Files
oak-editor/tests/gtest/timeline_waveform_sync_test.cpp
Mike-Solar 66d761b4b7 R8: finish app/ pure C ABI migration (P3-P9) and make OTIO required
- app/ no longer includes engine C++ headers nor holds engine C++ types:
  engine access goes through the oakengine C ABI plus C++ wrappers
  (oakutil/oaknode.h, oakutil/oakvideo.h) and app-local mirror types
  (tooltypes, trackreferencehandle, timelinecommonapp, keyframetypes,
  subtitleapp, serializedlayoutinfoapp, nodevaluehandle, sliderdisplaytypeapp)
- engine: new C ABI functions for block/track/clip/transition navigation
  and predicates, links, caches, waveform/playback, disk folder,
  sequence_track_list, node_free, footage_is_valid, block_get_track,
  get_brush; loadotio/saveotio ported to the current engine API
- OTIO is now a required dependency: CI and CD build it on every
  platform, FindOpenTimelineIO fixed for OTIO 0.16/0.19 (the old deps
  include requirement silently disabled OTIO everywhere), runtime
  libraries are bundled into packages and copied next to macOS binaries
  (oak_copy_otio_runtime)
- fix ProjectViewModel drag&drop mime read/write size mismatch (segfault)
- unify color label naming (k_olive -> "Oak") in the app-side mirror
- docs: OTIO required, FFmpeg minimum corrected to 6.0 (en/zh)
- gtest suite: 1925 passed, 0 failed
2026-07-31 22:46:52 +08:00

168 lines
4.7 KiB
C++

/***
Oak Video Editor - Regression test for TimelineWidget waveform sync
Copyright (C) 2026 Oak Team
***/
#include <gtest/gtest.h>
#include <cmath>
#include "audio/audiovisualwaveform.h"
#include "node/block/clip/clip.h"
#include "node/node.h"
#include "node/project/footage/footage.h"
#include "olive/core/render/audioparams.h"
#include "olive/core/render/samplebuffer.h"
#include "olive/core/render/sampleformat.h"
#include "render/audiowaveformcache.h"
#include "widget/timelinewidget/timelinewidgetwaveformsync.h"
using namespace olive;
using namespace olive::core;
namespace
{
AudioParams make_mono_params(int sample_rate)
{
return AudioParams(sample_rate, static_cast<uint64_t>(k_channel_layout_mono),
SampleFormat::f32_p);
}
SampleBuffer make_mono_buffer(int sample_rate, float value, int seconds)
{
SampleBuffer buf(make_mono_params(sample_rate),
static_cast<size_t>(sample_rate * seconds));
float *data = buf.data(0);
for (size_t i = 0; i < buf.sample_count(); i++) {
data[i] = value;
}
return buf;
}
void write_partial_waveform(AudioWaveformCache *cache, int sample_rate)
{
const AudioParams params = make_mono_params(sample_rate);
cache->set_parameters(params);
// Fill seconds [1,2) with a loud constant signal.
AudioVisualWaveform waveform;
waveform.set_channel_count(1);
SampleBuffer buf = make_mono_buffer(sample_rate, 1.0f, 1);
waveform.overwrite_samples(buf, sample_rate, Rational(1));
// Tell the cache that only the middle second is valid in a 3-second clip.
cache->write_waveform(TimeRange(1, 2), TimeRangeList({ TimeRange(1, 2) }),
&waveform);
}
} // namespace
TEST(TimelineWaveformSync, ExtractEnvelopeUsesOnlyValidatedRanges)
{
constexpr int k_sample_rate = 48000;
constexpr size_t k_window_samples = k_sample_rate / 20; // 50 ms windows
AudioWaveformCache cache;
write_partial_waveform(&cache, k_sample_rate);
WaveformSyncClip clip;
clip.waveform = &cache;
clip.media_range = TimeRange(0, 3);
clip.sample_rate = k_sample_rate;
const QVector<double> envelope =
timeline_waveform_sync::extract_waveform_cache_envelope(clip, k_sample_rate,
k_window_samples);
// 3 seconds at 20 windows per second == 60 windows.
EXPECT_EQ(envelope.size(), 60);
// Windows before the validated region are silent placeholders
for (int i = 0; i < 20; ++i) {
EXPECT_DOUBLE_EQ(envelope.at(i), 0.0);
}
// The validated second was filled with a constant 1.0 signal, so every
// window inside it must peak at exactly 1.0
for (int i = 20; i < 40; ++i) {
EXPECT_DOUBLE_EQ(envelope.at(i), 1.0);
}
// Windows after the validated region are silent placeholders too
for (int i = 40; i < 60; ++i) {
EXPECT_DOUBLE_EQ(envelope.at(i), 0.0);
}
}
TEST(TimelineWaveformSync, ExtractEnvelopeReportsValidityMask)
{
constexpr int k_sample_rate = 48000;
constexpr size_t k_window_samples = k_sample_rate / 20; // 50 ms windows
AudioWaveformCache cache;
write_partial_waveform(&cache, k_sample_rate);
WaveformSyncClip clip;
clip.waveform = &cache;
clip.media_range = TimeRange(0, 3);
clip.sample_rate = k_sample_rate;
QVector<bool> valid_mask;
const QVector<double> envelope =
timeline_waveform_sync::extract_waveform_cache_envelope(
clip, k_sample_rate, k_window_samples, &valid_mask);
// One flag per envelope window
ASSERT_EQ(valid_mask.size(), envelope.size());
// Windows outside the validated second are flagged invalid, windows
// inside it are flagged valid
EXPECT_FALSE(valid_mask.at(0));
EXPECT_FALSE(valid_mask.at(59));
for (int i = 20; i < 40; ++i) {
EXPECT_TRUE(valid_mask.at(i));
}
}
TEST(TimelineWaveformSync, PartialCacheIsConsideredReady)
{
constexpr int k_sample_rate = 48000;
Footage footage;
footage.set_valid();
AudioWaveformCache *cache = footage.waveform_cache();
write_partial_waveform(cache, k_sample_rate);
ClipBlock clip;
clip.set_length_and_media_out(Rational(3));
clip.set_media_in(Rational(0));
Node::connect_edge(&footage, NodeInput(&clip, ClipBlock::k_buffer_in));
WaveformSyncClip out;
EXPECT_TRUE(timeline_waveform_sync::get_waveform_sync_clip(reinterpret_cast<OakEngineBlock *>(&clip), &out));
EXPECT_EQ(out.waveform, cache);
EXPECT_EQ(out.sample_rate, k_sample_rate);
EXPECT_EQ(out.media_range, TimeRange(0, 3));
}
TEST(TimelineWaveformSync, EmptyCacheIsNotReady)
{
Footage footage;
footage.set_valid();
AudioParams params = make_mono_params(48000);
footage.waveform_cache()->set_parameters(params);
ClipBlock clip;
clip.set_length_and_media_out(Rational(3));
clip.set_media_in(Rational(0));
Node::connect_edge(&footage, NodeInput(&clip, ClipBlock::k_buffer_in));
WaveformSyncClip out;
EXPECT_FALSE(timeline_waveform_sync::get_waveform_sync_clip(reinterpret_cast<OakEngineBlock *>(&clip), &out));
}