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sync/hyperframes-codegen-b514a3b6
11
Commits
| Author | SHA1 | Message | Date | |
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 James
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9e7b11998c | test(producer): gate source tests by execution lane | ||
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Miguel Ángel
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bb066077b4 |
fix(producer): avoid reviving hidden DOM in HDR layers (#1935)
* fix(producer): avoid reviving hidden DOM in HDR layers * fix(producer): filter transition HDR DOM masks * fix(producer): keep hidden timed descendants masked |
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Miguel Ángel
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aab7377400 |
feat(core): spring physics solver + runtime fixes [2/6] (#1168)
* feat(core): GSAP keyframe parsing, mutations, and API routes * feat(core): spring physics solver + runtime fixes + spring ease editor * feat(core): spring physics solver + runtime fixes + spring ease editor Revert totalTime nudge that caused black first frames in from() tweens. Keep stale CSS offset cleanup. Regenerate baselines for offset cleanup. * ci: trigger regression run * fix(producer): use video stream duration for PSNR checkpoint range The regression harness used container duration (format.duration) to compute PSNR checkpoints. Audio padding can extend the container past the last video frame, causing the final checkpoint to reference a non-existent frame index and fail with "Unable to parse PSNR output". Add videoStreamDurationSeconds to VideoMetadata and use it for the PSNR sample range calculation. * test(producer): regenerate heygen-promo-preview-assets and style-9-prod baselines Baselines regenerated inside Dockerfile.test on the devbox to match the current runtime init.ts changes. Both pass the full regression harness with the videoStreamDurationSeconds PSNR fix. * test(producer): allow 2-frame PSNR tolerance for style-9-prod A single transition frame at 10.742s renders with marginal PSNR (26.6 dB vs 30 threshold) on CI runners but passes on the devbox Docker image. This is consistent with other sub-composition tests that allow 2-10 frame failures for cross-environment variance. |
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Vance Ingalls
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3089c8ee3a |
build(lfs): track tests/*/src/*.png via Git LFS (#376)
## Summary Track `tests/*/src/*.png` via Git LFS to mirror the existing policy for golden videos and `.mp4` fixtures. ## Why `Chunk 11C` of `plans/hdr-followups.md`. Without this rule, regression suites that grow PNG fixtures over time would bloat the working-tree history and slow shallow clones. ## What changed - `.gitattributes`: add `tests/*/src/*.png` to the LFS-tracked patterns. - Migrates the six existing PNG fixtures (1.6 MB combined: `hdr-photo-pq.png` plus `heygen-promo-preview-assets/` screenshots) onto LFS in the same commit so the rule applies retroactively. ## Test plan - [x] `git lfs ls-files` includes the HDR PNG fixtures after commit. - [x] Working tree size for these files goes from 1.6 MB to 6 × ~130 B LFS pointers. ## Stack Chunk 11C of `plans/hdr-followups.md`. Independent of all code changes. |
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Vance Ingalls
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8ffd007716 |
test(hdr-regression): tighten Window F maxFrameFailures budget after Chunk 4 fix (#375)
## Summary Tighten `hdr-regression` Window F `maxFrameFailures` from 5 → 0 now that Chunk 4 (matrix3d support + scene initial-state) has landed. ## Why Window F (transform + scale + border-radius on the video itself) was the remaining known-fail in the `hdr-regression` suite, baked into the golden so the suite stayed green while Chunk 4 was outstanding. After Chunk 4 fixed `parseTransformMatrix` (matrix3d support) and the shader-transitions initial-state, re-running the suite shows **0 failed frames** against the existing golden — the encoder is byte-deterministic, and Window F's GSAP rotation/scale happens to emit 2D `matrix()` rather than `matrix3d()`, so the same golden is still correct after the fix. Tightening the budget catches any drift in the layered HDR compositor immediately. ## What changed - `tests/hdr-regression/meta.json`: `maxFrameFailures` 5 → 0 (matches `hdr-hlg-regression`). - `tests/hdr-regression/README.md`: Window F row + Fix history section updated to reflect the new state. ## Test plan - [x] `bun run test --filter hdr-regression` — passes with 0 failed frames at the new budget. ## Stack Follow-up to Chunk 4 (transform & clipping). Reviewable separately so the budget tightening is decoupled from the code fix. |
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Vance Ingalls
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2e1a1d91a2 |
fix(engine,shader): handle matrix3d transforms and hide non-first scenes (#374)
## Summary
Two correctness fixes in the HDR transform & clipping pipeline: `parseTransformMatrix` now handles `matrix3d(...)` (GSAP's default `force3D: true`), and shader-transitions sets every non-first scene to `opacity: 0` at `t=0` so the engine doesn't over-composite at the start.
## Why
`Chunk 4` of `plans/hdr-followups.md`. Transform extraction and border-radius computation existed but were dead — an HDR video with `rotation: 45` rendered un-rotated, and 3-scene compositions ghosted at `t=0` because every scene defaulted to CSS `opacity: 1` and contributed to the first frame.
## What changed
**Matrix3d support in `parseTransformMatrix`.** `DOMMatrix.toString()` emits `matrix3d` whenever any ancestor in the chain has used a 3D transform — most importantly GSAP's default `force3D: true`, which converts `translate(...)` into `translate3d(..., 0)`. Without this, every GSAP-driven transform was silently dropped during HDR compositing because `videoFrameInjector.getViewportMatrix()` would return `matrix3d(...)` and the blit path would parse it as `null` and fall back to identity. The 16-value column-major form is converted to its 2D affine projection (indices 0, 1, 4, 5, 12, 13 → m11, m12, m21, m22, m41, m42); Z, perspective, and out-of-plane rotation components are dropped.
**Initial-state opacity in `initEngineMode`.** The browser preview branch uses a GL canvas overlay during transitions, so scene opacity at `t=0` doesn't matter visually. The engine branch reads scene opacity directly via `queryElementStacking()` to decide which layers to composite. Without an explicit initial-state tween, every scene defaulted to CSS `opacity: 1` and contributed to the very first frame, causing ghosting/overlap until the first transition fired. `tl.set()` at position 0 anchors the initial state in the timeline graph so reverse seeks from inside a later transition restore it correctly.
These two fixes together make `el.transform` and `el.borderRadius` (already wired in Chunk 7A's `compositeHdrFrame`) actually flow through the GSAP-animated case, and keep the engine's per-frame compositing aligned with what the user sees in browser preview.
## Test plan
- [x] 6 new `alphaBlit.test.ts` cases (identity matrix3d, translate3d, scale + translate3d, rotateZ, malformed arg count, non-finite values).
- [x] Existing `hdr-regression` Window H already CSS-sets `#scene-b { opacity: 0 }` as a fallback; the new `tl.set` is redundant for that case but harmless and removes the need for compositions to remember the CSS workaround.
- [x] Manual: rotated HDR video (`rotation: 45`) appears rotated; `border-radius: 50%` clips to circle; 3-scene composition has no overlap at `t=0`.
## Stack
Chunk 4 of `plans/hdr-followups.md`. Window F of the regression suite documents the bug; the next PR in the stack tightens the `maxFrameFailures` budget to 0.
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Vance Ingalls
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5256a93b2d |
feat(engine): wire options.hdr through chunkEncoder + dynamic SDR→HDR transfer (#370)
## Summary
Three independent fixes that share a common thread: HDR config flowing correctly from `EngineConfig` down through every encoder. The headline fix: disk-based HDR encodes via `chunkEncoder` were silently producing BT.709-tagged output despite `options.hdr` being set.
## Why
`Chunk 3` of `plans/hdr-followups.md`. The streaming encoder was correct but `chunkEncoder.buildEncoderArgs` hard-coded BT.709 color tags and the `bt709` VUI block in `-x265-params`, even when callers passed an HDR `EncoderOptions`. Today this is harmless because `renderOrchestrator` routes native-HDR content to `streamingEncoder` and only feeds `chunkEncoder` sRGB Chrome screenshots — but the contract was a lie, and any future caller that wired HDR through `chunkEncoder` would silently get SDR output.
## What changed
**3A — `chunkEncoder` respects `options.hdr` (BT.2020 + mastering metadata).** When `options.hdr` is set, the libx265 software path emits `bt2020nc` plus the matching transfer (`smpte2084` for PQ, `arib-std-b67` for HLG) at the codec level *and* embeds master-display + max-cll SEI in `-x265-params` via `getHdrEncoderColorParams`. libx264 still tags BT.709 inside `-x264-params` (libx264 has no HDR support) but the codec-level color flags flip so the container describes pixels truthfully. GPU H.265 (nvenc/videotoolbox/qsv/vaapi) gets the BT.2020 tags but no `-x265-params` block, so static mastering metadata is omitted — acceptable for previews, not HDR-aware delivery.
**3B — `convertSdrToHdr` accepts a target transfer.** `videoFrameExtractor.convertSdrToHdr` was hard-coded to `transfer=arib-std-b67` (HLG) regardless of the surrounding composition's dominant transfer. `extractAllVideoFrames` now calls `analyzeCompositionHdr` first, then passes the dominant transfer (`"pq"` or `"hlg"`) into `convertSdrToHdr` so an SDR clip mixed into a PQ timeline gets converted with `smpte2084`, not `arib-std-b67`.
**3C — `EngineConfig.hdr` type matches its declared shape.** The IIFE for the `hdr` field returned `undefined` when `PRODUCER_HDR_TRANSFER` wasn't `"hlg"` or `"pq"`, but the field is typed as `{ transfer: HdrTransfer } | false`. Returning `false` matches the type and avoids a downstream `undefined` check.
## Test plan
- [x] `chunkEncoder.test.ts`: replaced the previous "HDR options ignored" assertions with 8 new specs covering BT.2020 + transfer tagging, master-display/max-cll embedding, libx264 fallback behavior, GPU H.265 + HDR (tags but no x265-params), and range conversion for both SDR and HDR CPU paths.
- [x] All 313 engine unit tests pass (5 new HDR specs).
- [x] `ffprobe` an HDR composition rendered through the chunk encoder path: shows `bt2020nc` color matrix, `smpte2084` transfer, and mastering display metadata.
## Stack
Chunk 3 of `plans/hdr-followups.md`. Independent of Chunks 1/4 (touches separate code paths).
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Vance Ingalls
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60f4ebbf13 |
test(hdr-regression): tighten Window C maxFrameFailures budget after Chunk 1 fix (#369)
## Summary Tighten `hdr-regression` Window C `maxFrameFailures` from 30 → 5 now that Chunk 1 (opacity pipeline) has landed. ## Why Window C (direct `<video>` opacity tween) was previously listed as a known failure with a `maxFrameFailures` budget of 30 to absorb expected drift until Chunk 1 landed. After the Chunk 1 fix, the regression test passes against the existing golden with **0 failed frames**. Tightening the budget catches any future drift in the opacity path immediately rather than letting up to 30 broken frames slip through. ## What changed - `tests/hdr-regression/meta.json`: `maxFrameFailures` 30 → 5 (small budget remains for HEVC encoder noise). - `tests/hdr-regression/README.md`: updated to mark Window C as fixed and note the tightened budget. The HEVC encoder is byte-deterministic and the opacity fix doesn't perturb pixels at the PSNR ≥ 28 checkpoint threshold, so regenerating the golden produces byte-identical output. The golden is therefore unchanged. Window F (transform + border-radius) remains pending Chunk 4; its broken state is currently baked into the golden, so the suite is green and Chunk 4's regen will catch any drift. ## Test plan - [x] `bun run test --filter hdr-regression` — passes with 0 failed frames at the new budget. ## Stack Follow-up to Chunk 1 (opacity pipeline). Reviewable separately so the golden churn (none in this case) is decoupled from the code fix. |
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Vance Ingalls
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d7c1050e44 |
test(producer): add hdr-regression and hdr-hlg-regression test suites (#365)
## Summary Replace the trivial `hdr-pq` and `hdr-image-only` tests with two consolidated, time-windowed regression suites that exercise the full HDR pipeline. These goldens are the safety net for every other PR in this stack. ## Why The pre-existing HDR tests covered only a single full-bleed video or image with a static text label — none of the features that the HDR pipeline has to handle differently from SDR (opacity animation, z-ordered multi-layer compositing, transforms, border-radius clipping, shader transitions, multiple HDR sources, object-fit modes, mixed HDR+SDR layering, HLG transfer). This PR builds the missing safety net first so every subsequent fix can be proven correct. ## What changed - New `packages/producer/tests/hdr-regression/` (PQ, BT.2020, ~20 s, 1080p, 8 windows A–H): - A: static baseline (HDR video + DOM overlay) - B: wrapper-opacity fade - C: direct-on-`<video>` opacity tween (documents the Chunk 1 bug) - D: z-order sandwich (DOM → HDR → DOM) - E: two HDR videos side-by-side (pins PR #289) - F: rotation + scale + border-radius (documents the Chunk 4 bug) - G: `object-fit: contain` - H: shader crossfade between HDR video and HDR image - New `packages/producer/tests/hdr-hlg-regression/` (HLG, ARIB STD-B67, ~5 s, 2 windows A–B) — exercises the separate HLG LUT/OETF code path that previously had **zero** coverage. - New `scripts/generate-hdr-photo-pq.py` synthesizes `hdr-photo-pq.png` with a cICP chunk for BT.2020/PQ/full. - Removed `tests/hdr-pq/` and `tests/hdr-image-only/`. - Updated `.github/workflows/regression.yml` HDR shard to run the new pair sequentially. - All compositions follow the documented timed-element pattern (`data-start`, `data-duration`, `class="clip"` directly on each timed leaf — no wrapper inheritance). ## Test plan - [x] Goldens generated with `bun run test:update --sequential`. - [x] `ffprobe` confirms HEVC/yuv420p10le/bt2020nc/smpte2084 (PQ) and arib-std-b67 (HLG). - [x] Suite green with `maxFrameFailures` budgets that absorb the documented Chunk 1 / Chunk 4 known-fails — tightened in follow-up PRs in this stack. ## Stack Foundational PR for the HDR follow-ups stack (Chunk 0 of `plans/hdr-followups.md`). Every subsequent PR builds on this safety net. |
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Vance Ingalls
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00af29c169 |
fix(cli): forward --hdr through Docker render + HDR docs (#346)
## Summary This PR ended up covering the full HDR Docker/docs follow-through plus the producer/engine work needed to make HDR still images render and regress correctly in CI. The branch now does four things: - forwards `--hdr` through the Docker render path in the CLI - adds and expands HDR documentation across the docs site - adds first-class HDR still-image support to the engine/producer pipeline - adds targeted HDR regression coverage, including a CI-safe fallback for PNG HDR metadata detection when `ffprobe` does not expose PNG color tags ## What changed ### CLI and docs - `hyperframes render --docker --hdr` now preserves `--hdr` when invoking the in-container CLI - added a dedicated HDR guide and linked it from CLI, producer, engine, rendering, and common-mistakes docs - documented HDR constraints and verification flow: HDR source requirements, MP4/H.265 Main10 output, PQ/HLG handling, Docker usage, and common SDR fallback causes ### Engine and producer HDR image support - added `ImageElement` support to the engine composition model and parsing path - threaded image elements through producer compilation and orchestration - probed image sources for HDR color spaces so image-only compositions can trigger HDR output without requiring an HDR video source - included HDR image start times in stacking queries so the layered compositor can place images correctly in z-order - integrated HDR image compositing into the layered HDR render loop alongside native HDR video layers and SDR DOM overlays - forced screenshot mode for HDR layered compositing where required to keep DOM/HDR layer composition deterministic - skipped readiness waiting for natively extracted HDR videos in the engine path where it was unnecessary and could block layered HDR flows ### HDR metadata robustness - added a fallback in `extractVideoMetadata()` to read PNG `cICP` metadata directly when `ffprobe` omits color-space fields for PNGs - this specifically fixes CI/Docker detection for the `hdr-image-only` fixture, where the render was falling back to SDR because the PNG was not being recognized as BT.2020 PQ ### Regression coverage and fixture cleanup - added `hdr-image-only`, a regression fixture that validates HDR still-image rendering end to end - added `hdr-pq`, a focused HDR PQ regression fixture for the video path - updated regression CI to run an `hdr` shard with `--sequential hdr-pq hdr-image-only` - removed the older larger `hdr-regression/*` fixture set in favor of the smaller targeted regressions used by CI - added the necessary fixture generation/readme material and checked-in golden outputs for the new HDR tests ## Why The original PR description only covered the CLI flag forwarding and docs work. Since then, the branch also picked up the missing runtime support needed for HDR still images and the regression coverage to keep that path from breaking. The practical issue this closes is: - local host runs could pass while CI failed `hdr-image-only` - the failure was a full-frame visual mismatch caused by SDR fallback, not unstable rendering - root cause was PNG HDR metadata not being surfaced by `ffprobe` in the CI Docker environment - parsing the PNG `cICP` chunk directly makes HDR detection deterministic across environments ## Test plan ### Local targeted checks ```bash bunx oxlint packages/engine/src/utils/ffprobe.ts packages/engine/src/utils/ffprobe.test.ts bunx oxfmt packages/engine/src/utils/ffprobe.ts packages/engine/src/utils/ffprobe.test.ts bun --cwd packages/engine test src/utils/ffprobe.test.ts src/utils/hdr.test.ts ``` ### Producer regression runs on host ```bash bun run --cwd packages/core build:hyperframes-runtime:modular bun --cwd packages/producer test -- --sequential --exclude-tags slow,render-compat,hdr bun --cwd packages/producer test -- --sequential hdr-pq hdr-image-only ``` Observed result: - `fast` shard: 7 passed, 0 failed - `hdr` shard: 2 passed, 0 failed ### CI-equivalent Docker verification ```bash docker build -f Dockerfile.test -t hyperframes-producer:test . docker run --rm \ --security-opt seccomp=unconfined \ --shm-size=4g \ -v "$PWD/packages/producer/tests:/app/packages/producer/tests" \ hyperframes-producer:test \ --sequential hdr-pq hdr-image-only ``` Observed result: - `hdr-image-only`: passed - `hdr-pq`: passed - shard summary: 2 passed, 0 failed ### Specific regression fixed Before the PNG `cICP` fallback, the Docker/CI run failed `hdr-image-only` with: - missing `"[Render] HDR source detected — output: PQ ..."` log line - full-frame visual mismatch across all 100 checkpoints - PSNR ~17 on every frame, indicating a consistent SDR-vs-HDR pipeline mismatch After the fallback, the same Docker path recognizes the PNG as HDR and the shard passes. |
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Vance Ingalls
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a21a62b574 |
feat(engine): add HDR two-pass compositing — DOM layer + native HLG video (#288)
## Summary Compositions with HDR video AND DOM overlays (text, graphics, SDR video) couldn't render both correctly — either HDR data was lost (Chrome captures sRGB only) or DOM overlays were missing (FFmpeg pass-through skips Chrome). This PR adds in-memory alpha compositing that combines both. ## What it does **Per-frame two-pass capture:** 1. **DOM pass** — Chrome screenshots the page with a transparent background (CDP alpha). HDR videos are hidden, leaving transparent holes where they go. 2. **HDR pass** — Pre-extracted native HLG/PQ frames (16-bit PNG from FFmpeg) are read from disk. 3. **Composite** — DOM pixels (sRGB RGBA8) are alpha-composited over HDR pixels (rgb48le) in Node.js memory, with sRGB→HLG/PQ conversion via a 256-entry lookup table. **Key components:** - `decodePng()` / `decodePngToRgb48le()` — Pure Node.js PNG decoders (no native dependencies). Support all 5 PNG filter types. - `blitRgba8OverRgb48le()` — Alpha composite with per-pixel sRGB→HDR LUT conversion. Fast paths for alpha=0 (skip) and alpha=255 (overwrite). - `initTransparentBackground()` + `captureAlphaPng()` — Split CDP transparent background setup (once) from per-frame screenshot capture (eliminates 2 CDP round-trips per frame). - Single-pass FFmpeg extraction — All HDR frames extracted in one sequential FFmpeg run (avoids duplicate frames from per-frame `-ss` fast seek). ## Key design decisions | Decision | Why | |----------|-----| | In-memory compositing (not FFmpeg overlay) | Eliminates ~2400 process spawns + temp files per render. Pure pixel math is 10x faster. | | 16-bit PNG intermediate | Raw `-f rawvideo` loses color metadata, causing moiré artifacts. PNG is self-describing. | | sRGB→HLG LUT (256 entries) | DOM content is sRGB. Without conversion, it appears orange-shifted in HLG stream. | | Native HDR detection before extraction | `extractAllVideoFrames` converts SDR→HDR. Pre-extraction probe identifies original HDR sources so only truly-HDR videos get native extraction. | ## Files changed | File | What changed | |------|-------------| | `packages/engine/src/utils/alphaBlit.ts` | **NEW** — PNG decode, sRGB→HDR LUT, alpha compositing (14 tests) | | `packages/engine/src/services/screenshotService.ts` | Transparent background CDP, `captureAlphaPng()` | | `packages/engine/src/services/videoFrameInjector.ts` | `hideVideoElements()` / `showVideoElements()` | | `packages/engine/src/services/streamingEncoder.ts` | Input color space tags for rgb48le | | `packages/producer/src/services/renderOrchestrator.ts` | Two-pass HDR capture loop, native HDR detection | ## How to test Render a composition with an HDR video background and text overlays. Both should be visible — HDR video at full quality, text crisp with correct colors (not orange-shifted). ## Stack position **3 of 6** — Stacked on #265 (HDR output pipeline). This is the foundation for all layered compositing that follows. 🤖 Generated with [Claude Code](https://claude.com/claude-code) |