask] = data; }
auto begin() -> T* { return &self.data[0]; }
auto end() -> T* { return &self.data[self.size]; }
auto begin() const -> const T* { return &self.data[0]; }
auto end() const -> const T* { return &self.data[self.size]; }
auto serialize(serializer& s) -> void {
s(array_span<T>{self.data, self.size});
}
//private:
struct {
T* data = nullptr;
u32 size = 0;
u32 mask = 0;
} self;
};
}
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#pragma once
#include <ares/memory/memory.hpp>
namespace ares::Memory {
template<typename T>
struct Writable {
~Writable() { reset(); }
auto reset() -> void {
delete[] self.data;
self.data = nullptr;
self.size = 0;
self.mask = 0;
}
auto allocate(u32 size, T fill = (T)~0ull) -> void {
if(!size) return reset();
delete[] self.data;
self.size = size;
self.mask = bit::round(self.size) - 1;
self.data = new T[self.mask + 1];
memory::fill<T>(self.data, self.mask + 1, fill);
}
auto fill(T fill = ~0ull) -> void {
for(u32 address : range(self.size)) {
self.data[address] = fill;
}
}
auto load(VFS::File fp) -> void {
if(!self.size) allocate(fp->size());
fp->read({self.data, min(fp->size(), self.size * sizeof(T))});
for(u32 address = self.size; address <= self.mask; address++) {
self.data[address] = self.data[mirror(address, self.size)];
}
}
auto save(VFS::File fp) -> void {
fp->write({self.data, min(fp->size(), self.size * sizeof(T))});
}
explicit operator bool() const { return (bool)self.data; }
auto data() -> T* { return self.data; }
auto data() const -> const T* { return self.data; }
auto size() const -> u32 { return self.size; }
auto mask() const -> u32 { return self.mask; }
auto operator[](u32 address) -> T& { return self.data[address & self.mask]; }
auto operator[](u32 address) const -> T { return self.data[address & self.mask]; }
auto read(u32 address) const -> T { return self.data[address & self.mask]; }
auto write(u32 address, T data) -> void { self.data[address & self.mask] = data; }
auto program(u32 address, T data) -> void { self.data[address & self.mask] = data; }
auto begin() -> T* { return &self.data[0]; }
auto end() -> T* { return &self.data[self.size]; }
auto begin() const -> const T* { return &self.data[0]; }
auto end() const -> const T* { return &self.data[self.size]; }
auto serialize(serializer& s) -> void {
s(array_span<T>{self.data, self.size});
}
private:
struct {
T* data = nullptr;
u32 size = 0;
u32 mask = 0;
} self;
};
}
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struct Attribute {
Attribute(const string& name, const any& value = {}) : name(name), value(value) {}
auto operator==(const Attribute& source) const -> bool { return name == source.name; }
auto operator< (const Attribute& source) const -> bool { return name < source.name; }
string name;
any value;
};
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struct Audio : Object {
DeclareClass(Audio, "audio")
using Object::Object;
};
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auto Stream::setChannels(u32 channels) -> void {
_channels.reset();
_channels.resize(channels);
}
auto Stream::setFrequency(f64 frequency) -> void {
_frequency = frequency;
setResamplerFrequency(_resamplerFrequency);
}
auto Stream::setResamplerFrequency(f64 resamplerFrequency) -> void {
_resamplerFrequency = resamplerFrequency;
for(auto& channel : _channels) {
channel.nyquist.reset();
channel.resampler.reset(_frequency, _resamplerFrequency);
}
if(_frequency >= _resamplerFrequency * 2) {
//add a low-pass filter to prevent aliasing during resampling
f64 cutoffFrequency = min(25000.0, _resamplerFrequency / 2.0 - 2000.0);
for(auto& channel : _channels) {
u32 passes = 3;
for(u32 pass : range(passes)) {
DSP::IIR::Biquad filter;
f64 q = DSP::IIR::Biquad::butterworth(passes * 2, pass);
filter.reset(DSP::IIR::Biquad::Type::LowPass, cutoffFrequency, _frequency, q);
channel.nyquist.append(filter);
}
}
}
}
auto Stream::setMuted(bool muted) -> void {
_muted = muted;
}
auto Stream::resetFilters() -> void {
for(auto& channel : _channels) {
channel.filters.reset();
}
}
auto Stream::addLowPassFilter(f64 cutoffFrequency, u32 order, u32 passes) -> void {
for(auto& channel : _channels) {
for(u32 pass : range(passes)) {
if(order == 1) {
Filter filter{Filter::Mode::OnePole, Filter::Type::LowPass, Filter::Order::First};
filter.onePole.reset(DSP::IIR::OnePole::Type::LowPass, cutoffFrequency, _frequency);
channel.filters.append(filter);
}
if(order == 2) {
Filter filter{Filter::Mode::Biquad, Filter::Type::LowPass, Filter::Order::Second};
f64 q = DSP::IIR::Biquad::butterworth(passes * 2, pass);
filter.biquad.reset(DSP::IIR::Biquad::Type::LowPass, cutoffFrequency, _frequency, q);
channel.filters.append(filter);
}
}
}
}
auto Stream::addHighPassFilter(f64 cutoffFrequency, u32 order, u32 passes) -> void {
for(auto& channel : _channels) {
for(u32 pass : range(passes)) {
if(order == 1) {
Filter filter{Filter::Mode::OnePole, Filter::Type::HighPass, Filter::Order::First};
filter.onePole.reset(DSP::IIR::OnePole::Type::HighPass, cutoffFrequency, _frequency);
channel.filters.append(filter);
}
if(order == 2) {
Filter filter{Filter::Mode::Biquad, Filter::Type::HighPass, Filter::Order::Second};
f64 q = DSP::IIR::Biquad::butterworth(passes * 2, pass);
filter.biquad.reset(DSP::IIR::Biquad::Type::HighPass, cutoffFrequency, _frequency, q);
channel.filters.append(filter);
}
}
}
}
auto Stream::addLowShelfFilter(f64 cutoffFrequency, u32 order, f64 gain, f64 slope) -> void {
for(auto& channel : _channels) {
if(order == 2) {
Filter filter{Filter::Mode::Biquad, Filter::Type::LowShelf, Filter::Order::Second};
f64 q = DSP::IIR::Biquad::shelf(gain, slope);
filter.biquad.reset(DSP::IIR::Biquad::Type::LowShelf, cutoffFrequency, _frequency, q);
channel.filters.append(filter);
}
}
}
auto Stream::addHighShelfFilter(f64 cutoffFrequency, u32 order, f64 gain, f64 slope) -> void {
for(auto& channel : _channels) {
if(order == 2) {
Filter filter{Filter::Mode::Biquad, Filter::Type::HighShelf, Filter::Order::Second};
f64 q = DSP::IIR::Biquad::shelf(gain, slope);
filter.biquad.reset(DSP::IIR::Biquad::Type::HighShelf, cutoffFrequency, _frequency, q);
channel.filters.append(filter);
}
}
}
auto Stream::pending() const -> bool {
return _channels && _channels[0].resampler.pending();
}
auto Stream::read(f64 samples[]) -> u32 {
for(u32 c : range(_channels.size())) {
samples[c] = _channels[c].resampler.read() * !muted();
}
return _channels.size();
}
auto Stream::write(const f64 samples[]) -> void {
for(u32 c : range(_channels.size())) {
f64 sample = samples[c] + 1e-25; //constant offset used to suppress denormals
for(auto& filter : _channels[c].filters) {
switch(filter.mode) {
case Filter::Mode::OnePole: sample = filter.onePole.process(sample); break;
case Filter::Mode::Biquad: sample = filter.biquad.process(sample); break;
}
}
for(auto& filter : _channels[c].nyquist) {
sample = filter.process(sample);
}
_channels[c].resampler.write(sample);
}
//if there are samples pending, then alert the frontend to possibly process them.
//this will generally happen when every audio stream has pending samples to be mixed.
if(pending()) platform->audio(shared());
}
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struct Stream : Audio {
DeclareClass(Stream, "audio.stream")
using Audio::Audio;
auto channels() const -> u32 { return _channels.size(); }
auto frequency() const -> f64 { return _frequency; }
auto resamplerFrequency() const -> f64 { return _resamplerFrequency; }
auto muted() const -> bool { return _muted; }
auto setChannels(u32 channels) -> void;
auto setFrequency(f64 frequency) -> void;
auto setResamplerFrequency(f64 resamplerFrequency) -> void;
auto setMuted(bool muted) -> void;
auto resetFilters() -> void;
auto addLowPassFilter(f64 cutoffFrequency, u32 order, u32 passes = 1) -> void;
auto addHighPassFilter(f64 cutoffFrequency, u32 order, u32 passes = 1) -> void;
auto addLowShelfFilter(f64 cutoffFrequency, u32 order, f64 gain, f64 slope) -> void;
auto addHighShelfFilter(f64 cutoffFrequency, u32 order, f64 gain, f64 slope) -> void;
auto pending() const -> bool;
auto read(f64 samples[]) -> u32;
auto write(const f64 samples[]) -> void;
template<typename... P>
auto frame(P&&... p) -> void {
if(runAhead()) return;
f64 samples[sizeof...(p)] = {forward<P>(p)...};
write(samples);
}
protected:
struct Filter {
enum class Mode : u32 { OnePole, Biquad } mode;
enum class Type : u32 { None, LowPass, HighPass, LowShelf, HighShelf } type;
enum class Order : u32 { None, First, Second } order;
DSP::IIR::OnePole onePole;
DSP::IIR::Biquad biquad;
};
struct Channel {
vector<Filter> filters;
vector<DSP::IIR::Biquad> nyquist;
DSP::Resampler::Cubic resampler;
};
vector<Channel> _channels;
f64 _frequency = 48000.0;
f64 _resamplerFrequency = 48000.0;
bool _muted = false;
};
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//horrible implementation of run-time introspection:
//allow converting a unique class string to a derived Node type.
struct Class {
struct Instance {
const string identifier;
const function<Node::Object ()> create;
};
static auto classes() -> vector<Instance>& {
static vector<Instance> classes;
return classes;
}
template<typename T> static auto register() -> void {
if(!classes().find([&](auto instance) { return instance.identifier == T::identifier(); })) {
classes().append({T::identifier(), &T::create});
} else {
throw;
}
}
static auto create(string identifier) -> Node::Object {
if(auto index = classes().find([&](auto instance) { return instance.identifier == identifier; })) {
return classes()[*index].create();
}
if(identifier == "Object") throw; //should never occur: detects unregistered classes
return create("Object");
}
template<typename T> struct Register {
Register() { Class::register<T>(); }
};
};
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struct Component : Object {
DeclareClass(Component, "component");
using Object::Object;
};
@@ -1,30 +0,0 @@
struct RealTimeClock : Component {
DeclareClass(RealTimeClock, "component.real-time-clock")
using Component::Component;
auto update() -> void { if(_update) return _update(); }
auto timestamp() const -> u64 { return _timestamp; }
auto setUpdate(function<void ()> update) -> void { _update = update; }
auto setTimestamp(u64 timestamp) -> void { _timestamp = timestamp; }
auto synchronize(u64 timestamp = 0) -> void {
if(!timestamp) timestamp = chrono::timestamp();
_timestamp = timestamp;
update();
}
auto serialize(string& output, string depth) -> void override {
Component::serialize(output, depth);
output.append(depth, " timestamp: ", _timestamp, "\n");
}
auto unserialize(Markup::Node node) -> void override {
Component::unserialize(node);
_timestamp = node["timestamp"].natural();
}
protected:
function<void ()> _update;
u64 _timestamp;
};
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struct Debugger : Object {
DeclareClass(Debugger, "debugger")
using Object::Object;
};
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struct Graphics : Debugger {
DeclareClass(Graphics, "debugger.graphics")
Graphics(string name = {}) : Debugger(name) {
}
auto width() const -> u32 { return _width; }
auto height() const -> u32 { return _height; }
auto capture() const -> vector<u32> { if(_capture) return _capture(); return {}; }
auto setSize(u32 width, u32 height) -> void { _width = width, _height = height; }
auto setCapture(function<vector<u32> ()> capture) -> void { _capture = capture; }
auto serialize(string& output, string depth) -> void override {
Debugger::serialize(output, depth);
}
auto unserialize(Markup::Node node) -> void override {
Debugger::unserialize(node);
}
protected:
u32 _width = 0;
u32 _height = 0;
function<vector<u32> ()> _capture;
};
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