7cc392d78f5ef2bad57d3511d62007102f81f3b6
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7cc392d78f |
docs(specs): mpv draws desktop video, and the webview path goes
The spike proved compositing works on Linux, including Wayland, and left two blockers. One is now closed: DR-228 measured a single EXT-X-STREAM-INF in the server's master playlist, so there is no adaptive bitrate for mpv to lose and finding 3 of playback-backend-unification.md is false. The spike is updated to record that. The other — an unexplained SIGSEGV in a decoder thread — is carried into the spec as DR-231 rather than chased: the spike had no render-context teardown at all, which is DR-184 on Android restated, and removing the likeliest cause is worth doing whether or not it was the cause. The spec targets every desktop platform rather than Linux alone, because the maintenance argument runs the other way. Video has three renderers today. A Linux-only version makes it four, permanently — mpv on Linux, HTML5 on Windows, ExoPlayer on Android, hls.js underneath — and the webview path then survives indefinitely because something still needs it. Finishing the job leaves mpv on desktop and ExoPlayer on Android, and hls.js, html5Adapter.ts, videoLoaderFor and the <video> element are deleted in a phase that has its own acceptance criterion so it cannot quietly become "later". The load-bearing change is DR-233: the device profile stops being a compile-time platform constant and becomes a property of the renderer that will decode the stream. The measured 7% desktop direct-play rate and Android's 85% differ by nothing except which component decodes, so that one change is what converts the former toward the latter. It looks like configuration and is not — it decides whether the server re-encodes, and it fails silently when wrong. Windows is costed rather than waved at: the surface is genuinely different code (WebView2 in an HWND, not GTK), but everything else is shared, so nothing may be guarded on cfg!(target_os = "linux"). The real cost is build — libmpv is a Linux-only dependency while Windows cross-compiles via cargo-xwin, so a Windows libmpv must reach that build and ship in the NSIS bundle under the LGPL terms DR-216 already records. Allocates UR-080, DR-230..236, IR-033. No product code yet. |
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109700b949 |
feat(playback): let Rust decide what stream to play, and say so
Playing a video meant asking the server to re-encode it, always. That
decision was made nowhere and written down nowhere, so whoever needed it
re-derived it downstream — the player worked out whether it had been handed
a playlist by looking for ".m3u8" in the URL, in two places. A viewer paid
for a transcode of a file their device could have played untouched, and the
app could not tell them which it was.
One negotiation now produces one self-describing StreamSelection — direct
play, remux or transcode; over a playlist, a plain HTTP file, or a local one
— and every renderer consumes that same answer.
Measured against the development server (Jellyfin 10.11.5), 400 items
sampled for codec mix and 40 put through a real PlaybackInfo negotiation
per profile:
Linux / WebKitGTK (h264 only, 2ch) 3/40 — 7% direct play
Android / ExoPlayer (hevc, ac3/eac3, 6ch) 34/40 — 85% direct play
The library is ~80% hevc, which is why the two diverge so hard. The payoff
is overwhelmingly Android, where 85% of plays were starting a transcode
nobody needed. Linux stays near 7% until libmpv decodes the picture — the
h264-only profile is a WebKitGTK constraint, not a JellyTau choice.
DR-219 StreamSelection: url + tagged Transport (hls/progressive/localFile)
+ PlaybackKind (directPlay/directStream/transcode) + the negotiated
rendition + this source's ladder + a needs_transcoding flag derived
in Rust so the rule is answered once. Both enums are serde-tagged
so the frontend matches a discriminant, not a substring. The paths
that never negotiate get the same shape from Rust rather than
assembling one — media_local_selection for a downloaded file,
LiveStreamInfo.transport for a live channel — so there is no second
place where a transport is decided.
DR-220 The ceiling becomes two levels: a durable device default (Settings,
persisted) and a per-playback override the in-player picker sets.
The picker had called itself a "this film, this connection" control
since it was written but wrote the process-wide default, so dropping
one awkward film to 2 Mbps silently capped every video played
afterwards for the rest of the process, with Settings still showing
the old value. The override is cleared whenever playback moves to a
new item, which stops it surviving into an autoplayed next episode.
effective_streaming_quality() is the single resolution point.
DR-221 The quality picker is filled from what this media source can offer.
Rust marks a rung exceeds_source when its ceiling is at or above the
source's own bitrate — such a rung is another way to spell Original
— and the frontend does not draw those. Original is never marked; a
source whose bitrate the server does not report marks nothing, which
keeps every rung offered.
DR-222 Direct play and direct stream are negotiated, with two client-side
overrides on top because the server's answer is right about the file
and wrong about what this app will do with it: undecodable audio
(Jellyfin 10.11.5 honours a DirectPlayProfile's container and video
codec but ignores its audio codec, so it offers direct play for an
E-AC-3 track the webview renders in silence) and a viewer-pinned
audio track the file does not default to. A direct stream is a remux
and is deliberately not counted as transcoding.
DR-223 Dropped on measurement, not deferred. A master playlist from this
server carries exactly one EXT-X-STREAM-INF: Jellyfin builds it from
the single rendition the request asked for rather than publishing a
ladder. So there is no adaptation for hls.js to be preserving and
none mpv would lose — the claim that there was, in
playback-backend-unification.md, does not hold. Recorded rather than
deleted because it is a measurement: a server that does publish a
ladder would change the answer.
DR-224 Every backend consumes the same selection. The queue item carries
the transport, so player_seek_video picks its seek strategy from the
backend's decision instead of the last stream_url.contains(".m3u8")
in the codebase. Items queued by a path that never negotiated carry
None and fall back to needs_transcoding, which is exact rather than
a guess because every transcode this app requests is HLS (DR-140).
The frontend loader decision moves to streamTransport.ts so it can be
tested: the two cases that pin it are the ones that failed against the old
implementation — a progressive stream whose URL contains ".m3u8" must not
get an HLS loader, and an HLS stream whose URL contains none must.
Also verified the URL the direct-play branch builds actually serves playable
bytes: 206, video/mp4, valid ISO-BMFF, and a mid-file range works, so
seeking a direct play works.
The spec is folded into docs/architecture/{01,02,03} and deleted, per the
rule that docs/specs holds only work that has not shipped. DR-121 leaves
read-through-media-cache.md with a pointer; that spec keeps its capture half.
Not verified: real playback on a device. Direct play changes what actually
gets played, and neither fixtures nor curl prove the WebKitGTK and ExoPlayer
paths render it.
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edff6eedc9 |
fix(player): let the background-audio toggle govern backgrounding again
🏗️ Build and Test JellyTau / Run Tests (push) Successful in 18m44s
🏗️ Build and Test JellyTau / Supply Chain (push) Failing after 49s
Publish Documentation / Build & publish docs to gitea-pages (push) Successful in 5m27s
Traceability Validation / Check Requirement Traces (push) Successful in 10s
Build & Release / Run Tests (push) Successful in 14m48s
🏗️ Build and Test JellyTau / Android Compile Check (push) Successful in 4m19s
Build & Release / Build Linux (push) Successful in 20m20s
Build & Release / Build Windows (push) Successful in 15m36s
Build & Release / Build Android (push) Successful in 30m46s
Build & Release / Create Release (push) Successful in 38s
Locking the screen kept a video's audio playing whether or not the background-audio button was on. Reported as "audio only mode is always active even if not selected". The button (UR-040) was built for the WebView <video> path, where losing visibility kills the decode: it chose between handing off to a native audio stream and letting playback stop. Native video then became the default renderer (DR-188), and on that path playback runs through ExoPlayer inside a MediaSessionService -- a foreground media service whose entire purpose is to keep playing while the app is hidden. Nothing stopped it, and nothing in the codebase paused on background. So the button governed a handoff that no longer had a gap to bridge. There was no interruption to paper over, and a user who never touched it got background playback anyway. The gating made it self-concealing: MainActivity.onStop only dispatched 'jellytau-background' when backgroundAudioEnabled was already true. The one notification that the app had gone away was itself conditional on the setting, so with the button OFF nothing could react even in principle. onStop and onStart now fire unconditionally and carry the two facts only the activity knows -- whether the toggle is armed, and whether Android put the window into picture-in-picture. What to do about it is decided in Rust (player/background_policy.rs), because it depends on whether the item has a picture to lose: video + toggle off -> Pause video + toggle on -> HandOffToAudio music, either -> KeepPlaying (no picture to give up) picture-in-picture -> KeepPlaying (the window is still on screen) It takes no renderer parameter on purpose. Two renderers with two behaviours and one toggle reaching only one of them is what produced the defect; a rule that cannot see the renderer cannot reproduce it. Two failure modes are deliberate. A decision call that fails leaves playback alone rather than risking silence mid-listen. An event with no detail -- older Kotlin against newer JS -- reads as "armed, not PiP", degrading to the previous behaviour instead of pausing unexpectedly. Foregrounding resumes only what backgrounding paused: a video the user paused themselves before locking stays paused. Written test-first per CLAUDE.md. The stub encoded today's behaviour (nothing ever pauses) and failed exactly as reported -- `left: KeepPlaying, right: Pause` -- before the rule was implemented. Verified on a device, R8-minified, both directions: [player_background_action] video=true armed=false pip=false -> Pause [player_background_action] video=true armed=true pip=false -> HandOffToAudio UR-040 / DR-224 / UT-211. |
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214997144f |
feat(deps): upgrade Tauri to 2.11.5, and own the Android context it stopped setting
🏗️ Build and Test JellyTau / Run Tests (pull_request) Successful in 22m51s
🏗️ Build and Test JellyTau / Supply Chain (pull_request) Failing after 25s
Traceability Validation / Check Requirement Traces (pull_request) Successful in 14s
🏗️ Build and Test JellyTau / Android Compile Check (pull_request) Successful in 4m19s
The plugin versions could not be matched upward without this: both
tauri-plugin-log 2.9.0 and tauri-plugin-updater 2.10.1 require tauri
^2.10, and the tree was on 2.9.5. So the framework moves with them --
tauri 2.9.5 -> 2.11.5, tauri-build 2.5.3 -> 2.6.3, wry 0.53.5 -> 0.55.1
-- and every plugin's Rust crate and npm package is now pinned to the
same version on both sides.
That upgrade broke Android outright, and the breakage is the interesting
part.
Seven call sites in this crate reach JNI through
ndk_context::android_context(), which reads a process-global pair of
pointers. Nothing here ever set that global. `tao` did -- the windowing
layer under wry, three levels below anything this project names in
Cargo.toml. tao 0.34.5 called initialize_android_context() while starting
the activity and our code read what it left behind. tao 0.35.3 keeps the
same two pointers in a private struct and no longer publishes them.
The result, on every launch, was:
PANIC at ndk-context/src/lib.rs:72: android context was not initialized
8: ndk_context::android_context
9: jellytau_lib::run::{{closure}}
Not a crash in our code, and not a change to our code: an undocumented
side effect of a transitive dependency disappeared. Relying on someone
else to populate a global is a dependency that does not appear in
Cargo.toml and gives no warning when it goes.
src-tauri/src/android_context.rs now owns that invariant instead of
assuming it. JNI_OnLoad captures the JavaVM as the shared library loads
-- the earliest moment available, and nothing in tao, wry or tauri
defines one to collide with. The Context is resolved lazily via
ActivityThread.currentApplication() and pinned as a global reference for
the process lifetime, since ndk_context stores a bare pointer and does
not own it. It publishes the Application rather than the Activity:
SecureStorage.initialize() immediately reduces its argument to
applicationContext anyway, and an Application cannot outlive itself the
way a retained Activity would.
Restoring the global keeps all seven callers untouched. Threading a VM
and Context handle through five credential call sites would have been a
larger change with more risk, on the credential path.
Failure now degrades instead of aborting: it is logged and credentials
fall back to the encrypted-file path, which the app already supports.
Verified on a device, R8-minified, not merely compiled:
[INIT] Android JavaVM and Application published to ndk_context
Android SecureStorage initialized successfully
Android Keystore available via SecureStorage
[INIT] Using system keyring for credential storage
[CodecDetection] Detected 7 video codecs: av1,h263,h264,hevc,...
-- the real keystore path, not the fallback, and the app stays up. None
of this is reachable by CI: nothing there runs the app.
Also fixed here, both found the same way:
- `tauri android build --apk true` is now `--apk`. The CLI took a value
until 2.10; from 2.11 the stray `true` is a positional and the build
fails before starting. Three call sites in build-android.sh and one
in build-release.yml -- the latter builds the signed APK, by far the
most-downloaded artifact.
- scripts/build-android.sh ran `npm install` on its clean-build path in
a bun project, ignoring bun.lock and re-resolving the tree. That is
exactly how the plugin crate/package versions drift apart again.
scripts/check-tooling.sh now fails on any npm/yarn/pnpm invocation or
foreign lockfile, and runs in CI.
DR-222, DR-223.
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9a19d30e6c |
fix(build): make the release actually buildable, and check it before tagging
🏗️ Build and Test JellyTau / Run Tests (pull_request) Successful in 18m41s
🏗️ Build and Test JellyTau / Supply Chain (pull_request) Successful in 31s
Traceability Validation / Check Requirement Traces (pull_request) Successful in 9s
🏗️ Build and Test JellyTau / Android Compile Check (pull_request) Successful in 4m5s
Preparing v0.10.0 meant building the release locally first. It did not build. Two separate defects were sitting on master, both invisible to every gate this project has, for the same reason: nothing in build-and-test.yml runs `tauri build`. Only a tag does. So the first time anyone would have discovered either was a failed release. **Tauri plugin versions had drifted apart.** Tauri refuses to build when a plugin's Rust crate and npm package are on different minor versions: tauri-plugin-log (v2.8.0) : @tauri-apps/plugin-log (v2.9.0) tauri-plugin-updater (v2.9.0) : @tauri-apps/plugin-updater (v2.10.1) Introduced by the updater and diagnostics work in this same branch -- `cargo add` took what the pinned toolchain allowed while `bun add` took latest, and the caret ranges let them separate. cargo check, clippy, cargo test and svelte-check all passed. Matching upward pulled wry 0.53.5 -> 0.54.2 along with wasm-bindgen, web-sys and webkit2gtk: the webview layer, which on Linux is the video playback path. That is not a change to make while cutting a release, so the npm packages are pinned down to the crates instead -- exactly, not by caret, since the caret is what allowed the drift. The upgrade is worth doing deliberately, with a playback check, and ci-operations.md says so. CI now runs `tauri info`, which performs the same comparison without building. Verified by reintroducing the mismatch and watching it fail. **The AppImage target had never been built.** It was added earlier in this branch because the release notes had advertised an AppImage for months while tauri.conf.json never produced one. It does not work out of the box: linuxdeploy carries its own `strip`, too old to parse the .relr.dyn section modern toolchains emit, and it fails on every bundled library -- strip: libzstd.so.1: unknown type [0x13] section `.relr.dyn' failed to bundle project `failed to run linuxdeploy` Ubuntu 23.10+ links with -z pack-relative-relocs by default, so the CI builder image fails exactly as a modern Arch host does. NO_STRIP=true is linuxdeploy's documented escape hatch. The resulting 153 MB AppImage was verified to be well-formed and to actually start. Without this the release would have failed at the Linux build step -- the artifact check added earlier refuses to publish when no AppImage is produced, which is the behaviour we want, but it would have refused a tagged build rather than a local one. Also: the traceability extractor now reads the tooling shell scripts that carry TRACES comments. DR-207, DR-213 and DR-220 all had them and were counted as uncovered because only .ts/.svelte/.rs were scanned. Listed individually rather than globbing scripts/*.sh -- most implement nothing, and adding one should be a decision. DR-221. |
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5d02628689 |
fix(release): publish real notes, and stop shipping old releases' installers
🏗️ Build and Test JellyTau / Run Tests (pull_request) Successful in 15m1s
🏗️ Build and Test JellyTau / Supply Chain (pull_request) Successful in 42s
Traceability Validation / Check Requirement Traces (pull_request) Successful in 10s
🏗️ Build and Test JellyTau / Android Compile Check (pull_request) Successful in 4m6s
Two defects found while preparing v0.9.2, both of which had been shipping for months without anything to notice them by. **Every release note was the same 1,050 bytes.** All 35 releases from v0.0.1 to v0.9.1 published identical generic install instructions whose "What's New" section read "See CHANGELOG.md" -- a link that does not resolve from a release page. A reader learned nothing about what changed in any release the project has ever made. The body now comes from the `## <version>` section of CHANGELOG.md, and a missing section fails the release: notes that say nothing are worse than a build that waits for a maintainer to write two sentences. The 35 published bodies have been backfilled from the changelog via the tea CLI. This also corrects something introduced two commits ago. That change generated the body from `bun run release:notes`, which CLAUDE.md is explicit about -- its output is "a reviewed draft, not a final changelog". Publishing it unreviewed proved the point immediately: the v0.9.1..HEAD range contains a repo-wide prettier sweep, so every file in src/ counted as changed, their TRACES resolved to nearly the whole matrix, and the draft claimed the release had added the entire application. The script now skips cosmetic commits (chore(format), chore(deps), style) and reports how many rather than silently returning a smaller set, but it stays a local drafting tool. **Every release from v0.1.0 to v0.8.2 shipped every Windows installer ever built.** src-tauri/target/*/release/bundle/ is not versioned, cargo never cleans it, and the runner reuses the target directory -- so the copy step's bundle/**/*-setup.exe glob collected the lot. v0.8.2 carried sixteen installers, thirteen of them stale; v0.5.0 offered users a download list going back to 0.1.0. Eight months, and nothing to notice it by: the upload loop reported success, the files were real, and the page looked busy rather than wrong. It stopped only because an unrelated cargo cache change wiped the runner's target dir, so it was dormant, not fixed. Both desktop builds now remove the bundle directory before building, so a stale file cannot exist to be copied. Filtering the copy by version would have hidden it instead. The Linux job gets the same treatment: it was never hit only because Linux packaging is newer, and the glob is identical. scripts/check-release-artifacts.sh is the backstop for whatever reintroduces one by a route nobody predicted. It runs before the SBOM, the checksums and the upload -- all of which describe the file set, so a stale artifact has to be caught before it is hashed and published as part of the release. Verified against a reconstruction of the real v0.8.2 accumulation. DR-219, DR-220, UT-210. |
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1d56517f07 |
docs(specs): add backend-owned stream selection
Traceability Validation / Check Requirement Traces (pull_request) Successful in 11s
Rust becomes the single owner of which stream to play — direct play or
transcode, at what ceiling, over what transport — and hands every player
backend a self-describing StreamSelection instead of a bare URL. mpv,
ExoPlayer and the HTML5/hls.js path all consume one decision rather than
three places re-deriving it.
The motivating leak is concrete. VideoPlayer.svelte determines transport with
`currentStreamUrl.includes(".m3u8")`, in two places, for a URL Rust
constructed and therefore already knows the shape of. That is the boundary
rule in miniature: not item-type taxonomy, but the same error of
reconstructing a domain fact in the presentation layer because the wire shape
did not carry it. A tagged Transport enum deletes it.
The design line, which ExoPlayer forces: Rust decides *what stream*, the
player decides *how to deliver it*. ExoPlayer has genuine adaptive track
selection; this spec must not reimplement or fight it. Rust only adapts where
the player cannot (mpv) and the server actually offers a ladder.
Six phases, and phase 1 stands alone as pure ownership movement with no
behaviour change. Phase 4 (direct-play negotiation) is what removes the
transcode and unblocks the Linux native-video work. Phase 5 (adaptation) is
gated on counting EXT-X-STREAM-INF entries in a real playlist — the
acceptance criteria require that count be recorded before it is either
started or dropped.
Takes DR-121 from read-through-media-cache.md, which specced Rust-owned
quality reporting but never built it; that spec keeps its capture half.
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f11f5eddd5 |
docs(specs): record the Linux native-video compositing spike
🏗️ Build and Test JellyTau / Run Tests (pull_request) Successful in 15m3s
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Traceability Validation / Check Requirement Traces (pull_request) Successful in 20s
🏗️ Build and Test JellyTau / Android Compile Check (pull_request) Successful in 4m11s
Adds the spike write-up and re-opens finding 2 of playback-backend-unification.md, which concluded that video cannot unify on a native engine because the webview owns the surface. That finding's general form has since been falsified on Android, where native video composites behind a transparent WebView and ships on by default. The evidence behind it was also entirely about foreign-window embedding -- mpv's render API, drawing into a GL context we own inside Tauri's own GTK tree, was never tested. The spike tests that one claim and comes back green on Linux for both X11 and Wayland, bar the Tauri default_vbox() half of G1. Findings 3-6 are deliberately left standing. Finding 3 in particular -- mpv has no adaptive bitrate -- is an independent disqualifier that a green compositing result does not clear, and the spike says so rather than reading as a green light. The next-free-id line moves to UR-079 / IR-033 / DR-219: this branch allocated UR-077 and UR-078 for the updater and diagnostics work, and DR-215 through DR-218 with them, after that line was last written. Authored in a parallel session working in the same checkout; committed here so it travels with the rest of the branch. |
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32043a2152 |
docs: fold shipped specs into the architecture docs and delete them
A spec was a promise; sixteen of them had become descriptions of code that already shipped, sitting beside four that describe work still outstanding, with nothing in the file telling the two apart. Half the statuses were also wrong — audio-equalizer read "Accepted" with the EQ live on both platforms, the native video spec said the flag stays off after the default was flipped on. The shipped designs move into docs/architecture, which is the maintained description of the build, and the spec files go. Git history keeps the originals; what a future change still needs is carried across: - 01-rust-backend: favourites rewritten (the old section named a file that no longer exists and called shipped buttons "planned"), domain vocabulary owned by Rust (SearchScope, exclusions, the bitrate ladder), background workers - 02-svelte-frontend: app shell and chrome, library mosaic, series/episode navigation, downloaded browse, safe-area insets, native-video store, logging - 03-data-flow: locally-indexed search - 05-platform-backends: audio settings on ExoPlayer, the equalizer's band vocabulary, native video compositing, the background-audio handoff - 06-downloads-and-offline: one storage model, offline catalog visibility - 09-security: path confinement and input binding docs/specs/README.md now says what the directory is for and where each shipped design went. Deferred work the specs recorded is kept beside the code it concerns rather than lost: season-bounded autoplay, the two dead search commands, why indexing is a full crawl. requirements.md had fourteen stale statuses — Android audio parity still read "Linux only", DR-150 still said the native-video default was off, DR-190 was Proposed after DR-196 implemented it, and five tooling requirements were Proposed after landing. Three unbuilt specs suggested requirement ids that have since been allocated to other work; each now carries a warning. |