2 Commits
Author SHA1 Message Date
9d2cb93f2d SpeedBreaker v0.1.6
Co-authored-by: aleszczynskig <36401256+aleszczynskig@users.noreply.github.com>
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-17 04:39:51 +00:00
ad14799d14 SpeedBreaker v0.1.5
Co-authored-by: love-gamer <340996855+love-gamer@users.noreply.github.com>
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-13 20:30:22 +00:00
52 changed files with 10142 additions and 435 deletions

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@@ -4,6 +4,81 @@ What changed in each SpeedBreaker release, newest first. Each release's notes on
its entry here, and the game shows the entry once, the first time a new version starts (offline:
it's built into the game).
## v0.1.6
### What's new
- No more lost sound followed by a freeze. If your audio output stopped taking sound for a while,
the game's sound stopped for good, and the game later froze, for example on the save screen
after an event. Every version so far had this. Now the game keeps running, unheard, and the
sound comes back as soon as the output takes audio again. Thanks to Omega3komma3 for the report
and the two bug reports (GitHub issue #20).
- No more rectangular borders in the Showcase (where you rotate and zoom around a car, in the car
lot, the customize shop and on a Blacklist rival's car) or around a Blacklist rival's bio. The
Showcase darkens the edges of the garage, and that darkening stopped short of the edges of the
screen; the bio's black panel did the same. On a 16:9 screen that left a thin border, as on an
Xbox 360, whose TV hid it past the edge of its screen; on a taller screen such as a MacBook or a
Steam Deck the Showcase's border was wide at the top and bottom. Both now reach the edges of the
screen, on every screen shape. Thanks to DoubleDips, who reported it, and m9cy884mv6-a11y, who
confirmed it on the Steam Deck (GitHub issue #19).
- Mac: in a window, the picture now runs up under a transparent title bar, and the window's
buttons show only while you move the mouse over it. Thanks to aleszczynskig, who wrote it
(GitHub pull request #23).
- Mac: on a MacBook Pro's 120 Hz ProMotion screen, switching fullscreen on or off, or resizing the
window, could close the game now and then (since v0.1.4; its crash report named "mutex lock
failed"). It no longer does.
- A quit asked for from outside the game is now a normal quit: the stop signal a launcher sends,
Ctrl+C, or closing the terminal the game was started from. Your settings are saved, as with
Quit Game. Closing its terminal used to end it on the spot, and every session, even one ended
with Quit Game, left a crash marker in its logs folder until the next start.
### More about it
- The sound: the log now says when the audio output stopped taking audio and when it came back,
and a hang report includes the audio's state.
- The borders: the few black frames between two shots of the career's opening scene are now
black to the edges of the screen too.
- The title bar: the window's saved size now takes in the title bar, so a window from an earlier
version opens a title bar shorter, with the same picture.
- Quitting: a crash still saves a crash report, and the next start still offers it. A session
that ended without quitting (stopped by force, or the power going) now leaves its marker, and
the next start's log says so.
- Updating keeps your saves, settings and the installed game, and needs no disc image: on a Mac,
drag the new app into Applications and choose Replace, then Open Anyway once more; on SteamOS,
unpack the new download over the old folder.
## v0.1.5
### What's new
- Settings > Controls: every keyboard control can be reassigned, and each control has two keys.
Choose a row, Left or Right for its first or second key, press A or Enter, then the new key; Y
clears a key, X puts a row's defaults back, Reset page the whole table. The default keys are
unchanged (the arrows steer as well as A and D), and the left stick click gets a key of its own,
Z. Thanks to love-gamer, who wrote it (GitHub pull request #12).
- Settings > Graphics > Upscaling has a third choice, FSR 1 (AMD FidelityFX Super Resolution 1),
for a window much larger than the Internal Resolution (1x on a 1440p, MacBook or 4K screen):
curves, wires and diagonals stay smooth where bicubic shows steps, such as lamp posts against
the sky or the speedometer's needle. It is used only when the picture is enlarged. Bicubic stays
the default. Not on iPhone and iPad.
- The race results screen no longer shows a thin strip of the race above and below it. An Xbox 360
draws that strip too, and a TV of the time hid it past the edge of its screen; today's screens
show the whole picture, so it is now black, on every screen shape (Steam Deck, 16:9 and others).
### More about it
- The Controls page: the keys are saved by name in settings.toml's `[keys]` table (`w`,
`left_shift`, `none`). F1, Esc (it cancels a wait) and the Cmd and Windows keys can't be
assigned. If you go back to v0.1.4 and change a setting there, it forgets the Controls page's
keys.
- FSR 1: Sharpening sets its sharpening pass too (0.3 of its full strength by default). Bicubic
stays the default because FSR 1 makes foliage look a little painted, costs more GPU time (about
1 ms a frame on an M1 Pro at 1080p, 0.1 ms on a Steam Machine), and with Internal Resolution on
Auto most screens aren't enlarged at all.
- Updating keeps your saves, settings and the installed game, and needs no disc image: on a Mac,
drag the new app into Applications and choose Replace, then Open Anyway once more; on SteamOS,
unpack the new download over the old folder.
## v0.1.4
### What's new
+1 -1
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@@ -66,7 +66,7 @@ endif()
# apps' versions, the SteamOS bundles' VERSION file and the release tag
# (v<version>). CHANGELOG.md has an entry for each version (the in-game
# "What's new" note is built from it).
project(SpeedBreaker VERSION 0.1.4 LANGUAGES C CXX)
project(SpeedBreaker VERSION 0.1.6 LANGUAGES C CXX)
set(CMAKE_CXX_STANDARD 20)
set(CMAKE_CXX_STANDARD_REQUIRED ON)
+23
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@@ -0,0 +1,23 @@
AMD FidelityFX Super Resolution 1 (FSR 1): ffx_a.h and ffx_fsr1.h
https://github.com/GPUOpen-Effects/FidelityFX-FSR (commit a21ffb8f6c13233ba336352bdff293894c706575, files ffx-fsr/ffx_a.h and ffx-fsr/ffx_fsr1.h)
Vendored unmodified in runtime/thirdparty/fsr1; their shader code is compiled into SpeedBreaker.
Copyright (c) 2021 Advanced Micro Devices, Inc. All rights reserved.
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the "Software"), to deal
in the Software without restriction, including without limitation the rights
to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
copies of the Software, and to permit persons to whom the Software is
furnished to do so, subject to the following conditions:
The above copyright notice and this permission notice shall be included in
all copies or substantial portions of the Software.
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 OR COPYRIGHT HOLDERS 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.
+21 -11
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@@ -71,12 +71,12 @@ and a settings menu you can open mid-race.
on the console.
- **The original look:** sunlit roads and shadows as on the console, the picture a real Xbox 360
sends to a TV (the game's own display gamma), correct colours on Apple devices, proper car paint
and mirror reflections, and distant textures that don't shimmer. Anti-aliasing, sharpening, a
Brightness setting and up to 16x anisotropic filtering are also available.
and mirror reflections, and distant textures that don't shimmer. Anti-aliasing, sharpening,
FSR 1 upscaling, a Brightness setting and up to 16x anisotropic filtering are also available.
- **A guided installer.** It finds your disc image, checks that it is the right game, and
verifies all 49 files as it copies them. An interrupted install never leaves a broken game.
- **Your controller, or the keyboard.** Controllers work as an Xbox 360 pad, with hot-plugging
and rumble support.
and rumble support. Every keyboard control can be reassigned in the settings.
- **A settings menu that pauses the game.** Open it with F1, Back + Start, or a three-finger
tap. Every change applies at once, and *Quit Game* leaves the game from a controller too.
- **Suspend and resume on iPhone and iPad.** Switch away and the game freezes; come back and it
@@ -301,8 +301,9 @@ its name>`, e.g. `NFSMW_GPU=intel %command%` in Steam's launch options.
**Settings:** **F1** or **Cmd+,**, or Back + Start on a controller. The game starts in a window;
Display > Fullscreen switches to full screen and decides how the game starts from then on. The
window's green button (or Ctrl+Cmd+F) switches only until you quit. While you play, the mouse
pointer hides after two seconds without moving. SpeedBreaker needs macOS 15 (Sequoia) or later.
window's green button (or Ctrl+Cmd+F) switches only until you quit. In a window, the picture
runs up under a transparent title bar, and the window's buttons show while you move the mouse
over it. While you play, the mouse pointer hides after two seconds without moving. SpeedBreaker needs macOS 15 (Sequoia) or later.
### iPhone and iPad
@@ -346,7 +347,7 @@ is B, Square is X and Triangle is Y.
| Xbox 360 control | Controller | Keyboard |
|---|---|---|
| Left stick | Left stick | A / D steer (the arrow keys also move it) |
| Left stick | Left stick | A / D or Left / Right steer; Up / Down push it up and down |
| Right trigger | Right trigger | W |
| Left trigger | Left trigger | S |
| A / B / X / Y | Bottom / right / left / top face button | Space / Backspace / Left Shift / Left Ctrl |
@@ -355,7 +356,7 @@ is B, Square is X and Triangle is Y.
| Start | Start / Menu / Options | Enter |
| Back | Back / View / Create | Esc |
| Right stick | Right stick | O / L up and down, K / ; left and right |
| Stick clicks | Press a stick in | C (right) |
| Stick clicks | Press a stick in | Z (left), C (right) |
- One player, one controller: the first one connected is used, and you can plug one in at any
time. The keyboard always works as well.
@@ -363,7 +364,11 @@ is B, Square is X and Triangle is Y.
you let go, a hold after a quarter of a second.
- The game shifts gears with the right stick, so from the keyboard you shift with O and L.
Holding both keys of a pair centres the stick.
- There is no button remapping and no mouse control in game.
- Every keyboard control can be reassigned: **Settings > Controls** (F1). Each control has two
keys: choose a row, Left or Right for its first or second key, press A or Enter, then the key
you want (Esc or B cancels). Y or Backspace clears a key, X or Delete puts the row's defaults
back, and *Reset page* restores this whole table. A key may drive several controls, as the
arrows do. There is no mouse control in game.
**To open the settings:**
@@ -408,8 +413,8 @@ then Yes, puts it back.
| Option | Choices | Default |
|---|---|---|
| Anti-Aliasing | On / Off | On |
| Upscaling | Bicubic / Bilinear | Bicubic |
| Sharpening | 0.00 to 1.00 | 0.30 (0 turns it off) |
| Upscaling | Bicubic / Bilinear / FSR 1 | Bicubic. FSR 1 (AMD FidelityFX Super Resolution 1) keeps curves, wires and diagonals smooth when the picture is enlarged a lot, such as 1x on a 1440p or 4K screen; it is used only when the picture is enlarged, costs a little more GPU time, and makes foliage look slightly painted. Not on iPhone and iPad. |
| Sharpening | 0.00 to 1.00 | 0.30 (0 turns it off). With FSR 1, the share of its sharpening pass's full strength. |
| Anisotropic Filtering | Auto / Off / 2x / 4x / 8x / 16x / Original | Auto: 16x on dedicated graphics cards and M-series iPads, 4x elsewhere. Original uses each texture's own setting, as on the 360. |
| Mipmaps | On / Off | On, so distant textures don't shimmer |
| Internal Resolution | Auto / 1x (720p) / 1.5x (1080p) / 2x (1440p) / 3x (2160p) | Auto: enough to cover your screen, within what the device can afford (whole scales only: 1x, 2x, 3x, or 3x2 on an ultrawide). On iPhone and iPad, Auto always picks 1x. |
@@ -420,6 +425,10 @@ game while its window isn't in front.
**Input:** Stick Deadzone (8%; raise it if the car steers by itself), Trigger Deadzone (2%), and
Vibration (On).
**Controls:** the keyboard keys for each Xbox 360 control, two per control, as in the table under
[Controls](#controls). The keys are saved by name in `settings.toml`'s `[keys]` table (`w`,
`left_shift`, `keypad_1`, or `none`; `runtime/user/key_names.h` lists them).
**Advanced:** Asynchronous Shaders (On: an object is skipped for a frame or two while its shader
compiles, instead of the game stuttering), Performance Overlay (Off: fps, frame times, and CPU
and GPU time per frame), **Save Bug Report**, and **Check for Updates** (the only thing that goes
@@ -550,7 +559,7 @@ SpeedBreaker folder instead: `data/`, `data/game` and `cache/`.
2. A notice says where the zip file went: your **Desktop** (on SteamOS, pick it up in Desktop
Mode, or in the Desktop app on a Steam Frame), the **SpeedBreaker** folder in the Files app on
iPhone and iPad, or the data folder above when there is no Desktop. Its name says which
version you were running, for example `speedbreaker-bug-report-v0.1.4-<date>_<time>.zip`.
version you were running, for example `speedbreaker-bug-report-v0.1.6-<date>_<time>.zip`.
3. Open an [issue][issues], attach the zip, and say what you were doing, what you expected, what
happened, and roughly how long into the session it happened.
@@ -749,6 +758,7 @@ research.
| [SDL3](https://www.libsdl.org/) | Windows, input, audio, app lifecycle | zlib |
| [Dear ImGui](https://github.com/ocornut/imgui) (Omar Cornut) | The installer and settings UI | MIT |
| [Roboto](https://fonts.google.com/specimen/Roboto) (Google) | The UI font | Apache-2.0 |
| [FidelityFX Super Resolution 1](https://github.com/GPUOpen-Effects/FidelityFX-FSR) (AMD) | The FSR 1 Upscaling choice | MIT |
| [o1heap](https://github.com/pavel-kirienko/o1heap) (Pavel Kirienko) | The guest heap allocator | MIT |
| [glslang](https://github.com/KhronosGroup/glslang) and [SPIRV-Tools](https://github.com/KhronosGroup/SPIRV-Tools) (Khronos) | Shader compilation at runtime | BSD-3-Clause and others; Apache-2.0 |
| [MoltenVK](https://github.com/KhronosGroup/MoltenVK) and the [Vulkan Loader](https://github.com/KhronosGroup/Vulkan-Loader) (Khronos) | Vulkan on Mac, iPhone and iPad | Apache-2.0 |
+1
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@@ -28,6 +28,7 @@ collected when the bundle is made), and the iPhone and iPad IPA in `SpeedBreaker
| **Roboto** (Medium): Copyright 2011 Google Inc. | The menus' font, embedded in the program. Roboto is a trademark of Google. | Apache-2.0 | [`LICENSES/Apache-2.0.txt`](LICENSES/Apache-2.0.txt) |
| **o1heap**: Copyright (c) 2020 Pavel Kirienko | The game's heap allocator (`runtime/thirdparty/o1heap`). | MIT | [`LICENSES/o1heap-MIT.txt`](LICENSES/o1heap-MIT.txt) |
| **QR Code generator library** (C) 1.8.0: Copyright (c) 2022 Project Nayuki | The QR code of the download page in Settings > Advanced > Check for Updates (`runtime/thirdparty/qrcodegen`). | MIT | [`LICENSES/qrcodegen-MIT.txt`](LICENSES/qrcodegen-MIT.txt) |
| **AMD FidelityFX Super Resolution 1** (FSR 1, `ffx_a.h` and `ffx_fsr1.h` at commit a21ffb8): Copyright (c) 2021 Advanced Micro Devices, Inc. | Settings > Graphics > Upscaling's FSR 1: its EASU and RCAS shader code, compiled into the game's shaders, and its constant setup (`runtime/thirdparty/fsr1`, unmodified). | MIT | [`LICENSES/FidelityFX-FSR-MIT.txt`](LICENSES/FidelityFX-FSR-MIT.txt) |
| **FFmpeg** 7.1.1: the FFmpeg developers | The XMA1, XMA2 and WMA Pro audio decoders, linked statically. Built without any GPL parts, with one SpeedBreaker change: [`patches/ffmpeg/0001-xma-single-stream-no-holdback.patch`](patches/ffmpeg/0001-xma-single-stream-no-holdback.patch) (no sample hold-back for single-stream XMA, which the game's audio mixer depends on). Source: `https://ffmpeg.org/releases/ffmpeg-7.1.1.tar.xz` plus that patch; [`scripts/build_ffmpeg_xma.sh`](scripts/build_ffmpeg_xma.sh) builds it. | LGPL-2.1-or-later | [`LICENSES/FFmpeg-LGPL-2.1.txt`](LICENSES/FFmpeg-LGPL-2.1.txt) |
## Libraries in the downloads
+3
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@@ -22,6 +22,9 @@ from you.
buttons on either side of the screen).
- The D-pad picks a row, left/right changes it, A selects, LB/RB switch
pages, B closes. The game pauses while the menu is open.
- The **Controls** page: choose a row, Left or Right for its first or second key, press A (or
Enter), then the key you want; Esc or B cancels. Y (Backspace) clears a key, X (Delete) restores
the row, *Reset page* the whole table.
## When something goes wrong
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@@ -79,6 +79,20 @@ target_link_libraries(imgui PUBLIC SDL3::SDL3 Vulkan::Vulkan)
file(READ ${IMGUI}/fonts/Roboto-Medium.ttf UI_FONT_HEX HEX)
string(REGEX REPLACE "([0-9a-f][0-9a-f])" "0x\\1," UI_FONT_BYTES "${UI_FONT_HEX}")
file(WRITE ${CMAKE_CURRENT_BINARY_DIR}/generated/ui_font.inc "${UI_FONT_BYTES}\n")
# AMD FidelityFX Super Resolution 1 (thirdparty/fsr1, vendored, unmodified):
# the text of its two headers, compiled in (generated/fsr1_headers.inc) for
# Upscaling's FSR 1 shaders, which glslang compiles while the game runs
# (video/fsr1.cpp). An edit of either reconfigures.
set(FSR1 ${CMAKE_CURRENT_SOURCE_DIR}/thirdparty/fsr1)
set_property(DIRECTORY APPEND PROPERTY CMAKE_CONFIGURE_DEPENDS ${FSR1}/ffx_a.h ${FSR1}/ffx_fsr1.h)
set(fsr1_inc "// Generated from runtime/thirdparty/fsr1 by runtime/CMakeLists.txt. Do not edit.\n")
foreach(name ffx_a ffx_fsr1)
file(READ ${FSR1}/${name}.h fsr1_hex HEX)
string(REGEX REPLACE "([0-9a-f][0-9a-f])" "0x\\1," fsr1_bytes "${fsr1_hex}")
string(APPEND fsr1_inc "constexpr unsigned char k_${name}[] = { ${fsr1_bytes}0 };\n")
endforeach()
file(WRITE ${CMAKE_CURRENT_BINARY_DIR}/generated/fsr1_headers.inc.new "${fsr1_inc}")
configure_file(${CMAKE_CURRENT_BINARY_DIR}/generated/fsr1_headers.inc.new ${CMAKE_CURRENT_BINARY_DIR}/generated/fsr1_headers.inc COPYONLY)
target_include_directories(SpeedBreaker PRIVATE ${CMAKE_CURRENT_BINARY_DIR}/generated)
# The "What's new" note (ui/whats_new.cpp): this version's entry in
# CHANGELOG.md, from its "## v<version>" heading to the next "## " one,
+125 -7
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@@ -13,7 +13,12 @@
// left every voice empty for half of each burst: gameplay audio came out
// chopped 50% (two frames on, two off), thin and "tinny". SDL's queue is
// kept near two device buffers to absorb the device's pulls, and the
// cadence gains or skips a frame to follow the device clock. NFSMW_MUTE=1
// cadence gains or skips a frame to follow the device clock, but never stops
// (apu/audio_cadence.h): all of the game's sound, its sound commands
// included, runs on this callback, so a device that stops taking audio must
// not stop it (GitHub issue #20: the sound stopped for good, then the game
// hung after the race). What such a device can't take is dropped, and the
// log says when it stopped and started taking audio again. NFSMW_MUTE=1
// (or no audio device) keeps the same cadence with no output. The driver
// handle and wrapped argument follow Xenia.
//
@@ -24,6 +29,7 @@
// frames owed.
#include <stdafx.h>
#include "audio.h"
#include "audio_cadence.h"
#include <kernel/function.h>
#include <cpu/guest_thread.h>
#include <cpu/guest_time.h>
@@ -33,6 +39,7 @@
#endif
#include <user/settings.h>
#include <video/presenter.h>
#include <report/report.h>
namespace
{
@@ -54,6 +61,19 @@ namespace
constexpr int FRAME_BYTES = SAMPLES_PER_FRAME * CHANNELS * sizeof(float);
std::atomic<int> s_targetFrames{ 4 }; // SDL queue level to hold (frames of 256 samples)
int s_deviceFrames = 0; // the device's buffer at the stream's rate (FollowDevice)
// What the hang report says about the audio (apu::DescribeState): when
// the render callback last ran, when the game's mix last had sound, and
// since when the device hasn't taken audio (0: it has); steady-clock ns.
std::atomic<int64_t> s_lastRenderNs{ 0 }, s_lastSoundNs{ 0 }, s_deviceStalledNs{ 0 };
std::atomic<uint64_t> s_dropped{ 0 }; // frames the device didn't take (dropped)
// The cadence (the audio thread; the frames it renders are submitted on
// that thread too).
apu::AudioCadence s_cadence;
int64_t SteadyNs()
{
return std::chrono::duration_cast<std::chrono::nanoseconds>(std::chrono::steady_clock::now().time_since_epoch()).count();
}
// The queue level for the stream's device as it is now: two device
// buffers (at the stream's rate), at least 4 frames. Logs it when it
@@ -140,9 +160,42 @@ namespace
paused = guesttime::PausedNs();
next = steady_clock::now();
} while (guesttime::Suspended() || guesttime::PausedNs() != paused);
// NFSMW_TEST_AUDIO_DEVICE_STALL=<s>[+<secs>] (tests): the output
// device stops taking audio <s> seconds after this thread starts
// (paused, as a device that stalls or that another app holds), for
// good or for <secs>.
double stallAt = -1, stallFor = 0;
if (const char* v = std::getenv("NFSMW_TEST_AUDIO_DEVICE_STALL"))
{
char* end = nullptr;
stallAt = std::strtod(v, &end);
if (end && *end == '+')
stallFor = std::strtod(end + 1, nullptr);
}
int stallState = 0; // 0 before, 1 stalled, 2 over
const auto started = steady_clock::now();
while (s_running)
{
std::this_thread::sleep_until(next);
if (stallAt >= 0 && stallState < 2 && s_stream)
{
const double t = duration<double>(steady_clock::now() - started).count();
if (stallState == 0 && t >= stallAt)
{
stallState = 1;
fprintf(stderr, "[test] NFSMW_TEST_AUDIO_DEVICE_STALL: the output device stops taking audio (%.1f s)\n", t);
std::lock_guard lock(s_streamMutex);
SDL_PauseAudioStreamDevice(s_stream);
}
else if (stallState == 1 && stallFor > 0 && t >= stallAt + stallFor)
{
stallState = 2;
fprintf(stderr, "[test] NFSMW_TEST_AUDIO_DEVICE_STALL: the output device takes audio again (%.1f s)\n", t);
std::lock_guard lock(s_streamMutex);
if (!guesttime::Suspended())
SDL_ResumeAudioStreamDevice(s_stream);
}
}
// No guest audio time passes while the game is suspended: render
// nothing (the main thread has paused the device). After it the
// cadence moves on by exactly the time suspended, keeping its
@@ -172,17 +225,31 @@ namespace
FollowDevice(false);
}
// Follow the device clock: one frame more or less when the
// queue drifts from its target.
int queued = SDL_GetAudioStreamQueued(s_stream) / FRAME_BYTES;
if (queued > s_targetFrames + 2)
frames = 0;
else if (queued < s_targetFrames - 2)
frames = 2;
// queue drifts from its target, never stopping the game's
// sound (audio_cadence.h).
int queued = std::max(0, SDL_GetAudioStreamQueued(s_stream)) / FRAME_BYTES;
frames = s_cadence.Frames(queued, s_targetFrames);
if (s_cadence.Stalled() && !s_deviceStalledNs.load(std::memory_order_relaxed))
{
s_deviceStalledNs.store(SteadyNs(), std::memory_order_relaxed);
fprintf(stderr, "[audio] the output device has taken no audio for %.1f s (%.0f ms queued): the game's sound "
"carries on, unheard, until it does\n", apu::AudioCadence::StallTicks(s_targetFrames) * apu::kFrameNs / 1e9,
1000.0 * queued * SAMPLES_PER_FRAME / SAMPLE_RATE);
}
if (s_cadence.Resumed())
{
// What was queued before the stall is stale.
SDL_ClearAudioStream(s_stream);
const int64_t since = s_deviceStalledNs.exchange(0, std::memory_order_relaxed);
fprintf(stderr, "[audio] the output device takes audio again after %.1f s (%llu frames dropped in all)\n",
since ? double(SteadyNs() - since) / 1e9 : 0.0, (unsigned long long)s_dropped.load());
}
}
for (int i = 0; i < frames && !guesttime::Suspended(); i++)
{
RenderFrame(ctx);
s_rendered.fetch_add(1, std::memory_order_relaxed);
s_lastRenderNs.store(SteadyNs(), std::memory_order_relaxed);
}
}
}
@@ -209,6 +276,22 @@ namespace apu
return s_rendered.load(std::memory_order_relaxed);
}
std::string DescribeState()
{
const int64_t now = SteadyNs();
auto ago = [now](int64_t t) { return t ? std::format("{:.1f} s ago", double(now - t) / 1e9) : std::string("never"); };
std::string text = std::format("Render callbacks: {} (the last {}); frames from the game: {}; the game's mix last had sound {}.\n",
s_rendered.load(), ago(s_lastRenderNs.load()), s_framesSubmitted.load(), ago(s_lastSoundNs.load()));
if (!s_stream)
return text + "Output device: none (muted by NFSMW_MUTE, or no device).\n";
const int64_t stalled = s_deviceStalledNs.load();
text += std::format("Output device: {:.1f} ms queued (target {:.1f} ms); {}; {} frames dropped in all.\n", QueuedMs(),
1000.0 * s_targetFrames * SAMPLES_PER_FRAME / SAMPLE_RATE,
stalled ? std::format("not taking audio for {:.1f} s", double(now - stalled) / 1e9) : std::string("taking audio"),
s_dropped.load());
return text;
}
double QueuedMs()
{
std::lock_guard lock(s_streamMutex);
@@ -256,6 +339,34 @@ uint32_t XAudioUnregisterRenderDriverClient(uint32_t driver)
uint32_t XAudioSubmitRenderDriverFrame(uint32_t driver, void* samples)
{
s_framesSubmitted++;
// When the game's mix last had sound (the hang report), and a line once it
// has been silent for 10 s in a row (its sound stopped, or a silent
// screen) and when it sounds again: a player's log shows when it dropped.
if (samples)
{
static uint64_t silentFrames = 0;
static double silentFrom = 0;
const auto* words = static_cast<const uint32_t*>(samples);
bool silent = true;
for (uint32_t i = 0; i < SAMPLES_PER_FRAME * CHANNELS && silent; i++)
silent = (words[i] & 0xFFFFFF7Fu) == 0; // +0.0 or -0.0, big-endian
constexpr uint64_t kSilentLog = 10 * SAMPLE_RATE / SAMPLES_PER_FRAME;
if (!silent)
{
s_lastSoundNs.store(SteadyNs(), std::memory_order_relaxed);
if (silentFrames >= kSilentLog)
fprintf(stderr, "[audio] the game's mix sounds again after %.1f s of silence\n",
double(silentFrames) * SAMPLES_PER_FRAME / SAMPLE_RATE);
silentFrames = 0;
}
else
{
if (silentFrames == 0)
silentFrom = report::SessionSeconds();
if (++silentFrames == kSilentLog)
fprintf(stderr, "[audio] the game's mix has been silent for 10 s (since %.1f s)\n", silentFrom);
}
}
if (!s_stream || !samples)
return 0;
// Volume, mute and mute-in-background, when they or the focus change.
@@ -322,6 +433,13 @@ uint32_t XAudioSubmitRenderDriverFrame(uint32_t driver, void* samples)
nextLog = now + std::chrono::seconds(2);
}
}
// A device that isn't taking audio (audio_cadence.h): the frame is
// dropped, and the game's sound carries on, unheard.
if (s_cadence.Stalled())
{
s_dropped.fetch_add(1, std::memory_order_relaxed);
return 0;
}
SDL_PutAudioStreamData(s_stream, out, sizeof(out));
// NFSMW_AUDIO_DUMP=<file>: the final mix as raw interleaved 6-channel
+6
View File
@@ -5,6 +5,7 @@
// cpu/guest_time.h).
#pragma once
#include <cstdint>
#include <string>
namespace apu
{
@@ -24,4 +25,9 @@ namespace apu
// and the audio queued for the device (ms; 0 without one).
uint64_t RenderedFrames();
double QueuedMs();
// Any thread: the audio's state for a hang report, a line or two: the
// render callbacks (the game's sound runs on them), when the game's mix
// last had sound, and the output device (GitHub issue #20).
std::string DescribeState();
}
+96
View File
@@ -0,0 +1,96 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING).
//
// The render callback's cadence against the output device (apu/audio.cpp),
// header only so that tests/audio_cadence_test.cpp runs it.
//
// All of the game's sound runs on the render callback. XAudio processes its
// voices once per call, and NFSMW's own mixer thread (sub_825E3C30) mixes its
// next 256 samples only when XAudio's pass over its voice wakes it; that
// thread also carries out the game's sound commands (play, stop, unload:
// sub_825CF588). The console's hardware calls the callback every 5.33 ms,
// whatever the TV or speakers do. Here the cadence follows the output
// device's clock: a frame more or less when SDL's queue strays more than
// kSlack frames from its target. Up to v0.1.5 that was all, so a device that
// stopped taking audio (one that stalls, another app holding it) kept the
// queue over its target and the callback skipped for good: the game's sound
// stopped, its sound commands with it, and the game hung the next time it
// waited for a sound to stop (sub_821BD920 polls until the sound system no
// longer lists a stream it stopped, as when it unloads an event's sounds
// after the race): GitHub issue #20.
//
// Now a device that has taken nothing for StallTicks ticks (half a second,
// or four queue targets: far longer than any device takes between its
// pulls) is stalled: the callback runs at real time again, every frame is
// dropped (audio.cpp), and the stall is over the moment the device takes
// some: what was queued before it is stale and cleared (Resumed), and the
// queue fills up again as at the start. A device that does take audio, at
// whatever pace, is followed exactly as before.
#pragma once
#include <algorithm>
#include <cstdint>
namespace apu
{
class AudioCadence
{
public:
static constexpr int kSlack = 2; // frames the queue may stray from its target
static constexpr int kStallTicks = 94; // ~0.5 s
// Ticks without the device taking anything before it counts as
// stalled, for a queue target of `target` frames.
static constexpr int StallTicks(int target) { return std::max(kStallTicks, 4 * target); }
// One tick (every 5.33 ms): how many frames to render now (0, 1 or
// 2), with `queued` frames waiting for the device and a queue target
// of `target` frames.
int Frames(int queued, int target)
{
// What the device took since the last tick: the queue then, plus
// what was queued since, less the queue now.
m_idle = m_primed && m_expected - queued <= 0 ? m_idle + 1 : 0;
m_primed = true;
if (m_stalled)
{
if (m_idle > 0)
{
m_expected = queued; // the frame is dropped
return 1;
}
// It took some: over. The caller clears what is queued.
m_stalled = false;
m_resumed = true;
queued = 0;
}
else if (m_idle >= StallTicks(target))
{
m_stalled = true;
m_stalls++;
m_expected = queued;
return 1;
}
const int frames = queued > target + kSlack ? 0 : queued < target - kSlack ? 2 : 1;
m_expected = queued + frames;
return frames;
}
// The device isn't taking audio: every frame rendered is dropped,
// not queued.
bool Stalled() const { return m_stalled; }
// True once after a stall ends: the audio still queued from before
// it is stale (clear it).
bool Resumed()
{
const bool r = m_resumed;
m_resumed = false;
return r;
}
uint64_t Stalls() const { return m_stalls; }
private:
bool m_primed = false, m_stalled = false, m_resumed = false;
int m_expected = 0; // the queue expected now if the device took nothing
int m_idle = 0; // ticks in a row the device took nothing
uint64_t m_stalls = 0;
};
}
+256 -52
View File
@@ -23,14 +23,27 @@
// a thin border of the world shows around it, as on the console; a TV's
// overscan hid it). Under Vert+ the world showed above and below it (63
// rows on the Deck), under Hor+ beside it (720 px a side at 2880x810). The
// intro's start (~57 s) has another, 0.920 of the frame's height.
// intro's start (~57 s) has another, 0.920 of the frame's height. The
// Blacklist's rival bio (SafeHouseRivalBio.fng, "View Rival Movie / View
// Rival Car") sets its text and picture on one more, 0.976 x 0.985 of the
// frame (FF000000, fading in from 11000000), for as long as the screen is
// up: a thin rectangular border of the scene behind it all round it, on
// every screen shape (GitHub #19).
//
// The fix leaves those draws as they are and, right after each side bar or
// black frame, draws it once or twice more, stretched over the whole frame
// and scissored to (its half of) what lies outside the 16:9 band: the rows
// above and below it (Vert+), or the columns beyond its side (Hor+; for a
// bar only when it ends short of the screen edge). Nothing inside the band
// changes, and the strips get the quad's own colour, alpha and blend.
// black frame, draws it once or more again, stretched over the whole frame
// and scissored to what it must fill: for a bar, (its half of) what lies
// outside the 16:9 band, the rows above and below it (Vert+) or the columns
// beyond its side (Hor+; only when it ends short of the screen edge), and
// nothing inside the band changes; for a black frame, everything outside
// the quad itself, the band's thin border too, on every screen shape, 16:9
// included (the period TV's look, as the results screen's overscan rows).
// The copies get the quad's own colour, alpha and blend.
//
// Two pictures the front end draws just short of the 16:9 frame's edges
// get the screen's edges instead, on every screen shape: around the results
// screen's backdrop the rows are cleared to black (PlanBackdrop), and the
// Showcase's vignette is stretched to the screen's edges (PlanVignette).
//
// Units: the frame's clip space after the front-end matrix (w = 1), and
// "band units" = clip / view scale (x / scaleX, y / scaleY): +-1 are the
@@ -157,13 +170,16 @@ namespace gpu::bars
}
// A black frame's thresholds, in band units. Logged on the Deck and at
// 32:9: x +-0.970, y +-0.939, centred, FF000000 (the cut at ~95 s), and
// x +-0.970, y +-0.920, FE000000 (the intro's start, ~57 s). The nearest
// draws it must not take: the fades and dims (+-1.29: past the band,
// the widen, stretch and cover rules' own), the title key art (x
// +-1.104, y +-0.981, grey), the overlay at ~57 s (x +-1.104, B8 alpha),
// the vid cam's noise and dark overlays (x +-0.70; 3C alpha), its dialog
// boxes (x +-0.58), a full-band black layer (+-1.0, the cover rule's).
// 32:9: x +-0.970, y +-0.939, centred, FF000000 (the cut at ~95 s), and x
// +-0.970, y +-0.920, FE000000 (the intro's start, ~57 s); x +-0.976, y
// +-0.985, FB000000 then FF000000 (the Blacklist bio's panel, its fade in
// from 11000000 short of minAlpha: the border shows for those ~15 frames,
// as before). The nearest draws it must not take: the fades and dims
// (+-1.29: past the band, the widen, stretch and cover rules' own), the
// title key art (x +-1.104, y +-0.981, grey), the overlay at ~57 s (x
// +-1.104, B8 alpha), the vid cam's noise and dark overlays (x +-0.70; 3C
// alpha), its dialog boxes (x +-0.58), a full-band black layer (+-1.0, the
// cover rule's).
struct BlackoutRule
{
float centreMax = 0.01f; // |the box's centre|, each axis
@@ -286,29 +302,28 @@ namespace gpu::bars
}
// What a black frame fills, inside the draw's scissor: everything
// outside the band, the rows above and below it across the whole width
// (Vert+) or the columns beside it down the whole height (Hor+; at most
// one of the view scales is below 1). The far edges reach kFillEdge.
inline uint32_t BlackoutRects(const float ps[4], float hostW, float hostH, const Rect& scissor, float scaleX, float scaleY,
Rect out[2])
// outside its box, on every screen shape (16:9 too): the rows above and
// below it across the whole width, then the columns beside it within its
// rows; up to 4 rectangles, which never overlap and meet the box on the
// same pixel edges (Edge) as its own rasterised pixels. The far edges
// reach kFillEdge. (v0.1.1 to v0.1.5 filled only past the band: the
// thin border inside it showed what was behind, as a 360's own output
// does and a period TV's overscan hid: GitHub #19's Blacklist bio.)
inline uint32_t BlackoutRects(const Box& b, const float ps[4], float hostW, float hostH, const Rect& scissor, Rect out[4])
{
uint32_t n = 0;
auto add = [&](const Rect& r) {
const Rect c = Intersect(r, scissor);
if (!Empty(c))
auto add = [&](float cx0, float cx1, float cy0, float cy1) {
if (cx1 <= cx0 || cy1 <= cy0)
return;
const Rect c = Intersect(ClipToHost(cx0, cx1, cy0, cy1, ps, hostW, hostH), scissor);
if (!Empty(c) && n < 4)
out[n++] = c;
};
const float e = kFillEdge;
if (scaleY < 1.0f)
{
add(ClipToHost(-e, e, scaleY, e, ps, hostW, hostH));
add(ClipToHost(-e, e, -e, -scaleY, ps, hostW, hostH));
}
else if (scaleX < 1.0f)
{
add(ClipToHost(scaleX, e, -e, e, ps, hostW, hostH));
add(ClipToHost(-e, -scaleX, -e, e, ps, hostW, hostH));
}
add(-e, e, b.y1, e); // past its top in clip y (either way up on screen)
add(-e, e, -e, b.y0); // past its bottom
add(-e, b.x0, b.y0, b.y1); // left of it, within its rows
add(b.x1, e, b.y0, b.y1); // right of it
return n;
}
@@ -316,14 +331,20 @@ namespace gpu::bars
// "WINNER" polaroid over asphalt and leaves; the title's and Controls'
// key art have the same shape) is one opaque textured quad of the front
// end, centred, x +-1.104 and y +-0.981 of the 16:9 band. On a 16:9
// screen it hides the world (a thin border of it shows at the top and
// bottom, as on the console, where a TV's overscan hid it); past the band
// (Hor+ beside it, Vert+ above and below it) the world rendered behind
// it showed: the race's road and cars at the sides of the results on an
// iPhone (2868x1320). What a 16:9 screen shows of it is kept, the art's
// own pixels too; everything else past the band (what no 16:9 screen
// shows) is filled black, as a 16:9 picture's letterbox. Thresholds in
// band units. The nearest draws it must not take: the fades and dims
// screen it hides the world but for a thin border at the top and bottom
// (y 0.981 to 1: ~7 of 720 rows each), where the race behind it shows;
// a real 360's own output has that border too (HDMI captures of the
// results screen), and a TV's overscan hid it. Past the band (Hor+
// beside it, Vert+ above and below it) the world rendered behind it
// showed as well: the race's road and cars at the sides of the results
// on an iPhone (2868x1320). The art's own pixels are all kept, past the
// band too; everything else is filled black on every screen shape, 16:9
// too: past the band (what no 16:9 screen shows, as a 16:9 picture's
// letterbox) and, inside it, the rows between the picture's top or
// bottom edge and the band's (what a period TV's overscan hid). The
// title's and Controls' key art have black around them already, so their
// fill changes nothing on screen. Thresholds in band units. The nearest
// draws it must not take: the fades and dims
// (+-1.29: flat, and the widen, stretch and cover rules' own), the pause
// dim (C8 alpha) and its gradients, the vid cam's noise and dark overlays
// (3C alpha, x +-0.70), the overlay at the intro's start (x +-1.104, B8
@@ -366,13 +387,14 @@ namespace gpu::bars
return true;
}
// What a backdrop fills, inside the draw's scissor: what lies past the
// band (the columns beside it under Hor+, the rows above and below it
// under Vert+; at most one of the view scales is below 1) and outside
// the backdrop's own box, up to kFillEdge: per side, the part beyond the
// box and, where the box reaches into that side, the parts above and
// below it (Hor+; left and right of it under Vert+). At most 6.
inline uint32_t BackdropRects(const Box& b, const float ps[4], float hostW, float hostH, const Rect& scissor, float scaleX, float scaleY,
// What a backdrop fills past the band, inside the draw's scissor: what
// lies past it (the columns beside it under Hor+, the rows above and
// below it under Vert+; at most one of the view scales is below 1) and
// outside the backdrop's own box, up to kFillEdge: per side, the part
// beyond the box and, where the box reaches into that side, the parts
// above and below it (Hor+; left and right of it under Vert+). At most
// 6; none at 16:9.
inline uint32_t PastBandRects(const Box& b, const float ps[4], float hostW, float hostH, const Rect& scissor, float scaleX, float scaleY,
Rect out[6])
{
uint32_t n = 0;
@@ -410,6 +432,45 @@ namespace gpu::bars
return n;
}
// The overscan rows, inside the draw's scissor: inside the band, the
// rows between the backdrop's top edge and the band's and between its
// bottom edge and the band's (y +-0.981 to +-1 of the band for the
// results picture), across the band's width. Where the band's edge is
// the screen's (y at 16:9 and under Hor+, x at 16:9 and under Vert+)
// they reach kFillEdge, as the fills past the band do (at 2x with
// half-pixel centres the outermost row's centre lies past clip 1); where
// it isn't, they stop at it and PastBandRects' rectangles go on from
// there, meeting them on the same pixel edge (gpu::bars::Edge). None
// where the box reaches the band's edge. At most 2.
inline uint32_t OverscanRows(const Box& b, const float ps[4], float hostW, float hostH, const Rect& scissor, float scaleX, float scaleY,
Rect out[2])
{
uint32_t n = 0;
auto add = [&](float cx0, float cx1, float cy0, float cy1) {
if (cx1 <= cx0 || cy1 <= cy0)
return;
const Rect c = Intersect(ClipToHost(cx0, cx1, cy0, cy1, ps, hostW, hostH), scissor);
if (!Empty(c) && n < 2)
out[n++] = c;
};
const float e = kFillEdge;
const float bandX = scaleX < 1.0f ? scaleX : e, bandY = scaleY < 1.0f ? scaleY : e;
add(-bandX, bandX, b.y1, bandY);
add(-bandX, bandX, -bandY, b.y0);
return n;
}
// What a backdrop fills, inside the draw's scissor: everything outside
// its box but the columns inside the band beside it (none for a picture
// as wide as the band): PastBandRects' and then OverscanRows'
// rectangles, which never overlap. At most 8.
inline uint32_t BackdropRects(const Box& b, const float ps[4], float hostW, float hostH, const Rect& scissor, float scaleX, float scaleY,
Rect out[8])
{
const uint32_t n = PastBandRects(b, ps, hostW, hostH, scissor, scaleX, scaleY, out);
return n + OverscanRows(b, ps, hostW, hostH, scissor, scaleX, scaleY, out + n);
}
// The posScale that stretches the quad's box over [-edge, edge] in clip
// x and y (x' = ax x + bx, likewise y), folded in: NDC = x' ps0 + ps2 =
// x (ax ps0) + (ps2 + bx ps0). Orientation is kept (ax, ay > 0) whatever
@@ -442,24 +503,27 @@ namespace gpu::bars
uint32_t blend0 = 0; // RB_BLENDCONTROL0 & 0x1FFF1FFF
bool t0Sampled = false; // the pixel shader samples t0
uint32_t t0Width = 0, t0Height = 0; // t0's size in texels
uint32_t t0Format = 0; // t0's fetch constant format (6: k_8_8_8_8, 32-bit texels)
float posScale[4] = {}; // the draw's own: NDC = clip * ps.xy + ps.zw
float hostW = 0.0f, hostH = 0.0f; // the host viewport: the target's size times the render scale
Rect scissor{}; // the draw's scissor (host pixels)
};
enum class Fill : uint8_t { None, LeftBar, RightBar, Blackout, Backdrop };
enum class Fill : uint8_t { None, LeftBar, RightBar, Blackout, Backdrop, Vignette };
// What to draw after the draw: for a bar or a black frame, `rectCount`
// more copies of it (none for a bar that reaches the screen edge), with
// `posScale` and each rectangle as the scissor; for a backdrop, each
// rectangle cleared to opaque black (its picture must not be copied).
// rectangle cleared to opaque black (its picture must not be copied);
// for a vignette, nothing after it: the draw itself is drawn with
// `posScale` instead of its own (no rectangles).
struct Plan
{
Fill fill = Fill::None;
Box box{}; // the quad's, clip space
uint32_t argb = 0; // its colour
uint32_t rectCount = 0;
Rect rects[6]{};
Rect rects[8]{}; // a bar's 2, a black frame's 4, a backdrop's 8
float posScale[4]{};
};
@@ -482,13 +546,14 @@ namespace gpu::bars
}
// The register checks for a backdrop, before any vertex is read:
// Candidate's, but over a large t0 (a picture, not the white texture).
// Candidate's, but over a large t0 (a picture, not the white texture),
// at every screen shape (16:9 too: its overscan rows).
inline bool BackdropCandidate(const Draw& d, const BackdropRule& rule = {})
{
const float* c = d.c;
const bool yScale = d.frontEndY > 0.0f ? std::fabs(std::fabs(c[5]) - d.frontEndY) <= d.frontEndY * 1e-5f
: d.frontEndY == 0.0f && d.scaleY >= 1.0f;
return (d.scaleX < 1.0f || d.scaleY < 1.0f) && !d.occlusion && d.prim == 13 && d.count == 4 && d.frontEndShader && d.leftAlone &&
return !d.occlusion && d.prim == 13 && d.count == 4 && d.frontEndShader && d.leftAlone &&
c[3] == 0.0f && c[4] == 0.0f && c[6] == 0.0f && c[7] == 0.0f && yScale && (d.vte & 0xF) == 0xF &&
(d.blend0 == 0x07060706u || d.blend0 == 0x00010001u) && d.t0Sampled && d.t0Width >= rule.minTexels && d.t0Height >= rule.minTexels;
}
@@ -526,6 +591,145 @@ namespace gpu::bars
return p;
}
// The Showcase's vignette (Showcase.fng: the "Rotate / Zoom Out / Zoom In"
// car viewer of the car lot, the customize shop and the Blacklist's rival
// cars; GitHub #19): one front-end quad over the 3D garage, centred, x
// +-0.970 and y +-0.958 of the 16:9 band (ten of the front end's 640x480
// units in from each edge), its 256x256 k_8_8_8_8 texture black, clear in
// the middle (every texel there 00000000) and darkening steeply toward its
// edges (alpha 0.1-0.8 at the edge itself, 1.0 toward the corners), alpha-
// blended (vertex colour 7F7F7F, its alpha fading in from 04 to FE). On a
// 16:9 screen the garage shows undimmed in a thin border all round it; a
// real 360's own output has that border too (an HDMI capture of the car
// lot's Showcase: the same step at x +-0.970), and a period TV's overscan
// (2.5-5% a side) hid it. Under Vert+ the garage rendered above and below
// the band showed undimmed as well (7% of a MacBook's height at the top and
// at the bottom, 55 rows of a Deck's 800): a bright rectangular frame round
// the dimmed picture. The quad is stretched to the screen's edges (its box
// to +-kFillEdge: CoverFrame), on every screen shape, 16:9 too, as a period
// TV showed it (the results screen's overscan rows are filled the same way:
// OverscanRows). Its middle is clear, so only its dark edges move out:
// 3.1% in x and 4.4% in y at 16:9, y by 1/sv more under Vert+, x by 1/sx
// more under Hor+. Thresholds in band units. The nearest draws it must not
// take: the intro's black frames (x +-0.970, y +-0.939/0.920: opaque black
// over the 32x32 white texture, and the black frame rule's), the title's
// key art and the results picture (x +-1.104), the vid cam's noise and dark
// overlays (x +-0.70), a full-band picture (+-1.0), an inset picture
// (opaque in the middle: the texel check).
struct VignetteRule
{
float centreMax = 0.01f; // |the box's centre|, each axis
float extentMin = 0.90f, extentMax = 0.99f; // half its width and half its height
uint32_t minTexels = 128; // t0 at least this wide and tall
float cornerTolerance = 1e-3f; // clip units, as Rule's
};
// A vignette's shape: one axis-aligned rectangle, one colour on all four
// vertices (any alpha: it fades in), centred in the band and covering
// most of it in x and y while stopping short of its edges. Its box goes
// to `box`. (Its texture is the plan's check: PlanVignette.)
inline bool MatchVignette(const Vertex v[4], float scaleX, float scaleY, const VignetteRule& rule = {}, Box* box = nullptr)
{
if (!(scaleX > 0.0f && scaleY > 0.0f))
return false;
for (int i = 1; i < 4; i++)
if (v[i].argb != v[0].argb)
return false;
Box b;
if (!RectangleBox(v, rule.cornerTolerance, b))
return false;
const float midX = (b.x0 + b.x1) * 0.5f / scaleX, midY = (b.y0 + b.y1) * 0.5f / scaleY;
const float halfX = (b.x1 - b.x0) * 0.5f / scaleX, halfY = (b.y1 - b.y0) * 0.5f / scaleY;
if (!(std::fabs(midX) <= rule.centreMax && std::fabs(midY) <= rule.centreMax))
return false;
if (!(halfX >= rule.extentMin && halfX <= rule.extentMax && halfY >= rule.extentMin && halfY <= rule.extentMax))
return false;
if (box)
*box = b;
return true;
}
// The byte offset of texel (x, y) in a 32-bit 2D texture: Xenos tiling
// (gpu/renderer.cpp's GLSL tiled2D, pitch in texels, a multiple of 32)
// or linear rows of `pitch` texels.
inline uint32_t TexelOffset32(uint32_t x, uint32_t y, uint32_t pitch, bool tiled)
{
if (!tiled)
return (y * pitch + x) * 4u;
const uint32_t outer = (((y >> 5) * (pitch >> 5)) + (x >> 5)) << 6;
const uint32_t inner = (((y >> 1) & 7u) << 3) | (x & 7u);
const uint32_t oi = (outer | inner) << 2;
const uint32_t bank = (y >> 4) & 1u;
const uint32_t pipe = ((x >> 3) & 3u) ^ (((y >> 3) & 1u) << 1);
return ((y & 1u) << 4) | (pipe << 6) | (bank << 11) | (oi & 0xFu) | (((oi >> 4) & 1u) << 5) | (((oi >> 5) & 7u) << 8) |
((oi >> 8) << 12);
}
// The texels a vignette's middle must hold clear (00000000, whatever the
// endian): the centre and halfway from it to each edge. An inset
// picture, opaque there, is no vignette.
constexpr uint32_t kClearSamples = 5;
inline void ClearSample(uint32_t i, uint32_t width, uint32_t height, uint32_t& x, uint32_t& y)
{
const uint32_t xs[kClearSamples] = { width / 2, width / 4, width * 3 / 4, width / 2, width / 2 };
const uint32_t ys[kClearSamples] = { height / 2, height / 2, height / 2, height / 4, height * 3 / 4 };
x = xs[i % kClearSamples];
y = ys[i % kClearSamples];
}
// The register checks for a vignette, before any vertex is read:
// Candidate's, but alpha-blended (07060706: it is translucent), over a
// large 32-bit t0 (format 6, k_8_8_8_8), at every screen shape.
inline bool VignetteCandidate(const Draw& d, const VignetteRule& rule = {})
{
const float* c = d.c;
const bool yScale = d.frontEndY > 0.0f ? std::fabs(std::fabs(c[5]) - d.frontEndY) <= d.frontEndY * 1e-5f
: d.frontEndY == 0.0f && d.scaleY >= 1.0f;
return !d.occlusion && d.prim == 13 && d.count == 4 && d.frontEndShader && d.leftAlone && c[3] == 0.0f && c[4] == 0.0f &&
c[6] == 0.0f && c[7] == 0.0f && yScale && (d.vte & 0xF) == 0xF && d.blend0 == 0x07060706u && d.t0Sampled && d.t0Format == 6 &&
d.t0Width >= rule.minTexels && d.t0Height >= rule.minTexels;
}
// The plan for a vignette: the draw's posScale stretched so its box
// reaches past every screen edge (CoverFrame), no rectangles. read: as
// PlanFill's; texel(x, y, word): t0's 32-bit texel (x, y), false if it
// can't be read. Vertices first (as PlanBackdrop: one quad over a large
// t0 gets this far), then the texels of its middle.
template <class ReadWord, class ReadTexel>
Plan PlanVignette(const Draw& d, ReadWord&& read, ReadTexel&& texel, const VignetteRule& rule = {})
{
Plan p;
if (!VignetteCandidate(d, rule))
return p;
const float* c = d.c;
Vertex v[4];
for (uint32_t k = 0; k < 4; k++)
{
uint32_t w[4];
for (uint32_t j = 0; j < 4; j++)
if (!read(k, j, w[j]))
return p;
float q[3];
std::memcpy(q, w, sizeof(q));
v[k] = { q[0] * c[0] + q[1] * c[1] + q[2] * c[2] + c[3], q[0] * c[4] + q[1] * c[5] + q[2] * c[6] + c[7], w[3] };
}
Box box{};
if (!MatchVignette(v, d.scaleX, d.scaleY, rule, &box))
return p;
for (uint32_t i = 0; i < kClearSamples; i++)
{
uint32_t x, y, word = 1;
ClearSample(i, d.t0Width, d.t0Height, x, y);
if (!texel(x, y, word) || word != 0)
return p;
}
p.fill = Fill::Vignette;
p.box = box;
p.argb = v[0].argb;
CoverFrame(box, d.posScale, p.posScale);
return p;
}
// The plan for a draw. read(k, j, word): word j of the draw's vertex k
// (k 0..3 in draw order, through its indices; an ePoly's words 0..3 are
// x, y, z and the colour), false past the vertex buffer. Register checks
@@ -561,7 +765,7 @@ namespace gpu::bars
else if (MatchBlackout(v, d.scaleX, d.scaleY, {}, &box))
{
p.fill = Fill::Blackout;
p.rectCount = BlackoutRects(d.posScale, d.hostW, d.hostH, d.scissor, d.scaleX, d.scaleY, p.rects);
p.rectCount = BlackoutRects(box, d.posScale, d.hostW, d.hostH, d.scissor, p.rects);
}
else
return p;
+184 -97
View File
@@ -7832,8 +7832,131 @@ void main()
// stretched in y alone it would be distorted by up to 1/sv. The rest
// of the front end is clipped to the band (below).
// Edge bars (gpu/edge_bars.h): the copies of a police vid-cam side
// bar or the intro's black frame that fill the screen past the 16:9
// band, drawn right after it.
// bar that fill the screen past the 16:9 band, and of a black frame
// (the intro's cuts, the Blacklist bio's panel) that fill everything
// outside it, at 16:9 too, drawn right after it; the black around a
// full-band backdrop (the results screen), cleared right after it,
// at 16:9 too; and the Showcase's vignette, stretched to the screen's
// edges. NFSMW_BAR_FILL=0 turns all the edge fills off (an A/B
// switch).
// planEdgeFills: the plan for a front-end draw (its registers, what
// the rules below did, a reader for its ePolys): PlanFill's bars and
// black frames first, then PlanBackdrop's full-band picture, then
// PlanVignette's overlay (every screen shape; a bar fills nothing at
// 16:9).
// logEdgeFill: what a plan does, once per kind, screen shape and
// outcome, in every log (a tester's too).
static const bool barFill = [] { const char* v = std::getenv("NFSMW_BAR_FILL"); return !(v && v[0] == '0'); }();
auto planEdgeFills = [&](const float* c, float feY, float aspectX, float aspectY, bool feShader, bool leftAlone) {
xenos::xe_gpu_texture_fetch_t t0;
memcpy(&t0, &s_regs[XE_GPU_REG_SHADER_CONSTANT_FETCH_00_0], sizeof(t0));
const gpu::bars::Draw draw{ .prim = uint32_t(initiator.prim_type),
.count = count,
.c = c,
.frontEndY = feY,
.scaleX = aspectX,
.scaleY = aspectY,
.frontEndShader = feShader,
.leftAlone = leftAlone,
.occlusion = zpdCount,
.vte = vte.value,
.blend0 = s_regs[XE_GPU_REG_RB_BLENDCONTROL0] & 0x1FFF1FFF,
.t0Sampled = (s_ps->info.texture2DMask & 1) != 0,
.t0Width = uint32_t(t0.size_2d.width) + 1,
.t0Height = uint32_t(t0.size_2d.height) + 1,
.t0Format = uint32_t(t0.format),
.posScale = { pc.posScale[0], pc.posScale[1], pc.posScale[2], pc.posScale[3] },
.hostW = w * float(scaleX),
.hostH = h * float(scaleY),
.scissor = { scissor.offset.x, scissor.offset.y, scissor.offset.x + int32_t(scissor.extent.width),
scissor.offset.y + int32_t(scissor.extent.height) } };
const uint32_t* vf = &s_regs[XE_GPU_REG_SHADER_CONSTANT_FETCH_00_0 + 95 * 2];
const uint32_t base = vf[0] & 0x1FFFFFFC, endian = vf[1] & 3;
const uint32_t words = (vf[1] >> 2) & 0xFFFFFF, first = s_regs[XE_GPU_REG_VGT_INDX_OFFSET];
auto read = [&](uint32_t k, uint32_t j, uint32_t& word) {
const uint32_t v = src.Get(k) + first; // an ePoly: 8 words
if ((v + 1) * 8 > words)
return false;
word = GpuSwap(LoadPhysical(base + (v * 8 + j) * 4), endian);
return true;
};
gpu::bars::Plan plan = gpu::bars::PlanFill(draw, read);
// The results screen's backdrop (and any opaque picture of that
// shape: the title's key art): what lies outside the picture,
// past the band and in the band's overscan rows above and below
// it, is cleared to black after it, where the world drawn behind
// it showed (gpu/edge_bars.h).
if (plan.fill == gpu::bars::Fill::None)
plan = gpu::bars::PlanBackdrop(draw, read);
// The Showcase's vignette (and any front-end overlay of its
// shape, clear in the middle): stretched to the screen's edges,
// where the garage showed undimmed round it (GitHub #19). Its
// texels as the GPU reads them: 32-bit, tiled or linear rows.
if (plan.fill == gpu::bars::Fill::None)
{
const uint32_t t0Base = (uint32_t(t0.base_address) << 12) & 0x1FFFFFFFu;
const uint32_t t0Pitch = uint32_t(t0.pitch) << 5;
auto texel = [&](uint32_t x, uint32_t y, uint32_t& word) {
if (!t0Pitch || x >= draw.t0Width || y >= draw.t0Height || x >= t0Pitch)
return false;
word = GpuSwap(LoadPhysical(t0Base + gpu::bars::TexelOffset32(x, y, t0Pitch, t0.tiled != 0)), uint32_t(t0.endianness));
return true;
};
plan = gpu::bars::PlanVignette(draw, read, texel);
}
return plan;
};
auto logEdgeFill = [&](const gpu::bars::Plan& barPlan, float aspectX, float aspectY) {
if (barPlan.fill == gpu::bars::Fill::None)
return;
static const bool logFrontEnd = std::getenv("NFSMW_LOG_FRONTEND") != nullptr;
// A match each frame skips building the line once its key is
// logged.
const uint32_t kind = uint32_t(barPlan.fill);
const bool blackout = barPlan.fill == gpu::bars::Fill::Blackout;
const bool backdrop = barPlan.fill == gpu::bars::Fill::Backdrop;
const bool vignette = barPlan.fill == gpu::bars::Fill::Vignette;
const gpu::bars::Box& box = barPlan.box;
const uint64_t key = (0x36ull << 56) | (uint64_t(kind) << 40) | (uint64_t(barPlan.rectCount) << 36) |
(uint64_t(std::lround(aspectX * 4096.0f)) << 18) | uint64_t(std::lround(aspectY * 4096.0f));
static uint64_t loggedKey[6] = { ~0ull, ~0ull, ~0ull, ~0ull, ~0ull, ~0ull };
if (loggedKey[kind] != key)
{
loggedKey[kind] = key;
char fills[192];
if (barPlan.rectCount)
snprintf(fills, sizeof(fills), "fills %u rectangle(s) %s, first [%d,%d)x[%d,%d) (host px)", barPlan.rectCount,
backdrop ? "outside it (past the 16:9 band, and the band's overscan rows)"
: blackout ? "outside it (past the 16:9 band, and the band's border round it)" : "past the 16:9 band", barPlan.rects[0].x0,
barPlan.rects[0].x1, barPlan.rects[0].y0, barPlan.rects[0].y1);
else
snprintf(fills, sizeof(fills), "%s", vignette ? "stretched to the screen's edges"
: blackout || backdrop ? "fills nothing" : "reaches the screen edge: nothing to fill");
LogOnce(key,
"edge bars: frame %llu vs_%016llx ps_%016llx: %s (clip x %.3f..%.3f y %.3f..%.3f, colour %08X; view scale x %.4f y %.4f) %s",
(unsigned long long)s_frame, (unsigned long long)s_vs->hash, (unsigned long long)s_ps->hash,
vignette ? "the Showcase's vignette (clear in the middle)" : backdrop ? "a full-band backdrop (black outside it)"
: blackout ? "a black frame" : kind == uint32_t(gpu::bars::Fill::RightBar) ? "the right vid-cam bar" : "the left vid-cam bar",
box.x0, box.x1, box.y0, box.y1, barPlan.argb, aspectX, aspectY, fills);
}
// NFSMW_LOG_FRONTEND=1: the first frame of each run of frames
// with a match, bars and black frames apart (one run per vid-cam
// scene and per cut; any other is a draw this should not take).
static uint64_t lastBarFrame[4] = { ~0ull - 1, ~0ull - 1, ~0ull - 1, ~0ull - 1 };
uint64_t& last = lastBarFrame[vignette ? 3 : backdrop ? 2 : blackout ? 1 : 0];
if (logFrontEnd && s_frame != last && s_frame != last + 1)
{
xenos::xe_gpu_texture_fetch_t t0;
memcpy(&t0, &s_regs[XE_GPU_REG_SHADER_CONSTANT_FETCH_00_0], sizeof(t0));
fprintf(stderr, "[frontend] edge bars: matching from frame %llu: %s x %.3f..%.3f y %.3f..%.3f colour %08X blend %08X t0 %08X %ux%u, %u rect(s)\n",
(unsigned long long)s_frame, vignette ? "vignette" : backdrop ? "backdrop" : blackout ? "black frame"
: kind == uint32_t(gpu::bars::Fill::RightBar) ? "right bar" : "left bar",
box.x0, box.x1, box.y0, box.y1, barPlan.argb, s_regs[XE_GPU_REG_RB_BLENDCONTROL0] & 0x1FFF1FFF,
(uint32_t(t0.base_address) << 12) & 0x1FFFFFFFu, uint32_t(t0.size_2d.width) + 1, uint32_t(t0.size_2d.height) + 1,
barPlan.rectCount);
}
last = s_frame;
};
gpu::bars::Plan barPlan;
if (const float s = game::AspectScaleX(), sv = game::AspectScaleY(); s < 1.0f || sv < 1.0f)
{
@@ -8127,102 +8250,27 @@ void main()
// past a 2.50:1 screen beside them. The intro's cut
// between two shots (~95 s) is a few frames of one black
// quad 0.970 x 0.939 of the 16:9 frame: the world shows
// all round it. Such a quad (gpu::bars::PlanFill: one
// black rectangle of the front-end shader the rules
// above left alone; a bar a little past both band edges
// in y, from inside the band to well past one side; a
// black frame centred, short of the band's edges) is
// drawn again after itself, stretched over the frame and
// scissored to (its half of) what lies outside the band:
// nothing inside the band changes.
// NFSMW_BAR_FILL=0 turns it off (an A/B switch).
static const bool barFill = [] { const char* v = std::getenv("NFSMW_BAR_FILL"); return !(v && v[0] == '0'); }();
// all round it (and the Blacklist bio's panel, 0.976 x
// 0.985, for as long as it is up). Such a quad
// (gpu::bars::PlanFill: one black rectangle of the
// front-end shader the rules above left alone; a bar a
// little past both band edges in y, from inside the band
// to well past one side; a black frame centred, short of
// the band's edges) is drawn again after itself,
// stretched over the frame and scissored to (its half of)
// what lies outside the band (a bar: nothing inside the
// band changes) or to everything outside itself (a black
// frame). The Showcase's vignette
// (gpu::bars::PlanVignette) is drawn stretched to the
// screen's edges instead (its own posScale).
// NFSMW_BAR_FILL=0 turns it off (an A/B switch: barFill).
const uint32_t blend0 = s_regs[XE_GPU_REG_RB_BLENDCONTROL0] & 0x1FFF1FFF;
if (barFill)
{
xenos::xe_gpu_texture_fetch_t t0;
memcpy(&t0, &s_regs[XE_GPU_REG_SHADER_CONSTANT_FETCH_00_0], sizeof(t0));
const gpu::bars::Draw draw{ .prim = prim,
.count = count,
.c = c,
.frontEndY = feY,
.scaleX = s,
.scaleY = sv,
.frontEndShader = feShader,
.leftAlone = kX == 1.0f && kY == 1.0f && kCover == 1.0f && !clipped,
.occlusion = zpdCount,
.vte = vte.value,
.blend0 = blend0,
.t0Sampled = (s_ps->info.texture2DMask & 1) != 0,
.t0Width = uint32_t(t0.size_2d.width) + 1,
.t0Height = uint32_t(t0.size_2d.height) + 1,
.posScale = { pc.posScale[0], pc.posScale[1], pc.posScale[2], pc.posScale[3] },
.hostW = w * float(scaleX),
.hostH = h * float(scaleY),
.scissor = { scissor.offset.x, scissor.offset.y, scissor.offset.x + int32_t(scissor.extent.width),
scissor.offset.y + int32_t(scissor.extent.height) } };
const uint32_t base = vf[0] & 0x1FFFFFFC, endian = vf[1] & 3;
const uint32_t words = (vf[1] >> 2) & 0xFFFFFF, first = s_regs[XE_GPU_REG_VGT_INDX_OFFSET];
auto read = [&](uint32_t k, uint32_t j, uint32_t& word) {
const uint32_t v = src.Get(k) + first; // an ePoly: 8 words
if ((v + 1) * 8 > words)
return false;
word = GpuSwap(LoadPhysical(base + (v * 8 + j) * 4), endian);
return true;
};
barPlan = gpu::bars::PlanFill(draw, read);
// The results screen's backdrop (and any opaque
// picture of that shape: the title's key art): what
// lies past the band and outside the picture is
// cleared to black after it, where the world drawn
// behind it showed (gpu/edge_bars.h).
if (barPlan.fill == gpu::bars::Fill::None)
barPlan = gpu::bars::PlanBackdrop(draw, read);
}
if (barPlan.fill != gpu::bars::Fill::None)
{
// Once per kind, screen shape and outcome, in every
// log (a tester's too); a match each frame skips
// building the line once its key is logged.
const uint32_t kind = uint32_t(barPlan.fill);
const bool blackout = barPlan.fill == gpu::bars::Fill::Blackout;
const bool backdrop = barPlan.fill == gpu::bars::Fill::Backdrop;
const gpu::bars::Box& box = barPlan.box;
const uint64_t key = (0x36ull << 56) | (uint64_t(kind) << 40) | (uint64_t(barPlan.rectCount) << 36) |
(uint64_t(std::lround(s * 4096.0f)) << 18) | uint64_t(std::lround(sv * 4096.0f));
static uint64_t loggedKey[5] = { ~0ull, ~0ull, ~0ull, ~0ull, ~0ull };
if (loggedKey[kind] != key)
{
loggedKey[kind] = key;
char fills[96];
if (barPlan.rectCount)
snprintf(fills, sizeof(fills), "fills %u rectangle(s) past the 16:9 band, first [%d,%d)x[%d,%d) (host px)",
barPlan.rectCount, barPlan.rects[0].x0, barPlan.rects[0].x1, barPlan.rects[0].y0, barPlan.rects[0].y1);
else
snprintf(fills, sizeof(fills), "%s", blackout || backdrop ? "fills nothing" : "reaches the screen edge: nothing to fill");
LogOnce(key,
"edge bars: frame %llu vs_%016llx ps_%016llx: %s (clip x %.3f..%.3f y %.3f..%.3f, colour %08X; view scale x %.4f y %.4f) %s",
(unsigned long long)s_frame, (unsigned long long)s_vs->hash, (unsigned long long)s_ps->hash,
backdrop ? "a full-band backdrop (black past the band)" : blackout ? "a black frame"
: kind == uint32_t(gpu::bars::Fill::RightBar) ? "the right vid-cam bar" : "the left vid-cam bar",
box.x0, box.x1, box.y0, box.y1, barPlan.argb, s, sv, fills);
}
// NFSMW_LOG_FRONTEND=1: the first frame of each
// run of frames with a match, bars and black frames
// apart (one run per vid-cam scene and per cut; any
// other is a draw this should not take).
static uint64_t lastBarFrame[3] = { ~0ull - 1, ~0ull - 1, ~0ull - 1 };
uint64_t& last = lastBarFrame[backdrop ? 2 : blackout ? 1 : 0];
if (logFrontEnd && s_frame != last && s_frame != last + 1)
{
xenos::xe_gpu_texture_fetch_t t0;
memcpy(&t0, &s_regs[XE_GPU_REG_SHADER_CONSTANT_FETCH_00_0], sizeof(t0));
fprintf(stderr, "[frontend] edge bars: matching from frame %llu: %s x %.3f..%.3f y %.3f..%.3f colour %08X blend %08X t0 %08X %ux%u, %u rect(s)\n",
(unsigned long long)s_frame, backdrop ? "backdrop" : blackout ? "black frame" : kind == uint32_t(gpu::bars::Fill::RightBar) ? "right bar" : "left bar",
box.x0, box.x1, box.y0, box.y1, barPlan.argb, blend0, (uint32_t(t0.base_address) << 12) & 0x1FFFFFFFu,
uint32_t(t0.size_2d.width) + 1, uint32_t(t0.size_2d.height) + 1, barPlan.rectCount);
}
last = s_frame;
barPlan = planEdgeFills(c, feY, s, sv, feShader, kX == 1.0f && kY == 1.0f && kCover == 1.0f && !clipped);
logEdgeFill(barPlan, s, sv);
if (barPlan.fill == gpu::bars::Fill::Vignette)
memcpy(pc.posScale, barPlan.posScale, sizeof(pc.posScale));
}
// The edge candidates (above) that still stop short of
// the screen's edge after the rules, each distinct line
@@ -8273,7 +8321,8 @@ void main()
uint32_t& perT0Edge = perKey[(uint64_t(t0) << 32) | (kind << 3) | edgeCode];
if (perT0Edge >= 4)
continue;
const std::string action = barPlan.rectCount
const std::string action = barPlan.fill == gpu::bars::Fill::Vignette ? std::string("vignette stretched to the screen's edges")
: barPlan.rectCount
? std::string(barPlan.fill == gpu::bars::Fill::Backdrop ? "backdrop fill"
: barPlan.fill == gpu::bars::Fill::Blackout ? "black frame fill" : "bar fill")
: clipped ? std::format("clipped to rows {}..{}", scissor.offset.y, scissor.offset.y + int32_t(scissor.extent.height))
@@ -8361,6 +8410,42 @@ void main()
}
}
}
else if (barFill)
{
// 16:9 (or a 16:9 picture letterboxed on another shape): none of
// the rules above has anything to do, and no bar needs a fill,
// but a black frame leaves a thin border of what is behind it all
// round it: filled with its copies (gpu::bars::BlackoutRects); a
// full-band backdrop (the results screen) leaves the race showing
// in the band's overscan rows above and below it: those are
// cleared to black (gpu::bars::OverscanRows); and the Showcase's
// vignette leaves a thin border of the garage undimmed all round
// it: it is stretched to the screen's edges
// (gpu::bars::PlanVignette).
// A front-end draw as above (the front-end matrix in c0..c3,
// ePolys at fetch constant 95, read by the vertex shader); nothing
// is measured, and only one quad gets as far as reading its
// vertices: over a small t0 its first colour only (a black frame
// needs black, gpu::bars::Candidate), over a large t0
// (gpu::bars::BackdropCandidate, VignetteCandidate) all four.
if (const float feX = game::FrontEndScaleX(); feX > 0.0f)
{
float c[16];
memcpy(c, &s_regs[XE_GPU_REG_SHADER_CONSTANT_000_X], sizeof(c));
const uint32_t* vf = &s_regs[XE_GPU_REG_SHADER_CONSTANT_FETCH_00_0 + 95 * 2];
if (std::fabs(c[0] - feX) <= feX * 1e-5f && c[1] == 0.0f && c[2] == 0.0f &&
c[12] == 0.0f && c[13] == 0.0f && c[14] == 0.0f && c[15] == 1.0f && ((vf[0] & 3) == 3))
{
const auto& vi = s_vs->info;
const bool feShader = ((vi.vertexFetchConstants[95 / 32] >> (95 % 32)) & 1) &&
(vi.constRelative || (vi.constUsed[0] & 0xFull) == 0xFull);
barPlan = planEdgeFills(c, game::FrontEndScaleY(), s, sv, feShader, true);
logEdgeFill(barPlan, s, sv);
if (barPlan.fill == gpu::bars::Fill::Vignette)
memcpy(pc.posScale, barPlan.posScale, sizeof(pc.posScale));
}
}
}
// NFSMW_LOG_DRAWS=<seconds>: every draw of one frame (target, viewport,
// scissor, textures, shaders), consecutive duplicates folded.
if (s_logDrawsNow)
@@ -8373,6 +8458,8 @@ void main()
if (barPlan.rectCount)
line += std::format(" +edge {} fill x{}", barPlan.fill == gpu::bars::Fill::Backdrop ? "backdrop"
: barPlan.fill == gpu::bars::Fill::Blackout ? "black frame" : "bar", barPlan.rectCount);
else if (barPlan.fill == gpu::bars::Fill::Vignette)
line += " +vignette stretched";
static std::string last;
static uint32_t repeats = 0;
if (line == last)
@@ -8600,7 +8687,7 @@ void main()
ca[attachments].clearValue.color = { { 0.0f, 0.0f, 0.0f, 1.0f } };
attachments++;
}
VkClearRect cr[6]{};
VkClearRect cr[std::extent_v<decltype(gpu::bars::Plan::rects)>]{};
for (uint32_t i = 0; i < barPlan.rectCount; i++)
{
const gpu::bars::Rect& r = barPlan.rects[i];
+37 -29
View File
@@ -1,13 +1,30 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING). See input.h.
#include <stdafx.h>
#include "input.h"
#include "key_map.h"
#include <cpu/guest_time.h>
#include <kernel/function.h>
#include <ui/ui.h>
#include <user/settings.h>
#include <user/key_names.h>
#include <SDL3/SDL.h>
// key_map.h names XInput's bits as literals (it has no kernel header): keep
// them the bits the game reads.
static_assert(hid::keymap::button::DpadUp == XAMINPUT_GAMEPAD_DPAD_UP && hid::keymap::button::DpadDown == XAMINPUT_GAMEPAD_DPAD_DOWN &&
hid::keymap::button::DpadLeft == XAMINPUT_GAMEPAD_DPAD_LEFT && hid::keymap::button::DpadRight == XAMINPUT_GAMEPAD_DPAD_RIGHT &&
hid::keymap::button::Start == XAMINPUT_GAMEPAD_START && hid::keymap::button::Back == XAMINPUT_GAMEPAD_BACK &&
hid::keymap::button::LeftThumb == XAMINPUT_GAMEPAD_LEFT_THUMB && hid::keymap::button::RightThumb == XAMINPUT_GAMEPAD_RIGHT_THUMB &&
hid::keymap::button::LeftShoulder == XAMINPUT_GAMEPAD_LEFT_SHOULDER && hid::keymap::button::RightShoulder == XAMINPUT_GAMEPAD_RIGHT_SHOULDER &&
hid::keymap::button::A == XAMINPUT_GAMEPAD_A && hid::keymap::button::B == XAMINPUT_GAMEPAD_B &&
hid::keymap::button::X == XAMINPUT_GAMEPAD_X && hid::keymap::button::Y == XAMINPUT_GAMEPAD_Y,
"key_map.h's button bits are XInput's");
// The key codes of user/key_names.h are SDL's scancodes (USB HID usages);
// tests/key_names_test.cpp checks every row, this pins a few.
static_assert(settings::keynames::Code("a") == SDL_SCANCODE_A && settings::keynames::Code("keypad_1") == SDL_SCANCODE_KP_1 &&
settings::keynames::Code("right_alt") == SDL_SCANCODE_RALT && settings::keynames::Code("escape") == SDL_SCANCODE_ESCAPE);
namespace
{
constexpr uint32_t ERROR_SUCCESS = 0;
@@ -608,39 +625,30 @@ namespace hid
}
const float rawLt = lt, rawRt = rt;
// Keyboard (digital; overrides the analog values it touches).
const bool* k = SDL_GetKeyboardState(nullptr);
if (k)
// Keyboard (digital; replaces the controller's value for what it
// touches): each control's key is Settings > Controls (the Key
// options), resolved by key_map.h. A key is a scancode SDL's state
// array is indexed by; an out-of-range value (a hand edit beat
// Load's checks) counts as not held.
if (const bool* k = SDL_GetKeyboardState(nullptr))
{
static const std::pair<SDL_Scancode, uint16_t> keys[] = {
{ SDL_SCANCODE_UP, XAMINPUT_GAMEPAD_DPAD_UP }, { SDL_SCANCODE_DOWN, XAMINPUT_GAMEPAD_DPAD_DOWN },
{ SDL_SCANCODE_LEFT, XAMINPUT_GAMEPAD_DPAD_LEFT }, { SDL_SCANCODE_RIGHT, XAMINPUT_GAMEPAD_DPAD_RIGHT },
{ SDL_SCANCODE_SPACE, XAMINPUT_GAMEPAD_A }, { SDL_SCANCODE_BACKSPACE, XAMINPUT_GAMEPAD_B },
{ SDL_SCANCODE_LSHIFT, XAMINPUT_GAMEPAD_X }, { SDL_SCANCODE_LCTRL, XAMINPUT_GAMEPAD_Y },
{ SDL_SCANCODE_Q, XAMINPUT_GAMEPAD_LEFT_SHOULDER }, { SDL_SCANCODE_E, XAMINPUT_GAMEPAD_RIGHT_SHOULDER },
{ SDL_SCANCODE_RETURN, XAMINPUT_GAMEPAD_START }, { SDL_SCANCODE_ESCAPE, XAMINPUT_GAMEPAD_BACK },
{ SDL_SCANCODE_C, XAMINPUT_GAMEPAD_RIGHT_THUMB },
bool pressed[keymap::kControls] = {};
auto down = [&](settings::Id id) {
int code = settings::GetInt(id); // 0: no key
return code > 0 && code < SDL_SCANCODE_COUNT && k[code];
};
for (auto& [key, bit] : keys)
if (k[key])
p.buttons |= bit;
float kx = float(k[SDL_SCANCODE_RIGHT] || k[SDL_SCANCODE_D]) - float(k[SDL_SCANCODE_LEFT] || k[SDL_SCANCODE_A]);
float ky = float(k[SDL_SCANCODE_UP]) - float(k[SDL_SCANCODE_DOWN]);
if (kx != 0.0f)
lx = kx;
if (ky != 0.0f)
ly = ky;
if (k[SDL_SCANCODE_W])
for (size_t i = 0; i < keymap::kControls; i++)
pressed[i] = down(keymap::kEntries[i].id) || down(keymap::kEntries[i].id2);
keymap::Resolved r = keymap::Resolve(pressed);
p.buttons |= r.buttons;
if (r.rightTrigger)
rt = 1.0f;
if (k[SDL_SCANCODE_S])
if (r.leftTrigger)
lt = 1.0f;
// The right stick (the game shifts gears with it: drag races
// need it). While either key of an axis is held the keyboard
// has that axis; both keys centre it.
if (k[SDL_SCANCODE_O] || k[SDL_SCANCODE_L])
ry = float(k[SDL_SCANCODE_O]) - float(k[SDL_SCANCODE_L]);
if (k[SDL_SCANCODE_K] || k[SDL_SCANCODE_SEMICOLON])
rx = float(k[SDL_SCANCODE_SEMICOLON]) - float(k[SDL_SCANCODE_K]);
float* axes[size_t(keymap::Axis::Count)] = { &lx, &ly, &rx, &ry }; // Axis order: LX, LY, RX, RY
for (size_t a = 0; a < size_t(keymap::Axis::Count); a++)
if (r.axisSet[a])
*axes[a] = r.axis[a];
}
p.lx = ToShort(lx);
p.ly = ToShort(ly);
+6 -4
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@@ -8,10 +8,12 @@
// sticks rest at exactly zero while small movements still ramp up
// smoothly from the edge of the deadzone. Triggers get their own
// (NFSMW_TRIGGER_DEADZONE, default 0.02).
// - Keyboard: arrows = D-pad + left stick, W/S = gas/brake (RT/LT), A/D =
// steer, Space = A, Backspace = B, Left Shift = X, Left Ctrl = Y,
// Q/E = LB/RB, Enter = START, Esc = BACK, O/L and K/; = right stick
// (up/down, left/right), C = right stick click.
// - Keyboard: each Xbox 360 control has two keys (Settings > Controls;
// the [keys] table of settings.toml; hid/key_map.h lists them).
// Defaults: arrows = D-pad, A/D and Left/Right = steer, Up/Down = left
// stick too, W/S = gas/brake (RT/LT), Space = A, Backspace = B,
// Left Shift = X, Left Ctrl = Y, Q/E = LB/RB, Enter = START, Esc = BACK,
// O/L/K/; = right stick, Z/C = the stick clicks. A key may drive several.
// - NFSMW_INPUT_SCRIPT="12:START,15.5:A,30-90/4:DOWN,100~160:RT": taps
// (150 ms) at seconds since launch, taps every `step` seconds over a
// range, or inputs held over a range; RT/LT (triggers) and LL/LR/LU/LD
+142
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@@ -0,0 +1,142 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING).
//
// The keyboard as an Xbox 360 controller (Settings > Controls): the 24
// controls a key can drive, in the page's order, each with the two settings
// that hold its keys (user/settings.h, the [keys] table of settings.toml),
// and how a set of held keys becomes buttons, triggers and stick axes.
// Header only and SDL-free: hid/input.cpp samples the keys and feeds the
// result to the pad; ui/settings_menu.cpp draws one row per entry;
// tests/key_map_test.cpp checks the rules.
#pragma once
#include <cstddef>
#include <cstdint>
#include <span>
#include <user/settings.h>
namespace hid::keymap
{
enum class Control : uint8_t
{
RightTrigger, LeftTrigger,
LeftStickLeft, LeftStickRight, LeftStickUp, LeftStickDown,
A, B, X, Y, LB, RB,
DpadUp, DpadDown, DpadLeft, DpadRight,
Start, Back,
RightStickUp, RightStickDown, RightStickLeft, RightStickRight,
LeftStickClick, RightStickClick,
Count
};
constexpr size_t kControls = size_t(Control::Count);
enum class Role : uint8_t { Button, LeftTrigger, RightTrigger, AxisNeg, AxisPos };
enum class Axis : uint8_t { LX, LY, RX, RY, Count };
// XInput's button bits, as the game reads them (xbox.h's
// XAMINPUT_GAMEPAD_*; input.cpp asserts they agree). Literals here so
// this header needs no kernel header.
namespace button
{
constexpr uint16_t DpadUp = 0x0001, DpadDown = 0x0002, DpadLeft = 0x0004, DpadRight = 0x0008;
constexpr uint16_t Start = 0x0010, Back = 0x0020, LeftThumb = 0x0040, RightThumb = 0x0080;
constexpr uint16_t LeftShoulder = 0x0100, RightShoulder = 0x0200;
constexpr uint16_t A = 0x1000, B = 0x2000, X = 0x4000, Y = 0x8000;
}
struct Entry
{
Control control;
settings::Id id; // the option holding its first key
settings::Id id2; // ...and its second (always id + 1)
Role role;
uint16_t button = 0; // Role::Button
Axis axis = Axis::LX; // Role::AxisNeg, AxisPos
};
constexpr Entry kEntries[kControls] = {
{ Control::RightTrigger, settings::Id::KeyRightTrigger, settings::Id::KeyRightTrigger2, Role::RightTrigger },
{ Control::LeftTrigger, settings::Id::KeyLeftTrigger, settings::Id::KeyLeftTrigger2, Role::LeftTrigger },
{ Control::LeftStickLeft, settings::Id::KeyLeftStickLeft, settings::Id::KeyLeftStickLeft2, Role::AxisNeg, 0, Axis::LX },
{ Control::LeftStickRight, settings::Id::KeyLeftStickRight, settings::Id::KeyLeftStickRight2, Role::AxisPos, 0, Axis::LX },
{ Control::LeftStickUp, settings::Id::KeyLeftStickUp, settings::Id::KeyLeftStickUp2, Role::AxisPos, 0, Axis::LY },
{ Control::LeftStickDown, settings::Id::KeyLeftStickDown, settings::Id::KeyLeftStickDown2, Role::AxisNeg, 0, Axis::LY },
{ Control::A, settings::Id::KeyA, settings::Id::KeyA2, Role::Button, button::A },
{ Control::B, settings::Id::KeyB, settings::Id::KeyB2, Role::Button, button::B },
{ Control::X, settings::Id::KeyX, settings::Id::KeyX2, Role::Button, button::X },
{ Control::Y, settings::Id::KeyY, settings::Id::KeyY2, Role::Button, button::Y },
{ Control::LB, settings::Id::KeyLB, settings::Id::KeyLB2, Role::Button, button::LeftShoulder },
{ Control::RB, settings::Id::KeyRB, settings::Id::KeyRB2, Role::Button, button::RightShoulder },
{ Control::DpadUp, settings::Id::KeyDpadUp, settings::Id::KeyDpadUp2, Role::Button, button::DpadUp },
{ Control::DpadDown, settings::Id::KeyDpadDown, settings::Id::KeyDpadDown2, Role::Button, button::DpadDown },
{ Control::DpadLeft, settings::Id::KeyDpadLeft, settings::Id::KeyDpadLeft2, Role::Button, button::DpadLeft },
{ Control::DpadRight, settings::Id::KeyDpadRight, settings::Id::KeyDpadRight2, Role::Button, button::DpadRight },
{ Control::Start, settings::Id::KeyStart, settings::Id::KeyStart2, Role::Button, button::Start },
{ Control::Back, settings::Id::KeyBack, settings::Id::KeyBack2, Role::Button, button::Back },
{ Control::RightStickUp, settings::Id::KeyRightStickUp, settings::Id::KeyRightStickUp2, Role::AxisPos, 0, Axis::RY },
{ Control::RightStickDown, settings::Id::KeyRightStickDown, settings::Id::KeyRightStickDown2, Role::AxisNeg, 0, Axis::RY },
{ Control::RightStickLeft, settings::Id::KeyRightStickLeft, settings::Id::KeyRightStickLeft2, Role::AxisNeg, 0, Axis::RX },
{ Control::RightStickRight, settings::Id::KeyRightStickRight, settings::Id::KeyRightStickRight2, Role::AxisPos, 0, Axis::RX },
{ Control::LeftStickClick, settings::Id::KeyLeftStickClick, settings::Id::KeyLeftStickClick2, Role::Button, button::LeftThumb },
{ Control::RightStickClick, settings::Id::KeyRightStickClick, settings::Id::KeyRightStickClick2, Role::Button, button::RightThumb },
};
consteval bool EntriesInOrder()
{
for (size_t i = 0; i < kControls; i++)
if (size_t(kEntries[i].control) != i || size_t(kEntries[i].id) != size_t(settings::Id::KeyRightTrigger) + 2 * i ||
size_t(kEntries[i].id2) != size_t(kEntries[i].id) + 1)
return false;
return true;
}
static_assert(EntriesInOrder(), "one Entry per Control, in Control order, over the Key options in pairs");
// The control either of a Key option's keys belongs to.
constexpr const Entry& EntryOf(settings::Id id)
{
return kEntries[(size_t(id) - size_t(settings::Id::KeyRightTrigger)) / 2];
}
// What the held keys amount to.
struct Resolved
{
uint16_t buttons = 0;
bool leftTrigger = false, rightTrigger = false; // a trigger key is down: that trigger at full
bool axisSet[size_t(Axis::Count)] = {}; // either key of the axis is down: the keyboard has the axis
float axis[size_t(Axis::Count)] = {}; // +1, 0 (both keys) or -1 while set; up is positive, as XInput has it
};
// pressed[i]: either key bound to Control(i) is down. Buttons OR in; an axis
// is its positive key minus its negative one, and belongs to the
// keyboard while either is held (both held: centred).
constexpr Resolved Resolve(std::span<const bool, kControls> pressed)
{
Resolved r;
for (size_t i = 0; i < kControls; i++)
{
if (!pressed[i])
continue;
const Entry& e = kEntries[i];
switch (e.role)
{
case Role::Button:
r.buttons |= e.button;
break;
case Role::LeftTrigger:
r.leftTrigger = true;
break;
case Role::RightTrigger:
r.rightTrigger = true;
break;
case Role::AxisNeg:
r.axisSet[size_t(e.axis)] = true;
r.axis[size_t(e.axis)] -= 1.0f;
break;
case Role::AxisPos:
r.axisSet[size_t(e.axis)] = true;
r.axis[size_t(e.axis)] += 1.0f;
break;
}
}
return r;
}
}
+46 -2
View File
@@ -24,6 +24,7 @@
#include <install/locate.h>
#include <install/placement.h>
#include <install/sha256.h>
#include <platform/quit_signals.h>
#include <report/report.h>
#include <ui/installer_screen.h>
#include <ui/ui.h>
@@ -172,6 +173,7 @@ namespace
uint32_t entry;
uint32_t stackSize;
};
std::atomic<bool> s_guestReturned{ false }; // the game's entry point returned
void* GuestMain(void* arg)
{
@@ -187,6 +189,7 @@ namespace
fprintf(stderr, "[runtime] calling entry %08X\n", params->entry);
uint32_t result = GuestThread::Start({ params->entry, 0, 0 });
fprintf(stderr, "[runtime] entry point returned %08X\n", result);
s_guestReturned = true;
return nullptr;
}
@@ -360,6 +363,18 @@ int main(int argc, char** argv)
sa.sa_flags = SA_SIGINFO;
for (int sig : { SIGSEGV, SIGBUS, SIGILL, SIGTRAP, SIGFPE, SIGABRT })
sigaction(sig, &sa, nullptr);
// SIGTERM, SIGINT and SIGHUP quit the game as its window's close button
// does (platform/quit_signals.h): before SDL starts, which leaves them to
// us.
quitsignals::Install();
// From here on a return from main() is a clean end too (an unknown
// option, a cancelled install, a XEX that can't be read): the session's
// crash marker goes (report.h). The quit paths' std::_Exit runs no
// destructors: they clear it themselves.
struct ClearMarkerOnReturn
{
~ClearMarkerOnReturn() { report::ClearCrashMarker(); }
} clearMarkerOnReturn;
// Anything else starting with '-' is a mistake, not a XEX path.
if (argc > 1 && argv[1][0] == '-')
@@ -393,9 +408,10 @@ int main(int argc, char** argv)
// problem began), the "What's new" note below, and this version recorded
// as the last (user/version_check.h).
version::Change versionChange = version::Change::Same;
std::string lastVersion; // the last session's ("": not known)
if (settingsLoaded)
{
std::string last = settings::LastVersion();
std::string last = lastVersion = settings::LastVersion();
versionChange = version::Classify(last, settings::FileFound(), report::Version());
fprintf(stderr, "[version] %s\n", version::Describe(versionChange, last, report::Version()).c_str());
if (versionChange != version::Change::Same)
@@ -417,7 +433,14 @@ int main(int argc, char** argv)
fprintf(stderr, "[memory] %s\n", notice.c_str());
ui::Toast(notice, 12.0);
}
report::NoticePreviousCrash();
// A crash marker left by a session of this version or a later one is a
// session that ended without quitting; v0.1.5 and older left theirs after
// every session. iOS ends apps without a word (none quits there).
#if defined(__APPLE__) && TARGET_OS_IOS
report::NoticePreviousCrash(false);
#else
report::NoticePreviousCrash(!lastVersion.empty() && version::Compare(lastVersion, report::Version()) >= 0);
#endif
// NFSMW_LIFELINE_PID (scripts/steamos/speedbreaker.sh): the launcher's PID. The
// game runs in a container, not as the launcher's child, so Steam
@@ -431,6 +454,7 @@ int main(int argc, char** argv)
if (settings::Dirty())
settings::Save();
gpu::renderer::Shutdown();
report::ClearCrashMarker();
report::FlushLog();
std::_Exit(0);
}).detach();
@@ -541,6 +565,21 @@ int main(int argc, char** argv)
if (!windowed)
{
// No window (NFSMW_HEADLESS=1): the game runs until its entry point
// returns, or until a requested termination, which ends it as the
// window's quit path below does.
while (!s_guestReturned.load() && !quitsignals::Requested())
std::this_thread::sleep_for(std::chrono::milliseconds(50));
if (int sig = quitsignals::Requested())
{
fprintf(stderr, "[runtime] %s: quitting\n", quitsignals::Name(sig));
if (settings::Dirty())
settings::Save();
gpu::renderer::Shutdown();
report::ClearCrashMarker();
report::FlushLog();
std::_Exit(0);
}
pthread_join(thread, nullptr);
report::FlushLog();
return 0;
@@ -558,11 +597,16 @@ int main(int argc, char** argv)
hid::NoteGameStarting();
while (video::RunFrame())
;
if (int sig = quitsignals::Requested())
fprintf(stderr, "[runtime] %s: quitting, as the window's close button does\n", quitsignals::Name(sig));
fprintf(stderr, "[runtime] window closed\n");
if (settings::Dirty())
settings::Save();
gpu::renderer::Shutdown();
video::Shutdown();
// A clean end: no crash marker left (a crash in the shutdown above still
// reported one).
report::ClearCrashMarker();
// The session log's last lines are still in its pipe: let them out
// before _Exit takes the thread that copies them.
report::FlushLog();
+126
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@@ -0,0 +1,126 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING). See ../macos_window.h.
//
// macOS only (AppKit); built for iOS too, as every platform/apple/*.mm is,
// where it is empty. Manual reference counting like the rest of the runtime.
#include <TargetConditionals.h>
#if TARGET_OS_OSX
#include <platform/macos_window.h>
#import <AppKit/AppKit.h>
#include <SDL3/SDL.h>
namespace platform::macos
{
namespace
{
NSWindow* s_window = nil; // the game's (SDL's, not retained here)
bool s_inTransition = false; // between a fullscreen transition's "will" and its "did" (or "did fail")
NSMutableArray* s_observers = nil;
NSWindow* CocoaWindow(SDL_Window* window)
{
if (!window)
return nil;
return (__bridge NSWindow*)SDL_GetPointerProperty(SDL_GetWindowProperties(window), SDL_PROP_WINDOW_COCOA_WINDOW_POINTER,
nullptr);
}
// No title, a transparent title bar, the picture under it.
void ApplyLook(NSWindow* window)
{
window.titleVisibility = NSWindowTitleHidden;
window.titlebarAppearsTransparent = YES;
window.styleMask |= NSWindowStyleMaskFullSizeContentView;
}
void Observe(NSWindow* window, NSString* name, void (^block)(NSNotification*))
{
id token = [NSNotificationCenter.defaultCenter addObserverForName:name object:window queue:nil usingBlock:block];
[s_observers addObject:token];
}
}
void ConfigureWindow(SDL_Window* window, bool windowed)
{
NSWindow* w = CocoaWindow(window);
if (!w)
return;
if (s_window != w)
{
ForgetWindow(nullptr);
s_window = w;
s_observers = [[NSMutableArray alloc] init];
// Whether a fullscreen transition is under way (AppKit says
// nothing else): the look is never changed in the middle of one.
for (NSString* name in @[ NSWindowWillEnterFullScreenNotification, NSWindowWillExitFullScreenNotification ])
Observe(w, name, ^(NSNotification*) { s_inTransition = true; });
for (NSString* name in @[ NSWindowDidEnterFullScreenNotification, NSWindowDidExitFullScreenNotification,
@"NSWindowDidFailToEnterFullScreenNotification", @"NSWindowDidFailToExitFullScreenNotification" ])
Observe(w, name, ^(NSNotification*) { s_inTransition = false; });
// SDL takes the full-size content view off as a fullscreen
// transition starts (its windowWillEnterFullScreen), but its
// timing against AppKit's own steps varies, and the bit changing
// after AppKit has set its fullscreen frame crashed AppKit. So it
// goes now, as AppKit announces the transition. (In testing SDL
// had always taken it off already; this is the safety net.)
Observe(w, NSWindowWillEnterFullScreenNotification, ^(NSNotification* n) {
NSWindow* nw = n.object;
if (nw.styleMask & NSWindowStyleMaskFullSizeContentView)
nw.styleMask &= ~NSWindowStyleMaskFullSizeContentView;
});
}
if (windowed)
ApplyLook(w);
}
bool RestoreAfterFullscreen(SDL_Window* window)
{
NSWindow* w = CocoaWindow(window);
if (!w || s_inTransition || (w.styleMask & NSWindowStyleMaskFullScreen))
return false;
// AppKit has put back the frame the window had before fullscreen;
// -setStyleMask: would keep the content (one title bar shorter
// without the bit) and shrink the frame to it, so the frame is set
// back: the content is the whole frame again, as before fullscreen.
const NSRect frame = w.frame;
ApplyLook(w);
[w setFrame:frame display:YES];
return true;
}
void ShowWindowButtons(SDL_Window* window, bool shown)
{
NSWindow* w = CocoaWindow(window);
if (!w)
return;
const NSWindowButton buttons[] = { NSWindowCloseButton, NSWindowMiniaturizeButton, NSWindowZoomButton };
for (NSWindowButton b : buttons)
{
NSButton* button = [w standardWindowButton:b];
if (button && button.hidden == shown)
button.hidden = !shown;
}
}
float TitleStripHeight(SDL_Window* window)
{
NSWindow* w = CocoaWindow(window);
if (!w || (w.styleMask & NSWindowStyleMaskFullScreen) || !(w.styleMask & NSWindowStyleMaskFullSizeContentView))
return 0.0f;
// The layout rect is the part of the window no title bar covers.
const CGFloat strip = NSHeight(w.frame) - NSMaxY(w.contentLayoutRect);
return strip > 0 ? float(strip) : 0.0f;
}
void ForgetWindow(SDL_Window*)
{
for (id token in s_observers)
[NSNotificationCenter.defaultCenter removeObserver:token];
[s_observers release];
s_observers = nil;
s_window = nil;
s_inTransition = false;
}
}
#endif
+50
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@@ -0,0 +1,50 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING).
//
// macOS: the game's window with its picture under a transparent title bar
// (apple/macos_window.mm; GitHub pull request #23 by aleszczynskig). The
// title isn't shown, the title bar is drawn over the top of the picture
// (NSWindowStyleMaskFullSizeContentView), and the close, minimise and zoom
// buttons sit over it only while the mouse is in use there (ui.cpp shows and
// hides them with the pointer). Fullscreen is macOS's own, unchanged. Main
// thread only (AppKit).
#pragma once
struct SDL_Window;
namespace platform::macos
{
// Once, after SDL_CreateWindow: watches the window's fullscreen
// transitions (for RestoreAfterFullscreen) and, when `windowed` (not
// made fullscreen), puts the title bar over the picture now. The content
// keeps its size (-setStyleMask: keeps the content rect), so the picture
// is the size the window was made at, the saved size, and the frame
// loses the title bar's height. A window made fullscreen gets the look
// when it leaves fullscreen: not while its Space is opening.
void ConfigureWindow(SDL_Window* window, bool windowed);
// The look again after the window left fullscreen: SDL resets the
// window's style around every fullscreen Space (SDL 3.4's Cocoa
// windowWillEnterFullScreen and windowDidExitFullScreen), which takes
// the full-size content view off. Call it from the game's event loop on
// SDL_EVENT_WINDOW_LEAVE_FULLSCREEN, not from an event watch: those run
// inside SDL's windowDidExitFullScreen, where putting it back left the
// window one title bar shorter after every round trip (AppKit has just
// restored the frame without it, and -setStyleMask: keeps the smaller
// content) and the next entry into fullscreen sometimes crashed in
// AppKit (SDL's reset then landing in the middle of the transition).
// Here it keeps the window's frame. Does nothing (false) while a
// fullscreen transition is under way (a toggle queued behind another):
// the next SDL_EVENT_WINDOW_LEAVE_FULLSCREEN brings it.
bool RestoreAfterFullscreen(SDL_Window* window);
// Shows or hides the close, minimise and zoom buttons.
void ShowWindowButtons(SDL_Window* window, bool shown);
// The height in points of the title bar's strip over the picture (0
// when there is none: fullscreen, or before the look is applied), for
// laying the UI out below it.
float TitleStripHeight(SDL_Window* window);
// Before SDL_DestroyWindow: stops watching the window.
void ForgetWindow(SDL_Window* window);
}
+84
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@@ -0,0 +1,84 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING).
//
// A requested termination ends the game the way its window's close button
// does: main.cpp's quit path (settings saved, the renderer, UI and window
// shut down, the session's crash marker cleared, the log flushed, exit code 0).
// - SIGTERM: a shutdown or logout (systemd), `kill`, and the way a launcher
// such as Steam asks a game to end (Steam's own reaper only forks, waits
// and reaps: the stop comes from the Steam client; SIGKILL, which can't
// be caught, is a stop that doesn't wait);
// - SIGINT: Ctrl+C in the terminal the game was started from;
// - SIGHUP: that terminal closed.
// Until v0.1.6 SDL turned SIGTERM and SIGINT into its quit event (SDL puts its
// handler only where a signal's action is still the default) once the window
// was up, and SIGHUP, or SIGTERM before the window, ended the game on the
// spot: no settings saved, and the crash marker left as by a crash
// (report/crash_marker.h).
//
// The handler only records the first request (async-signal-safe); the main
// thread's frame loop (video::RunFrame, which also runs the installer and the
// startup error page) reads it and leaves; with no window (NFSMW_HEADLESS=1)
// main() waits for it. Another request while quitting changes nothing, as
// SDL's didn't. A signal the game was started with set to be ignored
// (nohup's SIGHUP) stays ignored. SIGKILL can't be caught: a session it ends
// keeps its crash marker, and the next launch logs that it ended without
// quitting.
//
// Header only (tests/clean_exit_test.cpp).
#pragma once
#include <atomic>
#include <csignal>
namespace quitsignals
{
namespace detail
{
inline std::atomic<int> g_requested{ 0 };
static_assert(std::atomic<int>::is_always_lock_free, "the handler needs a lock-free atomic");
inline void Handle(int sig)
{
int none = 0;
g_requested.compare_exchange_strong(none, sig, std::memory_order_relaxed);
}
}
// The signals a player or the system ends the game with.
inline constexpr int kSignals[] = { SIGTERM, SIGINT, SIGHUP };
// Main thread, before SDL starts (video::Initialize), so SDL leaves these
// signals to us.
inline void Install()
{
for (int sig : kSignals)
{
struct sigaction old{};
sigaction(sig, nullptr, &old);
if (!(old.sa_flags & SA_SIGINFO) && old.sa_handler == SIG_IGN)
continue;
struct sigaction sa{};
sa.sa_handler = detail::Handle;
sigemptyset(&sa.sa_mask);
sa.sa_flags = SA_RESTART;
sigaction(sig, &sa, nullptr);
}
}
// The signal that asked the game to quit, 0 if none has. Any thread.
inline int Requested()
{
return detail::g_requested.load(std::memory_order_relaxed);
}
// For the log line.
inline const char* Name(int sig)
{
switch (sig)
{
case SIGTERM: return "SIGTERM";
case SIGINT: return "SIGINT";
case SIGHUP: return "SIGHUP";
default: return "a signal";
}
}
}
+35 -22
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@@ -4,7 +4,8 @@
// watch declined the fault) runs on the crashing thread in a signal handler,
// so everything here that it calls is async-signal-safe: the report file is
// opened at startup (logs/.crash-pending-<session>, empty unless the session
// crashes) and renamed to crash-<session>.txt when written; its header, the
// crashes: crash_marker.h, removed when the session ends cleanly) and renamed
// to crash-<session>.txt when written; its header, the
// system summary and the symbol table are ready beforehand; text goes out
// with write(2). The one call outside POSIX's list is dladdr (and the
// backtrace() it follows), which glibc and macOS implement without
@@ -20,6 +21,7 @@
#include <stdafx.h>
#include "report.h"
#include "internal.h"
#include "crash_marker.h"
#include <gpu/command_processor.h>
#include <ui/ui.h>
@@ -158,7 +160,7 @@ namespace report
}
#endif
int s_reportFd = -1;
std::atomic<int> s_reportFd{ -1 }; // -1 once the session has ended cleanly (ClearCrashMarker)
char s_pendingPath[1024];
char s_finalPath[1024];
char s_header[2048];
@@ -411,7 +413,7 @@ namespace report
{
memcpy(s_pendingPath, pending.c_str(), pending.size() + 1);
memcpy(s_finalPath, finalPath.c_str(), finalPath.size() + 1);
s_reportFd = open(s_pendingPath, O_RDWR | O_CREAT | O_TRUNC | O_CLOEXEC, 0644);
s_reportFd = marker::Arm(s_pendingPath);
}
if (s_reportFd < 0)
fprintf(stderr, "[crash] can't prepare a crash report file in %s: %s\n", dir.c_str(), strerror(errno));
@@ -503,18 +505,18 @@ namespace report
frame(frames[i]);
detail::WriteDirect(text, b.size);
if (s_reportFd >= 0)
if (const int fd = s_reportFd.load(); fd >= 0)
{
detail::WriteAll(s_reportFd, s_header, s_headerSize);
detail::WriteAll(s_reportFd, text + 1, b.size - 1); // (without the leading blank line)
detail::WriteAll(fd, s_header, s_headerSize);
detail::WriteAll(fd, text + 1, b.size - 1); // (without the leading blank line)
static const char recent[] = "\nThe log's last lines:\n";
detail::WriteAll(s_reportFd, recent, sizeof(recent) - 1);
detail::WriteRecentOutput(s_reportFd, 300);
detail::WriteAll(fd, recent, sizeof(recent) - 1);
detail::WriteRecentOutput(fd, 300);
static const char system[] = "\nSystem (at startup):\n";
detail::WriteAll(s_reportFd, system, sizeof(system) - 1);
detail::WriteAll(fd, system, sizeof(system) - 1);
const char* summary = detail::LoggedSystemSummary();
detail::WriteAll(s_reportFd, summary, strlen(summary));
fsync(s_reportFd);
detail::WriteAll(fd, summary, strlen(summary));
fsync(fd);
bool renamed = rename(s_pendingPath, s_finalPath) == 0;
b.size = 0;
b.Str("[crash] crash report: ").Str(renamed ? s_finalPath : s_pendingPath).Char('\n');
@@ -522,23 +524,34 @@ namespace report
}
}
void NoticePreviousCrash()
void ClearCrashMarker()
{
// A crash being reported is how the session ends: its report stays.
if (s_crashing.load())
return;
if (const int fd = s_reportFd.exchange(-1); fd >= 0)
marker::Clear(fd, s_pendingPath);
}
void NoticePreviousCrash(bool lastClearsMarker)
{
std::filesystem::path dir = LogDirectory();
std::string current = std::string(".crash-pending-") + SessionName();
std::error_code ec;
// Pending files of earlier sessions: empty (no crash: removed), or a
// Markers of earlier sessions (crash_marker.h): empty (removed), or a
// report the handler couldn't rename.
for (std::filesystem::directory_iterator it(dir, ec), end; !ec && it != end; it.increment(ec))
for (const marker::Leftover& left : marker::Find(dir, SessionName()))
{
std::string name = it->path().filename().string();
if (!name.starts_with(".crash-pending-") || name == current)
std::error_code fileError;
if (left.ended == marker::Ended::Crashed)
{
std::filesystem::rename(left.path, dir / ("crash-" + left.session + ".txt"), fileError);
continue;
std::error_code sizeError;
if (std::filesystem::file_size(it->path(), sizeError) == 0 || sizeError)
std::filesystem::remove(it->path(), sizeError);
else
std::filesystem::rename(it->path(), dir / ("crash-" + name.substr(15) + ".txt"), sizeError);
}
std::filesystem::remove(left.path, fileError);
// A version before v0.1.6 left one after every session.
if (lastClearsMarker)
fprintf(stderr, "[crash] an earlier session (%s) ended without quitting: it was stopped from outside (SIGKILL: a forced "
"quit, the power going) or crashed too hard to write a report; there is no report to send\n", left.session.c_str());
}
detail::KeepNewest(dir.string(), "crash-", ".txt", 5);
+82
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@@ -0,0 +1,82 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING).
//
// A session's crash marker, logs/.crash-pending-<session> (crash.cpp): made
// empty at startup and kept open for the crash handler, which writes the
// crash report into it and renames it crash-<session>.txt. A session that
// ends the way it is meant to (the window's close button, Quit Game, Cmd+Q,
// a requested termination: platform/quit_signals.h) removes it, so a marker
// left in the logs folder is a session that hasn't ended or didn't end
// cleanly: empty, it was stopped from outside (SIGKILL, the power went, the
// system ended it) or crashed too hard to report; written, the handler's
// rename didn't happen. The next launch reports what it finds (crash.cpp's
// NoticePreviousCrash). Until v0.1.6 every session left its empty marker,
// even after Quit Game, until the next launch removed it, so a marker after
// the game had gone (a Steam Frame session its player closed from Steam,
// 2026-10-15) said nothing about how it ended.
//
// POSIX file calls only. Header only (tests/clean_exit_test.cpp).
#pragma once
#include <cstdint>
#include <filesystem>
#include <string>
#include <system_error>
#include <vector>
#include <fcntl.h>
#include <unistd.h>
namespace report::marker
{
inline constexpr const char kPrefix[] = ".crash-pending-";
inline std::filesystem::path PathFor(const std::filesystem::path& dir, const std::string& session)
{
return dir / (kPrefix + session);
}
// Startup: the session's empty marker, open for the crash handler (-1:
// it couldn't be made).
inline int Arm(const char* path)
{
return open(path, O_RDWR | O_CREAT | O_TRUNC | O_CLOEXEC, 0644);
}
// The session ended cleanly: the marker closed and removed.
inline void Clear(int fd, const char* path)
{
if (fd >= 0)
close(fd);
unlink(path);
}
// An earlier session's marker, as a launch finds it.
enum class Ended
{
WithoutQuitting, // empty: stopped from outside, or no report could be written
Crashed, // the handler's report (it couldn't rename it)
};
struct Leftover
{
std::filesystem::path path;
std::string session;
Ended ended;
};
// The markers in `dir` other than the `current` session's.
inline std::vector<Leftover> Find(const std::filesystem::path& dir, const std::string& current)
{
std::vector<Leftover> found;
std::error_code ec;
for (std::filesystem::directory_iterator it(dir, ec), end; !ec && it != end; it.increment(ec))
{
const std::string name = it->path().filename().string();
if (!name.starts_with(kPrefix) || name == kPrefix + current)
continue;
std::error_code sizeError;
const uintmax_t size = std::filesystem::file_size(it->path(), sizeError);
found.push_back({ it->path(), name.substr(sizeof(kPrefix) - 1),
(size == 0 || sizeError) ? Ended::WithoutQuitting : Ended::Crashed });
}
return found;
}
}
+10 -2
View File
@@ -98,9 +98,17 @@ namespace report
// The crash handler (a signal handler; async-signal-safe): logs the
// crash and writes the report. The caller exits afterwards.
void WriteCrashReport(int sig, siginfo_t* info, void* context);
// The session is ending cleanly (the quit path, any return from main()):
// its crash marker is removed (crash_marker.h), so one the next launch
// finds is a session that didn't. Last, just before the exit: a crash
// after it is only logged. Not while a crash is being reported.
void ClearCrashMarker();
// Main thread, once toasts can show: tells the player, once, about a
// crash report from an earlier session.
void NoticePreviousCrash();
// crash report from an earlier session, and logs an earlier session that
// ended without quitting. `lastClearsMarker`: the session before this
// one ran a version that clears its marker at a clean end (this one or
// later: v0.1.5 and older left it after every session).
void NoticePreviousCrash(bool lastClearsMarker);
// --- Threads and hangs (watchdog.cpp) ---
+4
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@@ -21,6 +21,7 @@
#include "report.h"
#include "internal.h"
#include <apu/audio.h>
#include <cpu/guest_thread.h>
#include <cpu/guest_time.h>
#include <gpu/command_processor.h>
@@ -234,6 +235,9 @@ namespace report
text += std::format("Suspended (the app inactive): {} times, {:.1f} s in all before the last resume{}.\n", suspensions,
double(guesttime::PausedNs()) / 1e9, guesttime::Suspended() ? "; suspended now" : "");
text += "\nCommand processor:\n" + gpu::DescribeState();
// The game's sound runs on the render callback, and some of its
// waits on its sound commands (GitHub issue #20).
text += "\nAudio:\n" + apu::DescribeState();
text += "\nThreads, where each one is (host stacks, innermost first; recompiled guest functions are "
"sub_<guest address>):\n";
for (const ThreadSample& s : samples)
+19
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@@ -0,0 +1,19 @@
Copyright (c) 2021 Advanced Micro Devices, Inc. All rights reserved.
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the "Software"), to deal
in the Software without restriction, including without limitation the rights
to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
copies of the Software, and to permit persons to whom the Software is
furnished to do so, subject to the following conditions:
The above copyright notice and this permission notice shall be included in
all copies or substantial portions of the Software.
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 OR COPYRIGHT HOLDERS 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.
+16
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@@ -0,0 +1,16 @@
# AMD FidelityFX Super Resolution 1 (vendored)
`ffx_a.h` and `ffx_fsr1.h` from https://github.com/GPUOpen-Effects/FidelityFX-FSR at commit
a21ffb8f6c13233ba336352bdff293894c706575 (2021-11-15; its `ffx-fsr/` folder), unmodified, MIT
license (`LICENSE.txt`, the repository's `license.txt` as it is; also
`LICENSES/FidelityFX-FSR-MIT.txt`).
SHA-256:
f60e2722fcd13989523b9164d776ab382b3692791767f3bf8bb19967f763f3fb ffx_a.h
93c3922362ea7fc99cbcc698ca30c98de4f8c246d1fbb0b09e015ddef38ce3a5 ffx_fsr1.h
db089274ce766da70f5b7d791029c3486f9f9e27c8c79c652689603d3192e802 LICENSE.txt
Used by Settings > Graphics > Upscaling's FSR 1 (`runtime/video/fsr1.cpp`): their 32-bit GLSL
EASU and RCAS functions are compiled into the presenter's shaders (the build embeds both files'
text, `generated/fsr1_headers.inc`), and their CPU code computes the shaders' constants.
+2656
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+1199
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+327 -10
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@@ -15,11 +15,14 @@
#include <report/report.h>
#include <user/settings.h>
#include <hid/key_map.h> // the Controls page: one row per control, two keys each
#include <user/key_names.h> // a key's name in the file, when SDL has none
#include <video/frame_rate.h>
#include <video/presenter.h>
#include <imgui.h>
#include <imgui_internal.h> // ClosePopupToLevel: a dialog left open when the menu closed
#include <SDL3/SDL_keyboard.h> // a key row's label on this layout
#include <SDL3/SDL_error.h>
#include <SDL3/SDL_events.h>
@@ -39,6 +42,22 @@ namespace ui
bool s_describedBugReport = false; // ...or Save Bug Report's
bool s_describedUpdate = false; // ...or Check for Updates'
bool s_opened = true; // just opened: take focus
// The Controls page (KeyRow). A row's two keys are cells; the chosen
// cell is the focused row's, and a wait is for one option of one
// row (SettingsMenuTakesKey takes the press before ImGui sees it).
Id s_waiting = Id::Count; // the Key option a row waits for; Count: no wait
SDL_Scancode s_refused = SDL_SCANCODE_UNKNOWN; // a press the wait wouldn't take; the help line says so
SDL_Scancode s_takenKey = SDL_SCANCODE_UNKNOWN; // the key a wait took or refused, until its release
Id s_slotRow = Id::Count; // the row whose chosen cell s_slot is
int s_slot = 0; // 0: the row's first key, 1: its second
constexpr const char* kPressAKey = "Press a key";
constexpr const char* kNoKey = "none";
void EndWait()
{
s_waiting = Id::Count;
s_refused = SDL_SCANCODE_UNKNOWN;
}
constexpr int kCategories = int(Category::Count);
@@ -62,6 +81,80 @@ namespace ui
return delta;
}
// iPhone and iPad: the Controls page only while a keyboard is
// connected (nothing to bind without one).
bool PageShown(Category c)
{
#if defined(__APPLE__) && TARGET_OS_IOS
if (c == Category::Controls)
return SDL_HasKeyboard();
#endif
return true;
}
// A key's name for a cell: on this keyboard's layout ("Z" on a
// French Mac for the position the file calls "w"), else SDL's name
// of the position (the platform's: "Left Option" on a Mac), else the
// file's. "none" for no key. Main thread.
std::string KeyLabel(double stored)
{
if (stored == double(settings::keynames::kNone))
return kNoKey;
if (!(stored >= 1 && stored < double(SDL_SCANCODE_COUNT)))
return "?";
SDL_Scancode sc = SDL_Scancode(int(stored));
const char* name = SDL_GetKeyName(SDL_GetKeyFromScancode(sc, SDL_KMOD_NONE, false));
if (!name || !name[0])
name = SDL_GetScancodeName(sc);
if (!name || !name[0])
name = settings::keynames::Token(uint16_t(stored));
return name && name[0] ? name : "?";
}
// A key the wait refused, for the help line.
std::string RefusedName(SDL_Scancode sc)
{
std::string name = KeyLabel(double(sc));
return name == "?" || name == kNoKey ? "That key" : name;
}
// The other controls that have any of this row's keys ("D-pad
// Left"), in page order, each once; "" when none.
std::string SharedWith(const hid::keymap::Entry& e)
{
const double mine[2] = { settings::GetStoredValue(e.id), settings::GetStoredValue(e.id2) };
std::string text;
for (const auto& other : hid::keymap::kEntries)
{
if (other.control == e.control)
continue;
const double theirs[2] = { settings::GetStoredValue(other.id), settings::GetStoredValue(other.id2) };
bool shared = false;
for (double m : mine)
for (double th : theirs)
shared |= m != double(settings::keynames::kNone) && m == th;
if (shared)
text += (text.empty() ? "" : ", ") + std::string(settings::Info(other.id).label);
}
return text;
}
// A key cell is as wide as the widest name among the 48 keys, "Press
// a key" or "none"; a row has two and a gap.
float KeyCellWidth()
{
float width = std::max(ImGui::CalcTextSize(kPressAKey).x, ImGui::CalcTextSize(kNoKey).x);
for (const auto& o : settings::Options())
if (o.type == settings::Type::Key)
width = std::max(width, ImGui::CalcTextSize(KeyLabel(settings::GetStoredValue(o.id)).c_str()).x);
return width;
}
float KeyCellGap()
{
return kSpaceM * Scale();
}
// Widest value this option can show, for the value column.
float ValueWidth(const settings::Option& o)
{
@@ -77,6 +170,9 @@ namespace ui
for (const auto& e : o.entries)
measure(e.value);
break;
case settings::Type::Key:
width = 2 * KeyCellWidth() + KeyCellGap();
break;
default:
measure(o.min);
measure(o.max);
@@ -250,6 +346,110 @@ namespace ui
ImGui::PopID();
}
// A Controls row: the two keys that drive the control, as two cells.
// Left and Right choose a cell (the focused row's choice; another
// row starts on its first); A or Enter waits for a key for it, which
// SettingsMenuTakesKey takes from the event loop before ImGui sees
// it; Y or Backspace empties it; X or Delete puts both keys back to
// their defaults. A click or tap only selects the row, and the cell
// under the pointer, as on the other pages. The wait follows the
// focus (the D-pad moving on ends it) and B ends it (below, in
// DrawSettings, where B would otherwise close the menu).
void KeyRow(const hid::keymap::Entry& e, float valueWidth, bool focus)
{
const float s = Scale();
const float rowHeight = RowHeight();
const settings::Option& o = settings::Info(e.id);
const Id ids[2] = { e.id, e.id2 };
ImGui::PushID(int(e.id));
ImGui::TableNextRow(ImGuiTableRowFlags_None, rowHeight);
ImGui::TableNextColumn();
if (focus)
ImGui::SetKeyboardFocusHere();
ImGui::SetCursorPosX(ImGui::GetCursorPosX() + LabelInset());
ImVec2 labelPos = ImGui::GetCursorScreenPos();
bool activated = ImGui::Selectable("##row", false,
ImGuiSelectableFlags_SpanAllColumns | ImGuiSelectableFlags_AllowOverlap, ImVec2(0, rowHeight));
bool focused = ImGui::IsItemFocused();
if (focused || (ImGui::IsItemHovered(ImGuiHoveredFlags_AllowWhenOverlappedByItem) && s_described == Id::Count))
s_described = e.id;
const float mid = RowLabel(labelPos, o.label);
if (focused && s_slotRow != e.id)
{
s_slotRow = e.id;
s_slot = 0;
}
const bool waiting = s_waiting == e.id || s_waiting == e.id2;
if (waiting && !focused)
EndWait();
// The cells, where other pages put their value (the arrows'
// room kept so the columns line up from page to page).
ImGui::TableNextColumn();
const float arrow = ImGui::GetFrameHeight();
ImGui::SetCursorPosY(ImGui::GetCursorPosY() + (rowHeight - arrow) * 0.5f);
const ImVec2 min = ImGui::GetCursorScreenPos();
ImGui::Dummy(ImVec2(valueWidth + arrow * 2, arrow));
const float gap = KeyCellGap(), cell = (valueWidth - gap) * 0.5f;
const float cellX[2] = { min.x + arrow, min.x + arrow + cell + gap };
const bool byPointer = ImGui::IsMouseReleased(ImGuiMouseButton_Left);
if (activated && byPointer)
{
const float x = ImGui::GetMousePos().x;
for (int i = 0; i < 2; i++)
if (x >= cellX[i] && x < cellX[i] + cell)
s_slot = i;
}
else if (activated)
{
s_waiting = ids[s_slot];
s_refused = SDL_SCANCODE_UNKNOWN;
}
else if (focused && s_waiting == Id::Count)
{
if (Pressed(ImGuiKey_GamepadDpadLeft) || Pressed(ImGuiKey_GamepadLStickLeft) || Pressed(ImGuiKey_LeftArrow))
s_slot = 0;
if (Pressed(ImGuiKey_GamepadDpadRight) || Pressed(ImGuiKey_GamepadLStickRight) || Pressed(ImGuiKey_RightArrow))
s_slot = 1;
if (ImGui::IsKeyPressed(ImGuiKey_GamepadFaceUp, false) || ImGui::IsKeyPressed(ImGuiKey_Backspace, false))
{
const settings::Option& slot = settings::Info(ids[s_slot]);
LogChange(slot, settings::GetStoredValue(slot.id), settings::Set(slot.id, settings::keynames::kNone));
}
if (ImGui::IsKeyPressed(ImGuiKey_GamepadFaceLeft, false) || ImGui::IsKeyPressed(ImGuiKey_Delete, false))
for (Id id : ids)
LogChange(settings::Info(id), settings::GetStoredValue(id), settings::Reset(id));
}
ImDrawList* draw = ImGui::GetWindowDrawList();
for (int i = 0; i < 2; i++)
{
const bool waitingHere = s_waiting == ids[i];
const bool chosen = focused && s_slot == i;
const double stored = settings::GetStoredValue(ids[i]);
const std::string text = waitingHere ? kPressAKey : KeyLabel(stored);
const ImVec2 size = ImGui::CalcTextSize(text.c_str());
ImU32 color;
if (waitingHere)
{
PushAccentText();
color = ImGui::GetColorU32(ImGuiCol_Text);
PopAccentText();
}
else if (chosen)
color = ImGui::GetColorU32(ImGuiCol_PlotLines);
else
color = ImGui::GetColorU32(stored == double(settings::keynames::kNone) ? ImGuiCol_TextDisabled : ImGuiCol_Text);
const ImVec2 at(cellX[i] + (cell - size.x) * 0.5f, CentredTextTop(mid));
draw->AddText(at, color, text.c_str());
if (chosen) // underlined too, so an empty cell shows which it is
draw->AddLine(ImVec2(at.x, at.y + size.y + 2.0f * s), ImVec2(at.x + size.x, at.y + size.y + 2.0f * s), color, 1.0f * s);
}
ImGui::PopID();
}
const char* BugReportValue()
{
switch (report::GetBugReportState())
@@ -427,7 +627,30 @@ namespace ui
return;
}
const settings::Option& o = settings::Info(s_described);
ImGui::TextWrapped("%s", o.description);
if (o.type == settings::Type::Key)
{
const hid::keymap::Entry& e = hid::keymap::EntryOf(o.id);
if (s_waiting == e.id || s_waiting == e.id2)
{
PushAccentText();
if (s_refused != SDL_SCANCODE_UNKNOWN)
ImGui::Text("%s can't be used here. Press another key; Esc or B cancels.", RefusedName(s_refused).c_str());
else
ImGui::Text("Press the key for %s. Esc or B cancels.", o.label);
PopAccentText();
ImGui::TextDisabled(" ");
return;
}
ImGui::TextWrapped("%s", o.description);
// The keyboard's keys for what the legend names in
// controller terms (Y, X); and a key on several controls is
// fine (the defaults share the arrows), but say which, in
// case it wasn't meant.
std::string also = SharedWith(e);
ImGui::TextDisabled("Enter sets the key, Backspace clears it, Delete restores the row.%s%s%s",
also.empty() ? "" : " Also: ", also.c_str(), also.empty() ? "" : ".");
return;
}
if (o.id == Id::Fullscreen && video::FullscreenLocked())
{
ImGui::TextDisabled("Always on in Game Mode: Steam sets the resolution (Properties > Game Resolution).");
@@ -500,18 +723,43 @@ namespace ui
const bool dialog = ImGui::IsPopupOpen("reset") || UpdateDialogOpen() || QuitPromptOpen();
if (int delta = dialog ? 0 : PageDelta())
{
s_category = Category((int(s_category) + delta + kCategories) % kCategories);
Category next = s_category;
do
next = Category((int(next) + delta + kCategories) % kCategories);
while (!PageShown(next));
s_category = next;
s_tabPending = true;
s_focusFirstRow = true;
}
if (!PageShown(s_category)) // the keyboard went away while on Controls
{
s_category = Category::Input;
s_tabPending = true;
s_focusFirstRow = true;
}
// X on the Controls page is the rows' (KeyRow: the row's default
// keys). To ImGui it is also the window-switching key: a press
// starts the toggle and the release moves the cursor to the root
// window. Owning the key while the page shows keeps that off; the
// rows' IsKeyPressed, which accepts any owner, still sees it.
if (s_category == Category::Controls)
ImGui::SetKeyOwner(ImGuiKey_GamepadFaceLeft, ImHashStr("controls-x"));
s_described = Id::Count;
s_describedBugReport = false;
s_describedUpdate = false;
if (s_waiting != Id::Count && settings::Info(s_waiting).category != s_category)
EndWait();
// For the B check at the end: B's nav cancel (in ImGui's NewFrame,
// before this) takes the waiting row's focus, and KeyRow then ends
// the wait before that check could see it.
const bool wasWaiting = s_waiting != Id::Count;
if (ImGui::BeginTabBar("pages", ImGuiTabBarFlags_NoTooltip))
{
for (int c = 0; c < kCategories; c++)
{
Category category = Category(c);
if (!PageShown(category))
continue;
ImGuiTabItemFlags tabFlags = (s_tabPending && category == s_category) ? ImGuiTabItemFlags_SetSelected : 0;
ImGui::PushItemFlag(ImGuiItemFlags_NoNav, true);
bool open = ImGui::BeginTabItem(settings::CategoryName(category), nullptr, tabFlags);
@@ -547,9 +795,12 @@ namespace ui
if (rows)
{
float valueWidth = 0.0f;
for (const auto& o : settings::Options())
if (o.category == category && !o.hidden)
valueWidth = std::max(valueWidth, ValueWidth(o));
if (category == Category::Controls)
valueWidth = 2 * KeyCellWidth() + KeyCellGap();
else
for (const auto& o : settings::Options())
if (o.category == category && !o.hidden)
valueWidth = std::max(valueWidth, ValueWidth(o));
if (category == Category::Advanced)
for (const char* text : { "Saving...", "Checking...", UpdateRowValue() })
valueWidth = std::max(valueWidth, ImGui::CalcTextSize(text).x);
@@ -560,12 +811,19 @@ namespace ui
{
ImGui::TableSetupColumn("label", ImGuiTableColumnFlags_WidthStretch);
ImGui::TableSetupColumn("value", ImGuiTableColumnFlags_WidthFixed, valueWidth + arrow * 2 + ValueInset());
for (const auto& o : settings::Options())
if (o.category == category && !o.hidden)
if (category == Category::Controls)
for (const auto& e : hid::keymap::kEntries)
{
OptionRow(o, valueWidth, focusFirst);
KeyRow(e, valueWidth, focusFirst);
focusFirst = false;
}
else
for (const auto& o : settings::Options())
if (o.category == category && !o.hidden)
{
OptionRow(o, valueWidth, focusFirst);
focusFirst = false;
}
if (category == Category::Advanced)
{
BugReportRow(valueWidth);
@@ -627,7 +885,10 @@ namespace ui
#endif
ImGui::SameLine();
{
const char* legend = "D-pad: choose, change LB RB: page B: close";
// (The Controls page leaves out "D-pad: choose": with Quit Game in the
// footer its legend was wider than the window and lost "B: close".)
const char* legend = s_category == Category::Controls ? "A: set key Y: clear X: default LB RB: page B: close"
: "D-pad: choose, change LB RB: page B: close";
float w = ImGui::CalcTextSize(legend).x;
ImGui::SetCursorPosX(std::max(ImGui::GetCursorPosX(), ImGui::GetWindowContentRegionMax().x - w));
ImGui::TextDisabled("%s", legend);
@@ -661,15 +922,29 @@ namespace ui
if (DrawQuitPrompt())
popup = true;
#endif
// B (or Esc) closes the menu; while a Controls row was waiting for
// a key at the top of this frame it ends the wait instead (the
// cursor goes with it, as after the Reset dialog: the next D-pad
// press brings it back). The Esc key itself never gets here then:
// SettingsMenuTakesKey took its press.
if (!popup && ImGui::IsWindowFocused(ImGuiFocusedFlags_RootAndChildWindows) && !ImGui::IsAnyItemActive() &&
(ImGui::IsKeyPressed(ImGuiKey_GamepadFaceRight, false) || ImGui::IsKeyPressed(ImGuiKey_Escape, false)))
CloseSettings();
{
if (wasWaiting)
EndWait();
else
CloseSettings();
}
ImGui::End();
}
void ResetSettingsMenu()
{
s_opened = true;
EndWait(); // a wait the menu was closed under is over
s_takenKey = SDL_SCANCODE_UNKNOWN;
s_slotRow = Id::Count;
s_slot = 0;
// A dialog the menu was closed under (Start or Back alone closes it
// from anywhere) doesn't come back with it.
if (ImGuiContext* g = ImGui::GetCurrentContext(); g && g->OpenPopupStack.Size > 0)
@@ -677,6 +952,48 @@ namespace ui
ForgetUpdateDialog();
}
bool SettingsMenuTakesKey(const SDL_KeyboardEvent& key)
{
// The key a wait took or refused stays down a moment longer. ImGui never saw
// it go down, so its OS repeats would read as fresh presses (Enter
// would start a new wait, an arrow would move the cursor): they and
// its release stay out of ImGui too.
if (s_takenKey != SDL_SCANCODE_UNKNOWN && key.scancode == s_takenKey)
{
if (!key.down)
s_takenKey = SDL_SCANCODE_UNKNOWN;
if (!key.down || key.repeat)
return true;
s_takenKey = SDL_SCANCODE_UNKNOWN; // pressed anew: its release went by unseen
}
if (s_waiting == Id::Count || !key.down || key.repeat)
return false;
const settings::Option& o = settings::Info(s_waiting);
s_takenKey = key.scancode;
if (key.scancode == SDL_SCANCODE_ESCAPE)
{
fprintf(stderr, "[settings] menu: %s.%s: no new key (Esc)\n", o.table, o.key);
EndWait();
return true;
}
// Not a key of the table (Cmd / Windows, F1, the media keys), or a
// key pressed with Cmd / Windows held: the wait goes on and the help
// line says so. (Cmd+, still closes the menu on a Mac: ProcessEvent's
// toggle sees the comma before this does; the Cmd press before it
// lands here and is refused.) Its repeats and release stay out of
// ImGui like a taken key's: s_takenKey is already set.
if (key.scancode == SDL_SCANCODE_UNKNOWN || !settings::keynames::Known(uint16_t(key.scancode)) || (key.mod & SDL_KMOD_GUI))
{
s_refused = key.scancode;
fprintf(stderr, "[settings] menu: %s.%s: %s can't be used\n", o.table, o.key, RefusedName(key.scancode).c_str());
return true;
}
double from = settings::GetStoredValue(o.id);
LogChange(o, from, settings::Set(o.id, double(key.scancode)));
EndWait();
return true;
}
void ForgetQuitPrompt()
{
#if SB_QUIT_GAME
+67 -5
View File
@@ -15,6 +15,9 @@
#include <imgui_internal.h> // DragToScroll: the window under a touch, its scroll and the active item
#include <platform/ios_ui.h>
#endif
#if defined(__APPLE__) && !TARGET_OS_IOS
#include <platform/macos_window.h>
#endif
#include <SDL3/SDL.h>
@@ -498,6 +501,33 @@ namespace ui
}
#endif
#if defined(__APPLE__) && !TARGET_OS_IOS
bool s_buttonsShown = true; // as AppKit makes the window
int s_buttonChanges = 0; // logged, the first few
// The window's close, minimise and zoom buttons, over the picture in
// a window (platform/macos_window.h), come and go with the pointer:
// shown while it shows over the window, hidden when it hides (the
// mouse still for 2 s), leaves the window, or the app isn't in front
// (SDL then gives no window the mouse). In fullscreen they stay:
// macOS shows them there only with the menu bar.
void UpdateWindowButtons(bool pointerShown)
{
if (!s_window)
return;
const bool fullscreen = SDL_GetWindowFlags(s_window) & SDL_WINDOW_FULLSCREEN;
const bool shown = fullscreen || (pointerShown && SDL_GetMouseFocus() == s_window);
if (shown == s_buttonsShown)
return;
s_buttonsShown = shown;
platform::macos::ShowWindowButtons(s_window, shown);
if (++s_buttonChanges <= 6)
fprintf(stderr, "[ui] window buttons %s\n",
shown ? (fullscreen ? "shown (fullscreen)" : "shown (the pointer is over the window)")
: "hidden (the pointer hid or left the window)");
}
#endif
// Shows or hides the cursor for now (each frame, and as the menu
// opens or closes). While a menu or modal page has the mouse, ImGui's
// backend shows it and picks its shape; otherwise it must keep its
@@ -516,6 +546,9 @@ namespace ui
io.ConfigFlags |= ImGuiConfigFlags_NoMouseCursorChange;
}
const bool show = s_cursorIdle.Shows(SDL_GetTicksNS(), menu);
#if defined(__APPLE__)
UpdateWindowButtons(show); // every time: the pointer can leave without hiding
#endif
if (show == s_cursorShown)
return;
s_cursorShown = show;
@@ -638,8 +671,14 @@ namespace ui
s_settingsOpen ? CloseSettings() : OpenSettings();
return;
}
if (s_settingsOpen && SettingsMenuTakesKey(e.key))
return; // a Controls row took it: ImGui doesn't act on it too
break;
}
case SDL_EVENT_KEY_UP:
if (s_settingsOpen && SettingsMenuTakesKey(e.key))
return; // the release of a key a Controls row took
break;
case SDL_EVENT_GAMEPAD_BUTTON_DOWN:
case SDL_EVENT_GAMEPAD_BUTTON_UP:
{
@@ -723,6 +762,10 @@ namespace ui
// NFSMW_UI_KEYS="3:F1,4:Down,4.5:Right": key presses (SDL key names)
// at seconds since launch, for testing the menus without a person.
// A key is pressed and released at once; "Hold Return" only presses
// it, "Repeat Return" is the OS's auto-repeat of a held key (a
// key-down marked repeat) and "Release Return" lets it go, for a key
// held across other keys.
// FocusLost and FocusGained send the window those events instead (as
// switching to another window would: Mute in Background). Shot saves
// the next presented frame as build/ui_shot_<n>.ppm: on the keys'
@@ -735,7 +778,8 @@ namespace ui
// motion a mouse moving there makes is posted.
constexpr SDL_Keycode kFocusLost = SDLK_EXTENDED_MASK | 0x7F01, kFocusGained = SDLK_EXTENDED_MASK | 0x7F02,
kShot = SDLK_EXTENDED_MASK | 0x7F03, kMouseMove = SDLK_EXTENDED_MASK | 0x7F04;
struct Key { double time; SDL_Keycode key; };
enum class Press : uint8_t { Tap, Hold, Repeat, Release };
struct Key { double time; SDL_Keycode key; Press press = Press::Tap; };
static const auto start = std::chrono::steady_clock::now();
static std::vector<Key> keys = [] {
std::vector<Key> parsed;
@@ -749,12 +793,20 @@ namespace ui
if (colon == std::string::npos)
continue;
std::string name = item.substr(colon + 1);
Press press = Press::Tap;
for (auto [prefix, kind] : { std::pair{ "Hold ", Press::Hold }, std::pair{ "Repeat ", Press::Repeat },
std::pair{ "Release ", Press::Release } })
if (name.starts_with(prefix))
{
press = kind;
name = name.substr(strlen(prefix));
}
SDL_Keycode key = name == "FocusLost" ? kFocusLost : name == "FocusGained" ? kFocusGained
: name == "Shot" ? kShot
: name == "MouseMove" ? kMouseMove
: SDL_GetKeyFromName(name.c_str());
if (key != SDLK_UNKNOWN)
parsed.push_back({ std::atof(item.c_str()), key });
parsed.push_back({ std::atof(item.c_str()), key, press });
else
fprintf(stderr, "[ui] NFSMW_UI_KEYS: unknown key %s\n", item.c_str() + colon + 1);
}
@@ -821,8 +873,11 @@ namespace ui
fprintf(stderr, "[ui] NFSMW_UI_KEYS: window focus %s\n", keys[next].key == kFocusLost ? "lost" : "gained");
continue;
}
const Press press = keys[next].press;
for (bool down : { true, false })
{
if ((down && press == Press::Release) || (!down && (press == Press::Hold || press == Press::Repeat)))
continue;
SDL_Event e{};
e.type = down ? SDL_EVENT_KEY_DOWN : SDL_EVENT_KEY_UP;
e.key.timestamp = SDL_GetTicksNS();
@@ -830,6 +885,7 @@ namespace ui
e.key.key = keys[next].key;
e.key.scancode = SDL_GetScancodeFromKey(keys[next].key, nullptr);
e.key.down = down;
e.key.repeat = press == Press::Repeat;
SDL_PushEvent(&e);
}
}
@@ -948,14 +1004,20 @@ namespace ui
UpdateScale();
ImGui::NewFrame();
// Panels and toasts lay out in the work area: the window's safe area,
// clear of an iPhone's Dynamic Island and home indicator (elsewhere
// the whole window, as before).
// clear of an iPhone's Dynamic Island and home indicator, and below a
// Mac window's title bar where that lies over the picture (the
// window's buttons are there: platform/macos_window.h); elsewhere the
// whole window, as before.
// (The window's, in its points: kept inside the display, which is
// the swapchain's shape while FitUiDisplay overrules the window.)
if (SDL_Rect safe; s_window && SDL_GetWindowSafeArea(s_window, &safe) && safe.w > 0 && safe.h > 0)
{
ImGuiViewport* viewport = ImGui::GetMainViewport();
const float x0 = std::clamp(float(safe.x), 0.0f, io.DisplaySize.x), y0 = std::clamp(float(safe.y), 0.0f, io.DisplaySize.y);
float top = float(safe.y);
#if defined(__APPLE__) && !TARGET_OS_IOS
top = std::max(top, platform::macos::TitleStripHeight(s_window));
#endif
const float x0 = std::clamp(float(safe.x), 0.0f, io.DisplaySize.x), y0 = std::clamp(top, 0.0f, io.DisplaySize.y);
const float x1 = std::clamp(float(safe.x + safe.w), x0, io.DisplaySize.x), y1 = std::clamp(float(safe.y + safe.h), y0, io.DisplaySize.y);
if (x1 - x0 >= 1.0f && y1 - y0 >= 1.0f)
{
+6
View File
@@ -130,6 +130,12 @@ namespace ui
// Screens (settings_menu.cpp, perf_overlay.cpp, installer_screen.cpp).
void DrawSettings();
void ResetSettingsMenu(); // on opening: focus the first row, no dialog left open
// Main thread, from ProcessEvent on a key-down or key-up while the menu
// is open, after the F1 toggle: true when a Controls row was waiting
// for a key and took this one, refused it (the wait goes on), or Esc
// cancelled it, or this is a repeat or the release of a key it took or
// refused, so ImGui must not see it.
bool SettingsMenuTakesKey(const SDL_KeyboardEvent& key);
void DrawPerfOverlay();
// Settings > Advanced > Check for Updates (update_dialog.cpp, the check
+109
View File
@@ -0,0 +1,109 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING).
//
// The keys a Controls row can hold (Settings > Controls), named for
// settings.toml: "w", "left_shift", "keypad_1", or "none" for no key. The
// code is the key's USB HID usage, which is what SDL's scancodes are (A is
// 4), so a binding is the physical key whatever the layout; SDL itself
// stays out of this header and of settings.cpp, and tests/key_names_test.cpp
// checks every row against SDL's name for the code (hid/input.cpp pins a
// few at compile time). SDL's own names won't do for the file: some change
// once video starts (on a Mac Left Alt becomes "Left Option"), while the
// settings load before that, and some keys share one. The table is also
// the list of what can be bound: F1 (it opens the menu), Cmd / Windows and
// the media keys are left out on purpose. Header only.
#pragma once
#include <cstddef>
#include <cstdint>
#include <iterator>
#include <string_view>
namespace settings::keynames
{
constexpr uint16_t kNone = 0; // no key; "none" in the file
constexpr uint16_t kUnknown = 0xFFFF; // Code(): not a name in the table
struct Key
{
uint16_t code;
const char* token;
};
// Ascending by code. The tokens are SDL's scancode constants in lower
// case with underscores: SDL_SCANCODE_LEFTBRACKET is "left_bracket",
// SDL_SCANCODE_KP_1 "keypad_1", SDL_SCANCODE_NUMLOCKCLEAR "num_lock".
constexpr Key kKeys[] = {
{ 4, "a" }, { 5, "b" }, { 6, "c" }, { 7, "d" }, { 8, "e" }, { 9, "f" }, { 10, "g" }, { 11, "h" }, { 12, "i" },
{ 13, "j" }, { 14, "k" }, { 15, "l" }, { 16, "m" }, { 17, "n" }, { 18, "o" }, { 19, "p" }, { 20, "q" }, { 21, "r" },
{ 22, "s" }, { 23, "t" }, { 24, "u" }, { 25, "v" }, { 26, "w" }, { 27, "x" }, { 28, "y" }, { 29, "z" },
{ 30, "1" }, { 31, "2" }, { 32, "3" }, { 33, "4" }, { 34, "5" }, { 35, "6" }, { 36, "7" }, { 37, "8" }, { 38, "9" }, { 39, "0" },
{ 40, "return" }, { 41, "escape" }, { 42, "backspace" }, { 43, "tab" }, { 44, "space" },
{ 45, "minus" }, { 46, "equals" }, { 47, "left_bracket" }, { 48, "right_bracket" }, { 49, "backslash" },
{ 50, "non_us_hash" }, { 51, "semicolon" }, { 52, "apostrophe" }, { 53, "grave" }, { 54, "comma" },
{ 55, "period" }, { 56, "slash" }, { 57, "caps_lock" },
{ 59, "f2" }, { 60, "f3" }, { 61, "f4" }, { 62, "f5" }, { 63, "f6" }, { 64, "f7" }, { 65, "f8" }, { 66, "f9" },
{ 67, "f10" }, { 68, "f11" }, { 69, "f12" },
{ 70, "print_screen" }, { 71, "scroll_lock" }, { 72, "pause" }, { 73, "insert" }, { 74, "home" },
{ 75, "page_up" }, { 76, "delete" }, { 77, "end" }, { 78, "page_down" },
{ 79, "right" }, { 80, "left" }, { 81, "down" }, { 82, "up" },
{ 83, "num_lock" }, { 84, "keypad_divide" }, { 85, "keypad_multiply" }, { 86, "keypad_minus" },
{ 87, "keypad_plus" }, { 88, "keypad_enter" },
{ 89, "keypad_1" }, { 90, "keypad_2" }, { 91, "keypad_3" }, { 92, "keypad_4" }, { 93, "keypad_5" },
{ 94, "keypad_6" }, { 95, "keypad_7" }, { 96, "keypad_8" }, { 97, "keypad_9" }, { 98, "keypad_0" },
{ 99, "keypad_period" }, { 100, "non_us_backslash" }, { 101, "application" }, { 103, "keypad_equals" },
{ 104, "f13" }, { 105, "f14" }, { 106, "f15" }, { 107, "f16" }, { 108, "f17" }, { 109, "f18" },
{ 110, "f19" }, { 111, "f20" }, { 112, "f21" }, { 113, "f22" }, { 114, "f23" }, { 115, "f24" },
{ 133, "keypad_comma" },
{ 135, "international_1" }, { 136, "international_2" }, { 137, "international_3" },
{ 138, "international_4" }, { 139, "international_5" }, { 140, "international_6" },
{ 224, "left_ctrl" }, { 225, "left_shift" }, { 226, "left_alt" },
{ 228, "right_ctrl" }, { 229, "right_shift" }, { 230, "right_alt" },
};
constexpr size_t kKeyCount = std::size(kKeys);
namespace detail
{
constexpr char Lower(char c)
{
return c >= 'A' && c <= 'Z' ? char(c - 'A' + 'a') : c;
}
// `text` in any case against a lower-case token.
constexpr bool Same(std::string_view text, const char* token)
{
size_t i = 0;
for (; i < text.size() && token[i]; i++)
if (Lower(text[i]) != token[i])
return false;
return i == text.size() && token[i] == '\0';
}
}
// The file's name for a code: "none" for kNone; nullptr for a code that
// isn't a key here.
constexpr const char* Token(uint16_t code)
{
if (code == kNone)
return "none";
for (const Key& k : kKeys)
if (k.code == code)
return k.token;
return nullptr;
}
// The code for a name in the file, in any case; kUnknown when it isn't one.
constexpr uint16_t Code(std::string_view token)
{
if (detail::Same(token, "none"))
return kNone;
for (const Key& k : kKeys)
if (detail::Same(token, k.token))
return k.code;
return kUnknown;
}
// A value a Key option can hold: no key, or a key of the table.
constexpr bool Known(uint16_t code)
{
return code == kNone || Token(code) != nullptr;
}
}
+136 -7
View File
@@ -27,6 +27,8 @@
#include <TargetConditionals.h> // TARGET_OS_IOS: __APPLE__ alone means macOS or iOS
#endif
#include "key_names.h" // the Key options: the keys and their names in the file
// toml++ (header-only), as vendored by XenonRecomp. The fallback path keeps
// this file building before runtime/CMakeLists.txt adds the include
// directory (the runtime globs every .cpp under runtime/).
@@ -45,9 +47,23 @@ namespace settings
{
namespace
{
// FSR 1 isn't offered on iPhone and iPad: its EASU pass costs an
// Apple GPU 2-3x the bicubic pass, and a phone's 1x picture is
// enlarged about 2x every frame. Without the entry, "fsr1" in
// settings.toml or NFSMW_SCALING reads as unknown (bicubic), so the
// presenter never makes an FSR 1 shader or pipeline there (it makes
// them only for a frame whose pass is FSR 1: video/upscale.h).
#if defined(__APPLE__) && TARGET_OS_IOS
constexpr bool kFsr1Offered = false;
#else
constexpr bool kFsr1Offered = true;
#endif
constexpr EnumEntry kScalingEntries[] = {
{ int32_t(ScalingMode::Bicubic), "bicubic", "Bicubic" },
{ int32_t(ScalingMode::Linear), "linear", "Bilinear" },
#if !(defined(__APPLE__) && TARGET_OS_IOS)
{ int32_t(ScalingMode::Fsr1), "fsr1", "FSR 1" },
#endif
};
// Frame Rate: the game's frames per second (60, or 30 on a GPU that
@@ -104,6 +120,31 @@ namespace settings
{ kAnisotropyGame, "game", "Original" },
};
// A Controls row's key: the key (user/key_names.h, by its name
// there) that drives one Xbox 360 control. Two per control, the
// second named <key>_2 with the same label. No environment
// variable: 48 of them would clutter the file's comments for nobody.
constexpr Option KeyOption(Id id, const char* key, const char* label, const char* description, const char* token)
{
return { .id = id, .category = Category::Controls, .type = Type::Key, .apply = Apply::Live,
.table = "keys", .key = key, .label = label, .description = description, .env = nullptr,
.defaultValue = double(keynames::Code(token)) };
}
constexpr Option KeyOption2(Id id, const char* key, const char* label, const char* token)
{
return KeyOption(id, key, label, "A second key for the same control, or none.", token);
}
// A stored or offered value as a key code: kUnknown unless it's a
// whole number the key table knows (none included).
constexpr uint16_t KeyCode(double v)
{
if (!(v >= 0 && v < double(keynames::kUnknown)) || v != uint16_t(v))
return keynames::kUnknown;
return keynames::Known(uint16_t(v)) ? uint16_t(v) : keynames::kUnknown;
}
// Defaults are what the runtime did before settings existed, so an
// empty settings.toml changes nothing.
constexpr Option kOptions[] = {
@@ -130,7 +171,9 @@ namespace settings
.env = "NFSMW_AA", .defaultValue = 1 },
{ .id = Id::Scaling, .category = Category::Graphics, .type = Type::Enum, .apply = Apply::Live,
.table = "video", .key = "scaling", .label = "Upscaling",
.description = "How the 720p image is scaled to the window. Bicubic is sharper, bilinear softer.",
.description = kFsr1Offered
? "How the game's picture is enlarged to the window. Bicubic is sharp, bilinear softer. FSR 1 (AMD FidelityFX Super Resolution 1) keeps curves, wires and diagonals smooth when the window is much larger than the Internal Resolution (1x on a 1440p or 4K screen), for a little more GPU time."
: "How the game's picture is enlarged to the screen. Bicubic is sharp, bilinear softer.",
.env = "NFSMW_SCALING", .defaultValue = double(ScalingMode::Bicubic), .entries = kScalingEntries },
{ .id = Id::AspectRatio, .category = Category::Display, .type = Type::Enum, .apply = Apply::Live,
.table = "video", .key = "aspect_ratio", .label = "Aspect Ratio",
@@ -147,7 +190,9 @@ namespace settings
.env = "NFSMW_DISPLAY_GAMMA", .defaultValue = 1 },
{ .id = Id::Sharpening, .category = Category::Graphics, .type = Type::Float, .apply = Apply::Live,
.table = "video", .key = "sharpening", .label = "Sharpening",
.description = "Extra sharpness for bicubic upscaling. 0 turns it off.",
.description = kFsr1Offered
? "Extra sharpness for bicubic and FSR 1 upscaling (for FSR 1, the share of its sharpening pass's full strength). 0 turns it off."
: "Extra sharpness for bicubic upscaling. 0 turns it off.",
.env = "NFSMW_SHARPEN", .defaultValue = 0.3, .min = 0, .max = 1, .step = 0.05 },
{ .id = Id::Anisotropy, .category = Category::Graphics, .type = Type::Enum, .apply = Apply::Live,
.table = "video", .key = "anisotropic_filtering", .label = "Anisotropic Filtering",
@@ -195,6 +240,57 @@ namespace settings
.table = "input", .key = "vibration", .label = "Vibration",
.description = "Controller rumble.",
.env = "NFSMW_VIBRATION", .defaultValue = 1 },
// Controls (Settings > Controls; hid/key_map.h reads them). The
// defaults are v0.1.4's keys: the arrows steer as well as A
// and D, and are the D-pad; O/L/K/; are the right stick.
KeyOption(Id::KeyRightTrigger, "right_trigger", "Right Trigger", "Gas in the game's default layout.", "w"),
KeyOption2(Id::KeyRightTrigger2, "right_trigger_2", "Right Trigger", "none"),
KeyOption(Id::KeyLeftTrigger, "left_trigger", "Left Trigger", "Brake and reverse in the game's default layout.", "s"),
KeyOption2(Id::KeyLeftTrigger2, "left_trigger_2", "Left Trigger", "none"),
KeyOption(Id::KeyLeftStickLeft, "left_stick_left", "Left Stick Left", "Steer left.", "a"),
KeyOption2(Id::KeyLeftStickLeft2, "left_stick_left_2", "Left Stick Left", "left"),
KeyOption(Id::KeyLeftStickRight, "left_stick_right", "Left Stick Right", "Steer right.", "d"),
KeyOption2(Id::KeyLeftStickRight2, "left_stick_right_2", "Left Stick Right", "right"),
KeyOption(Id::KeyLeftStickUp, "left_stick_up", "Left Stick Up", "The left stick pushed up (menus).", "up"),
KeyOption2(Id::KeyLeftStickUp2, "left_stick_up_2", "Left Stick Up", "none"),
KeyOption(Id::KeyLeftStickDown, "left_stick_down", "Left Stick Down", "The left stick pulled down.", "down"),
KeyOption2(Id::KeyLeftStickDown2, "left_stick_down_2", "Left Stick Down", "none"),
KeyOption(Id::KeyA, "a", "A", "The A button.", "space"),
KeyOption2(Id::KeyA2, "a_2", "A", "none"),
KeyOption(Id::KeyB, "b", "B", "The B button.", "backspace"),
KeyOption2(Id::KeyB2, "b_2", "B", "none"),
KeyOption(Id::KeyX, "x", "X", "The X button.", "left_shift"),
KeyOption2(Id::KeyX2, "x_2", "X", "none"),
KeyOption(Id::KeyY, "y", "Y", "The Y button.", "left_ctrl"),
KeyOption2(Id::KeyY2, "y_2", "Y", "none"),
KeyOption(Id::KeyLB, "lb", "LB", "The left shoulder button.", "q"),
KeyOption2(Id::KeyLB2, "lb_2", "LB", "none"),
KeyOption(Id::KeyRB, "rb", "RB", "The right shoulder button.", "e"),
KeyOption2(Id::KeyRB2, "rb_2", "RB", "none"),
KeyOption(Id::KeyDpadUp, "dpad_up", "D-pad Up", "The D-pad, up.", "up"),
KeyOption2(Id::KeyDpadUp2, "dpad_up_2", "D-pad Up", "none"),
KeyOption(Id::KeyDpadDown, "dpad_down", "D-pad Down", "The D-pad, down.", "down"),
KeyOption2(Id::KeyDpadDown2, "dpad_down_2", "D-pad Down", "none"),
KeyOption(Id::KeyDpadLeft, "dpad_left", "D-pad Left", "The D-pad, left.", "left"),
KeyOption2(Id::KeyDpadLeft2, "dpad_left_2", "D-pad Left", "none"),
KeyOption(Id::KeyDpadRight, "dpad_right", "D-pad Right", "The D-pad, right.", "right"),
KeyOption2(Id::KeyDpadRight2, "dpad_right_2", "D-pad Right", "none"),
KeyOption(Id::KeyStart, "start", "Start", "Start: pause.", "return"),
KeyOption2(Id::KeyStart2, "start_2", "Start", "none"),
KeyOption(Id::KeyBack, "back", "Back", "Back.", "escape"),
KeyOption2(Id::KeyBack2, "back_2", "Back", "none"),
KeyOption(Id::KeyRightStickUp, "right_stick_up", "Right Stick Up", "The right stick pushed up.", "o"),
KeyOption2(Id::KeyRightStickUp2, "right_stick_up_2", "Right Stick Up", "none"),
KeyOption(Id::KeyRightStickDown, "right_stick_down", "Right Stick Down", "The right stick pulled down.", "l"),
KeyOption2(Id::KeyRightStickDown2, "right_stick_down_2", "Right Stick Down", "none"),
KeyOption(Id::KeyRightStickLeft, "right_stick_left", "Right Stick Left", "The right stick pushed left.", "k"),
KeyOption2(Id::KeyRightStickLeft2, "right_stick_left_2", "Right Stick Left", "none"),
KeyOption(Id::KeyRightStickRight, "right_stick_right", "Right Stick Right", "The right stick pushed right.", "semicolon"),
KeyOption2(Id::KeyRightStickRight2, "right_stick_right_2", "Right Stick Right", "none"),
KeyOption(Id::KeyLeftStickClick, "left_stick_click", "Left Stick Click", "Pressing the left stick in.", "z"),
KeyOption2(Id::KeyLeftStickClick2, "left_stick_click_2", "Left Stick Click", "none"),
KeyOption(Id::KeyRightStickClick, "right_stick_click", "Right Stick Click", "Pressing the right stick in.", "c"),
KeyOption2(Id::KeyRightStickClick2, "right_stick_click_2", "Right Stick Click", "none"),
// Advanced
{ .id = Id::AsyncShaders, .category = Category::Advanced, .type = Type::Bool, .apply = Apply::Live,
.table = "advanced", .key = "async_shaders", .label = "Asynchronous Shaders",
@@ -232,7 +328,10 @@ namespace settings
if (!found)
return false;
}
if (o.env == nullptr || o.label == nullptr || o.description == nullptr)
if (o.type == Type::Key && !(KeyCode(o.defaultValue) != keynames::kUnknown && o.min == 0 && o.max == 0 &&
o.step == 0 && o.entries.empty() && !o.hidden))
return false;
if ((o.env == nullptr) != (o.type == Type::Key) || o.label == nullptr || o.description == nullptr)
return false;
}
return true;
@@ -429,6 +528,11 @@ namespace settings
if (const EnumEntry* e = FindEntry(o, v))
return double(e->value);
return {};
case Type::Key:
// No key, or a key of the table: the file holds its name.
if (KeyCode(v) == keynames::kUnknown)
return {};
return v;
}
return {};
}
@@ -453,6 +557,8 @@ namespace settings
text += std::format(", or a number from {} to {}", o.min, o.max);
return text;
}
case Type::Key:
return "a key name such as \"w\", \"left_shift\" or \"keypad_1\", or \"none\" (user/key_names.h lists them)";
}
return "";
}
@@ -476,6 +582,10 @@ namespace settings
if (auto n = ParseNumber(text))
return EnumFromNumber(o, *n);
return {};
case Type::Key:
if (uint16_t code = keynames::Code(text); code != keynames::kUnknown)
return double(code);
return {};
}
return {};
}
@@ -504,6 +614,8 @@ namespace settings
return n;
case Type::Enum:
return EnumFromNumber(o, *n);
case Type::Key:
return {}; // names only
}
return {};
}
@@ -569,6 +681,8 @@ namespace settings
{
const Option& o = kOptions[i];
s_envSet[i].store(false, std::memory_order_relaxed);
if (!o.env)
return; // a Key option: the file alone
const char* v = std::getenv(o.env);
if (!v)
return;
@@ -718,6 +832,13 @@ namespace settings
if (const EnumEntry* e = FindEntry(o, Default(size_t(o.id))))
return std::format("\"{}\"", e->token);
return std::format("\"{}\"", FindEntry(o, o.defaultValue)->token);
case Type::Key:
{
uint16_t code = KeyCode(v);
if (code == keynames::kUnknown)
code = KeyCode(o.defaultValue);
return std::format("\"{}\"", keynames::Token(code)); // [a-z0-9_]+: nothing to escape
}
}
return "";
}
@@ -727,8 +848,8 @@ namespace settings
std::string out =
"# SpeedBreaker settings, written by the game's settings menu. Hand edits\n"
"# are fine while the game is closed; unknown keys are dropped on the next\n"
"# save. The environment variable after each option overrides it for one\n"
"# run without changing this file.\n";
"# save. The environment variable after an option overrides it for one run\n"
"# without changing this file.\n";
const char* table = "";
for (size_t i = 0; i < kCount; i++)
{
@@ -742,8 +863,8 @@ namespace settings
out += "\n";
std::string range = RangeText(o);
range[0] = char(std::toupper(uint8_t(range[0])));
out += std::format("# {}: {}\n# {}. ({}{})\n", o.label, o.description, range, o.env,
o.apply == Apply::Restart ? "; applies at the next launch" : "");
std::string override = o.env ? std::format(" ({}{})", o.env, o.apply == Apply::Restart ? "; applies at the next launch" : "") : "";
out += std::format("# {}: {}\n# {}.{}\n", o.label, o.description, range, override);
out += std::format("{} = {}\n", o.key, TomlValue(o, values[i]));
}
std::string lastVersion;
@@ -932,6 +1053,7 @@ namespace settings
case Category::Graphics: return "Graphics";
case Category::Audio: return "Audio";
case Category::Input: return "Input";
case Category::Controls: return "Controls";
case Category::Advanced: return "Advanced";
default: return "";
}
@@ -1069,6 +1191,8 @@ namespace settings
double index = delta > 0 ? std::floor(position) + delta : delta < 0 ? std::ceil(position) + delta : position;
return *Normalize(o, o.min + index * o.step); // not NaN: v and step are finite
}
case Type::Key:
return value; // a key has no neighbour: the menu takes a key press instead
}
return value;
}
@@ -1085,6 +1209,11 @@ namespace settings
if (const EnumEntry* e = FindEntry(o, value))
return e->label;
return "?";
case Type::Key:
{
uint16_t code = KeyCode(value);
return code == keynames::kUnknown ? "?" : keynames::Token(code);
}
case Type::Int:
case Type::Float:
break;
+39 -5
View File
@@ -14,7 +14,8 @@
// that runs before main() calls Load(), so it would miss the file (it
// gets the environment and defaults, with a warning in the log).
// - An environment variable (NFSMW_AA=0, ...) wins over the file for that
// run and is never written back; EnvOverride() tells the menu.
// run and is never written back; EnvOverride() tells the menu. Key
// options have none.
// - A Restart option keeps its launch value for the whole run. Its
// consumers read it once (the window's size), so a change mid-run would
// reach only part of them. The menu edits the stored value and shows
@@ -62,6 +63,34 @@ namespace settings
StickDeadzone,
TriggerDeadzone,
Vibration,
// Controls (the [keys] table): the two keyboard keys that drive
// each Xbox 360 control, as key codes (user/key_names.h); the
// second of a pair is always the first's id + 1 (hid/key_map.h
// pairs them). Page order.
KeyRightTrigger, KeyRightTrigger2,
KeyLeftTrigger, KeyLeftTrigger2,
KeyLeftStickLeft, KeyLeftStickLeft2,
KeyLeftStickRight, KeyLeftStickRight2,
KeyLeftStickUp, KeyLeftStickUp2,
KeyLeftStickDown, KeyLeftStickDown2,
KeyA, KeyA2,
KeyB, KeyB2,
KeyX, KeyX2,
KeyY, KeyY2,
KeyLB, KeyLB2,
KeyRB, KeyRB2,
KeyDpadUp, KeyDpadUp2,
KeyDpadDown, KeyDpadDown2,
KeyDpadLeft, KeyDpadLeft2,
KeyDpadRight, KeyDpadRight2,
KeyStart, KeyStart2,
KeyBack, KeyBack2,
KeyRightStickUp, KeyRightStickUp2,
KeyRightStickDown, KeyRightStickDown2,
KeyRightStickLeft, KeyRightStickLeft2,
KeyRightStickRight, KeyRightStickRight2,
KeyLeftStickClick, KeyLeftStickClick2,
KeyRightStickClick, KeyRightStickClick2,
// Advanced
AsyncShaders,
PerformanceOverlay,
@@ -69,12 +98,17 @@ namespace settings
};
constexpr size_t kCount = size_t(Id::Count);
enum class Type : uint8_t { Bool, Int, Float, Enum };
enum class Category : uint8_t { Display, Graphics, Audio, Input, Advanced, Count };
// Key: a key code of user/key_names.h (0: no key), saved by its name
// there ("w", "left_shift", "none"); the menu takes it from a key press.
enum class Type : uint8_t { Bool, Int, Float, Enum, Key };
enum class Category : uint8_t { Display, Graphics, Audio, Input, Controls, Advanced, Count };
enum class Apply : uint8_t { Live, Restart };
// Values of the enum options (GetInt returns them).
enum class ScalingMode : int32_t { Bicubic = 0, Linear = 1 };
// Upscaling: FSR 1 is used only where the picture is enlarged; frames
// shown at their size or smaller take the bicubic pass
// (video/upscale.h, whose Mode has the same values).
enum class ScalingMode : int32_t { Bicubic = 0, Linear = 1, Fsr1 = 2 };
// Frame Rate: 60, 30, or Auto (video/frame_rate.h: 60, or 30 while the
// device is hot or can't hold 60).
constexpr int32_t kFrameRateAuto = 0;
@@ -111,7 +145,7 @@ namespace settings
const char* key; // key in that table, e.g. "anti_aliasing"
const char* label; // menu label
const char* description; // one-line menu help
const char* env; // the environment variable that overrides it
const char* env; // the environment variable that overrides it; nullptr: none (Key options)
int envField = 0; // 0: the whole variable; n: its n-th 'x'-separated field (NFSMW_WINDOW=WxH)
double defaultValue; // Bool: 0 or 1; Enum: an entry's value
// Int and Float: the range and the menu's step. Enum: the range a
+25
View File
@@ -56,4 +56,29 @@ namespace video::band
{
return std::clamp(i, s.a, s.b - 1);
}
// FSR 1 (video/fsr1.cpp's GLSL). Its passes work on output pixels: the
// picture's pixel i of outSize along an axis has its centre at this
// coordinate of the srcSize-texel frame image, and its span is the one
// holding it (SpanOf). EASU keeps each of its taps (texels floor(t -
// 0.5) - 1 to + 2) in that span with ClampTexel.
inline float SourceOf(int32_t i, int32_t outSize, int32_t srcSize)
{
return (float(i) + 0.5f) * float(srcSize) / float(outSize);
}
// Which span holds t: 0 [0, lo), 1 [lo, hi), 2 [hi, size).
inline int SpanIndex(float t, int32_t lo, int32_t hi)
{
return t < float(lo) ? 0 : t < float(hi) ? 1 : 2;
}
// RCAS's neighbour j (i +- 1) of output pixel i: j, or i itself where
// j's centre lies in another span (its span's edge pixel, as ClampTexel
// keeps a tap), so the sharpening never reads across the band's edge.
inline int32_t RcasNeighbour(int32_t i, int32_t j, int32_t lo, int32_t hi, int32_t outSize, int32_t srcSize)
{
j = std::clamp(j, 0, outSize - 1);
return SpanIndex(SourceOf(j, outSize, srcSize), lo, hi) == SpanIndex(SourceOf(i, outSize, srcSize), lo, hi) ? j : i;
}
}
+180
View File
@@ -0,0 +1,180 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING). See fsr1.h.
#include "fsr1.h"
#include <cmath>
#include <cstdlib>
#include <cstring>
// AMD's headers (thirdparty/fsr1, MIT), as text for the shaders: k_ffx_a and
// k_ffx_fsr1 (runtime/CMakeLists.txt).
#include <fsr1_headers.inc>
// The same headers' CPU code, for the constants (it defines short type
// names and many helpers this file doesn't use).
#pragma GCC diagnostic push
#pragma GCC diagnostic ignored "-Wunused-function"
#pragma GCC diagnostic ignored "-Wunused-parameter"
#define A_CPU 1
#include <thirdparty/fsr1/ffx_a.h>
#include <thirdparty/fsr1/ffx_fsr1.h>
#pragma GCC diagnostic pop
namespace video::fsr1
{
namespace
{
std::string Text(const unsigned char* bytes)
{
return std::string(reinterpret_cast<const char*>(bytes));
}
// Both shaders: AMD's 32-bit GLSL path (no extensions needed).
constexpr const char* kPrelude = R"(#version 460
#define A_GPU 1
#define A_GLSL 1
)";
// EASU, one 8x8 group per 64 pixels of the picture. Its 12 taps come
// from 4 gathers (FsrEasuRF..BF at the corners between texels);
// under Hor+ and Vert+ (bandOn) each of a gather's 2x2 texels is
// fetched instead and kept in this pixel's span of the band's three
// along each axis (band_filter.h's SpanOf and ClampTexel), so a strip
// pixel reads only the strip and a band pixel only the band.
// band: the band's columns x..y and rows z..w in texels (video::BandOf).
constexpr const char* kEasuHead = R"(
layout(local_size_x = 8, local_size_y = 8) in;
layout(set = 0, binding = 0) uniform sampler2D src;
layout(set = 0, binding = 1, rgba8) uniform writeonly image2D dst;
layout(push_constant) uniform P { uvec4 con0, con1, con2, con3; ivec4 band; ivec2 outSize; ivec2 srcSize; uint bandOn; } p;
// This pixel's span: its first and last texels along each axis.
ivec2 spanLo = ivec2(0), spanHi = ivec2(0);
// band_filter.h's SpanOf: [0, lo), [lo, hi) or [hi, size) holding t, as its first and end texels.
ivec2 spanOf(float t, int lo, int hi, int size)
{
return t < float(lo) ? ivec2(0, lo) : t < float(hi) ? ivec2(lo, hi) : ivec2(hi, size);
}
vec3 texelIn(ivec2 t)
{
return texelFetch(src, clamp(t, spanLo, spanHi), 0).rgb;
}
// What a gather at q reads, each texel kept in the span, in a gather's
// order: (x0, y1), (x1, y1), (x1, y0), (x0, y0).
vec4 quadIn(vec2 q, int c)
{
ivec2 t = ivec2(floor(q * vec2(p.srcSize) - 0.5));
return vec4(texelIn(t + ivec2(0, 1))[c], texelIn(t + ivec2(1, 1))[c], texelIn(t + ivec2(1, 0))[c], texelIn(t)[c]);
}
AF4 FsrEasuRF(AF2 q) { return p.bandOn == 0u ? textureGather(src, q, 0) : quadIn(q, 0); }
AF4 FsrEasuGF(AF2 q) { return p.bandOn == 0u ? textureGather(src, q, 1) : quadIn(q, 1); }
AF4 FsrEasuBF(AF2 q) { return p.bandOn == 0u ? textureGather(src, q, 2) : quadIn(q, 2); }
#define FSR_EASU_F 1
)";
constexpr const char* kEasuMain = R"(
void main()
{
uvec2 ip = gl_GlobalInvocationID.xy;
if (ip.x >= uint(p.outSize.x) || ip.y >= uint(p.outSize.y))
return;
if (p.bandOn != 0u)
{
// Where this pixel's centre falls in the frame image (texels).
vec2 pos = (vec2(ip) + 0.5) * vec2(p.srcSize) / vec2(p.outSize);
ivec2 sx = spanOf(pos.x, p.band.x, p.band.y, p.srcSize.x), sy = spanOf(pos.y, p.band.z, p.band.w, p.srcSize.y);
spanLo = ivec2(sx.x, sy.x);
spanHi = ivec2(sx.y, sy.y) - 1;
}
AF3 c;
FsrEasuF(c, ip, p.con0, p.con1, p.con2, p.con3);
imageStore(dst, ivec2(ip), vec4(c, 1.0));
}
)";
// RCAS, drawn over the picture's place in the swapchain image (the
// viewport at origin, outSize): src is EASU's image. Under Hor+ and
// Vert+ a neighbour on the other side of the band's edge (its centre
// maps into another span than this pixel's, by EASU's rule) reads
// this pixel instead: the span's edge, as ClampTexel keeps a tap.
// con.x 0 (Sharpening 0): EASU's picture as it is (RCAS's own
// arithmetic would still scale it by its approximate reciprocal).
constexpr const char* kRcasHead = R"(
layout(location = 0) in vec2 uv;
layout(location = 0) out vec4 color;
layout(set = 0, binding = 0) uniform sampler2D src;
layout(push_constant) uniform P { uvec4 con; ivec4 band; ivec2 origin; ivec2 outSize; ivec2 srcSize; uint bandOn; } p;
ivec2 centre = ivec2(0), centreSpan = ivec2(0);
// Which of the band's three spans along an axis holds output pixel i's centre: 0, 1 or 2.
int spanIndex(int i, int lo, int hi, int outSize, int srcSize)
{
float t = (float(i) + 0.5) * float(srcSize) / float(outSize);
return t < float(lo) ? 0 : t < float(hi) ? 1 : 2;
}
AF4 FsrRcasLoadF(ASU2 q)
{
ivec2 t = clamp(q, ivec2(0), p.outSize - 1);
if (p.bandOn != 0u)
{
if (spanIndex(t.x, p.band.x, p.band.y, p.outSize.x, p.srcSize.x) != centreSpan.x)
t.x = centre.x;
if (spanIndex(t.y, p.band.z, p.band.w, p.outSize.y, p.srcSize.y) != centreSpan.y)
t.y = centre.y;
}
return texelFetch(src, t, 0);
}
void FsrRcasInputF(inout AF1 r, inout AF1 g, inout AF1 b) {}
#define FSR_RCAS_F 1
)";
constexpr const char* kRcasMain = R"(
void main()
{
centre = clamp(ivec2(gl_FragCoord.xy) - p.origin, ivec2(0), p.outSize - 1);
if (p.bandOn != 0u)
centreSpan = ivec2(spanIndex(centre.x, p.band.x, p.band.y, p.outSize.x, p.srcSize.x),
spanIndex(centre.y, p.band.z, p.band.w, p.outSize.y, p.srcSize.y));
if (p.con.x == 0u)
{
color = vec4(texelFetch(src, centre, 0).rgb, 1.0);
return;
}
AF1 r, g, b;
FsrRcasF(r, g, b, uvec2(centre), p.con);
color = vec4(r, g, b, 1.0);
}
)";
}
std::array<uint32_t, 16> EasuConstants(uint32_t srcW, uint32_t srcH, uint32_t dstW, uint32_t dstH)
{
std::array<uint32_t, 16> con{};
FsrEasuCon(&con[0], &con[4], &con[8], &con[12], AF1(srcW), AF1(srcH), AF1(srcW), AF1(srcH), AF1(dstW), AF1(dstH));
return con;
}
std::array<uint32_t, 4> RcasConstants(float stops)
{
std::array<uint32_t, 4> con{};
if (!std::isfinite(stops))
return con; // off: con.x 0 (the shader then copies EASU's picture)
FsrRcasCon(con.data(), AF1(stops));
return con;
}
std::string EasuGlsl()
{
return kPrelude + Text(k_ffx_a) + kEasuHead + Text(k_ffx_fsr1) + kEasuMain;
}
std::string RcasGlsl()
{
return kPrelude + Text(k_ffx_a) + kRcasHead + Text(k_ffx_fsr1) + kRcasMain;
}
}
+33
View File
@@ -0,0 +1,33 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING).
//
// Settings > Graphics > Upscaling's FSR 1: AMD FidelityFX Super Resolution 1
// (runtime/thirdparty/fsr1, MIT, unmodified), as two passes after the
// anti-aliasing (video/presenter.cpp):
// - EASU (compute), the frame image enlarged into an image the size of
// the picture on the screen: AMD's FsrEasuF (32-bit), whose 12 taps
// come from 4 gathers, or under Hor+ and Vert+ from fetches kept in the
// pixel's span of the 16:9 band's three (video/band_filter.h);
// - RCAS (fragment, into the swapchain image, where bicubic's pass draws),
// AMD's FsrRcasF: sharpening of that image, its 4 neighbours each kept
// in the pixel's span too; then Brightness and the 360's display gamma
// (the tone variant, as for the other scale shaders), then the UI.
// Their constants come from AMD's own CPU code (FsrEasuCon, FsrRcasCon).
#pragma once
#include <array>
#include <cstdint>
#include <string>
namespace video::fsr1
{
// EASU's push constants: FsrEasuCon's con0..con3 for a srcW x srcH
// image enlarged to dstW x dstH.
std::array<uint32_t, 16> EasuConstants(uint32_t srcW, uint32_t srcH, uint32_t dstW, uint32_t dstH);
// RCAS's: FsrRcasCon's con for a strength in stops below its maximum
// (video::upscale::RcasStops; infinity gives 0: no sharpening).
std::array<uint32_t, 4> RcasConstants(float stops);
// The shaders' GLSL: AMD's two headers between ours (the RCAS one has a
// single main(), so the tone variant can wrap it).
std::string EasuGlsl();
std::string RcasGlsl();
}
+595 -65
View File
@@ -11,6 +11,7 @@
#include <game/ultrawide.h>
#include "gpu_choice.h"
#include "present_schedule.h"
#include "swapchain_use.h"
#include "picture_fit.h"
#include "frame_rate.h"
#include "swapchain_policy.h"
@@ -19,13 +20,19 @@
#include <cpu/guest_time.h>
#include "vblank_lock.h"
#include "display_tone.h"
#include "fsr1.h"
#include "upscale.h"
#include <ui/ui.h>
#if defined(__APPLE__) && TARGET_OS_IOS
#include <platform/ios_ui.h>
#endif
#if defined(__APPLE__) && !TARGET_OS_IOS
#include <platform/macos_window.h>
#endif
#include <user/settings.h>
#include <report/report.h>
#include <platform/thermal.h>
#include <platform/quit_signals.h>
#include <kernel/memory_status.h>
#include <SDL3/SDL.h>
@@ -102,12 +109,20 @@ namespace video
VkDeviceSize stagingSize = 0;
VkImageView sourceView = VK_NULL_HANDLE; // this frame's view of the presented image
bool timed = false; // wrote its post-processing timestamps
upscale::Pass pass = upscale::Pass::Bicubic; // the pass it drew with (NFSMW_UPSCALE_AB)
} s_frames[FRAMES_IN_FLIGHT];
// NFSMW_GPU_TIMING=1: 3 timestamps per frame slot around the
// post-processing (before, after AA, after the scale and UI pass).
VkQueryPool s_timestamps = VK_NULL_HANDLE;
double s_timestampPeriod = 1.0;
std::atomic<uint64_t> s_postFrames{ 0 }, s_postAaNs{ 0 }, s_postNs{ 0 };
// NFSMW_UPSCALE_AB=1 (a diagnostic, with NFSMW_GPU_TIMING=1): frames
// the FSR 1 setting enlarges alternate between FSR 1 and bicubic, one
// frame each, and an [upscale-ab] line every 600 timed frames gives
// each pass's post-processing GPU time per frame (anti-aliasing and
// the UI included, as in [perf]): the same scenes, the same clocks.
const bool s_upscaleAb = [] { const char* v = std::getenv("NFSMW_UPSCALE_AB"); return v && v[0] == '1'; }();
uint64_t s_abFrames[3]{}, s_abNs[3]{}, s_abAaNs[3]{}; // by upscale::Pass; main thread
std::vector<VkSemaphore> s_renderDone; // one per swapchain image
std::mutex s_queueMutex;
VulkanContext s_context{};
@@ -263,15 +278,17 @@ namespace video
// screen for more refreshes than the game gave it vblanks (repeated).
// The waits run beside presents to the same swapchain, as the
// extension is used: the WSIs synchronise the two internally (Mesa's,
// MoltenVK's), though the spec leaves that to the caller. Destroying
// a swapchain waits until no wait is on it.
// MoltenVK's), though the spec leaves that to the caller. The waiter
// uses a swapchain (its waits, the driver's reports) only through
// s_swapchainUse, and destroying one waits until no use is on it
// (video/swapchain_use.h).
bool s_presentTiming = false;
PFN_vkWaitForPresentKHR s_waitForPresent = nullptr;
uint64_t s_presentId = 0; // main thread: the last present's
struct PresentTiming
{
uint64_t id;
VkSwapchainKHR swapchain;
uint64_t swapchain; // its generation (s_swapchainUse)
int64_t presented; // vkQueuePresentKHR (ns, steady clock)
int64_t vblank; // a new game frame: the guest vblank it followed; 0: a redraw
};
@@ -281,8 +298,10 @@ namespace video
std::mutex& s_timingMutex = *new std::mutex;
std::condition_variable& s_timingCv = *new std::condition_variable;
std::deque<PresentTiming>& s_timings = *new std::deque<PresentTiming>; // presented, not yet seen on screen
std::mutex s_waitSwapchainMutex; // held by the waiter while it waits
VkSwapchainKHR s_waitSwapchain = VK_NULL_HANDLE; // the one it may wait on
// The swapchain the waiter may use (never destroyed either), and its
// generation (main thread; 0: none).
SwapchainUse<VkSwapchainKHR>& s_swapchainUse = *new SwapchainUse<VkSwapchainKHR>;
uint64_t s_swapchainGeneration = 0;
FILE* s_timingLog = nullptr; // NFSMW_VBLANK_LOG=<file>: one CSV line per present
// macOS: a new frame may be shown a set time after the guest vblank
@@ -307,8 +326,9 @@ namespace video
uint32_t s_displayTimingId = 0; // main thread
// The decision and the watchdog (main thread: Wanted; the waiter:
// the driver's reports), and the frames shown at a time not reported
// on yet: present id -> the time asked for (steady clock).
std::mutex s_scheduleMutex;
// on yet: present id -> the time asked for (steady clock). The
// mutex is never destroyed (the waiter may be in it at exit).
std::mutex& s_scheduleMutex = *new std::mutex;
PresentSchedule s_schedule;
struct ScheduledPresent
{
@@ -345,18 +365,23 @@ namespace video
// for): the driver's reports on the presents shown since the last
// call, to NFSMW_VBLANK_LOG's .actual.csv and, for frames shown at a
// time, to the watchdog; and `t`, if shown at a time, counted as
// presented (the driver reports it a present or so later).
// presented (the driver reports it a present or so later). The
// reports are read only while `t`'s swapchain is the current one,
// and it isn't destroyed under the read: a swapchain destroyed since
// the wait (a fullscreen toggle, a resize) has none left to read.
void ReadDriverReports(const PresentTiming& t)
{
uint32_t count = 0;
std::vector<VkPastPresentationTimingGOOGLE> past;
if (s_pastTiming(s_device, t.swapchain, &count, nullptr) == VK_SUCCESS && count)
{
past.resize(count);
if (s_pastTiming(s_device, t.swapchain, &count, past.data()) < VK_SUCCESS)
count = 0;
past.resize(count);
}
s_swapchainUse.Use(t.swapchain, [&](VkSwapchainKHR swapchain) {
if (s_pastTiming(s_device, swapchain, &count, nullptr) == VK_SUCCESS && count)
{
past.resize(count);
if (s_pastTiming(s_device, swapchain, &count, past.data()) < VK_SUCCESS)
count = 0;
past.resize(count);
}
});
const int64_t hostToSteady = HostToSteadyNs();
bool tripped = false;
{
@@ -459,12 +484,10 @@ namespace video
t = s_timings.front();
}
int64_t start = NowNs();
VkResult r = VK_ERROR_OUT_OF_DATE_KHR;
{
std::lock_guard lock(s_waitSwapchainMutex);
if (t.swapchain == s_waitSwapchain)
r = s_waitForPresent(s_device, t.swapchain, t.id, 50'000'000);
}
VkResult r = VK_ERROR_OUT_OF_DATE_KHR; // its swapchain is gone
s_swapchainUse.Use(t.swapchain, [&](VkSwapchainKHR swapchain) {
r = s_waitForPresent(s_device, swapchain, t.id, 50'000'000);
});
int64_t now = NowNs();
{
std::lock_guard lock(s_timingMutex);
@@ -534,10 +557,10 @@ namespace video
void DestroySwapchain()
{
{
std::lock_guard wait(s_waitSwapchainMutex); // the waiter is off it after this
s_waitSwapchain = VK_NULL_HANDLE;
s_swapchainUse.Retire(); // the waiter is off it after this, and stays off
std::lock_guard lock(s_timingMutex);
std::erase_if(s_timings, [](const PresentTiming& t) { return t.swapchain == s_swapchain; });
std::erase_if(s_timings, [](const PresentTiming& t) { return t.swapchain == s_swapchainGeneration; });
s_swapchainGeneration = 0;
}
for (VkSemaphore s : s_renderDone)
vkDestroySemaphore(s_device, s, nullptr);
@@ -661,10 +684,7 @@ namespace video
!s_vsync && info.presentMode == VK_PRESENT_MODE_FIFO_KHR ? "; the surface offers nothing else" : "");
}
}
{
std::lock_guard lock(s_waitSwapchainMutex);
s_waitSwapchain = s_swapchain;
}
s_swapchainGeneration = s_swapchainUse.Publish(s_swapchain);
if (s_uiReady)
ui::SetFormat(s_swapFormat);
s_swapPolicy.Created({ s_swapExtent.width, s_swapExtent.height });
@@ -1362,8 +1382,10 @@ void main()
if (!EnsureScalePipeline())
return false;
s_post.ready = true;
const int32_t mode = settings::GetInt(settings::Id::Scaling);
fprintf(stderr, "[video] post-processing: %s, %s scaling%s%s\n", AaEnabled() ? "anti-aliasing" : "no anti-aliasing",
Bicubic() ? "bicubic" : "linear", Bicubic() ? std::format(", sharpen {:.2f}", Sharpen()).c_str() : "",
mode == int32_t(settings::ScalingMode::Fsr1) ? "FSR 1 (enlarging; else bicubic)" : Bicubic() ? "bicubic" : "linear",
mode != int32_t(settings::ScalingMode::Linear) ? std::format(", sharpen {:.2f}", Sharpen()).c_str() : "",
s_fastScale ? " (NFSMW_FAST_SCALE: 7 fetches)" : "");
return true;
}
@@ -1546,6 +1568,487 @@ void main()
return true;
}
// ---------------------------------------------------------------
// Settings > Graphics > Upscaling's FSR 1 (video/fsr1.h; when it is
// used: video/upscale.h): EASU (compute) from the anti-aliased frame
// into s_fsr.image, the picture's size on the screen, then RCAS
// (fragment) where the bicubic pass draws, with the tone table and
// then the UI after it as before. Made the first time a frame is
// enlarged with it; if that fails, those frames take the bicubic
// pass (logged once).
struct FsrState
{
bool tried = false, ready = false, toneTried = false;
VkDescriptorSetLayout easuSet = VK_NULL_HANDLE, rcasSet = VK_NULL_HANDLE;
VkPipelineLayout easuLayout = VK_NULL_HANDLE, rcasLayout = VK_NULL_HANDLE;
VkPipeline easu = VK_NULL_HANDLE;
VkShaderModule rcasFs = VK_NULL_HANDLE, rcasToneFs = VK_NULL_HANDLE;
VkPipeline rcas = VK_NULL_HANDLE, rcasTone = VK_NULL_HANDLE;
VkFormat rcasFormat = VK_FORMAT_UNDEFINED, rcasToneFormat = VK_FORMAT_UNDEFINED; // the swapchain's they were made for
// EASU's picture, the size of the picture on the screen.
VkImage image = VK_NULL_HANDLE;
VkDeviceMemory memory = VK_NULL_HANDLE;
VkImageView view = VK_NULL_HANDLE;
uint32_t width = 0, height = 0;
} s_fsr;
// The shaders' push constants (their P in video/fsr1.cpp).
struct EasuPush
{
uint32_t con[16]; // FsrEasuCon's con0..con3
int32_t band[4]; // the 16:9 band's columns x0..x1 and rows y0..y1 (video::BandOf)
int32_t outW, outH, srcW, srcH;
uint32_t bandOn;
};
static_assert(sizeof(EasuPush) == 100);
struct RcasPush
{
uint32_t con[4]; // FsrRcasCon's (con[0] 0: no sharpening)
int32_t band[4];
int32_t originX, originY, outW, outH, srcW, srcH;
uint32_t bandOn;
};
static_assert(sizeof(RcasPush) == 60);
bool EnsureFsr()
{
if (s_fsr.tried)
return s_fsr.ready;
s_fsr.tried = true;
auto start = std::chrono::steady_clock::now();
VkDescriptorSetLayoutBinding easuBindings[2] = {
{ 0, VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, 1, VK_SHADER_STAGE_COMPUTE_BIT, nullptr },
{ 1, VK_DESCRIPTOR_TYPE_STORAGE_IMAGE, 1, VK_SHADER_STAGE_COMPUTE_BIT, nullptr },
};
// RCAS: EASU's picture, and the tone table (its tone variant).
VkDescriptorSetLayoutBinding rcasBindings[2] = {
{ 0, VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, 1, VK_SHADER_STAGE_FRAGMENT_BIT, nullptr },
{ 1, VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, 1, VK_SHADER_STAGE_FRAGMENT_BIT, nullptr },
};
VkDescriptorSetLayoutCreateInfo dslci{ VK_STRUCTURE_TYPE_DESCRIPTOR_SET_LAYOUT_CREATE_INFO };
dslci.flags = VK_DESCRIPTOR_SET_LAYOUT_CREATE_PUSH_DESCRIPTOR_BIT_KHR;
dslci.bindingCount = 2;
dslci.pBindings = easuBindings;
VkDescriptorSetLayoutCreateInfo rcasDslci = dslci;
rcasDslci.pBindings = rcasBindings;
VkPushConstantRange easuRange{ VK_SHADER_STAGE_COMPUTE_BIT, 0, sizeof(EasuPush) };
VkPushConstantRange rcasRange{ VK_SHADER_STAGE_FRAGMENT_BIT, 0, sizeof(RcasPush) };
VkPipelineLayoutCreateInfo plci{ VK_STRUCTURE_TYPE_PIPELINE_LAYOUT_CREATE_INFO };
plci.setLayoutCount = 1;
plci.pSetLayouts = &s_fsr.easuSet;
plci.pushConstantRangeCount = 1;
plci.pPushConstantRanges = &easuRange;
VkPipelineLayoutCreateInfo rcasPlci = plci;
rcasPlci.pSetLayouts = &s_fsr.rcasSet;
rcasPlci.pPushConstantRanges = &rcasRange;
if (!Check(vkCreateDescriptorSetLayout(s_device, &dslci, nullptr, &s_fsr.easuSet), "FSR 1 EASU set layout") ||
!Check(vkCreateDescriptorSetLayout(s_device, &rcasDslci, nullptr, &s_fsr.rcasSet), "FSR 1 RCAS set layout") ||
!Check(vkCreatePipelineLayout(s_device, &plci, nullptr, &s_fsr.easuLayout), "FSR 1 EASU pipeline layout") ||
!Check(vkCreatePipelineLayout(s_device, &rcasPlci, nullptr, &s_fsr.rcasLayout), "FSR 1 RCAS pipeline layout"))
{
fprintf(stderr, "[video] FSR 1 is off: its pipeline layouts couldn't be made; bicubic upscaling instead\n");
return false;
}
VkShaderModule cs = PostModule(fsr1::EasuGlsl().c_str(), 2);
s_fsr.rcasFs = PostModule(fsr1::RcasGlsl().c_str(), 1);
if (!cs || !s_fsr.rcasFs)
{
fprintf(stderr, "[video] FSR 1 is off: its shaders didn't compile; bicubic upscaling instead\n");
return false;
}
VkComputePipelineCreateInfo cpci{ VK_STRUCTURE_TYPE_COMPUTE_PIPELINE_CREATE_INFO };
cpci.stage = { VK_STRUCTURE_TYPE_PIPELINE_SHADER_STAGE_CREATE_INFO, nullptr, 0, VK_SHADER_STAGE_COMPUTE_BIT, cs, "main", nullptr };
cpci.layout = s_fsr.easuLayout;
const bool made = Check(vkCreateComputePipelines(s_device, VK_NULL_HANDLE, 1, &cpci, nullptr, &s_fsr.easu), "FSR 1 EASU pipeline");
vkDestroyShaderModule(s_device, cs, nullptr);
if (!made)
{
fprintf(stderr, "[video] FSR 1 is off: its EASU pipeline couldn't be made; bicubic upscaling instead\n");
return false;
}
s_fsr.ready = true;
fprintf(stderr, "[video] FSR 1: EASU and RCAS compiled in %.0f ms\n",
std::chrono::duration<double, std::milli>(std::chrono::steady_clock::now() - start).count());
return true;
}
// RCAS's pipeline for the swapchain's format, plain or with the tone
// table (Brightness, the 360's display gamma); VK_NULL_HANDLE if it
// can't be made (the frame then takes the bicubic pass).
VkPipeline RcasPipeline(bool tone)
{
if (tone && !s_fsr.toneTried)
{
s_fsr.toneTried = true;
const std::string glsl = ToneVariant(fsr1::RcasGlsl().c_str());
s_fsr.rcasToneFs = glsl.empty() ? VK_NULL_HANDLE : PostModule(glsl.c_str(), 1);
if (!s_fsr.rcasToneFs)
fprintf(stderr, "[video] FSR 1: the RCAS shader with Brightness couldn't be made; bicubic upscaling while the tone is in use\n");
}
VkShaderModule fs = tone ? s_fsr.rcasToneFs : s_fsr.rcasFs;
VkPipeline& pipeline = tone ? s_fsr.rcasTone : s_fsr.rcas;
VkFormat& format = tone ? s_fsr.rcasToneFormat : s_fsr.rcasFormat;
if (!fs)
return VK_NULL_HANDLE;
if (pipeline && format == s_swapFormat)
return pipeline;
if (pipeline)
vkDestroyPipeline(s_device, pipeline, nullptr);
pipeline = MakeScalePipeline(fs, s_fsr.rcasLayout);
format = pipeline ? s_swapFormat : VK_FORMAT_UNDEFINED;
return pipeline;
}
void EnsureFsrImage(uint32_t width, uint32_t height)
{
if (s_fsr.image && s_fsr.width == width && s_fsr.height == height)
return;
WaitIdle();
if (s_fsr.image)
{
vkDestroyImageView(s_device, s_fsr.view, nullptr);
vkDestroyImage(s_device, s_fsr.image, nullptr);
vkFreeMemory(s_device, s_fsr.memory, nullptr);
}
VkImageCreateInfo ii{ VK_STRUCTURE_TYPE_IMAGE_CREATE_INFO };
ii.imageType = VK_IMAGE_TYPE_2D;
ii.format = VK_FORMAT_R8G8B8A8_UNORM;
ii.extent = { width, height, 1 };
ii.mipLevels = 1;
ii.arrayLayers = 1;
ii.samples = VK_SAMPLE_COUNT_1_BIT;
ii.tiling = VK_IMAGE_TILING_OPTIMAL;
ii.usage = VK_IMAGE_USAGE_STORAGE_BIT | VK_IMAGE_USAGE_SAMPLED_BIT;
vkCreateImage(s_device, &ii, nullptr, &s_fsr.image);
VkMemoryRequirements req;
vkGetImageMemoryRequirements(s_device, s_fsr.image, &req);
VkMemoryAllocateInfo ai{ VK_STRUCTURE_TYPE_MEMORY_ALLOCATE_INFO };
ai.allocationSize = req.size;
ai.memoryTypeIndex = FindMemoryType(req.memoryTypeBits, VK_MEMORY_PROPERTY_DEVICE_LOCAL_BIT);
vkAllocateMemory(s_device, &ai, nullptr, &s_fsr.memory);
vkBindImageMemory(s_device, s_fsr.image, s_fsr.memory, 0);
VkImageViewCreateInfo vci{ VK_STRUCTURE_TYPE_IMAGE_VIEW_CREATE_INFO };
vci.image = s_fsr.image;
vci.viewType = VK_IMAGE_VIEW_TYPE_2D;
vci.format = VK_FORMAT_R8G8B8A8_UNORM;
vci.subresourceRange = { VK_IMAGE_ASPECT_COLOR_BIT, 0, 1, 0, 1 };
vkCreateImageView(s_device, &vci, nullptr, &s_fsr.view);
s_fsr.width = width;
s_fsr.height = height;
}
// EASU: the w x h frame (scaleInput) enlarged to dw x dh in
// s_fsr.image, ready for RCAS's reads. Outside a rendering pass.
void RecordEasu(VkCommandBuffer cmd, VkImageView scaleInput, uint32_t w, uint32_t h, int32_t dw, int32_t dh,
const video::FrameBand& band, bool bandOn)
{
EnsureFsrImage(uint32_t(dw), uint32_t(dh));
// After the last frame's RCAS read it.
Barrier(cmd, s_fsr.image, VK_IMAGE_LAYOUT_UNDEFINED, VK_IMAGE_LAYOUT_GENERAL, VK_ACCESS_SHADER_READ_BIT,
VK_ACCESS_SHADER_WRITE_BIT, VK_PIPELINE_STAGE_FRAGMENT_SHADER_BIT, VK_PIPELINE_STAGE_COMPUTE_SHADER_BIT);
VkDescriptorImageInfo in{ s_post.sampler, scaleInput, VK_IMAGE_LAYOUT_GENERAL };
VkDescriptorImageInfo out{ VK_NULL_HANDLE, s_fsr.view, VK_IMAGE_LAYOUT_GENERAL };
VkWriteDescriptorSet writes[2] = {
{ VK_STRUCTURE_TYPE_WRITE_DESCRIPTOR_SET, nullptr, VK_NULL_HANDLE, 0, 0, 1, VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, &in, nullptr, nullptr },
{ VK_STRUCTURE_TYPE_WRITE_DESCRIPTOR_SET, nullptr, VK_NULL_HANDLE, 1, 0, 1, VK_DESCRIPTOR_TYPE_STORAGE_IMAGE, &out, nullptr, nullptr },
};
EasuPush pc{};
const std::array<uint32_t, 16> con = fsr1::EasuConstants(w, h, uint32_t(dw), uint32_t(dh));
std::copy(con.begin(), con.end(), pc.con);
pc.band[0] = band.x0;
pc.band[1] = band.x1;
pc.band[2] = band.y0;
pc.band[3] = band.y1;
pc.outW = dw;
pc.outH = dh;
pc.srcW = int32_t(w);
pc.srcH = int32_t(h);
pc.bandOn = bandOn ? 1u : 0u;
vkCmdBindPipeline(cmd, VK_PIPELINE_BIND_POINT_COMPUTE, s_fsr.easu);
s_post.pushDescriptorSet(cmd, VK_PIPELINE_BIND_POINT_COMPUTE, s_fsr.easuLayout, 0, 2, writes);
vkCmdPushConstants(cmd, s_fsr.easuLayout, VK_SHADER_STAGE_COMPUTE_BIT, 0, sizeof(pc), &pc);
vkCmdDispatch(cmd, (uint32_t(dw) + 7) / 8, (uint32_t(dh) + 7) / 8, 1);
Barrier(cmd, s_fsr.image, VK_IMAGE_LAYOUT_GENERAL, VK_IMAGE_LAYOUT_GENERAL, VK_ACCESS_SHADER_WRITE_BIT,
VK_ACCESS_SHADER_READ_BIT, VK_PIPELINE_STAGE_COMPUTE_SHADER_BIT, VK_PIPELINE_STAGE_FRAGMENT_SHADER_BIT);
}
// Inside a rendering pass on the swapchain image (or a capture's
// image of its format): the picture at dx, dy, dw x dh, by `pass`
// (FSR 1: RCAS over RecordEasu's image, with `rcas` its pipeline),
// through the tone table when `tone`.
void DrawPicture(VkCommandBuffer cmd, upscale::Pass pass, VkPipeline rcas, bool tone, VkImageView scaleInput, uint32_t w,
uint32_t h, const video::FrameBand& band, bool bandOn, int32_t dx, int32_t dy, int32_t dw, int32_t dh, float sharpen)
{
VkViewport viewport{ float(dx), float(dy), float(dw), float(dh), 0.0f, 1.0f };
VkRect2D scissor{ { dx, dy }, { uint32_t(dw), uint32_t(dh) } };
vkCmdSetViewport(cmd, 0, 1, &viewport);
vkCmdSetScissor(cmd, 0, 1, &scissor);
const bool fsr = pass == upscale::Pass::Fsr1;
const VkPipelineLayout layout = fsr ? s_fsr.rcasLayout : tone ? s_tone.layout : s_post.scaleLayout;
vkCmdBindPipeline(cmd, VK_PIPELINE_BIND_POINT_GRAPHICS, fsr ? rcas : tone ? s_tone.pipeline : s_post.scale);
VkDescriptorImageInfo in{ s_post.sampler, fsr ? s_fsr.view : scaleInput, VK_IMAGE_LAYOUT_GENERAL };
VkWriteDescriptorSet write{ VK_STRUCTURE_TYPE_WRITE_DESCRIPTOR_SET, nullptr, VK_NULL_HANDLE, 0, 0, 1,
VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, &in, nullptr, nullptr };
if (tone)
{
VkDescriptorImageInfo table{ s_post.sampler, s_tone.view, VK_IMAGE_LAYOUT_SHADER_READ_ONLY_OPTIMAL };
VkWriteDescriptorSet writes[2] = { write, write };
writes[1].dstBinding = 1;
writes[1].pImageInfo = &table;
s_post.pushDescriptorSet(cmd, VK_PIPELINE_BIND_POINT_GRAPHICS, layout, 0, 2, writes);
}
else
s_post.pushDescriptorSet(cmd, VK_PIPELINE_BIND_POINT_GRAPHICS, layout, 0, 1, &write);
if (fsr)
{
RcasPush pc{};
const std::array<uint32_t, 4> con = fsr1::RcasConstants(upscale::RcasStops(sharpen));
std::copy(con.begin(), con.end(), pc.con);
pc.band[0] = band.x0;
pc.band[1] = band.x1;
pc.band[2] = band.y0;
pc.band[3] = band.y1;
pc.originX = dx;
pc.originY = dy;
pc.outW = dw;
pc.outH = dh;
pc.srcW = int32_t(w);
pc.srcH = int32_t(h);
pc.bandOn = bandOn ? 1u : 0u;
vkCmdPushConstants(cmd, layout, VK_SHADER_STAGE_FRAGMENT_BIT, 0, sizeof(pc), &pc);
}
else
{
struct
{
float width, height, sharpen;
uint32_t bicubic;
float band[4];
uint32_t bandOn;
} pc = { float(w), float(h), sharpen, pass == upscale::Pass::Bicubic ? 1u : 0u,
{ float(band.x0), float(band.x1), float(band.y0), float(band.y1) }, bandOn ? 1u : 0u };
static_assert(sizeof(pc) == 36);
vkCmdPushConstants(cmd, layout, VK_SHADER_STAGE_FRAGMENT_BIT, 0, sizeof(pc), &pc);
}
vkCmdDraw(cmd, 3, 1, 0, 0);
}
// The pass a frame takes (video/upscale.h), FSR 1 only where its
// pipelines are ready (made here the first time); a line in the log
// when the pass or the sizes change.
upscale::Pass ChoosePass(bool tone, uint32_t w, uint32_t h, int32_t dw, int32_t dh, VkPipeline& rcas)
{
rcas = VK_NULL_HANDLE;
upscale::Pass pass = upscale::Choose(settings::GetInt(settings::Id::Scaling), w, h, dw, dh);
if (pass == upscale::Pass::Fsr1 && EnsureFsr())
rcas = RcasPipeline(tone);
if (pass == upscale::Pass::Fsr1 && !rcas)
pass = upscale::Pass::Bicubic;
static upscale::Pass lastPass = upscale::Pass::Linear;
static uint32_t lastW = 0, lastH = 0;
static int32_t lastDw = 0, lastDh = 0;
static int lines = 0;
if ((pass != lastPass || w != lastW || h != lastH || dw != lastDw || dh != lastDh) && lines < 32)
{
lines++;
const bool fsrChosen = settings::GetInt(settings::Id::Scaling) == int32_t(settings::ScalingMode::Fsr1);
fprintf(stderr, "[video] upscaling: %s, %ux%u -> %dx%d%s\n", upscale::PassName(pass), w, h, dw, dh,
pass == upscale::Pass::Fsr1 ? std::format(" (RCAS at {:.2f} of its strength)", upscale::RcasAmount(Sharpen())).c_str()
: !fsrChosen ? ""
: upscale::Enlarged(w, h, dw, dh) ? " (FSR 1 unavailable)" : " (FSR 1 only enlarges)");
}
lastPass = pass;
lastW = w;
lastH = h;
lastDw = dw;
lastDh = dh;
return pass;
}
// NFSMW_UPSCALE_COMPARE=<passes> (a diagnostic): with each
// NFSMW_CHECK_PRESENT_SEC capture, the same frame drawn again by each
// listed pass into an image of its own (the swapchain's size and
// format, without the UI), saved as
// build/present_check_<k>_<name>.ppm: side-by-sides of one frame.
// Passes: bicubic, linear, fsr1, each at Sharpening or with
// :<sharpening> (fsr1:0 is EASU alone). fsr1 where the frame isn't
// enlarged draws bicubic, as the setting does. "source": the frame
// the passes start from (after the anti-aliasing), at its own size
// (through the tone table when that is in use).
struct CompareEntry
{
std::string name;
int32_t mode;
float sharpen; // < 0: Sharpening's
bool source = false;
};
const std::vector<CompareEntry>& CompareList()
{
static const std::vector<CompareEntry> list = [] {
std::vector<CompareEntry> entries;
const char* v = std::getenv("NFSMW_UPSCALE_COMPARE");
std::string text = v ? v : "";
for (size_t at = 0; at < text.size();)
{
size_t end = text.find(',', at);
std::string item = text.substr(at, end == std::string::npos ? std::string::npos : end - at);
at = end == std::string::npos ? text.size() : end + 1;
std::string kind = item.substr(0, item.find(':'));
float sharpen = item.find(':') == std::string::npos ? -1.0f : std::strtof(item.c_str() + item.find(':') + 1, nullptr);
int32_t mode = kind == "fsr1" ? int32_t(upscale::Mode::Fsr1) : kind == "linear" || kind == "source" ? int32_t(upscale::Mode::Linear)
: kind == "bicubic" ? int32_t(upscale::Mode::Bicubic) : -1;
if (mode < 0)
{
fprintf(stderr, "[video] NFSMW_UPSCALE_COMPARE: \"%s\" isn't bicubic, linear, fsr1[:<sharpening>] or source\n", item.c_str());
continue;
}
std::string name = item;
std::replace(name.begin(), name.end(), ':', '-');
entries.push_back({ name, mode, sharpen, kind == "source" });
}
return entries;
}();
return list;
}
struct CompareShot
{
std::string name;
VkImage image = VK_NULL_HANDLE;
VkDeviceMemory memory = VK_NULL_HANDLE;
VkImageView view = VK_NULL_HANDLE;
VkBuffer buffer = VK_NULL_HANDLE;
VkDeviceMemory bufferMemory = VK_NULL_HANDLE;
uint32_t width = 0, height = 0;
};
// Records each listed pass's picture of this frame and its copy to
// the host. Outside a rendering pass.
std::vector<CompareShot> RecordCompare(VkCommandBuffer cmd, bool tone, VkImageView scaleInput, uint32_t w, uint32_t h,
const video::FrameBand& band, bool bandOn, int32_t dx, int32_t dy, int32_t dw, int32_t dh)
{
std::vector<CompareShot> shots;
for (const CompareEntry& entry : CompareList())
{
CompareShot shot;
shot.name = entry.name;
// The source: the frame image 1:1 (a bilinear fetch at each texel's centre).
shot.width = entry.source ? w : s_swapExtent.width;
shot.height = entry.source ? h : s_swapExtent.height;
const int32_t x = entry.source ? 0 : dx, y = entry.source ? 0 : dy;
const int32_t width = entry.source ? int32_t(w) : dw, height = entry.source ? int32_t(h) : dh;
VkImageCreateInfo ii{ VK_STRUCTURE_TYPE_IMAGE_CREATE_INFO };
ii.imageType = VK_IMAGE_TYPE_2D;
ii.format = s_swapFormat;
ii.extent = { shot.width, shot.height, 1 };
ii.mipLevels = 1;
ii.arrayLayers = 1;
ii.samples = VK_SAMPLE_COUNT_1_BIT;
ii.tiling = VK_IMAGE_TILING_OPTIMAL;
ii.usage = VK_IMAGE_USAGE_COLOR_ATTACHMENT_BIT | VK_IMAGE_USAGE_TRANSFER_SRC_BIT;
if (vkCreateImage(s_device, &ii, nullptr, &shot.image) != VK_SUCCESS)
break;
VkMemoryRequirements req;
vkGetImageMemoryRequirements(s_device, shot.image, &req);
VkMemoryAllocateInfo ai{ VK_STRUCTURE_TYPE_MEMORY_ALLOCATE_INFO };
ai.allocationSize = req.size;
ai.memoryTypeIndex = FindMemoryType(req.memoryTypeBits, VK_MEMORY_PROPERTY_DEVICE_LOCAL_BIT);
vkAllocateMemory(s_device, &ai, nullptr, &shot.memory);
vkBindImageMemory(s_device, shot.image, shot.memory, 0);
VkImageViewCreateInfo vci{ VK_STRUCTURE_TYPE_IMAGE_VIEW_CREATE_INFO };
vci.image = shot.image;
vci.viewType = VK_IMAGE_VIEW_TYPE_2D;
vci.format = s_swapFormat;
vci.subresourceRange = { VK_IMAGE_ASPECT_COLOR_BIT, 0, 1, 0, 1 };
vkCreateImageView(s_device, &vci, nullptr, &shot.view);
VkBufferCreateInfo bci{ VK_STRUCTURE_TYPE_BUFFER_CREATE_INFO };
bci.size = VkDeviceSize(shot.width) * shot.height * 4;
bci.usage = VK_BUFFER_USAGE_TRANSFER_DST_BIT;
vkCreateBuffer(s_device, &bci, nullptr, &shot.buffer);
vkGetBufferMemoryRequirements(s_device, shot.buffer, &req);
ai.allocationSize = req.size;
ai.memoryTypeIndex = FindMemoryType(req.memoryTypeBits, VK_MEMORY_PROPERTY_HOST_VISIBLE_BIT | VK_MEMORY_PROPERTY_HOST_COHERENT_BIT);
vkAllocateMemory(s_device, &ai, nullptr, &shot.bufferMemory);
vkBindBufferMemory(s_device, shot.buffer, shot.bufferMemory, 0);
VkPipeline rcas = VK_NULL_HANDLE;
upscale::Pass pass = upscale::Choose(entry.mode, w, h, width, height);
if (pass == upscale::Pass::Fsr1 && EnsureFsr())
rcas = RcasPipeline(tone);
if (pass == upscale::Pass::Fsr1 && !rcas)
pass = upscale::Pass::Bicubic;
if (pass == upscale::Pass::Fsr1)
RecordEasu(cmd, scaleInput, w, h, width, height, band, bandOn);
Barrier(cmd, shot.image, VK_IMAGE_LAYOUT_UNDEFINED, VK_IMAGE_LAYOUT_COLOR_ATTACHMENT_OPTIMAL, 0, VK_ACCESS_COLOR_ATTACHMENT_WRITE_BIT,
VK_PIPELINE_STAGE_TOP_OF_PIPE_BIT, VK_PIPELINE_STAGE_COLOR_ATTACHMENT_OUTPUT_BIT);
VkRenderingAttachmentInfoKHR color{ VK_STRUCTURE_TYPE_RENDERING_ATTACHMENT_INFO_KHR };
color.imageView = shot.view;
color.imageLayout = VK_IMAGE_LAYOUT_COLOR_ATTACHMENT_OPTIMAL;
color.loadOp = VK_ATTACHMENT_LOAD_OP_CLEAR;
color.storeOp = VK_ATTACHMENT_STORE_OP_STORE;
VkRenderingInfoKHR ri{ VK_STRUCTURE_TYPE_RENDERING_INFO_KHR };
ri.renderArea = { { 0, 0 }, { shot.width, shot.height } };
ri.layerCount = 1;
ri.colorAttachmentCount = 1;
ri.pColorAttachments = &color;
s_context.cmdBeginRendering(cmd, &ri);
DrawPicture(cmd, pass, rcas, tone, scaleInput, w, h, band, bandOn, x, y, width, height,
entry.sharpen >= 0.0f ? std::min(entry.sharpen, 1.0f) : Sharpen());
s_context.cmdEndRendering(cmd);
Barrier(cmd, shot.image, VK_IMAGE_LAYOUT_COLOR_ATTACHMENT_OPTIMAL, VK_IMAGE_LAYOUT_TRANSFER_SRC_OPTIMAL,
VK_ACCESS_COLOR_ATTACHMENT_WRITE_BIT, VK_ACCESS_TRANSFER_READ_BIT, VK_PIPELINE_STAGE_COLOR_ATTACHMENT_OUTPUT_BIT,
VK_PIPELINE_STAGE_TRANSFER_BIT);
VkBufferImageCopy region{};
region.imageSubresource = { VK_IMAGE_ASPECT_COLOR_BIT, 0, 0, 1 };
region.imageExtent = { shot.width, shot.height, 1 };
vkCmdCopyImageToBuffer(cmd, shot.image, VK_IMAGE_LAYOUT_TRANSFER_SRC_OPTIMAL, shot.buffer, 1, &region);
VkBufferMemoryBarrier hostRead{ VK_STRUCTURE_TYPE_BUFFER_MEMORY_BARRIER };
hostRead.srcAccessMask = VK_ACCESS_TRANSFER_WRITE_BIT;
hostRead.dstAccessMask = VK_ACCESS_HOST_READ_BIT;
hostRead.srcQueueFamilyIndex = hostRead.dstQueueFamilyIndex = VK_QUEUE_FAMILY_IGNORED;
hostRead.buffer = shot.buffer;
hostRead.size = VK_WHOLE_SIZE;
vkCmdPipelineBarrier(cmd, VK_PIPELINE_STAGE_TRANSFER_BIT, VK_PIPELINE_STAGE_HOST_BIT, 0, 0, nullptr, 1, &hostRead, 0, nullptr);
fprintf(stderr, "[video] NFSMW_UPSCALE_COMPARE: %s drawn by %s\n", entry.name.c_str(), upscale::PassName(pass));
shots.push_back(shot);
}
return shots;
}
// After the frame's fence: RecordCompare's pictures saved and freed.
void SaveCompare(std::vector<CompareShot>& shots, int captureIndex)
{
const bool bgr = s_swapFormat == VK_FORMAT_B8G8R8A8_UNORM || s_swapFormat == VK_FORMAT_B8G8R8A8_SRGB;
for (CompareShot& shot : shots)
{
void* mapped = nullptr;
const size_t pixels = size_t(shot.width) * shot.height;
if (vkMapMemory(s_device, shot.bufferMemory, 0, VkDeviceSize(pixels) * 4, 0, &mapped) == VK_SUCCESS)
{
std::string path = std::format("build/present_check_{}_{}.ppm", captureIndex, shot.name);
if (FILE* out = fopen(path.c_str(), "wb"))
{
fprintf(out, "P6\n%u %u\n255\n", shot.width, shot.height);
const uint8_t* px = static_cast<const uint8_t*>(mapped);
std::vector<uint8_t> rgb(pixels * 3);
for (size_t i = 0; i < pixels; i++)
for (int k = 0; k < 3; k++)
rgb[i * 3 + k] = px[i * 4 + (bgr ? 2 - k : k)];
fwrite(rgb.data(), 1, rgb.size(), out);
fclose(out);
fprintf(stderr, "[video] NFSMW_UPSCALE_COMPARE: saved %s\n", path.c_str());
}
vkUnmapMemory(s_device, shot.bufferMemory);
}
vkDestroyImageView(s_device, shot.view, nullptr);
vkDestroyImage(s_device, shot.image, nullptr);
vkFreeMemory(s_device, shot.memory, nullptr);
vkDestroyBuffer(s_device, shot.buffer, nullptr);
vkFreeMemory(s_device, shot.bufferMemory, nullptr);
}
shots.clear();
}
// Xenia's Tiled2D for 32x32-aligned pitches (texture_address.h).
uint32_t Tiled2D(uint32_t x, uint32_t y, uint32_t pitchAligned, uint32_t bppLog2)
{
@@ -1759,6 +2262,11 @@ void main()
fprintf(stderr, "[video] SDL_CreateWindow: %s\n", SDL_GetError());
return false;
}
#if defined(__APPLE__) && !TARGET_OS_IOS
// The title bar over the picture (platform/macos_window.h); a window
// made fullscreen gets it when it leaves fullscreen.
platform::macos::ConfigureWindow(s_window, !startFullscreen);
#endif
#if defined(__APPLE__) && TARGET_OS_IOS
platform::ios::WatchKeyboards(s_window);
#endif
@@ -2598,6 +3106,10 @@ void main()
platform::ios::PollBattery(); // every 5 seconds
#endif
ScriptedWindowSizes();
// SIGTERM, SIGINT, SIGHUP (platform/quit_signals.h): the window's
// way out, from the game, the installer or the startup error page.
if (quitsignals::Requested())
return false;
SDL_Event e;
while (SDL_PollEvent(&e))
{
@@ -2639,6 +3151,14 @@ void main()
fprintf(stderr, "[video] fullscreen %s by the system (the window's fullscreen button or menu, or the window "
"manager), for this session; the Fullscreen setting (%s) is unchanged and decides the next launch\n",
on ? "on" : "off", settings::GetBool(settings::Id::Fullscreen) ? "On" : "Off");
#if defined(__APPLE__) && !TARGET_OS_IOS
// SDL took the title bar off the picture for the fullscreen
// Space: back on here, in the event loop, after SDL's own
// callbacks (platform/macos_window.h says why not sooner).
int windowW = 0, windowH = 0;
if (!on && platform::macos::RestoreAfterFullscreen(s_window) && SDL_GetWindowSize(s_window, &windowW, &windowH))
fprintf(stderr, "[video] the title bar over the picture again (window %dx%d)\n", windowW, windowH);
#endif
}
}
// Without the queue lock: the command processor's submits take it,
@@ -2762,6 +3282,26 @@ void main()
s_postFrames++;
s_postAaNs += uint64_t(double(ts[1] - ts[0]) * s_timestampPeriod);
s_postNs += uint64_t(double(ts[2] - ts[0]) * s_timestampPeriod);
if (s_upscaleAb)
{
const int k = int(f.pass);
s_abFrames[k]++;
s_abNs[k] += uint64_t(double(ts[2] - ts[0]) * s_timestampPeriod);
s_abAaNs[k] += uint64_t(double(ts[1] - ts[0]) * s_timestampPeriod);
if ((s_abFrames[0] + s_abFrames[1] + s_abFrames[2]) % 600 == 0)
{
std::string text;
for (upscale::Pass pass : { upscale::Pass::Bicubic, upscale::Pass::Fsr1, upscale::Pass::Linear })
{
const int i = int(pass);
if (s_abFrames[i])
text += std::format(" | {}: {:.3f} ms (AA {:.3f} ms) over {} frames", upscale::PassName(pass),
double(s_abNs[i]) / 1e6 / double(s_abFrames[i]), double(s_abAaNs[i]) / 1e6 / double(s_abFrames[i]), s_abFrames[i]);
s_abFrames[i] = s_abNs[i] = s_abAaNs[i] = 0;
}
fprintf(stderr, "[upscale-ab] post-processing GPU per frame%s\n", text.c_str());
}
}
}
f.timed = false;
}
@@ -2838,6 +3378,7 @@ void main()
VkDeviceMemory captureMemory = VK_NULL_HANDLE;
VkDeviceSize captureSize = 0;
int captureIndex = -1;
std::vector<CompareShot> compareShots; // NFSMW_UPSCALE_COMPARE
// Letterbox to the source aspect ratio; or, on a screen of another
// shape with Aspect Ratio on Auto, fill it (video/picture_fit): the
// game draws that frame with its view widened (a wider screen, Hor+)
@@ -2963,6 +3504,16 @@ void main()
// with the gamma off, and then the scale pass below is exactly as
// before.
const bool tone = scaleInput && PrepareTone(cmd);
// The pass that draws the picture (video/upscale.h): FSR 1's
// EASU first, outside the swapchain image's pass.
VkPipeline rcas = VK_NULL_HANDLE;
upscale::Pass pass = scaleInput ? ChoosePass(tone, w, h, dw, dh, rcas) : upscale::Pass::Bicubic;
static uint64_t abCount = 0;
if (s_upscaleAb && pass == upscale::Pass::Fsr1 && (abCount++ & 1))
pass = upscale::Pass::Bicubic;
f.pass = pass;
if (scaleInput && pass == upscale::Pass::Fsr1)
RecordEasu(cmd, scaleInput, w, h, dw, dh, band, bandOn);
Barrier(cmd, dst, VK_IMAGE_LAYOUT_UNDEFINED, VK_IMAGE_LAYOUT_COLOR_ATTACHMENT_OPTIMAL, 0,
VK_ACCESS_COLOR_ATTACHMENT_WRITE_BIT, VK_PIPELINE_STAGE_COLOR_ATTACHMENT_OUTPUT_BIT, VK_PIPELINE_STAGE_COLOR_ATTACHMENT_OUTPUT_BIT);
VkRenderingAttachmentInfoKHR color{ VK_STRUCTURE_TYPE_RENDERING_ATTACHMENT_INFO_KHR };
@@ -2980,37 +3531,7 @@ void main()
s_context.cmdBeginRendering(cmd, &ri);
if (scaleInput)
{
VkViewport viewport{ float(dx), float(dy), float(dw), float(dh), 0.0f, 1.0f };
VkRect2D scissor{ { dx, dy }, { uint32_t(dw), uint32_t(dh) } };
vkCmdSetViewport(cmd, 0, 1, &viewport);
vkCmdSetScissor(cmd, 0, 1, &scissor);
vkCmdBindPipeline(cmd, VK_PIPELINE_BIND_POINT_GRAPHICS, tone ? s_tone.pipeline : s_post.scale);
VkDescriptorImageInfo in{ s_post.sampler, scaleInput, VK_IMAGE_LAYOUT_GENERAL };
VkWriteDescriptorSet write{ VK_STRUCTURE_TYPE_WRITE_DESCRIPTOR_SET, nullptr, VK_NULL_HANDLE, 0, 0, 1,
VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, &in, nullptr, nullptr };
const VkPipelineLayout scaleLayout = tone ? s_tone.layout : s_post.scaleLayout;
if (tone)
{
VkDescriptorImageInfo table{ s_post.sampler, s_tone.view, VK_IMAGE_LAYOUT_SHADER_READ_ONLY_OPTIMAL };
VkWriteDescriptorSet writes[2] = { write, write };
writes[1].dstBinding = 1;
writes[1].pImageInfo = &table;
s_post.pushDescriptorSet(cmd, VK_PIPELINE_BIND_POINT_GRAPHICS, scaleLayout, 0, 2, writes);
}
else
s_post.pushDescriptorSet(cmd, VK_PIPELINE_BIND_POINT_GRAPHICS, s_post.scaleLayout, 0, 1, &write);
bool bicubic = Bicubic();
struct
{
float width, height, sharpen;
uint32_t bicubic;
float band[4];
uint32_t bandOn;
} pc = { float(w), float(h), Sharpen(), bicubic ? 1u : 0u, { float(band.x0), float(band.x1), float(band.y0), float(band.y1) },
bandOn ? 1u : 0u };
static_assert(sizeof(pc) == 36);
vkCmdPushConstants(cmd, scaleLayout, VK_SHADER_STAGE_FRAGMENT_BIT, 0, sizeof(pc), &pc);
vkCmdDraw(cmd, 3, 1, 0, 0);
DrawPicture(cmd, pass, rcas, tone, scaleInput, w, h, band, bandOn, dx, dy, dw, dh, Sharpen());
if (!captures.empty() && pictureRect.extent.width)
{
// The game's picture alone: pause the pass, copy it out,
@@ -3099,6 +3620,8 @@ void main()
else
Barrier(cmd, dst, VK_IMAGE_LAYOUT_COLOR_ATTACHMENT_OPTIMAL, VK_IMAGE_LAYOUT_PRESENT_SRC_KHR,
VK_ACCESS_COLOR_ATTACHMENT_WRITE_BIT, 0, VK_PIPELINE_STAGE_COLOR_ATTACHMENT_OUTPUT_BIT, VK_PIPELINE_STAGE_BOTTOM_OF_PIPE_BIT);
if (captureIndex >= 0 && scaleInput)
compareShots = RecordCompare(cmd, tone, scaleInput, w, h, band, bandOn, dx, dy, dw, dh);
if (post && !gpuImage)
Barrier(cmd, s_source, VK_IMAGE_LAYOUT_GENERAL, VK_IMAGE_LAYOUT_TRANSFER_SRC_OPTIMAL, VK_ACCESS_SHADER_READ_BIT,
VK_ACCESS_TRANSFER_WRITE_BIT, VK_PIPELINE_STAGE_FRAGMENT_SHADER_BIT | VK_PIPELINE_STAGE_COMPUTE_SHADER_BIT, VK_PIPELINE_STAGE_TRANSFER_BIT);
@@ -3233,7 +3756,7 @@ void main()
if (s_presentTiming && (present == VK_SUCCESS || present == VK_SUBOPTIMAL_KHR))
{
std::lock_guard lock(s_timingMutex);
s_timings.push_back({ id, s_swapchain, presented, frameVblank });
s_timings.push_back({ id, s_swapchainGeneration, presented, frameVblank });
s_timingCv.notify_one();
}
s_lastPresent = std::chrono::steady_clock::now();
@@ -3275,6 +3798,11 @@ void main()
vkDestroyBuffer(s_device, captureBuffer, nullptr);
vkFreeMemory(s_device, captureMemory, nullptr);
}
if (!compareShots.empty())
{
vkWaitForFences(s_device, 1, &f.inFlight, VK_TRUE, UINT64_MAX);
SaveCompare(compareShots, captureIndex);
}
// The next frame's CheckSwapchain builds again (before its acquire).
if (present == VK_ERROR_OUT_OF_DATE_KHR || present == VK_SUBOPTIMAL_KHR)
s_swapPolicy.Reported(present == VK_ERROR_OUT_OF_DATE_KHR ? SurfaceResult::OutOfDate : SurfaceResult::Suboptimal);
@@ -3444,10 +3972,12 @@ void main()
s_uiReady = false;
}
hid::Shutdown(); // a rumble under way would otherwise carry on
{
std::lock_guard wait(s_waitSwapchainMutex); // the present waiter is off the swapchain
s_waitSwapchain = VK_NULL_HANDLE;
}
s_swapchainUse.Retire(); // the present waiter is off the swapchain, and stays off
// Then the title bar's styling lets go of the window (Retire first:
// nothing presents to it while it is taken apart), then SDL frees it.
#if defined(__APPLE__) && !TARGET_OS_IOS
platform::macos::ForgetWindow(s_window);
#endif
if (s_window)
SDL_DestroyWindow(s_window);
// No SDL_Quit: the process exits next, and the game's audio thread
+77
View File
@@ -0,0 +1,77 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING).
//
// The swapchain the present waiter's thread may use, against the main thread
// destroying it and creating another (video/presenter.cpp).
//
// The waiter (PresentWaiter) waits for each present to reach the screen
// (vkWaitForPresentKHR) and, on a Mac showing frames at a time, reads the
// driver's reports on the presents shown (vkGetPastPresentationTimingGOOGLE,
// for present_schedule.h's watchdog). Both take the swapchain. The main
// thread destroys it and makes another whenever the surface changes: a
// fullscreen toggle, a resize, V-Sync. In v0.1.4 and v0.1.5 the wait looked
// at the swapchain under a mutex, but the reports were read after it,
// outside it: when the main thread destroyed the swapchain in between,
// MoltenVK read a freed swapchain and the game aborted ("mutex lock failed"
// in vkGetPastPresentationTimingGOOGLE: a MacBook's 120 Hz panel, the
// default settings, fullscreen toggled again and again). The reports had
// been read that way only for NFSMW_VBLANK_LOG until v0.1.4's watchdog read
// them every frame.
//
// Every use of the swapchain off the main thread goes through Use(), which
// runs it only while the swapchain it is for is still the one published, and
// holds Retire() off until it returns. Retire() (before the swapchain is
// destroyed) returns once no use is under way, and none starts after it.
// Uses name the swapchain by its generation, not its handle: a new swapchain
// may get a destroyed one's handle (MoltenVK's and Mesa's are pointers), and
// a present to the old one must not be waited for on the new one.
//
// Header only (tests/swapchain_use_test.cpp).
#pragma once
#include <cstdint>
#include <mutex>
namespace video
{
template <typename Handle>
class SwapchainUse
{
public:
// Main thread, once `swapchain` is made: uses may take it from now
// on. Its generation (never 0), which they name it by.
uint64_t Publish(Handle swapchain)
{
std::lock_guard lock(m_mutex);
m_swapchain = swapchain;
m_generation = ++m_lastGeneration;
return m_generation;
}
// Main thread, before the published swapchain is destroyed: on
// return no use of it is under way, and none will start.
void Retire()
{
std::lock_guard lock(m_mutex);
m_swapchain = Handle{};
m_generation = 0;
}
// Any thread: use(swapchain) if `generation` is still the published
// one, with Retire() held off until it returns. False: that
// swapchain is gone (or about to be), and `use` didn't run.
template <typename F>
bool Use(uint64_t generation, F&& use)
{
std::lock_guard lock(m_mutex);
if (generation == 0 || generation != m_generation)
return false;
use(m_swapchain);
return true;
}
private:
std::mutex m_mutex;
Handle m_swapchain{};
uint64_t m_generation = 0; // the published one's; 0: none
uint64_t m_lastGeneration = 0;
};
}
+77
View File
@@ -0,0 +1,77 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING).
//
// Which pass draws the game's picture into the window (video/presenter.cpp),
// and Settings > Graphics > Sharpening as FSR 1's RCAS strength. Pure
// functions, for tests/upscale_test.cpp.
//
// Settings > Graphics > Upscaling: Bicubic (Catmull-Rom, sharpened and
// clamped to the 2x2 texels around each sample), Bilinear, or FSR 1 (AMD
// FidelityFX Super Resolution 1: EASU, an edge-adaptive Lanczos-like
// upscale, then RCAS, a contrast-adaptive sharpening pass; video/fsr1.h).
// FSR 1 is made for enlarging (AMD: 1x to 4x the pixels): it is used only
// when the picture on the screen is larger than the frame image, along one
// axis or both, and smaller along neither (1x Internal Resolution on a
// 1080p, 1440p or MacBook screen; the Steam Deck's 720 rows stretched to
// 800). A frame shown at its own size, or shrunk (2x on a 1080p screen),
// takes the bicubic pass exactly as before FSR 1 existed.
#pragma once
#include <algorithm>
#include <cmath>
#include <cstdint>
namespace video::upscale
{
// Settings > Graphics > Upscaling's values (settings::ScalingMode).
enum class Mode : int32_t { Bicubic = 0, Linear = 1, Fsr1 = 2 };
enum class Pass : uint8_t { Linear, Bicubic, Fsr1 };
inline const char* PassName(Pass pass)
{
return pass == Pass::Fsr1 ? "FSR 1" : pass == Pass::Bicubic ? "bicubic" : "bilinear";
}
// The picture enlarged: dstW x dstH (its place on the screen) is larger
// than the srcW x srcH image along one axis and smaller along neither.
inline bool Enlarged(uint32_t srcW, uint32_t srcH, int32_t dstW, int32_t dstH)
{
if (!srcW || !srcH || dstW <= 0 || dstH <= 0)
return false;
const bool notSmaller = uint32_t(dstW) >= srcW && uint32_t(dstH) >= srcH;
return notSmaller && (uint32_t(dstW) > srcW || uint32_t(dstH) > srcH);
}
// The pass for this frame. An unknown mode is bicubic, the default.
inline Pass Choose(int32_t mode, uint32_t srcW, uint32_t srcH, int32_t dstW, int32_t dstH)
{
switch (Mode(mode))
{
case Mode::Linear:
return Pass::Linear;
case Mode::Fsr1:
return Enlarged(srcW, srcH, dstW, dstH) ? Pass::Fsr1 : Pass::Bicubic;
default:
return Pass::Bicubic;
}
}
// Sharpening (0..1, default 0.3) for RCAS: the strength AMD's FsrRcasCon
// takes as stops below its maximum (0: the most it sharpens, each stop
// half as much), here as the linear factor it becomes (2^-stops), which
// multiplies RCAS's sharpening lobe: Sharpening 1 is RCAS's maximum,
// 0.5 half of it, and 0 turns RCAS off (EASU's picture as it is), as 0
// turns bicubic's sharpening off.
inline float RcasAmount(float sharpening)
{
if (!(sharpening > 0.0f)) // 0, negative or NaN
return 0.0f;
return std::min(sharpening, 1.0f);
}
// The same as FsrRcasCon's stops (infinity: off).
inline float RcasStops(float sharpening)
{
const float amount = RcasAmount(sharpening);
return amount > 0.0f ? -std::log2(amount) : INFINITY;
}
}
+1 -1
View File
@@ -100,7 +100,7 @@ MAC = platform.system() == 'Darwin'
RACE = '8-26/2:START,30-130/4:DOWN,31-131/4:A,32.5-132.5/4:START,145:A'
# The menu's pages and rows (runtime/user/settings.cpp, hidden rows left out).
PAGES = ['Display', 'Graphics', 'Audio', 'Input', 'Advanced']
PAGES = ['Display', 'Graphics', 'Audio', 'Input', 'Controls', 'Advanced']
ROWS = {
'Display': ['video.fullscreen', 'video.vsync', 'video.frame_rate', 'video.aspect_ratio', 'video.brightness',
'video.xbox_display_gamma'],
+72 -3
View File
@@ -30,9 +30,15 @@ sb_test(depth_only_test ARGS ${RT}/gpu/renderer.cpp)
# and the scaled resolve memory's layout (gpu/render_scale.h, header only);
# renderer.cpp is read to check its scaled-memory shaders use it.
sb_test(render_scale_test ARGS ${RT}/gpu/renderer.cpp)
# The police vid-cam's side bars and the fill past the 16:9 band
# (gpu/edge_bars.h, header only).
# The police vid-cam's side bars, the intro's black frames, the results
# screen's backdrop and what fills the screen round them (gpu/edge_bars.h,
# header only).
sb_test(edge_bars_test)
# GitHub #19's menu borders (gpu/edge_bars.h, header only): the Showcase's
# vignette stretched to the screen's edges, the Blacklist bio's black panel
# filled all round, at every screen shape; renderer.cpp is read to check it
# asks for and applies the plans on both paths.
sb_test(menu_borders_test ARGS ${RT}/gpu/renderer.cpp)
# A saved pipeline cache from another GPU, driver or OS version, and the log
# line that says so (gpu/pipeline_cache_header.h, header only).
sb_test(pipeline_cache_header_test)
@@ -44,8 +50,33 @@ sb_test(gpu_choice_test)
# video::FitPicture's pictures.
sb_test(glare_fit_test SOURCES ${RT}/video/picture_fit.cpp)
# The post-processing's split at the 16:9 band's edge (video/band_filter.h,
# video::BandOf) against the edge-bar fills and a model of the filters.
# video::BandOf) against the edge-bar fills and a model of the filters
# (FSR 1's EASU taps and RCAS neighbours too).
sb_test(band_filter_test SOURCES ${RT}/video/picture_fit.cpp)
# Settings > Graphics > Upscaling's FSR 1: which pass draws a frame
# (video/upscale.h, header only, on video::FitPicture's pictures), Sharpening
# as RCAS's strength, the constants against AMD's formulas, and the shaders'
# GLSL (video/fsr1.cpp, with runtime/generated/fsr1_headers.inc): AMD's
# headers compiled in unchanged, the band rules in their code, the
# presenter's use of them. It writes the GLSL to fsr1_glsl for the check
# after it.
sb_test(fsr1_test SOURCES ${RT}/video/fsr1.cpp ${RT}/video/picture_fit.cpp
ARGS ${RT}/thirdparty/fsr1 ${RT}/video ${CMAKE_CURRENT_BINARY_DIR}/fsr1_glsl)
target_include_directories(fsr1_test PRIVATE ${CMAKE_BINARY_DIR}/runtime/generated)
# Those shaders compiled to SPIR-V for Vulkan, as the game's glslang does
# (only where glslangValidator is installed).
find_program(SB_GLSLANG_VALIDATOR glslangValidator)
if(SB_GLSLANG_VALIDATOR)
foreach(shader easu.comp rcas.frag rcas_tone.frag)
add_test(NAME fsr1_glsl_check_${shader} COMMAND ${SB_GLSLANG_VALIDATOR} -V --target-env vulkan1.1
${CMAKE_CURRENT_BINARY_DIR}/fsr1_glsl/${shader} -o ${CMAKE_CURRENT_BINARY_DIR}/fsr1_glsl/${shader}.spv)
set_tests_properties(fsr1_glsl_check_${shader} PROPERTIES DEPENDS fsr1_test)
endforeach()
endif()
# Upscaling's values in settings.toml (user/settings.cpp as the game links
# it): "fsr1" read, saved and read back, the environment's override, an
# unknown value; in a scratch folder.
sb_test(settings_scaling_test SOURCES ${RT}/user/settings.cpp ARGS ${CMAKE_CURRENT_BINARY_DIR}/settings_scaling_scratch)
# Internal Resolution Auto's budget on iPhones and iPads, chip by chip
# (video/scale_budget.cpp), and the scale it makes on the phones' screens.
sb_test(scale_budget_test SOURCES ${RT}/video/scale_budget.cpp ${RT}/video/picture_fit.cpp)
@@ -63,6 +94,16 @@ sb_test(vblank_timer_test SOURCES ${RT}/video/vblank_timer.cpp)
# When the Mac shows a new frame at a set time after its vblank, and the
# watchdog that turns it off (video/present_schedule.h, header only).
sb_test(present_schedule_test)
# The audio render callback's cadence against the output device
# (apu/audio_cadence.h, header only): a device that stops taking audio
# doesn't stop the game's sound (GitHub issue #20: the sound stopped for good,
# then the game hung after the race), and a working one is followed as before.
sb_test(audio_cadence_test)
# The present waiter uses a swapchain only while it is the current one, and
# none is destroyed under such a use (video/swapchain_use.h, header only):
# fake swapchains destroyed and made again under a waiting thread; presenter.cpp
# is read to check every waiter call that takes a swapchain is inside a use.
sb_test(swapchain_use_test ARGS ${RT}/video/presenter.cpp)
sb_test(frame_rate_policy_test SOURCES ${RT}/video/frame_rate_policy.cpp)
# When the presenter builds its swapchain again and at what size (an iPhone's
# view turned portrait by SDL, sizes seen while inactive, SUBOPTIMAL), and the
@@ -137,6 +178,25 @@ sb_test(memory_status_test SOURCES ${RT}/kernel/memory_status.cpp ${RT}/platform
# The version line in the log, and when the "What's new" note shows
# (user/version_check.h, header only).
sb_test(version_check_test)
# The keys a Controls row can hold and their names in settings.toml
# (user/key_names.h, header only), each row against SDL's scancode name.
# The only test that links SDL3, so it keeps the build tree's path to it even
# with -DCMAKE_SKIP_BUILD_RPATH=ON: the Steam Frame's cmake line
# (scripts/steamos/README.md) keeps ~/deps/sdl3/lib out of the game that
# way, and ctest runs the tests without LD_LIBRARY_PATH, so this one couldn't
# load libSDL3 there (v0.1.5). Only this test: the game's own rpath is
# unchanged (none on the Frame).
find_package(SDL3 REQUIRED CONFIG)
sb_test(key_names_test)
target_link_libraries(key_names_test PRIVATE SDL3::SDL3)
set_target_properties(key_names_test PROPERTIES SKIP_BUILD_RPATH OFF)
# The Key options (Settings > Controls): the table, the [keys] names in the
# file, and what Set accepts (user/settings.cpp and the toml++ XenonRecomp
# vendors; no SDL).
sb_test(settings_keys_test SOURCES ${RT}/user/settings.cpp)
target_include_directories(settings_keys_test SYSTEM PRIVATE ${ROOT}/tools/XenonRecomp/thirdparty/tomlplusplus/include)
# The keyboard's controls and how held keys become a pad (hid/key_map.h), header only.
sb_test(key_map_test)
# Check for Updates' logic: versions, GitHub's JSON, curl's output and the
# release notes (update/check.cpp, self-contained).
sb_test(update_check_test SOURCES ${RT}/update/check.cpp)
@@ -145,6 +205,15 @@ sb_test(update_check_test SOURCES ${RT}/update/check.cpp)
# is read: the button and prompt gated, the focus on Cancel, B and Escape
# cancelling, and the quit taking the window close's way out.
sb_test(quit_game_test ARGS ${RT})
# A requested termination (SIGTERM: a launcher's stop, a shutdown, kill;
# SIGINT; SIGHUP) quits as the window's close button does, and only a session that
# didn't end cleanly leaves its crash marker (platform/quit_signals.h,
# report/crash_marker.h, header only): signals in child processes, the marker
# in a scratch folder, SIGTERM vs SIGKILL end to end; main.cpp, presenter.cpp
# and crash.cpp are read to check the quit paths use them. POSIX only (fork).
if(NOT WIN32)
sb_test(clean_exit_test ARGS ${CMAKE_CURRENT_BINARY_DIR}/clean_exit_scratch ${RT})
endif()
# The jump tables XenonRecomp makes switches of (config/switch_tables.toml)
# against the leaf functions' bounds (config/nfsmw.toml): no label or default
# outside its function, and the tables a borrowed bounds check broke (the
+268
View File
@@ -0,0 +1,268 @@
// SpeedBreaker runtime. GPL-3.0-or-later (see COPYING).
//
// audio_cadence_test: the render callback's cadence against the output
// device (apu/audio_cadence.h), run against a simulated device that takes
// `pull` frames every `pull` ticks of its own clock (as a 1024-sample buffer
// takes 4 frames of 256), a little or a lot fast or slow, or that stops
// taking audio.
// 1. GitHub issue #20: a device that stops taking audio for good. The game's
// sound (its render callback) carries on at real time once the device
// has taken nothing for StallTicks; every frame is dropped from then on,
// so the queue is held. The cadence as it was up to v0.1.5 rendered
// nothing from the moment the queue filled up: that is checked too, as
// the bug's model.
// 2. A device that takes audio, from 5% slow to 5% fast (SDL's dummy driver
// runs ~3% slow), with pulls of 1 to 16 frames: never a stall, nothing
// dropped, and frame for frame what the v0.1.5 cadence rendered, for 10
// minutes.
// 3. A device that stalls for 2 s and takes audio again: the stall ends at
// its first pull, the stale queue is cleared, and the queue is back at
// its target within a second, nothing dropped after.
// 4. A route change to a larger buffer (Bluetooth headphones: target 8 ->
// 32 frames, pulls of 16): as before, frame for frame.
// 5. The stall threshold: StallTicks idle ticks, not one fewer.
// Build by hand: c++ -std=c++20 -O2 -I runtime tests/audio_cadence_test.cpp -o /tmp/audio_cadence_test
#include <apu/audio_cadence.h>
#include <cstdio>
#include <cstdlib>
#include <string>
namespace
{
int s_failed = 0;
void Check(bool ok, const std::string& what)
{
if (!ok)
{
s_failed++;
fprintf(stderr, "FAIL: %s\n", what.c_str());
}
}
// The cadence up to v0.1.5 (apu/audio.cpp): one frame more or less when
// the queue strays more than 2 frames from its target, nothing else.
int OldFrames(int queued, int target)
{
return queued > target + 2 ? 0 : queued < target - 2 ? 2 : 1;
}
struct Device
{
int pull = 4; // frames taken at once
double rate = 1.0; // its clock against ours
bool taking = true;
double due = 0; // ticks of its clock until its next pull
// One tick: what it takes from a queue of `queued` frames.
int Take(int queued)
{
if (!taking)
return 0;
int took = 0;
for (due -= rate; due <= 0; due += pull)
took += std::min(queued - took, pull);
return took;
}
};
struct Sim
{
apu::AudioCadence cadence;
bool oldRule = false;
int target = 8;
int queued = 0;
int lastFrames = 0;
long long rendered = 0, dropped = 0, taken = 0;
int maxQueued = 0;
// One tick (5.33 ms): the device takes what it takes, then the
// render thread renders.
void Tick(Device& d)
{
const int took = d.Take(queued);
queued -= took;
taken += took;
const int frames = oldRule ? OldFrames(queued, target) : cadence.Frames(queued, target);
if (!oldRule && cadence.Resumed())
queued = 0; // audio.cpp clears the stale audio
for (int i = 0; i < frames; i++)
{
rendered++;
if (!oldRule && cadence.Stalled())
dropped++;
else
queued++;
}
lastFrames = frames;
maxQueued = std::max(maxQueued, queued);
}
};
constexpr long long kTicksPerSecond = 48000 / 256; // 187.5 -> 187
void DeviceStopsForGood(bool oldRule)
{
Sim s;
s.oldRule = oldRule;
Device d;
for (int i = 0; i < 1000; i++) // ~5 s of normal play
s.Tick(d);
d.taking = false;
const long long before = s.rendered;
const long long ticks = 60 * kTicksPerSecond; // a minute of a device that takes nothing
for (long long i = 0; i < ticks; i++)
s.Tick(d);
const long long rendered = s.rendered - before;
if (oldRule)
{
// The bug's model: once the queue is over its target, no render
// at all, so the game's mixer never runs again (#20).
Check(rendered <= 8, "old rule: a stalled device stops the render callback (rendered " + std::to_string(rendered) + ")");
return;
}
// Before the stall shows, the queue sits over its target and frames
// are skipped (as before); from then on, one a tick.
const long long allowed = apu::AudioCadence::StallTicks(s.target) + 1;
Check(rendered >= ticks - allowed, "a stalled device: the game's sound carries on at real time (rendered " +
std::to_string(rendered) + " of " + std::to_string(ticks) + " ticks)");
Check(s.cadence.Stalled() && s.cadence.Stalls() == 1, "a stalled device is one stall, still on");
Check(s.maxQueued <= s.target + apu::AudioCadence::kSlack + 2,
"a stalled device: the queue is held (max " + std::to_string(s.maxQueued) + ")");
Check(s.dropped >= rendered - (s.target + apu::AudioCadence::kSlack + 2),
"a stalled device: what it can't take is dropped (dropped " + std::to_string(s.dropped) + ")");
}
// A device that takes audio: the cadence renders frame for frame what
// the v0.1.5 one did, and never sees a stall.
void TakesAudio(double rate, int pull, int target, long long ticks)
{
Sim s, old;
old.oldRule = true;
s.target = old.target = target;
Device d, od;
d.rate = od.rate = rate;
d.pull = od.pull = pull;
long long differ = 0;
for (long long i = 0; i < ticks; i++)
{
s.Tick(d);
old.Tick(od);
differ += s.lastFrames != old.lastFrames;
}
const std::string what = "a device at " + std::to_string(rate) + "x, pulls of " + std::to_string(pull) + ", target " +
std::to_string(target) + ": ";
Check(s.cadence.Stalls() == 0 && s.dropped == 0, what + "no stall, nothing dropped (" + std::to_string(s.cadence.Stalls()) +
" stalls, " + std::to_string(s.dropped) + " dropped)");
Check(differ == 0, what + "rendered as v0.1.5 did, frame for frame (" + std::to_string(differ) + " ticks differ)");
Check(s.rendered == s.taken + s.queued, what + "rendered = taken + queued");
}
void StallsAndResumes()
{
Sim s;
Device d;
for (int i = 0; i < 1000; i++)
s.Tick(d);
d.taking = false;
int stalledAt = -1;
for (long long i = 0; i < 2 * kTicksPerSecond; i++)
{
s.Tick(d);
if (stalledAt < 0 && s.cadence.Stalled())
stalledAt = int(i);
}
Check(stalledAt == apu::AudioCadence::StallTicks(s.target) - 1, "the stall shows after StallTicks idle ticks (" +
std::to_string(stalledAt + 1) + ")");
Check(s.dropped > 0, "a 2 s stall drops frames");
d.taking = true;
long long droppedAtResume = -1;
int over = -1, back = -1;
for (long long i = 0; i < 60 * kTicksPerSecond; i++)
{
s.Tick(d);
if (over < 0 && !s.cadence.Stalled())
{
over = int(i);
droppedAtResume = s.dropped;
s.maxQueued = 0;
}
if (over >= 0 && back < 0 && s.queued >= s.target - apu::AudioCadence::kSlack - d.pull &&
s.queued <= s.target + apu::AudioCadence::kSlack)
back = int(i);
}
Check(over >= 0 && over <= d.pull, "the stall ends at the device's first pull (" + std::to_string(over) + " ticks)");
Check(!s.cadence.Stalled() && s.cadence.Stalls() == 1, "one stall, over");
Check(back >= 0 && back <= kTicksPerSecond, "the queue is back at its target within a second (" + std::to_string(back) + " ticks)");
Check(s.dropped == droppedAtResume, "nothing dropped once the device takes audio again");
Check(s.maxQueued <= s.target + apu::AudioCadence::kSlack + 2, "no stale audio left after the stall (max queue " +
std::to_string(s.maxQueued) + ")");
}
void RouteToLargerBuffer()
{
Sim s, old;
old.oldRule = true;
Device d, od;
for (int i = 0; i < 1000; i++)
{
s.Tick(d);
old.Tick(od);
}
// Bluetooth headphones: a 4096-sample buffer (16 frames), target 32.
s.target = old.target = 32;
d.pull = od.pull = 16;
long long differ = 0;
for (long long i = 0; i < 60 * kTicksPerSecond; i++)
{
s.Tick(d);
old.Tick(od);
differ += s.lastFrames != old.lastFrames;
}
Check(differ == 0 && s.cadence.Stalls() == 0 && s.dropped == 0,
"a route change to a larger buffer: as before, frame for frame (" + std::to_string(differ) + " ticks differ)");
}
void StallThreshold()
{
using C = apu::AudioCadence;
for (int target : { 4, 8, 32 })
{
// A queue over its target that stays put: nothing rendered, and
// the device takes nothing.
const int queued = target + C::kSlack + 1;
C c;
c.Frames(queued, target);
for (int idle = 1; idle < C::StallTicks(target); idle++)
c.Frames(queued, target);
Check(!c.Stalled(), "target " + std::to_string(target) + ": one idle tick short of StallTicks isn't a stall");
c.Frames(queued, target);
Check(c.Stalled(), "target " + std::to_string(target) + ": StallTicks idle ticks are a stall");
c.Frames(queued, target);
Check(c.Stalled(), "a stalled queue that stays put is still a stall");
c.Frames(queued - 1, target);
Check(!c.Stalled() && c.Resumed() && !c.Resumed(), "a stall ends when the device takes a frame, reported once");
}
Check(C::StallTicks(8) == C::kStallTicks && C::StallTicks(64) == 256, "StallTicks: half a second, or four targets");
}
}
int main()
{
DeviceStopsForGood(true);
DeviceStopsForGood(false);
for (double rate : { 0.95, 0.966, 0.998, 1.0, 1.002, 1.05 })
for (int pull : { 1, 2, 4, 16 })
TakesAudio(rate, pull, pull == 16 ? 32 : 8, 600 * kTicksPerSecond);
StallsAndResumes();
RouteToLargerBuffer();
StallThreshold();
if (s_failed)
{
fprintf(stderr, "%d checks failed\n", s_failed);
return 1;
}
printf("audio_cadence_test: all checks passed\n");
return 0;
}
+78 -11
View File
@@ -6,9 +6,10 @@
// build/band_filter_test
// What it checks:
// - BandOf's rows and columns are those whose centres lie inside the band
// (a pixel-centre oracle), and with the edge-bar fills' rows
// (gpu::bars::BlackoutRects) they split the frame with no gap and no
// overlap, at every internal resolution (a fuzz over screen shapes too);
// (a pixel-centre oracle), and with the edge-bar fills' rows (gpu::
// bars::BlackoutRects of a frame as big as the band) they split the
// frame with no gap and no overlap, at every internal resolution (a fuzz
// over screen shapes too);
// - the scaling pass, modelled along the axis that is split (bilinear,
// Catmull-Rom with its 2x2 clamp and sharpening, and the 7-fetch
// variant), on a frame whose strips are black and whose band is white:
@@ -16,10 +17,17 @@
// every one in the band exactly white (the career intro's movie
// letterbox bled ~5% of the band into the strip's last row before);
// - every fetch the anti-aliasing pass makes for a pixel reads only its
// own span's texels.
// own span's texels;
// - FSR 1, where the picture is enlarged along the split axis: each of
// EASU's taps for a screen pixel (texels floor(t - 0.5) - 1 to + 2 round
// its centre t) reads only that pixel's span, and each neighbour RCAS
// reads (the pixel's own picture, one pixel either way) lies in the same
// span, so the black strips stay black and the band's edge rows equal its
// middle ones.
// The same checks run with planted faults (no split, a band edge one texel
// off either way, clamping to the span's edges instead of its texel
// centres): each must fail.
// centres, an unclamped gather or EASU tap, RCAS reading across the edge):
// each must fail.
#include <gpu/edge_bars.h>
#include <video/band_filter.h>
#include <video/picture_fit.h>
@@ -48,6 +56,8 @@ struct Model
std::function<Span(float t, int32_t lo, int32_t hi, int32_t size)> spanOf = video::band::SpanOf;
std::function<float(float t, Span s)> clamp = video::band::Clamp;
std::function<int32_t(int32_t i, Span s)> clampTexel = video::band::ClampTexel;
std::function<int32_t(int32_t i, int32_t j, int32_t lo, int32_t hi, int32_t outSize, int32_t srcSize)> rcasNeighbour =
video::band::RcasNeighbour;
};
// One axis of the frame image: texel values, the sampler's clamp to edge.
@@ -174,13 +184,55 @@ static int AaCase(const Model& m, int32_t size, int32_t lo0, int32_t hi0)
return g_failures - before;
}
// FSR 1 along the split axis of one screen and image size, where the
// picture is enlarged that way (else bicubic draws it: skipped). EASU's taps
// for each screen pixel, and the screen pixels RCAS reads for it, against
// where that pixel truly is. Returns the failures it added.
static int FsrCase(const Model& m, const Shape& screen, const Shape& image)
{
const int before = g_failures;
const video::PictureFit fit = video::FitPicture(screen.w, screen.h, 1280.0f, 720.0f, true, true);
const video::FrameBand band = video::BandOf(image.w, image.h, fit.scaleX, fit.scaleY);
const bool tall = fit.scaleY < 1.0f;
const int32_t size = int32_t(tall ? image.h : image.w), pixels = tall ? fit.height : fit.width;
if (pixels <= size)
return 0;
const int32_t trueLo = tall ? band.y0 : band.x0, trueHi = tall ? band.y1 : band.x1;
int32_t lo = trueLo, hi = trueHi;
m.band(lo, hi, size);
auto own = [&](int32_t r) { return video::band::SpanOf(video::band::SourceOf(r, pixels, size), trueLo, trueHi, size); };
for (int32_t r = 0; r < pixels && g_failures - before <= 8; r++)
{
const float t = video::band::SourceOf(r, pixels, size);
const Span s = m.spanOf(t, lo, hi, size), truth = own(r);
const int32_t fp = int32_t(std::floor(t - 0.5f));
for (int32_t k = -1; k <= 2; k++)
{
const int32_t texel = std::clamp(m.clampTexel(fp + k, s), 0, size - 1); // and the sampler's clamp to edge
CHECK(texel >= truth.a && texel < truth.b, "%ux%u, image %ux%u: EASU tap %+d of screen pixel %d (frame %.3f) reads texel %d outside its span [%d,%d)",
screen.w, screen.h, image.w, image.h, k, r, t, texel, truth.a, truth.b);
}
for (int32_t d : { -1, 1 })
{
const int32_t read = m.rcasNeighbour(r, r + d, lo, hi, pixels, size);
const Span rs = own(read);
CHECK(rs.a == truth.a && rs.b == truth.b, "%ux%u, image %ux%u: RCAS's neighbour %+d of screen pixel %d reads pixel %d, in [%d,%d) not [%d,%d)",
screen.w, screen.h, image.w, image.h, d, r, read, rs.a, rs.b, truth.a, truth.b);
}
}
return g_failures - before;
}
static int AllCases(const Model& m)
{
int failed = 0;
for (const Shape& s : kScreens)
for (const Shape& im : kImages)
{
for (int kind = 0; kind < 3; kind++)
failed += ScaleCase(m, s, im, kind) ? 1 : 0;
failed += FsrCase(m, s, im) ? 1 : 0;
}
// The anti-aliasing at the frame's resolution: 16:10, 4:3, 3:2 rows and
// ultrawide columns at 1x and 2x.
for (const Shape& s : { Shape{ 1280, 800 }, Shape{ 1024, 768 }, Shape{ 1200, 800 }, Shape{ 2560, 1080 } })
@@ -194,9 +246,10 @@ static int AllCases(const Model& m)
}
// BandOf against the pixel-centre oracle, and against the edge-bar fills:
// with the black frame's fill rows (gpu::bars::BlackoutRects, through a
// full-frame front-end viewport: NDC y = -clip y) every row is in exactly
// one of the band and the fill. Columns likewise under Hor+.
// with the fill of a black frame as big as the band (gpu::bars::
// BlackoutRects, through a full-frame front-end viewport: NDC y = -clip y)
// every row is in exactly one of the band and the fill. Columns likewise
// under Hor+.
static void BandRowsCase(uint32_t w, uint32_t h, float sx, float sy)
{
const video::FrameBand b = video::BandOf(w, h, sx, sy);
@@ -220,8 +273,11 @@ static void BandRowsCase(uint32_t w, uint32_t h, float sx, float sy)
CHECK(wrong == 0, "%ux%u scale %.4f: %d %s differ from the pixel-centre oracle", w, h, scale, wrong, axis ? "rows" : "columns");
}
const float ps[4] = { 1.0f, -1.0f, 0.0f, 0.0f };
gpu::bars::Rect r[2]{};
const uint32_t n = gpu::bars::BlackoutRects(ps, float(w), float(h), { 0, 0, int32_t(w), int32_t(h) }, sx, sy, r);
// The fill of a black frame as big as the band itself: everything past
// the band (the rows above and below it, or the columns beside it).
const gpu::bars::Box band{ -sx, sx, -sy, sy };
gpu::bars::Rect r[4]{};
const uint32_t n = gpu::bars::BlackoutRects(band, ps, float(w), float(h), { 0, 0, int32_t(w), int32_t(h) }, r);
int wrongPx = 0;
for (int32_t y = 0; y < int32_t(h); y += (y % 97 == 0 ? 1 : 7))
for (int32_t x = 0; x < int32_t(w); x += 13)
@@ -281,7 +337,16 @@ int main()
const Model fixed{ "band_filter.h" };
const int failed = AllCases(fixed);
printf("scaling (3 filters x %zu screens x %zu images) and anti-aliasing fetches: %d case(s) failed\n", std::size(kScreens), std::size(kImages), failed);
int fsrCases = 0;
for (const Shape& s : kScreens)
for (const Shape& im : kImages)
{
const video::PictureFit fit = video::FitPicture(s.w, s.h, 1280.0f, 720.0f, true, true);
fsrCases += (fit.scaleY < 1.0f ? fit.height > int32_t(im.h) : fit.width > int32_t(im.w)) ? 1 : 0;
}
CHECK(fsrCases >= 8, "only %d FSR 1 cases enlarge along the split axis", fsrCases);
printf("scaling (3 filters + FSR 1 where enlarged, %d cases, x %zu screens x %zu images) and anti-aliasing fetches: %d case(s) failed\n",
fsrCases, std::size(kScreens), std::size(kImages), failed);
printf("planted faults (each must fail):\n");
const Model planted[] = {
@@ -293,6 +358,8 @@ int main()
[](float t, Span s) { return std::clamp(t, float(s.a), float(s.b)); } },
{ "no clamp of the gather", [](int32_t&, int32_t&, int32_t) {}, video::band::SpanOf, video::band::Clamp,
[](int32_t i, Span) { return i; } },
{ "RCAS reads across the edge", [](int32_t&, int32_t&, int32_t) {}, video::band::SpanOf, video::band::Clamp, video::band::ClampTexel,
[](int32_t, int32_t j, int32_t, int32_t, int32_t outSize, int32_t) { return std::clamp(j, 0, outSize - 1); } },
};
for (const Model& m : planted)
{
+416
View File
@@ -0,0 +1,416 @@
// SpeedBreaker tests. GPL-3.0-or-later (see COPYING).
//
// A requested termination quits the game cleanly, and only a session that
// didn't end cleanly leaves its crash marker (platform/quit_signals.h,
// report/crash_marker.h). v0.1.5 left the empty marker after every session
// (a Steam Frame session closed from Steam left one, as if it had crashed),
// and SIGHUP ended it at once, saving nothing.
// - Signals, each case in a child process: SIGTERM, SIGINT and SIGHUP
// become a quit request and the process lives on to quit; the first
// request is the one kept; a signal ignored at launch (nohup) stays
// ignored; SDL's own handler would leave them to us (it takes a signal
// only while its action is the default); SIGKILL still kills. Controls:
// without the handlers SIGHUP kills (v0.1.5).
// - The marker: made empty, removed by a clean end; what the next launch
// finds after a clean end, a SIGKILL, a crash report it couldn't rename,
// and beside the current session's own. Then main()'s order end to end in
// child processes: SIGTERM -> the quit -> no marker; SIGKILL -> marker.
// - The optional argument is the runtime folder: main.cpp, presenter.cpp
// and crash.cpp are read to check the handlers come before SDL, the frame
// loop leaves on a request, every clean end clears the marker (last, just
// before the exit) and a crash being reported keeps it; then planted
// mutations of them that must fail.
//
// Build by hand: c++ -std=c++20 -O2 -I runtime tests/clean_exit_test.cpp -o build/clean_exit_test
// build/clean_exit_test [<scratch folder>] [runtime]
#include <platform/quit_signals.h>
#include <report/crash_marker.h>
#include <chrono>
#include <csignal>
#include <cstdio>
#include <cstdlib>
#include <cstring>
#include <fstream>
#include <functional>
#include <sstream>
#include <string>
#include <thread>
#include <vector>
#include <sys/wait.h>
#include <unistd.h>
static int g_failures = 0;
#define CHECK(cond, ...) do { if (!(cond)) { g_failures++; printf(" FAIL %s:%d: %s: ", __FILE__, __LINE__, #cond); printf(__VA_ARGS__); printf("\n"); } } while (0)
namespace fs = std::filesystem;
namespace
{
// `body` in a child process: its exit code (0: passed), or 128 + the
// signal that killed it.
int InChild(const std::function<int()>& body)
{
fflush(stdout);
const pid_t pid = fork();
if (pid == 0)
_exit(body());
int status = 0;
waitpid(pid, &status, 0);
return WIFEXITED(status) ? WEXITSTATUS(status) : WIFSIGNALED(status) ? 128 + WTERMSIG(status) : 255;
}
bool WaitFor(const std::function<bool()>& done, int ms)
{
for (int i = 0; i < ms; i++)
{
if (done())
return true;
std::this_thread::sleep_for(std::chrono::milliseconds(1));
}
return done();
}
void Signals()
{
printf("signals:\n");
for (int sig : quitsignals::kSignals)
{
const int rc = InChild([sig] {
quitsignals::Install();
raise(sig);
return quitsignals::Requested() == sig ? 0 : 1;
});
CHECK(rc == 0, "%s: a quit request, and the game lives on to quit (child: %d)", quitsignals::Name(sig), rc);
}
// From another process (as Steam, systemd or kill send it), while
// the game runs.
{
fflush(stdout);
const pid_t pid = fork();
if (pid == 0)
{
quitsignals::Install();
const bool seen = WaitFor([] { return quitsignals::Requested() != 0; }, 5000);
_exit(seen && quitsignals::Requested() == SIGTERM ? 0 : 1);
}
std::this_thread::sleep_for(std::chrono::milliseconds(100));
kill(pid, SIGTERM);
int status = 0;
waitpid(pid, &status, 0);
CHECK(WIFEXITED(status) && WEXITSTATUS(status) == 0, "SIGTERM from another process: seen, the child quit by itself");
}
{
const int rc = InChild([] {
quitsignals::Install();
raise(SIGTERM);
raise(SIGHUP);
raise(SIGINT);
return quitsignals::Requested() == SIGTERM ? 0 : 1;
});
CHECK(rc == 0, "the first request is kept; later ones change nothing (child: %d)", rc);
}
{
const int rc = InChild([] {
signal(SIGHUP, SIG_IGN); // nohup
quitsignals::Install();
raise(SIGHUP);
struct sigaction now{};
sigaction(SIGHUP, nullptr, &now);
return quitsignals::Requested() == 0 && now.sa_handler == SIG_IGN ? 0 : 1;
});
CHECK(rc == 0, "SIGHUP ignored at launch (nohup) stays ignored (child: %d)", rc);
}
{
// SDL_EventSignal_Init (SDL 3.4.16, events/SDL_quit.c) puts its
// handler only where the action is the default.
const int rc = InChild([] {
quitsignals::Install();
for (int sig : quitsignals::kSignals)
{
struct sigaction action{};
sigaction(sig, nullptr, &action);
if (action.sa_handler == SIG_DFL && reinterpret_cast<void*>(action.sa_sigaction) == reinterpret_cast<void*>(SIG_DFL))
return 1; // SDL would take it
}
return 0;
});
CHECK(rc == 0, "SDL leaves the three signals to the game's handler (child: %d)", rc);
}
{
const int rc = InChild([] {
quitsignals::Install();
raise(SIGKILL);
return 0;
});
CHECK(rc == 128 + SIGKILL, "SIGKILL still kills (child: %d)", rc);
}
{
const int rc = InChild([] {
raise(SIGHUP);
return 0;
});
CHECK(rc == 128 + SIGHUP, "control: without the handlers SIGHUP kills, as in v0.1.5 (child: %d)", rc);
}
}
bool Exists(const fs::path& p)
{
std::error_code ec;
return fs::exists(p, ec);
}
const report::marker::Leftover* FindSession(const std::vector<report::marker::Leftover>& found, const std::string& session)
{
for (const auto& l : found)
if (l.session == session)
return &l;
return nullptr;
}
void Marker(const fs::path& scratch)
{
printf("the crash marker:\n");
namespace marker = report::marker;
std::error_code ec;
fs::remove_all(scratch, ec);
fs::create_directories(scratch, ec);
CHECK(!ec, "can't make %s", scratch.c_str());
const std::string clean = "2026-10-15_11-00-00", killed = "2026-10-15_11-10-00", crashed = "2026-10-15_11-20-00",
current = "2026-10-15_11-30-00";
auto arm = [&](const std::string& session) {
const std::string path = marker::PathFor(scratch, session).string();
return std::pair{ marker::Arm(path.c_str()), path };
};
{
auto [fd, path] = arm(clean);
CHECK(fd >= 0 && Exists(path) && fs::file_size(path, ec) == 0, "armed: an empty %s", path.c_str());
marker::Clear(fd, path.c_str());
CHECK(!Exists(path), "a clean end removes it");
}
{
auto [fd, path] = arm(killed);
close(fd); // the process gone without a word (SIGKILL)
}
{
auto [fd, path] = arm(crashed);
const char report[] = "SpeedBreaker (NFS: Most Wanted, Xbox 360): crash report\n";
CHECK(write(fd, report, sizeof(report) - 1) > 0, "write");
close(fd); // the handler's rename didn't happen
}
auto [currentFd, currentPath] = arm(current);
const std::vector<marker::Leftover> found = marker::Find(scratch, current);
CHECK(found.size() == 2, "the next launch finds 2 earlier markers (%zu)", found.size());
const marker::Leftover* k = FindSession(found, killed);
const marker::Leftover* c = FindSession(found, crashed);
CHECK(k && k->ended == marker::Ended::WithoutQuitting, "SIGKILL's empty marker: ended without quitting");
CHECK(c && c->ended == marker::Ended::Crashed, "a written marker: a crash report");
CHECK(!FindSession(found, clean), "the clean end left nothing");
CHECK(!FindSession(found, current), "the current session's own marker isn't an earlier one's");
marker::Clear(currentFd, currentPath.c_str());
// main()'s order, end to end: arm the marker, install the handlers,
// run frames until a quit is requested, then the quit path clears
// the marker and exits 0.
auto session = [&](const std::string& name) {
fflush(stdout);
const pid_t pid = fork();
if (pid == 0)
{
const std::string path = marker::PathFor(scratch, name).string();
const int fd = marker::Arm(path.c_str());
quitsignals::Install();
std::ofstream(scratch / (name + ".ready")) << "ready\n";
while (!quitsignals::Requested()) // RunFrame
std::this_thread::sleep_for(std::chrono::milliseconds(2));
marker::Clear(fd, path.c_str()); // report::ClearCrashMarker
_exit(0);
}
CHECK(WaitFor([&] { return Exists(scratch / (name + ".ready")); }, 5000), "%s: the child started", name.c_str());
return pid;
};
for (int sig : quitsignals::kSignals)
{
const std::string name = std::string("signal-") + quitsignals::Name(sig);
const pid_t pid = session(name);
kill(pid, sig);
int status = 0;
waitpid(pid, &status, 0);
CHECK(WIFEXITED(status) && WEXITSTATUS(status) == 0, "%s: the session quit by itself, exit 0", quitsignals::Name(sig));
CHECK(!Exists(marker::PathFor(scratch, name)), "%s: no marker left", quitsignals::Name(sig));
}
{
const pid_t pid = session("signal-SIGKILL");
kill(pid, SIGKILL);
int status = 0;
waitpid(pid, &status, 0);
CHECK(WIFSIGNALED(status) && WTERMSIG(status) == SIGKILL, "SIGKILL: killed");
const std::vector<marker::Leftover> after = marker::Find(scratch, current);
const marker::Leftover* l = FindSession(after, "signal-SIGKILL");
CHECK(l && l->ended == marker::Ended::WithoutQuitting, "SIGKILL: its marker stays, and the next launch finds it ended without quitting");
}
fs::remove_all(scratch, ec);
}
std::string Read(const fs::path& path)
{
std::ifstream in(path);
std::stringstream ss;
ss << in.rdbuf();
return ss.str();
}
struct Sources
{
std::string main, presenter, crash;
};
// A function's body: from `head` to the brace at its own indent.
std::string Body(const std::string& src, const std::string& head)
{
const size_t at = src.find(head);
if (at == std::string::npos)
return {};
const size_t line = src.rfind('\n', at) + 1;
const std::string end = "\n" + src.substr(line, at - line) + "}";
const size_t stop = src.find(end, at);
return src.substr(at, stop == std::string::npos ? std::string::npos : stop - at);
}
// `a` before `b` in `text`, both there.
bool Before(const std::string& text, const std::string& a, const std::string& b, size_t from = 0)
{
const size_t x = text.find(a, from), y = text.find(b, from);
return x != std::string::npos && y != std::string::npos && x < y;
}
std::vector<std::string> SourceProblems(const Sources& s)
{
std::vector<std::string> problems;
// main.cpp: the handlers before SDL (the windowed start), and after
// the crash handlers' marker exists.
if (!Before(s.main, "report::PrepareCrashReports();", "quitsignals::Install();") ||
!Before(s.main, "quitsignals::Install();", "bool windowed = video::Initialize();"))
problems.push_back("main.cpp: quitsignals::Install() isn't between PrepareCrashReports and the window's video::Initialize");
// Any return from main() after the marker exists clears it.
const size_t prepared = s.main.find("report::PrepareCrashReports();");
const size_t guard = s.main.find("~ClearMarkerOnReturn() { report::ClearCrashMarker(); }");
const size_t firstReturnAfter = prepared == std::string::npos ? std::string::npos : s.main.find(" return ", prepared);
if (guard == std::string::npos || prepared == std::string::npos || guard < prepared || guard > firstReturnAfter)
problems.push_back("main.cpp: no marker-clearing guard between PrepareCrashReports and the first return after it");
// The window's quit path: the marker cleared after the shutdown, just
// before the log flush and the exit.
const size_t loop = s.main.find("while (video::RunFrame())");
if (loop == std::string::npos)
problems.push_back("main.cpp: no game loop");
else
{
const std::string tail = s.main.substr(loop, s.main.find("\n}", loop) - loop);
if (!Before(tail, "video::Shutdown();", "report::ClearCrashMarker();") ||
!Before(tail, "report::ClearCrashMarker();", "report::FlushLog();") ||
!Before(tail, "report::ClearCrashMarker();", "std::_Exit(0);") || tail.find("settings::Save()") == std::string::npos)
problems.push_back("main.cpp: the quit path doesn't save settings and clear the marker after the shutdown, before the exit");
}
// The launcher lifeline's exit and the headless one clear it too.
for (const char* head : { "launcher (pid %d) is gone: exiting", "quitting\\n\", quitsignals::Name(sig));" })
{
const size_t at = s.main.find(head);
if (at == std::string::npos || !Before(s.main, "report::ClearCrashMarker();", "std::_Exit(0);", at))
problems.push_back(std::string("main.cpp: the exit after \"") + head + "\" doesn't clear the marker first");
}
if (s.main.find("while (!s_guestReturned.load() && !quitsignals::Requested())") == std::string::npos)
problems.push_back("main.cpp: without a window, a quit request isn't waited for");
// presenter.cpp: RunFrame leaves on a request, before taking events.
const std::string run = Body(s.presenter, "bool RunFrame()");
const size_t request = run.find("if (quitsignals::Requested())");
if (request == std::string::npos || run.find("return false;", request) > run.find("while (SDL_PollEvent(&e))") ||
run.find("while (SDL_PollEvent(&e))") == std::string::npos)
problems.push_back("presenter.cpp: RunFrame doesn't leave on a quit request before its event loop");
// crash.cpp: a crash being reported keeps its report.
const std::string clear = Body(s.crash, "void ClearCrashMarker()");
if (!Before(clear, "if (s_crashing.load())", "marker::Clear("))
problems.push_back("crash.cpp: ClearCrashMarker doesn't leave a crash being reported alone");
const std::string notice = Body(s.crash, "void NoticePreviousCrash(bool lastClearsMarker)");
if (notice.find("marker::Ended::Crashed") == std::string::npos || notice.find("ended without quitting") == std::string::npos)
problems.push_back("crash.cpp: the next launch doesn't rename crash reports and log sessions that ended without quitting");
return problems;
}
std::string Replaced(std::string s, const std::string& from, const std::string& to)
{
const size_t at = s.find(from);
if (at == std::string::npos)
return {};
return s.replace(at, from.size(), to);
}
void Runtime(const fs::path& runtime)
{
printf("main.cpp, presenter.cpp, crash.cpp:\n");
const Sources src{ Read(runtime / "main.cpp"), Read(runtime / "video/presenter.cpp"), Read(runtime / "report/crash.cpp") };
CHECK(!src.main.empty() && !src.presenter.empty() && !src.crash.empty(), "can't read the sources in %s", runtime.c_str());
if (src.main.empty() || src.presenter.empty() || src.crash.empty())
return;
for (const std::string& p : SourceProblems(src))
CHECK(false, "%s", p.c_str());
struct Plant
{
const char* name;
std::string Sources::*file;
std::vector<std::pair<std::string, std::string>> edits; // each: the first `from` becomes `to`
};
const Plant plants[] = {
{ "v0.1.5's quit path (no marker cleared)", &Sources::main,
{ { " // A clean end: no crash marker left (a crash in the shutdown above still\n // reported one).\n"
" report::ClearCrashMarker();\n", "" } } },
{ "the marker cleared before the shutdown", &Sources::main,
{ { " gpu::renderer::Shutdown();\n video::Shutdown();\n",
" report::ClearCrashMarker();\n gpu::renderer::Shutdown();\n video::Shutdown();\n" } } },
{ "no handlers (SDL's, and SIGHUP's default)", &Sources::main, { { " quitsignals::Install();\n", "" } } },
{ "the handlers after SDL starts", &Sources::main,
{ { " quitsignals::Install();\n", "" },
{ " bool windowed = video::Initialize();\n", " bool windowed = video::Initialize();\n quitsignals::Install();\n" } } },
{ "no guard for returns", &Sources::main, { { "~ClearMarkerOnReturn() { report::ClearCrashMarker(); }", "~ClearMarkerOnReturn() {}" } } },
{ "the lifeline's exit keeps the marker", &Sources::main,
{ { " gpu::renderer::Shutdown();\n report::ClearCrashMarker();\n",
" gpu::renderer::Shutdown();\n" } } },
{ "headless: no wait for a request", &Sources::main,
{ { "while (!s_guestReturned.load() && !quitsignals::Requested())", "while (!s_guestReturned.load())" } } },
{ "RunFrame ignores the request", &Sources::presenter, { { " if (quitsignals::Requested())\n return false;\n", "" } } },
{ "a crash being reported cleared", &Sources::crash, { { " if (s_crashing.load())\n return;\n", "" } } },
};
for (const Plant& p : plants)
{
Sources mutated = src;
bool applied = true;
for (const auto& [from, to] : p.edits)
{
std::string next = Replaced(mutated.*p.file, from, to);
applied = applied && !next.empty();
if (!next.empty())
mutated.*p.file = next;
}
CHECK(applied, "plant \"%s\": its text isn't in the source", p.name);
if (!applied)
continue;
const bool caught = !SourceProblems(mutated).empty();
CHECK(caught, "plant \"%s\" not caught", p.name);
printf(" plant: %s: %s\n", p.name, caught ? "caught" : "NOT caught");
}
}
}
int main(int argc, char** argv)
{
Signals();
fs::path scratch = argc > 1 ? fs::path(argv[1]) : fs::temp_directory_path() / ("clean_exit_test." + std::to_string(getpid()));
Marker(scratch);
if (argc > 2)
Runtime(argv[2]);
else
printf("(the runtime folder not given: its checks skipped)\n");
printf("%s (%d failures)\n", g_failures ? "FAILED" : "passed", g_failures);
return g_failures ? 1 : 0;
}
+356 -101
View File
@@ -1,6 +1,7 @@
// Tests for gpu::bars (runtime/gpu/edge_bars.h): which front-end quads are
// the police vid-cam's side bars or the intro's black frame, what they fill
// past the 16:9 band, the stretched copy's posScale, the band clip's rows,
// (a bar past the 16:9 band, a black frame everything outside it at every
// shape: GitHub #19), the stretched copy's posScale, the band clip's rows,
// and the whole plan the renderer asks for (PlanFill) on the draws as
// dumped. From the repo root:
// clang++ -std=c++20 -O2 -UNDEBUG -Iruntime tests/edge_bars_test.cpp -o build/edge_bars_test
@@ -325,8 +326,13 @@ static void BandOracle(const char* what, float sy, const float ps[4], float host
CHECK(wrong == 0, "%s: %d band rows differ from the pixel-centre oracle", what, wrong);
}
// The intro's black frame (the cut at ~95 s; ~57 s: kFrameY57), band units.
constexpr float kFrameX = 0.970f, kFrameY = 0.939f, kFrameY57 = 0.920f;
constexpr uint32_t kFrameColour = 0xFF000000;
// Under Vert+ the fills and the band clip's rows split the scissor's rows
// with no gap and no overlap: a bar's half and a black frame's whole width.
// with no gap and no overlap (a bar's half); and the black frame's fill and
// the frame's own pixels split the scissor's pixels the same way.
static void Complement(const char* what, float sy, const float ps[4], float hostW, float hostH, const Rect& scissor)
{
const Rows band = BandRows(-sy, sy, ps[1], ps[3], hostH);
@@ -343,22 +349,25 @@ static void Complement(const char* what, float sy, const float ps[4], float host
fill = fill || (y >= r[i].y0 && y < r[i].y1);
wrong += band == fill;
}
// The black frame's fill, every column: each pixel of the scissor is in
// exactly one of the band's rows and the fill.
Rect k[2]{};
const uint32_t kn = BlackoutRects(ps, hostW, hostH, scissor, 1.0f, sy, k);
// The black frame's fill: each pixel of the scissor is in exactly one of
// the frame's own pixels (its box through the same Edge rule as the
// rasteriser's pixel centres) and the fill.
const Box frame{ -kFrameX, kFrameX, -kFrameY * sy, kFrameY * sy };
const Rect own = ClipToHost(frame.x0, frame.x1, frame.y0, frame.y1, ps, hostW, hostH);
Rect k[4]{};
const uint32_t kn = BlackoutRects(frame, ps, hostW, hostH, scissor, k);
int wrongPx = 0;
for (int32_t y = scissor.y0; y < scissor.y1; y++)
for (int32_t x = scissor.x0; x < scissor.x1; x++)
{
int in = (y >= top && y < bottom) ? 1 : 0;
int in = (x >= own.x0 && x < own.x1 && y >= own.y0 && y < own.y1) ? 1 : 0;
for (uint32_t i = 0; i < kn; i++)
in += (x >= k[i].x0 && x < k[i].x1 && y >= k[i].y0 && y < k[i].y1) ? 1 : 0;
wrongPx += in != 1;
}
printf("complement %s: band rows [%d,%d), %d row(s) wrong; black frame %d pixel(s) wrong\n", what, top, bottom, wrong, wrongPx);
CHECK(wrong == 0, "%s: %d rows both or neither in the band clip and the fill", what, wrong);
CHECK(wrongPx == 0, "%s: %d pixels both or neither in the band clip and the black frame's fill", what, wrongPx);
CHECK(wrongPx == 0, "%s: %d pixels both or neither in the black frame and its fill", what, wrongPx);
}
static void Cover(const char* what, float bx0, float bx1, float sx, float sy, const float ps[4])
@@ -379,10 +388,11 @@ static void Cover(const char* what, float bx0, float bx1, float sx, float sy, co
// ---- The intro's black frame (the cut between two shots, ~95 s) ----
// Its box in band units, as logged (NFSMW_LOG_FRONTEND "inset candidate",
// the Deck and 32:9): x +-0.970, y +-0.939, FF000000; and the one at the
// intro's start (~57 s): y +-0.920, FE000000.
constexpr float kFrameX = 0.970f, kFrameY = 0.939f, kFrameY57 = 0.920f;
constexpr uint32_t kFrameColour = 0xFF000000;
// the Deck and 32:9): x +-0.970, y +-0.939, FF000000 (kFrameX, kFrameY); and
// the one at the intro's start (~57 s): y +-0.920, FE000000 (kFrameY57). The
// Blacklist bio's panel (GitHub #19): x +-0.976, y +-0.985, FB000000 then
// FF000000, fading in from 11000000.
constexpr float kBioX = 0.976f, kBioY = 0.985f;
static void MatchFrame(const char* what, const Quad& q, float sx, float sy, bool want, const BlackoutRule& rule)
{
@@ -477,10 +487,11 @@ static void PlantedBlackout(const char* what, const BlackoutRule& wrong)
}
static void FillFrame(const char* what, float sx, float sy, const float ps[4], float hostW, float hostH, const Rect& scissor,
uint32_t wantN, const Rect* want)
uint32_t wantN, const Rect* want, float fx = kFrameX, float fy = kFrameY)
{
Rect got[2]{};
const uint32_t n = BlackoutRects(ps, hostW, hostH, scissor, sx, sy, got);
Rect got[4]{};
const Box b{ -fx * sx, fx * sx, -fy * sy, fy * sy };
const uint32_t n = BlackoutRects(b, ps, hostW, hostH, scissor, got);
printf("%s: %u rect(s)", what, n);
for (uint32_t i = 0; i < n; i++)
printf(" [%d,%d)x[%d,%d)", got[i].x0, got[i].x1, got[i].y0, got[i].y1);
@@ -491,13 +502,50 @@ static void FillFrame(const char* what, float sx, float sy, const float ps[4], f
got[i].y1, want[i].x0, want[i].x1, want[i].y0, want[i].y1);
}
// The black frame's fill against pixel centres: a pixel of the scissor is
// filled exactly when its centre is outside the band (|y| > sy under Vert+,
// |x| > sx under Hor+); ties within 1/256 pixel skipped, as above.
static void FrameOracle(const char* what, float sx, float sy, const float ps[4], float hostW, float hostH, const Rect& scissor)
// v0.1.1-v0.1.5's black frame fill, kept here as a planted fault: only what
// lies past the band (the rows above and below it under Vert+, the columns
// beside it under Hor+, nothing at 16:9), so the band's thin border round
// the frame showed what was behind (GitHub #19's Blacklist bio).
static uint32_t PastBandOnly(const Box&, const float ps[4], float hostW, float hostH, const Rect& scissor, float scaleX, float scaleY,
Rect out[4])
{
Rect r[2]{};
const uint32_t n = BlackoutRects(ps, hostW, hostH, scissor, sx, sy, r);
uint32_t n = 0;
auto add = [&](const Rect& r) {
const Rect c = Intersect(r, scissor);
if (!Empty(c))
out[n++] = c;
};
const float e = kFillEdge;
if (scaleY < 1.0f)
{
add(ClipToHost(-e, e, scaleY, e, ps, hostW, hostH));
add(ClipToHost(-e, e, -e, -scaleY, ps, hostW, hostH));
}
else if (scaleX < 1.0f)
{
add(ClipToHost(scaleX, e, -e, e, ps, hostW, hostH));
add(ClipToHost(-e, -scaleX, -e, e, ps, hostW, hostH));
}
return n;
}
// The black frame's fill against pixel centres: a pixel of the scissor is
// filled, exactly once, when its centre lies outside the frame's box (past
// the band and in the band's border round it, at every shape, 16:9 too),
// never inside it; ties within 1/256 pixel skipped, as above. `rects` makes
// the rectangles (BlackoutRects, or a planted fault). Returns the wrong
// pixels.
using FrameRectsFn = uint32_t (*)(const Box&, const float*, float, float, const Rect&, float, float, Rect*);
static uint32_t RingRects(const Box& b, const float* ps, float w, float h, const Rect& sc, float, float, Rect* out)
{
return BlackoutRects(b, ps, w, h, sc, out);
}
static int FrameOracle(const char* what, float sx, float sy, const float ps[4], float hostW, float hostH, const Rect& scissor,
FrameRectsFn rects = RingRects, bool print = true, float fx = kFrameX, float fy = kFrameY)
{
const Box b{ -fx * sx, fx * sx, -fy * sy, fy * sy };
Rect r[4]{};
const uint32_t n = rects(b, ps, hostW, hostH, scissor, sx, sy, r);
const float pxX = std::fabs(ps[0]) * hostW * 0.5f, pxY = std::fabs(ps[1]) * hostH * 0.5f;
auto tie = [](float d, float px) { return std::fabs(d) * px < 1.0f / 256.0f; };
int wrong = 0, ties = 0;
@@ -507,19 +555,24 @@ static void FrameOracle(const char* what, float sx, float sy, const float ps[4],
for (int32_t x = scissor.x0; x < scissor.x1; x++)
{
const float cx = ((float(x) + 0.5f) / hostW * 2.0f - 1.0f - ps[2]) / ps[0];
const bool want = sy < 1.0f ? std::fabs(cy) > sy : sx < 1.0f ? std::fabs(cx) > sx : false;
const bool onEdge = sy < 1.0f ? tie(std::fabs(cy) - sy, pxY) : sx < 1.0f && tie(std::fabs(cx) - sx, pxX);
bool got = false;
for (uint32_t i = 0; i < n; i++)
got = got || (x >= r[i].x0 && x < r[i].x1 && y >= r[i].y0 && y < r[i].y1);
if (onEdge)
if (tie(cx - b.x0, pxX) || tie(cx - b.x1, pxX) || tie(cy - b.y0, pxY) || tie(cy - b.y1, pxY))
{
ties++;
else
wrong += got != want;
continue;
}
const bool want = !(cx > b.x0 && cx < b.x1 && cy > b.y0 && cy < b.y1);
int got = 0;
for (uint32_t i = 0; i < n; i++)
got += x >= r[i].x0 && x < r[i].x1 && y >= r[i].y0 && y < r[i].y1;
wrong += got != (want ? 1 : 0);
}
}
printf("oracle black frame %s: %d pixel(s) wrong (%d on an edge, skipped)\n", what, wrong, ties);
CHECK(wrong == 0, "black frame %s: %d pixels differ from the pixel-centre oracle", what, wrong);
if (print)
{
printf("oracle black frame %s: %d pixel(s) wrong (%d on an edge, skipped)\n", what, wrong, ties);
CHECK(wrong == 0, "black frame %s: %d pixels differ from the pixel-centre oracle", what, wrong);
}
return wrong;
}
// ---- PlanFill on the draws as the renderer sees them ----
@@ -691,17 +744,21 @@ static void PlantedBackdrop(const char* what, const BackdropRule& wrong)
}
// The backdrop's fill against pixel centres: every pixel of the scissor
// past the band and outside the box is filled, exactly once; nothing in the
// band or the box is (ties within 1/256 pixel skipped). `rects` makes the
// rectangles (BackdropRects, or a planted fault). Returns the wrong pixels.
// outside the box is filled, exactly once, if it lies past the band or in
// a row above or below the box (the band's overscan rows, at every shape,
// 16:9 too); nothing in the box is, nor in the band beside it within its
// rows (ties within 1/256 pixel skipped). `rects` makes the rectangles
// (BackdropRects, or a planted fault). Returns the wrong pixels; the
// overscan pixels it checked (in the band, above or below the box) go to
// `overscan`.
using BackdropRectsFn = uint32_t (*)(const Box&, const float*, float, float, const Rect&, float, float, Rect*);
static int BackdropOracle(const char* what, float sx, float sy, const Box& b, const float ps[4], float hostW, float hostH, const Rect& scissor,
BackdropRectsFn rects, bool print = true)
BackdropRectsFn rects, bool print = true, int* overscan = nullptr)
{
Rect r[6]{};
Rect r[8]{};
const uint32_t n = rects(b, ps, hostW, hostH, scissor, sx, sy, r);
const float pxX = std::fabs(ps[0]) * hostW * 0.5f, pxY = std::fabs(ps[1]) * hostH * 0.5f;
int wrong = 0, ties = 0;
int wrong = 0, ties = 0, rows = 0;
for (int32_t y = scissor.y0; y < scissor.y1; y++)
for (int32_t x = scissor.x0; x < scissor.x1; x++)
{
@@ -719,23 +776,28 @@ static int BackdropOracle(const char* what, float sx, float sy, const Box& b, co
// centres the first row's centre is past clip 1, still the band).
const bool inBand = (sx >= 1.0f || std::fabs(cx) < sx) && (sy >= 1.0f || std::fabs(cy) < sy);
const bool inBox = cx > b.x0 && cx < b.x1 && cy > b.y0 && cy < b.y1;
const bool pastRows = cy > b.y1 || cy < b.y0; // above or below the box
const bool want = !inBox && (!inBand || pastRows);
rows += inBand && pastRows;
int filled = 0;
for (uint32_t i = 0; i < n; i++)
filled += x >= r[i].x0 && x < r[i].x1 && y >= r[i].y0 && y < r[i].y1;
if (filled != ((inBand || inBox) ? 0 : 1))
if (filled != (want ? 1 : 0))
{
if (print && wrong < 3 && std::getenv("EDGE_BARS_DEBUG"))
printf(" wrong px %d,%d: clip %.5f %.5f, band %d box %d filled %d\n", x, y, cx, cy, inBand, inBox, filled);
printf(" wrong px %d,%d: clip %.5f %.5f, band %d box %d rows %d filled %d\n", x, y, cx, cy, inBand, inBox, pastRows, filled);
wrong++;
}
}
if (overscan)
*overscan = rows;
if (print)
{
printf("backdrop fill %s: %u rect(s)", what, n);
for (uint32_t i = 0; i < n; i++)
printf(" [%d,%d)x[%d,%d)", r[i].x0, r[i].x1, r[i].y0, r[i].y1);
printf(", %d pixel(s) wrong (%d on an edge, skipped)\n", wrong, ties);
CHECK(wrong == 0, "%s: %d pixels filled wrongly (in the band or the box, twice, or left)", what, wrong);
printf(", %d overscan px, %d pixel(s) wrong (%d on an edge, skipped)\n", rows, wrong, ties);
CHECK(wrong == 0, "%s: %d pixels filled wrongly (in the box or beside it in the band, twice, or left)", what, wrong);
}
return wrong;
}
@@ -801,7 +863,8 @@ static void BackdropTests()
};
const Case cases[] = { { "2560x1080", 0.75f, 1.0f }, { "2868x1320 (iPhone 18 Pro Max)", 0.818182f, 1.0f }, { "3440x1440", 0.744186f, 1.0f },
{ "32:9", 0.5f, 1.0f }, { "1.95:1 (the picture past the screen edge)", 0.912f, 1.0f }, { "1280x800", 1.0f, 0.9f },
{ "1024x768", 1.0f, 0.75f }, { "1200x800", 1.0f, 0.84375f } };
{ "1024x768", 1.0f, 0.75f }, { "1200x800", 1.0f, 0.84375f }, { "1280x720 (16:9)", 1.0f, 1.0f },
{ "2732x2048 (iPad Pro)", 1.0f, 0.750366f }, { "3024x1898 (MacBook Pro 14)", 1.0f, 0.896207f } };
int wrong = 0;
for (const Case& c : cases)
{
@@ -822,29 +885,66 @@ static void BackdropTests()
wrong += BackdropOracle(what, c.sx, c.sy, results, ps, 1280, 2048, Rect{ 100, 10, 1180, 700 }, BackdropRects);
}
printf("backdrop fill: %d wrong pixel(s) over %zu shapes\n", wrong, std::size(cases));
{
// The overscan rows at the 8 screen shapes, 1x and 2x (half-pixel
// centres): the results picture leaves rows of the band above and
// below it at every shape, 16:9 too, and each of them is filled
// once (the oracle above, which also counts them).
printf("\nbackdrop overscan rows:\n");
int rowsWrong = 0;
for (const Shape& sh : kShapes)
{
const Box results{ -kBackdropX * sh.sx, kBackdropX * sh.sx, -kBackdropY * sh.sy, kBackdropY * sh.sy };
char what[160];
int px1 = 0, px2 = 0;
snprintf(what, sizeof(what), "%s, overscan rows, 1x", sh.name);
rowsWrong += BackdropOracle(what, sh.sx, sh.sy, results, ps, 1280, 2048, frame, BackdropRects, true, &px1);
snprintf(what, sizeof(what), "%s, overscan rows, 2x, half-pixel", sh.name);
rowsWrong += BackdropOracle(what, sh.sx, sh.sy, results, half, 2560, 4096, frame2, BackdropRects, true, &px2);
// Rows: 0.019 of the band's half height each, ~7 * sy at 1x
// (5 at 4:3), across the band's width.
const int rowsMin = int(0.019f * sh.sy * 360.0f) - 1, wide = int(1280.0f * std::min(sh.sx, 1.0f)) - 2;
CHECK(px1 >= 2 * rowsMin * wide && px2 >= 4 * 2 * rowsMin * wide, "%s: overscan px %d (1x) %d (2x), want >= %d and %d", sh.name, px1,
px2, 2 * rowsMin * wide, 8 * rowsMin * wide);
}
printf("backdrop overscan rows: %d wrong pixel(s) over %zu shapes x 1x, 2x\n", rowsWrong, std::size(kShapes));
}
{
// The rectangles themselves, 2868x1320 at 1x: columns past the
// picture's sides (x +-1.104 band = 0.9033 clip: from column 1218,
// to 62), and the corners past the band (0.8182 clip: column 1164)
// above and below it (y +-0.981: rows 0..6 and 713..719).
Rect r[6]{};
// to 62), the corners past the band (0.8182 clip: column 1164)
// above and below it (y +-0.981: rows 0..6 and 713..719), and the
// overscan rows between them, inside the band (columns 116..1163).
Rect r[8]{};
const Box results{ -kBackdropX * 0.818182f, kBackdropX * 0.818182f, -kBackdropY, kBackdropY };
const uint32_t n = BackdropRects(results, ps, 1280, 2048, frame, 0.818182f, 1.0f, r);
const Rect want[6] = { { 1218, 0, 1280, 720 }, { 1164, 0, 1218, 7 }, { 1164, 713, 1218, 720 }, { 0, 0, 62, 720 }, { 62, 0, 116, 7 },
{ 62, 713, 116, 720 } };
CHECK(n == 6, "iPhone: %u rects, want 6", n);
for (uint32_t i = 0; i < n && i < 6; i++)
const Rect want[8] = { { 1218, 0, 1280, 720 }, { 1164, 0, 1218, 7 }, { 1164, 713, 1218, 720 }, { 0, 0, 62, 720 }, { 62, 0, 116, 7 },
{ 62, 713, 116, 720 }, { 116, 0, 1164, 7 }, { 116, 713, 1164, 720 } };
CHECK(n == 8, "iPhone: %u rects, want 8", n);
for (uint32_t i = 0; i < n && i < 8; i++)
CHECK(Same(r[i], want[i]), "iPhone: rect %u [%d,%d)x[%d,%d), want [%d,%d)x[%d,%d)", i, r[i].x0, r[i].x1, r[i].y0, r[i].y1, want[i].x0,
want[i].x1, want[i].y0, want[i].y1);
// Vert+: the rows above and below the band, whole (the picture stops
// inside it in y and past the screen in x).
// inside it in y and past the screen in x), then the band's overscan
// rows (y +-0.981 x 0.75 = 0.736: rows 90..94 and 625..629).
const Box r43{ -kBackdropX, kBackdropX, -kBackdropY * 0.75f, kBackdropY * 0.75f };
const uint32_t n43 = BackdropRects(r43, ps, 1280, 2048, frame, 1.0f, 0.75f, r);
CHECK(n43 == 2 && Same(r[0], Rect{ 0, 0, 1280, 90 }) && Same(r[1], Rect{ 0, 630, 1280, 720 }), "4:3: %u rects [%d,%d)x[%d,%d) ...", n43,
r[0].x0, r[0].x1, r[0].y0, r[0].y1);
// 16:9: nothing.
CHECK(n43 == 4 && Same(r[0], Rect{ 0, 0, 1280, 90 }) && Same(r[1], Rect{ 0, 630, 1280, 720 }) && Same(r[2], Rect{ 0, 90, 1280, 95 }) &&
Same(r[3], Rect{ 0, 625, 1280, 630 }),
"4:3: %u rects [%d,%d)x[%d,%d) [%d,%d)x[%d,%d) ...", n43, r[0].x0, r[0].x1, r[0].y0, r[0].y1, r[2].x0, r[2].x1, r[2].y0, r[2].y1);
// 16:9: the overscan rows alone, rows 0..6 and 713..719, the whole
// width; none for a picture over the whole band.
const Box r169{ -kBackdropX, kBackdropX, -kBackdropY, kBackdropY };
CHECK(BackdropRects(r169, ps, 1280, 2048, frame, 1.0f, 1.0f, r) == 0, "16:9: a backdrop fills nothing");
const uint32_t n169 = BackdropRects(r169, ps, 1280, 2048, frame, 1.0f, 1.0f, r);
CHECK(n169 == 2 && Same(r[0], Rect{ 0, 0, 1280, 7 }) && Same(r[1], Rect{ 0, 713, 1280, 720 }), "16:9: %u rects [%d,%d)x[%d,%d) ...", n169,
r[0].x0, r[0].x1, r[0].y0, r[0].y1);
const Box whole{ -1.0f, 1.0f, -1.0f, 1.0f };
CHECK(BackdropRects(whole, ps, 1280, 2048, frame, 1.0f, 1.0f, r) == 0, "16:9: a picture over the whole band fills nothing at 1x");
// ... and at 2x with half-pixel centres only the top row, whose
// centre lies past clip 1 (the picture is one host row lower: its
// bottom edge is past the frame's).
const uint32_t n2 = BackdropRects(whole, half, 2560, 4096, frame2, 1.0f, 1.0f, r);
CHECK(n2 == 1 && Same(r[0], Rect{ 0, 0, 2560, 1 }), "16:9 2x: %u rects [%d,%d)x[%d,%d) ...", n2, r[0].x0, r[0].x1, r[0].y0, r[0].y1);
}
printf("\nplanted, backdrop fill (each must fail):\n");
{
@@ -859,11 +959,11 @@ static void BackdropTests()
printf("planted %s: %d wrong pixel(s)\n", what, bad);
CHECK(bad > 0, "planted %s: no wrong pixel", what);
};
run("the whole strips (the black frame's fill)", [](const Box&, const float* ps, float w, float h, const Rect& sc, float sx, float sy, Rect* out) {
return BlackoutRects(ps, w, h, sc, sx, sy, out);
run("the whole strips (v0.1.5's black frame fill)", [](const Box& b, const float* ps, float w, float h, const Rect& sc, float sx, float sy, Rect* out) {
return PastBandOnly(b, ps, w, h, sc, sx, sy, out);
});
run("past the picture only (no corners)", [](const Box& b, const float* ps, float w, float h, const Rect& sc, float sx, float sy, Rect* out) {
Rect r[6]{};
Rect r[8]{};
const uint32_t n = BackdropRects(b, ps, w, h, sc, sx, sy, r);
uint32_t m = 0;
for (uint32_t i = 0; i < n; i++)
@@ -877,6 +977,69 @@ static void BackdropTests()
wider.x1 = std::min(b.x1, sx);
return BackdropRects(wider, ps, w, h, sc, sx, sy, out);
});
// The overscan rows, planted: each must fail. runOverscan checks
// every shape at 1x and 2x; with `every`, each shape must fail (16:9
// included), else at least one (a fault only some shapes have).
auto runOverscan = [&](const char* what, BackdropRectsFn f, bool every) {
int bad = 0, shapesFailing = 0;
for (const Case& c : cases)
{
const Box results{ -kBackdropX * c.sx, kBackdropX * c.sx, -kBackdropY * c.sy, kBackdropY * c.sy };
const int here = BackdropOracle(what, c.sx, c.sy, results, ps, 1280, 2048, frame, f, false) +
BackdropOracle(what, c.sx, c.sy, results, half, 2560, 4096, frame2, f, false);
bad += here;
shapesFailing += here > 0;
}
printf("planted %s: %d wrong pixel(s), %d of %zu shapes\n", what, bad, shapesFailing, std::size(cases));
CHECK(every ? shapesFailing == int(std::size(cases)) : bad > 0, "planted %s: %d of %zu shapes failed", what, shapesFailing,
std::size(cases));
};
// 811cdf2's fill: past the band only, the overscan rows left.
runOverscan("no overscan rows (past the band only, as 811cdf2)", [](const Box& b, const float* ps, float w, float h, const Rect& sc, float sx,
float sy, Rect* out) { return PastBandRects(b, ps, w, h, sc, sx, sy, out); }, true);
// Rows only where something lies past the band: 16:9 left.
runOverscan("overscan rows only on wide and tall screens", [](const Box& b, const float* ps, float w, float h, const Rect& sc, float sx,
float sy, Rect* out) {
const uint32_t n = PastBandRects(b, ps, w, h, sc, sx, sy, out);
return n + (sx < 1.0f || sy < 1.0f ? OverscanRows(b, ps, w, h, sc, sx, sy, out + n) : 0u);
}, false);
// Rows to clip 1 where the band's edge is the screen's (no
// kFillEdge): at 2x the outermost row and column are left.
runOverscan("overscan rows to clip 1, not kFillEdge", [](const Box& b, const float* ps, float w, float h, const Rect& sc, float sx, float sy,
Rect* out) {
uint32_t n = PastBandRects(b, ps, w, h, sc, sx, sy, out);
const float bx = std::min(sx, 1.0f), by = std::min(sy, 1.0f);
for (const Rect& r : { ClipToHost(-bx, bx, b.y1, by, ps, w, h), ClipToHost(-bx, bx, -by, b.y0, ps, w, h) })
if (const Rect c = Intersect(r, sc); !Empty(c))
out[n++] = c;
return n;
}, false);
// Rows across the whole screen under Hor+: twice where the fill
// past the band has them already.
runOverscan("overscan rows across the whole screen", [](const Box& b, const float* ps, float w, float h, const Rect& sc, float sx, float sy,
Rect* out) {
const uint32_t n = PastBandRects(b, ps, w, h, sc, sx, sy, out);
return n + OverscanRows(b, ps, w, h, sc, 1.0f, sy, out + n);
}, false);
// Rows from just inside the picture: its own top and bottom rows
// blacked.
runOverscan("overscan rows from inside the picture", [](const Box& b, const float* ps, float w, float h, const Rect& sc, float sx, float sy,
Rect* out) {
Box in = b;
in.y0 += 0.01f;
in.y1 -= 0.01f;
const uint32_t n = PastBandRects(b, ps, w, h, sc, sx, sy, out);
return n + OverscanRows(in, ps, w, h, sc, sx, sy, out + n);
}, true);
// Rows short of the picture: a row of the race left above it.
runOverscan("overscan rows short of the picture", [](const Box& b, const float* ps, float w, float h, const Rect& sc, float sx, float sy,
Rect* out) {
Box out_ = b;
out_.y0 -= 0.01f;
out_.y1 += 0.01f;
const uint32_t n = PastBandRects(b, ps, w, h, sc, sx, sy, out);
return n + OverscanRows(out_, ps, w, h, sc, sx, sy, out + n);
}, true);
}
printf("\nbackdrop plan (the draw as the renderer hands it over):\n");
@@ -884,15 +1047,57 @@ static void BackdropTests()
const Matrix iphone = FrontEndMatrix(0.818182f, 1.0f), deck = FrontEndMatrix(1.0f, 0.9f), m169 = FrontEndMatrix(1.0f, 1.0f);
const EPolys results = Polys(Rectangle(-kBackdropX, kBackdropX, -kBackdropY, kBackdropY, 0.818182f, 1.0f, kBackdropColour), iphone);
const Draw d = BackdropDraw(iphone, 0.818182f, 1.0f, ps);
const Rect want[6] = { { 1218, 0, 1280, 720 }, { 1164, 0, 1218, 7 }, { 1164, 713, 1218, 720 }, { 0, 0, 62, 720 }, { 62, 0, 116, 7 },
{ 62, 713, 116, 720 } };
BackdropPlanCase("iPhone results", d, results, Fill::Backdrop, 6, want);
const Rect deckWant[2] = { { 0, 0, 1280, 36 }, { 0, 684, 1280, 720 } };
const Rect want[8] = { { 1218, 0, 1280, 720 }, { 1164, 0, 1218, 7 }, { 1164, 713, 1218, 720 }, { 0, 0, 62, 720 }, { 62, 0, 116, 7 },
{ 62, 713, 116, 720 }, { 116, 0, 1164, 7 }, { 116, 713, 1164, 720 } };
BackdropPlanCase("iPhone results", d, results, Fill::Backdrop, 8, want);
// The Deck (1280x800): the rows past the band (0..35, 684..719),
// then its overscan rows (y 0.981 x 0.9 = 0.883: 36..41, 678..683).
const Rect deckWant[4] = { { 0, 0, 1280, 36 }, { 0, 684, 1280, 720 }, { 0, 36, 1280, 42 }, { 0, 678, 1280, 684 } };
BackdropPlanCase("Deck results", BackdropDraw(deck, 1.0f, 0.9f, ps),
Polys(Rectangle(-kBackdropX, kBackdropX, -kBackdropY, kBackdropY, 1.0f, 0.9f, kBackdropColour), deck), Fill::Backdrop, 2, deckWant);
// Never at 16:9 (nothing past the band to fill).
BackdropPlanCase("16:9 results", BackdropDraw(m169, 1.0f, 1.0f, ps),
Polys(Rectangle(-kBackdropX, kBackdropX, -kBackdropY, kBackdropY, 1.0f, 1.0f, kBackdropColour), m169), Fill::None);
Polys(Rectangle(-kBackdropX, kBackdropX, -kBackdropY, kBackdropY, 1.0f, 0.9f, kBackdropColour), deck), Fill::Backdrop, 4, deckWant);
// 16:9 too: its overscan rows alone (rows 0..6 and 713..719), also
// from a ppc/ without the Vert+ hooks (no front-end y scale).
const Draw d169 = BackdropDraw(m169, 1.0f, 1.0f, ps);
const EPolys results169 = Polys(Rectangle(-kBackdropX, kBackdropX, -kBackdropY, kBackdropY, 1.0f, 1.0f, kBackdropColour), m169);
const Rect want169[2] = { { 0, 0, 1280, 7 }, { 0, 713, 1280, 720 } };
BackdropPlanCase("16:9 results", d169, results169, Fill::Backdrop, 2, want169);
Draw old169 = d169;
old169.frontEndY = 0.0f;
BackdropPlanCase("16:9 results, no Vert+ hooks", old169, results169, Fill::Backdrop, 2, want169);
// ... and at 2x with half-pixel centres: the picture one host row
// lower (its top at 2 x 6.84 + 1 = 14.7, its bottom at 1427.3):
// rows 0..14 and 1427..1439.
float half169[4];
FrontEndPs(half169, 640.5f, 360.5f);
const Rect want169x2[2] = { { 0, 0, 2560, 15 }, { 0, 1427, 2560, 1440 } };
BackdropPlanCase("16:9 results, 2x", BackdropDraw(m169, 1.0f, 1.0f, half169, 2560.0f, 4096.0f, Rect{ 0, 0, 2560, 1440 }), results169,
Fill::Backdrop, 2, want169x2);
// Every register check refuses at 16:9 as elsewhere (a fade, a dim
// or the HUD never gets this far: MatchBackdrop's cases above run
// at 16:9 too).
auto refuse169 = [&](const char* what, auto change) {
Draw x = d169;
Matrix m = m169;
change(x, m);
x.c = m.c;
char name[96];
snprintf(name, sizeof(name), "16:9, %s", what);
BackdropPlanCase(name, x, results169, Fill::None);
};
refuse169("taken by another rule", [](Draw& x, Matrix&) { x.leftAlone = false; });
refuse169("not the front-end shader", [](Draw& x, Matrix&) { x.frontEndShader = false; });
refuse169("inside an occlusion query", [](Draw& x, Matrix&) { x.occlusion = true; });
refuse169("two quads", [](Draw& x, Matrix&) { x.count = 8; });
refuse169("additive blend", [](Draw& x, Matrix&) { x.blend0 = 0x01060106; });
refuse169("t0 not sampled", [](Draw& x, Matrix&) { x.t0Sampled = false; });
refuse169("t0 32x32 (the white texture)", [](Draw& x, Matrix&) { x.t0Width = x.t0Height = 32; });
refuse169("x translation c3", [](Draw&, Matrix& m) { m.c[3] = 0.01f; });
refuse169("c5 not the front end's y scale", [](Draw& x, Matrix&) { x.frontEndY = 0.83f; });
refuse169("VTE x offset off", [](Draw& x, Matrix&) { x.vte = 0x43D; });
EPolys faded169 = results169;
for (auto& w : faded169.w)
w[3] = 0xB87F7F7F;
BackdropPlanCase("16:9, alpha B8 (a fade-in)", d169, faded169, Fill::None);
// A flat full-band layer over the 32x32 white texture is not a
// picture (the black frame's and the fades' kind).
Draw flat = d;
@@ -922,7 +1127,7 @@ static void BackdropTests()
refuse("VTE y offset off", [](Draw& x, Matrix&) { x.vte = 0x437; });
Draw opaque = d;
opaque.blend0 = 0x00010001;
BackdropPlanCase("blending off", opaque, results, Fill::Backdrop, 6, want);
BackdropPlanCase("blending off", opaque, results, Fill::Backdrop, 8, want);
// PlanFill (bars and black frames) never takes it: the renderer asks
// PlanBackdrop only when PlanFill found nothing.
CHECK(RunPlan(d, results).fill == Fill::None, "PlanFill took the backdrop");
@@ -1140,42 +1345,82 @@ int main()
printf("\nblack frame fill:\n");
{
const Rect deck[2] = { { 0, 0, 1280, 36 }, { 0, 684, 1280, 720 } };
FillFrame("Deck, 1x", 1.0f, 0.9f, ps, 1280, 2048, frame, 2, deck);
FillFrame("Deck, 1x, half-pixel", 1.0f, 0.9f, half, 1280, 2048, frame, 2, deck);
const Rect deck2[2] = { { 0, 0, 2560, 72 }, { 0, 1368, 2560, 1440 } };
FillFrame("Deck, 2x", 1.0f, 0.9f, ps, 2560, 4096, frame2, 2, deck2);
const Rect deck2h[2] = { { 0, 0, 2560, 73 }, { 0, 1369, 2560, 1440 } };
FillFrame("Deck, 2x, half-pixel", 1.0f, 0.9f, half, 2560, 4096, frame2, 2, deck2h);
const Rect r43[2] = { { 0, 0, 1280, 90 }, { 0, 630, 1280, 720 } };
FillFrame("4:3", 1.0f, 0.75f, ps, 1280, 2048, frame, 2, r43);
FillFrame("iPad Pro", 1.0f, 0.750366f, ps, 1280, 2048, frame, 2, r43);
const Rect r32[2] = { { 0, 0, 1280, 56 }, { 0, 664, 1280, 720 } };
FillFrame("3:2", 1.0f, 0.84375f, ps, 1280, 2048, frame, 2, r32);
const Rect t[1] = { { 0, 428, 1280, 464 } };
FillFrame("Deck, tile at y -256", 1.0f, 0.9f, tiled, 1280, 2048, Rect{ 0, 0, 1280, 464 }, 1, t);
const Rect g[2] = { { 100, 10, 1180, 36 }, { 100, 684, 1180, 700 } };
// Everything outside the frame: the rows above and below it, then
// the columns beside it within its rows (v0.1.5: only past the band,
// the Deck's rows 0..35 and 684..719, nothing at 16:9).
const Rect deck[4] = { { 0, 0, 1280, 56 }, { 0, 664, 1280, 720 }, { 0, 56, 19, 664 }, { 1261, 56, 1280, 664 } };
FillFrame("Deck, 1x", 1.0f, 0.9f, ps, 1280, 2048, frame, 4, deck);
const Rect deckh[4] = { { 0, 0, 1280, 56 }, { 0, 665, 1280, 720 }, { 0, 56, 20, 665 }, { 1261, 56, 1280, 665 } };
FillFrame("Deck, 1x, half-pixel", 1.0f, 0.9f, half, 1280, 2048, frame, 4, deckh);
const Rect deck2[4] = { { 0, 0, 2560, 112 }, { 0, 1328, 2560, 1440 }, { 0, 112, 38, 1328 }, { 2522, 112, 2560, 1328 } };
FillFrame("Deck, 2x", 1.0f, 0.9f, ps, 2560, 4096, frame2, 4, deck2);
const Rect deck2h[4] = { { 0, 0, 2560, 113 }, { 0, 1329, 2560, 1440 }, { 0, 113, 39, 1329 }, { 2523, 113, 2560, 1329 } };
FillFrame("Deck, 2x, half-pixel", 1.0f, 0.9f, half, 2560, 4096, frame2, 4, deck2h);
const Rect r43[4] = { { 0, 0, 1280, 106 }, { 0, 614, 1280, 720 }, { 0, 106, 19, 614 }, { 1261, 106, 1280, 614 } };
FillFrame("4:3", 1.0f, 0.75f, ps, 1280, 2048, frame, 4, r43);
FillFrame("iPad Pro", 1.0f, 0.750366f, ps, 1280, 2048, frame, 4, r43);
const Rect r32[4] = { { 0, 0, 1280, 75 }, { 0, 645, 1280, 720 }, { 0, 75, 19, 645 }, { 1261, 75, 1280, 645 } };
FillFrame("3:2", 1.0f, 0.84375f, ps, 1280, 2048, frame, 4, r32);
const Rect t[3] = { { 0, 408, 1280, 464 }, { 0, 0, 19, 408 }, { 1261, 0, 1280, 408 } };
FillFrame("Deck, tile at y -256", 1.0f, 0.9f, tiled, 1280, 2048, Rect{ 0, 0, 1280, 464 }, 3, t);
const Rect g[2] = { { 100, 10, 1180, 56 }, { 100, 664, 1180, 700 } };
FillFrame("Deck, game scissor", 1.0f, 0.9f, ps, 1280, 2048, Rect{ 100, 10, 1180, 700 }, 2, g);
const Rect fl[2] = { { 0, 684, 1280, 720 }, { 0, 0, 1280, 36 } };
FillFrame("Deck, y flipped", 1.0f, 0.9f, flipped, 1280, 2048, frame, 2, fl);
const Rect w329[2] = { { 1920, 0, 2560, 1440 }, { 0, 0, 640, 1440 } };
FillFrame("32:9, 2x", 0.5f, 1.0f, ps, 2560, 4096, frame2, 2, w329);
const Rect w329h[2] = { { 1921, 0, 2560, 1440 }, { 0, 0, 641, 1440 } };
FillFrame("32:9, 2x, half-pixel", 0.5f, 1.0f, half, 2560, 4096, frame2, 2, w329h);
const Rect uw[2] = { { 1120, 0, 1280, 720 }, { 0, 0, 160, 720 } };
FillFrame("21:9", 0.75f, 1.0f, ps, 1280, 2048, frame, 2, uw);
const Rect u3440[2] = { { 1116, 0, 1280, 720 }, { 0, 0, 164, 720 } };
FillFrame("3440x1440", 0.744186f, 1.0f, ps, 1280, 2048, frame, 2, u3440);
FillFrame("16:9", 1.0f, 1.0f, ps, 1280, 2048, frame, 0, nullptr);
const Rect fl[4] = { { 0, 664, 1280, 720 }, { 0, 0, 1280, 56 }, { 0, 56, 19, 664 }, { 1261, 56, 1280, 664 } };
FillFrame("Deck, y flipped", 1.0f, 0.9f, flipped, 1280, 2048, frame, 4, fl);
const Rect w329[4] = { { 0, 0, 2560, 44 }, { 0, 1396, 2560, 1440 }, { 0, 44, 659, 1396 }, { 1901, 44, 2560, 1396 } };
FillFrame("32:9, 2x", 0.5f, 1.0f, ps, 2560, 4096, frame2, 4, w329);
const Rect w329h[4] = { { 0, 0, 2560, 45 }, { 0, 1397, 2560, 1440 }, { 0, 45, 660, 1397 }, { 1902, 45, 2560, 1397 } };
FillFrame("32:9, 2x, half-pixel", 0.5f, 1.0f, half, 2560, 4096, frame2, 4, w329h);
const Rect uw[4] = { { 0, 0, 1280, 22 }, { 0, 698, 1280, 720 }, { 0, 22, 174, 698 }, { 1106, 22, 1280, 698 } };
FillFrame("21:9", 0.75f, 1.0f, ps, 1280, 2048, frame, 4, uw);
const Rect u3440[4] = { { 0, 0, 1280, 22 }, { 0, 698, 1280, 720 }, { 0, 22, 178, 698 }, { 1102, 22, 1280, 698 } };
FillFrame("3440x1440", 0.744186f, 1.0f, ps, 1280, 2048, frame, 4, u3440);
const Rect r169[4] = { { 0, 0, 1280, 22 }, { 0, 698, 1280, 720 }, { 0, 22, 19, 698 }, { 1261, 22, 1280, 698 } };
FillFrame("16:9", 1.0f, 1.0f, ps, 1280, 2048, frame, 4, r169);
const Rect r169h[4] = { { 0, 0, 2560, 45 }, { 0, 1397, 2560, 1440 }, { 0, 45, 39, 1397 }, { 2523, 45, 2560, 1397 } };
FillFrame("16:9, 2x, half-pixel", 1.0f, 1.0f, half, 2560, 4096, frame2, 4, r169h);
}
FrameOracle("Deck 1x", 1.0f, 0.9f, ps, 1280, 2048, frame);
FrameOracle("Deck 3x, half-pixel", 1.0f, 0.9f, half, 3840, 6144, frame3);
FrameOracle("4:3 2x, y flipped, half-pixel", 1.0f, 0.75f, flippedHalf, 2560, 4096, frame2);
FrameOracle("Deck, tile", 1.0f, 0.9f, tiled, 1280, 2048, Rect{ 0, 0, 1280, 464 });
FrameOracle("Deck, game scissor", 1.0f, 0.9f, ps, 1280, 2048, Rect{ 100, 10, 1180, 700 });
FrameOracle("32:9 2x, half-pixel", 0.5f, 1.0f, half, 2560, 4096, frame2);
FrameOracle("21:9 1x", 0.75f, 1.0f, ps, 1280, 2048, frame);
FrameOracle("3440x1440 2x", 0.744186f, 1.0f, ps, 2560, 4096, frame2);
FrameOracle("16:9", 1.0f, 1.0f, ps, 1280, 2048, frame);
FrameOracle("16:9 2x, half-pixel", 1.0f, 1.0f, half, 2560, 4096, frame2);
FrameOracle("~57 s frame, Deck", 1.0f, 0.9f, ps, 1280, 2048, frame, RingRects, true, kFrameX, kFrameY57);
FrameOracle("Blacklist bio panel, 16:9", 1.0f, 1.0f, ps, 1280, 2048, frame, RingRects, true, kBioX, kBioY);
FrameOracle("Blacklist bio panel, Deck 2x, half-pixel", 1.0f, 0.9f, half, 2560, 4096, frame2, RingRects, true, kBioX, kBioY);
// Planted: the oracle catches v0.1.5's fill (past the band only) at
// every shape, 16:9 included, and a ring that leaves the frame's own
// rows' sides out.
{
struct Shape2
{
const char* name;
float sx, sy;
};
const Shape2 shapes[] = { { "Deck", 1.0f, 0.9f }, { "4:3", 1.0f, 0.75f }, { "16:9", 1.0f, 1.0f }, { "21:9", 0.75f, 1.0f }, { "32:9", 0.5f, 1.0f } };
int failing = 0;
for (const Shape2& sh : shapes)
failing += FrameOracle(sh.name, sh.sx, sh.sy, ps, 1280, 2048, frame, PastBandOnly, false) > 0;
printf("planted black frame fill 'past the band only (v0.1.5)': %d of %zu shapes fail\n", failing, std::size(shapes));
CHECK(failing == int(std::size(shapes)), "planted 'past the band only': %d of %zu shapes fail", failing, std::size(shapes));
const int rowsOnly = FrameOracle("rows only", 1.0f, 0.9f, ps, 1280, 2048, frame,
[](const Box& b, const float* q, float w, float h, const Rect& sc, float, float, Rect* out) {
Rect r[4]{};
const uint32_t n = BlackoutRects(b, q, w, h, sc, r);
uint32_t m = 0;
for (uint32_t i = 0; i < n && i < 2; i++)
out[m++] = r[i];
return m;
},
false);
printf("planted black frame fill 'rows above and below only': %d wrong pixel(s)\n", rowsOnly);
CHECK(rowsOnly > 0, "planted 'rows above and below only' passed");
}
Cover("black frame, Deck", -kFrameX, kFrameX, 1.0f, 0.9f, ps);
Cover("black frame, 32:9, half-pixel", -kFrameX, kFrameX, 0.5f, 1.0f, half);
@@ -1190,8 +1435,14 @@ int main()
const Rect right[2] = { { 640, 0, 1280, 36 }, { 640, 684, 1280, 720 } }, left[2] = { { 0, 0, 640, 36 }, { 0, 684, 640, 720 } };
PlanCase("Deck right bar", d, rightDeck, Fill::RightBar, 2, right);
PlanCase("Deck left bar", d, leftDeck, Fill::LeftBar, 2, left);
const Rect black[2] = { { 0, 0, 1280, 36 }, { 0, 684, 1280, 720 } };
PlanCase("Deck black frame", d, frameDeck, Fill::Blackout, 2, black);
const Rect black[4] = { { 0, 0, 1280, 56 }, { 0, 664, 1280, 720 }, { 0, 56, 19, 664 }, { 1261, 56, 1280, 664 } };
PlanCase("Deck black frame", d, frameDeck, Fill::Blackout, 4, black);
// The Blacklist bio's panel (GitHub #19), as logged on the Deck:
// "black frame x -0.976..0.976 y -0.887..0.887 colour FB000000".
const Rect bio[4] = { { 0, 0, 1280, 41 }, { 0, 679, 1280, 720 }, { 0, 41, 15, 679 }, { 1265, 41, 1280, 679 } };
PlanCase("Deck Blacklist bio panel", d, Polys(Rectangle(-kBioX, kBioX, -kBioY, kBioY, 1.0f, 0.9f, 0xFB000000), deck), Fill::Blackout, 4, bio);
// ... fading in (11000000): left as it is, as before.
PlanCase("Deck Blacklist bio panel fading in", d, Polys(Rectangle(-kBioX, kBioX, -kBioY, kBioY, 1.0f, 0.9f, 0x11000000), deck), Fill::None);
{
const Plan p = RunPlan(d, rightDeck);
CHECK(std::fabs(p.box.x0 - 0.651f) < 1e-5f && std::fabs(p.box.x1 - 1.406f) < 1e-5f && std::fabs(p.box.y0 + 1.024f * 0.9f) < 1e-5f &&
@@ -1205,22 +1456,26 @@ int main()
const EPolys right329 = Polys(Rectangle(0.651f, 1.406f, -1.024f, 1.039f, 0.5f, 1.0f, 0xFD000000), w329);
const EPolys frame329 = Polys(Rectangle(-kFrameX, kFrameX, -kFrameY, kFrameY, 0.5f, 1.0f, kFrameColour), w329);
const Draw d329 = S2Draw(w329, 0.5f, 1.0f, ps, 2560, 4096, frame2);
const Rect r329[1] = { { 1920, 0, 2560, 1440 } }, f329[2] = { { 1920, 0, 2560, 1440 }, { 0, 0, 640, 1440 } };
const Rect r329[1] = { { 1920, 0, 2560, 1440 } };
const Rect f329[4] = { { 0, 0, 2560, 44 }, { 0, 1396, 2560, 1440 }, { 0, 44, 659, 1396 }, { 1901, 44, 2560, 1396 } };
PlanCase("32:9 right bar", d329, right329, Fill::RightBar, 1, r329);
PlanCase("32:9 black frame", d329, frame329, Fill::Blackout, 2, f329);
PlanCase("32:9 black frame", d329, frame329, Fill::Blackout, 4, f329);
// 21:9: the bars reach the screen edge (nothing to fill), the black
// frame does not.
const Matrix uw = FrontEndMatrix(0.75f, 1.0f);
const Draw duw = S2Draw(uw, 0.75f, 1.0f, ps);
PlanCase("21:9 right bar", duw, Polys(Rectangle(0.651f, 1.406f, -1.024f, 1.039f, 0.75f, 1.0f, 0xFD000000), uw), Fill::RightBar, 0, nullptr);
const Rect fuw[2] = { { 1120, 0, 1280, 720 }, { 0, 0, 160, 720 } };
PlanCase("21:9 black frame", duw, Polys(Rectangle(-kFrameX, kFrameX, -kFrameY, kFrameY, 0.75f, 1.0f, kFrameColour), uw), Fill::Blackout, 2,
const Rect fuw[4] = { { 0, 0, 1280, 22 }, { 0, 698, 1280, 720 }, { 0, 22, 174, 698 }, { 1106, 22, 1280, 698 } };
PlanCase("21:9 black frame", duw, Polys(Rectangle(-kFrameX, kFrameX, -kFrameY, kFrameY, 0.75f, 1.0f, kFrameColour), uw), Fill::Blackout, 4,
fuw);
// 16:9 never gets here (the renderer's block needs a view scale
// below 1), and a plan there fills nothing.
// 16:9 (the renderer asks PlanFill there too): the thin border round
// the frame; a vid-cam bar there fills nothing.
const Matrix m169 = FrontEndMatrix(1.0f, 1.0f);
const Rect f169[4] = { { 0, 0, 1280, 22 }, { 0, 698, 1280, 720 }, { 0, 22, 19, 698 }, { 1261, 22, 1280, 698 } };
PlanCase("16:9 black frame", S2Draw(m169, 1.0f, 1.0f, ps),
Polys(Rectangle(-kFrameX, kFrameX, -kFrameY, kFrameY, 1.0f, 1.0f, kFrameColour), m169), Fill::Blackout, 0, nullptr);
Polys(Rectangle(-kFrameX, kFrameX, -kFrameY, kFrameY, 1.0f, 1.0f, kFrameColour), m169), Fill::Blackout, 4, f169);
PlanCase("16:9 right bar", S2Draw(m169, 1.0f, 1.0f, ps), Polys(Rectangle(0.651f, 1.406f, -1.024f, 1.039f, 1.0f, 1.0f, 0xFD000000), m169),
Fill::RightBar, 0, nullptr);
// A ppc/ from before the Vert+ hooks reports no front-end y scale
// (0): Hor+ still fills (c5 the unnarrowed 0.92), a narrowed view
// can't happen there and is refused.
+276
View File
@@ -0,0 +1,276 @@
// SpeedBreaker tests. GPL-3.0-or-later (see COPYING).
//
// Settings > Graphics > Upscaling's FSR 1: which pass draws a frame
// (video/upscale.h, on video::FitPicture's pictures), Sharpening as RCAS's
// strength, the shaders' constants against AMD's formulas, and their GLSL
// (video/fsr1.cpp): AMD's two headers compiled in byte for byte, one main
// in RCAS's (the tone variant renames it), and the band rules of
// video/band_filter.h in their code.
// Arguments: runtime/thirdparty/fsr1 (the vendored headers), runtime/video
// (presenter.cpp and fsr1.cpp read, and ../user/settings.cpp: FSR 1 isn't
// offered on iPhone and iPad, and no FSR 1 shader is compiled unless a
// frame's pass is FSR 1), and a folder the GLSL is written to
// (fsr1_glsl_check, when glslangValidator is installed, compiles it).
//
// Build by hand (from the repo root, after a CMake configure has written
// build/main/runtime/generated/fsr1_headers.inc):
// c++ -std=c++20 -O2 -UNDEBUG -I runtime -I build/main/runtime/generated tests/fsr1_test.cpp \
// runtime/video/fsr1.cpp runtime/video/picture_fit.cpp -o build/fsr1_test
// build/fsr1_test runtime/thirdparty/fsr1 runtime/video build/fsr1_glsl
#include <user/settings.h>
#include <video/fsr1.h>
#include <video/picture_fit.h>
#include <video/upscale.h>
#include <array>
#include <cmath>
#include <cstdio>
#include <cstring>
#include <filesystem>
#include <fstream>
#include <sstream>
#include <string>
namespace
{
int s_failures = 0;
#define CHECK(cond, ...) \
do \
{ \
if (!(cond)) \
{ \
s_failures++; \
fprintf(stderr, "FAIL %s:%d: %s: ", __FILE__, __LINE__, #cond); \
fprintf(stderr, __VA_ARGS__); \
fprintf(stderr, "\n"); \
} \
} while (0)
using video::upscale::Choose;
using video::upscale::Mode;
using video::upscale::Pass;
std::string Read(const std::filesystem::path& path)
{
std::ifstream in(path, std::ios::binary);
std::stringstream text;
text << in.rdbuf();
return text.str();
}
float Float(uint32_t bits)
{
float f;
memcpy(&f, &bits, 4);
return f;
}
size_t Count(const std::string& text, const std::string& what)
{
size_t n = 0;
for (size_t at = text.find(what); at != std::string::npos; at = text.find(what, at + 1))
n++;
return n;
}
// The pass for a 1280x720-shaped frame of imageW x imageH on a screen,
// where the presenter puts it (Aspect Ratio Auto, the hooks present).
Pass PassOn(Mode mode, uint32_t imageW, uint32_t imageH, uint32_t screenW, uint32_t screenH, int32_t* dw = nullptr, int32_t* dh = nullptr)
{
const video::PictureFit fit = video::FitPicture(screenW, screenH, 1280.0f, 720.0f, true, true);
if (dw)
*dw = fit.width, *dh = fit.height;
return Choose(int32_t(mode), imageW, imageH, fit.width, fit.height);
}
void PassSelection()
{
static_assert(int32_t(Mode::Bicubic) == int32_t(settings::ScalingMode::Bicubic));
static_assert(int32_t(Mode::Linear) == int32_t(settings::ScalingMode::Linear));
static_assert(int32_t(Mode::Fsr1) == int32_t(settings::ScalingMode::Fsr1));
struct Case
{
const char* what;
uint32_t imageW, imageH, screenW, screenH;
Pass fsr; // with Upscaling on FSR 1
};
const Case cases[] = {
{ "1x on 1080p", 1280, 720, 1920, 1080, Pass::Fsr1 },
{ "1x on 1440p", 1280, 720, 2560, 1440, Pass::Fsr1 },
{ "1x on a MacBook Pro 14 (Vert+)", 1280, 720, 3024, 1898, Pass::Fsr1 },
{ "1.5x on 4K", 1920, 1080, 3840, 2160, Pass::Fsr1 },
{ "1x on the Steam Deck (720 rows stretched to 800)", 1280, 720, 1280, 800, Pass::Fsr1 },
{ "2x on a MacBook Pro 14 (Auto on an M1 Pro)", 2560, 1440, 3024, 1898, Pass::Fsr1 },
{ "1x on an ultrawide (Hor+)", 1280, 720, 3440, 1440, Pass::Fsr1 },
{ "1x in a 1280x720 window (1:1)", 1280, 720, 1280, 720, Pass::Bicubic },
{ "2x on 1080p (shrunk)", 2560, 1440, 1920, 1080, Pass::Bicubic },
{ "2x on 1440p (1:1)", 2560, 1440, 2560, 1440, Pass::Bicubic },
{ "3x2 on an ultrawide (columns shrunk)", 3840, 1440, 3440, 1440, Pass::Bicubic },
{ "1x in a small window (shrunk)", 1280, 720, 960, 540, Pass::Bicubic },
{ "1x2 on 1080p (columns enlarged, rows shrunk)", 1280, 1440, 1920, 1080, Pass::Bicubic },
};
for (const Case& c : cases)
{
int32_t dw = 0, dh = 0;
const Pass fsr = PassOn(Mode::Fsr1, c.imageW, c.imageH, c.screenW, c.screenH, &dw, &dh);
CHECK(fsr == c.fsr, "%s (%ux%u -> %dx%d): FSR 1 setting gives %s, want %s", c.what, c.imageW, c.imageH, dw, dh,
video::upscale::PassName(fsr), video::upscale::PassName(c.fsr));
// The other settings draw as they always did, enlarged or not.
CHECK(PassOn(Mode::Bicubic, c.imageW, c.imageH, c.screenW, c.screenH) == Pass::Bicubic, "%s: bicubic", c.what);
CHECK(PassOn(Mode::Linear, c.imageW, c.imageH, c.screenW, c.screenH) == Pass::Linear, "%s: bilinear", c.what);
printf(" %-50s %4ux%-4u -> %4dx%-4d %s\n", c.what, c.imageW, c.imageH, dw, dh, video::upscale::PassName(fsr));
}
// No picture, or a value the menu never stores: bicubic.
CHECK(Choose(int32_t(Mode::Fsr1), 0, 0, 1920, 1080) == Pass::Bicubic, "no frame");
CHECK(Choose(int32_t(Mode::Fsr1), 1280, 720, 0, 0) == Pass::Bicubic, "no picture");
CHECK(Choose(7, 1280, 720, 1920, 1080) == Pass::Bicubic, "an unknown mode");
// Enlarged along one axis by a single pixel counts; along neither doesn't.
CHECK(video::upscale::Enlarged(1280, 720, 1281, 720) && !video::upscale::Enlarged(1280, 720, 1280, 720), "one pixel");
}
void Sharpness()
{
using video::upscale::RcasAmount;
using video::upscale::RcasStops;
CHECK(RcasAmount(0.0f) == 0.0f && std::isinf(RcasStops(0.0f)), "0 turns RCAS off");
CHECK(RcasAmount(-1.0f) == 0.0f && RcasAmount(NAN) == 0.0f, "below 0, NaN: off");
CHECK(RcasAmount(1.0f) == 1.0f && RcasStops(1.0f) == 0.0f, "1 is RCAS's maximum (0 stops)");
CHECK(RcasAmount(2.0f) == 1.0f, "above 1: the maximum");
CHECK(std::fabs(RcasStops(0.5f) - 1.0f) < 1e-6f, "0.5: one stop below");
float last = -1.0f;
for (int i = 0; i <= 20; i++)
{
const float a = RcasAmount(float(i) / 20.0f);
CHECK(a > last || (i == 0 && a == 0.0f), "monotonic at %d/20", i);
last = a;
}
// What RCAS gets: FsrRcasCon's con.x is the linear factor 2^-stops.
for (float s : { 0.05f, 0.3f, 0.5f, 1.0f })
{
const auto con = video::fsr1::RcasConstants(RcasStops(s));
CHECK(std::fabs(Float(con[0]) - RcasAmount(s)) < 1e-5f, "Sharpening %.2f: con.x %.6f, want %.6f", s, Float(con[0]), RcasAmount(s));
}
const auto off = video::fsr1::RcasConstants(RcasStops(0.0f));
CHECK(off[0] == 0 && off[1] == 0, "off: con 0 (the shader copies EASU's picture)");
}
void EasuConstants()
{
// FsrEasuCon's formulas (ffx_fsr1.h), for the image's whole size.
const std::array<uint32_t, 4> sizes[] = { { 1280, 720, 1920, 1080 }, { 1280, 720, 1280, 800 }, { 1920, 1080, 3840, 2160 },
{ 1280, 720, 3024, 1898 } };
for (auto [sw, sh, dw, dh] : sizes)
{
const auto c = video::fsr1::EasuConstants(sw, sh, dw, dh);
const float x = float(sw) / float(dw), y = float(sh) / float(dh);
CHECK(std::fabs(Float(c[0]) - x) < 1e-6f && std::fabs(Float(c[1]) - y) < 1e-6f, "%ux%u -> %ux%u: con0.xy", sw, sh, dw, dh);
CHECK(std::fabs(Float(c[2]) - (0.5f * x - 0.5f)) < 1e-6f && std::fabs(Float(c[3]) - (0.5f * y - 0.5f)) < 1e-6f, "con0.zw");
CHECK(Float(c[4]) == 1.0f / float(sw) && Float(c[5]) == 1.0f / float(sh), "con1.xy");
CHECK(Float(c[6]) == 1.0f / float(sw) && Float(c[7]) == -1.0f / float(sh), "con1.zw");
CHECK(Float(c[8]) == -1.0f / float(sw) && Float(c[9]) == 2.0f / float(sh), "con2.xy");
CHECK(Float(c[10]) == 1.0f / float(sw) && Float(c[11]) == 2.0f / float(sh), "con2.zw");
CHECK(Float(c[12]) == 0.0f && Float(c[13]) == 4.0f / float(sh) && c[14] == 0 && c[15] == 0, "con3");
}
}
void Glsl(const std::filesystem::path& fsrDir, const std::filesystem::path& videoDir, const std::filesystem::path& out)
{
const std::string easu = video::fsr1::EasuGlsl(), rcas = video::fsr1::RcasGlsl();
// AMD's headers inside, byte for byte as vendored (unmodified).
size_t halfInHeaders = 0;
for (const char* name : { "ffx_a.h", "ffx_fsr1.h" })
{
const std::string header = Read(fsrDir / name);
CHECK(header.size() > 10000, "%s read (%zu bytes)", name, header.size());
CHECK(easu.find(header) != std::string::npos && rcas.find(header) != std::string::npos, "%s compiled in unchanged", name);
halfInHeaders += Count(header, "#define A_HALF"); // their usage examples, in comments
}
CHECK(Count(easu, "#define FSR_EASU_F 1") == 1 && Count(rcas, "#define FSR_RCAS_F 1") == 1, "the 32-bit paths");
CHECK(Count(easu, "#define A_HALF") == halfInHeaders && Count(rcas, "#define A_HALF") == halfInHeaders,
"no 16-bit path of ours (MoltenVK, Intel): %zu, %zu, %zu in the headers' comments", Count(easu, "#define A_HALF"),
Count(rcas, "#define A_HALF"), halfInHeaders);
CHECK(Count(rcas, "void main()") == 1, "RCAS has one main (the tone variant renames it)");
// band_filter.h's rules, as the GLSL writes them.
CHECK(easu.find("vec2 pos = (vec2(ip) + 0.5) * vec2(p.srcSize) / vec2(p.outSize);") != std::string::npos, "EASU: SourceOf");
CHECK(easu.find("return t < float(lo) ? ivec2(0, lo) : t < float(hi) ? ivec2(lo, hi) : ivec2(hi, size);") != std::string::npos, "EASU: SpanOf");
CHECK(easu.find("texelFetch(src, clamp(t, spanLo, spanHi), 0)") != std::string::npos, "EASU: ClampTexel");
CHECK(easu.find("p.bandOn == 0u ? textureGather(src, q, 0) : quadIn(q, 0)") != std::string::npos, "EASU: gathers without a band");
CHECK(rcas.find("float t = (float(i) + 0.5) * float(srcSize) / float(outSize);") != std::string::npos, "RCAS: SourceOf");
CHECK(rcas.find("return t < float(lo) ? 0 : t < float(hi) ? 1 : 2;") != std::string::npos, "RCAS: SpanIndex");
CHECK(Count(rcas, "!= centreSpan.") == 2 && rcas.find("t.x = centre.x;") != std::string::npos && rcas.find("t.y = centre.y;") != std::string::npos,
"RCAS: RcasNeighbour on both axes");
// The presenter: the pass from Choose, RCAS's tone variant from ToneVariant, EASU before the swapchain's pass.
const std::string presenter = Read(videoDir / "presenter.cpp");
CHECK(presenter.find("upscale::Choose(settings::GetInt(settings::Id::Scaling), w, h, dw, dh)") != std::string::npos, "ChoosePass");
CHECK(presenter.find("ToneVariant(fsr1::RcasGlsl().c_str())") != std::string::npos, "RCAS's tone variant");
const size_t easuAt = presenter.find("RecordEasu(cmd, scaleInput, w, h, dw, dh, band, bandOn);");
const size_t passAt = presenter.find("color.loadOp = VK_ATTACHMENT_LOAD_OP_CLEAR; // black bars");
CHECK(easuAt != std::string::npos && passAt != std::string::npos && easuAt < passAt, "EASU before the swapchain image's pass");
// No FSR 1 shader or pipeline unless a frame's pass is FSR 1: the
// GLSL is compiled only in EnsureFsr and RcasPipeline, and every
// EnsureFsr() call is behind "pass == upscale::Pass::Fsr1".
const size_t ensureAt = presenter.find("bool EnsureFsr()"), imageAt = presenter.find("void EnsureFsrImage(");
CHECK(ensureAt != std::string::npos && imageAt != std::string::npos && ensureAt < imageAt, "EnsureFsr, RcasPipeline, EnsureFsrImage in order");
size_t glslAt = 0, glslCount = 0;
while ((glslAt = presenter.find("fsr1::", glslAt)) != std::string::npos)
{
if (presenter.compare(glslAt, 15, "fsr1::EasuGlsl(") == 0 || presenter.compare(glslAt, 15, "fsr1::RcasGlsl(") == 0)
{
glslCount++;
CHECK(glslAt > ensureAt && glslAt < imageAt, "FSR 1 GLSL compiled outside EnsureFsr/RcasPipeline (offset %zu)", glslAt);
}
glslAt += 6;
}
CHECK(glslCount == 3, "FSR 1 GLSL compiled in 3 places (EASU, RCAS, RCAS's tone variant): %zu", glslCount);
size_t calls = 0;
for (size_t callAt = presenter.find("EnsureFsr()"); callAt != std::string::npos; callAt = presenter.find("EnsureFsr()", callAt + 11))
{
if (callAt == ensureAt + 5)
continue; // the definition
calls++;
const size_t lineAt = presenter.rfind('\n', callAt) + 1;
CHECK(presenter.substr(lineAt, callAt - lineAt).find("pass == upscale::Pass::Fsr1 && ") != std::string::npos,
"EnsureFsr() called without the FSR 1 pass: %s", presenter.substr(lineAt, presenter.find('\n', callAt) - lineAt).c_str());
}
CHECK(calls == 2, "EnsureFsr() called from ChoosePass and NFSMW_UPSCALE_COMPARE only: %zu", calls);
// iPhone and iPad: no FSR 1 in the menu (user/settings.cpp: its entry
// compiled out there, so "fsr1" reads as unknown = bicubic).
const std::string settingsCpp = Read(videoDir / ".." / "user" / "settings.cpp");
const size_t entryAt = settingsCpp.find("{ int32_t(ScalingMode::Fsr1), \"fsr1\", \"FSR 1\" },");
const size_t ifAt = settingsCpp.rfind("#if !(defined(__APPLE__) && TARGET_OS_IOS)", entryAt);
const size_t endifAt = settingsCpp.find("#endif", ifAt == std::string::npos ? 0 : ifAt);
CHECK(entryAt != std::string::npos && ifAt != std::string::npos && endifAt > entryAt
&& settingsCpp.substr(ifAt, entryAt - ifAt).find("#endif") == std::string::npos,
"the FSR 1 Upscaling entry is compiled out on iPhone and iPad");
// For fsr1_glsl_check: the shaders as glslang gets them (the tone
// variant as ToneVariant makes it).
std::filesystem::create_directories(out);
std::ofstream(out / "easu.comp") << easu;
std::ofstream(out / "rcas.frag") << rcas;
std::string tone = rcas;
tone.replace(tone.find("void main()"), 11, "void scaleMain()");
tone += "\nlayout(set = 0, binding = 1) uniform sampler2D toneTable;\nvoid main()\n{\n scaleMain();\n"
" color = vec4(textureLod(toneTable, vec2(color.r, 0.5), 0.0).r, color.gb, color.a);\n}\n";
std::ofstream(out / "rcas_tone.frag") << tone;
}
}
int main(int argc, char** argv)
{
printf("the pass with Upscaling on FSR 1:\n");
PassSelection();
Sharpness();
EasuConstants();
if (argc >= 4)
Glsl(argv[1], argv[2], argv[3]);
else
printf("(no folders given: the GLSL checks skipped)\n");
if (s_failures)
{
printf("%d check(s) FAILED\n", s_failures);
return 1;
}
printf("all checks passed\n");
return 0;
}
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// Tests for hid/key_map.h: the 24 keyboard-driven controls, their two keys each, and how held keys
// become buttons, triggers and stick axes. Header only; from the repo root:
// clang++ -std=c++20 -O2 -Iruntime tests/key_map_test.cpp -o build/key_map_test && build/key_map_test
#include <hid/key_map.h>
#include <cstdio>
#include <initializer_list>
#include <set>
static int g_failures = 0;
#define CHECK(cond, ...) do { if (!(cond)) { g_failures++; printf(" FAIL %s:%d: %s: ", __FILE__, __LINE__, #cond); printf(__VA_ARGS__); printf("\n"); } } while (0)
using namespace hid::keymap;
static Resolved Press(std::initializer_list<Control> held)
{
bool pressed[kControls] = {};
for (Control c : held)
pressed[size_t(c)] = true;
return Resolve(pressed);
}
static bool NoAxis(const Resolved& r)
{
for (size_t a = 0; a < size_t(Axis::Count); a++)
if (r.axisSet[a] || r.axis[a] != 0.0f)
return false;
return true;
}
int main()
{
// The table: every control once, in order, each with its own setting
// among the Key options.
CHECK(kControls == 24, "%zu controls", kControls);
std::set<settings::Id> ids;
for (size_t i = 0; i < kControls; i++)
{
CHECK(size_t(kEntries[i].control) == i, "entry %zu is its control", i);
CHECK(ids.insert(kEntries[i].id).second && ids.insert(kEntries[i].id2).second, "entry %zu: its own two settings", i);
CHECK(kEntries[i].id == settings::Id(size_t(settings::Id::KeyRightTrigger) + 2 * i), "entry %zu: in the options' order", i);
CHECK(kEntries[i].id2 == settings::Id(size_t(kEntries[i].id) + 1), "entry %zu: its second key is the next option", i);
CHECK(kEntries[i].id2 <= settings::Id::KeyRightStickClick2, "entry %zu: a Key option", i);
if (kEntries[i].role == Role::Button)
CHECK(kEntries[i].button != 0 && (kEntries[i].button & (kEntries[i].button - 1)) == 0, "entry %zu: one bit", i);
else
CHECK(kEntries[i].button == 0, "entry %zu: no bit", i);
}
CHECK(kEntries[size_t(Control::RightTrigger)].id == settings::Id::KeyRightTrigger &&
kEntries[size_t(Control::RightStickClick)].id2 == settings::Id::KeyRightStickClick2, "first and last");
// Either key's option finds its control.
CHECK(&EntryOf(settings::Id::KeyRightTrigger) == &kEntries[0] && &EntryOf(settings::Id::KeyRightTrigger2) == &kEntries[0] &&
&EntryOf(settings::Id::KeyLeftStickLeft2) == &kEntries[size_t(Control::LeftStickLeft)] &&
&EntryOf(settings::Id::KeyRightStickClick2) == &kEntries[kControls - 1], "EntryOf");
// The bits are XInput's (xbox.h's XAMINPUT_GAMEPAD_*; input.cpp asserts the same).
CHECK(button::DpadUp == 0x0001 && button::DpadDown == 0x0002 && button::DpadLeft == 0x0004 && button::DpadRight == 0x0008 &&
button::Start == 0x0010 && button::Back == 0x0020 && button::LeftThumb == 0x0040 && button::RightThumb == 0x0080 &&
button::LeftShoulder == 0x0100 && button::RightShoulder == 0x0200 &&
button::A == 0x1000 && button::B == 0x2000 && button::X == 0x4000 && button::Y == 0x8000, "XInput's bits");
// Nothing held: nothing.
Resolved r = Press({});
CHECK(r.buttons == 0 && !r.leftTrigger && !r.rightTrigger && NoAxis(r), "idle");
// A button key sets its bit and nothing else.
r = Press({ Control::A });
CHECK(r.buttons == button::A && !r.leftTrigger && !r.rightTrigger && NoAxis(r), "A: 0x%04x", r.buttons);
CHECK(Press({ Control::B }).buttons == button::B && Press({ Control::X }).buttons == button::X && Press({ Control::Y }).buttons == button::Y, "B X Y");
CHECK(Press({ Control::LB }).buttons == button::LeftShoulder && Press({ Control::RB }).buttons == button::RightShoulder, "LB RB");
CHECK(Press({ Control::DpadUp }).buttons == button::DpadUp && Press({ Control::DpadDown }).buttons == button::DpadDown &&
Press({ Control::DpadLeft }).buttons == button::DpadLeft && Press({ Control::DpadRight }).buttons == button::DpadRight, "D-pad");
CHECK(Press({ Control::Start }).buttons == button::Start && Press({ Control::Back }).buttons == button::Back, "Start Back");
CHECK(Press({ Control::LeftStickClick }).buttons == button::LeftThumb && Press({ Control::RightStickClick }).buttons == button::RightThumb, "clicks");
r = Press({ Control::DpadLeft, Control::Back, Control::X });
CHECK(r.buttons == (button::DpadLeft | button::Back | button::X), "several: 0x%04x", r.buttons);
// A trigger key is that trigger at full.
r = Press({ Control::RightTrigger });
CHECK(r.rightTrigger && !r.leftTrigger && r.buttons == 0 && NoAxis(r), "right trigger");
r = Press({ Control::LeftTrigger });
CHECK(r.leftTrigger && !r.rightTrigger, "left trigger");
// An axis is the difference of its keys, set while either is down, so
// both keys centre the stick and no key leaves the controller's value.
const size_t LX = size_t(Axis::LX), LY = size_t(Axis::LY), RX = size_t(Axis::RX), RY = size_t(Axis::RY);
r = Press({ Control::LeftStickRight });
CHECK(r.axisSet[LX] && r.axis[LX] == 1.0f && !r.axisSet[LY] && !r.axisSet[RX] && !r.axisSet[RY] && r.buttons == 0, "right: +1");
r = Press({ Control::LeftStickLeft });
CHECK(r.axisSet[LX] && r.axis[LX] == -1.0f, "left: -1");
r = Press({ Control::LeftStickLeft, Control::LeftStickRight });
CHECK(r.axisSet[LX] && r.axis[LX] == 0.0f, "both: set, centred");
r = Press({ Control::LeftStickUp });
CHECK(r.axisSet[LY] && r.axis[LY] == 1.0f && !r.axisSet[LX], "up is positive");
r = Press({ Control::LeftStickDown });
CHECK(r.axisSet[LY] && r.axis[LY] == -1.0f, "down is negative");
r = Press({ Control::RightStickUp });
CHECK(r.axisSet[RY] && r.axis[RY] == 1.0f && !r.axisSet[RX] && !r.axisSet[LY], "right stick up");
r = Press({ Control::RightStickDown });
CHECK(r.axisSet[RY] && r.axis[RY] == -1.0f, "right stick down");
r = Press({ Control::RightStickLeft });
CHECK(r.axisSet[RX] && r.axis[RX] == -1.0f && !r.axisSet[RY], "right stick left");
r = Press({ Control::RightStickRight });
CHECK(r.axisSet[RX] && r.axis[RX] == 1.0f, "right stick right");
// One key on a button and an axis (the default Up): both fire.
r = Press({ Control::DpadUp, Control::LeftStickUp });
CHECK(r.buttons == button::DpadUp && r.axisSet[LY] && r.axis[LY] == 1.0f, "Up: D-pad and stick");
// Everything at once is still each thing.
bool all[kControls];
for (bool& b : all)
b = true;
r = Resolve(all);
CHECK(r.buttons == 0xF3FF && r.leftTrigger && r.rightTrigger, "all buttons: 0x%04x", r.buttons);
for (size_t a = 0; a < size_t(Axis::Count); a++)
CHECK(r.axisSet[a] && r.axis[a] == 0.0f, "axis %zu: both keys, centred", a);
// Usable at compile time (constexpr), so the table is checked when it's built.
constexpr bool kNone[kControls] = {};
static_assert(Resolve(kNone).buttons == 0, "constexpr");
printf("%s (%d failures)\n", g_failures ? "FAILED" : "passed", g_failures);
return g_failures ? 1 : 0;
}
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// Tests for user/key_names.h: the keys a Controls row can hold and their
// names in settings.toml. Links SDL3 to check every code against SDL's name
// for that scancode (no SDL_Init: the names are SDL's built-in ones, before
// a platform renames any). From the repo root, with the deps in build/deps:
// clang++ -std=c++20 -O2 -Iruntime -Ibuild/deps/include tests/key_names_test.cpp -Lbuild/deps/lib -lSDL3 \
// -Wl,-rpath,build/deps/lib -o build/key_names_test && build/key_names_test
#include <user/key_names.h>
#include <SDL3/SDL_keyboard.h>
#include <SDL3/SDL_scancode.h>
#include <cctype>
#include <cstdio>
#include <map>
#include <set>
#include <string>
#include <string_view>
static int g_failures = 0;
#define CHECK(cond, ...) do { if (!(cond)) { g_failures++; printf(" FAIL %s:%d: %s: ", __FILE__, __LINE__, #cond); printf(__VA_ARGS__); printf("\n"); } } while (0)
using namespace settings::keynames;
int main()
{
CHECK(kKeyCount == 123, "%zu keys", kKeyCount);
// Tokens: lower-case letters, digits and underscores, each once. Codes:
// scancodes, ascending, each once. And both ways round.
std::set<std::string_view> tokens;
uint16_t last = 0;
for (const Key& k : kKeys)
{
bool wellFormed = k.token && k.token[0];
for (const char* c = k.token; wellFormed && *c; c++)
wellFormed = (*c >= 'a' && *c <= 'z') || (*c >= '0' && *c <= '9') || *c == '_';
CHECK(wellFormed, "%s: a token is [a-z0-9_]+", k.token ? k.token : "(null)");
CHECK(tokens.insert(k.token).second, "%s: once", k.token);
CHECK(k.code > last, "%s (%d): codes ascend", k.token, k.code);
last = k.code;
CHECK(k.code != kNone && k.code != kUnknown && k.code < SDL_SCANCODE_COUNT, "%s: a scancode", k.token);
CHECK(Token(k.code) == k.token, "%s: Token(code)", k.token);
CHECK(Code(k.token) == k.code, "%s: Code(token)", k.token);
CHECK(Known(k.code), "%s: Known", k.token);
}
CHECK(!tokens.count("none"), "\"none\" is not a row of the table");
// none, any case, and what isn't a name.
CHECK(std::string_view(Token(kNone)) == "none" && Code("none") == kNone && Code("NONE") == kNone && Known(kNone), "none is 0");
CHECK(Code("Left_Shift") == SDL_SCANCODE_LSHIFT && Code("W") == SDL_SCANCODE_W && Code("w") == SDL_SCANCODE_W, "any case");
CHECK(Code("") == kUnknown && Code("Left Shift") == kUnknown && Code("left_shif") == kUnknown &&
Code("left_shiftx") == kUnknown && Code("none ") == kUnknown, "not a token");
CHECK(Token(1) == nullptr && Token(SDL_SCANCODE_LGUI) == nullptr && Token(kUnknown) == nullptr && Token(512) == nullptr, "not a key");
CHECK(!Known(1) && !Known(SDL_SCANCODE_F1) && !Known(SDL_SCANCODE_LGUI) && !Known(SDL_SCANCODE_RGUI) && !Known(kUnknown),
"F1, Cmd / Windows and nameless codes are out");
CHECK(Code("f1") == kUnknown && Code("left_gui") == kUnknown && Code("right_gui") == kUnknown, "...by name too");
CHECK(Code("escape") == SDL_SCANCODE_ESCAPE && Known(SDL_SCANCODE_ESCAPE), "Esc is a key (Back's default)");
// SDL agrees with every row: its name for the scancode, lowered with
// spaces as underscores, is the token, bar the keys SDL names by their
// symbol or runs together.
const std::map<uint16_t, std::string_view> exceptions = {
{ SDL_SCANCODE_MINUS, "minus" }, { SDL_SCANCODE_EQUALS, "equals" }, { SDL_SCANCODE_LEFTBRACKET, "left_bracket" },
{ SDL_SCANCODE_RIGHTBRACKET, "right_bracket" }, { SDL_SCANCODE_BACKSLASH, "backslash" }, { SDL_SCANCODE_NONUSHASH, "non_us_hash" },
{ SDL_SCANCODE_SEMICOLON, "semicolon" }, { SDL_SCANCODE_APOSTROPHE, "apostrophe" }, { SDL_SCANCODE_GRAVE, "grave" },
{ SDL_SCANCODE_COMMA, "comma" }, { SDL_SCANCODE_PERIOD, "period" }, { SDL_SCANCODE_SLASH, "slash" },
{ SDL_SCANCODE_CAPSLOCK, "caps_lock" }, { SDL_SCANCODE_PRINTSCREEN, "print_screen" }, { SDL_SCANCODE_SCROLLLOCK, "scroll_lock" },
{ SDL_SCANCODE_PAGEUP, "page_up" }, { SDL_SCANCODE_PAGEDOWN, "page_down" }, { SDL_SCANCODE_NUMLOCKCLEAR, "num_lock" },
{ SDL_SCANCODE_KP_DIVIDE, "keypad_divide" }, { SDL_SCANCODE_KP_MULTIPLY, "keypad_multiply" }, { SDL_SCANCODE_KP_MINUS, "keypad_minus" },
{ SDL_SCANCODE_KP_PLUS, "keypad_plus" }, { SDL_SCANCODE_KP_PERIOD, "keypad_period" }, { SDL_SCANCODE_KP_EQUALS, "keypad_equals" },
{ SDL_SCANCODE_KP_COMMA, "keypad_comma" }, { SDL_SCANCODE_NONUSBACKSLASH, "non_us_backslash" },
};
for (const Key& k : kKeys)
{
std::string expected;
if (auto e = exceptions.find(k.code); e != exceptions.end())
expected = e->second;
else
for (const char* c = SDL_GetScancodeName(SDL_Scancode(k.code)); *c; c++)
expected += *c == ' ' ? '_' : char(std::tolower(uint8_t(*c)));
CHECK(expected == k.token, "%d: SDL calls it \"%s\", the table \"%s\"", k.code, SDL_GetScancodeName(SDL_Scancode(k.code)), k.token);
}
// Usable at compile time (the option table's defaults are checked when it's built).
static_assert(Code("w") == 26 && Token(26)[0] == 'w' && Known(0) && !Known(227) && Code("None") == kNone, "constexpr");
printf("%s (%d failures)\n", g_failures ? "FAILED" : "passed", g_failures);
return g_failures ? 1 : 0;
}
+753
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@@ -0,0 +1,753 @@
// Tests for GitHub #19, "rectangular borders in specific places in menus"
// (gpu/edge_bars.h, and gpu/renderer.cpp using it), at every screen shape:
// - the Showcase (the car lot's, customize shop's and Blacklist rival cars'
// "Rotate / Zoom" viewer) darkens the 3D garage with one front-end quad,
// centred, x +-0.970 and y +-0.958 of the 16:9 band, its 256x256 texture
// clear in the middle and dark toward its edges (MatchVignette,
// TexelOffset32, PlanVignette): it is drawn stretched to the screen's
// edges;
// - the Blacklist rival bio (SafeHouseRivalBio.fng) sets its text and
// picture on a black panel, x +-0.976 and y +-0.985 (a black frame,
// PlanFill): its copies now fill everything outside it, the band's thin
// border too, at 16:9 as well (v0.1.5: only past the band).
// Both stopped short of every screen edge: a thin border of what was behind
// at 16:9, as on a real 360's own output (a period TV's overscan hid it);
// under Vert+ the Showcase's garage above and below the band showed
// undimmed too, a bright rectangular frame.
// From the repo root:
// clang++ -std=c++20 -O2 -UNDEBUG -Iruntime tests/menu_borders_test.cpp -o build/menu_borders_test
// build/menu_borders_test runtime/gpu/renderer.cpp
// Planted faults: the match cases run again under deliberately wrong
// thresholds (each must fail a case), the texel and register checks are
// broken one at a time (each must refuse the plan), the pixel oracles run on
// wrong fills (each must fail), and the renderer checks run on copies of
// renderer.cpp with the wiring cut (each must fail).
#include <gpu/edge_bars.h>
#include <algorithm>
#include <cmath>
#include <cstdint>
#include <cstdio>
#include <cstring>
#include <fstream>
#include <iterator>
#include <utility>
#include <sstream>
#include <string>
#include <vector>
using namespace gpu::bars;
static int g_failures = 0;
static bool g_quiet = false;
#define CHECK(cond, ...) do { if (!(cond)) { g_failures++; if (!g_quiet) { printf(" FAIL %s:%d: %s: ", __FILE__, __LINE__, #cond); printf(__VA_ARGS__); printf("\n"); } } } while (0)
// The screen shapes (view scale x, y), as video/picture_fit gives them, and
// the host size each is drawn at (Auto internal resolution: 2x on the big
// ones; posScale covers it).
struct Shape
{
const char* name;
float sx, sy;
};
static const Shape kShapes[] = {
{ "1280x720 (16:9)", 1.0f, 1.0f },
{ "1280x800 (Deck)", 1.0f, 0.9f },
{ "3024x1898 (MacBook Pro 14)", 1.0f, 0.896207f },
{ "3600x2338 less the notch (the report's MacBook, 3600x2260)", 1.0f, 0.896f },
{ "1200x800 (3:2)", 1.0f, 0.84375f },
{ "1024x768 (4:3)", 1.0f, 0.75f },
{ "2732x2048 (iPad Pro)", 1.0f, 0.750366f },
{ "2868x1320 (iPhone 18 Pro Max)", 0.818182f, 1.0f },
{ "2560x1080 (21:9)", 0.75f, 1.0f },
{ "3440x1440", 0.744186f, 1.0f },
{ "2880x810 (32:9)", 0.5f, 1.0f },
};
// The vignette as logged (NFSMW_LOG_FRONTEND, "inset candidate": band x
// -0.970..0.970 y -0.958..0.958, t0 14749000 256x256 f6, blend 07060706,
// colour 047F7F7F fading in to FE7F7F7F) at every shape.
constexpr float kVigX = 0.970f, kVigY = 0.958f;
constexpr uint32_t kVigColour = 0xFE7F7F7F;
struct Quad
{
Vertex v[4];
};
static Quad Rectangle(float bx0, float bx1, float by0, float by1, float sx, float sy, uint32_t argb)
{
const float x0 = bx0 * sx, x1 = bx1 * sx, y0 = by0 * sy, y1 = by1 * sy;
return { { { x0, y0, argb }, { x1, y0, argb }, { x1, y1, argb }, { x0, y1, argb } } };
}
// ---- The shape ----
static void Match(const char* what, const Quad& q, float sx, float sy, bool want, const VignetteRule& rule)
{
Box box{};
const bool got = MatchVignette(q.v, sx, sy, rule, &box);
CHECK(got == want, "%s at x %.4f y %.4f: %s, want %s", what, sx, sy, got ? "vignette" : "none", want ? "vignette" : "none");
if (got && want)
{
const float x0 = std::min(q.v[0].x, q.v[2].x), x1 = std::max(q.v[0].x, q.v[2].x);
const float y0 = std::min(q.v[0].y, q.v[2].y), y1 = std::max(q.v[0].y, q.v[2].y);
CHECK(box.x0 == x0 && box.x1 == x1 && box.y0 == y0 && box.y1 == y1, "%s: box %.4f..%.4f %.4f..%.4f", what, box.x0, box.x1, box.y0,
box.y1);
}
}
// Every shape case. Returns the failures it added (for the planted rules).
static int VignetteCases(const VignetteRule& rule)
{
const int before = g_failures;
for (const Shape& s : kShapes)
{
auto at = [&](float x0, float x1, float y0, float y1, uint32_t argb) { return Rectangle(x0, x1, y0, y1, s.sx, s.sy, argb); };
Match("Showcase vignette", at(-kVigX, kVigX, -kVigY, kVigY, kVigColour), s.sx, s.sy, true, rule);
Match("Showcase vignette fading in (alpha 04)", at(-kVigX, kVigX, -kVigY, kVigY, 0x047F7F7F), s.sx, s.sy, true, rule);
Match("an overlay 0.92 of the band", at(-0.92f, 0.92f, -0.92f, 0.92f, kVigColour), s.sx, s.sy, true, rule);
Match("an overlay 0.985 of the band", at(-0.985f, 0.985f, -0.985f, 0.985f, kVigColour), s.sx, s.sy, true, rule);
// Its vertices in another order around it (y flipped).
Quad flip = at(-kVigX, kVigX, kVigY, -kVigY, kVigColour);
Match("Showcase vignette, y flipped", flip, s.sx, s.sy, true, rule);
// What must keep its own shape (or isn't this overlay).
Match("title key art / results picture", at(-1.104f, 1.104f, -0.981f, 0.981f, 0xFF7F7F7F), s.sx, s.sy, false, rule);
Match("a picture over the whole band", at(-1.0f, 1.0f, -1.0f, 1.0f, 0xFF808080), s.sx, s.sy, false, rule);
Match("an overlay 0.995 of the band", at(-0.995f, 0.995f, -0.995f, 0.995f, kVigColour), s.sx, s.sy, false, rule);
Match("an overlay 0.88 of the band", at(-0.88f, 0.88f, -0.88f, 0.88f, kVigColour), s.sx, s.sy, false, rule);
Match("vignette width, half the height", at(-kVigX, kVigX, -0.5f, 0.5f, kVigColour), s.sx, s.sy, false, rule);
Match("vignette height, the whole band's width", at(-1.0f, 1.0f, -kVigY, kVigY, kVigColour), s.sx, s.sy, false, rule);
Match("fade", at(-1.29f, 1.29f, -1.30f, 1.30f, 0xFF000000), s.sx, s.sy, false, rule);
Match("vid cam noise overlay", at(-0.692f, 0.709f, -1.058f, 1.050f, 0x3C727272), s.sx, s.sy, false, rule);
Match("vid cam dark overlay", at(-0.712f, 0.668f, -0.893f, 0.908f, 0x3C000000), s.sx, s.sy, false, rule);
Match("pause dim centre", at(-0.53f, 0.57f, -1.91f, 1.91f, 0xC8000000), s.sx, s.sy, false, rule);
Match("cam dialog box", at(-0.578f, 0.586f, -0.167f, 0.569f, 0xFD000000), s.sx, s.sy, false, rule);
Match("vignette off-centre by 0.03 in x", at(-kVigX + 0.03f, kVigX + 0.03f, -kVigY, kVigY, kVigColour), s.sx, s.sy, false, rule);
Match("vignette off-centre by 0.03 in y", at(-kVigX, kVigX, -kVigY + 0.03f, kVigY + 0.03f, kVigColour), s.sx, s.sy, false, rule);
Quad grad = at(-kVigX, kVigX, -kVigY, kVigY, kVigColour);
grad.v[1].argb = grad.v[2].argb = 0x007F7F7F; // a gradient, not one colour
Match("a gradient of the vignette's shape", grad, s.sx, s.sy, false, rule);
Quad bent = at(-kVigX, kVigX, -kVigY, kVigY, kVigColour);
bent.v[2].x -= 0.05f;
Match("a bent quad", bent, s.sx, s.sy, false, rule);
}
return g_failures - before;
}
static void Planted(const char* what, const VignetteRule& wrong)
{
const int saved = g_failures;
g_quiet = true;
const int failed = VignetteCases(wrong);
g_quiet = false;
g_failures = saved;
printf("planted %s: %d case(s) failed\n", what, failed);
CHECK(failed > 0, "planted %s passed every vignette case", what);
}
// ---- Texel addressing ----
static void TexelTests()
{
// Reference offsets: gpu/renderer.cpp's GLSL tiled2D, as a separate
// Python port computed them (that port untiled the vignette's texture
// dumped from guest memory into the clear-middle picture).
struct Ref
{
uint32_t x, y, pitch, offset;
};
const Ref refs[] = { { 0, 0, 256, 0x0u }, { 1, 0, 256, 0x4u }, { 0, 1, 256, 0x10u }, { 7, 0, 256, 0x2Cu }, { 8, 0, 256, 0x40u },
{ 0, 8, 256, 0x480u }, { 0, 16, 256, 0x800u }, { 31, 31, 256, 0xF7Cu }, { 32, 0, 256, 0x1000u }, { 0, 32, 256, 0x8000u },
{ 128, 128, 256, 0x24000u }, { 255, 255, 256, 0x3FF7Cu }, { 5, 3, 256, 0x134u }, { 100, 200, 256, 0x334A0u },
{ 13, 77, 128, 0x86F4u } };
for (const Ref& r : refs)
CHECK(TexelOffset32(r.x, r.y, r.pitch, true) == r.offset, "tiled (%u,%u) pitch %u: %X, want %X", r.x, r.y, r.pitch,
TexelOffset32(r.x, r.y, r.pitch, true), r.offset);
CHECK(TexelOffset32(5, 3, 256, false) == (3u * 256u + 5u) * 4u, "linear (5,3) pitch 256");
// A 256x256 tiled texture: every texel at its own word, all of them
// within the 256 KB.
std::vector<uint8_t> seen(256 * 256, 0);
int bad = 0;
for (uint32_t y = 0; y < 256; y++)
for (uint32_t x = 0; x < 256; x++)
{
const uint32_t o = TexelOffset32(x, y, 256, true);
if (o % 4 || o / 4 >= seen.size() || seen[o / 4]++)
bad++;
}
CHECK(bad == 0, "tiled 256x256: %d texel(s) outside, unaligned or on another's word", bad);
printf("texel addressing: %zu reference offsets, 65536 texels each on its own word\n", std::size(refs));
}
// ---- The plan on the draw as the renderer sees it ----
// The front end's matrix at a shape (edge_bars_test's): c0 0.69 x scaleX,
// c5 0.92 x scaleY, the rest 0.
struct Matrix
{
float c[8];
};
static Matrix FrontEndMatrix(float sx, float sy)
{
return { { 0.69f * sx, 0.0f, 0.0f, 0.0f, 0.0f, 0.92f * sy, 0.0f, 0.0f } };
}
struct EPolys
{
uint32_t w[4][4];
};
static EPolys Polys(const Quad& q, const Matrix& m)
{
EPolys e{};
for (int k = 0; k < 4; k++)
{
const float p[3] = { q.v[k].x / m.c[0], q.v[k].y / m.c[5], 0.0f };
std::memcpy(e.w[k], p, sizeof(p));
e.w[k][3] = q.v[k].argb;
}
return e;
}
// The front end's posScale (renderer.cpp: 2 sx / w, 2 sy / h, 2 ox / w - 1,
// 2 oy / h - 1): viewport s(640,-360) o(640,360) in the 1280x2048 target, as
// edge_bars_test's; `ox`, `oy` (D3D's half-pixel centres: 640.5, 360.5) and
// `vy` (flipped: +360) move it. The screen is the target's top 720 rows.
static void FrontEndPs(float ps[4], float ox = 640.0f, float oy = 360.0f, float vy = -360.0f)
{
ps[0] = 2.0f * 640.0f / 1280.0f;
ps[1] = 2.0f * vy / 2048.0f;
ps[2] = 2.0f * ox / 1280.0f - 1.0f;
ps[3] = 2.0f * oy / 2048.0f - 1.0f;
}
// The vignette's draw as dumped: blend 07060706, t0 256x256 format 6.
static Draw ShowcaseDraw(const Matrix& m, float sx, float sy, const float ps[4], float hostW, float hostH)
{
return Draw{ .prim = 13,
.count = 4,
.c = m.c,
.frontEndY = std::fabs(m.c[5]),
.scaleX = sx,
.scaleY = sy,
.frontEndShader = true,
.leftAlone = true,
.occlusion = false,
.vte = 0x43F,
.blend0 = 0x07060706,
.t0Sampled = true,
.t0Width = 256,
.t0Height = 256,
.t0Format = 6,
.posScale = { ps[0], ps[1], ps[2], ps[3] },
.hostW = hostW,
.hostH = hostH,
.scissor = { 0, 0, int32_t(hostW), int32_t(hostH) } };
}
// A 256x256 tiled k_8_8_8_8 texture in guest byte order: the vignette's
// (black, alpha 0 inside an ellipse, rising to the edges; its dumped texture
// is all 00000000 in the middle) or a picture's (opaque everywhere).
struct Texture
{
uint32_t w = 256, h = 256;
std::vector<uint32_t> words = std::vector<uint32_t>(256 * 256, 0);
void Set(uint32_t x, uint32_t y, uint32_t v) { words[TexelOffset32(x, y, w, true) / 4] = v; }
uint32_t Get(uint32_t x, uint32_t y) const { return words[TexelOffset32(x, y, w, true) / 4]; }
};
static Texture VignetteTexture()
{
Texture t;
for (uint32_t y = 0; y < t.h; y++)
for (uint32_t x = 0; x < t.w; x++)
{
const float u = (float(x) + 0.5f) / t.w * 2.0f - 1.0f, v = (float(y) + 0.5f) / t.h * 2.0f - 1.0f;
const float r = std::sqrt(u * u * 1.1f + v * v);
const uint32_t a = r < 0.8f ? 0u : uint32_t(std::min(255.0f, (r - 0.8f) * 600.0f));
t.Set(x, y, a); // A in byte 0 as stored (big-endian ARGB word), RGB 0
}
return t;
}
static Texture PictureTexture()
{
Texture t;
for (uint32_t y = 0; y < t.h; y++)
for (uint32_t x = 0; x < t.w; x++)
t.Set(x, y, 0xFF000000u | (x << 16) | (y << 8) | 0x40u);
return t;
}
static Plan RunPlan(const Draw& d, const EPolys& e, const Texture& t, uint32_t vertexLimit = 4, bool texelsReadable = true)
{
return PlanVignette(
d,
[&](uint32_t k, uint32_t j, uint32_t& word) {
word = e.w[k & 3][j & 3];
return k < vertexLimit;
},
[&](uint32_t x, uint32_t y, uint32_t& word) {
if (!texelsReadable || x >= t.w || y >= t.h)
return false;
word = t.Get(x, y);
return true;
});
}
static const char* Name(Fill f)
{
return f == Fill::Vignette ? "vignette" : f == Fill::None ? "none" : "another fill";
}
// The stretched quad against pixel centres: every host pixel of the screen
// (the target's top `screenH` rows) has its centre inside the quad as the
// new posScale draws it, and the box lands at +-kFillEdge of the viewport
// (clip space through the new posScale = the old one's at +-kFillEdge).
static void CoverOracle(const char* what, const Plan& p, const float ps[4], float hostW, float hostH, float screenH)
{
const float* q = p.posScale;
// The box's corners through the new posScale, and clip +-kFillEdge
// through the draw's own: the same NDC.
const float nx0 = p.box.x0 * q[0] + q[2], nx1 = p.box.x1 * q[0] + q[2];
const float ny0 = p.box.y0 * q[1] + q[3], ny1 = p.box.y1 * q[1] + q[3];
const float ex0 = -kFillEdge * ps[0] + ps[2], ex1 = kFillEdge * ps[0] + ps[2];
const float ey0 = -kFillEdge * ps[1] + ps[3], ey1 = kFillEdge * ps[1] + ps[3];
CHECK(std::fabs(nx0 - ex0) < 1e-4f && std::fabs(nx1 - ex1) < 1e-4f && std::fabs(ny0 - ey0) < 1e-4f && std::fabs(ny1 - ey1) < 1e-4f,
"%s: the box lands at NDC x %.5f..%.5f y %.5f..%.5f, want x %.5f..%.5f y %.5f..%.5f", what, nx0, nx1, ny0, ny1, ex0, ex1, ey0, ey1);
const float lx = std::min(nx0, nx1), hx = std::max(nx0, nx1), ly = std::min(ny0, ny1), hy = std::max(ny0, ny1);
int outside = 0;
for (int32_t y = 0; y < int32_t(screenH); y++)
for (int32_t x = 0; x < int32_t(hostW); x++)
{
const float ndcX = (float(x) + 0.5f) / hostW * 2.0f - 1.0f, ndcY = (float(y) + 0.5f) / hostH * 2.0f - 1.0f;
outside += !(ndcX > lx && ndcX < hx && ndcY > ly && ndcY < hy);
}
CHECK(outside == 0, "%s: %d host pixel(s) left outside the stretched vignette", what, outside);
}
static void PlanTests()
{
const Texture vignette = VignetteTexture(), picture = PictureTexture();
struct Host
{
const char* name;
float scale, ox, oy;
};
// 1x, and 2x with D3D's half-pixel centres (as edge_bars_test's: the
// viewport offset 640.5, 360.5).
const Host hosts[] = { { "1x", 1.0f, 640.0f, 360.0f }, { "2x half-pixel", 2.0f, 640.5f, 360.5f } };
int planned = 0;
for (const Shape& s : kShapes)
for (const Host& h : hosts)
for (int flipped = 0; flipped < 2; flipped++)
{
float ps[4];
// Flipped: the viewport's y scale positive, its offset the
// band's far edge (the screen rows stay 0..720).
FrontEndPs(ps, h.ox, flipped ? 360.0f - (h.oy - 360.0f) : h.oy, flipped ? 360.0f : -360.0f);
const float hostW = 1280.0f * h.scale, hostH = 2048.0f * h.scale, screenH = 720.0f * h.scale;
const Matrix m = FrontEndMatrix(s.sx, s.sy);
const Quad q = Rectangle(-kVigX, kVigX, -kVigY, kVigY, s.sx, s.sy, kVigColour);
const EPolys e = Polys(q, m);
const Draw d = ShowcaseDraw(m, s.sx, s.sy, ps, hostW, hostH);
const Plan p = RunPlan(d, e, vignette);
char what[160];
snprintf(what, sizeof(what), "%s, %s%s", s.name, h.name, flipped ? ", y flipped" : "");
CHECK(p.fill == Fill::Vignette, "%s: %s, want vignette", what, Name(p.fill));
if (p.fill != Fill::Vignette)
continue;
CHECK(p.rectCount == 0, "%s: %u rects, want none (the draw itself is stretched)", what, p.rectCount);
CHECK(p.argb == kVigColour, "%s: colour %08X", what, p.argb);
float want[4];
CoverFrame(p.box, d.posScale, want);
CHECK(std::memcmp(want, p.posScale, sizeof(want)) == 0, "%s: posScale %.5f %.5f %.5f %.5f, want CoverFrame's", what, p.posScale[0],
p.posScale[1], p.posScale[2], p.posScale[3]);
CoverOracle(what, p, ps, hostW, hostH, screenH);
planned++;
}
printf("plan: the Showcase's draw at %zu shapes x 1x/2x x y-flipped: %d stretched, every host pixel covered\n", std::size(kShapes), planned);
// Planted: the oracle catches a vignette left as the game draws it, and
// one stretched only to clip +-1 at 2x (D3D's half-pixel centres: the
// outermost column's centre lies past it).
{
const Shape deck = kShapes[1];
float ps[4];
FrontEndPs(ps, 640.5f, 360.5f);
const Matrix m = FrontEndMatrix(deck.sx, deck.sy);
const Draw d = ShowcaseDraw(m, deck.sx, deck.sy, ps, 2560.0f, 4096.0f);
const Plan good = RunPlan(d, Polys(Rectangle(-kVigX, kVigX, -kVigY, kVigY, deck.sx, deck.sy, kVigColour), m), vignette);
Plan unstretched = good, toOne = good;
std::memcpy(unstretched.posScale, d.posScale, sizeof(unstretched.posScale));
CoverFrame(good.box, d.posScale, toOne.posScale, 1.0f);
for (const auto& [what, plan] : { std::pair{ "left as the game draws it", unstretched }, std::pair{ "stretched to clip +-1 only", toOne } })
{
const int saved = g_failures;
g_quiet = true;
CoverOracle(what, plan, ps, 2560.0f, 4096.0f, 1440.0f);
g_quiet = false;
const int failed = g_failures - saved;
g_failures = saved;
printf("planted oracle '%s' (Deck, 2x): %d check(s) failed\n", what, failed);
CHECK(failed > 0, "planted oracle '%s' passed", what);
}
}
// A ppc/ without the Vert+ hooks (front-end y scale 0) at 16:9.
{
float ps[4];
FrontEndPs(ps);
const Matrix m = FrontEndMatrix(1.0f, 1.0f);
Draw d = ShowcaseDraw(m, 1.0f, 1.0f, ps, 1280.0f, 2048.0f);
d.frontEndY = 0.0f;
const Plan p = RunPlan(d, Polys(Rectangle(-kVigX, kVigX, -kVigY, kVigY, 1.0f, 1.0f, kVigColour), m), vignette);
CHECK(p.fill == Fill::Vignette, "16:9 with an old ppc/: %s", Name(p.fill));
}
// What must be left as it is: each breaks one condition of the
// vignette's draw (planted register and texel faults).
float ps[4];
FrontEndPs(ps);
const Shape deck = kShapes[1];
const Matrix m = FrontEndMatrix(deck.sx, deck.sy);
const EPolys e = Polys(Rectangle(-kVigX, kVigX, -kVigY, kVigY, deck.sx, deck.sy, kVigColour), m);
const Draw base = ShowcaseDraw(m, deck.sx, deck.sy, ps, 1280.0f, 2048.0f);
struct Case
{
const char* what;
void (*change)(Draw&);
};
const Case refuse[] = {
{ "opaque, no blending (00010001)", [](Draw& d) { d.blend0 = 0x00010001; } },
{ "additive blending", [](Draw& d) { d.blend0 = 0x07010701; } },
{ "the 32x32 white texture", [](Draw& d) { d.t0Width = d.t0Height = 32; } },
{ "a 64x256 texture", [](Draw& d) { d.t0Width = 64; } },
{ "a DXT1 texture (format 18)", [](Draw& d) { d.t0Format = 18; } },
{ "no texture sampled", [](Draw& d) { d.t0Sampled = false; } },
{ "inside an occlusion query", [](Draw& d) { d.occlusion = true; } },
{ "widened, covered or clipped by the other rules", [](Draw& d) { d.leftAlone = false; } },
{ "not the front-end shader", [](Draw& d) { d.frontEndShader = false; } },
{ "two quads", [](Draw& d) { d.count = 8; } },
{ "a triangle list", [](Draw& d) { d.prim = 4; } },
{ "no viewport transform", [](Draw& d) { d.vte = 0x300; } },
{ "c5 not the front end's y scale", [](Draw& d) { d.frontEndY = 0.5f; } },
};
for (const Case& c : refuse)
{
Draw d = base;
c.change(d);
const Plan p = RunPlan(d, e, vignette);
CHECK(p.fill == Fill::None, "%s: %s, want none", c.what, Name(p.fill));
}
// A translation in the matrix (c3 / c7).
{
Matrix t = m;
t.c[3] = 0.1f;
const Plan p = RunPlan(ShowcaseDraw(t, deck.sx, deck.sy, ps, 1280.0f, 2048.0f), e, vignette);
CHECK(p.fill == Fill::None, "x translation: %s, want none", Name(p.fill));
}
// The texture: an opaque picture of the same shape, a vignette with any
// one of its middle samples dark, an unreadable texture, a vertex past
// the buffer.
CHECK(RunPlan(base, e, picture).fill == Fill::None, "an opaque picture of the vignette's shape was stretched");
for (uint32_t i = 0; i < kClearSamples; i++)
{
Texture t = VignetteTexture();
uint32_t x, y;
ClearSample(i, t.w, t.h, x, y);
CHECK(t.Get(x, y) == 0, "the test vignette is clear at sample %u", i);
t.Set(x, y, 0x01000000u);
CHECK(RunPlan(base, e, t).fill == Fill::None, "middle sample %u (%u,%u) not clear: still stretched", i, x, y);
}
CHECK(RunPlan(base, e, vignette, 4, false).fill == Fill::None, "unreadable texels: stretched anyway");
CHECK(RunPlan(base, e, vignette, 2).fill == Fill::None, "a vertex past the buffer: stretched anyway");
// And it is the samples that decide: a vignette whose middle is clear
// only between the samples is refused, one clear only at them is taken.
{
Texture t = PictureTexture();
for (uint32_t i = 0; i < kClearSamples; i++)
{
uint32_t x, y;
ClearSample(i, t.w, t.h, x, y);
t.Set(x, y, 0);
}
CHECK(RunPlan(base, e, t).fill == Fill::Vignette, "the five samples clear: not taken");
}
printf("plan: %zu register faults, an opaque picture, %u dark samples, unreadable texels and a short vertex buffer refused\n",
std::size(refuse) + 1, kClearSamples);
}
// ---- The Blacklist bio's panel (a black frame, PlanFill) ----
// As logged on the Deck (NFSMW_LOG_FRONTEND, the bio pushed from the main
// menu by a test-only hook): "black frame x -0.976..0.976 y -0.887..0.887
// colour FB000000 blend 07060706 t0 1AD6E000 32x32", fading in from
// 11000000 over ~15 frames; the picture inset on it (x +-0.970, y +-0.920,
// blend 01060106) and the text are drawn after it.
constexpr float kBioX = 0.976f, kBioY = 0.985f;
static Draw PanelDraw(const Matrix& m, float sx, float sy, const float ps[4], float hostW, float hostH)
{
Draw d = ShowcaseDraw(m, sx, sy, ps, hostW, hostH);
d.t0Width = d.t0Height = 32; // the game's white texture
d.t0Format = 20;
return d;
}
static Plan RunPanel(const Draw& d, const EPolys& e)
{
return PlanFill(d, [&](uint32_t k, uint32_t j, uint32_t& word) {
word = e.w[k & 3][j & 3];
return k < 4;
});
}
// The panel's fill against pixel centres, over the screen (the target's top
// `screenH` rows): each pixel is in exactly one of the panel (its centre
// inside the box) and the fill rectangles; ties within 1/256 pixel skipped.
// Returns the wrong pixels.
static int PanelOracle(const Box& b, const Rect* r, uint32_t n, const float ps[4], float hostW, float hostH, float screenH)
{
const float pxX = std::fabs(ps[0]) * hostW * 0.5f, pxY = std::fabs(ps[1]) * hostH * 0.5f;
auto tie = [](float d, float px) { return std::fabs(d) * px < 1.0f / 256.0f; };
int wrong = 0;
for (int32_t y = 0; y < int32_t(screenH); y++)
{
const float cy = ((float(y) + 0.5f) / hostH * 2.0f - 1.0f - ps[3]) / ps[1];
for (int32_t x = 0; x < int32_t(hostW); x++)
{
const float cx = ((float(x) + 0.5f) / hostW * 2.0f - 1.0f - ps[2]) / ps[0];
if (tie(cx - b.x0, pxX) || tie(cx - b.x1, pxX) || tie(cy - b.y0, pxY) || tie(cy - b.y1, pxY))
continue;
int in = cx > b.x0 && cx < b.x1 && cy > b.y0 && cy < b.y1;
for (uint32_t i = 0; i < n; i++)
in += x >= r[i].x0 && x < r[i].x1 && y >= r[i].y0 && y < r[i].y1;
wrong += in != 1;
}
}
return wrong;
}
// v0.1.1-v0.1.5's fill (a planted fault): only past the band.
static uint32_t PastBandOnly(const float ps[4], float hostW, float hostH, const Rect& scissor, float scaleX, float scaleY, Rect out[4])
{
uint32_t n = 0;
auto add = [&](const Rect& r) {
const Rect c = Intersect(r, scissor);
if (!Empty(c))
out[n++] = c;
};
const float e = kFillEdge;
if (scaleY < 1.0f)
{
add(ClipToHost(-e, e, scaleY, e, ps, hostW, hostH));
add(ClipToHost(-e, e, -e, -scaleY, ps, hostW, hostH));
}
else if (scaleX < 1.0f)
{
add(ClipToHost(scaleX, e, -e, e, ps, hostW, hostH));
add(ClipToHost(-e, -scaleX, -e, e, ps, hostW, hostH));
}
return n;
}
static void BioTests()
{
struct Host
{
const char* name;
float scale, ox, oy;
};
const Host hosts[] = { { "1x", 1.0f, 640.0f, 360.0f }, { "2x half-pixel", 2.0f, 640.5f, 360.5f } };
int planned = 0, oldFails = 0, cases = 0;
for (const Shape& s : kShapes)
for (const Host& h : hosts)
for (int flipped = 0; flipped < 2; flipped++)
{
float ps[4];
FrontEndPs(ps, h.ox, flipped ? 360.0f - (h.oy - 360.0f) : h.oy, flipped ? 360.0f : -360.0f);
const float hostW = 1280.0f * h.scale, hostH = 2048.0f * h.scale, screenH = 720.0f * h.scale;
const Matrix m = FrontEndMatrix(s.sx, s.sy);
const EPolys e = Polys(Rectangle(-kBioX, kBioX, -kBioY, kBioY, s.sx, s.sy, 0xFF000000), m);
const Draw d = PanelDraw(m, s.sx, s.sy, ps, hostW, hostH);
const Plan p = RunPanel(d, e);
char what[160];
snprintf(what, sizeof(what), "bio panel, %s, %s%s", s.name, h.name, flipped ? ", y flipped" : "");
CHECK(p.fill == Fill::Blackout, "%s: %s, want a black frame", what, Name(p.fill));
if (p.fill != Fill::Blackout)
continue;
float want[4];
CoverFrame(p.box, d.posScale, want);
CHECK(std::memcmp(want, p.posScale, sizeof(want)) == 0, "%s: the copies' posScale is not CoverFrame's", what);
const int wrong = PanelOracle(p.box, p.rects, p.rectCount, ps, hostW, hostH, screenH);
CHECK(wrong == 0, "%s: %d pixel(s) in both or neither of the panel and its fill", what, wrong);
Rect old[4]{};
const uint32_t n = PastBandOnly(ps, hostW, hostH, d.scissor, s.sx, s.sy, old);
oldFails += PanelOracle(p.box, old, n, ps, hostW, hostH, screenH) > 0;
cases++;
planned++;
}
printf("bio panel: %d plans at %zu shapes x 1x/2x x y-flipped, the panel and its fill split every pixel once\n", planned, std::size(kShapes));
printf("planted bio panel fill 'past the band only (v0.1.5)': %d of %d cases fail\n", oldFails, cases);
CHECK(oldFails == cases && cases > 0, "planted 'past the band only' passed %d of %d cases", cases - oldFails, cases);
// Fading in (11000000): below the black frame's alpha, left alone (as
// before); over a picture (a large t0), never a black frame, and not a
// vignette (opaque in the middle).
float ps[4];
FrontEndPs(ps);
const Matrix m = FrontEndMatrix(1.0f, 0.9f);
const Draw d = PanelDraw(m, 1.0f, 0.9f, ps, 1280.0f, 2048.0f);
CHECK(RunPanel(d, Polys(Rectangle(-kBioX, kBioX, -kBioY, kBioY, 1.0f, 0.9f, 0x11000000), m)).fill == Fill::None, "the panel fading in was filled");
const EPolys picture = Polys(Rectangle(-kBioX, kBioX, -kBioY, kBioY, 1.0f, 0.9f, 0xFF000000), m);
Draw big = d;
big.t0Width = big.t0Height = 256;
big.t0Format = 6;
CHECK(RunPanel(big, picture).fill == Fill::None, "a black quad over a large picture taken for a black frame");
CHECK(RunPlan(big, picture, PictureTexture()).fill == Fill::None, "a picture of the panel's shape taken for a vignette");
}
// ---- gpu/renderer.cpp uses it ----
static std::string Squash(const std::string& source)
{
std::string code, r;
std::istringstream in(source);
for (std::string line; std::getline(in, line);)
{
size_t c = line.find("//");
code += (c == std::string::npos ? line : line.substr(0, c)) + "\n";
}
for (char c : code)
if (c != ' ' && c != '\n' && c != '\t')
r += c;
return r;
}
static size_t Count(const std::string& s, const std::string& what)
{
size_t n = 0;
for (size_t at = s.find(what); at != std::string::npos; at = s.find(what, at + 1))
n++;
return n;
}
// The renderer's wiring; returns the failures (quiet: for the planted copies).
static int RendererChecks(const std::string& source, bool quiet)
{
const int before = g_failures;
const bool was = g_quiet;
g_quiet = quiet;
const std::string all = Squash(source);
// planEdgeFills: bars and black frames, then the backdrop, then the
// vignette, each only when nothing earlier took the draw.
const size_t fill = all.find("gpu::bars::Planplan=gpu::bars::PlanFill(draw,read);");
const size_t backdrop = all.find("if(plan.fill==gpu::bars::Fill::None)plan=gpu::bars::PlanBackdrop(draw,read);");
const size_t vignette = all.find("plan=gpu::bars::PlanVignette(draw,read,texel);");
CHECK(fill != std::string::npos && backdrop != std::string::npos && vignette != std::string::npos && fill < backdrop &&
backdrop < vignette,
"planEdgeFills asks PlanFill, then PlanBackdrop, then PlanVignette");
// Both paths (wide or tall screens, and 16:9) ask it: the black frame's
// fill and the vignette at every shape.
CHECK(Count(all, "barPlan=planEdgeFills(c,") == 2, "planEdgeFills asked on both paths: %zu", Count(all, "barPlan=planEdgeFills(c,"));
CHECK(vignette != std::string::npos && all.rfind("if(plan.fill==gpu::bars::Fill::None){", vignette) != std::string::npos &&
vignette - all.rfind("if(plan.fill==gpu::bars::Fill::None){", vignette) < 600,
"PlanVignette only for a draw nothing else took");
// Its texture as the GPU reads it.
CHECK(all.find(".t0Format=uint32_t(t0.format),") != std::string::npos, "the draw's t0 format is handed over");
CHECK(all.find("word=GpuSwap(LoadPhysical(t0Base+gpu::bars::TexelOffset32(x,y,t0Pitch,t0.tiled!=0)),uint32_t(t0.endianness));") !=
std::string::npos,
"texels read through TexelOffset32 at t0's base, pitch, tiling and endian");
// The plan is applied to the draw itself on both paths (wide or tall
// screens, and 16:9), before its constants are pushed.
const std::string apply = "if(barPlan.fill==gpu::bars::Fill::Vignette)memcpy(pc.posScale,barPlan.posScale,sizeof(pc.posScale));";
CHECK(Count(all, apply) == 2, "the vignette's posScale applied on both paths: %zu", Count(all, apply));
const size_t lastApply = all.rfind(apply);
const size_t push = lastApply == std::string::npos ? lastApply : all.find("pushConstants(pc);", lastApply);
const size_t draw = lastApply == std::string::npos ? lastApply : all.find("vkCmdDraw", lastApply);
CHECK(push != std::string::npos && draw != std::string::npos && push < draw,
"the posScale is set before the draw's constants are pushed and it is drawn");
// Both behind the A/B switch, as every edge fill.
CHECK(all.find("staticconstboolbarFill=[]{constchar*v=std::getenv(\"NFSMW_BAR_FILL\");return!(v&&v[0]=='0');}();") != std::string::npos,
"NFSMW_BAR_FILL=0 still turns the edge fills off");
g_quiet = was;
return g_failures - before;
}
static void RendererTests(const char* path)
{
std::ifstream f(path);
CHECK(f.good(), "cannot read %s", path);
if (!f.good())
return;
std::stringstream ss;
ss << f.rdbuf();
const std::string source = ss.str();
CHECK(RendererChecks(source, false) == 0, "renderer.cpp's vignette wiring");
// Planted: copies with the wiring cut, each must fail.
struct Cut
{
const char* what;
const char* from;
const char* to;
bool all;
};
const Cut cuts[] = {
{ "PlanVignette never asked", "plan = gpu::bars::PlanVignette(draw, read, texel);", "(void)texel;", false },
{ "PlanFill only on wide or tall screens (v0.1.5)", "gpu::bars::Plan plan = gpu::bars::PlanFill(draw, read);",
"gpu::bars::Plan plan = aspectX < 1.0f || aspectY < 1.0f ? gpu::bars::PlanFill(draw, read) : gpu::bars::Plan{};", false },
{ "the 16:9 path never plans", "barPlan = planEdgeFills(c, game::FrontEndScaleY(), s, sv, feShader, true);", ";", false },
{ "the 16:9 path doesn't apply it", " if (barPlan.fill == gpu::bars::Fill::Vignette)\n memcpy(pc.posScale, barPlan.posScale, sizeof(pc.posScale));\n }\n }\n }", " }\n }\n }", false },
{ "no posScale applied at all", "memcpy(pc.posScale, barPlan.posScale, sizeof(pc.posScale));", ";", true },
{ "texels read linear", "t0.tiled != 0", "false", false },
{ "texels read without the endian", "uint32_t(t0.endianness)", "0u", false },
};
for (const Cut& c : cuts)
{
std::string copy = source;
size_t at = copy.find(c.from), n = 0;
while (at != std::string::npos)
{
copy.replace(at, std::strlen(c.from), c.to);
n++;
if (!c.all)
break;
at = copy.find(c.from, at + std::strlen(c.to));
}
CHECK(n > 0, "planted '%s': its text is not in renderer.cpp", c.what);
const int saved = g_failures;
const int failed = RendererChecks(copy, true);
g_failures = saved;
printf("planted renderer '%s': %d check(s) failed\n", c.what, failed);
CHECK(failed > 0, "planted renderer '%s' passed every check", c.what);
}
}
int main(int argc, char** argv)
{
printf("menu borders (GitHub #19): the Showcase's vignette\n");
VignetteCases(VignetteRule{});
printf("shape cases at %zu screen shapes checked\n", std::size(kShapes));
printf("\nplanted, shape (each must fail a case):\n");
auto plant = [](const char* what, auto set) { VignetteRule r; set(r); Planted(what, r); };
plant("centreMax 0.05", [](VignetteRule& r) { r.centreMax = 0.05f; });
plant("extentMin 0.96", [](VignetteRule& r) { r.extentMin = 0.96f; });
plant("extentMin 0.85", [](VignetteRule& r) { r.extentMin = 0.85f; });
plant("extentMax 0.96", [](VignetteRule& r) { r.extentMax = 0.96f; });
plant("extentMax 1.0", [](VignetteRule& r) { r.extentMax = 1.0f; });
plant("cornerTolerance 0.1", [](VignetteRule& r) { r.cornerTolerance = 0.1f; });
printf("\n");
TexelTests();
printf("\n");
PlanTests();
printf("\n");
BioTests();
printf("\n");
if (argc > 1)
RendererTests(argv[1]);
else
printf("(no renderer.cpp given: its checks skipped)\n");
if (g_failures)
{
printf("menu_borders_test: %d failure(s)\n", g_failures);
return 1;
}
printf("menu_borders_test: all passed\n");
return 0;
}
+216
View File
@@ -0,0 +1,216 @@
// Tests for the Key options (Settings > Controls, user/settings.h): the
// table, the [keys] names in settings.toml, and what the menu's Set accepts.
// Links user/settings.cpp (and toml++ from XenonRecomp's vendored copy); no
// SDL. From the repo root:
// clang++ -std=c++20 -O2 -Iruntime -Itools/XenonRecomp/thirdparty/tomlplusplus/include \
// tests/settings_keys_test.cpp runtime/user/settings.cpp -o build/settings_keys_test && build/settings_keys_test
#include <user/key_names.h>
#include <user/settings.h>
#include <cerrno>
#include <cmath>
#include <cstdio>
#include <cstring>
#include <filesystem>
#include <fstream>
#include <set>
#include <sstream>
#include <string>
#include <string_view>
#include <unistd.h> // mkdtemp
static int g_failures = 0;
#define CHECK(cond, ...) do { if (!(cond)) { g_failures++; printf(" FAIL %s:%d: %s: ", __FILE__, __LINE__, #cond); printf(__VA_ARGS__); printf("\n"); } } while (0)
static std::string ReadAll(const std::filesystem::path& file)
{
std::ifstream f(file);
std::stringstream s;
s << f.rdbuf();
return s.str();
}
int main()
{
using namespace settings;
using keynames::Code;
// The table: 48 Key options, every one in [keys], on the Controls page,
// live, shown, with no environment variable and a default the key table
// knows (none included).
int keys = 0;
std::set<std::string> names;
for (const Option& o : Options())
{
if (o.type != Type::Key)
{
CHECK(std::string_view(o.table) != "keys", "%s.%s: only Key options live in [keys]", o.table, o.key);
CHECK(o.env != nullptr, "%s.%s: every other option has an environment variable", o.table, o.key);
continue;
}
keys++;
CHECK(std::string_view(o.table) == "keys", "%s.%s: a Key option lives in [keys]", o.table, o.key);
CHECK(o.category == Category::Controls, "%s: on the Controls page", o.key);
CHECK(o.apply == Apply::Live && !o.hidden, "%s: live and shown", o.key);
CHECK(o.env == nullptr, "%s: no environment variable", o.key);
CHECK(names.insert(o.key).second, "%s: one row per key", o.key);
CHECK(o.defaultValue >= 0 && o.defaultValue == std::floor(o.defaultValue) && keynames::Known(uint16_t(o.defaultValue)),
"%s: the default is a key, or none", o.key);
CHECK(o.min == 0 && o.max == 0 && o.step == 0 && o.entries.empty(), "%s: no range", o.key);
}
CHECK(keys == 48, "%d Key options", keys);
CHECK(std::string_view(CategoryName(Category::Controls)) == "Controls", "the category's name");
// The defaults: v0.1.4's keys (the arrows steer as well as A and D, and
// are the D-pad; O/L/K/; are the right stick), plus the left stick
// click, which had none. In page order, in pairs: the second key is the first's id +
// 1, named <key>_2, with the row's label.
struct Default { Id id; const char* key; const char* label; const char* first; const char* second; };
const Default defaults[] = {
{ Id::KeyRightTrigger, "right_trigger", "Right Trigger", "w", "none" },
{ Id::KeyLeftTrigger, "left_trigger", "Left Trigger", "s", "none" },
{ Id::KeyLeftStickLeft, "left_stick_left", "Left Stick Left", "a", "left" },
{ Id::KeyLeftStickRight, "left_stick_right", "Left Stick Right", "d", "right" },
{ Id::KeyLeftStickUp, "left_stick_up", "Left Stick Up", "up", "none" },
{ Id::KeyLeftStickDown, "left_stick_down", "Left Stick Down", "down", "none" },
{ Id::KeyA, "a", "A", "space", "none" },
{ Id::KeyB, "b", "B", "backspace", "none" },
{ Id::KeyX, "x", "X", "left_shift", "none" },
{ Id::KeyY, "y", "Y", "left_ctrl", "none" },
{ Id::KeyLB, "lb", "LB", "q", "none" },
{ Id::KeyRB, "rb", "RB", "e", "none" },
{ Id::KeyDpadUp, "dpad_up", "D-pad Up", "up", "none" },
{ Id::KeyDpadDown, "dpad_down", "D-pad Down", "down", "none" },
{ Id::KeyDpadLeft, "dpad_left", "D-pad Left", "left", "none" },
{ Id::KeyDpadRight, "dpad_right", "D-pad Right", "right", "none" },
{ Id::KeyStart, "start", "Start", "return", "none" },
{ Id::KeyBack, "back", "Back", "escape", "none" },
{ Id::KeyRightStickUp, "right_stick_up", "Right Stick Up", "o", "none" },
{ Id::KeyRightStickDown, "right_stick_down", "Right Stick Down", "l", "none" },
{ Id::KeyRightStickLeft, "right_stick_left", "Right Stick Left", "k", "none" },
{ Id::KeyRightStickRight, "right_stick_right", "Right Stick Right", "semicolon", "none" },
{ Id::KeyLeftStickClick, "left_stick_click", "Left Stick Click", "z", "none" },
{ Id::KeyRightStickClick, "right_stick_click", "Right Stick Click", "c", "none" },
};
size_t previous = size_t(Id::Vibration);
for (const Default& d : defaults)
{
const Option& o = Info(d.id);
const Option& o2 = Info(Id(size_t(d.id) + 1));
CHECK(std::string_view(o.key) == d.key, "%s is %s", o.key, d.key);
CHECK(std::string_view(o2.key) == std::string(d.key) + "_2", "%s: the second key is %s_2", o2.key, d.key);
CHECK(o2.type == Type::Key, "%s: the second key is a Key option", o2.key);
CHECK(std::string_view(o.label) == d.label && std::string_view(o2.label) == d.label, "%s: both keys carry the row's label", d.key);
CHECK(o.defaultValue == double(Code(d.first)), "%s defaults to %s, not %s", o.key, d.first, FormatValue(o.id, o.defaultValue).c_str());
CHECK(o2.defaultValue == double(Code(d.second)), "%s defaults to %s, not %s", o2.key, d.second, FormatValue(o2.id, o2.defaultValue).c_str());
CHECK(size_t(d.id) == previous + 1, "%s follows the row before it", o.key);
previous = size_t(d.id) + 1;
}
CHECK(size_t(Id::AsyncShaders) == previous + 1, "Advanced follows the keys");
CHECK(EnvOverride(Id::KeyA) == nullptr, "nothing overrides a key");
// A scratch folder of our own.
std::string pattern = (std::filesystem::temp_directory_path() / "speedbreaker-keys-XXXXXX").string();
if (!mkdtemp(pattern.data()))
{
printf("can't make a scratch folder: %s\n", strerror(errno));
return 2;
}
const std::filesystem::path dir = pattern;
const std::filesystem::path file = dir / "settings.toml";
// The file: names in, in any case; "none" empties a key; anything else
// keeps the default, SDL's spelling from the first build included.
{
std::ofstream f(file);
f << "[keys]\n"
"right_trigger = \"up\"\n"
"left_trigger = \"Keypad_1\"\n"
"left_stick_left_2 = \"none\"\n"
"right_stick_left = \"K\"\n"
"right_stick_up = \"LEFT_SHIFT\"\n"
"a = \"Left Shift\"\n"
"b = 42\n"
"x = true\n"
"y = \"\"\n"
"lb = \"f1\"\n"
"rb = \"left_gui\"\n";
}
CHECK(Load(file), "loads: %s", LastError().c_str());
CHECK(GetInt(Id::KeyRightTrigger) == Code("up"), "\"up\": %d", GetInt(Id::KeyRightTrigger));
CHECK(GetInt(Id::KeyLeftTrigger) == Code("keypad_1"), "a token in another case: %d", GetInt(Id::KeyLeftTrigger));
CHECK(GetInt(Id::KeyLeftStickLeft2) == keynames::kNone, "\"none\" is no key: %d", GetInt(Id::KeyLeftStickLeft2));
CHECK(GetInt(Id::KeyRightStickLeft) == Code("k"), "\"K\" is k: %d", GetInt(Id::KeyRightStickLeft));
CHECK(GetInt(Id::KeyRightStickUp) == Code("left_shift"), "\"LEFT_SHIFT\" is left_shift: %d", GetInt(Id::KeyRightStickUp));
CHECK(GetInt(Id::KeyA) == Code("space"), "SDL's spelling keeps the default");
CHECK(GetInt(Id::KeyB) == Code("backspace"), "a number keeps the default");
CHECK(GetInt(Id::KeyX) == Code("left_shift"), "a boolean keeps the default");
CHECK(GetInt(Id::KeyY) == Code("left_ctrl"), "an empty name keeps the default");
CHECK(GetInt(Id::KeyLB) == Code("q") && GetInt(Id::KeyRB) == Code("e"), "F1 and Cmd / Windows can't be bound from the file");
CHECK(GetInt(Id::KeyStart) == Code("return") && GetInt(Id::KeyLeftStickRight2) == Code("right"), "a missing key keeps the default");
CHECK(IsDefault(Id::KeyLB) && !IsDefault(Id::KeyRightTrigger) && !IsDefault(Id::KeyLeftStickLeft2), "IsDefault follows the file");
// Shown in the log and the bug report by name.
CHECK(FormatValue(Id::KeyRightTrigger, GetValue(Id::KeyRightTrigger)) == "up", "FormatValue: %s",
FormatValue(Id::KeyRightTrigger, GetValue(Id::KeyRightTrigger)).c_str());
CHECK(FormatValue(Id::KeyX, Code("left_shift")) == "left_shift" && FormatValue(Id::KeyX, 0) == "none", "a token, or none");
CHECK(FormatValue(Id::KeyA, 1) == "?" && FormatValue(Id::KeyA, 227) == "?" && FormatValue(Id::KeyA, 1e9) == "?" &&
FormatValue(Id::KeyA, NAN) == "?" && FormatValue(Id::KeyA, -1) == "?", "not a key: ?");
// Set: a key of the table, or none; anything else is Invalid.
CHECK(Set(Id::KeyA, Code("return")) == SetResult::Applied, "a key");
CHECK(Set(Id::KeyA, Code("return")) == SetResult::Unchanged, "the same key again");
CHECK(Set(Id::KeyA, keynames::kNone) == SetResult::Applied && GetInt(Id::KeyA) == 0, "none");
CHECK(Set(Id::KeyA2, Code("return")) == SetResult::Applied && Set(Id::KeyA, Code("return")) == SetResult::Applied,
"the same key in both cells of a row is allowed");
CHECK(Set(Id::KeyA2, keynames::kNone) == SetResult::Applied, "and so is none in both");
CHECK(Set(Id::KeyA, 1) == SetResult::Invalid, "1 is no key");
CHECK(Set(Id::KeyA, 58) == SetResult::Invalid, "F1 is no key");
CHECK(Set(Id::KeyA, 227) == SetResult::Invalid, "Left GUI is no key");
CHECK(Set(Id::KeyA, keynames::kUnknown) == SetResult::Invalid && Set(Id::KeyA, 1e9) == SetResult::Invalid &&
Set(Id::KeyA, -1) == SetResult::Invalid, "out of the table");
CHECK(Set(Id::KeyA, double(Code("return")) + 0.5) == SetResult::Invalid, "not a whole number");
CHECK(Set(Id::KeyA, NAN) == SetResult::Invalid, "NaN");
CHECK(GetInt(Id::KeyA) == Code("return"), "invalid sets change nothing: %d", GetInt(Id::KeyA));
CHECK(StepValue(Id::KeyA, Code("return"), 1) == double(Code("return")) && StepValue(Id::KeyA, Code("return"), -1) == double(Code("return")),
"Left and Right do nothing to a key");
CHECK(!IsDefault(Id::KeyA) && Reset(Id::KeyA) == SetResult::Applied && IsDefault(Id::KeyA) && GetInt(Id::KeyA) == Code("space"), "Reset");
// Save: every key by name, the comment, no environment variable; and
// what it wrote loads back.
CHECK(Save(file), "saves: %s", LastError().c_str());
std::string text = ReadAll(file);
size_t at = text.find("\n[keys]\n"), advanced = text.find("\n[advanced]\n");
CHECK(at != std::string::npos && advanced != std::string::npos && at < advanced, "[keys] before [advanced]");
std::string section = at == std::string::npos ? "" : text.substr(at, advanced == std::string::npos ? std::string::npos : advanced - at);
CHECK(section.find("right_trigger = \"up\"\n") != std::string::npos, "saved by name");
CHECK(section.find("left_trigger = \"keypad_1\"\n") != std::string::npos, "the table's case, not the file's");
CHECK(section.find("left_stick_left_2 = \"none\"\n") != std::string::npos, "an emptied key");
CHECK(section.find("right_stick_left = \"k\"\n") != std::string::npos, "lower case");
CHECK(section.find("right_stick_right = \"semicolon\"\n") != std::string::npos, "a symbol key by its name");
CHECK(section.find("right_stick_up = \"left_shift\"\n") != std::string::npos, "a modifier");
CHECK(section.find("left_stick_left = \"a\"\n") != std::string::npos && section.find("dpad_left_2 = \"none\"\n") != std::string::npos,
"defaults are written too, both keys");
CHECK(section.find("# A key name such as \"w\"") != std::string::npos, "the comment says what goes here");
CHECK(section.find("NFSMW_") == std::string::npos, "no environment variable on a key");
CHECK(text.find("(NFSMW_VIBRATION)") != std::string::npos, "the other options keep theirs");
CHECK(Load(file), "loads what it saved: %s", LastError().c_str());
CHECK(GetInt(Id::KeyRightTrigger) == Code("up") && GetInt(Id::KeyLeftTrigger) == Code("keypad_1") &&
GetInt(Id::KeyRightStickUp) == Code("left_shift") && GetInt(Id::KeyLeftStickLeft2) == 0, "round trip");
CHECK(!Dirty(), "nothing changed since the save");
// The keys SDL names by a symbol are words here: nothing to escape.
CHECK(Set(Id::KeyA, Code("backslash")) == SetResult::Applied && Set(Id::KeyB, Code("apostrophe")) == SetResult::Applied,
"the backslash and apostrophe keys are keys");
CHECK(Save(file), "saves them: %s", LastError().c_str());
text = ReadAll(file);
CHECK(text.find("\na = \"backslash\"\n") != std::string::npos && text.find("\nb = \"apostrophe\"\n") != std::string::npos, "by name");
CHECK(Load(file), "and the file still parses: %s", LastError().c_str());
CHECK(GetInt(Id::KeyA) == Code("backslash") && GetInt(Id::KeyB) == Code("apostrophe"), "round trip: %d %d", GetInt(Id::KeyA), GetInt(Id::KeyB));
CHECK(GetInt(Id::KeyRightTrigger) == Code("up") && GetInt(Id::MasterVolume) == 100, "and the rest of the file survived");
std::filesystem::remove_all(dir);
printf("%s (%d failures)\n", g_failures ? "FAILED" : "passed", g_failures);
return g_failures ? 1 : 0;
}
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// SpeedBreaker tests. GPL-3.0-or-later (see COPYING).
//
// Settings > Graphics > Upscaling's values in settings.toml (user/settings.cpp,
// linked as the game links it): "fsr1" (FSR 1, v0.1.5) read, saved and read
// back, next to "bicubic" and "linear"; the menu's order (Bicubic, Bilinear,
// FSR 1); NFSMW_SCALING=fsr1 for one run, never saved; a token this version
// doesn't know (a later version's) falls back to the default, Bicubic; and
// Sharpening's default, 0.3, unchanged.
// The argument is a scratch folder (settings.toml is written there).
//
// Build by hand (from the repo root):
// c++ -std=c++20 -O2 -UNDEBUG -I runtime tests/settings_scaling_test.cpp runtime/user/settings.cpp -o build/settings_scaling_test
// build/settings_scaling_test build/settings_scaling_scratch
#include <user/settings.h>
#include <cmath>
#include <cstdio>
#include <cstdlib>
#include <filesystem>
#include <fstream>
#include <sstream>
#include <string>
namespace
{
int s_failures = 0;
#define CHECK(cond, ...) \
do \
{ \
if (!(cond)) \
{ \
s_failures++; \
fprintf(stderr, "FAIL %s:%d: %s: ", __FILE__, __LINE__, #cond); \
fprintf(stderr, __VA_ARGS__); \
fprintf(stderr, "\n"); \
} \
} while (0)
using settings::Id;
using settings::ScalingMode;
std::string Read(const std::filesystem::path& path)
{
std::ifstream in(path, std::ios::binary);
std::stringstream text;
text << in.rdbuf();
return text.str();
}
void Write(const std::filesystem::path& path, const std::string& text)
{
std::ofstream(path, std::ios::binary) << text;
}
int32_t Scaling() { return settings::GetInt(Id::Scaling); }
}
int main(int argc, char** argv)
{
unsetenv("NFSMW_SCALING");
unsetenv("NFSMW_SHARPEN");
const std::filesystem::path dir = argc > 1 ? argv[1] : "settings_scaling_scratch";
std::filesystem::remove_all(dir);
std::filesystem::create_directories(dir);
const std::filesystem::path file = dir / "settings.toml";
// The option: three entries in menu order, Bicubic the default.
const settings::Option& o = settings::Info(Id::Scaling);
CHECK(o.entries.size() == 3, "%zu entries", o.entries.size());
if (o.entries.size() == 3)
{
CHECK(o.entries[0].value == int32_t(ScalingMode::Bicubic) && std::string(o.entries[0].token) == "bicubic", "first: bicubic");
CHECK(o.entries[1].value == int32_t(ScalingMode::Linear) && std::string(o.entries[1].token) == "linear", "second: linear");
CHECK(o.entries[2].value == int32_t(ScalingMode::Fsr1) && std::string(o.entries[2].token) == "fsr1", "third: fsr1");
}
CHECK(settings::DefaultValue(Id::Scaling) == double(ScalingMode::Bicubic), "default bicubic");
CHECK(settings::FormatValue(Id::Scaling, double(ScalingMode::Fsr1)) == "FSR 1", "label %s", settings::FormatValue(Id::Scaling, 2).c_str());
CHECK(settings::StepValue(Id::Scaling, double(ScalingMode::Linear), 1) == double(ScalingMode::Fsr1), "Bilinear, right: FSR 1");
CHECK(settings::StepValue(Id::Scaling, double(ScalingMode::Fsr1), -1) == double(ScalingMode::Linear), "FSR 1, left: Bilinear");
// No file: the defaults.
CHECK(settings::Load(file), "load without a file: %s", settings::LastError().c_str());
CHECK(Scaling() == int32_t(ScalingMode::Bicubic), "no file: %d", Scaling());
CHECK(std::fabs(settings::GetFloat(Id::Sharpening) - 0.3f) < 1e-6f, "Sharpening's default 0.3: %.3f", settings::GetFloat(Id::Sharpening));
// Chosen in the menu, saved, read back.
CHECK(settings::Set(Id::Scaling, double(ScalingMode::Fsr1)) == settings::SetResult::Applied, "set FSR 1");
CHECK(Scaling() == int32_t(ScalingMode::Fsr1), "in effect at once: %d", Scaling());
CHECK(settings::Save(file), "save: %s", settings::LastError().c_str());
const std::string saved = Read(file);
CHECK(saved.find("scaling = \"fsr1\"") != std::string::npos, "saved as a token:\n%s", saved.c_str());
CHECK(settings::Set(Id::Scaling, double(ScalingMode::Linear)) == settings::SetResult::Applied, "set bilinear");
CHECK(settings::Load(file) && Scaling() == int32_t(ScalingMode::Fsr1), "read back: %d", Scaling());
// Each token by hand.
for (auto [token, value] : { std::pair{ "bicubic", ScalingMode::Bicubic }, std::pair{ "linear", ScalingMode::Linear }, std::pair{ "fsr1", ScalingMode::Fsr1 } })
{
Write(file, std::string("[video]\nscaling = \"") + token + "\"\n");
CHECK(settings::Load(file) && Scaling() == int32_t(value), "%s: %d", token, Scaling());
}
// A later version's value: the default, and the file isn't rewritten by loading it.
Write(file, "[video]\nscaling = \"fsr3\"\n");
settings::Load(file);
CHECK(Scaling() == int32_t(ScalingMode::Bicubic), "unknown token: %d", Scaling());
CHECK(Read(file).find("fsr3") != std::string::npos, "the file is left as it was");
// NFSMW_SCALING=fsr1 for this run: in effect, never saved.
Write(file, "[video]\nscaling = \"linear\"\n");
setenv("NFSMW_SCALING", "fsr1", 1);
CHECK(settings::Load(file), "load with the environment");
CHECK(Scaling() == int32_t(ScalingMode::Fsr1), "environment: %d", Scaling());
CHECK(settings::EnvOverride(Id::Scaling) != nullptr, "the menu shows the override");
CHECK(settings::GetStoredValue(Id::Scaling) == double(ScalingMode::Linear), "stored: %g", settings::GetStoredValue(Id::Scaling));
CHECK(settings::Save(file) && Read(file).find("scaling = \"linear\"") != std::string::npos, "saved: the file's value:\n%s", Read(file).c_str());
unsetenv("NFSMW_SCALING");
std::filesystem::remove_all(dir);
if (s_failures)
{
printf("%d check(s) FAILED\n", s_failures);
return 1;
}
printf("all checks passed\n");
return 0;
}
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// SpeedBreaker tests. GPL-3.0-or-later (see COPYING).
//
// video::SwapchainUse (runtime/video/swapchain_use.h): the present waiter's
// thread uses a swapchain (its present waits, the driver's reports) only
// while it is the current one, and the main thread never destroys one under
// such a use. v0.1.4 and v0.1.5 read the driver's reports
// (vkGetPastPresentationTimingGOOGLE) after the wait's lock, so a fullscreen
// toggle on a 120 Hz Mac could destroy the swapchain under the read: an abort,
// "mutex lock failed". Fake swapchains carry a lifetime canary: a use that
// reaches a destroyed one, or another one than its present's, is counted.
// The optional argument is runtime/video/presenter.cpp: every waiter call that
// takes a swapchain must be inside a use, and the swapchain retired before it
// is destroyed (checked, then planted mutations of it that must fail).
//
// Build by hand: c++ -std=c++20 -O2 -I runtime tests/swapchain_use_test.cpp -o build/swapchain_use_test
#include <video/swapchain_use.h>
#include <atomic>
#include <chrono>
#include <cstdint>
#include <cstdio>
#include <fstream>
#include <sstream>
#include <string>
#include <thread>
#include <vector>
static int g_failures = 0;
#define CHECK(cond, ...) do { if (!(cond)) { g_failures++; printf(" FAIL %s:%d: %s: ", __FILE__, __LINE__, #cond); printf(__VA_ARGS__); printf("\n"); } } while (0)
namespace
{
// A swapchain as the waiter sees it. Never freed (a pool), so a use after
// its destruction is seen, not undefined: `alive` is the canary.
struct FakeSwapchain
{
std::atomic<bool> alive{ false };
std::atomic<uint64_t> generation{ 0 }; // the one it was published as
std::atomic<int> users{ 0 };
};
using Use = video::SwapchainUse<FakeSwapchain*>;
// A use of `s` for a present of generation `generation`: true if it was
// sound (alive, the present's own swapchain) throughout.
bool Touch(FakeSwapchain* s, uint64_t generation, int spins = 0)
{
s->users++;
bool ok = s->alive.load() && s->generation.load() == generation;
for (volatile int i = 0; i < spins; i = i + 1)
;
ok = ok && s->alive.load();
s->users--;
return ok;
}
void Basics()
{
printf("publish, use, retire:\n");
FakeSwapchain a, b;
Use use;
int ran = 0;
CHECK(!use.Use(0, [&](FakeSwapchain*) { ran++; }) && ran == 0, "nothing published: no use");
const uint64_t ga = use.Publish(&a);
CHECK(ga != 0, "a generation is never 0");
FakeSwapchain* seen = nullptr;
CHECK(use.Use(ga, [&](FakeSwapchain* s) { seen = s; }) && seen == &a, "the published one's generation: used, with it");
CHECK(!use.Use(0, [&](FakeSwapchain*) { ran++; }) && ran == 0, "generation 0 (no swapchain): no use");
CHECK(!use.Use(ga + 1, [&](FakeSwapchain*) { ran++; }) && ran == 0, "a generation not published yet: no use");
use.Retire();
CHECK(!use.Use(ga, [&](FakeSwapchain*) { ran++; }) && ran == 0, "retired: no use");
const uint64_t gb = use.Publish(&b);
CHECK(gb != ga, "each swapchain its own generation");
CHECK(!use.Use(ga, [&](FakeSwapchain*) { ran++; }) && ran == 0, "an older swapchain's present: no use of the new one");
CHECK(use.Use(gb, [&](FakeSwapchain* s) { seen = s; }) && seen == &b, "the new one: used");
use.Retire();
use.Retire();
CHECK(!use.Use(gb, [&](FakeSwapchain*) { ran++; }) && ran == 0, "retired twice (Shutdown after a destroy): no use");
}
// MoltenVK's and Mesa's handles are pointers: a new swapchain can get a
// destroyed one's. A present to the old one is not the new one's.
void HandleReuse()
{
printf("a new swapchain with a destroyed one's handle:\n");
FakeSwapchain a;
Use use;
const uint64_t g1 = use.Publish(&a);
use.Retire();
const uint64_t g2 = use.Publish(&a); // the same handle again
int ran = 0;
CHECK(g1 != g2, "a new generation");
CHECK(!use.Use(g1, [&](FakeSwapchain*) { ran++; }) && ran == 0, "the old present isn't waited for on the new swapchain");
CHECK(use.Use(g2, [&](FakeSwapchain*) { ran++; }) && ran == 1, "the new one's present is");
}
// Retire() must not return while a use is under way (the main thread
// destroys the swapchain right after it), and none may start after it.
void RetireWaits()
{
printf("retire waits for a use under way:\n");
FakeSwapchain a;
a.alive = true;
Use use;
const uint64_t g = use.Publish(&a);
a.generation = g;
std::atomic<bool> inside{ false }, done{ false };
std::thread user([&] {
use.Use(g, [&](FakeSwapchain*) {
inside = true;
std::this_thread::sleep_for(std::chrono::milliseconds(100));
done = true;
});
});
while (!inside)
std::this_thread::yield();
const auto t0 = std::chrono::steady_clock::now();
use.Retire();
const double ms = std::chrono::duration<double, std::milli>(std::chrono::steady_clock::now() - t0).count();
CHECK(done, "Retire returned while the use was still under way (after %.1f ms)", ms);
user.join();
int ran = 0;
CHECK(!use.Use(g, [&](FakeSwapchain*) { ran++; }) && ran == 0, "no use after the retire");
}
struct StressCounts
{
uint64_t unsound = 0, destroyedInUse = 0, used = 0, refused = 0;
};
// The presenter's own shape: the main thread destroys the swapchain and
// makes another, again and again (fullscreen toggles); the waiter waits
// for presents and reads the driver's reports after each wait, for
// presents of the current swapchain and of older ones still queued. The
// new swapchain mostly gets the old one's handle (slot) again.
// `v015Order`: the reports read after the wait's use, with the present's
// handle, as v0.1.4 and v0.1.5 did.
StressCounts RunStress(bool v015Order, int cycles)
{
FakeSwapchain pool[3];
Use use;
std::atomic<uint64_t> lastPresent{ 0 }; // the generation the latest present was for
std::atomic<bool> stop{ false };
std::atomic<uint64_t> unsound{ 0 }, used{ 0 }, refused{ 0 };
uint64_t destroyedInUse = 0;
std::thread waiter([&] {
uint64_t seen[4] = {};
for (uint64_t n = 0; !stop; n++)
{
// A present just queued, or (every other time) one queued a
// few presents ago, perhaps to a swapchain since destroyed.
seen[n % 4] = lastPresent.load();
const uint64_t g = (n % 2) ? seen[(n + 1) % 4] : seen[n % 4];
FakeSwapchain* handle = nullptr;
const bool waited = use.Use(g, [&](FakeSwapchain* s) { // the wait
handle = s;
if (!Touch(s, g, 200))
unsound++;
});
(waited ? used : refused)++;
if (!v015Order)
{
const bool read = use.Use(g, [&](FakeSwapchain* s) { // the driver's reports
if (!Touch(s, g, 200))
unsound++;
});
(read ? used : refused)++;
}
else if (handle && !Touch(handle, g, 200))
unsound++;
std::this_thread::yield();
}
});
FakeSwapchain* current = nullptr;
for (int i = 0; i < cycles; i++)
{
// DestroySwapchain: retire, then destroy.
use.Retire();
if (current)
{
destroyedInUse += current->users.load() != 0;
current->alive = false;
}
// CreateSwapchain: make one and publish it; presents to it follow.
size_t slot = current ? size_t(current - pool) : 0;
if (i % 4 == 0)
slot = (slot + 1) % 3;
current = &pool[slot];
current->alive = true;
const uint64_t g = use.Publish(current);
current->generation = g;
for (int p = 0; p < 3; p++)
{
lastPresent = g;
for (volatile int k = 0; k < 300; k = k + 1)
;
}
}
stop = true;
waiter.join();
return { unsound.load(), destroyedInUse, used.load(), refused.load() };
}
void Stress()
{
printf("the waiter against swapchains destroyed and made again:\n");
constexpr int kCycles = 20000;
const StressCounts c = RunStress(false, kCycles);
CHECK(c.unsound == 0, "%llu uses reached a destroyed swapchain, or another than their present's", (unsigned long long)c.unsound);
CHECK(c.destroyedInUse == 0, "%llu swapchains destroyed while in use", (unsigned long long)c.destroyedInUse);
CHECK(c.used > 1000 && c.refused > 0, "the waiter both used swapchains (%llu) and was refused stale ones (%llu)",
(unsigned long long)c.used, (unsigned long long)c.refused);
printf(" %d recreations: %llu uses, %llu refused, %llu unsound\n", kCycles, (unsigned long long)c.used,
(unsigned long long)c.refused, (unsigned long long)c.unsound);
// The same with v0.1.5's order must reach destroyed swapchains (it
// is a race: up to 5 tries), or the canary proves nothing.
uint64_t old = 0;
int tries = 0;
while (old == 0 && tries < 5)
{
old += RunStress(true, kCycles).unsound;
tries++;
}
CHECK(old > 0, "v0.1.5's order (the reports read after the wait's lock) never reached a destroyed swapchain in %d tries", tries);
printf(" v0.1.5's order: %llu unsound uses (%d tr%s)\n", (unsigned long long)old, tries, tries == 1 ? "y" : "ies");
}
// The orders v0.1.5 had, step by step: Touch() catches each, so the
// canary would have caught the bug.
void OldOrders()
{
printf("v0.1.5's orders, step by step (each must be caught):\n");
// 1. The wait checked the swapchain under the lock, and the reports
// were read after it: the swapchain destroyed in between.
{
FakeSwapchain a;
Use use;
const uint64_t g = use.Publish(&a);
a.alive = true;
a.generation = g;
FakeSwapchain* waited = nullptr;
use.Use(g, [&](FakeSwapchain* s) { waited = s; }); // the wait
use.Retire(); // DestroySwapchain
a.alive = false;
CHECK(!Touch(waited, g), "the report read after the lock reaches the destroyed swapchain: not caught");
}
// 2. The present named its swapchain by handle: the waiter, holding a
// present of the destroyed one, found the new one at that handle.
{
FakeSwapchain a;
Use use;
const uint64_t g1 = use.Publish(&a);
a.alive = true;
a.generation = g1;
FakeSwapchain* presentHandle = &a;
use.Retire();
a.alive = false;
const uint64_t g2 = use.Publish(&a);
a.alive = true;
a.generation = g2;
FakeSwapchain* current = &a; // v0.1.5: if (t.swapchain == s_waitSwapchain) wait on it
CHECK(presentHandle == current && !Touch(current, g1), "the old present waited for on the new swapchain: not caught");
}
}
// presenter.cpp's calls that take the waiter's swapchain, and what the
// main thread does around destroying one; the problems found.
std::vector<std::string> SourceProblems(const std::string& src)
{
std::vector<std::string> problems;
const std::string use = "s_swapchainUse.Use(";
for (const char* call : { "s_waitForPresent(s_device", "s_pastTiming(s_device" })
{
int found = 0;
for (size_t at = src.find(call); at != std::string::npos; at = src.find(call, at + 1))
{
found++;
const size_t open = src.rfind(use, at);
if (open == std::string::npos || src.find("});", open) < at)
problems.push_back(std::string(call) + " outside a use, at offset " + std::to_string(at));
}
if (!found)
problems.push_back(std::string("no ") + call + " call found");
}
// A function's body: from its head to the brace at its own indent.
auto body = [&](const char* head) {
const size_t at = src.find(head);
if (at == std::string::npos)
return std::string();
const size_t line = src.rfind('\n', at) + 1;
const std::string end = "\n" + src.substr(line, at - line) + "}\n";
return src.substr(at, src.find(end, at) - at);
};
const std::string destroy = body("void DestroySwapchain()");
const size_t retire = destroy.find("s_swapchainUse.Retire();");
const size_t destroyCall = destroy.find("vkDestroySwapchainKHR(");
if (destroy.empty() || retire == std::string::npos || destroyCall == std::string::npos || retire > destroyCall)
problems.push_back("DestroySwapchain doesn't retire the swapchain before destroying it");
size_t destroys = 0;
for (size_t at = src.find("vkDestroySwapchainKHR("); at != std::string::npos; at = src.find("vkDestroySwapchainKHR(", at + 1))
destroys++;
if (destroys != 1)
problems.push_back("vkDestroySwapchainKHR called " + std::to_string(destroys) + " times (only DestroySwapchain may)");
const std::string create = body("bool CreateSwapchain()");
const size_t made = create.find("vkCreateSwapchainKHR(");
const size_t published = create.find("s_swapchainGeneration = s_swapchainUse.Publish(s_swapchain);");
if (made == std::string::npos || published == std::string::npos || published < made)
problems.push_back("CreateSwapchain doesn't publish the swapchain it made");
if (src.find("s_timings.push_back({ id, s_swapchainGeneration,") == std::string::npos)
problems.push_back("a present's timing doesn't name its swapchain's generation");
if (body("void Shutdown()").find("s_swapchainUse.Retire();") == std::string::npos)
problems.push_back("Shutdown doesn't retire the swapchain");
return problems;
}
std::string Replaced(std::string s, const std::string& from, const std::string& to)
{
const size_t at = s.find(from);
if (at == std::string::npos)
return {};
return s.replace(at, from.size(), to);
}
void Presenter(const char* path)
{
printf("presenter.cpp:\n");
std::ifstream in(path);
std::stringstream ss;
ss << in.rdbuf();
const std::string src = ss.str();
CHECK(!src.empty(), "can't read %s", path);
if (src.empty())
return;
for (const std::string& p : SourceProblems(src))
CHECK(false, "%s", p.c_str());
// Planted mutations, each a way back to the bug: each must be found.
struct Plant
{
const char* name;
std::string from, to;
};
const Plant plants[] = {
{ "the reports read after the use (v0.1.5's order)", " const int64_t hostToSteady = HostToSteadyNs();",
" s_pastTiming(s_device, VK_NULL_HANDLE, &count, nullptr);\n const int64_t hostToSteady = HostToSteadyNs();" },
{ "a present wait outside a use", " VkResult r = VK_ERROR_OUT_OF_DATE_KHR; // its swapchain is gone\n",
" VkResult r = s_waitForPresent(s_device, VK_NULL_HANDLE, t.id, 0);\n" },
{ "no retire before the destroy", " s_swapchainUse.Retire(); // the waiter is off it after this", "" },
{ "a second destroy elsewhere", " s_swapchainUse.Retire(); // the present waiter is off the swapchain",
" vkDestroySwapchainKHR(s_device, s_swapchain, nullptr); // the present waiter is off the swapchain" },
{ "never published", "s_swapchainGeneration = s_swapchainUse.Publish(s_swapchain);", "s_swapchainGeneration = 0;" },
{ "presents named by handle", "s_timings.push_back({ id, s_swapchainGeneration,", "s_timings.push_back({ id, s_swapchain," },
};
for (const Plant& p : plants)
{
const std::string mutated = Replaced(src, p.from, p.to);
CHECK(!mutated.empty(), "plant \"%s\": its text isn't in presenter.cpp", p.name);
if (!mutated.empty())
{
const bool caught = !SourceProblems(mutated).empty();
CHECK(caught, "plant \"%s\" not caught", p.name);
printf(" plant: %s: %s\n", p.name, caught ? "caught" : "NOT caught");
}
}
}
}
int main(int argc, char** argv)
{
Basics();
HandleReuse();
RetireWaits();
Stress();
OldOrders();
if (argc > 1)
Presenter(argv[1]);
else
printf("(presenter.cpp not given: its checks skipped)\n");
printf("%s (%d failures)\n", g_failures ? "FAILED" : "passed", g_failures);
return g_failures ? 1 : 0;
}