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23 Commits
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20f4f8f49c |
fix(producer): retry transient deterministic font fetches (#2865)
* fix(producer): retry transient deterministic font fetches * fix(producer): secure Lambda font cache directory |
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557d82b6a9 |
fix(producer): validate distributed video metadata (#2839)
## What - enforce a finite, validated `meta/videos.json` contract shared by Plan v1 and Plan v2 - preserve authored finite ends and source-derived trim-aware ends; bound any still-open end at the validated composition end - fail distributed planning when any declared video source did not extract instead of publishing a blank-capable plan - make the v1 chunk reader reject malformed/null video timing before frame injection - route deterministic video-source/metadata failures as non-retryable in AWS and GCP while retaining retries for transient extraction failures ## Why An open-ended video whose remote source could not be resolved retained `Infinity` through planning. Plan v2 correctly rejected that value, while Plan v1 serialized it as `null`; the v1 frame lookup could then suppress injected frames and silently produce incorrect output. The invariant belongs at the shared metadata boundary. Both protocols must receive identical finite timing, and unavailable sources must fail closed before plan publication. ## Test plan - [x] producer distributed planning, metadata, v1 chunk boundary, Plan v2 conversion/materialization, and public exports - [x] core runtime media semantics (authored slots, natural duration, looping, non-looping hold) - [x] engine video extraction and frame lookup - [x] AWS Lambda/CDK/SAM and GCP Cloud Run error normalization/retry classification - [x] producer, core, engine, AWS, and GCP typechecks/builds - [x] formatting, oxlint, tracked-artifact, fallow, and commit hooks - [x] exact incident composition replayed through the AWS Lambda handler's Lambda-local path in a Lambda-like container; Plan v1 and Plan v2 both fail closed as `VIDEO_SOURCE_UNRENDERABLE` during planning, before plan publication - [x] full PR CI, including all nine regression shards and Windows render/tests No production flags or deployment/release workflows are changed. |
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96cafb47c6 | fix(producer): fallback distributed capture safely | ||
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2a284a8e3a | fix(gcp): enforce effective BeginFrame capture | ||
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09998789b5 | feat(aws-lambda): publish plan v2 directly to S3 | ||
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5bf61d6df0 |
feat(aws-lambda): support plan protocol v2 (#2789)
* feat(aws-lambda): support plan protocol v2 * fix(aws-lambda): align SAM v2 terminal errors |
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f9f00b0efc | feat(producer): version distributed plan protocol (#2777) | ||
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fba5cb9c93 |
fix(pr-to-video): bound first-run workspace and context (#2382)
* fix(pr-to-video): bound first-run workspace and context * fix(cli): expose validation gate in help * fix(pr-to-video): harden workflow guardrails * style(pr-to-video): apply repository formatting * chore(skills): refresh pr-to-video manifest |
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36b24acf20 |
feat: add video frame format render option (#1481)
* feat: add video frame format render option * refactor: single source of truth for video-frame-format allow-list Addresses PR review (Via) on #1481: the ["auto","jpg","png"] set was declared three times — render.ts (VIDEO_FRAME_FORMATS), server.ts (inline includes), and renderConfigValidation.ts (ALLOWED_VIDEO_FRAME_FORMATS) — three boundaries to update when a new extraction format lands. Hoist the constant + a reusable `isVideoFrameFormat` type guard into @hyperframes/engine (where VideoFrameFormat is defined) and route all three call sites through them. Behavior unchanged; also drops two `as RenderConfig[...]` casts in favor of the guard (narrowing over assertion, per repo TS conventions). Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> --------- Co-authored-by: Xuelong Mu <xuelongmu@gmail.com> Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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4da567df22 |
feat(gcp-cloud-run): Google Cloud Run + Workflows distributed render adapter (#1253)
* feat(gcp-cloud-run): add Google Cloud Run + Workflows distributed render adapter Adds @hyperframes/gcp-cloud-run, the GCP counterpart to @hyperframes/aws-lambda (issue #932). The OSS distributed primitives (plan, renderChunk x N, assemble) are unchanged; this package is the storage/compute/orchestration glue. Package: Cloud Run handler (one image, three actions), runs under bun; GCS transport; in-image chrome-headless-shell resolver; client SDK (renderToCloudRun, getRenderProgress, deploySite, computeRenderCost); Dockerfile; Cloud Workflows definition; Terraform module; CLI cloudrun deploy|sites|render|render-batch|progress|destroy with --output-resolution and --strict-variables; 62 unit tests + docs + live smoke script. Shared extraction (removes ~640 lines of adapter duplication): move the cloud-agnostic config validator + content-hash into producer/distributed; both adapters import them. Validated end-to-end on GCP at 37.4 dB PSNR vs baseline. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> * fix(cli): resolve @hyperframes/gcp-cloud-run in the CLI build + root build The CLI bundle (esbuild) couldn't resolve `@hyperframes/gcp-cloud-run/sdk`, failing Build/Typecheck/CLI-smoke (and the perf/windows/regression jobs that build first). Mirror the aws-lambda handling: mark the gcp adapter + its /sdk subpath external in tsup.config.ts with a source alias, and add gcp-cloud-run to the root `build` filter so its dist exists for publish + runtime. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> * fix(ci): copy gcp-cloud-run manifest in Dockerfile.test for frozen install The regression test image runs `bun install --frozen-lockfile` after copying each workspace package.json individually. The CLI now depends on @hyperframes/gcp-cloud-run (workspace:*), so the frozen install fails to resolve it unless its manifest is present. Add the COPY line. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> * feat(cli): add machine-sizing flags to `cloudrun deploy` Closes the parity gap with `lambda deploy` (which exposes --memory etc.). `cloudrun deploy` now threads --cpu, --memory, --max-instances, and --timeout into the Terraform apply; omitted flags keep the module defaults (4 vCPU / 16Gi / 100 instances / 3600s). For finer control, apply the module directly. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> * fix(gcp-cloud-run): address PR review (security, waste, limits, alerts) - server.ts: bucket-allowlist guard no longer fails open silently. Unset env logs a one-time WARNING; "*" is an explicit opt-out; otherwise it enforces. - server.ts: stop double-shipping audio.aac. It already rides in the plan tarball every consumer downloads, so drop the redundant standalone upload (plan) + re-download/overwrite (assemble); assemble reads it from the untar, falling back to a supplied AudioGcsUri for compat. - server.ts: chunk extension via path.extname() instead of slice(lastIndexOf). - workflow.yaml: clamp parallel concurrency_limit to math.min(chunkCount, 20) — Cloud Workflows hard-caps concurrent iterations at 20. - Dockerfile: pin bun (bun-v1.3.9) so an interop change can't silently break the image rebuild. - terraform: add min_instances var (default 0); add a workflow-failure alert (finished_execution_count status=FAILED) alongside the request-count one. - costAccounting: document that displayCost excludes GCS storage/egress. Verified against the actual APIs: @google-cloud/workflows@4.4.0 ICreateExecutionRequest has no executionId (so the idempotency-token suggestion isn't available in this client); Workflows concurrency cap is 20; failure metric is workflows.googleapis.com/finished_execution_count (status label). 174 adapter tests pass, fallow/oxlint/oxfmt/terraform clean. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> * fix(gcp-cloud-run): address round-2 review — error code + CFR forwarding - workflow.yaml: rename the zero-chunk failure code PLAN_TOO_LARGE → PLAN_PRODUCED_ZERO_CHUNKS. The old code implied a size-ceiling breach (the opposite cause), misleading anyone triaging the alert. - workflow.yaml: forward Config.cfr to the assemble step (`Cfr: ${("cfr" in config) and config.cfr}`). It was read by the handler but never sent, so exact-CFR was silently off for every Cloud Run render. Uses the same `in`-operator guard already proven in the retryable predicate. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> * fix(release): include gcp-cloud-run in set-version PACKAGES list set-version.ts (driven by release:prepare) bumps an explicit package list to the shared version on each release. gcp-cloud-run was wired into the build + publish.yml but missing here, so a release would leave it at a stale version and publish.yml would push the wrong version. Add it so the new package version-bumps + publishes in lockstep with the others. Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com> --------- Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com> |
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65888840fa |
fix(aws-lambda): validate event S3 URIs against render bucket (F-004) (#1213)
## Summary - Adds `validateEventS3Uris()`, called immediately after `unwrapEvent()` in the Lambda handler before any S3 I/O. - If `HYPERFRAMES_RENDER_BUCKET` env var is set, every S3 URI in the event (`ProjectS3Uri`, `PlanOutputS3Prefix`, `PlanS3Uri`, `ChunkOutputS3Prefix`, `ChunkS3Uris`, `AudioS3Uri`, `OutputS3Uri`) must resolve to that bucket. Mismatches throw `S3_URI_NOT_ALLOWED`. - Env var unset → validation skips (backwards-compatible; existing deployments without the var continue to work). - CDK stack (`HyperframesRenderStack`) auto-wires `HYPERFRAMES_RENDER_BUCKET: this.bucket.bucketName` so new deployments are protected without manual config. - `S3_URI_NOT_ALLOWED` added to all three `NON_RETRYABLE_*` lists in the Step Functions state machine so the state machine does not retry on this error. ## Security **F-004 MED** — The Lambda handler accepted S3 URIs from the event payload without verifying they targeted the function's own render bucket. An attacker who could inject a crafted Step Functions execution input could route `GetObject` / `PutObject` calls to arbitrary buckets in the same AWS account, potentially exfiltrating plan data or overwriting objects in unrelated buckets. ## Test plan - [x] `handler` rejects a `plan` event whose `ProjectS3Uri` targets a different bucket — `S3_URI_NOT_ALLOWED` thrown, zero S3 ops recorded - [x] `handler` rejects an `assemble` event with one cross-bucket chunk URI - [x] Validation is skipped when `HYPERFRAMES_RENDER_BUCKET` is unset (no regression for existing callers) - [x] All 12 handler unit tests pass |
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bc20b87b9a |
fix(aws-lambda): resolve Chromium for handlePlan before invoking probe
The producer's probe stage launches Chromium when Plan has to resolve browser-only data: root duration unknown, unresolved sub-compositions, or data-hf-auto-start media. Only handleRenderChunk was setting PRODUCER_HEADLESS_SHELL_PATH, so a cold Plan invocation launched puppeteer-core with no executablePath and failed before writing plan.tar.gz. Mirror the renderChunk env-var guard inside handlePlan so the bundled Sparticuz binary gets resolved on the first Plan invocation and reused on warm starts. The skipChromeResolution dep stays honored for SAM-local RIE smokes. A warm Lambda environment can mask this only if it previously served a renderChunk from another execution and left the env var sticky. Within a single Step Functions execution, Plan still runs before RenderChunks. A new dispatch test exercises the guard path by pre-seeding PRODUCER_HEADLESS_SHELL_PATH and asserting Plan does not overwrite it. |
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71d1889da6 |
feat(distributed): add optional cfr flag for exact constant frame rate
Distributed-render output today uses -c:v copy through concat → mux → faststart, which means PTS timestamps from each chunk pass through unchanged. Container r_frame_rate is exact (#1040 + this PR's parent), but stream-level avg_frame_rate stays PTS-derived and can land on fractional rationals like 27648000/921677 over a 60s render. Same for sub-ms duration drift. This is the achievable bar within -c copy stream-copy concat. For most consumers (browser playback, YouTube, etc.) the difference is invisible. For downstream tools that strict-check avg_frame_rate or ms-precision duration (broadcast workflows, frame-accurate compositors, some third-party transcoders), it matters. Adds an opt-in cfr config flag (default false). When true, the assemble step's final pass re-encodes with -fps_mode cfr -r <fps> instead of -c copy, producing exact CFR output. Trade-off: ~2-5x the stitch time for a 60s 1080p clip; second-generation H.264 quality loss is negligible at -crf 18 but is non-zero. |
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0f624f59fe |
fix(aws-lambda): surface sparticuz wedge as typed non-retryable error
Repeated Sandbox.Timedout chunks can leave @sparticuz/chromium returning a falsy/empty path on subsequent invocations — warm instances on the same execution environment never re-extract chromium. The downstream puppeteer-core assertion about needing an executablePath or channel buries the actionable cause; a cost- analysis sweep took ~30 min to root-cause from that trace. Guard the resolver: if mod.executablePath() returns a non-string, empty string, or a path that does not exist on disk, throw a typed ChromeBinaryUnavailableError whose message points at the recycle remedy (env-var bump or redeploy). Add the error name to the three NON_RETRYABLE lists so SFN short-circuits instead of burning four 15-min retries on a function that won't recover. Same typed-error contract for the chrome-headless-shell fallback so both sources fail consistently. Tests pin the wedge path (empty string + non-existent file) and the carried metadata (source + resolvedPath). Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> |
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d4384722e8 |
fix(aws-lambda): account for TaskScheduled/TaskSucceeded in cost
The CDK construct compiles tasks.LambdaInvoke to the optimized arn:aws:states:::lambda:invoke integration, which emits Task* history events with the Lambda response wrapped in .Payload. getRenderProgress was only listening for the older LambdaFunction* events, so every CDK- deployed stack reported $0 total cost and zero invocations on success — a high-visibility regression that only surfaced when we manually walked SFN history during a cost-analysis sweep. Add cases for TaskScheduled (count invocation), TaskSucceeded (parse Payload + accumulate billed duration / frame counts), and TaskFailed (record error). Keep the LambdaFunction* paths so anyone wiring the raw lambda:invokeFunction.sync task type still works. Factor out the shared FramesEncoded-attribution logic so both branches agree on the "only RenderChunk frames count" rule. Tests pin a real-shape regression: replay the inspector-launch 1080p/30fps history (1 Plan + 16 RenderChunks + 1 Assemble) and assert lambdaUsd lands at ~$0.582 — matching the cost-analysis script's direct read against SFN history. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> |
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87fdd556c4 |
feat(aws-lambda): validate variables + 256 KiB Step Functions input cap (#976)
Add client-side validation for the new config.variables field (introduced in PR 9.1) and a 256 KiB cap on the full Step Functions Standard execution input. Both checks throw a typed InvalidConfigError BEFORE the SDK calls StartExecution — catching the obvious mistakes locally instead of as a States.DataLimitExceeded 50 ms into the execution. validateVariablesPayload walks the variables tree and rejects: - functions, Symbols, BigInts, non-finite numbers - undefined leaves (silently dropped by JSON.stringify — would surprise the caller when their value doesn't show up in the render) - non-plain objects (Date, Map, class instances) — Date's toJSON does round-trip as a string, but the composition gets a string, not a Date, so explicit reject is clearer validateStepFunctionsInputSize measures the actual UTF-8 byte length of JSON.stringify(input) against the 256 KiB cap. We use Standard workflows (per the plan §6.2 / §15.2) for execution-history visibility, so the cap is 256 KiB (Express would be 32 KiB). The error message names the actual byte count, the cap, and points at the templates-on-lambda#working-with-large-variables section so users know to URL-reference media assets instead of inlining them. Both helpers are exported from @hyperframes/aws-lambda/sdk so adapters that build custom Step Functions inputs (batch verbs, future Temporal ports) can reuse the same gates. Phase 9 PR 9.2 of the distributed rendering plan. |
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5d264e146c |
docs(lambda): document webm support + simplify-review fixes (#953)
* docs(lambda): document webm support in distributed mode PR 8.4 of the WebM distributed-rendering plan (v1.5 backlog #1; see DISTRIBUTED-RENDERING-PLAN.md §7.2). User-facing docs catch up with the shipped capability. Updates docs/deploy/migrating-to-hyperframes-lambda.mdx: - "Output format" row in the migration table now lists `webm` alongside mp4 / mov / png-sequence with a note that webm uses libvpx-vp9 + closed-GOP concat-copy. HDR mp4 remains the only refused format. - "No webm distributed" caveat replaced with "webm uses closed-GOP VP9" explainer covering the encoder args (`-g <chunkSize>`, `-keyint_min <chunkSize>`, `-auto-alt-ref 0`, `-cpu-used 2`), why alt-ref disable is load-bearing, and that the output preserves alpha via yuva420p with Opus audio. - Migration checklist no longer asks adopters to filter out webm compositions; only HDR-dependent renders need to stay on the previous framework. aws-lambda.mdx doesn't currently call out webm as unsupported (only HDR in the v1 surface list), so it gets no copy edits beyond the migration guide. The internal planning doc (DISTRIBUTED-RENDERING-PLAN.md §7.2, §8, §12 — kept outside the repo) gets matching updates: format support matrix flipped ✓, v1.5 backlog #1 marked shipped, HDR promoted to the new top item, and the rev-12 → rev-13 status line. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * refactor: address simplify-review findings on webm stack Folds in cleanups identified by a multi-agent code-review pass over the 4-PR webm-distributed stack: - plan.ts: `resolveEncoderTriple()` webm case now calls `getEncoderPreset(quality, "webm")` for its preset string instead of hardcoding "good". The hardcode was wrong for `quality: "draft"` (`getEncoderPreset` returns "realtime" for that tier) — would have silently overridden the draft → realtime mapping for distributed webm renders. - chunkEncoder.ts: trim the new VP9 closed-GOP comment block from ~18 lines of WHY narration down to the 6 lines that actually explain why (alt-ref + cpu-used drift). Match the alpha branch's idempotent-push comment to the same standard. - chunkEncoder.test.ts: drop the duplicate WHY comment that restated the implementation comment in plain words. - webm-concat-copy.test.ts: rewrite the file-header docstring to describe the contract being tested instead of the PR-8.1-gating history; strip "PR 8.2 / Path A / Path B" references from error messages (they belong in PR bodies, not in test output). Consolidate the yuva420p alpha smoke into a single `it()` block (was a full 4-test describe with duplicated setup) — the yuv420p block already covers the probe/decode/frame-count contract; the alpha smoke only needs to prove the alpha args don't break concat-copy. - plan.test.ts: drop the "PR 8.1 proved the contract" comment. - webm-vp9 fixture: drop the aspirational "Other webm-with-audio fixtures cover the mux path separately when added" sentence (no other fixtures exist). Regenerated the baseline via `docker:test:update webm-vp9` to reflect the updated comment. - migrating-to-hyperframes-lambda.mdx: add a paragraph about distributed webm's perf cost — ~10-25% larger files at constant CRF due to forced keyframes, and slower per-chunk encode due to `-cpu-used 2` being more conservative than the libvpx default. All unit tests + the webm-vp9 distributed-simulated regression still pass after these changes. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * fix(cli): accept --format=webm in `hyperframes lambda render` The CLI's `lambda render` subcommand's FORMATS allowlist and the `RenderArgs.format` type still narrowed to `mp4 | mov | png-sequence`, so even though the producer + aws-lambda packages now support webm end-to-end, the CLI surface rejected it with `--format must be mp4|mov| png-sequence`. Add webm to both spots and update the --help description. Surfaced during real-AWS deploy prep — the local lambda-local / distributed-simulated tests didn't go through the CLI so the gap went unnoticed. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * fix(producer): font cache writes to /tmp on Lambda (read-only \$HOME) The deterministic Google Fonts cache was rooted at `\$HOME/.cache/hyperframes/fonts`, which fails on AWS Lambda — the runtime's `\$HOME` resolves to a `/home/sbx_*` directory tree that's read-only. `mkdirSync(..., { recursive: true })` can't create that path and the plan stage trips with `ENOENT: no such file or directory, mkdir '/home/sbx_user1051/.cache/hyperframes/fonts/space-mono'` on every Lambda render that pulls a Google Font (i.e. every distributed fixture using `@import url("https://fonts.googleapis.com/...")`). Detect Lambda via `\$AWS_LAMBDA_FUNCTION_NAME` and route the cache to `tmpdir()/hyperframes/fonts` in that case. Lambda's `/tmp` survives across invocations on a warm container, so cache hit rate is the same as non-Lambda runs. Also honor an explicit `\$HYPERFRAMES_FONT_CACHE_DIR` override for adopters who want a different location regardless of the runtime. Surfaced while verifying webm distributed end-to-end on real AWS — the same bug affects mp4 fixtures using Google Fonts; webm just happened to be the one I tried first. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * refactor: extract DistributedFormat type + trim font-cache resolver Second simplify-review pass on the webm stack flagged two cleanups: 1. **`DistributedFormat` type duplicated 10 times.** Every file in the distributed pipeline carried its own copy of `"mp4" | "mov" | "png-sequence" | "webm"` — adding a new format meant a 10-place edit with no compile-time guarantee they stayed in sync. Extract a single source of truth in `packages/producer/src/services/distributed/shared.ts`, re-export from `@hyperframes/producer/distributed` and `@hyperframes/aws-lambda/sdk`, and have all callers pull from there. The aws-lambda `ALLOWED_FORMATS` runtime tuple and the CLI's `FORMATS` tuple now both use `satisfies readonly DistributedFormat[]` so the compiler enforces the runtime allowlist stays in sync with the type. 2. **`deterministicFonts.ts` font-cache resolver was over-commented.** Trim the 7-line block to 4 lines (drop the aspirational "and other read-only-FS execution environments" — only Lambda is detected — and the warm-container `/tmp` persistence narration — anyone reading already knows Lambda /tmp semantics). Collapse the two-step `if (explicit && explicit.length > 0)` into a single nullish-coalesce expression now that the empty-string defensive check is gone (`process.env.X` is `string | undefined`, no third shape to guard against). Out-of-scope skips (called out by the agents, deferred): - In-process `RenderConfig.format` and the in-process CLI's `render.ts` format union still carry their own inline copies. The union happens to coincide today but they're separate concerns — leaving them alone limits this PR's blast radius. - `fontCacheDir(slug)` / `resolveFontCacheRoot()` naming asymmetry flagged as taste; skipping. - Pre-existing redundant `existsSync` before `mkdirSync({ recursive: true })` in `fontCacheDir` — out of scope. All tests + typecheck still pass. Lambda render still works end-to-end (no functional changes). Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * docs(lambda): drop plan-doc reference from migration checklist PR review feedback: source/docs should not mention the distributed-rendering planning doc. Tighten the migration checklist sentence to describe the webm path directly rather than referencing the doc's version label. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * refactor(producer): split resolveEncoderTriple into mp4 + non-mp4 helpers CI Fallow audit on PR #953 flagged `resolveEncoderTriple` at CRAP 31.6 — the function interleaved (a) mp4 codec validation + dispatch, (b) the non-mp4 codec-rejection throw, and (c) per-format dispatch. Splitting into `resolveMp4EncoderTriple` + `resolveNonMp4EncoderTriple` drops the top-level function's cyclomatic complexity below the threshold while preserving every error message and code path. Behavior unchanged. Also extracts an `EncoderTriple` type alias so the three functions share the return shape declaratively rather than repeating it. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> --------- Co-authored-by: Claude Opus 4.7 (1M context) <noreply@anthropic.com> |
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6d2569c6bb |
test(producer): add webm-vp9 distributed regression fixture (#952)
* feat(producer): enable webm in distributed mode via concat-copy PR 8.2 of the WebM distributed-rendering plan (v1.5 backlog #1; see DISTRIBUTED-RENDERING-PLAN.md §7.2). Wires libvpx-vp9 webm through the distributed pipeline now that PR 8.1 proved concat-copy works. Architectural decision: Path A (concat-copy) — based on PR 8.1's smoke test result (9/9 tests pass for both yuv420p and yuva420p VP9 streams). The simpler architecture wins; no re-encode in assemble, no encode- parallelism loss. Changes: - plan.ts: - DistributedRenderConfig.format and PlanResult.format now include "webm" — type-level acceptance matches the runtime gate. - rejectUnsupportedDistributedFormat() no longer trips on webm. HDR mp4 remains the only refused configuration. - resolveEncoderTriple() returns libvpx-vp9-software + yuva420p + preset="good" for format="webm". yuva420p preserves alpha — the format's main reason for existing for web delivery. - codec= remains rejected for non-mp4 formats (mov is always ProRes 4444; webm is always libvpx-vp9). The error message lists all four distributed-supported formats. - FormatNotSupportedInDistributedError docstring updated to reflect the new reality (only HDR is unsupported). - freezePlan.ts: LockedRenderConfig.encoder gains "libvpx-vp9-software". Mirrors libx265-software / prores-software / png-sequence in shape; the chunk worker reads this discriminant to decide encode args. - renderChunk.ts: drops the now-incorrect cast that excluded webm from buildSyntheticRenderJob's format input; tightens the preset-format cast to include webm. - assemble.ts: docstring + comment updates. The mp4/mov concat-copy path is format-agnostic — webm uses the exact same code (applyFaststart is a no-op for webm via the existing chunkEncoder.ts gate; muxVideoWithAudio already routes webm to libopus audio). - planFormatBanlist.test.ts: webm-rejection tests removed; replaced with "accepts webm" tests + a HDR+webm combo test that verifies HDR is the trip regardless of format. - plan.test.ts: new describe block pins the webm wiring contract: format="webm" produces an encoder=libvpx-vp9-software / pixelFormat=yuva420p planDir with closedGop=true and gopSize=chunkSize. - webm-concat-copy.test.ts (smoke): extended with a yuva420p variant that proves the alpha pixel format the distributed pipeline actually emits also round-trips through concat-copy. 9/9 tests pass locally. §8 format support matrix in DISTRIBUTED-RENDERING-PLAN.md is intentionally left unchanged at this PR — it flips to ✓ in PR 8.4 once the end-to-end fixture (PR 8.3) is green. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * fix(producer): include webm in plan-time needsAlpha + strengthen alpha smoke PR review feedback from Miguel and Vai on #951 caught a real bug: `plan.ts`'s `needsAlpha` disjunction excluded `"webm"`, so the plan stage froze `forceScreenshot: false` into the `LockedRenderConfig` even though distributed webm uses `yuva420p`. Every chunk worker captured opaque RGB via BeginFrame (which doesn't preserve alpha on Linux headless-shell), and libvpx-vp9 encoded uniformly-opaque alpha that the encoder then dropped — producing un-keyable webm. Two changes: 1. **plan.ts**: include `"webm"` in `needsAlpha`. Matches the in-process renderer's logic at `renderOrchestrator.ts:1469` (`const needsAlpha = isWebm || isMov || isPngSequence`); the two sites must stay in sync since the distributed pipeline's PSNR regression compares against the in-process baseline. 2. **Smoke test (yuva420p describe)**: source frames now use a real alpha gradient (`geq=a='X*255/W'` on top of `testsrc2`) instead of `testsrc2 + format=rgba` which was uniformly opaque. The decode- pix_fmt assertion is dropped (ffprobe reports `yuv420p` for VP9-with-alpha because the alpha lives in a Matroska `BlockAdditional` sidecar) and replaced with two stronger checks: - `TAG:ALPHA_MODE=1` is present on the stream — proves the encoder was actually configured for alpha - alpha plane variance after `-c:v libvpx-vp9 -i ... -pix_fmt rgba -vf extractplanes=a,signalstats` — proves the alpha sub-stream round-trips through concat-copy with spatially-varying content, not uniform/dropped alpha - decode-test gate is now exit-code-only (was `exitCode || stderr` which would flake on chatty ffmpeg `-v error` builds emitting non-fatal DTS/container notes) These checks would have caught the `needsAlpha` bug before review. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * fix(aws-lambda): widen narrow format types to include webm CI on PR #951 was failing at typecheck/build because the producer's `DistributedRenderConfig.format` widened to include webm in this PR but the aws-lambda package's narrow `"mp4" | "mov" | "png-sequence"` type literals in `events.ts`, `handler.ts`, and `validateConfig.ts` hadn't kept up. `renderToLambda.ts:87` passed `config.format` (now including webm) into a parameter typed against the narrow union, producing TS2345. This widening originally landed in PR #952 (test fixture PR) but needs to be atomic with the producer's widening here to keep each PR independently typecheck-clean. Also refactor `formatExtension` from a switch dispatch to a `Record<DistributedFormat, string>` lookup. Adding the webm case tipped the switch's CRAP to the 30.0 fallow threshold; the lookup table drops cyclomatic from 5 to 1 with the same compile-time exhaustiveness guarantee (TS errors on missing entries when `DistributedFormat` adds a new format). The runtime `_exhaustive: never` throw was only protecting against a string slipping past TS; `validateConfig.ts`'s `ALLOWED_FORMATS` already gates untrusted input at the SDK boundary. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * test(producer): add webm-vp9 distributed regression fixture PR 8.3 of the WebM distributed-rendering plan (v1.5 backlog #1; see DISTRIBUTED-RENDERING-PLAN.md §7.2). End-to-end regression coverage for the webm distributed path PRs 8.1 and 8.2 wired up. Adds packages/producer/tests/distributed/webm-vp9/ matching the mp4-h264-sdr fixture pattern: a 2-second composition (60 frames @ 30fps) with text, a crossfade across the frame-30 chunk seam, and a continuous icon rotation — exercises chunk-boundary continuity for both display contents and VP9 closed-GOP alpha encoding. `chunkSize: 15` produces 4 chunks so 3 seams are tested, and the crossfade straddles the middle seam to surface alpha-plane discontinuities introduced by alt-ref drift. Baseline regenerated inside Dockerfile.test via `bun run --cwd packages/producer docker:test:update webm-vp9`. Runs in: - in-process mode: byte-identical match against baseline ✓ - distributed-simulated mode: PSNR 56.88-63.49 dB across 100 checkpoints, well above the 30 dB threshold ✓ Wiring updates required to let webm flow through the harness: - regression-harness-distributed.ts: - checkDistributedSupport() no longer rejects webm. HDR mp4 + NTSC fps + non-{24,30,60} fps remain rejected. - RunDistributedSimulatedInput.format widened to include webm. - Docstring + comments updated. - regression-harness-distributed.test.ts: webm-rejection test replaced with "accepts format=webm" test. - regression-harness.ts: the now-incorrect format cast at the distributed-input call site is dropped; comment about why webm was excluded is replaced with "webm is now distributed-supported". - regression-harness-lambda-local-types.ts: RunLambdaLocalInput.format widened to include webm so lambda-local mode can also exercise webm fixtures end-to-end. - aws-lambda webm support (Path A through the Lambda handler): - formatExtension.ts: DistributedFormat gains "webm" → ".webm" case. - events.ts: RenderChunkEvent / AssembleEvent / PlanLambdaResult Format widened to include webm. - sdk/validateConfig.ts: ALLOWED_FORMATS gains "webm". - handler.ts: downloadChunkObjects format param widened. The Lambda handler delegates to the producer's assemble() primitive which PR 8.2 already taught to handle webm (concat-copy + applyFaststart no-op + muxVideoWithAudio with libopus); no Lambda-side rendering changes are needed beyond the type/validation surfaces above. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * docs(aws-lambda): drop stale webm rejection from validateConfig docblock PR #952 review nit (Miguel): the validateConfig.ts file-header comment still claimed the SDK rejects webm, but the runtime check no longer does (ALLOWED_FORMATS now includes 'webm'). Update the docblock to reflect that only force-hdr remains an SDK-side rejection. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * ci(regression): add webm-vp9 to shard-3 + refactor formatExtension Three follow-ups bundled together (Vai's review feedback on PR #952 plus the fallow audit finding that surfaced when the webm case was added): 1. **Wire webm-vp9 into CI regression.** The fixture was added in this PR but never appeared in any `.github/workflows/regression.yml` shard's args allowlist, so the regression harness's positional-args gate skipped it in CI. Append `webm-vp9` to shard-3 (which already carries `mp4-h264-sdr` + `webm-transparency`) so the fixture runs. 2. **Fix stale "four hard gates" prose in checkDistributedSupport docstring.** Earlier in the stack I removed the webm bullet but didn't update the count. Two gates remain (fps + hdr). 3. **Refactor `formatExtension` from switch to lookup table.** Adding the webm case made the switch dispatch's CRAP score hit 30.0 (cyclomatic = 5, plus the function's small body). Replaced with a `Record<DistributedFormat, string>` lookup, which: - drops cyclomatic from 5 → 1, - keeps exhaustiveness enforcement at compile time (TS errors if a new format gets added to `DistributedFormat` without a matching key in the Record literal), - drops the runtime `_exhaustive: never` throw, which was only guarding against an arbitrary string slipping past TS — a caller-side concern, not this function's job. The function now reads as a table lookup, which matches what it actually does, and the fallow audit now reports zero new complexity findings (down from 1). Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> --------- Co-authored-by: Claude Opus 4.7 (1M context) <noreply@anthropic.com> |
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21f5066832 |
feat(producer): enable webm in distributed mode via concat-copy (#951)
* feat(producer): enable webm in distributed mode via concat-copy PR 8.2 of the WebM distributed-rendering plan (v1.5 backlog #1; see DISTRIBUTED-RENDERING-PLAN.md §7.2). Wires libvpx-vp9 webm through the distributed pipeline now that PR 8.1 proved concat-copy works. Architectural decision: Path A (concat-copy) — based on PR 8.1's smoke test result (9/9 tests pass for both yuv420p and yuva420p VP9 streams). The simpler architecture wins; no re-encode in assemble, no encode- parallelism loss. Changes: - plan.ts: - DistributedRenderConfig.format and PlanResult.format now include "webm" — type-level acceptance matches the runtime gate. - rejectUnsupportedDistributedFormat() no longer trips on webm. HDR mp4 remains the only refused configuration. - resolveEncoderTriple() returns libvpx-vp9-software + yuva420p + preset="good" for format="webm". yuva420p preserves alpha — the format's main reason for existing for web delivery. - codec= remains rejected for non-mp4 formats (mov is always ProRes 4444; webm is always libvpx-vp9). The error message lists all four distributed-supported formats. - FormatNotSupportedInDistributedError docstring updated to reflect the new reality (only HDR is unsupported). - freezePlan.ts: LockedRenderConfig.encoder gains "libvpx-vp9-software". Mirrors libx265-software / prores-software / png-sequence in shape; the chunk worker reads this discriminant to decide encode args. - renderChunk.ts: drops the now-incorrect cast that excluded webm from buildSyntheticRenderJob's format input; tightens the preset-format cast to include webm. - assemble.ts: docstring + comment updates. The mp4/mov concat-copy path is format-agnostic — webm uses the exact same code (applyFaststart is a no-op for webm via the existing chunkEncoder.ts gate; muxVideoWithAudio already routes webm to libopus audio). - planFormatBanlist.test.ts: webm-rejection tests removed; replaced with "accepts webm" tests + a HDR+webm combo test that verifies HDR is the trip regardless of format. - plan.test.ts: new describe block pins the webm wiring contract: format="webm" produces an encoder=libvpx-vp9-software / pixelFormat=yuva420p planDir with closedGop=true and gopSize=chunkSize. - webm-concat-copy.test.ts (smoke): extended with a yuva420p variant that proves the alpha pixel format the distributed pipeline actually emits also round-trips through concat-copy. 9/9 tests pass locally. §8 format support matrix in DISTRIBUTED-RENDERING-PLAN.md is intentionally left unchanged at this PR — it flips to ✓ in PR 8.4 once the end-to-end fixture (PR 8.3) is green. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * fix(producer): include webm in plan-time needsAlpha + strengthen alpha smoke PR review feedback from Miguel and Vai on #951 caught a real bug: `plan.ts`'s `needsAlpha` disjunction excluded `"webm"`, so the plan stage froze `forceScreenshot: false` into the `LockedRenderConfig` even though distributed webm uses `yuva420p`. Every chunk worker captured opaque RGB via BeginFrame (which doesn't preserve alpha on Linux headless-shell), and libvpx-vp9 encoded uniformly-opaque alpha that the encoder then dropped — producing un-keyable webm. Two changes: 1. **plan.ts**: include `"webm"` in `needsAlpha`. Matches the in-process renderer's logic at `renderOrchestrator.ts:1469` (`const needsAlpha = isWebm || isMov || isPngSequence`); the two sites must stay in sync since the distributed pipeline's PSNR regression compares against the in-process baseline. 2. **Smoke test (yuva420p describe)**: source frames now use a real alpha gradient (`geq=a='X*255/W'` on top of `testsrc2`) instead of `testsrc2 + format=rgba` which was uniformly opaque. The decode- pix_fmt assertion is dropped (ffprobe reports `yuv420p` for VP9-with-alpha because the alpha lives in a Matroska `BlockAdditional` sidecar) and replaced with two stronger checks: - `TAG:ALPHA_MODE=1` is present on the stream — proves the encoder was actually configured for alpha - alpha plane variance after `-c:v libvpx-vp9 -i ... -pix_fmt rgba -vf extractplanes=a,signalstats` — proves the alpha sub-stream round-trips through concat-copy with spatially-varying content, not uniform/dropped alpha - decode-test gate is now exit-code-only (was `exitCode || stderr` which would flake on chatty ffmpeg `-v error` builds emitting non-fatal DTS/container notes) These checks would have caught the `needsAlpha` bug before review. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> * fix(aws-lambda): widen narrow format types to include webm CI on PR #951 was failing at typecheck/build because the producer's `DistributedRenderConfig.format` widened to include webm in this PR but the aws-lambda package's narrow `"mp4" | "mov" | "png-sequence"` type literals in `events.ts`, `handler.ts`, and `validateConfig.ts` hadn't kept up. `renderToLambda.ts:87` passed `config.format` (now including webm) into a parameter typed against the narrow union, producing TS2345. This widening originally landed in PR #952 (test fixture PR) but needs to be atomic with the producer's widening here to keep each PR independently typecheck-clean. Also refactor `formatExtension` from a switch dispatch to a `Record<DistributedFormat, string>` lookup. Adding the webm case tipped the switch's CRAP to the 30.0 fallow threshold; the lookup table drops cyclomatic from 5 to 1 with the same compile-time exhaustiveness guarantee (TS errors on missing entries when `DistributedFormat` adds a new format). The runtime `_exhaustive: never` throw was only protecting against a string slipping past TS; `validateConfig.ts`'s `ALLOWED_FORMATS` already gates untrusted input at the SDK boundary. Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com> --------- Co-authored-by: Claude Opus 4.7 (1M context) <noreply@anthropic.com> |
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2729ee5087 |
refactor: delete orphan declarations flagged by fallow (#949)
* ci: run fallow audit in lefthook pre-commit Mirrors the same `fallow audit --base ... --fail-on-issues` check that runs in CI, but locally against HEAD so issues surface at commit time instead of after the push round-trip. Scoped to `packages/**` source files via the glob — non-code edits (README, docs, top-level configs) skip the hook entirely. Measured locally: ~5s in parallel with the existing lint/format/typecheck checks. Doesn't extend wall-clock time because typecheck (~11s) is the long pole, and lefthook runs commands in parallel. The default `--gate new-only` means inherited findings don't block the commit — same gate behavior as CI, so local pre-commit and PR audit agree. * refactor: delete orphan declarations flagged by fallow After fallow's auto-fix de-exports unused symbols, oxlint surfaces them as no-unused-vars. This PR deletes those orphan declarations outright. Biggest cleanup: studio/src/icons/SystemIcons.tsx shrinks from 132 to 57 lines — 33 unused icon wrappers and their phosphor-icon imports deleted. Other deletions across 14 more files covering paired getter/setters, helper functions, dead env constants, internal components with no callers, and cascading unused imports. Cascade-causing files held back for follow-up PRs: renderOrchestrator barrel of captureCost re-exports, telemetry/portUtils/remote barrels, Button.tsx + ui/index.ts (would orphan whole file), studioMotion type re-exports. Test plan: typecheck clean across 8 packages, oxlint + oxfmt clean, fallow audit exit 0 (remaining findings inherited), cli + studio vitest suites pass. |
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e90ad2da61 |
feat(cli): add hyperframes lambda deploy/render/progress/destroy (#910)
* feat(cli): add hyperframes lambda deploy/render/progress/destroy
Wraps the @hyperframes/aws-lambda SDK + the Phase 6a SAM template behind
a single CLI surface so an end-to-end render is three commands instead
of the ~8 manual bun+sam+aws steps the smoke script does today:
hyperframes lambda deploy
hyperframes lambda render ./my-project --width 1920 --height 1080 --wait
hyperframes lambda destroy
Subcommands:
- deploy: build handler.zip + sam-deploy + persist stack outputs
to <cwd>/.hyperframes/lambda-stack-<name>.json
- sites create: pre-upload a project to S3 with a stable content hash
so re-renders skip the tar+PUT pass
- render: start a Step Functions execution; --wait blocks and
streams per-chunk progress + accrued cost
- progress: one-shot snapshot — status, frames, cost breakdown,
errors. Accepts renderId or executionArn
- destroy: sam-delete + drop the local state file (S3 bucket
is Retain'd by the template; documented in --help
and in docs/packages/cli.mdx)
To keep @sparticuz/chromium out of the CLI's transitive deps, this also
adds a dedicated ./sdk subpath export to @hyperframes/aws-lambda; the
CLI imports from @hyperframes/aws-lambda/sdk exclusively. The existing
. barrel still re-exports both handler + SDK for adopters who want one
entry point.
Defaults are deliberately cost-conservative for first-time users:
--concurrency=8 (low enough to never surprise) and --memory=10240 (the
common case; documented for adopters who want to tune down).
Tests: 5 unit tests on the state-file round-trip. CLI integration
against sam local invoke is part of the upcoming PR 6.6 (lambda-local
regression harness).
* refactor(cli): /simplify pass on the lambda command group
Two small cleanups on top of the lambda CLI:
- Replace parseFormat / parseCodec / parseQuality / parseChromeSource
(four near-identical helpers) with a single generic parseEnum() +
typed const-tuple lookups. The four callers now read as one-line
arrow functions that lift the allowed values out of the function
body so they're easy to extend.
- DEFAULT_STACK_NAME was const-declared then re-exported at the
bottom of state.ts; just mark the const export inline.
No behavior changes. All CLI tests still pass.
* fix(cli): keep @hyperframes/aws-lambda external in the tsup bundle
esbuild can't bundle @hyperframes/aws-lambda's transitive AWS SDK
deps (@aws-sdk/* + @smithy/*) cleanly into a node binary — the
SDK's .browser.js conditional re-exports break the resolver:
ESM Build failed
No matching export in "splitStream.browser.js" for import
"splitStream" (and ~10 similar errors)
Mark aws-lambda as `external` so esbuild doesn't follow it, and
move it from devDependencies to dependencies so the published CLI
can resolve it from node_modules at runtime. The lambda subverb
files dynamic-import only on `hyperframes lambda *` invocation, so
the CLI cold-start cost is unchanged.
The install-size hit (AWS SDK + @sparticuz/chromium ≈ 200 MiB) is
documented as a v1 tradeoff; a future split into a lambda-sdk-only
subpackage can pare this back.
* fix(cli): address PR review on lambda CLI
Two blockers + four important items from Vai's review:
- `--memory` was parsed and recorded in the local state file but
never forwarded to `sam deploy` as a parameter override. Worse,
`progress.ts` then read the *recorded* value for cost math, so
`--memory 5120` produced wrong cost numbers downstream. Thread
`LambdaMemoryMb` through samDeploy's --parameter-overrides.
- `--profile` was only consumed by deploy / destroy. render and
progress fell back to the default credentials chain — a user
with `--profile prod` would silently render against their
default account (wrong-account billing footgun). Set
`process.env.AWS_PROFILE` (and `AWS_REGION`) in the dispatcher
before any subverb runs; the AWS SDK reads them natively, so
render / progress / sites all benefit without each subverb
threading the flag through the SDK call.
- `--profile` + destroy now also reads `process.env.AWS_PROFILE`
as a fallback (matching deploy's existing env fallback).
- `--wait --json` printed both the start handle AND the final
progress snapshot, producing two concatenated JSON blobs that
`jq` rejected. Now emits a single document: handle (without
--wait) OR final progress (with --wait).
- Negative integers on `--width` / `--height` / `--chunk-size` /
`--max-parallel-chunks` / `--memory` / `--concurrency` now fail
loudly via a new `parsePositiveInt` wrapper instead of flowing
into the SDK and producing opaque AWS validation errors mid-
render.
- `DEFAULT_STACK_NAME` is now centralized to the literal
`"hyperframes-default"` and consumed from one place. Previously
the value was assembled as `hyperframes-${"default"}` in three
sites and hardcoded as `"hyperframes-default"` in a fourth.
`requireStack`'s hint now matches the dispatcher's default.
The faked `SiteHandle` for `--site-id` keeps the documented
placeholder fields but also surfaces `bucketName` (from PR 909's
extended SiteHandle interface), matching the SDK contract.
All CLI unit tests + the full bundler build still pass.
* fix(cli): keep aws-lambda out of CLI runtime deps
The "Smoke: global install" CI step packs the CLI via `npm pack` and
installs it globally via `npm install -g <tgz>`. npm doesn't understand
the workspace: protocol, so a runtime `dependencies` entry of
`@hyperframes/aws-lambda: workspace:*` blows up with:
npm error code EUNSUPPORTEDPROTOCOL
npm error Unsupported URL Type "workspace:": workspace:*
(pnpm rewrites workspace:* on publish; npm pack doesn't.)
Three changes to unblock the smoke + keep the published CLI install
small for users who don't deploy to Lambda:
- Move `@hyperframes/aws-lambda` from CLI's `dependencies` back to
`devDependencies`. It's already external in tsup.config.ts; the
bundle references it via runtime resolution only.
- Convert the static `import { … } from "@hyperframes/aws-lambda/sdk"`
in sites.ts / render.ts / progress.ts to `await import()` inside
each function. tsup with `splitting: false` was inlining those
static imports at the top of the bundle, which made Node eagerly
resolve them at CLI startup (MODULE_NOT_FOUND before any lambda
subcommand even runs). Dynamic imports stay dynamic in the bundle.
- Add a friendly missing-module check in the lambda dispatcher.
When a user runs `hyperframes lambda deploy / render / sites /
progress / destroy` without aws-lambda installed, they now see:
@hyperframes/aws-lambda is not installed.
The `hyperframes lambda deploy` command needs it at runtime.
Install it alongside the CLI:
npm install -g @hyperframes/aws-lambda
Verified locally: pack + global install + `hyperframes init --example
blank` now succeeds end-to-end (was the same scenario the CI smoke job
runs).
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34d1f0e1d0 |
feat(lambda): add TypeScript SDK and CDK construct (#909)
* feat(lambda): add TypeScript SDK and CDK construct
Adds the client-side surface on top of the Phase 6a Lambda handler so
adopters can drive a deployed stack from Node without writing AWS-SDK
boilerplate:
- renderToLambda(opts) starts a Step Functions execution and returns a
handle. Does NOT poll.
- getRenderProgress({ executionArn }) returns a snapshot of progress,
frames rendered, cost (Lambda GB-seconds + SFN transitions), errors,
and the final output object once Assemble completes.
- deploySite({ projectDir, bucketName }) content-addresses the project
tree, tar.gzs it, and uploads to S3 with a HeadObject short-circuit so
re-renders of the same tree skip the tar+PUT.
- validateDistributedRenderConfig throws a typed InvalidConfigError
before StartExecution, so shape errors surface synchronously.
- computeRenderCost is exposed for callers who want to format cost out
of band.
Also ships HyperframesRenderStack, an aws-cdk-lib L2 construct that
emits the same topology as examples/aws-lambda/template.yaml. Lives on
the ./cdk subpath export so SDK-only consumers don't pull aws-cdk-lib
into their runtime graph (declared as an optional peer dependency).
Tests: 24 new unit tests across the SDK plus 9 CDK synth / contract /
snapshot tests. All 83 tests in packages/aws-lambda/src pass.
* refactor(lambda): /simplify pass on the SDK + CDK PR
Pulls shared logic out so the SDK doesn't re-invent things the handler
and the producer already have:
- `formatExtension` extracted to packages/aws-lambda/src/formatExtension.ts.
handler.ts and renderToLambda.ts both used identical 12-line copies of
this switch.
- `PLAN_PROJECT_DIR_SKIP_SEGMENTS` is now exported from
@hyperframes/producer/distributed. deploySite consumes it instead of
its own duplicate SKIP_TOP_LEVEL set; the two lists were trivially
identical and would have drifted silently.
- `FakeS3` + `drainBody` factored out of the two SDK test files into
src/sdk/__fixtures__/fakeS3.ts. Drops ~110 lines of test-file
duplication and gives future SDK tests a one-line FakeS3 import.
- S3 URI building in deploySite and renderToLambda routes through the
existing `formatS3Uri` helper instead of inline `s3://...`
concatenation; matches the convention already in handler.ts.
Net -133 lines across the touched files. All 83 aws-lambda tests still
pass; all 60 producer distributed tests still pass.
* fix(lambda): bump CDK test timeouts for CI cold-start synth
The bun:test default 5s timeout tripped the first CDK snapshot test
in CI when the cold-start `Template.fromStack(stack)` synth took ~5-8s
on the slowest GitHub Actions runner. Locally on a warm shell the
synth measures <1s, so the failure didn't reproduce until PR #909 hit
CI.
Two changes:
- Both CDK test files cache one synth in `beforeAll(..., 30000)` and
reuse the result across every test that uses the default props.
Each individual test now runs in microseconds (pure assertions
against the already-synthed template), so the 5s timeout no longer
applies on the hot path.
- The two contract tests that exercise non-default props
(reservedConcurrency, projectName) still synth fresh per-test; they
get a per-test `it(..., 30000)` timeout.
No behavior changes.
* fix(lambda): address PR review on SDK + CDK construct
Three correctness + ergonomics fixes raised in Vai's review:
- getRenderProgress over-counted SFN transitions by 3-5×. Step
Functions Standard Workflows bill per state-entry, not per
history event. Each Task produces ~5-7 history events
(Scheduled / Started / Succeeded / TaskStateExited / …);
counting `events.length` reported the runaway. Switch to
counting `*StateEntered` events explicitly.
- assembleComplete + outputFile detection was coupled to the
Lambda payload's `Action` field. Move both signals onto the
enclosing state name (`StateExited.name === "Assemble"`), which
is the state-machine identity rather than the Lambda event
contract. framesRendered increment moves to the same boundary
(RenderChunk state).
- SiteHandle now carries `bucketName` directly so README + CLI
callers don't have to re-parse `projectS3Uri.split("/")[2]`.
Test updates: getRenderProgress tests wrap renderChunk/assemble
events in matching StateEntered + StateExited pairs so the new
state-name-driven dispatch is exercised end-to-end. SiteHandle
fixture in renderToLambda.test.ts gets the new bucketName field.
All 83 aws-lambda tests still pass.
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c50f59a53b |
feat(lambda): add Lambda handler, ZIP bundling, and BeginFrame probe (#878)
* feat(lambda): add Lambda handler, ZIP bundling, and BeginFrame probe
Phase 6 of the distributed rendering plan: AWS Lambda turnkey adoption
(see DISTRIBUTED-RENDERING-PLAN.md §11 Phase 6 + §15).
This PR adds the new packages/aws-lambda/ workspace package that wraps
the OSS plan/renderChunk/assemble primitives in an AWS Lambda handler,
plus a build pipeline that bundles the handler + Chromium runtime +
ffmpeg into a deployable ZIP.
Architecture: ZIP deploy (not Docker image), Chrome via @sparticuz/chromium
with chrome-headless-shell fallback, dispatch on event.Action ∈ {plan,
renderChunk, assemble}.
The load-bearing concern — does @sparticuz/chromium's chrome-headless-shell
build honour CDP HeadlessExperimental.beginFrame? — is pinned by the new
scripts/probe-beginframe.ts regression guard. Probe boots the runtime
inside public.ecr.aws/lambda/nodejs:22, navigates to a static page, and
asserts beginFrame returns a PNG buffer. Verified locally + inside the
Docker container; both pass with hasDamage=true.
Sizes (sparticuz source): unzipped 157 MiB, zipped 99 MiB. Well under
the 240 MiB / 150 MiB in-house gates and the Lambda 250 MiB hard ceiling.
This is part of a stack of 8 PRs (3 in Phase 6a, 5 in Phase 6b); this is
PR 6.1.
* fix(lambda): address PR 878 review feedback
- Verify event.PlanHash against the untarred plan.json at the handler
boundary before invoking the producer primitive. Throws typed
PLAN_HASH_MISMATCH on divergence so Step Functions routes it as
non-retryable; previously the field was schema bloat the handler
ignored, leaving enforcement entirely inside the producer.
- Standardize on MiB throughout build-zip.ts, verify-zip-size.ts, and
the README. Lambda's hard ceiling is 250 MiB (AWS docs label "250 MB"
but use binary mebibytes); previously mixed units made the 248 MiB
budget look like a ~5 MB margin instead of the 2 MiB it actually is.
- stageChromeHeadlessShell now picks Chrome versions via numeric semver
comparison instead of lexicographic sort+reverse — the latter would
silently pick "99.x" over "131.x" once Chrome cached three-digit
majors that aren't width-aligned.
- Drop _setSparticuzChromiumForTests from the public index barrel.
Test-only DI seam imported directly from ./chromium.js in tests.
- Replace require("node:fs") inside walkSize() with the top-level fs
imports — file is ESM and the same module is already imported.
* docs(lambda): drop internal plan-doc refs from package README
* ci(windows): fix bun filter UNION bug excluding producer from Windows tests
`bun run --filter "!a" --filter "!b" test` composes as a UNION (any
package matching either negation runs), not an intersection. Effect:
@hyperframes/producer was still being tested on Windows even though
it's explicitly excluded — its regression harness (Docker + LFS golden
mp4 baselines) is Linux-only and was driving the 32min timeout.
Enumerate the packages we DO want to test instead.
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