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logan af4b28b0d7 docs(queue): record why the queue is not a detail view
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The measurement that decided it, dated, in NOTES.md -- the overlay's
rect against the main panel's, the three things that were genuinely
missing, and the computed containment of both candidate mounts. The
model itself goes in CLAUDE.md beside the overlay rule it extends.
2026-08-20 22:14:42 -04:00
logan 4ee5b4b473 test(queue): pin the back stack and the mount that was not taken
Nine tests, and the header says which of them reproduce the defect:
three do, and the other six cannot. "The entry is not orphaned" and "a
docked column is not in the stack" are both vacuously true of a build
that pushes no entry at all. That was established by reverting the
source and re-running, not assumed.

The containment assertion is the one worth reading twice. It asks
where the panel *is* rather than whether a menu is clipped, because
CI's Chromium and WebKit both have the Popover API -- so the symptom is
invisible here and a spec asserting "not clipped" is green on the
broken build. `.planning/NOTES.md` states the mechanism.

The rest assert the entry rather than `aria-expanded`, which is the
shell's own bookkeeping and was right throughout the defect: what has
to be true is that one back press closes the queue and the *next* one
navigates.
2026-08-20 22:14:42 -04:00
logan a70a7ed9eb fix(queue): size the queue screen's way out for a thumb
Measured at 424x439: the three header actions were 25x21px. That
matters more than it looks, because with the panel spanning the whole
width the scrim underneath it has no uncovered pixels at all -- so the
close button is the only pointer route out of a full-screen surface,
and it was below the 24x24 floor in one dimension.

Sized only in overlay mode. Inline these sit in a 320px column beside
the content, where a mouse is what reaches them and 44px of header is
44px the queue does not get.
2026-08-20 22:14:41 -04:00
logan de2cb2693a feat(queue): give an overlaid queue a place in the back stack
The queue's pixels were already right. Measured at the reference
device's 424x439, #24's overlay is 424x318 -- `.main-panel`'s rect
exactly -- so the `DETAIL_LOADERS` mount the issue's Direction asks for
would draw the same rectangle in the same place. What was missing was
the navigation model: opening the queue on Artists and pressing back
moved the page *underneath* to Albums and left the queue up, which is a
press that changes something the user cannot see and costs them their
place.

So the queue is a *place* exactly while it is an overlay, and a
*control* while it is a column. A column is a thing the user docked --
back must not undock it and a navigation must not take it away -- and
that reuses #24's computed mode rather than adding a breakpoint, so the
drag-resizable panel width keeps deciding it.

It is in neither `VIEW_TAGS` nor `DETAIL_LOADERS`, because there is
nothing to mount and moving it would cost something. `.main-panel > *`
computes `contain: content` under a `.main-panel` that does too, and
paint containment clips the `position: fixed` a `wa-popup` falls back
to on Chrome 113 (#60) -- so the detail-view mount would have broken
`queue-panel`'s working context menu on the one device this is about.
The panel's ancestry today is paint-free to `body`.

Two details that fail silently otherwise. The entry is unwound from the
panel's `open` attribute in the observer that already ran for
`aria-expanded`, not at each of the four ways out -- without that the
entry is orphaned and the *next* back press is the one that closes the
queue, which is this defect moved one press later. And the navigation
writes neither `dataset.activeView` nor `searchStore.setCurrentView`,
because both describe what is *in* the main panel and the queue covers
that panel without replacing it.

`now-playing-view`'s copy of the button went through the helper too: it
set `open` directly, so on a phone it produced exactly the queue with no
entry behind it that this removes.

Closes #55
2026-08-20 22:14:27 -04:00
logan 880adff12c Merge pull request 'Drop the phone's top bar; search becomes a button and a modal' (#167) from feat/57-drop-the-android-top-bar into main
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2026-08-21 00:18:33 +00:00
logan d6f7412e9d docs(shell): the phone has no top bar, and why the modal is a dialog
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CLAUDE.md's shell prose said the phone's header "controls shrink or
stand down"; there is no header there now. The search box's section
gains the modal and the four rules behind it, page-header gains the
count as the last thing to yield, and the top-bar-fit section gains
what happens below its own band.

NOTES.md gets the three measured facts, dated: `contain: paint` is why
a Web Awesome popup is clipped on Chrome 113 and why no tier here can
reproduce it, the arithmetic that cost the page header its count at
320px, and the shared long-lived e2e app that makes an absolute
coordinate a hidden assertion about background jobs.
2026-08-20 20:03:28 -04:00
logan 1ab767a317 feat(shell): take the top bar out of the phone's layout
The row is deleted from the grid template below 600px, not the header
hidden. That is 3.25em of a 439 CSS px viewport -- the single biggest
vertical win the reference device has to give, and the reason the issue
asks for the row rather than for a smaller bar.

Each of the five things the bar held has somewhere else to be there:
nav-history is the platform's own back gesture and was already gone from
899 down, the job indicator is <job-band> (#62, which is what this was
blocked on), the search box is a modal opened from the view's own
header, the library filter is Settings -> Libraries, and the wordmark
stays where it is.

Three things are load-bearing.

**The header is visually hidden rather than display: none**, because
that h1 is the document's top-level heading and several pages have no
other one -- page-header renders no h1 when its heading is empty, and
Settings has no page-header at all. Its four controls are display: none
*inside* it, which is what keeps them out of the tab order: a
visually-hidden container is still focusable, and tabbing into a search
box nobody can see is worse than not having one.

**The fit pass stands down**, from the bar's computed position rather
than from a width. With the bar out of flow there is no content box to
measure children against, and a pass that ran would collapse the
wordmark on every resize and report success about a 1px box.

**top-bar-fit.spec.ts keeps 390 and asserts the stronger property.**
"Nothing hangs out of the bar" is trivially true of a bar with no row
and would pass on a build that merely broke it, so what that width asks
now is that the content starts where the row above it ends. Measuring
against the window instead would have been asserting "and no background
job is running", which that spec is not about and cannot arrange.

Closes #57
2026-08-20 20:03:20 -04:00
logan ac8f86eb00 fix(settings): give the library selection a home that is not the top bar
library-filter is the only control in the app that calls
setSelectedLibrary, and the phone already hid it with a comment saying
it was "reachable from the drawer's Settings". It was not: Settings adds,
removes, renames and scans libraries, and does not set the view filter,
which is a different thing -- it decides what Albums, Artists and Genres
show. A phone therefore inherited whatever a desktop session last chose
and could neither change nor see it, which is #24's sentence broken in
the band it was written for.

It is a second *placement* of the same component, not a second control,
and it is at every width rather than below 600px. A phone-only copy is
the cheaper answer and is the fault rather than the fix: "where do I
change which library I am browsing" having two answers by viewport is
exactly what one control in two places avoids.

Closes #148
2026-08-20 20:03:08 -04:00
logan 47bd9ef211 fix(header): let the count yield before an action is clipped
Adding the phone's search button to this header is 43px more than the
row has at 320px, which is a width the app promises and which
header-action-overflow.spec.ts asks about. Measured on Playlists there,
after the fit pass had already collapsed all three actions into "More
actions" and truncated the title to nothing: title 0, count 50, sort
143, search 40, More 38, five 12px gaps and 32px of gutters -- 363 in
320, with the More button ending 27px past the edge. That is an action
clipped, which is the exact defect this pass exists to prevent.

The count is what yields, last, because it is the only item on that row
that is neither an identity nor an action. The title yields first and
may ellipsis away entirely, since the navigation also says which page
you are on; the sort control and the buttons are each the only place
they are said. An empty page says it is empty in its empty state and a
full one is being looked at. With the count gone the header is 304 in
304, and the title comes back to 19px.

It is rendered and hidden with an attribute rather than returned as
`nothing`, for the reason the action buttons are: every pass starts
from all-visible and needs a node to un-hide, or the first 320px window
costs the count for the rest of the session.
2026-08-20 20:03:01 -04:00
logan b801fa533a feat(shell): make search a button and a modal where searching applies
The phone's top bar is about to go, and the search box is the one thing
in it that is an action rather than chrome. It becomes a button in the
row that already says which page you are on, opening a wa-dialog with
the real search box in it.

Three decisions worth the words.

**A wa-dialog, and that is a mechanism rather than a taste.** wa-popup
renders `<div popover="manual">` and feature-detects the Popover API,
falling back to `strategy: "fixed"` where there is none -- which is
Chrome 113, the reference device, since `popover` is Chrome 114. And
`position: fixed` escapes ancestor overflow but not `contain: paint`,
which `.main-panel` carries, so a popup-shaped search panel opened from
a view's header is structurally clipped on that device. `<dialog>` /
`showModal()` is Chrome 37 and uses the real top layer. No tier here can
see the difference -- CI's Chromium and WebKit both have the Popover
API -- so the component test asserts the *mechanism*, a native
`<dialog>` in the tree, rather than the symptom.

**An element, not a PageAction.** Two of the seven searchable views are
detail views with no page-header; they filter on the term and say so in
their own headers. Declaring search as an action would mean seven hosts
each writing it out, which is a second list of searchable views, and it
would put a phone mode for actions inside page-header, which that
component documents its refusal to grow. search-store's own map is the
condition, asked by one component placed three times.

**The modal carries the real search-bar**, so there is still one
debounce, one clear button and one view-scoped placeholder. Escape
closes it and *keeps* the term -- the input treats Escape as "clear the
search", which is right in a header where the box stays on screen and
wrong in a surface whose dismissal would then discard the search.
2026-08-20 20:02:50 -04:00
logan 8879192097 Merge pull request 'Show background jobs in the phone's layout, not a popover' (#166) from feat/62-jobs-as-a-notification into main
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2026-08-20 22:32:47 +00:00
logan f76ee96ac4 docs(jobs): the phone's band, and why it is in flow
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CLAUDE.md's jobs section said the header indicator is "the one view of
everything at once, from every page"; that is now true on a desktop
only, and the band is the phone's half.

NOTES.md takes the measurement that decided the shape -- an overlay
band at 424x439 is a lid, not a notification -- and the corollary about
which tier can see it: ui-test, tsc, lint and the Go suite all passed
on the broken version, and what failed was three e2e specs that have
nothing to do with jobs. Run the suite, not the spec you wrote.
2026-08-20 18:17:42 -04:00
logan 23f5a0c53a feat(shell): show background jobs in the phone's layout, not a popover
The header indicator is a disclosure anchored to a bar 3.25em tall on a
screen 439 CSS px tall, and it was reported as unreadable behind other
UI. Background work is the one thing a phone should not make you open
something to see, and #57 deletes the bar it hangs from and is blocked
on it having somewhere else to live. Below 600px the indicator stands
down and <job-band> takes over.

It is the existing job-panel at `kinds="*"`, so pause, cancel, Details
and the log come along, and so does applyJobControl.

**It is in the layout, not over it**, and that was measured rather than
assumed. The first version put the panel in notification-host's fixed
band: it renders correctly, sits on top and stays inside the viewport,
and is unusable -- at 424x439 a compact panel showing two jobs is
~216px of a 439px screen, drawn over the content and swallowing every
tap under it. Four e2e specs caught it, and none of them was about
jobs: two phone-shell journeys and the header's action menu, all
failing on clicks the band was intercepting. As a grid row above the
main panel it pushes instead, which is #24's one sentence deciding a
layout question -- a band that hides the app to say the app is busy has
traded the popover's fault for a worse one.

It renders nothing above 600px, from matchMedia rather than a media
query, because that decides whether the element exists: Settings
already holds four job-panels and a fifth answering for every kind is
bottom-nav's "resolved to 2 elements" trap again. index.css keeps it
display:none off the phone for a second reason -- an in-flow grid child
with no named area is auto-placed into one of the shell's rows, which
is what the skip link is absolutely positioned to avoid.

top-bar-fit's 390px case asserted the indicator was up, so that it
could not pass by measuring the idle case under another name. At phone
width it is now deliberately away, so the assertion takes the other
branch of the same rule -- the indicator is hidden, the band has the
row, and the bar still has nothing hanging out of it -- rather than
the width being quietly dropped from the list.

The report's own symptom is deliberately not asserted anywhere: it did
not reproduce in this tier. Measured at 424x439 the popover was neither
clipped nor covered, so a spec claiming a stacking fix would be
asserting something that was never true here. The spec says so.

Closes #62
2026-08-20 18:17:35 -04:00
logan 502b814a65 feat(jobs): let a panel answer for every kind, at either density
Three properties the phone's band needs, added here so it is the same
panel rather than a second job UI -- which is what keeps
`applyJobControl` and its "you will discard hours of downloading"
confirmation in the picture.

`kinds="*"` is every kind, which is what the header indicator was for.
Spelled as a star rather than taken as the meaning of an empty
attribute, because empty is what a typo and a dropped binding both
produce and "show everything" is the wrong thing to do by accident;
empty still shows nothing.

`density` is passed to `job-row`, whose `compact` variant its own
source calls "the popover density" -- which is exactly what the band
replaces. `full` stays the default, so the four settings call sites are
untouched.

`active-only` drops terminal rows. The band is in the layout, so a
finished row there holds the content down after the work is done;
Settings keeps them, because that is where "did the last scan work" is
asked and a finished row there dismisses itself.
2026-08-20 18:17:20 -04:00
logan c19a806298 Merge pull request 'Give the seek bar's interpolation interval one owner' (#165) from fix/53-seek-bar-never-moves into main
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2026-08-20 21:31:17 +00:00
logan 67eeb75e7b docs(android): the device can be driven, not just looked at
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The runtime call does not go over HTTP on Android — the WebView cannot
deliver a fetch() POST body to shouldInterceptRequest, so v3 routes
runtime calls through the addJavascriptInterface bridge. Two things
follow that cost an hour each before the v3 source was read:
`.playwright/init-events.js` does not transfer to the device (its
outbound half hooks fetch, and a POST to /wails/runtime answers
"missing object value" — which reads like a wrong payload and is the
interceptor getting no body at all), and hooking fetch from an eval is
too late on any platform because the bundle captured its reference at
module scope.

The recipe that does work goes in, along with how to get audio onto the
phone (scoped storage silently swallows a push into
/sdcard/Android/data/<pkg>/files, and the fixtures are 2 seconds long,
which is useless for watching a seek bar) and the permission dialog a
reinstall raises, which looks exactly like the app failing to start.

NOTES.md takes the #53 measurements: that its frontend is byte-identical
to the v0.3.1 the phone carries, that the symptom does not reproduce on
main in four scenarios, and that reverting only backend/player/ to
v0.3.1 reproduces #125 instead — with the shim that makes that a
ten-minute experiment rather than a full checkout.
2026-08-20 17:17:33 -04:00
logan fe1fbefee7 fix(player): give the seek bar's interval one owner
`handleInput()` called `stopProgress()` and mutated no reactive state,
so Lit scheduled no update, `updated()` never ran, and the tail of
`updated()` that restarts the interval never executed. Only a `change`
event or the next backend report could bring it back — so an `input`
that never commits froze the interpolation: a drag cancelled outside
the element, a pointer taken by a scroll, or a touch on the track
treated as a scrub, all ordinary gestures on a phone. While playing the
1 Hz report papered over it within a second; with reports not arriving
it was permanent.

The drag is `@state` now and `updated()` decides whether the interval
runs, so there is one place that knows. `handleChange` no longer starts
it directly for the same reason.

A flag set on `input` can strand, which would turn a stall of up to a
second into a permanent one — the failure this removes. `change` is the
ordinary end; `pointerup`/`pointercancel`/`touchend`/`touchcancel` on
the document are the ends that are not, attached with the drag and
dropped with it, because the pointer is routinely released outside the
element it started in.

The other half is that a report arriving mid-drag used to overwrite
`seekValue` and pull the thumb out from under the finger once a second.
It is skipped while dragging, and its seq is deliberately left
unrecorded so the first report after the drag still counts as fresh.

Three tests, all exercised against the fault: two fail on the old
component, and the third fails if the drag flag is left set — which is
the failure mode the fix introduces and the listeners exist to prevent.
Verified on the device too (Chrome 113): mid-drag the bar holds its
value and ignores reports, and on release it adopts the backend's real
position and resumes ticking.

Closes #164
2026-08-20 17:17:23 -04:00
logan de04339494 Merge pull request 'Android: install and launch the package the APK declares' (#163) from fix/159-android-task-app-id into main
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2026-08-20 19:46:35 +00:00
logan 998ce75fb6 docs(android): the identity is read back, not declared twice
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android-tier.md carried a warning block telling the reader not to use
run:device or deploy-device, and offered a manual sequence instead.
Both are wrong now: the tasks are the way in, and the warning would
read as a live hazard. It becomes a note about what changed, and the
manual sequence stays as the smallest thing that works when you want no
script between you and adb.

"The identity is declared twice" was the section this file had carried
for five phases saying nothing enforced that the two ids agree. It
describes the enforcement now, plus what APP_ID means since it stopped
being a setting it never was.

NOTES.md takes the four measurements: that the uninstall existed only
to cover a missing -r (which is what makes deleting it a fix rather
than a trade), that the emulator tasks installed on a phone, what
reading the id back costs, and the boot-wait race filed as #162.
2026-08-20 14:35:16 -04:00
logan 4b392cb4c4 fix(android): point the emulator script at the built APK's id
The third declaration of the app's identity, and the one #159 did not
cash out in: PKG defaulted to "app.yellowjacket" while
`make android-install` installs whatever is in bin/, which after
`wails3 task android:assemble:apk` is app.yellowjacket.dev. So
android-launch, android-logs and android-smoke addressed a package the
build had not produced, and the certificate-change message named the
wrong id to uninstall -- the release one.

It is derived from bin/yellowjacket.apk the same way the tasks are, so
it follows whichever variant was built last. YJ_ANDROID_PKG still
overrides, and the literal survives only for a tree with no APK yet,
where these commands are asking about whatever is already installed and
there is nothing to read.

cmd_inspect's probe order goes with it: "$PKG.dev" would append a
second suffix to an id that already carries one, so the candidates are
derived from the resolved id in either direction -- debug sibling
first, release second, as before.
2026-08-20 14:35:08 -04:00
logan 8d2109b87e fix(android): install and launch the package the APK declares
The four adb-driven tasks in build/android/Taskfile.yml began with
`adb uninstall {{.APP_ID}}`, where APP_ID defaulted to
"app.yellowjacket" -- the release id. `run` and `run:device` build the
*debug* variant, whose applicationIdSuffix makes it
"app.yellowjacket.dev", so both uninstalled the user's released app,
took the library with it, installed a different package, and then
failed to launch the one they had just removed.

The id is read back from the built APK now (scripts/android-pkgid.sh,
`aapt2 dump packagename`) rather than written down a second time, so
the thing installed and the thing launched agree by construction --
whatever Gradle resolved the applicationId to, suffixes included, is in
the file. An APK it cannot read is a hard failure and never a fallback
to a default; guessing is the bug. APP_ID survives with no default as
an *assertion*: it is checked against the artifact and refused, naming
both, before anything is installed or a target is even chosen.

The uninstall is gone rather than corrected. It was there to make the
bare `install` on the next line work at all -- Android refuses an
install over an existing package without -r -- so `install -r` removes
the reason for it. What is left is the one case an uninstall is really
the remedy, a changed signing certificate, and that is exactly the case
where doing it silently costs the user their library. So it is reported
with the command to run, which is the answer scripts/android-emulator.sh
had already reached for `make android-install`.

And the emulator tasks now say "emulator" to adb. A bare `adb install`
with one device attached picks that device whatever it is, so with a
phone plugged in and no emulator running, the task whose summary reads
"in the Android Emulator" installed on the phone -- the same data loss,
from the task whose name gives no warning. Several matching targets is
an error naming them rather than a silent pick of the first.

Closes #159
2026-08-20 14:34:59 -04:00
logan b741b01cdf Merge pull request 'Android: run main() once per process, not once per activity' (#161) from fix/52-android-activity-recreation-restarts-the-process into main
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2026-08-20 17:18:19 +00:00
logan 8a757c9bb4 docs(android): record the lifecycle model and the device check
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The lifecycle answer is load-bearing, so CLAUDE.md states it: an
activity is a view onto the process, and main() runs once per process.
The "restore the session or cold-start" question the issue asks for a
decision on is settled by playback rather than by preference -- the
audio lives in the Go process, so a cold start on every recreation
stops the music mid-song, which is the thing the foreground service
exists to prevent.

android-tier.md's build table said "arm64, real device -- unverified,
still" for five phases. It is verified now, on a Light Phone III
(Android 14, arm64-v8a, WebView Chrome 113 at 424x439), and what the
run found is a lifecycle section: how to force an activity recreation
on demand, the three-line logcat signature, why `has died: fg TOP` is
not a memory kill, and the second assertion that surviving does not
imply working.

It also carries the correction that "Don't keep activities" -- the
report's own suggested lever -- does not work on this device at all,
so nobody spends an afternoon on it. A configuration change the
manifest does not declare does, in one line.

And it stops recommending `wails3 task android:run:device`, which
uninstalls the released app and the user's library to install a build
with a different id (#159), in favour of the manual sequence.

NOTES.md carries the measurements, dated: 8 of 8 recreations fatal
before, 5 of 5 survived after, and the note that runs where no
recreation happened are inconclusive rather than passes -- a harness
that does not check for the second bridge init reports those as green
and reads as flakiness.

Refs #52, #159, #160
2026-08-20 13:04:18 -04:00
logan d714bd7090 fix(android): keep the Go app alive when the activity is destroyed
onDestroy called bridge.shutdown(), which is the natural reading of the
callback and is wrong for this app twice over. Android destroys and
recreates an activity without restarting the process, and when the user
really does leave, this app's reason for existing in the background is
that a song is playing -- which is what the mediaPlayback foreground
service holds the process alive for. Either way, tearing the Go side
down here stops the music.

It was harmless only by accident, and that is worth writing down:
nativeShutdown calls App.Quit(), whose Android destroy() is an empty
method, and Run()'s deferred shutdownServices() cannot fire because
platformRun is `select{}` and never returns. So **no ServiceShutdown has
ever run on Android**. Removing the call changes nothing today; it stops
the day someone implements destroy() from silently killing playback on a
rotation. There is no callback for the process going away -- Android
just kills it -- so durability here is the persist writers, which submit
on every mutation rather than at exit.

WailsBridge.initialize gains the comment for the trap next to it.
Making `initialized` static is the obvious reading of "initialise once
per process" and is wrong: nativeInit also stores the global JNI
reference to *this* bridge, so skipping it leaves Go executing
JavaScript against the destroyed activity's WebView, and the app opens,
renders, and never receives another backend event. The half that must
not repeat is latched in Go instead -- which is also where the damage
was, and the only place that can see it.

Refs #52
2026-08-20 13:04:04 -04:00
logan d64b069053 fix(android): run main() once per process, not once per activity
Wails' Android entry point is `nativeInit`, which `MainActivity.onCreate`
calls, and it runs `go mainFunc()` every time. Android destroys and
recreates an activity **without restarting the process** -- a
configuration change the manifest does not declare, memory pressure, or
every background under "Don't keep activities" -- so main() ran again on
a live app.

Every path out of that is fatal. `application.New` returns the existing
app rather than building a second one, `app.Run()` then refuses because
`a.starting` is still true behind Android's `select{}`, and the
`os.Exit(1)` under that error takes the **first**, healthy app down with
it: its database, its queue, and the audio a mediaPlayback foreground
service is holding the process alive to play. ActivityManager restarts
the app, which is the report.

Measured on a Light Phone III (Android 14, arm64): conditional on the
activity actually being recreated, the process died 8 times out of 8.
The runs that "passed" were runs where no recreation happened, which is
the whole of the report's "sometimes". After this, 5/5 recreations
survive on one pid, plus six background/foreground cycles.

It never left evidence because os.Exit is not a crash: no tombstone, no
AndroidRuntime stack, nothing in `logcat -b crash`, and the slog line
naming the error went to /dev/null with the rest of fd 1.

The latch is first in main() because everything below it -- above all
NewYellowJacketApp, which opens the SQLite database -- is work that must
not happen twice in one process. It is inert off Android.

Returning early is not a degraded mode: nativeInit has already
re-pointed the JNI reference at the new bridge, so the recreated
WebView talks to the app that is still running, with its queue and
playback position intact. Verified by hooking dispatchWailsEvent on the
recreated page: IndexStatusChanged, JobsChanged, android:storageAccess.

No tier here runs main() on Android, so the guard is a source sweep, in
the spirit of TestNoDirectRuntimeEmits. The failure it exists for is not
the latch being deleted -- that is loud -- but a line creeping in above
it.

Closes #52
2026-08-20 13:03:51 -04:00
logan 5490b2423e Merge pull request 'Put the phone Now Playing button above the artwork' (#158) from fix/150-expand-button-under-the-art into main
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The button tied with the cover placeholder on paint order and lost, so
it did not work for any track without artwork.

Closes #150
2026-08-20 05:47:46 +00:00
logan ffc9490a32 fix(player): put the phone's Now Playing button above the artwork
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`.expand` is the phone's only route into the full-screen now-playing
view. It is absolutely positioned with `z-index: auto` over
`.cover-art`, which is a *later* sibling with the same z-index, so the
two tie on paint order and the later one wins. An `<img>` costs nothing
there; a track with no artwork renders a placeholder `wa-icon`, which
takes every click aimed at the button underneath it.

So the control did not work whenever the current song had no cover, on
the one platform that has no other way in. Nothing to do with the
fixture: any library has untagged files.

Measured at 390px with elementFromPoint at the button's centre — the
icon with a placeholder, the button with an image, and the button
either way with the z-index. Chosen over `pointer-events: none` on the
art, which would take the cover preview's mouseenter with it, and over
reordering the DOM, which leaves the same tie to be won by the same
accident in the other direction.

This was filed as an e2e flake, and the diagnosis was wrong: it failed
on both engines three times across two branches that could not have
caused it, and passed on re-run each time, because the spec starts the
*first* row of the track list and which track that is depends on the
order the scan inserted rows — the same root cause as #156. The new
spec picks a track *for* having no artwork, and asserts the placeholder
is rendered rather than assuming it, so it cannot quietly go back to
measuring the easy case.

Two things it has to get right, both already documented traps: the
track must be the 90-second one, since a 2-second one finishes before
the assertions run; and `library.Track.CoverArt` is empty for all 31
fixture rows, so "the first track with no cover art" selects nothing in
particular and picked a short one.

Verified by mutation: without the z-index the new spec fails on the
click in 30s, and the pre-existing one beside it passes, which is
exactly how this survived.

Closes #150
2026-08-20 01:33:35 -04:00
logan dc6625d33a Merge pull request 'Centre the transport, and show the volume inline' (#155) from feat/42-inline-volume-and-centred-transport into main
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Three columns whose outer two match, so the middle is centred; the
volume moves into the bar as a slider, with the popup as a setting.

Closes #23
Closes #42
2026-08-20 05:22:03 +00:00
logan dc8db159f9 feat(player): centre the transport and show the volume inline
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Two issues over one bar, because they are one relayout. #42's own
findings say so: giving wa-slider a label grows it 6px to 14px and
moves the transport, which is #23's subject, so doing them in sequence
means measuring the bar twice and throwing the first set away.

The bar was `320px 1fr auto`, so the transport sat in the middle of
what the metadata and the queue button did not use — its centre was
~140px right of the window's at every width. The outer two tracks are
the same expression now, so the middle is centred by construction.

The side width is the metadata's, capped at a quarter of the bar, and
the cap was measured as a regression before it was a decision:
reserving the full `--now-playing-width` on both sides is perfectly
centred and takes the seek bar's track from 257px to 61px at 800px, and
to 0 at 200% text. The control you drag was paying for the symmetry.
With the cap it is 246, which is parity. It is a `min()` rather than a
breakpoint because that variable is user state — the metadata has a
drag handle — and tying both sides to it is also what keeps dragging
meaningful; a plain `1fr … 1fr` centres just as well and silently makes
the handle a no-op.

The volume moved out of `audio-player` into the bar because the
transport column has to hold the transport and nothing else, and it
joins the queue button in one cell rather than a second column, since
the centring compares columns.

It is a slider by default and a popup by setting. The stored flag names
the *popup*, which is this config's polarity rule — the zero value has
to be the intended answer, so an existing config.toml gets the new
default with no migration. Inline, the icon is the mute toggle and is
named after that action rather than the state, because with the slider
beside it there is nothing to disclose; the component tier now covers
both presentations rather than whichever is default.

Three nested rules in this block began with a bare element selector,
which Chrome 120 relaxed and the phone's Chrome 113 **silently drops** —
including the ellipsis on the bar's own title and artist, which has
therefore never truncated on the device. They are `&`-prefixed now.
Filed as #154 for the class and for a check.

`bottom-bar.spec.ts` pins both halves separately on purpose: an
uncapped build is perfectly centred and fails only the seek-bar width,
so a spec asserting centring alone would have passed the regression
above. Both were verified by mutation.

Closes #23
Closes #42
2026-08-20 00:40:52 -04:00
logan 86e7444603 Merge pull request (#157) from fix/156-queue-selection-fixture-order into main
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The spec asked for the first few tracks and needed one with an album.

Closes #156
2026-08-20 04:35:09 +00:00
logan 2365806d18 fix(e2e): ask the fixture for a track that can navigate
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`queue-selection`'s name-click test failed on main on both engines,
having passed in its own PR and in two consecutive local suite runs. I
added it in #152; this is my defect and it had main red.

It staged a queue from the first few rows of `GetTracks(0)` and clicked
a track *name*, which `explore-link` routes to that track's **album**
page. Four tracks in the fixture library have no album — `01 Tone A`,
`02 Tone B`, `Title Only`, `no-tags-at-all` — and a name with nothing
to route to renders as plain text rather than as a link.

Which tracks arrive first is `audio_files.id` order, which is the order
the *scan* inserted them, which depends on concurrency and directory
traversal. Locally the first eight are all from two proper albums; CI
rebuilds its seed with a real scan and got a different eight. The
fixture had a requirement it did not state, so the queue now asks for
tracks that have an album.

A loose locator is what turned that into a mystery rather than a
message. The row was located with `.explore-link` and `first()`, and a
row has two — title and artist. With the title as plain text, `first()`
silently resolved to the *artist* link, so the click went somewhere
real and the assertion was about a destination the test had never
exercised. It names `.track-title .explore-link` now.

Reproduced before fixing, by staging the CI condition deliberately: a
no-album track at row 2 fails the test in 30s on this machine, and the
filtered fixture passes in 752ms.

The Direction's sweep found one other spec slicing `GetTracks` —
`queue-reorder`, which asserts on order alone and needs no property of
the tracks it gets, so it is left as it is.

Closes #156
2026-08-20 00:23:31 -04:00
logan 7d348f243a Merge pull request (#153) from fix/151-fuse-the-scroll-guard-and-the-write into main
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Removes the window between the scroll guard and the write it guards.

Closes #151
2026-08-20 03:58:04 +00:00
logan ddd04623f7 test(e2e): fuse the scroll guard and the write it guards
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`album-dropdown`'s "can be scrolled" failed twice over two sessions with
`Expected 80, Received 10`, both times on a branch that could not have
caused it. #133 strengthened the guard from "scrollable at all" to "has
the range this assertion needs", which was necessary and cannot be
sufficient: the guard and the write are separate round trips, so the
page re-lays-out between them.

Measured every frame across the resize, three runs: the range goes 0 →
**88** at 1ms → 330 settled by 8-14ms. 88 satisfies a guard asking for
80 while the grid is still a pass from done, so the guard is capable of
passing on a layout that is about to move. Under full-suite load the
transient is worse — the observed failures read 10 — which is why this
shows up on the second run of a suite and not in ten consecutive runs
of the file alone (0/10 before the change and after it; isolation is
not where this lives).

So the probe sets `scrollTop` and returns what it reads back, in one
page-side call, and the poll retries that. The assertion is now about
what the grid did rather than about what it was ready to do, and there
is no window between deciding and doing for anything to happen in.

#133's own last line asked for the other viewport-shrinking specs to be
swept for the same shape. One had it: `layout-overflow`'s sidebar probe
already fused its scroll and its measurement into one evaluate but ran
it once, so it read whatever the sidebar happened to be doing after the
resize. It is polled now — safe to repeat, because scrolling to the
bottom twice is scrolling to the bottom.

Closes #151
2026-08-19 23:37:41 -04:00
logan 9ad1477b1e Merge pull request 'Pin the queue panel'''s mouse model' (#152) from fix/43-queue-panel-selection into main
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Pins the queue panel's single-click select, ctrl/shift extend and
double-click play, none of which were covered in either tier.

Closes #43
2026-08-20 03:14:30 +00:00
logan 70ab3ddf94 docs: record two measurements from the queue selection work
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The first is a second instance of a rule CLAUDE.md already states, with
numbers: a virtualized list can be repainting for a reason you are about
to delete, and here there are two such reasons — so removing either
alone changes nothing observable, and removing both leaves the highlight
seconds late rather than absent. That is the shape a poll cannot see,
which is the general lesson worth keeping.

The second is the hit-scan, because it stopped a wrong fix: the queue
panel is 12% link and the track list 21%, which is the opposite of the
assumption the fix was being built on.
2026-08-19 23:00:03 -04:00
logan 4f7529c315 test(queue): pin the panel's mouse model, and bound the highlight
Single click selects, ctrl and shift extend, double click plays from
that row — all four already worked, and nothing in either tier pinned
any of them, which is why the report could be made and could not be
settled. `queue-reorder.spec.ts` covers the keyboard and
`queue-overlay.spec.ts` the panel's mode; the pointer path had no
coverage at all, so "selection is broken here" and "selection is fine
here" were equally consistent with a green suite.

Measured with real mouse events rather than dispatched ones, because a
synthetic click aimed at the row bypasses the only thing that could be
swallowing it: click row 1 selects 1, ctrl+click 4 gives 1 and 4,
shift+click 7 extends to 1,4,5,6,7, a plain click collapses to one, and
a double click on row 3 leaves the backend playing row 3.

The three candidates the issue lists are all answered. The repaint was
already correct, and already correct on the day the issue was filed.
`resolveTrackIndexFromEvent` reads data-index, and DOM order matches
data order. A row control does swallow the click — `explore-link` stops
propagation on purpose, so a click on a name navigates and selects
nothing — but a hit-scan across a row makes the queue 12% link against
the track list's 21%, so the panel called broken is *less* covered by
links than the list called correct. That measurement killed the fix
this started out as.

Two traps are written into the spec because both faked a defect while
measuring. Fixture tracks are 2 seconds, so "double click row 3" read a
moment later reports whatever auto-advance moved on to — recorded twice
as an off-by-one that is not one, which is what `LONG_TRACK` exists
for. And the selection assertions are bounded at 500ms rather than
polled with the default 5s: `queue-panel` repaints two ways, the
explicit `requestUpdate()` and a per-render `keyFunction` arrow, and
with *both* removed the highlight still arrives — at 134ms, 3.9s and
5.8s against 5-17ms healthy. Four seconds is indistinguishable from
broken to a user and invisible to a generous poll.

Mutation-tested rather than trusted: `playAtIndex(index + 1)` fails both
double-click tests, treating every click as ctrl+click fails both
selection tests, and removing both repaint mechanisms fails all three
selection tests — the last only because of the bound.

Closes #43
2026-08-19 22:59:55 -04:00
logan bb21072386 Merge pull request 'The top bar decides what it can afford to show' (#149) from fix/143-top-bar-fits-its-window into main
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Fits the top bar to its window by measuring it, at every supported
width and with work in flight.

Closes #143
2026-08-20 02:11:54 +00:00
logan ead1354e4d docs: record how the top bar decides what to drop
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The shell section already states the three size bands and the promise
that no action is unreachable at any of them; how the header chooses
what to give up belongs beside them, because the promise is what
decides it.

Two measured facts go to NOTES.md rather than here. `scrollWidth`
counts a box's left padding and not its right, so the obvious fit
predicate under-reports by a gutter and passed on a bar with a control
jammed against the window edge. And the overflow is 11px idle and 262px
while working, which is why the issue was filed twice with different
numbers — a seeded app that has finished scanning is idle by the time
you resize it.

Closes #143
2026-08-19 21:35:12 -04:00
logan ae85df0dad fix(shell): give the top bar a measured fit at every width
The bar was 611px inside a 600px viewport at the bottom of the Compact
band, and 862px while a scan with a real library's title ran, because
`job-indicator` is `hidden` when idle and 235px wide when it is not.
`body` is `overflow-x: auto`, so a user got a horizontal scrollbar on a
shell #24 promised would not need one — and the band is 600 to 899 with
work in flight, not the 600 to 610 the idle measurement suggested.

`services/top-bar-fit.ts` is `page-header`'s treatment one bar up: a
ResizeObserver, every pass starting from all-visible, hiding the
lowest-priority child until it fits. Measured rather than breakpointed
because three of the five children are as wide as their content — the
library filter by the longest library name, the indicator by the
running job's title, the search box by its view-scoped placeholder — so
any width picked is right for one library, one job and one view.

What yields is decided by #24's own sentence, which rules out the two
cheapest candidates in the Direction. Hiding the library filter takes
away an action, since it is the only control in the app that selects a
library (filed as #148, which is the phone already doing it), and
collapsing search to an icon is #57's, which is blocked behind #62. So
the wordmark yields first — a brand the window title bar repeats, and
visually-hidden rather than `display: none` because that h1 is the
document's heading — and then the indicator's label, leaving the ring,
which the component already does below 600px and whose live region
announces the state either way.

"Fits" is the children against the content box, not `scrollWidth`
against `clientWidth`: `scrollWidth` counts the left padding and not
the right, so the first version read 700/700 with the indicator sitting
in the whole right gutter. And the bar does not resize when a job
starts, which is the case this is for, so every child is observed too.

Pinned before it was fixed, as the issue asks. On the unfixed build the
new spec fails at 600 idle and at 600, 800 and 900 with a job, and
passes at 390, 899 and 1440; `layout-overflow.spec.ts` gains 600x600
and failed there. That spec asserts on the *shell*, so it was green
throughout this defect — the per-child measurement is #69's lesson, and
it is what caught the gutter case above.

Closes #143
2026-08-19 21:35:03 -04:00
logan 6e7e349e63 Merge pull request 'Fold the Jobs tab into the places the work is started' (#147) from feat/27-jobs-into-settings into main
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2026-08-20 01:02:41 +00:00
logan f9ba9a87d7 docs: note that CI's two engines share one app
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Which is why a shared-selector fault can be green on chromium and red
on webkit in the same run, and how to reproduce it locally.
2026-08-19 20:44:16 -04:00
logan e4efec6f0c fix(e2e): the third spec that located a disclosure by class
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`config-section .header` is ambiguous once a section holds a job, and
`failure-voice.spec.ts` was the one I did not grep for. It passed on
chromium and failed on webkit in the same CI run, which is the tell:
the two engines share one app, so the second one runs with a finished
scan the first one left behind.

The NOTES entry already says a class name is not a selector's contract;
this is the same fix, by role and name.
2026-08-19 20:44:02 -04:00
logan 99f355b2fc docs: record where background jobs went, and two traps
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The retired-destination note sits beside #25's storage paragraph
because it is the exception to it: an absent key is free, a value is
not.

`config-section .header` resolving to two elements is in NOTES because
it cannot be reproduced by opening Settings and looking -- the drawer
only exists once a job does.
2026-08-19 20:27:55 -04:00
logan c79d4d47a3 test: cover jobs in Settings, and unpick two shared selectors
The spec worth having is not that the tab is gone -- that is one line
of a table -- but that nothing became unreachable when it went. #24
promises that no action is ever unreachable at any supported size, and
deleting a destination is exactly the change that quietly breaks it.

Two existing selectors had to give. `config-section .header` is
ambiguous the moment a section holds a job, because `job-details-drawer`
carries that class too -- so `settings-reach.spec.ts` locates a
disclosure by role and name instead. And `page-header`'s and
`offline-icons`'s view lists lose an entry each.

Closes #27
2026-08-19 20:27:48 -04:00
logan 8efed2dd2b refactor(shell): retire the Jobs destination
Nothing it carried is gone -- the two commits before this put all of it
somewhere the work is already being done.

A retired destination is the one shape #25's storage decision does not
make free. A visibility entry is a map key and an unknown key is
dropped on load; a launch page is a *value*, and an unknown one fails
validation -- which on the load path means the app refuses to start for
whoever had Jobs selected. `RetiredViews` is that list, read by
`ApplyDefaults`, which treats a retired name as a zero value. An
unknown-but-not-retired name still errors, because that is a typo and
saying so is the useful answer.
2026-08-19 20:27:40 -04:00
logan 12af6ec1f7 feat(settings): scan from Settings, and watch every job in place
Scanning goes back where libraries are managed -- the Jobs tab's own
comment said the per-library controls had been taken out of Settings to
build it. "Scan All" and "Full Rescan" join "Add Library", "Scan now"
joins the per-library overflow menu beside Rename and Remove, and a
library being scanned says so where its track count goes.

Each surface then gets the job rows for its own kind: scans under
Libraries, index and enrichment under Search Index, downloads under the
download clients, and the autotag apply in the Autotag view -- where
stopping a run matters most, since applying rewrites tags on disk and
that view had no cancel at all.

The autotag panel shares the header's grid row through a wrapper rather
than taking a third row: it is display:none while nothing is applying,
which is nearly always, and a grid row would still spend the
container's gap on it.

The Launch Page select is derived from `VIEW_META` instead of listing
its ten options, since removing a destination is exactly the change
that leaves two hand-written copies disagreeing.
2026-08-19 20:27:33 -04:00
logan f3d1ae1c8c feat(jobs): show background work where the work is started
Reading the app before moving anything turned up that four of the five
job kinds already have a home showing their work: Settings → Search
Index draws per-tier index progress, `downloads-view` draws every
download's lifecycle state, `autotag-view` draws its own apply ring,
and only `library-scan` had nowhere but the Jobs tab. What none of the
four had is the *generic* affordances — pause, cancel, Details, the
log, and a finished job you can dismiss.

So this is a panel embedded beside each of them rather than one
"Background jobs" section in Settings, which would have been the tab
again under another name.

Three rules in it. The controls are `applyJobControl`, not a
reimplementation, which is what keeps the index build's "you will
discard hours of downloading" confirmation alive across the move. A
panel with nothing to say is `hidden` rather than empty, host margin
included, because an idle panel in four places is four pieces of
furniture describing an absence. And there is no "Clear finished":
`ClearFinishedJobs` is global, so a Clear under Libraries would discard
the index build's history too.

`JobKind` also gains `download`, which the backend has had all along.
2026-08-19 20:27:22 -04:00
logan 5af545e38d Merge pull request 'Configurable sidebar destinations, Downloads gated on a client, Autotag off by default' (#145) from feat/25-configurable-sidebar-tabs into main
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2026-08-19 23:46:23 +00:00
logan 9da3967dd9 docs: record that destinations are configuration
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Beside the three navigation paragraphs, since it is the fourth thing
the shell states about where the user can go.

Two notes are measured facts rather than design: a default expressed as
an *absent key* survives an existing seed, where one expressed as a zero
value does not; and a spec can no longer assume a destination has a nav
item.
2026-08-19 19:34:00 -04:00
logan c8d94a8203 test(e2e): cover configurable destinations; stop assuming a nav item
The assertions are about the navigation, not about the setting: "the
config was saved" is the plumbing, and #69 and #72 both shipped green
under specs that measured exactly that.

Four existing specs reached a view by clicking its nav item, which since
this change is not guaranteed to exist -- Autotag is hidden by default
and Downloads is absent without a download client -- so they timed out
waiting for a locator that will never resolve. `navigateTo` dispatches
the app's own `navigate` event, which is what every nav item, card and
detail view dispatches, so it is the mechanism rather than a test-only
door. Click the item when the nav is the subject.

Closes #25
2026-08-19 19:33:56 -04:00
logan 43d78a731a feat(shell): draw only the destinations the user kept
The navigation reads the resolved map from the backend rather than
holding a copy of the defaults, which would be the copy that shipped in
the binary rather than the one being edited.

Hiding takes away the nav item and nothing else: `navigate` still
resolves a hidden view, which detail views and the launch page depend
on. No special case was needed for the highlight, because #72 moved
that onto `active-view-store` -- the sidebar asks `isActive(id)` per
*rendered* item, so a hidden view lights nothing exactly as a detail
view does.

Downloads is gated at the nav on `downloadStore.available` rather than
in the config, so switching it on in Settings still means what it says
once a client exists, and the tab appears without a restart. `available`
is false until the providers have loaded, which makes the item appear on
a fresh launch rather than appearing and then vanishing.

The tab bar honours the toggles too, and the reason is local rather than
a general rule about phones: "More" opens the *same* `<app-sidebar>`,
which filters, so an unfiltered bar would contradict its own drawer one
tap away. Which four tabs is still plan 016's subset; this only removes
from it, and "More" is never filtered.

`services/view-meta.ts` is the destination list, on `shortcut-meta.ts`'s
pattern, because Settings is now a second reader of the same labels in
the same order.

Two existing sidebar tests had to say which world they describe: eleven
destinations now assumes a configured download client.
2026-08-19 19:33:44 -04:00
logan a3926704cc feat(config): make the shell's destinations configurable
The sidebar's eleven entries are more than most libraries need, and
Autotag rewrites tags on disk, which is not what a fresh install should
be one click from.

Stored as a map keyed by view id, where an absent key means that view's
own default. A `HiddenViews []string` cannot express "Autotag off by
default" -- its zero value is *hide nothing* -- and a boolean per view
turns a view that later stops existing into stored garbage. With a map,
an unknown key is dropped on load, a view added later gets its own
default, and no install needs migrating in either direction. Same
polarity as AllowMeteredCatalogDownload: the zero value is the intended
answer.

`Views` is also what DefaultPage now validates against, so which views
exist and which may be the launch page are one list rather than two.

Two states the user could not get out of are refused rather than
allowed: Settings is never hideable, and the launch page is not
hideable while it is the launch page. Both refuse in the *config*, not
in the UI, because `config.toml` is hand-editable. On load the launch
page is instead un-hidden -- there is nobody to tell, and the honest
reading of "my launch page is Autotag" is that this user wants Autotag,
not that their launch page should be silently reset.
2026-08-19 19:33:32 -04:00
logan ea53d4f15b Merge pull request 'Global back and forward, and the launch entry that made Back a lie' (#144) from feat/6-global-back-forward into main
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The stack was always global; the affordance was not. Adds the control, and fixes the second launch navigation that left a fresh session one entry deep.

Closes #6
Closes #142
2026-08-19 22:27:39 +00:00
logan ea16e07c46 docs: record the back/forward chrome and the two launch navigations
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Both belong beside the rules that already keep the history stack
honest: the depth counting, because forward is the case one counter
cannot express, and the second launch navigation, because it is what
silently defeated the first rule on the list.
2026-08-19 18:09:10 -04:00
logan 4f47c85208 test(e2e): cover global back/forward, including the launch entry
Five journeys the control has to get right: nothing offered at the root
in either direction, walking both ways with the availability changing
as it goes, reaching the detail view a tab click left behind (which is
the report), the forward list being dropped when the user navigates
from the middle, and the control standing down below 900px.

The first fails on the build before the launch entry was fixed --
enabled, and doing nothing when pressed. It is the assertion that pins
that defect, which otherwise has no visible symptom on desktop at all.
2026-08-19 18:09:10 -04:00
logan 603728a3fb fix(shell): let the landing page replace the launch entry
The app navigates twice on startup and both are deliberate: the eager
`navigate -> home` that paints without waiting for the backend, and the
configured page `GetDefaultPage()` resolves to a moment later. Only the
first replaced the launch entry, so the second stacked on it and a
fresh session was already one entry deep before the user had touched
anything.

The first back press therefore replayed home over home. On desktop that
was invisible until this branch drew a Back button, which rendered live
at the root and did nothing; on Android `webView.canGoBack()` was true,
so the press that should have exited the app was swallowed -- the exact
fault the replace-the-launch-entry rule exists to prevent, defeated by
there being two launch navigations rather than one.

Guarded on still being at index 0 rather than on a flag: that call is
asynchronous and the user can navigate while it is in flight, so past
the root this is an ordinary navigation and a slow answer cannot
overwrite an entry they made.

Closes #142
2026-08-19 18:09:10 -04:00
logan 018d857746 feat(shell): global back and forward in the top bar
The history stack has been global since the Android back gesture landed
-- every navigation is an entry and `popstate` restores any of them in
either direction. What the report describes as "back is tab-scoped" is
that the only way back was a detail view's own button, which leaves the
screen with the view it belongs to: click over to Tracks and the album
you were reading is still one entry away with nothing on screen saying
so.

`<nav-history>` is that affordance, plus `nav.back` / `nav.forward` on
Alt+Left / Alt+Right -- the browser's own combination, and clear of the
bare arrows that seek, since a binding matches on its full canonical
string.

Forward is not back negated, which is why the old `pushedEntries`
counter is gone rather than extended: `popstate` carries no direction
and fires identically both ways, so one counter decremented on every
pop reads a forward as a second back. Each entry carries its index and
the shell keeps the current one and a high-water mark, which also
survives a jump of more than one.

The buttons dispatch the events the rest of the app already dispatches
rather than calling `history` themselves -- the shell owns the guard
that stops a press at the root leaving the app, and a second caller
reaching for history is how the old `navStack` came to disagree with
the platform.

Below 900px the control stands down: the top bar is what runs out of
room first below that, and nothing becomes unreachable -- the shortcuts
are global at every width and the phone has the platform's gesture.

Closes #6
2026-08-19 18:08:55 -04:00
logan a7ac2b4a3e Merge pull request 'Publish the active view from the shell, so both navs survive the back path' (#141) from fix/72-active-view-broadcast into main
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The shell knew which view was active and never said so on the back path, so both navs highlighted the view just left.

Closes #72
2026-08-19 21:10:54 +00:00
logan d347809e6e docs: record the one statement of which view is active
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It belongs beside the two rules that already keep the history stack and
the in-app back buttons agreeing, and for the same reason: a second
component-local idea of where the user is, is how they came to
disagree.
2026-08-19 17:00:39 -04:00
logan a5ffcc22e3 test(e2e): assert the nav highlight, not the shell's own bookkeeping
`back-navigation.spec.ts` covered exactly the journeys #72 breaks and
was green throughout it, because every assertion in it was
`data-active-view` — which the shell sets on every path including the
back one, and which was the one thing already correct. The same trap
`layout-overflow.spec.ts` set for #69: a spec named for the behaviour,
measuring the plumbing.

The assertions go here rather than in a second file, or the first would
carry on passing vacuously. They are `aria-current="page"` through
`getByRole`, which is the accessible fact — `.active` is a class and
could be restyled without breaking anything real — and the role query
resolves to whichever nav is in the accessibility tree at that
viewport, so one helper covers the sidebar and the tab bar.

Three of the four fail on the build before the fix. The fourth, the
parent staying lit while a detail view is open, passed by accident and
says so.
2026-08-19 17:00:39 -04:00
logan f18691560d fix(shell): publish the active view, so both navs follow the back path
The nav components learned where the user was from the `navigate`
CustomEvent, which only the outbound path dispatches: `popstate` calls
`handleNavigate()` directly. So a back-navigation left both of them
highlighting the view just left — desktop included, at any width, on
any back across two primary views. Opening a detail view was the same
cause wearing a different symptom: `app-sidebar` guarded on its own
item list and kept its highlight, `bottom-nav` did not and lit nothing.

It cannot be fixed by re-dispatching `navigate` — `index.ts` is that
event's document listener, so that is an infinite loop, and "please go
to X" is not the statement being made. `activeViewStore` is the shell
saying "the active view is now X", once per navigation, `popstate`
included; both navs read it through a controller and hold no
`activeView` of their own.

A store rather than an event because a component that mounts *after* a
navigation still has to know: `bottom-nav`'s drawer builds its
`app-sidebar` on open, and that copy had heard nothing at all, so the
drawer opened on Home from any page in the app.

Closes #72
2026-08-19 17:00:39 -04:00
logan c84a9069ef Merge pull request 'Collapse the page header actions that do not fit, instead of clipping them' (#136) from fix/69-page-header-action-overflow into main
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Closes #69
2026-08-19 19:29:15 +00:00
logan f967916550 fix(page-header): collapse the actions that do not fit into a menu
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Playlists slotted three buttons totalling 390px into a header that gets
700px at 900x600, so "New Smart Playlist" rendered 114 of its 162px
with the queue closed, and 158 of 162 at the 800x600 enforced minimum.
On a phone none of the three could be reached at all, which is what the
Android report said. Plan 018's size matrix promises the opposite: no
action is ever unreachable at any supported size.

The header could not fix that for slotted markup, and that is a fact
about the API rather than an effort estimate — a component cannot move
another component's light-DOM children into a dropdown and keep their
behaviour, and arbitrary markup offers nothing generic to render as a
menu item. So a host passes `PageAction[]` and the header chooses the
rendering; the slot survives for markup a data list cannot express, at
the stated cost that a slotted action does not collapse.

All three hosts that slot actions migrated, which also normalises the
plain-<button>/<wa-button> split between them onto one shape the header
styles — and lets it measure a button that has already upgraded, rather
than a wa-button whose shadow DOM arrives in its own first update.

Four things in it are load-bearing:

- Every measuring pass starts from all-visible, so the collapsed set is
  a pure function of the current width and an action comes back when
  the window grows. It flips `hidden` imperatively rather than
  re-rendering between steps, or the intermediate state paints and the
  fix flashes the overflow it exists to prevent.
- "Fits" means nothing is clipped, not that the header does not
  overflow. Once the title can ellipsis it absorbs the pressure and
  scrollWidth reports a perfect fit while the heading reads "Playlis…"
  — this bug moved from the button to the title, and invisible to the
  same measurement that missed it the first time.
- New Playlist has the highest priority because it is the drop target
  and a closed menu cannot be one. `PageAction.drop` therefore carries
  the host's own handlers; the affordance is absent from the overflow
  rather than approximated there.
- The overflow trigger is a named button with aria-expanded and an
  aria-controls naming a panel that is always in the DOM, and the
  keyboard model is the shared `MenuKeyboard`.

`layout-overflow.spec.ts` passes on the broken build — it asserts the
shell needs no sideways scrolling, and clipping inside a component is
invisible to it, which is why this defect survived a spec named for it.
The new spec measures each button against its own header at four
viewports and asserts buttons plus menu account for every declared
action, without which it would pass vacuously on a build rendering none.

Closes #69
2026-08-19 15:08:57 -04:00
logan 3fa7c7734b docs: record the page-header actions rule, and complete plan 018
The `page-header` paragraph already stated "the header asks for a sort,
it does not perform one"; actions now follow the same division and it
belongs beside it — the header decides what fits, the host decides what
happens.

Plan 018 moves to completed/ because #69 was the last thing it owed:
its size matrix promised "no action is ever unreachable at any
supported size" and the residual 114/162px clip was that promise
outstanding. Its recap also corrects a claim the plan made — the queue
and the actions were not the only two things competing for the header's
width, since every child of that flex row was flex-shrink: 0 and the
actions come last.
2026-08-19 15:08:57 -04:00
logan cceeb40b16 Merge pull request 'Six quick fixes off the tracker: tooling, a latent index bug, and two touch affordances' (#139) from fix/quick-wins-batch into main
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Closes #130
Closes #131
Closes #119
Closes #118
Closes #68
Closes #61
2026-08-19 19:08:46 +00:00
yonlu 2926ecd4b4 docs(notes): record that no test tier can see a hover media query
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Both browser tiers are blind to `(hover: hover)` gating, in different
ways and without failing: CDP media emulation does not reach ui-test's
iframe, and e2e's phone specs reach phone width with setViewportSize,
which changes no media feature but width. Written down with what does
work — a device-descriptor context — because the next person to gate an
affordance this way will otherwise re-derive it, and the tempting
conclusion from a green suite is that the gate is covered.
2026-08-19 14:08:38 -04:00
yonlu ff3c4003cb Merge branch 'fix/61-mini-player-plain-text' into fix/quick-wins-batch 2026-08-19 14:08:15 -04:00
yonlu def596a99e Merge branch 'fix/68-hover-affordances-pointer' into fix/quick-wins-batch 2026-08-19 14:08:14 -04:00
yonlu 14f78c0b57 Merge branch 'fix/118-in-library-clear' into fix/quick-wins-batch 2026-08-19 14:08:14 -04:00
yonlu 7cea238e71 Merge branch 'fix/119-dev-headless-port' into fix/quick-wins-batch 2026-08-19 14:08:13 -04:00
yonlu 4f2f1827ab Merge branch 'fix/131-codegen-check-scope' into fix/quick-wins-batch 2026-08-19 14:08:13 -04:00
yonlu e454e4074b Merge branch 'fix/130-issue-claim-user' into fix/quick-wins-batch 2026-08-19 14:08:12 -04:00
yonlu c518ac8c73 feat(now-playing): plain text instead of links in the phone mini player
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The bottom bar's title, artist and "Playing from X" all navigate. In a
bar sized for a bar they are a few characters of text, which is not a
touch target — and explore-link holds its navigation for one
double-click interval and drops it if a second click arrives, a gesture
that exists so double-clicking a row can play it and that means nothing
on touch.

Below the shell's phone breakpoint the three render as plain text. The
words are unchanged: the source line still says where the queue came
from, because dropping the link is the change and dropping the
information would be a different and worse one. The cover art already
carries the phone-only button that opens the full-screen Now Playing
view, which is where the links live.

This is in JS rather than in the stylesheet because what changes is the
content, not its appearance — no CSS rule takes a click handler off an
element. matchMedia is read in connectedCallback for the reason the
reduce-motion query beside it already is, so a test can answer it first.

Two smaller things. PHONE_QUERY moves out of track-list.ts into
utils/breakpoints.ts: it was a private const when one component needed
it, and a second reader is where a copy starts drifting from index.css.
And `phone` joins geometryKey(), because crossing the breakpoint swaps a
link for a bare string and the marquee travels a distance read from
measuring it — the words being identical either side is not the same as
the box measuring the same.

Closes #61
2026-08-19 14:08:06 -04:00
yonlu 977f624123 fix(home): gate the card play button on the device having hover
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The play button on a home shelf's cover cards is revealed by :hover, and
a touch long-press synthesises a hover state in the WebView — so on a
phone it flashed into view during the 500ms hold that
utils/long-press.ts is measuring for a context menu. A control appearing
because the user was reaching for a different one.

It is gated on `(hover: hover) and (pointer: fine)` rather than on width,
so it is absent on any touch device and present on a desktop with a small
window. A phone user taps the album and plays from the detail view, so
nothing replaces it.

The default outside the query is display:none, not opacity:0. An
opacity-0 button still takes taps and is still in the accessibility tree,
so leaving the reveal as the only guarded part would keep the hit area
for a control the phone can never show.

The test asserts the parsed stylesheet rather than rendering as a phone,
and says so: CDP's Emulation.setEmulatedMedia does not reach this tier's
iframe, so matchMedia still answers `hover: hover` after it is set. The
regression worth catching is someone hoisting the rule back out of the
query as a tidy-up — a change no desktop assertion can see.

Closes #68
2026-08-19 14:08:06 -04:00
yonlu 23f3d4b3b0 fix(explore): clear in_library on a row that has no local id
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`in_library = 1 AND local_*_id IS NULL` was a fixed point.
upsertBatch's conflict clause is `MAX(in_library, excluded.in_library)`,
so it can only ever raise the flag, and pruneStaleLocalCrossReferences —
which its own comment calls the only place a removal from the library is
reflected back into the index — was gated on the id being present. So
nothing in the app could clear such a row, ever: a permanent claim of
ownership with no local row to check it against.

The gate is now the flag *or* the id, for all three entity types. A NULL
id fails the existence test on its own, so this needs no second clause to
say what "not owned" means.

Nothing in the tree writes that shape today — collectLibraryEntities sets
both together — which is why this is worth closing rather than leaving:
the exposure is a database written by a version whose local-id columns
were populated differently, and the next writer that sets the flag
without an id, which nothing structurally prevents and which this shape
made permanent rather than merely wrong until the next scan.

The test seeds the row with raw SQL on purpose. upsertBatch writes a zero
LocalArtistID as literal 0, and 0 satisfies `IS NOT NULL`, so the old
gate already caught that shape — a fixture built through the upsert
cannot reproduce this at all. NULL is what the artifact importer and any
older writer leave behind, the columns being nullable with no default.
Reverted against the old gate, it fails on all three types.

Closes #118
2026-08-19 14:08:06 -04:00
yonlu 8d46c4abb7 fix(scripts): refuse to start dev-headless on a port somebody else holds
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dev-headless.sh checked the PID in *this* worktree's .dev/app.pid and
nothing else, so an app orphaned by a deleted worktree went on listening
with nothing left to stop it — `make dev-stop` only kills the pid it
wrote. The new app then started, failed to bind, exited, and every
subsequent curl and playwright-cli call went to the other process: the
harness reported facts about an app nobody asked for.

That fails a long way from its cause. It presented as "no such table:
libraries" against a *freshly created* YJ_HOME, which reads exactly like
applySchema or staleshape.go having gone wrong, with a zero-byte app.log
beside it saying nothing.

The startup wait cannot catch this, because its health check is satisfied
by any app on the port — which is precisely the failure — so the check is
before the launch and refuses rather than warns. It names the holder's
pid, cmdline and /proc/<pid>/cwd, which is what identifies the checkout
and says "(deleted)" for the case this exists for. It does not suggest
`make dev-stop`: the PID-file check has already passed, so by
construction dev-stop does not know about this process and would report
success while changing nothing. --port already covers the legitimate
second-app case.

The second, cheaper guard the report asks for goes in after the wait:
"the port answered" is not "the app we started answered", so a dead
APP_PID at that point is now an error with the log tail rather than a
success message about somebody else's process.

Closes #119
2026-08-19 14:08:05 -04:00
yonlu f714fe513d fix(scripts): report only what generation changed, not the worktree
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The codegen-check hook was `go generate` followed by a bare
`git diff --name-only`, which is the whole unstaged worktree rather than
the generators' output. So a commit whose staged changes were fine failed
whenever anything unrelated sat unstaged — notes, a plan document, the
next commit's files — reporting "Generated code is out of date" and then
a diffstat of files no generator has ever written. `make generate` fixed
nothing, because nothing was stale, so the message sent you looking for a
codegen problem that did not exist. Splitting one piece of work into
several commits is exactly the shape that triggers it.

The tree is snapshotted either side of `go generate` and only what moved
across it is reported. That is deliberately a snapshot rather than the
list of generated paths the issue offers as the other option: a fourth
generator is one //go:generate line away, and a path list is a second
place to remember it.

Two things it has to get right. The comparison is a *symmetric*
difference, because generation can push a file into the unstaged set or
pull it out of one — a hand-edited generated file that the generator puts
back is stale generated code just as much as a source change that
outdates it, and comparing one direction reports it as current. And the
snapshot is content, not names, or a generated file that was already
dirty and is then rewritten further keeps its name on both sides and
slips through.

Closes #131
2026-08-19 14:08:05 -04:00
yonlu 087c69ac8d fix(scripts): let issue.sh claim work on a write:issue-only token
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`claim` is the one step the workflow requires before the first edit, and
it failed outright on a token scoped to the work it does: `me()` calls
`GET /user` purely to name the assignee, and that endpoint needs
read:user. So the documented process was blocked by its own tooling, and
the fallback was to do the assignment, the label and the comment by hand
— which is the half-made claim `claim` exists to prevent.

GITEA_USER short-circuits the lookup, so least privilege is enough. The
lookup stays as the fallback because it is right when the scope is there
and needs no setup. Failure is now actionable and says both remedies,
and it still happens before any of the three halves are mutated.

Closes #130
2026-08-19 14:08:05 -04:00
logan bb7dde1963 Merge pull request 'A CI-only change is ci:, not fix(ci):' (#112) from docs/ci-commit-type into main
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2026-08-19 16:23:20 +00:00
yonlu 446380e3a9 docs: a CI-only change is ci:, not fix(ci):
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The commit-analyzer reads the type and ignores the scope, so `fix` is a
patch whatever sits in the brackets. Two commits touching nothing but
.gitea/workflows/unclaim.yml were written `fix(ci):` and cut v0.2.1 and
v0.2.2 -- real releases, published to Arch, Homebrew and the APK
registry, containing no user-facing change.

CLAUDE.md already warned that a mistyped feat ships a minor version.
That was not enough, because this was not a mistyped type: `fix` was
chosen deliberately, in the belief that the (ci) scope qualified it.

The version bump is the small half, which is why this gets a paragraph
rather than a clause. A merge to main starts two workflows; if
release.yml then pushes a tag, that tag push starts four more --
arch-package, homebrew-formula, android-apk and desktop-assets -- on a
runner with capacity 1, where the APK build alone is tens of minutes
and publishes a signed artifact to a public registry. So a mistyped
type is six workflow runs, not an odd-looking changelog.

`make release-dry` answers this before the merge instead of after, and
is cheaper than any one of those runs.

The two releases are staying: they are already published, and a version
that vanishes is worse for whoever pulled it than one that turns out to
be empty.

Closes #111
2026-08-19 16:03:38 +00:00
logan e07f248cc8 Merge pull request 'Wait for the scroll range the assertion needs' (#134) from fix/133-album-dropdown-scroll-race into main
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2026-08-19 16:03:17 +00:00
logan 90ac6e0825 test(e2e): wait for the scroll range the assertion needs
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The guard polled for `scrollHeight > clientHeight + 40` and the next
line asserted the container could be scrolled to 80, so any range in
41-79 satisfied the precondition and could not satisfy the assertion.
The grid passes through exactly that while it settles, because it
recomputes its columns after a viewport change rather than during it,
so the test read a clamped scrollTop and reported 10 against 80.

It failed CI on a pull request that changes one paragraph of CLAUDE.md
and nothing else, while WebKit passed in the same run. Reproduced
locally: 0 failures in 6 runs before #132, 2 in 9 after, 0 in 10 with
this change.

#132 is what made it reachable rather than what broke it. The queue
panel's mode is measured rather than media-queried, so a viewport
change at this width costs one more layout pass, and cover-grid settles
after it instead of before. The settled range is 330 and stable, the
main panel is 700px, and the panel is correctly display:none while
closed — there is no user-visible defect, only a wider window for a
race the spec already had.

A threshold below the value its caller depends on is not a guard, so
the target is one constant that both the guard and the assertion read.

Closes #133
2026-08-19 11:50:46 -04:00
logan 4e3c953acf Merge pull request 'Decide the supported sizes, and stop the queue taking the page's width' (#132) from feat/24-supported-sizes-queue-model into main
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2026-08-19 15:22:39 +00:00
logan ede183d026 test(shell): check 900x600, which is narrower than the minimum
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The sidebar collapses to icons *below* 900, so the main panel is 843px
at 899 and 700px at 900: the narrowest content area any desktop width
produces is at the top of the Compact band, not at the enforced floor.
A viewport list that stopped at "the minimum" was missing its own worst
case.

MinWidth's comment loses both reasons it used to give, because neither
mechanism can happen any more — the subtitle is display:none from 899
down, and the sidebar host is overflow-y:auto (at 600x460 its
scrollHeight is 434 against a 332px client, and Settings is reachable
after scrolling). The value does not change: 800x600 is where desktop
chrome stops being comfortable, not where the app breaks, and below
600 the phone layout takes over. A floor defended by two expired
mechanisms is a number nobody can argue with, which is worse than
either answer.

Closes #24
2026-08-19 10:54:52 -04:00
logan 481c9dca65 docs: record the size bands and what the queue model cost to find
CLAUDE.md gains the three bands as a promise (Phone <600, Compact
600-899, Desktop >=900, and "no action is ever unreachable at any
supported size"), the computed queue rule and why it cannot be a media
query, and the correction that 900 — not the 800x600 minimum — is the
worst desktop width.

NOTES.md gets the measurements, including two things worth more than
the fix. My first probe for the sidebar's scroller searched
shadowRoot.querySelectorAll('*') and reported "no scroller, items are
unreachable", which reads exactly like a live Settings-unreachable bug;
the scroller is the host, and a host is not inside its own shadow root.
And the plan's first draft claimed the overlay "removes the desktop
half of #69", which the screenshot disproved: open and closed are now
identical at 900x600, so the queue's contribution is gone, but the
header's own overflow remains and is still a live defect.

Refs #24
2026-08-19 10:54:52 -04:00
logan 4025106234 fix(queue): overlay the content instead of taking its width
The panel is flex-shrink: 0 in the flow of .content-area, so an open
queue was paid for by the main panel rather than covering it. Measured
on Playlists: 379px of content left at 900x600 with all three of the
page header's actions clipped, 69px at 390px, and 0px at 320px — where
the content was not degraded but gone.

It goes to an overlay with a scrim when the content cannot spare the
width, and the rule is computed rather than breakpointed:
`available - panelWidth < 480`, where available is .content-area's
width and so already accounts for the sidebar's collapse at 900. A
media query cannot express this, which is the reason for the property:
the panel is drag-resizable between 200 and 500px and persisted, so a
viewport breakpoint silently assumes the default 320 and is wrong by up
to 180px for a user who widened it — in the direction that hurts, since
a wider queue is exactly when the content can least afford it.

480 is a judgement and the comment says so: there is no cliff to derive
it from (the track list rescales continuously, 213px to 124px columns
with no row overflow), so it is anchored to keep the default 1100px
window inline while putting every measured-broken case on the overlay
side.

The overlay is a presentation and not a fork — #55 asks for one
component with two mount points — so the roving tab stop, Alt+Arrow
reorder, drag reorder and selection semantics are untouched. Escape
closes it and returns focus, attached only while the overlay is up: it
is a dismissal rather than a shortcut, which is why it is not a
panel-scoped binding. The scrim covers the content area only, not the
sidebar or the transport, because the queue is not modal.

Refs #24
2026-08-19 10:54:52 -04:00
logan a3134f997f docs(planning): decide the supported sizes and the queue panel's model
#24 asks for a design pass, and #73 hangs the rest of Phase 2 off the
answer, so the decision is written down before any CSS moves.

Measured against the running app, and five things are not in the issue:
the Playlists header clips at 800x600 with the queue *closed* — the
minimum window is the only size this app promises; 900x600 is worse
than 800x600, because the sidebar expands at 900, so the worst desktop
case is not the minimum and every test that stops at the minimum misses
it; at 320px with the queue open the main panel is 0px wide, because
the panel is in the flow rather than over it; only Playlists overflows,
so #69 is one view's action set and not a systemic header failure; and
both reasons in MinWidth's comment describe mechanisms that no longer
exist.

The queue's mode cannot be a media query: its width is drag-resizable
between 200 and 500px and persisted, so a fixed breakpoint assumes the
default 320 and is wrong by 180px in the direction that hurts. It is
computed from the measured widths instead.

#69 stays its own PR on a finding rather than an estimate: page-header
cannot collapse actions that arrive as arbitrary light-DOM markup
through a slot, so the fix needs an actions API across all three hosts.

A very small window becomes the phone layout, which already exists and
is already tested, rather than the mini-player: #12 is a second
always-on-top window, and making it a mode of the main window would
discard navigation state on a resize and put the process-level MPRIS
question on a path a drag can trigger.
2026-08-19 10:54:52 -04:00
logan 3607fe445e Merge pull request 'Fix the player states that report one track's progress against another' (#129) from fix/player-playing-state into main
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yonlu 61d549a9d5 ci: run the pre-push hooks sequentially
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`go test -race ./...` saturates every core for ~47s, and the UI tier
it was sharing them with is a real Chromium with wall-clock timeouts.
So the browser lost, at random: setup took 106s inside the hook
against 63s standalone, and a different suite failed on each run --
three failing to fetch setup.ts from Vitest's own dev server once, a
15s "did not mount itself" the next time -- against a suite that
passes 898/898 five times running on its own.

That reads as "your branch broke the frontend" when nothing is wrong,
which is the most expensive kind of false negative: the next person
bisects a change that was never at fault. It cost two pushes here
before the summary line gave it away.

Sequential costs about 15s.

Closes #128
2026-08-19 09:16:43 -04:00
yonlu 2b84bc53e9 fix(player): stop reporting one track's state against another
Five faults found while auditing the play/pause and position path for
a desktop report of the pause icon showing over a seek bar that was
not moving. They are one commit because they are one file's worth of
tangled state, and two of them do not compile apart.

The finished callback did not know which chain it came from. It is
dispatched as a goroutine from the beep callback and then queues for
p.mu, so a user pressing Next in the last second of a track had it
wake up holding the lock for a player that had loaded something else
-- and rewind it, stop it, and hand a stale finish to the queue's
auto-advance. updateStreamers now stamps a chainID and the callback
carries the one it was registered with. (#123)

It also emitted PlaybackFinished and PlaybackStateChanged(stopped)
*after* releasing p.mu, alone in this file, so a Play() taking the
lock in that gap emitted `playing` first and the stale `stopped`
landed last -- the button showing play over a track that was audibly
running. Both emits are back under the lock. (#123)

A source that failed mid-track was reported to the queue as a natural
end, so a broken file auto-advanced in silence and was counted as
played. The handler takes the reason now: the player cannot name the
track, because the metadata is the queue's, so the queue emits
PlaybackFailed and skips recording the play. (#123)

p.format was assigned once, in the constructor, to the *speaker's*
rate, and never again -- so it claimed 44.1 kHz for every file. The
replay-after-finish path resamples from it, meaning a finished track
played a second time was resampled from a rate the decoder never
produced: audibly wrong speed and pitch, and the length and position
fallbacks wrong with it. The fixtures are 22050 Hz, which is what lets
a test see this at all. (#124)

p.trackLengthMs was written only when the database had a row and
cleared only by UnloadTrack, so a file with no row inherited the
previous track's duration -- and every position report is scaled by
it, so the bar reported one track's progress on another's scale.
(#125)

Queue.OnPlaybackFinished indexed q.tracks[currentIndex] having checked
only that the queue was non-empty. currentIndex is -1 whenever the
queue has been exhausted, and onQueueExhausted deliberately leaves the
finished track loaded -- so playing it from there and letting it end
panicked, on a goroutine with no caller to recover it. (#126)

The position readers guarded the decoder with the speaker lock, which
the read-ahead goroutine has no reason to hold and never takes -- so
Position() raced readAhead's Stream() on every position emit, once a
second for the whole of playback. srcMu is the lock that excludes that
goroutine, and taking it naively deadlocks, because seekLocked already
holds it and then emits the landing position from inside that region.
seekSourceLocked is that region extracted, so the lock is released
before anything is emitted. Found by the race detector, via the test
added here for the chain guard: the existing suite never loads a file
outside the integration guard, so make test was green over it. (#127)

OnPlaybackFinished picks up //wails:ignore along with its error
parameter: v3's generator segfaults on a bound method taking an error,
and this was never IPC. That removes a binding the frontend could have
called to force an auto-advance.

Closes #123
Closes #124
Closes #125
Closes #126
Closes #127
2026-08-19 09:06:43 -04:00
yonlu 282dab43eb fix(player): end the stream when the audio source stops producing
BufferedStreamer.Stream treated an empty ring buffer as a momentary
underrun and answered with silence and ok. That is right while the
read-ahead is still going to deliver something, and two of its three
exit paths left it never going to: a Close, and a source returning
(0, true) in a loop. Neither set done, so the ring drained and every
call after it was silence claiming to be audio, for the life of the
process.

Nothing above this type could tell that from healthy playback. The
beep.Seq chain never ended, so the player stayed in Playing with the
button showing pause; the decoder's position never moved, so the 1 Hz
report pinned the seek bar at a constant -- and since every report
resets the bar's interpolation, the report actively suppressed the one
thing that would still have moved it. A frozen bar over a track that
was not playing, with no watchdog anywhere to notice.

Every exit now marks the stream done, and the silence fill is bounded
by a duration *and* a run of calls. It needs both. Wall clock is the
real measure, because the speaker paces itself and a stall is a
question about time -- but a caller draining in a tight loop makes
hundreds of calls in microseconds and would outrun a duration alone.
A call count alone is the opposite failure, and not a hypothetical
one: the first attempt used one and spent the whole budget before the
read-ahead goroutine had been scheduled once, ending a perfectly good
stream at sample zero and breaking TestBufferedStreamer_BasicStream.

Err is plumbed out at the same time, because a drained source and a
failed one both arrive as (0, false) and are not the same event.
Reading it is a separate change; without it there is nothing to read.

Closes #122
2026-08-19 09:05:55 -04:00
logan cc9df4004c Merge pull request 'Surface a confident autotag match on the album page' (#121) from feat/28-autotag-match-on-album into main
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The album page says when the autotagger has a confident match for what
you are looking at, and can apply it. The tier behind "confident" is
one name shared with strict auto-accept (#90), and the lookup costs no
MusicBrainz request.

Closes #28
2026-08-19 06:49:49 +00:00
logan b5d70ac1cd feat(explore): offer the autotag match on the album page
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The complaint was having to notice the metadata was missing, then go
and hunt the album down on the Autotag page. The album page now says it
while you are looking at the thing: "MusicBrainz has a match for this
album: <release> by <artist>", with Apply tags and Review in Autotag.

Four things about it are load-bearing.

**Applying is offered only where it would do the whole album.** A
tagging group is a folder, so a multi-disc album is several, and one
button that applied to the best-scoring group would leave the album
holding a mix of old and new tags — the exact case the app's Blocking
notification level exists for. `groupCount` is the test, and the answer
there is review rather than apply.

**It rewrites files, so it asks.** `confirmAction()` with an impact
line that says it cannot be undone and that nothing is moved or
deleted, because "rewrites your files" reads worse than it is. The
apply goes through `ApplyAsync`, the registered-job path, so progress
belongs to the jobs indicator and this page does not grow a second one
— what it owes the user is the acknowledgement, because the button is
here. The suggestion clears itself on success rather than inviting a
second click while the job runs.

**The banner does not quote a percentage.** The backend has a score and
deliberately keeps it out of the sentence: 0.95 reads as a probability
and is not one. Which release it is, is the part a person can judge.

**"Review in Autotag" lands on that album.** The queue is sorted by
score so the intended folder is often near the top, and "often" is a
link that sometimes opens a different album. Autotag is a cached
primary view, so there is no construction to hand a payload to: the
request goes on as an attribute and the view *consumes* it, or every
later visit would reopen a folder the user finished with long ago.

`ICON_AUTOTAG` joins the vocabulary at the same time, on the rule
`ICON_PLAYLIST` was chosen by — an icon names the noun it acts on, so a
suggestion pointing at Autotag wears the Autotag destination's own
mark. It was written inline in the sidebar; two call sites is where a
name stops being one component's detail, so the sweep governs it now.

Verified against the running app with a staged match: the banner, the
confirm dialog's wording, and the navigation landing on the right
folder with the attribute consumed.

Closes #28
2026-08-19 02:34:11 -04:00
logan 9118c16fe3 feat(autotag): answer whether an album has a confident match
`MatchForAlbum(albumID)` is the question the album detail page needs to
ask on open: does the autotagger already have something confident to
say about this album, and what would applying it do.

**It costs no MusicBrainz request.** Everything it needs is on disk —
`tagging_items` carries the top score and release from the background
prefetch, `tagging_candidates` durably holds the scored list. The rate
limiters here are shared with every page the user can open, so a lookup
that fires on page load must not join that queue; a folder nobody has
scored yet answers "nothing", rather than scoring it now.

**The tier is computed, not read.** `tagging_items.score` is the raw
number and `Recommend` is what turns it into a claim, capping it for an
ambiguous runner-up, an incomplete alignment or a folder too small to
corroborate itself. Filtering on the stored score would promise
confidence the scorer had explicitly withheld — which the two-track
test pins.

**Nothing is said about an album the user has already answered for.**
Only a `pending` group qualifies: `confirmed` covers both a finished
apply and an explicit "leave as is", and arguing with the second would
be actively wrong.

The join is `audio_files.group_key`, not a key derived from the folder
path, because a group carved out of a mixed-bag folder is keyed on its
tags — so a path-derived key would find nothing for exactly the
messiest libraries this helps. `GroupCount` is returned because a
multi-disc album is one group per disc: a caller that applied to "the
album" from a single button would retag one disc of three.
2026-08-19 02:34:11 -04:00
logan fe67849e57 feat(autotag): name the confidence tier two features have to share
`ConfidentTier` and `Confident()` are a name for what was about to be
written as `== RecommendationStrong` at two call sites: the album page
telling the user unprompted that there is a match for what they are
looking at (#28), and strict auto-accept rewriting files without asking
(#90). A page that claims confidence the auto-accept pass would decline
is the app contradicting itself, and #90 asks for exactly this — that
the two agree on what "high confidence" means rather than computing it
twice.

What they do not share is written down beside it. Surfacing a match is
a suggestion with a confirm dialog behind it; auto-accept is an
irreversible on-disk rewrite gated on further conditions the tier
cannot express — exact track count, every title matching, lengths
within a couple of seconds, no cover replacement, no MBID conflict. So
this is the floor both stand on, not the whole of either test.

`Confident` is a rank comparison rather than an equality, so a tier
added above "strong" later does not silently stop qualifying.
2026-08-19 02:34:11 -04:00
logan 21b303ba7c fix(ui): stop a closing dialog answering the next question
`confirm-dialog` is one singleton for every confirmation in the app,
and `wa-dialog` reports its close asynchronously: `open = false` starts
an animation and `wa-hide` arrives after it. So a hide belonging to a
question already answered can land after the *next* question has
opened, and cancel it — the user is asked something, the dialog
vanishes on its own, and the call site is told they said no.

Each ask now carries an id. `close` ignores an id that no longer names
the question on screen, the button handlers pass none (they always mean
the current one), and only the `wa-hide` handler carries one, because
only `wa-hide` can arrive late.

Found by writing two `confirmAction()` tests in one file: the second
could not be accepted at all, because the first one's hide had
cancelled it before the click landed. Reaching it in the app needs two
confirmations close together, which the album page's "Apply tags" makes
possible.
2026-08-19 02:34:11 -04:00
logan 9375f25629 Merge pull request 'Demote the album page version selector to a disclosure' (#120) from feat/17-demote-version-selector into main
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Choosing a pressing is a repair job, not the album page's headline.
The selector is a collapsed disclosure below the tracklist; the two
unguarded blocks that shared its slot are gone, and the catalog error
now belongs to the list that is missing because of it.

Closes #17
2026-08-19 05:38:26 +00:00
logan 905654cc84 feat(explore): demote the album page's version selector to a disclosure
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Choosing which pressing you are looking at is an advanced,
metadata-repair task, and it sat directly above the tracklist with a
heading, a `<select>` and a paragraph explaining how our clustering
picks a "standard version" by weighing release count, status and date.
That is a sentence about our own heuristic in the most valuable space
on the page.

It is now "Other versions of this album (N)" below the tracklist: a
real `<button aria-expanded aria-controls>` inside the heading that
names the section, with the body rendered unconditionally and toggled
with `hidden`, because `aria-controls` has to name an element that is
in the DOM. Both rules are `config-section`'s rather than new ones.
It is demoted, not removed — matching the wrong release is a real
problem and this is how it gets fixed.

**Two more blocks shared that slot and neither was guarded.** The
selector at least had `distinctTracklistCount() <= 1`; the
`Versions / Loading releases…` spinner and the `Versions / <error>`
block did not, so both took the primary position on every album
regardless of whether there was ever going to be a choice. The spinner
said what `renderTracklist` was already saying about the same fetch, so
it is gone. The error was the one `catalog-scope-notice` shows at the
top of the page with a retry — every path that sets `errorReleases`
also sets `catalogFailed`, the only route to `unavailable`.

That error is what made this a rewrite rather than a move.
`renderTracklist` returned `nothing` on `errorReleases` and leaned on
the selector's own block to have said it, and a control inside a
collapsed disclosure cannot be a page's error surface. The failure
belongs to the list that is missing because of it, so that is where it
is drawn.

**What must not be lost is which version is on screen.** The default is
what the header already describes, so saying it on every album would be
this issue's own complaint one size smaller. `defaultVersionKey` is the
test: a line appears above the tracklist only once someone has chosen
another, naming it and offering the way back. The ★ and the words "in
your library" survive unchanged inside the panel, and the panel does
not close when the selection changes — a panel that shuts on use cannot
be used twice.

The `<select>` also loses an `aria-label` of "Select release version"
that outranked its own visible `<label>Version</label>`, which is a
label not in the name.

Verified against the running app as well as the suite: the collapsed
page, the open panel, a chosen version and 390px width all read
correctly, and the shell still measures 390 in a 390 viewport.

Closes #17
2026-08-19 01:24:49 -04:00
logan 219fa3c615 Merge pull request 'Make it obvious everywhere when you are looking at things you do not own' (#117) from feat/38-ownership-visibility into main
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Owned is plain; unowned is dimmed, named and requestable; a partly-held
album says how partly. Ownership is a file (`localId`), never the
`in_library` ratchet.

Closes #38
2026-08-19 05:11:43 +00:00
logan c4e055ce51 docs: write down which of the two ownership columns to read
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The `localId` / `inLibrary` choice outlives #38 — every future catalog
surface has to make it, and the code read them as an OR at eight call
sites precisely because nothing said they were different kinds of
thing. CLAUDE.md gets the rule and its four load-bearing details;
NOTES.md gets the measurement, the card that used both answers at once,
and the alternative that was rejected.
2026-08-19 00:50:53 -04:00
logan 10eca353ab fix(explore): gate playback on the same answer the row is drawn from
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Two play paths still accepted `inLibrary`, so a row drawn dimmed and
`aria-disabled` by the new rule would still attempt to play and fail
with "this track could not be found in your library" — the disagreement
this pass exists to remove, one layer down from the badge.
2026-08-19 00:39:18 -04:00
logan 88fc50afb8 feat(explore): mark what is not owned, everywhere it can be shown
`explore-album-details` had the rule right for one tracklist and
nothing else did: Explore's cards, `top-results-row` and the artist
page's three card shapes all mixed owned and unowned with a small badge
as the only difference, and drew a green tick on the *common* case —
which is the treatment that tracklist's own green ticks were removed
for.

`utils/ownership.ts` is the rule written once, so eight call sites
stop each holding their own version:

- owned is plain, and draws no badge at all;
- unowned is dimmed *and* says so in its accessible name, because
  dimming is a colour and cannot be the only signal;
- a partly-held album says how partly.

**Ownership is a file, and `localId` is the flag that says so.** The
album page answers with `filePaths`, a real file per displayed track; a
card grid cannot afford that and does not need to, because
`local_*_id` is built by queries that all join `audio_files` and
cleared by a prune whose existence test is a file test in every case.
`inLibrary` is written by the same pass, so the two agree in a healthy
database — but it is a one-way ratchet (`MAX(in_library, excluded)`)
whose only clearing pass is gated on a non-null local id, so it cannot
be un-set on its own.

Where they already diverged was the client. Both `explore-view` and
`explore-artist-details` kept a `libraryMBIDs` set that accumulated
every MBID ever seen with `inLibrary` and cleared it never, in views
that never unmount. Both are deleted.

And one card answered the question twice and got two answers:
`renderReleaseMenuItems` gates Play on `localId > 0` while the badge
and `albumTarget.owned` used `inLibrary`, so an album with the flag and
no local row drew a tick saying it was in your library, offered no
Play, and — the request item being gated on *not* owned — offered no
way to ask for it either.

The count comes from `completenessStore`, shaped like `credit-store`:
`request()` is per-card and coalesces a screenful into one
`GetAlbumsCompleteness`, absence is cached as an answer, and the whole
cache is dropped on a scan, a retag or a removal rather than aged.

`aria-disabled` goes on rows that cannot be activated and deliberately
not on cards: an unowned card still navigates to the catalog page for
it, which is a perfectly good thing to do with something you do not
own.

Audited and unchanged: `home-view`, `downloads-view`, `cover-grid`,
`artist-details` and `genre-details` cannot show catalog content, so
everything on them is owned and "owned is plain" is already what they
do. The album page's own header badge stays, because that page is about
one entity and the badge is its answer rather than a mark on one of
many.

Closes #38
2026-08-19 00:38:22 -04:00
logan 19c68d73a7 fix(ui): keep the count in a partial badge that can act
A control is named after what activating it does, so an actionable
badge said "Request album X" — and `partial` is actionable, because an
album you hold nine of twelve tracks of has three left to ask for.
That made the one state the ring exists for the one state whose name
did not mention it.

The argument the `partial` branch already carries does not stop
applying because the badge became clickable: a ring says "some" to a
sighted user and nothing to anyone else. The name is now the action and
the count.
2026-08-19 00:38:05 -04:00
logan 41c41a860e feat(explore): carry the local row id on a top result
`TopResult` was the one projection here that shipped `inLibrary` and no
local id, so the top-results cards had no choice but to read the weaker
flag. Every sibling model — `MBArtist`, `MBReleaseGroup`, `MBRecording`
— already carries `LocalID`, and the candidate builders had the value
in hand at every construction site.

`LocalID` is set and cleared by a test against `audio_files`, so it
means "there is something of mine here". `InLibrary` is written by the
same pass but is a one-way ratchet the prune can only clear alongside a
local id; it stays for scoring, which is where an approximate answer is
fine.
2026-08-19 00:37:57 -04:00
logan 4bf59b45b7 feat(library): answer album completeness for a screenful in one query
A card grid has to know how much of an album is here — an album held 2
tracks of 10 wearing the same green tick as one held whole is the
complaint the badge-accuracy work was filed about — and
`GetAlbumCompleteness` is one query per album, which is fifty round
trips for a grid of fifty.

`GetAlbumsCompleteness` is the same question over a slice. It is two
grouping levels rather than the single-album form's correlated
subqueries, because a correlated subquery in the FROM clause is not
something SQLite will reliably do, and because the slice may only be
spelled once or sqlc expands it twice with independently numbered
placeholders.

An album with no files is absent from the result rather than zeroed:
"I have none of this" and "I have no idea" are the third state `Known`
exists to keep apart.

The test that matters is that the two spellings never disagree — they
are genuinely different SQL, so the risk is a drift in meaning (a
disc's total counted once per file, a duplicate counted twice) rather
than a typo.
2026-08-19 00:37:46 -04:00
logan fc99d9e0d7 Merge pull request 'Make a release a shipment rather than a merge' (#116) from ci/115-manual-release into main
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Closes #115
2026-08-19 02:36:01 +00:00
logan 90f1239fba ci: make a release a shipment rather than a merge
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release.yml fired on every push to main, so the trigger was "a PR was
merged" and nothing else decided. That is a version per unit of *work*
rather than per *shipment*: eight releases in twenty-two hours, v0.0.1
through v0.3.1, for one session -- each fanning out to four publishers on
a runner with capacity 1, so roughly forty packaging jobs shipped three
issues while ordinary PR CI queued behind them. pacman, Homebrew and
Obtainium see every one.

The push trigger is gone and workflow_dispatch, which was already there
and already worked, is the whole mechanism. Nothing else had to change to
batch releases, because semantic-release already reads every commit since
the last tag: five fixes and two feats become one minor release with all
seven in the notes. Release frequency was only ever how often this file
fired.

This is the rule index-artifact.yml states and is the other instance of:
a job that mutates state which cannot be rebuilt in ten minutes is
triggered deliberately, not by a push. A release here is a tag, a Gitea
release, an Arch package, a Homebrew formula, a signed APK and desktop
assets -- and an Android version going backwards costs the user their
library.

`dry_run` is what makes a manual trigger usable: the point of pulling a
lever by hand is being able to look first, so the input runs
semantic-release --dry-run -- the version and the notes, no tag, no
release, no publishers. Anything but the literal string "true" releases
for real, because a typo in a dispatch box must not silently turn a
shipment into a green no-op.

Two alternatives were considered and rejected, both recorded on the
issue. A `beta` integration branch relocates the trigger rather than
removing one: it needs a second protected branch carrying the same
required checks, and it *adds* a full check + e2e run per batch on the
very runner whose queue is the complaint. A schedule batches without
anyone having to remember, but puts the decision back on a timer, which
is the thing being removed.

Closes #115
2026-08-18 22:25:11 -04:00
logan b2fe1cb1e0 ci: skip a prerelease tag in all four publishers
Their trigger is `v*`, which matches `v0.4.0-beta.1`. They guarded
`v0.0.0` -- the version floor -- and nothing else, so the first
prerelease tag would have published a beta everywhere.

Nothing produces one today. The guard is here because the thing that
would is `prerelease: true` in .releaserc.yml, a one-line change whose
blast radius is four public channels and which nothing in those four
files mentions. That is the same argument release.yml's `chore(release):`
guard is kept on: cheap, against something a future edit turns on
somewhere else entirely.

android-apk is the worst of the four twice over. Its APK goes to the
*generic* registry, which is readable without credentials so Obtainium
can poll a plain URL, so a beta would be offered to every device on it.
And its versionCode maths splits on dots: it would read "1" out of
"0-beta" and produce a wrong number rather than a failed build, which
matters because Android orders releases by that integer and refuses
anything not greater than what is installed.

Each is a clean skip rather than a failure, matching the v0.0.0 guard
beside it: a red run against a tag that was never meant to ship is noise.
2026-08-18 22:25:11 -04:00
logan 065a879190 Merge pull request 'Give the icons one vocabulary and sweep the call sites' (#114) from feat/34-icon-language into main
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Closes #34
2026-08-19 01:37:34 +00:00
logan 89882b4863 refactor(ui): give the icons one vocabulary and sweep the call sites
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`plus` meant "add to the queue", "add to a playlist", "make a new
playlist" and "you do not own this" -- the first two adjacent in the
same context menu, so two neighbouring items were the same glyph doing
different things. `list` meant the queue (the button that opens it), the
Playlists destination, and adding to the queue in `queue-panel` alone.
Two icons carrying seven meanings is not a vocabulary, and nothing
catches it: a wrong-but-real icon renders perfectly.

`utils/icon-language.ts` is the table, beside `library-status.ts` as the
issue suggested. The rule it is built on is that an icon names the
**noun** it acts on, not the verb: "add to queue" and "add to playlist"
are one verb on two nouns, so the noun is what differs -- which is why
adding to a playlist wears the Playlists destination's own icon, and why
the queue took `bars-staggered` and stopped wearing Playlists'. `plus`
keeps the one meaning it is unambiguous about, making something that is
not there yet, which covers New Playlist and the drop zones.

`bars-staggered` is the only new glyph, vendored through names.txt and
fetch-icons.mjs after confirming it is in Font Awesome **Free** 7.3.1.

Two things this found rather than changed:

- The request toggle's outline/solid pair was already in the app and
  already right -- `explore-album-details`'s "Request this" button has
  used `regular/bookmark` -> `solid/bookmark` since it was written --
  while the badge forty pixels away showed a **plus** for the same
  state. That is `utils/library-status.ts`'s fault one layer down: it
  made the two surfaces agree on what wanting *means* and left them
  disagreeing on what it looks like.
- `explore-artist-details`'s Follow button was `bookmark-check`, which
  is Font Awesome **Pro** and has never been bundled, so it has drawn
  the missing-icon fallback -- a circled question mark -- for every
  followed artist since it was written. `requested-badge.spec.ts` was
  written for exactly this bug on the album button and says so in its
  docstring; this is the same bug one component over, still live,
  because `offline-icons.spec.ts` sweeps `__yjIconMisses` and no spec
  had ever followed an artist.

So the test does what reaching the state cannot. `icon-language.test.ts`
reads every `src/**/*.ts` as raw text and fails on a governed name
written outside the table, and separately asserts every `ICON_*` is a
*bundled* name -- which is what makes a Pro name a failing test rather
than a runtime report from a state something has to reach first. Its
first assertion is that it read any source at all, because a sweep over
an empty glob passes.

`chrome.test.ts` asserted `['check', 'bookmark', 'plus']` and so pinned
the badge's glyphs against the vocabulary they were meant to follow; it
names them from the table now, and keeps the assertion that the three
differ, which is the property the states actually need.

Downloads keeps the solid bookmark on purpose. That is one word twice,
not two words: the badge says the entity is on your list and the nav
item is that list.

Closes #34
2026-08-18 21:18:36 -04:00
logan 18a08daa91 Merge pull request 'Let the album page be asked for the whole tracklist' (#113) from feat/7-full-tracklist-toggle into main
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Closes #7
2026-08-19 01:10:34 +00:00
logan aa59773d22 feat(explore): let the album page be asked for the whole tracklist
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An album the user holds part of showed only the tracks on disk, with
nothing to say the rest existed. The page could already draw the full
release with the missing rows dimmed -- it just could not be asked: the
automatic rule fires on `completeness.known`, which depends on the files
declaring a per-disc total, or failing that on the catalog's own
`total_tracks`.

Neither reaches most albums. #16 fixed the first input for anything
tagged from now on, and the second is worse than it looks: the published
artifact is from 2026-08-10 and the column landed on 08-16, so
`completenessAnswer()`'s catalog fallback answers 0 for every user until
the index job republishes. Measured, and noted on #88, which is the
publish that carries it.

So the control is explicit. A "Show the whole album" switch flips the
synthetic "Your Library" entry between the local files and the release,
which is the same rendering, reached deliberately rather than inferred.

Three things about it are load-bearing:

- `showFullTracklist` is a tri-state, `null` meaning "follow the
  automatic rule". The rule is right when it fires, and the switch has
  to agree with the page it is sitting on rather than starting out
  contradicting it -- a plain boolean would need its default recomputed
  every time the completeness answer moved underneath it. The user
  outranks the rule in both directions.
- `fullReleaseCluster()` falls back to the highest-scoring cluster.
  `findLibraryCluster` is a guess over the `inLibrary` flags and returns
  nothing at all when none are set, which is exactly the untagged
  library this exists for -- without the fallback the control would be
  absent precisely where it is needed. The sublabel names the release
  either way rather than leaving the user to wonder whose tracklist they
  are reading.
- It appears only where it can change what is on screen: against the
  library entry, with a release to switch to, and only when the two
  tracklists differ. A complete album's release has the same rows as its
  files, so the switch would redraw the same list and read as broken --
  the same test the version dropdown one section up already answers.

The accessible name is asserted rather than assumed, through the
browser's own computation. `wa-switch` happens to get it right, and for
a third reason again: its `<input role="switch">` sits inside a native
`<label>` that also holds the `<slot>`, so the name is computed across
the flattened tree from light-DOM text. This app has shipped the
opposite twice.

Closes #7
2026-08-18 20:49:08 -04:00
logan a4777f26b6 Merge pull request 'Declare the track and disc totals when tagging' (#105) from fix/16-tagwriter-totals into main
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Closes #16
2026-08-19 00:45:07 +00:00
logan 92faa9741b Merge branch 'main' into fix/16-tagwriter-totals
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2026-08-18 20:32:08 -04:00
yonlu bf0a53e64c Merge pull request 'Give the unclaim step a CA bundle' (#110) from fix/unclaim-ca-certs into main
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Reviewed-on: #110
2026-08-18 23:30:31 +00:00
yonlu 7be4a02e31 fix(ci): give the unclaim step a CA bundle
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Second defect in the same workflow. The shell fix took -- the step ran
under `bash --noprofile --norc -e -o pipefail` -- and got one layer
further before failing:

  curl: (77) error setting certificate file: /etc/ssl/certs/ca-certificates.crt

ubuntu:24.04 ships no CA bundle, and --no-install-recommends skips the
ca-certificates that curl recommends, so curl came up unable to verify
TLS against our own Gitea.

This was avoidable by reading the repo rather than reasoning about it:
ci.yml (twice), desktop-assets.yml, android-apk.yml and release.yml all
spell out `ca-certificates curl ... jq` for exactly this reason. The
convention was written down five times already.

Validated in the real image this time rather than by extracting the
script and running it on the host, which is what missed this: the step
now succeeds inside `docker run ubuntu:24.04` against a scratch issue --
label present, 204, label gone -- and the previous version reproduces
`curl: (77)` in the same image. Both checked, then the scratch issue was
deleted.

The DELETE also keeps its response body now and prints it on a non-204.
Whether the automatic token carries issue-write scope is still unproven,
because both failures happened before the API call, and "403" without
Gitea's own sentence would cost another merge to interpret.

Closes #102
2026-08-18 19:08:50 -04:00
yonlu ad9c25a5a2 Merge pull request 'Run the unclaim step under bash' (#108) from fix/unclaim-shell into main
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Reviewed-on: #108
2026-08-18 23:05:38 +00:00
yonlu a83a127e31 fix(ci): run the unclaim step under bash
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The workflow shipped in #103 and failed on every close, on its second
line, before reaching the API:

  shell: sh -e {0}
  /var/run/act/workflow/0.sh: 2: set: Illegal option -o pipefail

Inside `container:` the act runner selects sh, not bash, and
`set -o pipefail` is a bashism. homebrew-formula.yml carries the same
line without trouble because it runs with no container, on the host
image where bash is the default -- so "another workflow does it" was
not the evidence it looked like, and the comment now says so where the
next person will read it.

pipefail is kept rather than dropped for POSIX's sake: the lookup is
`curl -sSf ... | jq`, so without it an API error yields empty output,
an empty label id, and a cheerful "nothing to do" on every close. A
silent no-op is the one outcome worse than a failing job here.

Validated end to end against scratch issues rather than by reading it:
with the label present the step returns 204 and the label is gone, and
against an issue that never carried it the step also returns 204 and
exits 0 -- which is what makes it safe to run on every close rather
than only claimed ones.

Still untested: whether secrets.GITEA_TOKEN carries issue-write scope.
The old run never got far enough to find out. If it 403s, the fix is
one line -- secrets.PACKAGE_TOKEN, which is a user PAT.

Closes #102
2026-08-18 18:54:39 -04:00
logan 4b9114fd8d fix(tagwriter): declare the track and disc totals when tagging
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An album the user holds 2 of 10 tracks of showed a green tick reading
"is in your library", and the mechanism was our own writer. tagwriter
wrote track and disc *numbers* and dropped the totals, so autotagging a
folder made the release MBID-matched -- which is what earns the tick --
while erasing the one field GetAlbumCompleteness reads. The evidence
for "2 of 10" was destroyed by the act that produced the tick.

FieldTotalTracks and FieldTotalDiscs are written as the ID3 "n/N" form
and as Vorbis TRACKTOTAL/DISCTOTAL; the autotag apply pass and the
download importer fill them from the release's own tracklist; and
dbsync persists the track total to audio_files.total_tracks so the
album page agrees with the file without waiting for a rescan.

Five things about it are load-bearing, and four fail silently:

- The total is per *disc*, not per release, because that is what the
  tag form declares and what GetAlbumCompleteness sums per disc. A
  release total on every file multiplies a two-disc album's expectation
  by two, which no library can satisfy. backend/tagtotals is that
  derivation once, since the two callers must not import the writer or
  each other.
- The Vorbis names are TRACKTOTAL and DISCTOTAL and no other spelling.
  dhowden/tag reads exactly those two keys, so TOTALTRACKS -- which
  xiph lists and several taggers write -- or a "1/12" packed into
  TRACKNUMBER writes successfully and reads back as no total at all.
  The tests therefore assert the round trip through the reader the scan
  uses, not through the bytes.
- ID3's number and total share one frame, so writing either alone must
  read the other off the existing tag or discard it. A total with no
  number is not written: "/12" parses as track 0.
- The totals are written unconditionally rather than on a diff. The
  case this exists for is a file declaring no total at all, which
  compares equal to nothing and is exactly what a "only if it changed"
  guard skips.
- A single-track download is not totalled. A RecordingMBID anchor
  resolves Expected to that one track, so the same code would tag a
  track off a twelve-track album "1 of 1" -- and a declared total
  outranks the catalog total that would have answered correctly.

autotag's field constants are a second copy of tagwriter's, deliberately
so autotag stays out of the write pipeline's import graph. A key that
drifts neither fails to compile nor fails to write -- the writer simply
finds nothing under the name it looks for -- so autotagservice, the one
package importing both, now pins them.

Steps 2 and 3 of the issue stay open under #38: the catalog fallback
already landed as completenessAnswer(), and the badge call-site audit is
the part that overlaps it.

Closes #16
2026-08-18 18:19:54 -04:00
yonlu e049a71458 Merge pull request 'Drop the claim label when an issue closes' (#103) from ci/unclaim-on-close into main
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Reviewed-on: #103
2026-08-18 21:57:11 +00:00
yonlu 0c944f2382 ci: drop the claim label when an issue closes
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A `Closes #N` footer closes the issue on merge and leaves
`Status/In Progress` on it, because Gitea's auto-close touches state
and nothing else. #100 was closed and simultaneously marked as being
actively worked on. `scripts/issue.sh close` does drop the label, and
is exactly the call the footer exists to avoid making.

This hooks the close rather than the merge. Stripping the label in the
PR would work and would be a per-PR habit, which is what the footer
removed in the first place; `issues: [closed]` covers the footer,
issue.sh close and a click in the web UI alike, and asks nothing of
anyone at any of them.

Reopening deliberately does not restore the label: reopening says the
work was not finished, not that somebody is at a keyboard now.

Two costs, both stated in the file rather than discovered later. The
runner has capacity 1 and is shared with an index build that can hold
it for three hours, so this is not instant -- stale for an afternoon
beats stale forever, which is what it was. And it is an eighth
workflow, so CLAUDE.md's count moves with it.

The audit stays, because a workflow that silently stops firing is the
failure mode this area has already produced once:

  ./scripts/issue.sh list --state closed --label "Status/In Progress"

Closes #102
2026-08-18 17:36:05 -04:00
yonlu 75525b67e4 Merge pull request 'Put the closing keyword where Gitea will actually read it' (#101) from docs/closing-keyword into main
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Reviewed-on: #101
2026-08-18 21:30:35 +00:00
yonlu 85768dc489 docs: put the closing keyword where Gitea will actually read it
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CLAUDE.md said the Closes list was unreliable and to close by hand. It
is unreliable for a specific reason, and the rule can say what works.

Gitea parses commit messages that reach main. It does not parse the PR
body, which closes something only if the merge happens to copy it into
the merge commit message. Both halves were measured here: #83's merge
commit carried "Closes #9, #13, #14, ..." and closed five of the ten,
because a comma list is only partially matched; #93's merge commit body
was a lone Reviewed-on: trailer, so #92 stayed open behind a perfectly
correct Closes line in the PR description.

So the keyword goes in the commit body as a footer, one issue per line.
That costs nothing elsewhere -- Conventional Commits allows a footer,
commit-check only regexes the subject, and semantic-release reads the
type from the subject, so no release decision changes. The existing
rule that the issue number stays out of the subject is untouched and
was never about the body.

The verification step stays, because a squash or a hand-edited merge
message still drops the footer.

This commit is the experiment: if #98 and #100 close when this branch
merges without anyone touching them, the mechanism is confirmed.

Closes #98
Closes #100
2026-08-18 17:15:28 -04:00
yonlu 1a221a40d3 Merge pull request 'Delete four documents that contradict the code' (#99) from docs/retire-stale-planning-docs into main
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Reviewed-on: #99
2026-08-18 21:06:59 +00:00
yonlu 0821deb877 Merge branch 'main' into docs/retire-stale-planning-docs
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2026-08-18 20:55:52 +00:00
yonlu 31ada14111 docs: delete four documents that contradict the code
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They do not merely lag it, they contradict it, which is worse than
absent: the only way to find out one is wrong is to trust it.

docs/dev/roadmap.md, 1648 lines. Its "Current State" describes an app
with basic playback, a track list and an album grid. Phases 1, 2, 3 and
5 have shipped entire -- playlists, shuffle and repeat, shortcuts,
virtualised lists, search, custom columns, smart playlists, the
MusicBrainz client, autotag. Its Decision Log records "Testing:
Deferred" against 836 Vitest tests, a Playwright suite on two engines
and race-detector passes in three build configurations.

.pi/journal.md, "what happened and what's next", frozen at plan 005 and
still saying everything from phase 1 onward is uncommitted. That is the
tracker's job now, and a work log that is wrong about what is committed
is a hazard rather than a stale file.

docs/dev/overview.md, a shallower and partly incorrect CLAUDE.md
architecture section. README pointed at it and points at CLAUDE.md now.

docs/dev/config-suggestions.md, eight suggestions of which one survived
-- the rest were overtaken by rewrites: applyDefaults exists, scan
concurrency is configurable with SSD/HDD detection, and httphandler.go
and the WriteHeader-after-render bug it described are gone entirely.

Nothing is lost: the genuinely unbuilt work was filed first, as #94
device sync, #95 layout customisation, #96 AcoustID and #97 the config
setters that take no lock.

Refs #98
2026-08-18 16:39:21 -04:00
yonlu 20139394f3 Merge pull request 'Make the issue tracker the source of truth' (#93) from docs/issue-driven-workflow into main
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Reviewed-on: #93
2026-08-18 20:35:44 +00:00
yonlu eb139cf872 docs: make the issue tracker the source of truth
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Work has been starting from a chat message and a plan file, so two
people could pick up the same thing and neither could see the other.
The tracker is where that is visible.

Search before starting, claim before the first edit -- not before the
commit, since the point is that the other person can see the work is
taken while it is being done. If no issue covers it, open one first:
that is what makes the tracker a description of the project rather than
a description of the past.

The conventions were already right and are written down rather than
reinvented -- the Kind/Area/Priority/Platform/Reviewed/Status taxonomy,
its exclusive scopes, #73 as the roadmap, real Gitea dependencies for
hard blockers, and PR #83's body shape.

What #83 also demonstrated is that a Closes list closes nothing
reliably: it listed ten and five of them sat open in main for a
fortnight. So closing is a step you take and verify, not a keyword you
trust.

.planning/ stops being a queue and keeps design documents and measured
history -- NOTES.md, the audits, the completed plans and the arguments
in them. plans/pending/ is gone, because a plan nobody is executing is
an issue; everything unimplemented in it is now #85-#91, and each
completed plan says which issue carries its remainder. autotag.md is
kept as a historical record, marked stale where the scoring overhaul
overtook it.

The commit grammar is unchanged and is load-bearing for a different
reason, so the issue number lives in the branch name and the PR body
rather than the commit subject.

Refs #92
2026-08-18 16:23:52 -04:00
yonlu ae82fd2233 chore(scripts): reach the issue tracker from the command line
Issues become this project's source of truth for what is wanted and what
is already being worked on, which puts "search the tracker" at the top of
every task rather than occasionally. Fifty-odd open issues make that a
real lookup, and a lookup nobody can remember the shape of is a lookup
that gets skipped -- the same way the CI log endpoint cost two sessions
to a tool that 404s.

Text reaches the API as JSON and never as shell, which is why the
formatting half is its own Python file: an issue body is arbitrary prose
carrying backticks, quotes and $, and every attempt to build that JSON
inside the shell ends in nested quoting nobody can verify. Same reasoning
that keeps release notes out of gitea-release.sh's argument list.

Claiming is an assignment, a label and a comment together, because any
one alone is a claim somebody has to go looking for. It resolves the
comment before it mutates anything -- reading it afterwards is how a
claim ends up half-made, with the issue saying it is taken without saying
by what work -- and refuses outright if somebody else holds it.

Three API shapes are pinned here because each fails quietly:

- Labels are resolved to ids rather than posted as names. Gitea accepts
  a list of unknown names with 200 and applies none of them, so a typo
  reports success and does nothing.
- The dependency endpoint takes a whole IssueMeta, not an index. A body
  of {"index": 88} answers 404, which reads exactly like a Gitea build
  without the feature.
- close drops Status/In Progress, or a claim outlives the work.

Refs #92
2026-08-18 16:23:39 -04:00
logan 3c3197df4b Small-fix batch: ten issues from the desktop backlog (#83)
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Rolls up #82 (@yonlu) and #74, #75, #76, #77, #78, #79, #81 as one push, so the batch cuts one release rather than eight.

Closes #9, #13, #14, #19, #26, #29, #33, #35, #37, #41.
2026-08-18 16:18:36 +00:00
logan e16bd245bd Merge remote-tracking branch 'origin/fix/queue-toggle-state' into integration/small-fixes
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2026-08-18 11:37:33 -04:00
logan 887a9324b4 Merge remote-tracking branch 'origin/fix/drag-count-badge' into integration/small-fixes 2026-08-18 11:37:33 -04:00
logan fcb484ead5 Merge remote-tracking branch 'origin/fix/album-card-year' into integration/small-fixes 2026-08-18 11:37:33 -04:00
logan 48de41cd69 Merge remote-tracking branch 'origin/fix/album-tracklist-heading' into integration/small-fixes 2026-08-18 11:37:33 -04:00
logan 66a6ee63ab Merge remote-tracking branch 'origin/fix/seek-bar-clock-width' into integration/small-fixes 2026-08-18 11:37:33 -04:00
logan 10660c8168 Merge remote-tracking branch 'origin/fix/wanted-without-client' into integration/small-fixes 2026-08-18 11:37:33 -04:00
logan 441b67daaa Merge remote-tracking branch 'origin/fix/album-track-request-badge' into integration/small-fixes 2026-08-18 11:37:33 -04:00
logan 026f26bdf6 Merge remote-tracking branch 'origin/fix/small-issue-batch' into integration/small-fixes 2026-08-18 11:37:33 -04:00
logan 73dc80bdc9 fix(explore): stop hiding the request badge until the row is hovered
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The badge on a row you do not own was transparent until the row was
hovered or focused. That rule was inherited from the green ticks it
replaced, and it does not survive the reason those went: a tick marked
the *common* case, while this marks the rows that are not here. A mark
on the exception is the information on this page, and one that appears
only under the pointer cannot be seen, counted, or reached by anyone
driving the app with a finger.

The repaint half of #33 is fixed in #82; this is only the visibility,
rebased to leave that alone.

Refs #33
2026-08-18 11:31:49 -04:00
logan 760021ea5a fix(downloads): stop searching a list there is nothing to search with
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Every pass attempted every request, each came back "no download clients
are enabled", and RecordAttempt wrote that down as an attempt and put a
retry on the clock -- so a wanted list built deliberately without a
client accrued failures and announced "next check in 6 hours" about a
check that cannot happen.

Wanting something with no way to fetch it is supported. Being told it
is being looked for is a lie, and the row says what is true instead.

Everything above the attempt still runs: an artist subscription still
expands, and a request satisfied by some other route -- ripped, bought,
copied in -- is still retired. Neither needs a provider.

TestReconcileRespectsBatchSize now installs a client that finds
nothing, because a batch size is about how many requests one pass
searches for and that only means something when there is something to
search with.

Refs #37
2026-08-18 11:26:35 -04:00
yonlu 63ec068add Merge branch 'main' into fix/small-issue-batch
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2026-08-18 15:22:56 +00:00
logan a2ff0aed4c fix(ui): make the queue button say whether the queue is open
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It looked identical in both states, so the only way to tell what
pressing it would do was to look at the other side of the window and
infer it -- and for anyone not looking there was nothing to infer from:
no aria-expanded, no aria-controls, no drawn state.

The state is reflected *from the panel* rather than kept beside the
click. This button is not the only thing that opens the queue --
now-playing-view sets the same attribute, because it hides the bar the
button lives in -- so a flag maintained by the click handler would be
right until something else opened the panel and then quietly wrong.
The panel's `open` attribute stays the one fact; a MutationObserver
reflects it.

Refs #26
2026-08-18 11:15:32 -04:00
logan 12e75ee24c feat(ui): badge an album drag with how many tracks it carries
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Dragging an album to the queue put its cover under the cursor and said
nothing about how much that was -- an album is 1 track or 30 and the
thumbnail is the same picture either way, so the one number the drop is
about was the one thing the drag did not show. Every other drag in the
app already says it; this was the exception, because it had a picture
to show instead.

A count of 1 draws no badge: "1" over a single cover is noise, and the
absence reads clearly beside a badge that only appears above one.

The badge sits inside the cover's box rather than overhanging it,
because setDragImage snapshots the element and anything outside it
risks being clipped -- while padding the box instead would move the
cover away from the cursor.

Refs #19
2026-08-18 11:10:09 -04:00
logan 792e87298b fix(ui): stop the album grid eating the year it was sorted by
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The year sat inside the same ellipsis box as the title, so it was the
first thing truncation took: a card wide enough for a long album name
never showed its year, and browsing the grid *by year* showed years
only for the albums with short names. The sort said one thing and the
cards showed another.

Title and year are now a flex row where only the title gives way. A
row rather than a second line, because the card's height is what the
virtualizer measures rows by.

Refs #29
2026-08-18 11:08:37 -04:00
logan 266e7032dd fix(explore): stop labelling the album tracklist "TRACKLIST"
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A list of numbered titles with durations, under the album's cover, was
the one thing on the page carrying a word above it saying what it is.

What goes is the ink and not the element: the section is a landmark and
the page's heading structure runs through it, so the h3 stays and is
clipped the way sr-only clips -- never display:none, which would take
it out of the accessibility tree along with the layout.

Refs #9
2026-08-18 11:06:14 -04:00
logan d6b48fb3ac fix(player): stop the seek bar resizing as its clocks count
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Two different things moved it and they need different answers. Digits
in a proportional font are different widths, so 1:11 is narrower than
4:08 and the bar breathed once a second -- tabular figures fix that.
The character *count* changes too, at the hundredth minute and whenever
the right-hand clock is toggled to remaining and grows a minus sign,
which a figure width cannot fix -- so each clock reserves the widest
string this track can put in it.

The budget is per track rather than a constant: reserving six
characters on every track would push the slider in by a character at
each end to buy nothing.

Measured in the component tier: 4.5px of drift across three positions
before, none after.

Refs #13
2026-08-18 11:04:21 -04:00
yonlu 3bf27e3fd5 Merge pull request 'Fix/explore art scanner requests' (#21) from fix/explore-art-scanner-requests into main
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Reviewed-on: #21
2026-08-18 13:48:37 +00:00
yonluandClaude Opus 5 185eb1b125 feat(smartplaylist): let a rule set match any rule, not only all of them
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The conditions were joined with " AND " and nothing else, so a smart
playlist could only ever narrow: "jazz released after 1960" was
expressible and "jazz or blues" was not, which is most of what anyone
reaches for a second rule to say.

`RuleSet.Match` is "all" or "any", and an empty match is "all" — which
is what every playlist saved before the field existed carries, so an
upgrade cannot silently widen one. ParseRuleSet rejects anything else
rather than falling through to AND, since a playlist quietly returning
the wrong tracks is worse than one that refuses to be saved.

Under OR each condition is parenthesised and under AND it is not: AND
is the tighter operator, so an OR-join has to protect a condition
carrying a top-level AND of its own — `days_since_played less_than` is
two predicates belonging to one rule.

The editor shows the choice as a sentence with the control in the
middle, and hides it while there is one rule: with nothing to combine,
all and any are the same query.

Closes #35

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
2026-08-18 08:06:16 -04:00
yonluandClaude Opus 5 b3556d825c fix(mediacontrols): always send an art URL, even when there is no art
Every other key in the MPRIS metadata map can be omitted safely,
because a client reading it renders a track with no title as a track
with no title. Art is different: KDE's applet treats an absent
mpris:artUrl as no news about the art and keeps drawing whatever the
last track had, so playing something without a cover left the previous
album's sleeve on screen — which reads as the wrong track playing
rather than as missing artwork.

The map's construction moves out of UpdateMetadata into a pure
metadataMap so it can be asserted on at all: everything else in this
file needs a live session bus, which is the same reason the Android
contract lives in an untagged file.

Closes #41

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
2026-08-18 08:06:01 -04:00
yonluandClaude Opus 5 bf4f352117 fix(queue): stop claiming a queue came from somewhere it no longer does
`q.source` was written by SetQueue and cleared in exactly one place,
Clear, so no append path touched it: adding a track to a queue built
from an album left the page still offering "Playing from <that album>",
and since the source is persisted alongside the queue state the wrong
label outlived the session that earned it.

Every add and insert path drops it now. Removing and reordering
deliberately do not — a queue with a track taken out of it is still
that album, and the link still goes somewhere true. Only the arrival of
a track from elsewhere makes the claim false.

The delta event carries the source for the same reason it carries the
current index: an append emits nothing else, so the frontend would keep
the label it was last given until something forced a full state.

Closes #14

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
2026-08-18 08:05:43 -04:00
yonluandClaude Opus 5 1062b7c0bc fix(explore): tell Lit that a track request changed something
The album page's tracklist badges read `libraryStatusFor(false,
track.mbid)` at render time, which is a dependency on `downloadStore`
that Lit cannot see. The page did subscribe to that store, but its
callback only assigned `canDownload` and `isRequested` — neither of
which a *track* request changes — so no reactive field moved and the
component never re-rendered. The request was filed, the plus stayed a
plus, and clicking again cancelled it.

The other three hosts rendering these badges have always asked for the
repaint in the same place, which is what made this one look correct on
inspection.

Closes #33

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
2026-08-18 08:04:39 -04:00
yonlu 48abecb830 Merge remote-tracking branch 'origin/main' into fix/explore-art-scanner-requests
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2026-08-18 07:43:25 -04:00
logan e1c07438e9 docs: record what shipping the release pipeline taught us (#4)
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logan 6e563f3846 docs: record what shipping the release pipeline taught us
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Moves plan 017 to completed with a recap, and lifts the three findings
that generalise into NOTES.md: a preset major that renders empty notes
with everything green, a 403 that looks like branch protection and is a
token scope, and tag-triggered workflows running the tagged commit's
own definitions.
2026-08-17 23:35:59 -04:00
yonluandClaude Opus 5 590a0d86dd perf(library): size the scan to the drive, and prefetch what it reads
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Every parser in `backend/metadata` is header-only -- a few hundred
bytes and return -- so on a spinning disk a scan is not waiting on CPU
or on bytes, it is waiting on the head to arrive. Two things follow,
and the drive says which.

**How many reads should be in flight.** This was a flat 2 for anything
rotational, which is a pre-NCQ assumption: a modern SATA disk reports a
queue depth of 32 and reorders outstanding reads into the order its
head passes over them, and was being handed a quarter of what it can
use. It gets 4 now. A drive that reports 1 -- a USB bridge, a pre-2004
disk -- services one command at a time in the order given, where every
extra worker is one more seek competing for one head and the scan gets
*slower* the harder it is pushed; that keeps 2.

**And that the next seek should already be queued.** A prefetch stage
between the walk and the workers issues `POSIX_FADV_WILLNEED` over the
first 512 KB of each file -- enough for an ID3v2 tag carrying cover
art, or FLAC's STREAMINFO and PICTURE blocks. The buffered channel *is*
the lookahead: the goroutine runs 16 files ahead of the workers,
hinting as it goes, so the read a worker needs has been in flight for
sixteen files' worth of parsing by the time it asks. Rotational only;
an SSD gets the channel back unwrapped and pays nothing, since it has
no seek to hide and already has one worker per core.

`workersForProfile` is the policy on its own so it can be tested
against drives this machine does not have, and the scan logs the
device, its rotational flag and its queue depth, so the decision is
inspectable rather than inferred.

Also: `ScanConcurrency` has been a validated three-value config field
with exactly one caller, passing the constant `auto` -- so choosing
`ssd` or `hdd` by hand did nothing at all. It reads the config now.
The two modes overrule detection about the *disk* and not about its
queue, since a user who picks `hdd` on a queueing drive still wants
that drive's queue used.

What is not here is inode-ordered dispatch. It needs the streaming walk
restructured to buffer per directory, and with queueing the drive is
already reordering what the hints put in front of it; that wants a
measurement on real hardware before the complexity.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01MeQt5hgXg5YGoNZQ9ozG7L
2026-08-17 22:12:15 -04:00
yonluandClaude Opus 5 36af7090d9 fix(system): resolve a path to its own disk, not the first on its major
`deviceForPath` scanned `/sys/block` comparing device numbers and, when
no entry matched exactly, took the first one whose *major* agreed. Every
SATA disk is major 8. A filesystem's `st_dev` is its **partition**, so
the exact match never hits for anything on one, and the fallback then
resolved `/dev/sdb3` to whatever `/sys/block` listed first -- which is
alphabetical, which is `sda`.

On the machine this was found on that is a Samsung SSD sitting next to
the 6 TB spinning disk the library is actually on, so
`IsRotationalDisk` answered false and the scanner ran one worker per
core across a drive with one head. Matching on major alone cannot be
right on any machine with two disks, which is the case this exists for.

It goes through `/sys/dev/block/<major>:<minor>` instead -- a symlink
the kernel maintains to the device's own sysfs directory -- and climbs
to the parent when that turns out to be a partition. One readlink, no
scan, no ambiguity. The dev_t decode goes with it: Linux packs 12 bits
of major and 20 of minor split across the word, and masking the low
byte of each is right only for the first 256 of either.

`ProfileForPath` returns what the scanner needs to ask next, and the
new half is `queue_depth`: how many commands the drive will accept and
reorder at once. A SATA disk with NCQ enabled reports 31 or 32 and one
without reports 1, which is the difference between concurrency helping
and hurting. An absent file is read as "queues", because everything
that does not publish it -- NVMe, virtio, device-mapper -- is a device
where concurrency is fine.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01MeQt5hgXg5YGoNZQ9ozG7L
2026-08-17 22:11:51 -04:00
yonluandClaude Opus 5 3e142f8c35 test(downloads): guard the service fixture on something the fake sets
`newServiceFixture` stops auto-pick from starting a grab, because none
of its tests is about the download and a detached `go m.grab(...)`
racing `t.TempDir()`'s cleanup is how they fail. It did that with
`MaxSizeMB: 1` -- and the size gates read `Candidate.TotalSize`, which
real providers fill and the fake leaves at zero. Zero is under every
ceiling, so the guard never fired and the race it was written to
prevent kept happening, roughly one run in fifteen:

    TempDir RemoveAll cleanup: unlinkat ... : directory not empty

The guard is a format the fake never produces. Thirty consecutive
whole-package runs, none.

`TestManualDownloadSatisfiesRequestOnSuccess` was relying on the guard
being broken -- it is the one test here that wants the download -- so
it now clears the preferences itself rather than depending on a bug.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01MeQt5hgXg5YGoNZQ9ozG7L
2026-08-17 22:11:10 -04:00
yonluandClaude Opus 5 3d375adab1 feat(downloads): bound auto-pick by bitrate, and take a good copy
Three faults, one subsystem, and the middle one is why a request that
looked obviously satisfiable came back refused.

**The guardrails were in megabytes, which cannot mean anything.** 300 MB
is a generous FLAC single and a suspiciously small boxset, and whoever
fills the field in has no idea which release the pipeline will apply it
to. `MinKbps`/`MaxKbps`/`PreferredKbps` are the same statement divided
by how long the music is, so one number holds across a nine-minute EP
and a three-hour opera. The runtime comes from `Download.Expected`,
which every anchored request already carries, so this costs no lookup;
the rate is audio bytes over that, falling back to the mean stated
per-file bitrate when the runtime is unknown. Artwork is excluded from
the numerator, or a folder with 30 MB of scans reads as a better rip.

An unknown runtime *passes* the window rather than failing it: the
window is a statement about quality, and refusing everything the moment
MusicBrainz is missing a track length would be a silent embargo.
`MaxFileSizeMB` survives as a separate ceiling, still in megabytes on
purpose -- it is a question about disk space, and it has to apply to a
candidate whose bitrate cannot be worked out at all.

**Auto-pick required daylight over the runner-up**, 0.08 on the
combined score, and so fired hardest in the case it was never written
for: a popular album turns up five *correct* copies, all matching the
tracklist at 95%+ and differing only in format and seeders, their
scores land within a point of each other, and it refused forever on the
grounds that the choice was the user's. It was not. There was no
question about what to fetch, only about which copy -- and abundance is
the condition under which that matters least. A candidate no longer has
to beat the field, only clear the bars on its own terms; where several
do, ranking puts the one closest to the preferred bitrate first.

That tie-break needed the preference to carry weight or it would have
been decorative in a new unit: `BitrateFit` was 0.05 against format's
0.42, so asking for 320 and being handed a FLAC every time was the
designed behaviour. When a preference is set the weights shift to fit
0.40 / format 0.20 / bitrate 0.10, taking it off the two heuristics
that exist as stand-ins for the preference the user has now given.
Health and priority are untouched. And the fit spans 0.5 to 1.0 rather
than 0 to 1, so a preference can promote the copy that matches it and
can never push the others under `minQuality` -- turning "I like 320"
into "never take anything else" silently is what `MinKbps`/`MaxKbps`
are for, out loud.

**And a refusal quoted numbers that passed.** The request list built its
message from `ranked[0]` -- the best candidate *before* the guardrails
and before the lead check -- so a request killed by the size window, or
by having too many good copies, reported "best of 12 found is not a
confident enough match (match 96%, quality 88%)". `AutoPickVeto` names
the gate that actually refused, and `AutoPickable` is that returning
empty.

Existing configs: the old `MinFileSizeMB`/`PreferredFileSizeMB` are not
migrated. A number meaning "300 MB" cannot be reinterpreted as a rate
without knowing the album it was aimed at, so carrying it over would be
inventing an intent nobody expressed. Those two fall back to no window,
which is the permissive default and what a fresh install gets;
`MaxFileSizeMB` carries over unchanged, because a ceiling on bytes
still means exactly what it did.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01MeQt5hgXg5YGoNZQ9ozG7L
2026-08-17 22:10:51 -04:00
yonluandClaude Opus 5 e3d492e130 fix(downloads): call a request a request, and mark it with a bookmark
The feature was renamed to requests and the copy was not. The badge on
every Explore card and track row still offered "Want track X", the
album page's button read "Want this" / "Wanted", the artist page's
release menu said "Want This", and the Downloads empty state told the
user to look for a control by a name nothing rendered.

The `queued` badge is a bookmark rather than an hourglass. An hourglass
says "wait, this is under way", which overstates what a request is:
nothing may be downloading, nothing may ever be found, and the list is
somewhere a user can leave one indefinitely. A bookmark says the honest
thing -- it is on your list -- and reads as the opposite of the plus
that put it there, which is what a toggle's two states have to do.

The backend's `'wanted'` request state is deliberately untouched: it is
a stored enum, not copy.

Also removes a dead duplicate branch in the badge's `render()`. The
first `if (this.actionable)` returned before the ring was built, so a
partly-held album that could still be requested drew a plus instead of
its progress arc.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01MeQt5hgXg5YGoNZQ9ozG7L
2026-08-17 22:10:23 -04:00
yonluandClaude Opus 5 e6f30b6e43 fix(a11y): draw an unfavourited track as an outline, not a dimmer fill
`favCtrl.iconName` returned the solid glyph in both states, so "not a
favourite" was a filled heart in a duller colour and the only thing
separating the two states was hue. That fails outright for anyone who
cannot tell the two colours apart (WCAG 1.4.1), and reads as
"everything is a favourite" to everyone else.

`iconFor(favorited)` returns the outline or the fill, and the nine
`<wa-icon>` call sites split into the two cases they always were. The
three that show a *state* -- the mini player, the phone's now-playing
view, and the sidebar's marker for the favourites playlist itself --
pass it. The rest are context-menu items, which are actions rather than
states and take the outline `iconName` still returns.

`track-list` and `album-dropdown` already had this right, from inline
SVG paths of their own; this is the same rule for the call sites that
go through the icon library. `regular/star` is vendored to go with
`regular/heart`, which was already there.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01MeQt5hgXg5YGoNZQ9ozG7L
2026-08-17 22:10:06 -04:00
yonluandClaude Opus 5 351798fd66 fix(ui): spend a row's leftover space on the gaps, not the margins
The three card grids -- albums, artists, genres -- laid out with
`justify: 'center'` and a fixed 8px gap and padding, which gives the
row a fixed width and pushes everything left over to the two margins.
Measured on a 1440px window: cards 16px apart inside 78px of nothing
down each side. The outside was five times the inside.

`utils/grid-spacing.ts` computes one number instead, from what the row
could not spend on another card: the same value between two cards,
between two rows, and down each edge. That window now reads 30px
outside against 34px between, and it holds at any width.

The virtualizer has a word for this -- `justify: 'space-evenly'` with
`gap: 'auto'` -- and it cannot be used. It fits `floor(width /
cardWidth)` columns without reserving the gap it is about to need, so a
width one card short of exact leaves seven cards a pixel apart. On the
window above it would fit 7 columns with 1px between them. Deciding the
column count here is what puts a floor under the spacing.

Two consequences. The layout is rebuilt when the container width
changes the spacing rather than only when the cover size changes, so
each grid observes its own scroller -- keyed on the spacing, or every
pixel of a drag rebuilds a layout that comes out the same. And
`cover-grid`'s ScrollManager took `GRID_GAP`/`GRID_PADDING` as
constants, which stopped describing anything the moment the spacing
became elastic: it asks the host for the geometry now, since a scroll
position rebuilt from a stale 8px lands in the wrong row.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01MeQt5hgXg5YGoNZQ9ozG7L
2026-08-17 22:09:50 -04:00
yonluandClaude Opus 5 40984f6086 fix(explore): let a slow archive node finish, and read the 404 back
Explore's album art was almost entirely missing: 5 of 24 cards on the
shelves had a cover, and those five were the ones already on disk.

The Cover Art Archive answers `front-250` with a 307 to an Internet
Archive storage node, and those nodes are slow. Measured against the
twelve albums on Explore's own shelves, a successful fetch took 14-16 s
and a failing one 13-17 s, against a client timeout of 10. So every
live fetch died, and a timeout writes nothing and says nothing -- which
is why this reads as "Explore has no album art" rather than as a slow
upstream. The timeout is 30 s, chosen to clear the measured range: the
fetch is off the critical path, so waiting costs nothing and giving up
early costs the whole page.

Two things beside it, both found on the way.

`writeCache(mbid, nil)` has recorded "the archive has no art for this"
as an empty file since it was written, and nothing has ever read it
back: `readCache` returns "" for an empty file, which is
indistinguishable from a miss. So every art-less release group was
re-fetched from CAA on every render that asked about it. A third of the
shelves are art-less, so that was a third of the page spending a live
request to be told again what the last one said. `knownMissing` reads
it, on both the release-group and the release path.

And the frontend marked a failed fetch as permanently answered for the
session, so a timed-out cover never retried within it. It drops the
marker instead; a genuine 404 is now answered from disk, so re-asking
one costs nothing.

Measured after: 23 of 24.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01MeQt5hgXg5YGoNZQ9ozG7L
2026-08-17 22:09:14 -04:00
248 changed files with 23273 additions and 4555 deletions
+17
View File
@@ -139,6 +139,23 @@ jobs:
echo "skip=true" >> "$GITHUB_OUTPUT"
exit 0
fi
# Nor is a prerelease, and this trigger is `v*`, which matches
# `v0.4.0-beta.1`. Two reasons it is worst here. The APK goes
# to the *generic* registry, which is readable without
# credentials so Obtainium can poll a plain URL — a beta would
# be offered to every device on it. And the versionCode maths
# below splits on dots and would read "1" out of "0-beta",
# producing a code that is wrong rather than a build that
# fails: Android orders releases by that integer and refuses
# anything not greater than what is installed.
case "$v" in
*-*)
echo "v$v is a prerelease; not publishing an APK for it"
echo "skip=true" >> "$GITHUB_OUTPUT"
exit 0
;;
esac
echo "skip=false" >> "$GITHUB_OUTPUT"
# Android orders releases by an integer and refuses anything
+16
View File
@@ -72,6 +72,22 @@ jobs:
exit 0
fi
# A prerelease is not a shipment either, and this trigger is
# `v*` — which matches `v0.4.0-beta.1`. Nothing produces one
# today; the guard is here because the thing that would is
# semantic-release's `prerelease: true` channel, a one-line
# change in .releaserc.yml whose blast radius is four public
# package channels. Same argument as release.yml's
# `chore(release):` guard: cheap, against something a future
# edit turns on somewhere else entirely.
case "$v" in
*-*)
echo "$v is a prerelease; not packaging it for pacman"
echo "skip=true" >> "$GITHUB_OUTPUT"
exit 0
;;
esac
echo "skip=false" >> "$GITHUB_OUTPUT"
echo "tag=$v" >> "$GITHUB_OUTPUT"
echo "building $v"
+13
View File
@@ -95,6 +95,19 @@ jobs:
exit 0
fi
# Nor is a prerelease, and this trigger is `v*`, which matches
# `v0.4.0-beta.1`. The mildest of the four — assets attach to
# the prerelease's own Gitea release and no package manager
# reads them — but four workflows sharing one trigger should
# share one answer about what a shipment is.
case "$v" in
*-*)
echo "$v is a prerelease; not attaching desktop assets"
echo "skip=true" >> "$GITHUB_OUTPUT"
exit 0
;;
esac
echo "skip=false" >> "$GITHUB_OUTPUT"
echo "tag=$v" >> "$GITHUB_OUTPUT"
echo "version=${v#v}" >> "$GITHUB_OUTPUT"
+12
View File
@@ -56,6 +56,18 @@ jobs:
echo "skip=true" >> "$GITHUB_OUTPUT"
exit 0
fi
# Nor is a prerelease, and this trigger is `v*`, which matches
# `v0.4.0-beta.1`. It matters most here of the four: the tap
# is public, and `brew upgrade` would offer a beta to everyone
# on it.
case "$VERSION" in
*-*)
echo "$TAG is a prerelease; not syncing it to a public tap"
echo "skip=true" >> "$GITHUB_OUTPUT"
exit 0
;;
esac
echo "skip=false" >> "$GITHUB_OUTPUT"
TARBALL="${SOURCE_TARBALL_BASE}/${TAG}.tar.gz"
+54 -8
View File
@@ -1,11 +1,36 @@
name: Release
# The sixth workflow, and the one that decides whether the other three
# run at all. On every push to main it reads the Conventional Commits
# since the last tag, and if any of them is releasable it writes the
# changelog, pushes the tag, and creates the Gitea release whose body is
# that changelog section. The publishing workflows are keyed on `v*`, so
# the tag push is what starts them.
# run at all. It reads the Conventional Commits since the last tag, and
# if any of them is releasable it writes the changelog, pushes the tag,
# and creates the Gitea release whose body is that changelog section.
# The publishing workflows are keyed on `v*`, so the tag push is what
# starts them.
#
# **It is triggered by hand, and there is deliberately no `push`
# trigger.** There was one, on `main`, which made the trigger "a PR was
# merged" and nothing else: eight releases in twenty-two hours
# (v0.0.1 -> v0.3.1) for one session's work, each fanning out to four
# publishers on a runner with capacity 1, so ~40 packaging jobs shipped
# three issues and ordinary PR CI queued behind them. A version per
# merged PR is a version per unit of *work*, not per *shipment*, and
# pacman, Homebrew and Obtainium see every one.
#
# Nothing else had to change to batch them: semantic-release already
# reads every commit since the last tag, so five fixes and two feats
# become one minor release with all seven in the notes. Release
# frequency was only ever how often this file fired.
#
# This is the rule `index-artifact.yml` states and is the other instance
# of: **a job that mutates state which cannot be rebuilt in ten minutes
# is triggered deliberately, not by a push.** A release here is a tag,
# a Gitea release, an Arch package, a Homebrew formula, a signed APK and
# desktop assets — and an Android version going backwards costs the user
# their library (docs/android-release.md).
#
# A schedule was considered and rejected: a cron batches without anyone
# having to remember, but it puts the decision back on a timer, which is
# the thing being removed.
#
# **Why the tag is pushed with PACKAGE_TOKEN and not the Actions token.**
# Gitea, like GitHub, does not start a workflow from a ref pushed by a
@@ -19,9 +44,12 @@ name: Release
# instead.
on:
push:
branches: [main]
workflow_dispatch:
inputs:
dry_run:
description: "Report what would be released and stop"
required: false
default: "false"
# Cutting a tag is not a thing to cancel halfway: a superseded run must
# finish, not be killed between `git push --tags` and the release POST.
@@ -163,14 +191,32 @@ jobs:
# been right, the tag would have been right, every job would have
# been green, and the release body would have been empty. Check the
# notes, not the exit code, before moving any of these.
# The point of a manual trigger is deliberateness, and deliberate
# means being able to look before pulling the lever. `--dry-run`
# reports the version and the notes and writes nothing: no tag, no
# release, no publishers. `make release-dry` is the same answer
# locally; this is it from the runner, against the same commit and
# the same tag history, which is what actually decides.
- name: Run semantic-release
if: steps.guard.outputs.skip == 'false'
working-directory: /src
env:
DRY_RUN: ${{ inputs.dry_run }}
run: |
set -eu
git config user.name "yellowjacket-ci"
git config user.email "yj@yellowjacket.app"
# Anything but a literal "true" releases for real. A typo in a
# dispatch box must not silently turn a shipment into a no-op
# that reports success — the failure worth avoiding is the one
# where nothing happens and the run is green.
dry=""
if [ "${DRY_RUN:-false}" = "true" ]; then
echo "DRY RUN — no tag will be pushed and no release created"
dry="--dry-run"
fi
npx --yes \
-p semantic-release@25 \
-p @semantic-release/commit-analyzer@13 \
@@ -178,5 +224,5 @@ jobs:
-p @semantic-release/changelog@7 \
-p @semantic-release/exec@7 \
-p conventional-changelog-conventionalcommits@9 \
semantic-release \
semantic-release $dry \
--repository-url "https://x-access-token:${PACKAGE_TOKEN}@${SERVER_URL#https://}/${REPO}.git"
+107
View File
@@ -0,0 +1,107 @@
name: Unclaim
# A `Closes #N` footer in a commit body closes the issue on merge — and
# leaves `Status/In Progress` on it, because Gitea's auto-close touches
# state and nothing else. So #100 was closed and simultaneously marked
# as being actively worked on, and `scripts/issue.sh close` (which does
# drop the label) is exactly the thing the footer exists to avoid
# calling.
#
# **This hooks the close, not the merge.** Stripping the label in the
# PR would work and would be a per-PR habit; habits are what the footer
# removed. `issues: [closed]` covers every path an issue can close by —
# the footer on merge, `issue.sh close`, someone clicking Close in the
# web UI — and asks nothing of anyone at any of them.
#
# **Reopening deliberately does not restore it.** Reopening says the
# work was not finished, not that somebody is at a keyboard doing it
# now; the claim gets re-made by whoever picks it up.
#
# **This is not instant, and should not be described as it.** The
# runner has capacity 1 and is shared with an index build that can hold
# it for three hours, so a label tweak can queue behind one. Stale for
# an afternoon beats stale forever, which is what it was.
#
# The audit that answers "is this still firing" stays in CLAUDE.md and
# is one command:
#
# ./scripts/issue.sh list --state closed --label "Status/In Progress"
#
# A workflow that silently stops working is the failure mode this whole
# area has already produced once.
on:
issues:
types: [closed]
jobs:
unclaim:
runs-on: ubuntu-latest
container:
image: ubuntu:24.04
steps:
- name: Drop the claim label
# **Inside a container the act runner selects `sh`, not bash**, so
# `set -o pipefail` fails the job on its second line with "Illegal
# option" and the step never reaches the API. `homebrew-formula.yml`
# carries the same `set -euo pipefail` without trouble because it
# runs with **no container**, on the host image where bash is the
# default — so "another workflow does it" is not evidence here.
shell: bash
env:
# The automatic Actions token, as release.yml uses for the
# floor tag. It needs no more than write access to this repo.
TOKEN: ${{ secrets.GITEA_TOKEN }}
API: ${{ github.server_url }}/api/v1/repos/${{ github.repository }}
ISSUE: ${{ github.event.issue.number }}
run: |
set -euo pipefail
# `ca-certificates` is named because `--no-install-recommends`
# skips it, and `ubuntu:24.04` ships no CA bundle of its own —
# so curl comes up unable to verify TLS against our own Gitea
# and fails with "error setting certificate file" (exit 77).
# Every other containerised workflow here spells it out for the
# same reason; this one did not, and cost a release cycle.
apt-get update -qq
apt-get install -y -qq --no-install-recommends \
ca-certificates curl jq >/dev/null
label_id=$(
curl -sSf -H "Authorization: token $TOKEN" "$API/labels?limit=100" |
jq -r '.[] | select(.name == "Status/In Progress") | .id'
)
# The label not existing is a repo somebody reorganised, not a
# failure of this run — say so and stop, rather than failing a
# job on every close from then on.
if [ -z "$label_id" ]; then
echo "unclaim: no 'Status/In Progress' label in this repo; nothing to do"
exit 0
fi
# DELETE is idempotent here: an issue that never carried the
# label answers the same as one that did, which is what makes
# this safe to run on *every* close rather than only the ones
# that were claimed.
# The body is captured, not discarded, so a refusal is
# diagnosable from this log alone. Whether the automatic
# token carries issue-write scope is still unproven, and
# "DELETE returned 403" without Gitea's own sentence costs
# another merge to find out which of the two it is.
body=$(mktemp)
code=$(
curl -sS -o "$body" -w '%{http_code}' -X DELETE \
-H "Authorization: token $TOKEN" \
"$API/issues/$ISSUE/labels/$label_id"
)
case "$code" in
204) echo "unclaim: #$ISSUE is closed and unclaimed" ;;
*)
echo "unclaim: DELETE returned $code for #$ISSUE" >&2
cat "$body" >&2
exit 1
;;
esac
-118
View File
@@ -1,118 +0,0 @@
# Work log
Temporal memory: what happened and what's next. Structure lives in
`CLAUDE.md`, operational instructions in `.pi/skills/yellowjacket-dev/`,
measured discoveries in `.planning/NOTES.md`. Don't duplicate those here.
## Current state
Plan 005 (agent development harness) is **complete — all seven
phases**. Everything from phase 1 onward is still **uncommitted**: one
large but coherent working-tree diff, nothing pushed.
All four tiers verified green from a cold, cleaned state:
`make ui-test` 313 passed, `make lint` 0 issues × 3 configurations,
`make test` green × 3 passes, `make e2e` 19 passed. Both CI jobs
verified green in a bare `ubuntu:24.04` container, including 19/19 on
WebKit.
**Committed and pushed** as `5ca6cad` (the harness) + `ccacd67` (a CI
fix), and **green on the real runner**: job `check` ~4 min, job `e2e`
~3 min with 19/19 chromium *and* 19/19 webkit. One commit rather than
seven because the working tree was the end state, not per-phase
snapshots — `Makefile`, `CLAUDE.md` and `lefthook.yml` are touched by
nearly every phase, so a split would have been fabricated history.
Still unverified, because no run has failed yet: the
`actions/upload-artifact` step (`continue-on-error`, so it cannot mask
a real failure) and whether pnpm honours `npm_config_store_dir` for
store caching. Worth checking the next time a spec legitimately fails.
- [ ] `gitea_ci`'s `job_logs` returns 404 on Gitea 1.27.1 — the endpoint
is not exposed. Logs come from the VPS instead: `zstdcat` the file
under `gitea/actions_log/<owner>/<repo>/<xx>/<task_id>.log.zst`,
and note `zstdcat` is not in the gitea container, so
`docker cp` it out first. Job status is `action_run_job.status`
(1 success, 2 failure, 4 skipped, 5 waiting, 6 running).
Probably belongs in the `gitea` skill, not here.
Open items deliberately not fixed: WAV tags are write-only
(`TestWAVTagsAreNotReadableYet`), `themeStore.loadFromBackend`'s failure
handler cannot recover, `backend/playlist` has no CRUD suite.
## Log
### 2026-08-11 — cold skill run, then phase 7 (CI)
- **Followed the skill cold first**, as the last session asked. It
works: app up from a wiped `.dev/`, an undocumented flow driven
(queue panel + shuffle, asserted on `QueueModeChanged`), stopped —
~1 minute, no dead ends. One real config bug: `outputDir` in
`.playwright/cli.config.json` resolves against **cwd**, not the
config file's directory (only `initScript` does that), so snapshots
were landing above the repo and a *stale* one from the previous
session answered `ls -t` instead. That cost a DOM walk to disprove a
regression that did not exist. Four smaller doc gaps fixed
(`sandbox-seed` already runs `testdata`; `ui-setup`/`e2e-setup` were
undocumented prerequisites; `snapshot` prints a path; `dev-stop`
leaves the browser open), plus `dev-headless.sh`'s own banner, which
was suggesting the bare `window.go` call its next paragraph warns
against.
- **Built both CI jobs as container scripts before writing any YAML**,
then transcribed the YAML back out and re-ran it to prove the
transcription. Push-and-see is a bad loop on a self-hosted runner.
- **It found a real bug immediately**: `make lint` omitted
`webkit2_41` on all three passes, so it was linting configurations
nothing builds. Invisible on Arch (which still ships
`webkit2gtk-4.0.pc`), fatal on Ubuntu 24.04. Tag sets now match
`make test`.
- **Both open decisions settled by measurement**: ALSA `null` PCM for
audio (no daemon; the elapsed clock really advances), dead-address
stub for the explore artifact (and setting it for the *app* run, not
just seeding, is worth 8x on suite wall clock). **WebKit is a
required step** — it had never been run anywhere, so one throwaway
container run replaced a coin flip with 19/19 at +11 s.
### 2026-08-10 — phase 6, pi affordances
- Added `.pi/skills/yellowjacket-dev/` as a directory rather than a flat
file: only the description is always in context, so `SKILL.md` stays
short enough that reading it whole is never a decision, and the deeper
material sits in `references/{harness,fixtures,ui-tier,schema-change}.md`.
- Settled the CLAUDE.md-vs-skill split **grammatically, not topically**,
because a topical split is what rots — every new fact gets two
plausible homes. Three docs, three tenses: NOTES.md is past
(measured, dated, append-only), CLAUDE.md is present (what the system
is), the skill is imperative (what to run). A new paragraph's tense
decides where it goes.
- The five gotchas (binding timeouts, first-run wizard, `pkill -f`,
seeds-by-running, WebKit-is-CI-only) went **inline in SKILL.md**, not
into a reference: you need them before the failure, not after.
- Trimmed CLAUDE.md's "Fixtures and the headless harness" section by
about half — the command sequences and gotchas it was carrying are now
the skill's, and leaving both would have created exactly the duplicate
description this repo has a standing rule against.
- Added `make skill-check` / `scripts/skill-check.sh` + a pre-commit
hook: every command in `.pi/**/*.md` must be a real `make` target, so
the Makefile stays the source of truth for invocation and a renamed
target fails a commit instead of misleading an agent later. Verified
it fails (it caught its own not-yet-created target) and passes.
- Added the `/e2e` prompt template: promoting a hand-driven
`playwright-cli` session into a spec is a transcription with four
fixed substitutions (refs → testids, sleeps → `waitForEvent`, raw
`window.go``callBinding`, short fixture → `LONG_TRACK`), plus three
runs — pass, pass again, pass after a DB restore — because the usual
failure is a spec depending on state the hand-driving left behind.
- One shell trap: under `set -euo pipefail`, `x="$(make -pqRr | …)"`
fails the whole assignment, because `make -q` exits non-zero when a
target is out of date and `pipefail` propagates it.
### Earlier
Phases 15 of plan 005: fixture generator and manifest, headless launch
and seeds, the event bridge + `data-testid` pass + `backend/testctl` +
`e2e/`, the Vitest component tier + `make bindings-check`, and the
`events.Emit` wrapper with its in-process service-event tests. Recaps
and the five "verified end to end" blocks are in
`.planning/plans/active/005-agent-development-harness.md`; the lessons
are in `.planning/NOTES.md`.
+6
View File
@@ -195,6 +195,12 @@ Two rules about climbing:
- **Do not write an e2e spec first.** Drive the flow by hand, then
promote it with `/e2e`. Specs written blind assert on selectors that
do not exist.
- **Not every view has a nav item.** Since #25 the destinations are
configurable, Autotag is hidden by default and Downloads is absent
until a download client exists — so `getByTestId('nav-<view>')` waits
30 s for a locator that will never resolve. `navigateTo(page, view)`
(`e2e/support/fixtures.ts`) dispatches the app's own `navigate` event.
Click the nav item when the *nav* is what the spec is about.
Before a commit, the gate is `make lint`, `make test`, `make ui-test`,
`make bindings-check`, `make css-check` and — from `frontend/`
@@ -194,9 +194,13 @@ like the app's fault and none is:
|---|---|---|
| x86_64 | modernc's raw `lstat` vs seccomp | SIGSYS, syscall 6 |
| arm64, translated | Go reads `ID_AA64ISAR0_EL1` | SIGILL |
| arm64, real device | — | unverified, still |
| arm64, real device | **runs** (2026-08-20) | — |
**A physical arm64 device remains the only verification path.**
**A physical arm64 device remains the only verification path**, and it
has now been walked: a Light Phone III (TLP301, Android 14 / SDK 34,
arm64-v8a, WebView Chrome 113 at 424x439). The app builds, installs,
launches and stays up; `make android-smoke SECONDS=60` passes on it.
What that run *found* is the lifecycle fault below.
### What was fixed to get here
@@ -210,6 +214,11 @@ no-op. `backend/system` gained no import of the Wails application
package, which matters for the same reason `backend/events` is split by
the `indexbuild` tag.
**And `main()` is now latched to one run per process** (#52). That is
the second `os.Exit(1)` in this file's history and it had the same
signature as the first, which is the argument for #160: both were named
exactly by an `slog` line that went to `/dev/null`.
### What is still not done
The shell is still a desktop shell, and the x86_64 half of the APK is
@@ -249,10 +258,25 @@ one.
`build/android/Taskfile.yml` ships more than the Makefile wraps, and
they are the right thing to reach for when you want something one-off:
> **These four were unsafe until #159 and are now the way in.** All of
> them began with `adb uninstall {{.APP_ID}}`, where `APP_ID` defaulted
> to `app.yellowjacket` — the **release** id — while `run` and
> `run:device` build the **debug** variant, whose id is
> `app.yellowjacket.dev`. So they uninstalled the user's app, taking
> the library with it, installed a different package, and then failed
> to launch the one they had removed.
>
> They share `scripts/android-deploy.sh` now, which **never**
> uninstalls (`install -r`, and a changed signing certificate is
> reported with the command rather than acted on), reads the package id
> back out of the built APK, and refuses a target that is not the kind
> the task names. There is nothing left to avoid; the manual sequence
> below is kept because it is still the smallest thing that works.
```
wails3 task android:run # debug build + emulator install + launch
wails3 task android:run:device # same, first connected physical device
wails3 task android:deploy-device # production APK to a device
wails3 task android:run:device # debug build + install + launch on a phone
wails3 task android:deploy-device # release build, same
wails3 task android:bundle:fat # AAB, for a Play Store upload
wails3 task android:studio # open build/android/ in Android Studio
wails3 task android:device:list
@@ -260,6 +284,16 @@ wails3 task android:logs:all
wails3 task android:clean
```
**`run` and `deploy-emulator` mean the emulator, and now say so to
adb.** They used a bare `adb install`, which with exactly one device
attached picks that device whatever it is — so with a phone plugged in
and no emulator running, the task whose summary reads "in the Android
Emulator" installed on the phone. They pass `--target emulator` and
refuse with `make android-emulator` as the remedy.
**`DEVICE_ID=<serial>` still names a device, and several attached
devices is now an error rather than a silent pick of the first.**
Two are deliberately **not** wrapped. `android:logs` greps logcat for
`(Wails|yellowjacket)`, which catches the `WailsBridge` tag but misses
the app's own process tag (`app.yellowjacket` — lowercase, so `Wails`
@@ -269,16 +303,51 @@ instead. And `ensure-emulator` boots whatever `-list-avds | tail -1`
returns, with no pidfile and no boot wait, so it cannot be stopped or
sequenced.
## The identity is declared twice
## The identity is read back from the APK
It used to be **declared twice**, and that is what #159 was.
`applicationId` in `build/android/app/build.gradle` is what Gradle
installs. `APP_ID` in `build/android/Taskfile.yml` is what every
adb-driven task uninstalls, launches and filters. **Nothing enforces
that they agree**, and `ANDROID.md`'s advice to set `APP_ID` in
`build/config.yml` does not work in beta.8 — `wails3 task` never reads
that file (verified with `--dry`), and even when set it feeds only the
adb commands, never Gradle. Change both or the official `run`/`deploy`
tasks address a package that is not installed.
installs; `APP_ID` in `build/android/Taskfile.yml` was what every
adb-driven task uninstalled, launched and filtered, and nothing
enforced that they agree. They did not: the debug buildType carries
`applicationIdSuffix ".dev"`, so every task that assembles a debug APK
addressed the release id. This file flagged the hazard for five phases
and it cashed out twice — once as a wrong `am start`, once as an
uninstall of the user's library.
**`scripts/android-pkgid.sh` is the one answer now.** It prints the
package id an APK declares (`aapt2 dump packagename`, falling back to
`aapt dump badging`), and the deploy path installs and launches *that*.
The APK is the authority because the task that installs it has just
built it: whatever Gradle resolved the applicationId to, suffixes and
flavours included, is in the file, and no default can disagree with it.
An APK it cannot read is a hard failure, never a fallback to a written
down default — guessing is the bug.
**`APP_ID` survives as an assertion, not a setting**, and has no
default. `wails3 task android:run APP_ID=app.yellowjacket` says "this
build had better declare that id" and is refused, naming both, *before*
anything is installed or a device is even chosen. It could never have
been a setting: `ANDROID.md`'s advice to put it in `build/config.yml`
does not work in beta.8 — `wails3 task` never reads that file (verified
with `--dry`) — and even when set it fed only the adb commands, never
Gradle.
`scripts/android-emulator.sh` derives `PKG` the same way, from
`bin/yellowjacket.apk` when one is built, so `make android-install`,
`android-launch`, `android-logs` and `android-smoke` follow whichever
variant is actually in `bin/`. `YJ_ANDROID_PKG` still overrides, and
the old literal survives only for a tree with no APK built yet.
**The uninstall is gone and is not coming back.** It existed to make
the bare `install` on the next line work at all — without `-r` Android
refuses an install over an existing package — so `install -r` removes
the *reason* for it rather than merely removing it. What is left is the
one case an uninstall really is the remedy, a changed signing
certificate, and that is exactly the case where performing it silently
costs the user their library. So it is named and not done, which is the
answer `scripts/android-emulator.sh` had already reached for
`make android-install`.
Related, and it will bite once: the launcher activity is
`com.wails.app.MainActivity` and the applicationId is
@@ -287,6 +356,27 @@ resolves the leading dot against the *applicationId* and fails with a
class-not-found that reads like a broken build. Always the
fully-qualified form.
**`wails3 task android:run:device` is the way to put a debug build on a
real device**, since #159. What #52 used, before it was safe, was the
longer form, and it is still the smallest thing that works if you want
no script between you and adb:
```bash
wails3 task android:build ARCH=arm64 && wails3 task android:assemble:apk
adb install -r bin/yellowjacket.apk # -r, never uninstall
adb shell am start -n app.yellowjacket.dev/com.wails.app.MainActivity
```
The id in that last line is the one thing to keep an eye on by hand —
`./scripts/android-pkgid.sh bin/yellowjacket.apk` is what the tasks ask,
and it is a good habit before any `am start` written out in full.
`YJ_ANDROID_PKG=app.yellowjacket.dev` still overrides what
`scripts/android-emulator.sh` — and therefore `make android-smoke`,
`android-logs`, `android-launch` — addresses, but it is rarely needed
now: that default is read from `bin/yellowjacket.apk`, so it already
follows whichever variant was built last.
## What only a device can answer
The emulator cannot run this app (three separate reasons, none of them
@@ -311,6 +401,91 @@ system bars, the back gesture, focus and audio interruptions,
permission dialogs, the keyboard — not about what the app draws. The
drawing is what the other five tiers already cover.
**The third such fault was the activity lifecycle** (#52), and it is
the one to re-check after touching `main()`, `WailsBridge` or
`MainActivity`. Android destroys and recreates an activity **without
restarting the process**, and Wails' `nativeInit` — which
`MainActivity.onCreate` calls — runs `go mainFunc()` every time. So
Go's `main()` ran again on a live app, `app.Run()` refused (`a.starting`
is still true behind Android's `select{}`), and the `os.Exit(1)` under
it took the healthy first app down with it.
### The lifecycle check, and how to trigger it on demand
This is the regression guard for #52 on this tier, because no other
tier runs `main()` on Android at all. The Go-side guard
(`TestMainClaimsBeforeItDoesAnything`) catches work creeping above the
latch; only the device catches the latch not working.
**Trigger a relaunch with a configuration change the manifest does not
declare.** `AndroidManifest.xml` lists
`orientation|screenSize|keyboardHidden|uiMode`, so those are handled
in-place and are *not* triggers. `fontScale` is not listed, and it is a
one-liner:
```bash
adb shell settings put system font_scale 1.15 # restore the old value after
```
That is the same in-process destroy/recreate that "Don't keep
activities", a locale change and a memory trim produce, but on demand.
**"Don't keep activities" is the report's own lever and did not work on
this device**: `settings put global always_finish_activities 1` reads
back as `1`, `am set-always-finish-activities` does not exist on this
build, and the activity was never finished on backgrounding. Do not
spend an afternoon on it; use the config change.
**The assertion is the pid, and the tell is two bridge inits in one.**
```bash
adb logcat -d | grep -E "Wails bridge initialized|has died|finishDrawing of relaunch"
```
Healthy is one pid appearing twice — the process surviving the
recreation:
```
I/WailsBridge(28420): Wails bridge initialized
I/WailsBridge(28420): Wails bridge initialized <- same pid, recreated
```
Broken is that pair followed within a second by:
```
I/WindowManager: finishDrawing of relaunch: Window{...MainActivity} 603ms
I/ActivityManager: Process app.yellowjacket.dev (pid 22956) has died: fg TOP
W/ActivityTaskManager: Force removing ActivityRecord{...}: app died, no saved state
```
Two things about reading that. **`has died: fg TOP` is not a memory
kill** — the system does not reclaim the foreground process, so this is
the app leaving of its own accord. And there is **no crash record
anywhere**: `logcat -b crash` is empty, no `AndroidRuntime`, no
`libc: Fatal signal`, no tombstone. That is the `os.Exit` signature,
and it is why "the system killed it" is the wrong first hypothesis.
**Surviving is only half of it — check the recreated WebView is still
wired to the running app.** A plausible-looking fix (making
`WailsBridge.initialized` static, so the second `nativeInit` is skipped)
keeps the process alive and silently breaks this, because `nativeInit`
is also what re-points the JNI reference at the new bridge. Go would go
on executing JavaScript against the destroyed activity's WebView: the
app opens, renders, and never receives another backend event.
Ask the page, after a relaunch and a resume:
```bash
make android-inspect
make android-eval EXPR='(()=>{window.__probe=[];const o=window._wails.dispatchWailsEvent.bind(window._wails);window._wails.dispatchWailsEvent=(e)=>{window.__probe.push(e&&e.name);return o(e)};return "ok"})()'
# background and foreground the app, then:
make android-eval EXPR='JSON.stringify(window.__probe)'
```
A healthy build answers with events from the live services —
`["IndexStatusChanged","JobsChanged","JobsChanged","android:storageAccess"]`.
`[]` means the bridge reference is stale.
## Asking the device, not just looking at it
A real phone can be inspected, and that turns this tier from "reported
@@ -340,6 +515,75 @@ Four things about it, each of which costs an hour if met cold:
script. Plug in over USB for anything longer than a couple of probes.
- **The socket name carries the pid**, which changes on every launch, so
it is resolved rather than remembered.
- **A reinstall resets the runtime permissions**, and the grant dialog
is a separate activity that takes focus — so the app is up, `am start`
reports "delivered to currently running top-most instance", and
`pidof` is empty because it never got to the foreground.
`dumpsys window | grep mCurrentFocus` naming
`GrantPermissionsActivity` is the tell. `adb shell pm grant
app.yellowjacket.dev android.permission.READ_MEDIA_AUDIO` (and
`POST_NOTIFICATIONS`) ahead of the launch skips it.
### Calling a binding on the device
**The runtime call does not go over HTTP on Android**, and this is worth
knowing before an hour is spent on it. The WebView cannot deliver a
`fetch()` POST body to `shouldInterceptRequest`, so v3 routes runtime
calls through the `addJavascriptInterface` bridge instead: the
@wailsio/runtime installs a `customTransport` that calls
`window.wails.invokeAsync(id, payload)` and receives the answer on
`window._wailsAndroidCallback`. Two consequences:
- **`.playwright/init-events.js` does not transfer to the device.** Its
outbound half hooks `fetch`, which sees nothing here, and its
`call()` posts to `/wails/runtime`, which answers
`Invalid runtime call: missing object value` — the interceptor got the
URL with no body. Its *inbound* half is still right, because
`dispatchWailsEvent` is the entry point in every mode.
- **Hooking `fetch` from an eval is too late anyway**, on any platform:
the bundle captured its reference at module scope, so a wrapper
installed afterwards records nothing. That is why the harness is an
`initScript` and not a step in a spec.
What works is to borrow the bridge, chaining the runtime's own callback
so its pending calls still resolve:
```js
const pending = new Map();
const prev = window._wailsAndroidCallback;
window._wailsAndroidCallback = (id, response, error) => {
if (!pending.has(id)) return prev && prev(id, response, error);
const p = pending.get(id); pending.delete(id);
const env = JSON.parse(response || "{}");
return env.ok ? p.resolve(env.data ?? env.text) : p.reject(new Error(env.error));
};
window.__yj = { call(name, args) {
return new Promise((resolve, reject) => {
const id = "yj" + Math.random().toString(36).slice(2);
pending.set(id, { resolve, reject });
window.wails.invokeAsync(id, JSON.stringify({
object: 0, method: 0, windowName: "",
args: { "call-id": id, methodName: "yellowjacket/backend/" + name, args: args || [] },
clientId: window._wails.clientId,
}));
});
} };
```
That turns the device into a tier that can be *driven* rather than only
looked at — `__yj.call("player.Player.LoadFile", [path])` and
`__yj.call("library.Library.AddLibrary", ["/sdcard/Music/..."])` are how
#53 was measured. Names are the Go ones (`GetTracks`, not
`GetAllTracks`); an unknown one comes back as a plain
`unknown bound method name`, so a wrong guess is loud.
**Getting audio onto the phone**: `adb push` into
`/sdcard/Android/data/<pkg>/files/` looks like it works and then the
files are not there — scoped storage. `/sdcard/Music/...` plus
`pm grant … READ_MEDIA_AUDIO` does work, and `AddLibrary` takes the
plain path. The generated fixtures are **~2 seconds** each, which is
fine for a scan and useless for watching a seek bar, so synthesise a
long one: `ffmpeg -f lavfi -i sine=frequency=440:duration=240`.
**And the reason to bother: the phone is an engine, not a screen.** The
first device here renders in **Chrome 113** at 424x439 CSS px. Every
+1042
View File
File diff suppressed because it is too large Load Diff
+1 -1
View File
@@ -13,7 +13,7 @@ reviews. Nothing was changed.
Findings below are numbered `H-n` (hands-on) and cross-reference the
static reports where they overlap. The reconciliation plan built from
all four files is `.planning/plans/pending/007-ui-reconciliation.md`.
all four files is `.planning/plans/completed/007-ui-reconciliation.md`.
---
@@ -1,358 +0,0 @@
# 017 — Releases that happen by themselves
> **Status: built, not yet run.** Phases 04 have landed on this branch;
> phase 5 is the merge itself and cannot be done until then. The old
> `v1.x` tags are already deleted from `origin`. Verified locally against
> a scratch remote: semantic-release computes **0.0.1** from these
> commits and renders correct sectioned notes.
>
> **One thing found by testing that no amount of reading would have
> caught.** `conventional-changelog-conventionalcommits@10` — the current
> release, and my first pin — is silently incompatible with the writer
> `release-notes-generator@14` depends on: the version is right, the tag
> is right, every step reports success, and the release body is a bare
> `## 0.0.1 (date)` heading with **nothing under it**. It is pinned to 9
> in both `release.yml` and `make release-dry`, with the reason written
> beside it. Four of my seven original pins were wrong majors besides;
> they were guesses, and `npm view` was the fix.
The goal in one sentence: **a merge to `main` computes the next version
from the commits it contains, cuts a tag and a Gitea release whose body
is the changelog, and every publishing channel builds that tag.** The
first release under this scheme is `v0.0.1`, and the five existing `v1.x`
tags go.
## What is there now
Measured, not remembered:
- **Five tags and zero releases.** `v1.3.0`, `v1.4.0`, `v1.4.1`,
`v1.5.0`, `v1.6.0` exist on `origin`;
`GET /api/v1/repos/yonlu/yellowjacket/releases` returns `[]`. So there
is no release page to preserve and nothing but the tags to remove.
- **`CHANGELOG.md` is stale and belongs to another repo.** Its newest
entry is `1.3.0` and every link in it points at
`github.com/onion-4-dinner/yellowjacket` — it was written by a
semantic-release run against a GitHub remote this project no longer
has.
- **`.releaserc.yml` is a complete semantic-release config that nothing
invokes**, which CLAUDE.md already says in as many words.
- **Root `package.json` is literally `{}`** — the stub left behind by
whatever was going to run it.
- The triggers today are: `arch-package` on **push to `main`**,
`homebrew-formula` on **`v*`**, `android-apk` on **`v*`**, `ci` on
every branch, `index-artifact` on cron/dispatch. So Arch publishes a
`git describe` version on every merge and the other two publish only
when a human remembers to push a tag.
## Decision 1 — semantic-release, with `exec` in place of the `github` plugin
**Revised: the first draft of this plan proposed a shell script and the
argument for it does not hold.** Recorded here rather than deleted,
because the reasoning is what the decision rests on.
What I said, and what checking it showed:
- *"The two plugins that would carry the work do not fit."* Half true.
`@semantic-release/github` genuinely does not speak Gitea's `/api/v1`
— but the replacement is **`@semantic-release/exec`**, which is
first-party, published 2026-06, and peer-deps `semantic-release >=24.1`.
Its `publishCmd` is one `curl` at the Gitea release endpoint with
`${nextRelease.notes}` as the body. The Gitea-shaped part of this is
five lines, and the part I proposed to hand-roll — parsing conventional
commits, ordering semver, rendering grouped notes — is the part with
the edge cases and none of it is Gitea-shaped at all.
- *"`@semantic-release/git` commits the changelog back to `main`, which
re-triggers everything."* True, and it is the one real risk — but it
is a two-line guard (skip the job when `HEAD`'s subject is
`chore(release):`), not a reason to write a version calculator. That
guard is needed under **either** design, since either one writes a
changelog commit.
- *"A Node dependency tree at the root of a Go repo."* The commitlint
precedent does not transfer. commitlint was a dependency to regex one
line; this is a dependency to do something with real complexity, it is
`npx`-only so nothing lands in the repo, and Node is already installed
in CI for the frontend.
- *"It cannot be told to produce `0.0.1`."* Wrong — that is a property
of which commits are in the range, not of the tool. Identical under
both designs. See below.
Note also that **`@saithodev/semantic-release-gitea` is a dead end** and
should not be reached for: last published 2022, depends on `got@10` and
`fs-extra@8`, and declares no peer dependency on semantic-release at all
— i.e. it is untested against anything since v19, against a core now at
v25. `exec` + `curl` is both simpler and maintained.
So `.releaserc.yml` stays, and its plugin list becomes five **first-party**
plugins, all published within the last six months:
| plugin | job |
| --- | --- |
| `commit-analyzer` | the version |
| `release-notes-generator` | the notes |
| `changelog` | writes `CHANGELOG.md` |
| `git` | commits it back |
| `exec` | `curl`s the Gitea release |
The `releaseRules` and `presetConfig` blocks already in the file are
kept verbatim — they are the same bump table `commit-check.sh` already
enforces the grammar for, and nothing about the project's commit
convention changes.
Two mechanical details that decide whether this works at all:
- **semantic-release pushes the tag itself**, as core behaviour, using
`repositoryUrl`. The remote here is `ssh://git@git.ljones.me:2222/…`,
which would need an SSH key in CI — so the run passes
`--repository-url "https://x-access-token:$PACKAGE_TOKEN@git.ljones.me/yonlu/yellowjacket.git"`
on the command line rather than committing a token to the config.
**That is also what satisfies Decision 2**: the tag push is attributed
to a real user, not to the Actions token.
- **The empty root `package.json` (`{}`) goes.** semantic-release does
not need one when `--repository-url` is explicit, and leaving a
package manifest at the root of a Go repo invites the npm plugin and
every tool that looks for one.
Invocation is pinned in the workflow, not installed into the repo:
```
npx --yes \
-p semantic-release@25 \
-p @semantic-release/commit-analyzer@14 \
-p @semantic-release/release-notes-generator@15 \
-p @semantic-release/changelog@6 \
-p @semantic-release/git@10 \
-p @semantic-release/exec@7 \
-p conventional-changelog-conventionalcommits@9 \
semantic-release --repository-url "…"
```
(Exact majors get pinned from `npm view` at implementation time;
`conventional-changelog-conventionalcommits` is in the list because both
the analyzer and the notes generator name that preset and neither
depends on it.)
## Decision 2 — how the publish workflows learn about the tag
**Gitea, like GitHub, does not start a workflow from a tag pushed by a
workflow's own token** (go-gitea#33123, and the forum thread it points
at). This is the one load-bearing unknown in the plan.
The remedy is to push the tag with a *user* PAT — `secrets.PACKAGE_TOKEN`
is already in this repo and already used by `arch-package` and
`android-apk` to clone and to publish — so the push is attributed to a
person and the `v*` triggers fire normally. That keeps the three publish
workflows completely unchanged in shape.
**It is verified in phase 5, not assumed.** The fallback, if it does not
fire, is an explicit `POST
/api/v1/repos/{owner}/{repo}/actions/workflows/{file}/dispatches` per
channel from the release job. That needs `workflow_dispatch` (with a
`version` input) added to `homebrew-formula.yml` and `arch-package.yml`;
`android-apk.yml` already has both. **Add those inputs in phase 3
regardless** — a hand-triggered rebuild of one channel is worth having
whether or not the fallback is needed.
The alternative — one `release.yml` with the three publishes as
`needs:` jobs — is rejected: it means either copying ~400 lines of
Android and Arch setup into it or relying on `workflow_call`, and it
puts every merge to `main` behind an up-to-60-minute Android build on a
runner with capacity 1.
## Decision 3 — 1.6.0 → 0.0.1 is a downgrade, and the answer is reinstall
**Decided: no version-code offset, no epoch. The version number stays
honest and existing installs are replaced by hand.** Every channel is a
downgrade and each declines differently, so what to expect:
- **Arch: no upgrade is offered, silently.** `pkgver()` derives from
`git describe`, so after the wipe it reads `0.0.1.rN.gHASH`, which
pacman orders *below* the `1.3.0.rN.*` in the registry. `pacman -R
yellowjacket && pacman -S yellowjacket` is the remedy. (`epoch=1` in
the PKGBUILD would have avoided it for one line — but an epoch can
never be removed, and it puts a permanent `1:` in front of every
version string this project will ever have.)
- **Homebrew: no upgrade is offered, silently.** Brew has no epoch at
all. `brew uninstall yellowjacket && brew install …`.
- **Android: a hard refusal.** `versionCode` is
`maj*10000 + min*100 + pat`, so `0.0.1` is **1** against the **10300**
an installed 1.3.0 carries, and the install fails with
`INSTALL_FAILED_VERSION_DOWNGRADE`. Uninstall first — **and that takes
the app's library and config with it**, which is the same data loss
`android-apk.yml`'s keystore guard exists to prevent, arrived at from
the other direction. The workflow's own `code -le 0` guard still passes
at 1, so nothing in CI stops or warns about this.
All three go in the release notes for `v0.0.1` and in
`packaging/homebrew/README.md` / `docs/android-release.md`, because a
channel that silently offers no upgrade is indistinguishable from a
broken pipeline six months from now.
## Landing exactly `v0.0.1`
Determinism comes from two things:
1. **Seed `v0.0.0` on `6fb7b5e`** (current `origin/main`) after wiping
the old tags. That is the floor, and the analyser's range starts
there.
2. **This branch carries no `feat:` commit.** Everything in it is
`ci:`/`docs:`/`chore:`/`build:`, plus at least one `fix:` — which is
honest, since wiring up release machinery that was configured and
never run *is* a fix. One patch-level commit in `v0.0.0..HEAD`
computes `0.0.1` and nothing else can.
This is a property of the commit range, not of the tool — it would have
been the same constraint under the shell script.
This is a real constraint on the branch, not an accounting trick: a
single `feat:` commit here makes the first release `v0.1.0`.
`v0.0.0` itself gets no release object — it is a floor, not a shipment.
## Decision 4 — what the release page carries
Four artifacts, and the fourth is the interesting one. Measured on this
machine rather than assumed:
| asset | built by | state |
| --- | --- | --- |
| `yellowjacket-<v>-android-arm64.apk` | `android-apk.yml` | already built, verified, signed |
| `yellowjacket-<v>-linux-amd64.tar.gz` | new job | binary + `.desktop` + icon |
| `yellowjacket-<v>-x86_64.pkg.tar.zst` | `arch-package.yml` | already built; free to attach |
| `yellowjacket-<v>-windows-amd64.zip` | new job | **compiles; has never been run** |
**macOS cannot be one of them.** `GOOS=darwin CGO_ENABLED=0` fails at
`wails/v3/pkg/mac: build constraints exclude all Go files` — the darwin
backend is Objective-C behind cgo, so a `.app` needs a macOS host and
the runner is a Linux container. That is precisely why the Homebrew
channel builds from source on the user's own Mac, and it stays the
answer for macOS.
**Windows is newly possible and should be labelled honestly.**
`GOOS=windows GOARCH=amd64 CGO_ENABLED=0 go build -tags production`
succeeds in 2.5 s and produces a 40 MB `.exe` — nothing in the audio,
database or webview path needs cgo on Windows (oto uses WinMM through
`x/sys`, sqlite is modernc's pure-Go driver, WebView2 is COM syscalls,
and MPRIS is `linux && !android`-tagged). But **compiling is not
running**: no Windows build of this app has ever been started, no CI tier
can exercise one, and `backend/system`'s `%LOCALAPPDATA%` path has never
resolved on a real machine. It ships marked as untested in the release
notes, or it does not ship — an unlabelled Windows download is a promise
nothing here can keep.
### The race the ordering creates
semantic-release runs **prepare** (changelog commit, tag push) before
**publish** (the `exec` curl that creates the release object). The tag
push is what starts the publishing workflows — so a fast one can reach
its upload step *before the release exists*, and
`POST /releases/{id}/assets` needs an id.
The capacity-1 runner serialises things enough that this would usually
work, which is the worst kind of bug. So each upload step **polls
`GET /api/v1/repos/…/releases/tags/{tag}` with a bounded retry** before
uploading, and fails loudly on timeout rather than skipping the asset.
That is ~8 lines of shell, shared by all three publishers.
## Phases
**Phase 0 — clear the ground.**
Delete `v1.3.0``v1.6.0` locally and on `origin`; push `v0.0.0` at
`6fb7b5e` — this is the floor semantic-release reads, and without it the
first release is `1.0.0` by its own rule. Delete the empty root
`package.json`. Truncate `CHANGELOG.md` to a header plus a line saying
history before `0.0.1` is in `git log` — the existing content is another
repo's links and cannot be repaired, only replaced, and the `changelog`
plugin prepends to whatever it finds.
**Phase 1 — `.releaserc.yml`.**
Swap `@semantic-release/github` for `@semantic-release/exec`, whose
`publishCmd` POSTs to
`/api/v1/repos/yonlu/yellowjacket/releases` with `tag_name`, `name` and
`body` taken from `${nextRelease.*}`. Keep `commit-analyzer`,
`release-notes-generator`, `changelog` and `git` exactly as written; fix
the `git` plugin's commit message so it passes `commit-check`
(`chore(release): ${nextRelease.version}` — the existing one already
does, but the trailing `${nextRelease.notes}` in the body is worth
keeping deliberate rather than incidental). `make release-dry` wraps
`semantic-release --dry-run` so the next version is answerable without
pushing anything.
`scripts/commit-check.sh`'s header already points at `.releaserc.yml`
for the type list and stays correct — that coupling survives this plan
rather than being broken by it.
**Phase 2 — `.gitea/workflows/release.yml`.**
On `push: branches: [main]`. Node 22, the pinned `npx` line from
Decision 1, `--repository-url` carrying `PACKAGE_TOKEN`. Concurrency
group `release-main` with `cancel-in-progress: false` — cutting a tag is
not a thing to cancel halfway.
The one guard that matters: **the job exits early when `HEAD`'s subject
starts `chore(release):`**, so the changelog commit the `git` plugin
pushes cannot re-enter this workflow. That is checked in shell rather
than left to `[skip ci]`, whose handling in Gitea is one more thing that
would have to be verified.
**Phase 3 — rewire the publish workflows.**
`arch-package.yml` moves from `push: branches: [main]` to
`push: tags: ['v*']` plus `workflow_dispatch`, so a merge no longer
publishes an untagged package. `homebrew-formula.yml` gains
`workflow_dispatch` with a `version` input and takes its version from
the input when there is no tag. `android-apk.yml` needs neither.
**Phase 3b — the assets.**
`scripts/release-asset.sh` is the shared uploader: wait for the release
by tag, then `POST /releases/{id}/assets?name=…`. `android-apk.yml` and
`arch-package.yml` each call it with the artifact they already built.
A new `desktop-assets` job — `push: tags: ['v*']`, in the same
`ubuntu:24.04` container `ci.yml` uses — builds the Linux binary via
`make build-prod` and the Windows one via the `CGO_ENABLED=0`
cross-compile, and uploads both. It is a separate job from the Arch one
because that runs in an `archlinux` container as an unprivileged
`makepkg` user, and grafting two unrelated builds onto it would make one
failure look like the other.
**Phase 4 — say that the upgrade is a reinstall, and that Windows is untried.**
No code change: a note in `packaging/homebrew/README.md`, one in
`docs/android-release.md`, the three-channel downgrade warning written
into the `v0.0.1` release notes, and a standing line in the notes
template marking the Windows asset unverified until someone runs it.
**Phase 5 — cut it and watch.** *(the only phase left)*
Merge, then verify with `gitea_ci` that (a) `release.yml` ran, seeded
`v0.0.0` and produced `v0.0.1`, (b) the release exists **with a non-empty
body** — check the body, not the exit code — and (c) **all four publish
workflows started from the tag**. If (c) is empty, that is Decision 2's
fallback and the `workflow_dispatch` inputs added in phase 3 are already
there to drive it.
The expected sequence on the merge is: `release.yml` seeds `v0.0.0`
(triggering nothing), releases `0.0.1`, and pushes both the changelog
commit and the tag — at which point `release.yml` fires a second time on
the changelog commit and exits at the `chore(release):` guard, while the
four `v*` workflows start. On a capacity-1 runner they will queue behind
each other, Android last and longest.
**Phase 6 — the documentation that will otherwise be wrong.**
CLAUDE.md's *Commits* section currently explains `.releaserc.yml` and
says nothing runs it; the CI section says there are five workflows and
that only `ci.yml` gates. Both change. `docs/android-release.md`
describes tags as hand-pushed. `make skill-check` fails on a `.pi/`
reference to a make target that does not exist, so `make release-dry`
gets documented or nothing does.
## Open questions for you
1. **Ship the Windows `.exe` or not?** It builds, and it has never run.
Marked-as-untested is the assumption; say if you would rather hold it
back until someone boots it.
Resolved: semantic-release stays, with `exec` in place of the `github`
plugin (Decision 1). Reinstalls are accepted, so no epoch and no
versionCode offset (Decision 3). The release carries the APK, a Linux
tarball, the Arch package and — pending (1) — a Windows zip; macOS is
not buildable here and stays a Homebrew-from-source channel (Decision 4).
`v0.0.0` has to be a real tag under this design — semantic-release reads
git tags for its floor and has no "treat absence as 0.0.0" knob that
also stops it calling the first release `1.0.0`.
@@ -1,5 +1,7 @@
# 012 — What we ask the network for, and what we already had
> **Completed.** Findings 1, 2 and 4 shipped. Finding 3 — the bound-but-uncalled methods — is now **#86**.
**Status:** all four findings fixed. Lint (3 configs), Go tests (3
configs), `tsc` and 752 Vitest tests pass; **not driven against the
real app**, so the numbers below are read off the code, not measured.
@@ -1,5 +1,7 @@
# 015 — Android release pipeline
> **Completed.** The pipeline ships a signed APK from CI on every `v*` tag; `docs/android-release.md` is its operating document.
Ship an Android APK from CI on every version tag, published to the Gitea
generic package registry so Obtainium can poll a plain URL.
@@ -1,5 +1,7 @@
# 015 — Multi-artist credits, navigable
> **Completed.** Phases 1, 2 and 4 shipped. Running the ingest against the real dump and publishing an artifact that carries credits is **#88**; Phase 3 (`file_artists`) is **#89**, blocked on it.
## The problem
A track credited to more than one artist has exactly one navigable
@@ -1,5 +1,7 @@
# 016 — What Android parity would actually take
> **Completed.** Sections A, B1, B2 and B4 shipped. B3, writing tags on the device, is now **#87**; the device-found UI faults are #51#72, sequenced by #73.
> **Status: all of section A is done.** A1A3 landed with "let the app
> reach the user's music"; A4 (MediaSession, transport notification,
> audio focus) landed with "survive the screen locking". The direction
@@ -0,0 +1,87 @@
# 017 — Releases that happen by themselves
**Shipped as `v0.0.1`.** A merge to `main` now reads the Conventional
Commits since the last tag, cuts the tag and the Gitea release whose body
is the generated changelog, and the four publishing workflows build that
tag and attach their artifacts. Nothing is released by hand.
## What it looks like now
`release.yml` on push to `main` → semantic-release → tag → four `v*`
workflows in parallel (serialised in practice by the capacity-1 runner):
| workflow | publishes | attaches |
| --- | --- | --- |
| `arch-package` | pacman registry | `…-x86_64.pkg.tar.zst` |
| `android-apk` | generic registry (Obtainium) | `…-android-arm64.apk` |
| `desktop-assets` | — | `…-linux-amd64.tar.gz` |
| `homebrew-formula` | the public tap | — (builds from source) |
Verified on the real thing: all five green, three assets on the release,
the tap at `0.0.1`, and the Obtainium `latest` URL serving 200.
## The five decisions, and what they cost
1. **semantic-release, not a shell script.** The first draft of this plan
proposed hand-rolling it and the argument did not survive checking:
`@semantic-release/exec` is first-party and current, and the
Gitea-shaped part is one `curl`. What I would have hand-rolled —
commit parsing, semver ordering, note rendering — is the part with the
edge cases and none of it is Gitea-shaped.
2. **`@saithodev/semantic-release-gitea` is a dead end** and was offered
before it was checked: last published 2022, `got@10`, and no peer
dependency on semantic-release at all.
3. **No `@semantic-release/git`.** `main` is protected, so a changelog
commit-back is rejected by the pre-receive hook — and would be
rejected *after* the tag was pushed, leaving a tagged release the run
reports as failed. The release page is the changelog;
`.release-notes.md` is a gitignored carrier and `CHANGELOG.md` is a
signpost.
4. **Versions restart at `0.0.1`**, a downgrade on every channel. No
`epoch`, no `versionCode` offset: both are permanent, a reinstall is
once. Documented in `packaging/homebrew/README.md` and
`docs/android-release.md`.
5. **No macOS and no Windows.** `GOOS=darwin CGO_ENABLED=0` fails at
`wails/v3/pkg/mac` and there is no macOS runner, so Homebrew-from-source
stays that channel. Windows cross-compiles in ~2.5 s and is withheld
because no build of it has ever been *run*.
## Four things that only showed up by running it
- **`conventional-changelog-conventionalcommits@10` renders empty
notes.** Silently: right version, right tag, every step green, and a
release body that is a bare `## 0.0.1 (date)` heading with nothing
beneath it. Held at `9`, in `release.yml` and `make release-dry`, with
the reason beside both. **Check the rendered notes, never the exit
code.**
- **semantic-release core dry-run-pushes to the release branch** as a
permission check, independently of any plugin. `PACKAGE_TOKEN` had
package-write and repo-*read* — enough to clone, not enough for this —
and it failed with a flat `403 Forbidden` that reads exactly like
branch protection. It is not: a `--dry-run` push never reaches the
pre-receive hook, which a one-line experiment settled. The token needed
`write:repository`.
- **The floor tag must go on `HEAD^`, not `HEAD`.** Seeded on the merge
commit itself it leaves nothing between the floor and HEAD, and
semantic-release correctly reports there is nothing to release. The
first run did exactly that and cut nothing.
- **A tag-triggered workflow runs from the tagged commit's tree.**
Moving `v0.0.0` back to `6fb7b5e` ran the *pre-merge* homebrew
workflow, which predates the `v0.0.0` skip guard, and pushed a `0.0.0`
formula to the public tap. Self-corrected at `0.0.1`. The corollary is
general: a guard added today does not protect a tag pointing at
yesterday.
## Two mechanisms confirmed, having been assumptions
- **A tag pushed with a user PAT does start the `v*` workflows**; one
pushed with the Actions token does not (go-gitea#33123). Both halves
are load-bearing and both were observed: the floor seed triggered
nothing, and the release tag triggered all four.
- **Tags are not protected** on this repo, only `main` — which is what
lets semantic-release tag at all.
## Left behind deliberately
`v0.0.0` stays on `origin` as the floor. It carries no release, and all
four publishers skip it by name.
@@ -0,0 +1,327 @@
# 018 — Supported sizes, and what the queue panel is
**Issue:** #24 (`Area/Shell-Nav`, `Priority/High`, `Reviewed/Confirmed`)
**Unblocks:** #55 (queue as a screen) — a real Gitea dependency
**Relates:** #69 (page-header overflow), #12 (mini-player), #51 (small-screen umbrella)
**Status:** complete — #24 shipped as PR #132, and the matrix's last
unkept promise closed with #69.
#73 puts this first in Phase 2 and hangs the rest of the phase off it,
so the decision has to be written down and arguable before any CSS
moves. This document is the decision. Everything below the matrix is
either a measurement or an argument for one of the four choices #24
asks for.
---
## What is actually wrong, measured
Against the running app (`make dev-headless SEED=default`, Chromium),
Playlists, sweeping the viewport with the queue open and closed. The
number that matters is how much of the page header survives.
| viewport | sidebar | queue | main panel | header needs | actions clipped |
|---|---|---|---|---|---|
| 1280×800 | 200 | open 321 | 759 | 759 | — |
| 1000×700 | 200 | open 321 | 479 | 747 | New Playlist, New Smart Playlist |
| **900×600** | 200 | open 321 | **379** | 747 | **all three** |
| 800×600 | 56 | open 321 | 423 | 747 | all three |
| 700×600 | 56 | open 321 | 323 | 747 | all three |
| 390×780 | — | open 321 | **69** | 747 | all three |
| 320×600 | — | open 321 | **0** | 747 | all three |
| 900×600 | 200 | closed | 700 | 747 | New Smart Playlist |
| **800×600** | 56 | closed | 744 | 747 | **New Smart Playlist (158/162px)** |
| 320×600 | — | closed | 320 | 747 | all three |
Five things in that table are not in the issue.
**The header clips at the supported minimum with the queue closed.**
At 800×600 — the size `backend/config/window.go` enforces and the only
size this app *promises* — "New Smart Playlist" loses 4px of its 162.
#24 reads as a queue-panel bug; the queue makes it dramatic, but the
header overflows on its own at the minimum window.
**900×600 is worse than 800×600, because the sidebar expands at 900.**
`AUTO_COLLAPSE_VIEWPORT` collapses the sidebar to icons *below* 900, so
at 899px the main panel is 843px and at 900px it is 700px. The worst
desktop case is therefore not the minimum window; it is the pixel
immediately above the collapse. Anything that tests "the minimum" and
stops has not tested the worst case, which is what
`layout-overflow.spec.ts` does today.
**At phone widths the queue is not a drawer, it is an amputation.**
`queue-panel`'s host is `flex-shrink: 0; width: 0`, going to
`width: var(--queue-width, 320px)` under `[open]` — it is *in the flow*
of `.content-area`, so it takes its width from the main panel rather
than covering it. At 390px that leaves 69px of the page; at 320px it
leaves **0px**, and the app is not degraded but gone. This is the
measurement #55 needs and did not have.
**Only Playlists overflows.** Sweeping all ten primary views at 900×600
and at 390×780, every other header reports `scrollWidth ==
clientWidth`, and Albums at 390px renders title, count and sort
legibly (checked on a screenshot, not just the number). #69 is
therefore one view's action set — three text buttons totalling 390px —
and not a systemic header failure, though the *rule* still belongs in
`page-header`.
**Both reasons in `MinWidth`'s comment are stale.** It says the floor is
800×600 because "below ~780 the header's subtitle wraps" and "below
~600 tall the eleven sidebar items no longer fit". The subtitle is
`display: none` below 900 (index.css), and the sidebar host is
`overflow-y: auto` — at 600×460 its `scrollHeight` is 434 against a
332px client, and Settings is reachable after scrolling. Neither
mechanism can happen any more. That does not mean the floor should
move; it means its stated reason no longer supports it, which is worse
than either answer.
*(Care needed: my first probe for the sidebar scroller searched
`shadowRoot.querySelectorAll('*')` and reported "items are
unreachable", because the scroller is the **host** and a host is not in
its own shadow root. The claim in CLAUDE.md is correct.)*
---
## Decision 1 — the supported size matrix
Three bands. Two of them already exist and are already argued; what is
new is that they are written down as a *promise*, and that the queue is
part of it.
| band | width | navigation | queue | promise |
|---|---|---|---|---|
| **Phone** | < 600 | `bottom-nav` + drawer | overlay, full width | reflows; nothing needs sideways scrolling; fits 320px |
| **Compact** | 600 899 | icon sidebar | overlay + scrim | nothing is clipped or unreachable at any width in the band |
| **Desktop** | ≥ 900 | labelled sidebar | inline where it fits (see decision 2), else overlay | as Compact |
And one promise across all three: **no action is ever unreachable.**
That is the sentence #69 asks for and it is the one the matrix exists
to make checkable.
**400% zoom** keeps the meaning it already has: WCAG 1.4.10 names 320px
as the reflow target, the phone band covers it, and
`layout-overflow.spec.ts` already asserts a 320px viewport needs no
sideways scrolling. What changes is that the *queue* must be part of
that assertion — it is not today, and with the queue open at 320px the
main panel is 0px wide, which no current test can see.
**The window minimum stays 800×600**, and its comment gets the real
reason. The old mechanisms are gone, but the floor is still where the
Compact band's chrome stops being comfortable, and lowering it would
mean promising the desktop layout at sizes where only the phone layout
works. The interesting consequence is decision 4.
---
## Decision 2 — the queue is an overlay when it cannot afford to be a column
**The rule.** The queue panel renders inline — in the flow, as today —
only while
```
viewport sidebar queueWidth ≥ 480
```
and as an overlay with a scrim otherwise.
**Why it cannot be a media query**, which is the load-bearing half:
the queue's width is *user state*. It is drag-resizable between 200 and
500px and persisted (`--queue-width`, `MIN_WIDTH`/`MAX_WIDTH` in
`queue-panel.ts`). A breakpoint at a fixed viewport width silently
assumes the default 320, and is wrong by 180px for a user who has
dragged the panel wide — in the direction that hurts, since a wider
queue is exactly when the content can least afford it. So the mode is
computed from the measured widths and published as an attribute, the
way `data-active-view` already is, and the CSS keys off that.
**Why 480, honestly.** There is no cliff to derive it from. The track
list rescales its columns continuously — at main widths from 900 down
to 544 its `--grid-cols` shrink from 213px to 124px with
`rowOverflow=0` throughout — and the album grid steps 3 columns to 2
somewhere between 564 and 644 without breaking. So this is a judgement,
anchored on two things: it keeps the *default* window (1100 wide, main
= 580) inline, because the inline queue is a desktop affordance people
choose and turning it into an overlay for the common case would be a
regression in feel; and it puts every case measured as broken —
900×600 at main=379, and every phone width — on the overlay side.
1024×768 lands at main=504 and stays inline.
**The scrim is the other half of the issue's complaint** ("make the
queue obviously an overlay *over* the content so it reads as something
to close"). An overlay queue gets a scrim, closes on scrim click and on
Escape, and returns focus to `#queue-button`.
**What must not change**: #55's Direction is explicit — one component,
two mount points, do not fork it. The overlay is a *presentation* of
the same `queue-panel`, so the roving tab stop, Alt+Arrow reorder, drag
reorder, selection semantics and the `virtualizer.requestUpdate()` on
selection and current-track change all come along untouched. This
decision deliberately stops short of #55's detail-view mount, but it is
the shape that makes it possible, and it unblocks it.
---
## Decision 3 — #69 is its own PR, and here is the finding that decides it
`page-header` **cannot collapse its own actions**, and that is not an
effort estimate but a fact about the API. Actions arrive through
`<slot name="actions">` as arbitrary light-DOM markup — Playlists slots
a `<div class="header-actions">` of three `<button>`s with click
handlers, drag handlers and a conditional class. A component cannot
move another component's light-DOM children into a dropdown and keep
their behaviour; there is nothing generic to render as a menu item.
So the overflow rule needs an *actions API* — hosts declaring
`{icon, label, handler, priority}` data that `page-header` can render
either as buttons or as menu items — which is a change to all three
hosts that slot actions, not a rule added in one place. That is a
different piece of work from this one, it is independently verifiable,
and the desktop half of #69's symptom is removed by decision 2 anyway
(the queue stops eating the header's width).
It therefore stays #69, gets the finding above recorded on it, and
follows immediately after this. What *this* plan owes it is the
promise in the matrix — no action unreachable at any supported size —
and the measurement that the only offender today is Playlists.
**And the promise is not kept yet, which is the honest version of a
claim this document made in its first draft.** "Decision 2 removes the
desktop half of #69's symptom" was too strong. Measured after phase 2,
at 900×600 on Playlists:
| | before | after |
|---|---|---|
| queue open | main 379px, **all three** actions clipped | main 700px, **one** clipped |
| queue closed | main 700px, one clipped | unchanged |
So the queue's *contribution* is gone — open and closed are now
identical, which is the whole of what this decision owed — and the
residual "New Smart Playlist: 114/162px" is the header overflowing on
its own, at a size the queue never touched. #69 is still a live defect
at a supported size, and the matrix's promise is what will close it.
---
## Decision 4 — a very small window becomes the phone layout, not the mini-player
#24 asks whether a very small window should switch to the mini-player
(#12) "or simply refuse to go there". Both options in the question are
worse than the one the codebase already has.
**#12 is a second window, not a mode.** Its findings say so: v3
supports multiple windows, `AlwaysOnTop` is a window *option*, and the
frontend would need an entry branch mounting only the mini-player root
for a second window loading the same bundle. Turning the main window
into a mini-player at some width conflates the two: it would throw away
the user's navigation state on a resize, and it puts the MPRIS question
(#12's own open question — media controls are process-level and must
not be per-window) on a code path that a drag can trigger by accident.
**And "refuses" is unnecessary, because the reflow already exists.**
The phone band is real, tested, and reached by width alone — a desktop
window narrowed below 600px already gets `bottom-nav` and the phone
shell. That is a better answer than refusing: it is strictly more
usable than a hard minimum, it costs nothing new, and it is the same
code Android runs, so it stays exercised.
So: the main window reflows and never becomes a mini-player; #12 stays
a separate always-on-top window and is not blocked by, or coupled to,
this decision. The window minimum stays 800×600 for the reason in
decision 1 — but the phone band is what happens below it, not a
refusal, which is why the minimum is a comfort floor rather than a
correctness one.
---
## Phases
1. **This document**, linked from #24, with the matrix reported on the
issue and #55 told whether it is unblocked. *(no code)***done**
2. **The queue's overlay mode** — computed mode attribute, scrim,
Escape and scrim-click close, focus return. The inline path is
unchanged above the threshold. — **done**
3. **The window minimum's comment** — replace both stale reasons with
the measured ones. No value change. — **done**
4. **Verification**, below. Including the specs that must change
because they assert the old behaviour. — **done**
#69 follows as its own branch; #55 became unblocked at phase 2.
## What landed, measured
Main panel width with the queue open, before and after:
| viewport | before | after | mode |
|---|---|---|---|
| 1280×800 | 759 | 759 | inline |
| 1100×720 (default window) | 579 | 579 | inline |
| 1024×768 | 503 | 503 | inline |
| 900×600 | **379** | **700** | overlay |
| 800×600 | 423 | 744 | overlay |
| 390×780 | **69** | **390** | overlay |
| 320×600 | **0** | **320** | overlay |
The scrim is perceptible but subtle on a dark ramp, which is worth
knowing before someone "fixes" it: sampled from the screenshots at
900×600, the main panel's background goes 33,37,41 → 18,20,23 and a
row's text 242 → 133. It covers the **content area only** — not the
sidebar or the transport — on purpose: the queue is not modal, and
leaving the navigation live means the scrim reads as "this is over the
content" (which is what #24 asked for) without pretending the rest of
the app is unavailable.
## What #69 did with the promise, and one thing this plan got wrong
#69 landed on its own branch as decision 3 said it would, and the
matrix's *no action is ever unreachable at any supported size* is now
kept rather than promised. Measured on Playlists, actions clipped:
| viewport | before #24 | after #24 | after #69 |
|---|---|---|---|
| 900×600, queue open | all three | one (114/162px) | none |
| 900×600, queue closed | one | one | none |
| 800×600, queue closed | one (158/162px) | one | none |
| 390×780 | all three | all three | none |
| 320×600 | all three | all three | none |
The shape was the one decision 3 predicted — an actions API first, an
overflow rule second — and all three hosts that slot actions migrated.
**What this document got wrong is smaller and worth keeping.** Decision
1 says the header's minimum is a *comfort* floor and that only the
queue and the actions compete for the header's width. They are not the
only two: every child of that flex row was `flex-shrink: 0`, so
whatever came last lost, and the actions come last. At 320px the sort
control alone is 172px of the header — so with every action already
collapsed into the menu, the *menu button* was 76px off the right edge.
The promise was still broken with nothing left to collapse.
That is why #69 also had to decide what gives way: the title (which the
navigation also states) and, below 600px, the word "Sort:" (which the
direction arrow implies). Neither is an action, which is the rule the
matrix actually encodes — **an action is a capability and everything
else on that row is a label.**
## Verification, and what each tier cannot see
- `make ui-test` — the queue panel's mode logic is component-tier
work and belongs there. It **cannot** see the shell: the threshold is
computed from the sidebar and viewport, which do not exist in that
tier.
- `make e2e``layout-overflow.spec.ts` gains the queue-open case at
every band (it has none today, which is why main=0px at 320px has
never failed anything) and **gains 900×600**, since the minimum is
not the worst case. `queue-toggle-state.spec.ts` and
`phone-shell.spec.ts` both touch the panel and must be re-read before
editing.
- **Screenshots at every band, read by a human.** This is not optional
here: `layout-overflow.spec.ts` asserts the *shell* needs no sideways
scrolling and passes on a build whose album header clips its own
buttons (measured this session at 390px; filed on #66). Clipping
*inside* a component is invisible to it, and clipping is this issue.
- `make ui-visual` **cannot help at all** — the component tier renders
the token fallbacks, because the theme only reaches `:root` in the
real app.
- Accessible names via `page.getByRole(...)`, never a shadow-root
query. A drawer with a scrim is exactly the shape that grows a
nameless control, and this repo has shipped one three times.
@@ -1,5 +1,7 @@
# Autotag (v1.3) — MusicBrainz Autotagger
> **Historical record.** Phases 008010 shipped, and the scoring engine was subsequently overhauled (`recommend.go`, `rank.go`, `mixedbag.go`), which makes the 011/012 sections below stale in their details. What is actually left is **#90** (auto-accept and entry points) and **#91** (settings, and a way back from the dismissed file-write warning).
The MusicBrainz autotagger, collectively **v1.3**. Builds on the explore-browser API client + cache foundation. Five sequential phases (008012), each depending on the prior one.
| Phase | Title | Status |
@@ -1,195 +0,0 @@
# 010 — Owned albums, offline
**Status:** not started — and **much smaller than when it was written**
**Branch:** none yet
**Created:** 2026-08-13
**Depends on:** nothing
**Related:** the `AlbumReleasesFailed` fix that prompted it, and the
tag-derived completeness that landed after it (same session)
---
## What already shipped, and what it leaves
The common case is solved without this plan. `GetAlbumCompleteness`
reads the "5/12" denominator off the files' own tags — persisted to
`release_group_recordings.total_tracks`, having been extracted at every
scan since forever and discarded — and an album that is **MBID-matched
and complete** now opens with **no catalog call at all**. Identity from
the MBID, tracklist from the tags; those were the two things the browse
was being spent on.
So the set this plan still has to serve is not "albums you own a track
of". It is:
- albums that are genuinely **incomplete** (the catalog is the only way
to say *which* tracks are missing — tags give the count, not the
names), and
- albums whose tags **never declared a total**, where completeness is
unknowable locally and the catalog is the only source.
On a well-tagged library that is a small minority, which changes the
economics below considerably: the run is shorter, and the rate limiter
contention that dominates this design is proportionally less severe.
Re-measure before building — the answer may now be "the prefetch is
enough".
---
## The problem
Opening an album detail page for an album **you already own** hits
MusicBrainz. Every time it is not in the response cache, which for most
of a library is every time, because nothing warms that cache except a
capped prefetch on the artist page.
The user's framing: *this is a classic example of an album we should
have had locally.*
## Why we do not have it, despite the discography backfill
`BackfillLibraryDiscographies` / `EnsureArtistDiscography`
(`backend/explore/searchindex.go:301`, `:397`) do less than the name
suggests. Per artist, `indexOneArtist` fetches:
- `fetchTopReleaseGroups` — capped at `indexMaxRGs` (50)
- `fetchTopRecordings` — capped at `indexMaxRecs` (200)
and writes them as **flat `explore_index` rows**. There is no release
group → tracklist relation anywhere in the index, and no release-level
rows at all. `explore_index` recordings carry `caa_release_mbid` and
`release_name`, which name the release used for cover art — not a
tracklist.
So "we have full discographies for library artists" means *we know
which albums the artist made, offline*. It has never meant we know
what is on any of them.
The only store of release-level catalog data in the app is `http_cache`
under `mb:browse:releases:<rg>` (90-day TTL, `musicbrainz.go:27`),
populated **only** by a live `BrowseReleases` with
`Includes: ["recordings", "media"]` at `MaxLimit` — the most expensive
call the app makes to MusicBrainz. It is warmed by exactly one thing:
`PrefetchReleases` (`explore.go:746`), capped at 8, called only when an
artist page renders.
An album opened from the library grid therefore always browses live.
## What to build
**A post-scan backfill that warms the release cache for release groups
that are owned but not known-complete** — bounded, resumable, and
shaped exactly like `BackfillLibraryDiscographies`, which is the proven
pattern for this in the codebase.
The scoping rule is the user's and it is the right one: not "every
album by every artist in the library" (50 release groups per artist,
mostly never opened) but albums with owned tracks — narrowed further,
now, to the ones a local answer cannot already cover. The query gains
one clause: skip release groups whose `GetAlbumCompleteness` reports
`complete`.
Sketch:
1. A query for release groups with ≥1 owned track and no warm release
cache entry. `release_groups.mbid` is the key; the owned-track join
is `audio_files → recordings → release_group_recordings`, the same
shape `unenrichedLibraryArtistMBIDs` already uses one table over.
2. Order by owned-track count descending, so the albums the user has
most of are warmed first — same reasoning as the discography
backfill's ordering, same benefit if a run is cut short.
3. Run through `releasesSF`, so it never double-fetches a release group
an interactive open is already handling.
4. Bound a run (`discogBackfillMaxPerRun` has a value to copy) and make
it resumable: the resume marker is the response cache itself —
`BrowseReleasesCached` already answers "is this one done", so unlike
the discography path this needs **no new flag column**.
5. Trigger it where `BackfillLibraryDiscographies` is triggered, and
register it with `jobs` so it has progress, pause and cancel like
every other long-running operation.
### The rate limiter is the whole design constraint
> **Update (2026-08-13): the priority half is built, and the sentence
> below is wrong on a detail.** `e.mb` runs on `mbSearchLimiter`
> (`NewRateLimiterBurst(3, 1)`); the 1 req/s `NewRateLimiter()` cited
> here is the *artist image* limiter. Both are shared and both were
> FIFO. `RateLimiter.WithBackgroundLane` + `WithBackgroundPriority(ctx)`
> now make a marked caller yield to interactive work and pace at 1/s,
> and `jobs.KindCatalogEnrich` + `startBackfillJob` give the existing
> backfills progress and cancel. **"Do not start until the priority
> question has an answer" is satisfied** — mark this backfill's context
> and register it the way `BackfillLibraryDiscographies` now is.
> `PrefetchReleases`' cap of 8 is still unrevisited.
One shared `NewRateLimiter()` at 1 req/s (`explore.go:84`) serves this,
`PrefetchReleases`, and every interactive browse. A backfill over a
few thousand owned albums is *hours* of wall clock at that rate — which
is fine for a background job, and not fine if it starves the album page
the user is looking at right now.
That is the real work in this plan, and it is not the query:
- Interactive browses need to **jump the queue**. Today they cannot;
there is one limiter and it is FIFO.
- `PrefetchReleases`' cap of 8 was sized when nothing else competed for
the limiter. Revisit it in the same change.
- The 60 s fallback the `AlbumReleasesFailed` fix installed is sized
for today's contention. If a backfill can queue behind it, that
number is wrong again — which is an argument for priority, not for a
bigger number.
Do not start the query until the priority question has an answer.
## The alternative that was considered and rejected
**Project release-group tracklists in the dump build and ship them in
the artifact.** The data is there: `canonical_musicbrainz_data.csv`
carries `release_mbid` *and* `recording_mbid`
(`dumpcatalog.go:520`), and `release_to_rg` already maps release →
release group. It is derivable from bytes the index build already
streams, with no new API surface at all, and it would work offline on
first launch with no per-user backfill.
It is rejected **for this plan** because the artifact is built
centrally and is byte-identical for every user, so "albums the user
owns a track of" cannot be a filter on it. Shipping tracklists for the
whole catalog means per-recording rows against a ~900 MB artifact
budget (~426 B/row measured), and gating on a popularity floor means it
is absent for exactly the obscure albums a local backfill would have
covered.
Worse than absent, in fact — and this is the argument that actually
kills it. The floor is not one number over artists; it is a **per
artist track budget** (`dumpcatalog.go:58-89`): 50 tracks for a tier-A
artist, 25 for tier B, 12 for tier C. A projected tracklist would
therefore be *whichever* of an album's tracks survived that budget,
with nothing marking the rest as absent — so the album page would count
owned against a truncated denominator and render "Play 7 of 9" for a
twelve-track album. That is a confident lie, where the honest states
this plan's alternative produces (complete / incomplete / unknown) are
at worst silent.
Note that `markLibraryArtists` (`dumpcatalog.go:246`) already grants
every library artist full coverage — 500 tracks, 100 release groups —
by reading the local library, so the per-user tailoring this option
supposedly cannot have does exist in code. It is a no-op in the CI
build (empty library), and reaching it means a **local** dump build:
the ~205 GB, half-a-day download the entire artifact design exists to
avoid. Whoever finds that function next should read this paragraph
before getting excited about it.
Worth revisiting if the artifact ever gains per-user tailoring, or if a
measurement shows the row count is smaller than feared. Note it also
yields the *canonical* tracklist rather than MusicBrainz's full version
list, so the versions dropdown would still browse live when opened.
## Done when
- Opening an owned album that has never been opened before renders its
catalog tracklist with no network call, after one backfill run.
- An interactive browse issued while the backfill is running is not
delayed by it.
- The backfill appears in the jobs indicator, and can be paused and
cancelled there.
- A second run after a completed one does approximately nothing.
+14 -3
View File
@@ -1,8 +1,19 @@
# semantic-release configuration.
#
# Runs on pushes to main from .gitea/workflows/release.yml: determine the
# version from the Conventional Commits since the last tag, write the
# changelog, commit it, push the tag, and create the Gitea release.
# Run by hand from .gitea/workflows/release.yml, which has no push
# trigger: determine the version from the Conventional Commits since the
# last tag, write the changelog, push the tag, and create the Gitea
# release. A release is a shipment rather than a merge, and the commits
# accumulate until someone says so -- this file needs to know nothing
# about that, because reading everything since the last tag is what it
# already did.
#
# `branches` is main and only main. A `prerelease: true` channel is the
# obvious next edit here and is the one to think twice about: all four
# publishing workflows trigger on `v*`, which matches `v0.4.0-beta.1`.
# They carry a prerelease guard now, so the failure is a clean skip
# rather than a beta in a public tap -- but they are four separate files
# and this is the line that would turn them on.
#
# **There is no `@semantic-release/github` plugin here and there must not
# be.** Gitea's API is `/api/v1` and is not GitHub's surface. The Gitea
+10 -5
View File
@@ -5,15 +5,20 @@ The changelog is the releases page:
<https://git.ljones.me/yonlu/yellowjacket/releases>
Every release there is generated from the Conventional Commits it
contains, by `.gitea/workflows/release.yml` on merge to `main`. Each one
carries its notes as its body, grouped by change type, with a link to the
commit behind every line.
contains, by `.gitea/workflows/release.yml`. Each one carries its notes
as its body, grouped by change type, with a link to the commit behind
every line.
That workflow is **run by hand**, so a release holds everything merged
since the last one rather than one PR's worth. It used to fire on every
push to `main`, which made a version per merged PR (issue #115).
**This file is not generated and is not a copy of that.** `main` is a
protected branch, so nothing pushes a changelog commit back to it — and a
file that claimed to be a changelog while silently never updating would
be worse than no file at all. `make release-dry` prints what the next
merge would release.
be worse than no file at all. `make release-dry` prints what a release
run would cut right now, and the workflow's own `dry_run` input answers
the same question from CI.
History before `v0.0.1` is in `git log`. The versions before it were cut
by hand and are not on the releases page; the entries this file used to
+1011 -20
View File
File diff suppressed because it is too large Load Diff
+11 -5
View File
@@ -192,15 +192,21 @@ skill-check: ## Fail if the agent docs name a missing make target, or AGENTS.md
commit-check: ## Fail if a commit subject is not a Conventional Commit
@./scripts/commit-check.sh $(if $(RANGE),--range $(RANGE))
# What a merge to main would release, without releasing it. Reads the
# same .releaserc.yml CI does, so "why did that not cut a version" is
# answerable locally instead of by pushing and watching. Needs no
# credentials: --dry-run neither tags nor publishes.
# What running the release workflow now would ship, without shipping it.
# Reads the same .releaserc.yml CI does, so "why did that not cut a
# version" is answerable locally instead of by pushing and watching.
# Needs no credentials: --dry-run neither tags nor publishes.
#
# release.yml is dispatch-only, so this answers the question that
# actually gets asked now -- what has accumulated since the last tag --
# rather than what one merge would have done. The workflow's own
# `dry_run` input is the same answer from the runner, against whatever
# main points at rather than the working tree.
#
# The pins must stay identical to release.yml's, which is where the note
# on holding the conventionalcommits preset at 9 lives -- at 10 the
# release notes come out empty with everything green.
release-dry: ## Print the version a merge to main would release
release-dry: ## Print the version a release run would cut right now
@npx --yes \
-p semantic-release@25 \
-p @semantic-release/commit-analyzer@13 \
+5 -2
View File
@@ -106,5 +106,8 @@ make dev # run with hot-reload
make build-prod # produce a release binary
```
More detail for contributors lives in
[`docs/dev/overview.md`](./docs/dev/overview.md) and [`CLAUDE.md`](./CLAUDE.md).
More detail for contributors lives in [`CLAUDE.md`](./CLAUDE.md) — the
architecture, the conventions and the reasons behind them. What is
being worked on is [the issue
tracker](https://git.ljones.me/yonlu/yellowjacket/issues); #73 is the
roadmap.
+30
View File
@@ -8,6 +8,7 @@ import (
"log/slog"
"yellowjacket/backend/database/sql/sqlcgen"
"yellowjacket/backend/tagtotals"
)
// TagChanges mirrors tagwriter.TagChanges — redefined here so the
@@ -28,6 +29,8 @@ const (
FieldYear = "year"
FieldTrackNumber = "track_number"
FieldDiscNumber = "disc_number"
FieldTotalTracks = "total_tracks"
FieldTotalDiscs = "total_discs"
FieldCoverArt = "cover_art"
)
@@ -418,5 +421,32 @@ func buildChanges(
changes[FieldDiscNumber] = track.DiscNumber
}
// The totals are what says "2 of 10" rather than a bare tick, and
// dropping them here is what made autotagging an album *erase* the
// evidence: the release becomes MBID-matched while the field
// GetAlbumCompleteness reads stays absent.
//
// They are written unconditionally where the candidate has a
// tracklist, not only when they differ from the local value, because
// the common case is a file that declares no total at all -- which
// compares equal to nothing and would be skipped by a diff guard.
if tracks, discs := tagtotals.For(
candidatePositions(cand), track.DiscNumber,
); tracks > 0 {
changes[FieldTotalTracks] = tracks
changes[FieldTotalDiscs] = discs
}
return changes
}
// candidatePositions is the candidate's tracklist as bare positions.
func candidatePositions(cand Candidate) []tagtotals.Position {
out := make([]tagtotals.Position, 0, len(cand.Tracks))
for _, t := range cand.Tracks {
out = append(out, tagtotals.Position{Disc: t.DiscNumber, Track: t.Position})
}
return out
}
+90
View File
@@ -0,0 +1,90 @@
package autotag
import "testing"
// Autotagging an album used to *erase* the evidence that says "2 of 10":
// the release became MBID-matched while the totals the files declared
// went unwritten, so the album page showed a plain tick. These pin the
// two halves of the fix that are easy to get wrong silently.
func TestBuildChanges_Totals(t *testing.T) {
t.Parallel()
twoDiscs := Candidate{
Tracks: []CandidateTrack{
{DiscNumber: 1, Position: 1},
{DiscNumber: 1, Position: 2},
{DiscNumber: 2, Position: 1},
{DiscNumber: 2, Position: 2},
{DiscNumber: 2, Position: 3},
},
}
tests := []struct {
name string
cand Candidate
local LocalTrack
track CandidateTrack
wantTracks any
wantDiscs any
}{
{
// The common case, and the one a diff guard would skip: the
// file declares no total at all, so the total "has not
// changed" and would never be written.
name: "a file with no total gets one",
cand: Candidate{Tracks: []CandidateTrack{
{Position: 1}, {Position: 2}, {Position: 3},
}},
local: LocalTrack{TrackNumber: 1},
track: CandidateTrack{Position: 1},
wantTracks: 3,
wantDiscs: 1,
},
{
// 5 here would be the release's track count. Summed once
// per disc by GetAlbumCompleteness that claims a ten-track
// expectation for a five-track album, which no library can
// ever satisfy.
name: "a multi-disc release totals the track's own disc",
cand: twoDiscs,
local: LocalTrack{},
track: CandidateTrack{DiscNumber: 2, Position: 1},
wantTracks: 3,
wantDiscs: 2,
},
{
name: "the other disc gets its own total",
cand: twoDiscs,
local: LocalTrack{},
track: CandidateTrack{DiscNumber: 1, Position: 1},
wantTracks: 2,
wantDiscs: 2,
},
{
// A candidate with no tracklist knows nothing, and writing
// a zero would claim it did.
name: "a candidate with no tracklist writes no total",
cand: Candidate{},
local: LocalTrack{},
track: CandidateTrack{Position: 1},
wantTracks: nil,
wantDiscs: nil,
},
}
for _, tc := range tests {
t.Run(tc.name, func(t *testing.T) {
t.Parallel()
changes := buildChanges(tc.local, tc.cand, tc.track)
if got := changes[FieldTotalTracks]; got != tc.wantTracks {
t.Errorf("%s: got %v, want %v", FieldTotalTracks, got, tc.wantTracks)
}
if got := changes[FieldTotalDiscs]; got != tc.wantDiscs {
t.Errorf("%s: got %v, want %v", FieldTotalDiscs, got, tc.wantDiscs)
}
})
}
}
+28
View File
@@ -17,6 +17,34 @@ const (
RecommendationStrong Recommendation = "strong"
)
// ConfidentTier is the tier at which this package considers a match
// good enough to act on without being asked to look.
//
// It exists as a name rather than as `== RecommendationStrong` at
// each call site because two features read it and they must not
// disagree about what "high confidence" means: the album page tells
// the user unprompted that the autotagger has a match (#28), and
// strict auto-accept will rewrite the files without asking (#90).
// A page that says "we are sure" about something the auto-accept
// pass would decline is the app contradicting itself.
//
// What the two do *not* share is everything else. Surfacing a match
// is a suggestion with a confirm dialog behind it; auto-accept is an
// irreversible on-disk rewrite, and #90 gates it on further
// conditions this tier cannot express — exact track count, every
// title matching, lengths within a couple of seconds, no cover
// replacement, no MBID conflict. So this is the floor both stand on,
// not the whole of either test.
const ConfidentTier = RecommendationStrong
// Confident reports whether a tier clears ConfidentTier.
//
// A comparison rather than an equality, so adding a tier above
// "strong" later does not silently stop qualifying.
func Confident(r Recommendation) bool {
return recommendationRank(r) >= recommendationRank(ConfidentTier)
}
const (
// Absolute score tiers.
strongScoreThresh = 0.90
+31
View File
@@ -168,3 +168,34 @@ func TestRecommend_LocalCandidatesWithoutRGMBIDCompareByTitle(t *testing.T) {
t.Errorf("different-title rival: Recommend = %q, want medium", got)
}
}
// The tier both features stand on is one name, checked here rather
// than assumed at two call sites.
//
// #28 renders "we have a match for this album" on the album page and
// #90 will rewrite files without asking; a page that claims confidence
// the auto-accept pass would decline is the app contradicting itself.
// What they do not share is everything else — auto-accept adds gates
// this tier cannot express — so this pins the floor, not the whole of
// either test.
func TestConfidentIsTheOneSharedFloor(t *testing.T) {
t.Parallel()
if ConfidentTier != RecommendationStrong {
t.Errorf("ConfidentTier = %q, want strong", ConfidentTier)
}
for _, tc := range []struct {
rec Recommendation
want bool
}{
{RecommendationNone, false},
{RecommendationLow, false},
{RecommendationMedium, false},
{RecommendationStrong, true},
} {
if got := Confident(tc.rec); got != tc.want {
t.Errorf("Confident(%q) = %v, want %v", tc.rec, got, tc.want)
}
}
}
+145
View File
@@ -0,0 +1,145 @@
package autotagservice
import (
"database/sql"
"fmt"
"yellowjacket/backend/autotag"
)
// AlbumMatchView is "the autotagger already has a confident match for
// the album you are looking at".
//
// It is deliberately not a score. The album page renders a suggestion,
// and a suggestion has to be actionable: which release, what it is
// called, and whether acting on it here would do the whole album or
// only part of it.
type AlbumMatchView struct {
// GroupKey is the tagging group the actions operate on.
GroupKey string `json:"groupKey"`
// Recommendation is the tier, as a string, for a caller that
// wants to render the strength rather than trust the filter.
Recommendation string `json:"recommendation"`
// Score is the top candidate's raw score, 0..1.
Score float64 `json:"score"`
// ReleaseMBID is the release Apply would write.
ReleaseMBID string `json:"releaseMbid"`
// Title and ArtistCredit name that release, so the banner can say
// what it is offering rather than "a match".
Title string `json:"title"`
ArtistCredit string `json:"artistCredit"`
// TrackCount is the group's local track count.
TrackCount int64 `json:"trackCount"`
// GroupCount is how many tagging groups this album spans.
//
// More than one means a multi-disc album (one group per disc), and
// it is the reason this is a field rather than an implementation
// detail: applying "the album" from a single button would retag
// one disc of three and leave the folder holding a mix of old and
// new tags. The caller offers review instead.
GroupCount int `json:"groupCount"`
}
// MatchForAlbum answers "does the autotagger have something confident
// to say about this album", for the album detail page.
//
// Three things about it are load-bearing.
//
// **It costs no MusicBrainz request.** Everything it needs is already
// on disk: `tagging_items` carries the top score and release from the
// background prefetch, and `tagging_candidates` durably holds the
// scored list. The rate limiters here are shared with every page the
// user can open, so a lookup that fires on page load must not join
// that queue — which also means this returns nothing for a folder
// nobody has scored yet, rather than scoring it now. That is the
// right trade: the prefetch will get to it, and a page that silently
// spends a minute of somebody's MusicBrainz budget to draw a banner
// is worse than a page that says nothing.
//
// **The tier is computed, not read.** `tagging_items.score` is the raw
// number and `Recommend` is what turns it into a claim — capping it
// for an ambiguous runner-up, an incomplete alignment or a folder too
// small to corroborate itself. Filtering on the raw score would
// promise confidence the scorer had explicitly withheld.
//
// **Nothing is said about an album the user has already answered
// for.** Only a `pending` group qualifies: `confirmed` covers both a
// finished apply and an explicit "leave as is", and `skipped` is the
// user saying not now. Re-offering either is nagging, and "leave as
// is" would be actively wrong to argue with.
func (s *Service) MatchForAlbum(albumID int64) (*AlbumMatchView, error) {
if albumID <= 0 {
return nil, nil //nolint:nilnil // "no album" is not an error.
}
rows, err := s.db.Queries.GetTaggingItemsForAlbum(
s.ctx, sql.NullInt64{Int64: albumID, Valid: true},
)
if err != nil {
return nil, fmt.Errorf("tagging items for album: %w", err)
}
pending := rows[:0:0]
for _, row := range rows {
if row.Status == "pending" {
pending = append(pending, row)
}
}
if len(pending) == 0 {
return nil, nil //nolint:nilnil // nothing to say is not an error.
}
// Rows arrive best-score-first, so the first pending one is the
// group worth describing. On a multi-disc album that is one disc
// of several and GroupCount says so.
best := pending[0]
cands := s.lookupCachedCandidates(best.GroupKey)
if len(cands) == 0 {
return nil, nil //nolint:nilnil // not scored yet; see the doc comment.
}
locals, err := s.scorer.LocalTracksForGroup(s.ctx, best.GroupKey)
if err != nil {
return nil, fmt.Errorf("local tracks for group: %w", err)
}
group := autotag.Group{
AlbumName: best.AlbumName,
AlbumArtist: best.AlbumArtist,
Tracks: locals,
Synthetic: best.Synthetic != 0,
}
rec := autotag.Recommend(group, cands)
if !autotag.Confident(rec) {
return nil, nil //nolint:nilnil // not confident enough to interrupt.
}
top := cands[0]
// The release the banner names must be the release Apply would
// write. Apply with an empty MBID takes the top cached candidate,
// which is what this reads — but it is passed explicitly anyway,
// so a rescore between the page rendering and the user clicking
// cannot swap the album out from under a button they have already
// read.
return &AlbumMatchView{
GroupKey: best.GroupKey,
Recommendation: string(rec),
Score: top.Score,
ReleaseMBID: top.ReleaseMBID,
Title: top.Title,
ArtistCredit: top.ArtistCredit,
TrackCount: best.TrackCount,
GroupCount: len(pending),
}, nil
}
+320
View File
@@ -0,0 +1,320 @@
package autotagservice
import (
"encoding/json"
"testing"
"yellowjacket/backend/autotag"
"yellowjacket/backend/database"
)
// seedAlbumGroup writes one album's files, its tagging item and the
// durable candidate blob the prefetch would have left behind.
//
// The candidate list is what a real one looks like in the two ways
// that decide the tier: a per-track alignment for every local track,
// and a runner-up far enough away not to count as ambiguity.
func seedAlbumGroup(
t *testing.T,
db *database.DB,
groupKey string,
tracks int,
status string,
score float64,
) int64 {
t.Helper()
for i := 1; i <= tracks; i++ {
database.InsertTestTrack(t, db, database.TestTrack{
FilePath: filePathFor(groupKey, i),
Title: titleFor(i),
Artist: "Tideline",
Album: "Glass Harbour",
AlbumArtist: "Tideline",
TrackNumber: int64(i),
LengthMs: 200000,
LibraryID: 0,
GroupKey: groupKey,
})
}
if _, err := db.ExecContext(`
INSERT INTO tagging_items
(group_key, library_id, track_count, album_name, album_artist,
disc_number, status, score, best_match_release_mbid)
VALUES (?, 0, ?, 'Glass Harbour', 'Tideline', 0, ?, ?, 'rel-1')
`, groupKey, tracks, status, score); err != nil {
t.Fatalf("insert tagging item: %v", err)
}
var albumID int64
if err := db.QueryRowWriter(
`SELECT album_id FROM audio_files WHERE group_key = ? LIMIT 1`, groupKey,
).Scan(&albumID); err != nil {
t.Fatalf("read album id: %v", err)
}
return albumID
}
func filePathFor(groupKey string, n int) string {
return "/music/" + groupKey + "/0" + string(rune('0'+n)) + ".mp3"
}
func titleFor(n int) string {
return "Track " + string(rune('0'+n))
}
// storeCandidates writes the durable blob GetCandidates would have
// cached, with `top` as the winning score.
func storeCandidates(
t *testing.T, db *database.DB, groupKey string, tracks int, top float64,
) {
t.Helper()
aligns := make([]autotag.TrackAlignment, 0, tracks)
for i := range tracks {
aligns = append(aligns, autotag.TrackAlignment{
Status: autotag.AlignmentMatched,
LocalIndex: i,
})
}
cands := []autotag.Candidate{
{
ReleaseMBID: "rel-1",
ReleaseGroupMBID: "rg-1",
Title: "Glass Harbour",
ArtistCredit: "Tideline",
TrackCount: tracks,
Alignments: aligns,
Score: top,
},
{
ReleaseMBID: "rel-2",
ReleaseGroupMBID: "rg-2",
Title: "Something Else",
ArtistCredit: "Another Band",
TrackCount: tracks,
Score: 0.40,
},
}
blob, err := json.Marshal(cands)
if err != nil {
t.Fatalf("marshal candidates: %v", err)
}
if _, err := db.ExecContext(
`INSERT INTO tagging_candidates (group_key, candidates) VALUES (?, ?)`,
groupKey, string(blob),
); err != nil {
t.Fatalf("insert candidates: %v", err)
}
}
// A confident match is what the album page exists to surface.
func TestMatchForAlbumSurfacesAConfidentMatch(t *testing.T) {
t.Parallel()
db := database.NewTestDB(t)
svc := newTestService(t, db)
albumID := seedAlbumGroup(t, db, "grp-1", 8, "pending", 0.95)
storeCandidates(t, db, "grp-1", 8, 0.95)
got, err := svc.MatchForAlbum(albumID)
if err != nil {
t.Fatalf("MatchForAlbum: %v", err)
}
if got == nil {
t.Fatal("no match returned for a strong candidate")
}
if got.Recommendation != string(autotag.RecommendationStrong) {
t.Errorf("recommendation = %q, want strong", got.Recommendation)
}
// The release named is the release Apply would write — the page
// must not offer one album and tag another.
if got.ReleaseMBID != "rel-1" || got.Title != "Glass Harbour" {
t.Errorf("named %q/%q, want rel-1/Glass Harbour", got.ReleaseMBID, got.Title)
}
if got.GroupCount != 1 {
t.Errorf("groupCount = %d, want 1", got.GroupCount)
}
}
// The tier is computed from the candidates, not read off the raw
// score — a high number the scorer would have capped must not reach
// the page as confidence it withheld.
func TestMatchForAlbumDoesNotTrustTheStoredScore(t *testing.T) {
t.Parallel()
db := database.NewTestDB(t)
svc := newTestService(t, db)
// Two tracks: below the evidence floor, so `Recommend` caps this
// at medium however well it scores.
albumID := seedAlbumGroup(t, db, "grp-2", 2, "pending", 0.99)
storeCandidates(t, db, "grp-2", 2, 0.99)
got, err := svc.MatchForAlbum(albumID)
if err != nil {
t.Fatalf("MatchForAlbum: %v", err)
}
if got != nil {
t.Errorf("surfaced %+v for a two-track folder, want nothing", got)
}
}
// A weak match is not worth interrupting for.
func TestMatchForAlbumStaysQuietBelowTheTier(t *testing.T) {
t.Parallel()
db := database.NewTestDB(t)
svc := newTestService(t, db)
albumID := seedAlbumGroup(t, db, "grp-3", 8, "pending", 0.60)
storeCandidates(t, db, "grp-3", 8, 0.60)
got, err := svc.MatchForAlbum(albumID)
if err != nil {
t.Fatalf("MatchForAlbum: %v", err)
}
if got != nil {
t.Errorf("surfaced %+v for a 0.60 match, want nothing", got)
}
}
// An album the user has already answered for is not re-offered.
//
// `confirmed` covers both a finished apply and an explicit "leave as
// is", and arguing with the second would be actively wrong.
func TestMatchForAlbumRespectsAnAnswerAlreadyGiven(t *testing.T) {
t.Parallel()
for _, status := range []string{"confirmed", "skipped", "matched"} {
t.Run(status, func(t *testing.T) {
t.Parallel()
db := database.NewTestDB(t)
svc := newTestService(t, db)
albumID := seedAlbumGroup(t, db, "grp-"+status, 8, status, 0.95)
storeCandidates(t, db, "grp-"+status, 8, 0.95)
got, err := svc.MatchForAlbum(albumID)
if err != nil {
t.Fatalf("MatchForAlbum: %v", err)
}
if got != nil {
t.Errorf("surfaced %+v for a %s group, want nothing", got, status)
}
})
}
}
// A folder nobody has scored yet says nothing, rather than scoring it
// now: the MusicBrainz limiter is shared with every page the user can
// open, and this runs on page load.
func TestMatchForAlbumMakesNoNetworkCallForAnUnscoredFolder(t *testing.T) {
t.Parallel()
db := database.NewTestDB(t)
svc := newTestService(t, db)
// No storeCandidates: the prefetch has not reached this folder.
albumID := seedAlbumGroup(t, db, "grp-4", 8, "pending", 0.95)
got, err := svc.MatchForAlbum(albumID)
if err != nil {
t.Fatalf("MatchForAlbum: %v", err)
}
if got != nil {
t.Errorf("surfaced %+v with no cached candidates, want nothing", got)
}
}
// A multi-disc album is several groups, and the count is what stops
// the page offering one button that would retag one disc of two.
func TestMatchForAlbumCountsEveryGroupOfTheAlbum(t *testing.T) {
t.Parallel()
db := database.NewTestDB(t)
svc := newTestService(t, db)
albumID := seedAlbumGroup(t, db, "grp-d1", 8, "pending", 0.95)
storeCandidates(t, db, "grp-d1", 8, 0.95)
// Disc two: same album row, its own folder and tagging group.
for i := 1; i <= 6; i++ {
database.InsertTestTrack(t, db, database.TestTrack{
FilePath: filePathFor("grp-d2", i),
Title: titleFor(i),
Artist: "Tideline",
Album: "Glass Harbour",
AlbumArtist: "Tideline",
TrackNumber: int64(i),
DiscNumber: 2,
LengthMs: 200000,
LibraryID: 0,
GroupKey: "grp-d2",
})
}
if _, err := db.ExecContext(`
INSERT INTO tagging_items
(group_key, library_id, track_count, album_name, album_artist,
disc_number, status, score)
VALUES ('grp-d2', 0, 6, 'Glass Harbour', 'Tideline', 2, 'pending', 0.93)
`); err != nil {
t.Fatalf("insert disc two: %v", err)
}
storeCandidates(t, db, "grp-d2", 6, 0.93)
got, err := svc.MatchForAlbum(albumID)
if err != nil {
t.Fatalf("MatchForAlbum: %v", err)
}
if got == nil {
t.Fatal("no match returned")
}
if got.GroupCount != 2 {
t.Errorf("groupCount = %d, want 2", got.GroupCount)
}
// Best-first: the 0.95 disc is the one described.
if got.GroupKey != "grp-d1" {
t.Errorf("described %q, want the higher-scoring grp-d1", got.GroupKey)
}
}
// An album with no local files at all — a pure catalog page — is not
// a question this can answer.
func TestMatchForAlbumSaysNothingWithoutAnAlbum(t *testing.T) {
t.Parallel()
db := database.NewTestDB(t)
svc := newTestService(t, db)
for _, id := range []int64{0, -1, 4242} {
got, err := svc.MatchForAlbum(id)
if err != nil {
t.Fatalf("MatchForAlbum(%d): %v", id, err)
}
if got != nil {
t.Errorf("MatchForAlbum(%d) = %+v, want nil", id, got)
}
}
}
+38
View File
@@ -0,0 +1,38 @@
package autotagservice
import (
"testing"
"yellowjacket/backend/autotag"
"yellowjacket/backend/tagwriter"
)
// twAdapter passes the diff map through unchanged, so autotag's field
// constants and tagwriter's are the same keys written down twice --
// deliberately, to keep autotag out of the write pipeline's import
// graph. A key that drifts does not fail to compile and does not fail
// to write: the writer simply finds no entry under the name it looks
// for, and the field is silently dropped. That is what this pins, and
// this package is the one place that imports both.
func TestAutotagAndTagwriterAgreeOnFieldNames(t *testing.T) {
t.Parallel()
pairs := map[string][2]string{
"title": {autotag.FieldTitle, tagwriter.FieldTitle},
"artist": {autotag.FieldArtist, tagwriter.FieldArtist},
"album": {autotag.FieldAlbum, tagwriter.FieldAlbum},
"album artist": {autotag.FieldAlbumArtist, tagwriter.FieldAlbumArtist},
"year": {autotag.FieldYear, tagwriter.FieldYear},
"track number": {autotag.FieldTrackNumber, tagwriter.FieldTrackNumber},
"disc number": {autotag.FieldDiscNumber, tagwriter.FieldDiscNumber},
"total tracks": {autotag.FieldTotalTracks, tagwriter.FieldTotalTracks},
"total discs": {autotag.FieldTotalDiscs, tagwriter.FieldTotalDiscs},
"cover art": {autotag.FieldCoverArt, tagwriter.FieldCoverArt},
}
for name, pair := range pairs {
if pair[0] != pair[1] {
t.Errorf("%s: autotag says %q, tagwriter says %q", name, pair[0], pair[1])
}
}
}
+122 -3
View File
@@ -411,9 +411,10 @@ func (c *Config) SetDownloadPreferences(prefs download.AutoDownloadPrefs) error
formats = append(formats, string(f))
}
c.Downloads.MinFileSizeMB = prefs.MinSizeMB
c.Downloads.MinKbps = prefs.MinKbps
c.Downloads.MaxKbps = prefs.MaxKbps
c.Downloads.PreferredKbps = prefs.PreferredKbps
c.Downloads.MaxFileSizeMB = prefs.MaxSizeMB
c.Downloads.PreferredFileSizeMB = prefs.PreferredSizeMB
c.Downloads.AllowedFormats = formats
if err := c.Save(); err != nil {
@@ -543,7 +544,7 @@ func (c *Config) SetDefaultPage(page string) error {
c.General.ApplyDefaults()
}
c.General.DefaultPage = DefaultPage(page)
c.General.DefaultPage = View(page)
if err := c.General.Validate(); err != nil {
return fmt.Errorf(
@@ -665,6 +666,124 @@ func (c *Config) SetAllowMeteredCatalogDownload(allow bool) error {
return nil
}
// GetPopupVolume reports whether the bottom bar's volume control is a
// click-to-open popup rather than an inline slider (#42).
func (c *Config) GetPopupVolume() bool {
if c.General == nil {
return false
}
return c.General.PopupVolume
}
// SetPopupVolume saves the volume control's presentation.
//
// Nothing to validate: both values are legal at every width, and the
// frontend additionally stands the inline slider down below the phone
// breakpoint whatever this says, because that is about room rather than
// about preference.
func (c *Config) SetPopupVolume(popup bool) error {
if c.General == nil {
c.General = &GeneralConfig{}
c.General.ApplyDefaults()
}
c.General.PopupVolume = popup
if err := c.Save(); err != nil {
return fmt.Errorf(
"could not save config: %w", err,
)
}
events.Emit(
c.ctx,
events.GeneralConfigChanged,
map[string]any{
"PopupVolume": popup,
},
)
c.logger.Info("volume control presentation updated", "popup", popup)
return nil
}
// GetViewVisibility reports which primary views the sidebar should
// show, answered for every known view rather than only the ones the
// config mentions -- so the frontend filters on a value and never has
// to hold a second copy of the defaults.
func (c *Config) GetViewVisibility() map[string]bool {
if c.General == nil {
general := &GeneralConfig{}
general.ApplyDefaults()
return general.ResolvedViewVisibility()
}
return c.General.ResolvedViewVisibility()
}
// SetViewVisible shows or hides one primary view.
//
// Two refusals, both about a state the user cannot get out of from the
// UI they would be left with: Settings is never hideable, and the
// launch page is never hideable while it is the launch page (change it
// first). Hiding a view does not make it unreachable -- `navigate`
// still resolves it, which detail views depend on -- it only takes the
// nav item away.
func (c *Config) SetViewVisible(view string, visible bool) error {
spec, known := LookupView(view)
if !known {
return fmt.Errorf("%w: %q", errUnknownView, view)
}
if c.General == nil {
c.General = &GeneralConfig{}
c.General.ApplyDefaults()
}
if !visible {
if !spec.Hideable {
return fmt.Errorf("%w: %q", errViewNotHideable, view)
}
if spec.ID == c.General.DefaultPage {
return fmt.Errorf("%w: %q", errViewIsLaunchPage, view)
}
}
if c.General.ViewVisibility == nil {
c.General.ViewVisibility = make(map[string]bool, len(Views))
}
c.General.ViewVisibility[view] = visible
if err := c.General.Validate(); err != nil {
return fmt.Errorf("invalid view visibility: %w", err)
}
if err := c.Save(); err != nil {
return fmt.Errorf("could not save config: %w", err)
}
events.Emit(
c.ctx,
events.GeneralConfigChanged,
map[string]any{
"ViewVisibility": c.General.ResolvedViewVisibility(),
},
)
c.logger.Info(
"view visibility updated",
"view", view,
"visible", visible,
)
return nil
}
// GetTrackListColumns returns the configured track-list columns.
func (c *Config) GetTrackListColumns() []tracklist.Column {
if c.TrackList == nil {
+40
View File
@@ -188,3 +188,43 @@ func TestEmit_FavoritesChangeCarriesFullConfig(t *testing.T) {
}
}
}
// TestEmit_PopupVolumeRoundTripsAndDefaultsToInline pins both halves of
// #42's storage decision.
//
// The **default** is the load-bearing one: inline is what a fresh
// install and an existing `config.toml` with no such key must both
// produce, which is why the field names the popup rather than the
// inline slider. A flag spelled the other way round would default to
// false, hand every existing install the popup this issue exists to
// stop being the only option, and need a migration to say otherwise.
func TestEmit_PopupVolumeRoundTripsAndDefaultsToInline(t *testing.T) {
t.Parallel()
conf, rec := setupRecordedConfig(t)
if conf.GetPopupVolume() {
t.Error("a config with no PopupVolume key wants the popup, want inline")
}
if err := conf.SetPopupVolume(true); err != nil {
t.Fatalf("SetPopupVolume: %v", err)
}
if !conf.GetPopupVolume() {
t.Error("GetPopupVolume = false after setting it true")
}
data := payloadMap(t, rec, events.GeneralConfigChanged)
if data["PopupVolume"] != true {
t.Errorf("PopupVolume = %v, want true", data["PopupVolume"])
}
if err := conf.SetPopupVolume(false); err != nil {
t.Fatalf("SetPopupVolume(false): %v", err)
}
if conf.GetPopupVolume() {
t.Error("GetPopupVolume = true after setting it false")
}
}
+96 -26
View File
@@ -5,27 +5,13 @@ import (
"fmt"
)
// DefaultPage identifies which view the app opens to on launch.
type DefaultPage string
// Valid DefaultPage values, matching the frontend's top-level route ids.
const (
DefaultPageHome DefaultPage = "home"
DefaultPageTracks DefaultPage = "tracks"
DefaultPageAlbums DefaultPage = "albums"
DefaultPageArtists DefaultPage = "artists"
DefaultPageGenres DefaultPage = "genres"
DefaultPagePlaylists DefaultPage = "playlists"
DefaultPageExplore DefaultPage = "explore"
DefaultPageDownloads DefaultPage = "downloads"
DefaultPageAutotag DefaultPage = "autotag"
DefaultPageJobs DefaultPage = "jobs"
)
// DefaultDefaultPage is the launch page for a fresh install.
const DefaultDefaultPage = DefaultPageHome
const DefaultDefaultPage = ViewHome
var errUnknownDefaultPage = errors.New("unknown default page")
var (
errUnknownDefaultPage = errors.New("unknown default page")
errViewCannotLaunch = errors.New("view cannot be the launch page")
)
// QueueFallback identifies what plays, if anything, once the queue
// runs out with nothing left to auto-advance to.
@@ -46,18 +32,52 @@ var errUnknownQueueFallback = errors.New("unknown queue fallback")
// GeneralConfig holds general application preferences that don't
// belong to a more specific subsystem.
type GeneralConfig struct {
DefaultPage DefaultPage `toml:"DefaultPage"`
DefaultPage View `toml:"DefaultPage"`
QueueFallback QueueFallback `toml:"QueueFallback"`
// ViewVisibility says which sidebar destinations are shown, keyed by
// view id.
//
// **An absent key means that view's own default** (`Views`), and that
// is the whole reason this is a map rather than a `HiddenViews
// []string` or a struct of booleans. A list's zero value is "hide
// nothing", which cannot express Autotag being off by default without
// a migration; a struct field for a view that later stops existing is
// stored garbage somebody has to deprecate. Here a view added later
// gets its own default rather than being invisible or forcibly
// visible, an unknown key is dropped on load, and no install needs
// migrating in either direction. Same polarity rule as
// AllowMeteredCatalogDownload: the zero value is the intended answer.
ViewVisibility map[string]bool `toml:"ViewVisibility"`
// AllowMeteredCatalogDownload permits the ~0.6 GB Explore catalog to
// be fetched on a connection the platform calls cellular. It defaults
// to false, which is the whole point: the zero value is the safe one,
// so an existing config with no such key refuses by default rather
// than needing a migration to become careful.
AllowMeteredCatalogDownload bool `toml:"AllowMeteredCatalogDownload"`
// PopupVolume draws the bottom bar's volume as a click-to-open popup
// instead of a slider that is always there (#42).
//
// The polarity is the rule this file already states twice: **the
// zero value is the intended answer**. Inline is the new default, so
// the flag has to name the *other* choice — an `InlineVolume bool`
// would default to false and give every existing install the popup
// this issue exists to stop being the only option, and would need a
// migration to say otherwise.
PopupVolume bool `toml:"PopupVolume"`
}
// ApplyDefaults fills zero-value fields with sensible defaults.
//
// A launch page naming a *retired* view is treated as a zero value
// rather than as an error, because the alternative is an app that will
// not start for anyone who had that page selected when it was removed.
// An unknown-but-not-retired name still fails Validate: that is a typo,
// and telling someone about it is the useful answer.
func (c *GeneralConfig) ApplyDefaults() {
if _, retired := RetiredViews[c.DefaultPage]; retired {
c.DefaultPage = ""
}
if c.DefaultPage == "" {
c.DefaultPage = DefaultDefaultPage
}
@@ -71,15 +91,17 @@ func (c *GeneralConfig) ApplyDefaults() {
func (c *GeneralConfig) Validate() error {
c.ApplyDefaults()
switch c.DefaultPage {
case DefaultPageHome, DefaultPageTracks, DefaultPageAlbums, DefaultPageArtists,
DefaultPageGenres, DefaultPagePlaylists, DefaultPageExplore, DefaultPageDownloads,
DefaultPageAutotag, DefaultPageJobs:
// Valid.
default:
spec, known := LookupView(string(c.DefaultPage))
if !known {
return fmt.Errorf("%w: %q", errUnknownDefaultPage, c.DefaultPage)
}
if !spec.CanLaunch {
return fmt.Errorf("%w: %q", errViewCannotLaunch, c.DefaultPage)
}
c.normalizeViewVisibility()
switch c.QueueFallback {
case QueueFallbackStop, QueueFallbackFavorites, QueueFallbackDynamicMix:
// Valid.
@@ -89,3 +111,51 @@ func (c *GeneralConfig) Validate() error {
return nil
}
// normalizeViewVisibility drops what the stored map may not say, and
// repairs the one invariant the shell depends on.
//
// Three things are dropped or forced, and all three are reachable only
// from a hand-edited config or from a version that knew different
// views: an unknown id (a view removed since, e.g. when #27 folds Jobs
// into Settings) says nothing to anybody; a view that is not Hideable
// cannot be false; and **the launch page is always visible**, because
// otherwise an install lands on a page with no nav item pointing at it.
//
// That last one is a *repair* here and an *error* at the setter
// (SetViewVisible), deliberately. On load there is nobody to tell and
// the honest reading of "my launch page is Autotag" is that this user
// wants Autotag, so it is un-hidden rather than the launch page being
// silently reset to something they did not choose. At the setter the
// user is right there and can act, so it refuses and says why.
func (c *GeneralConfig) normalizeViewVisibility() {
for id := range c.ViewVisibility {
spec, known := LookupView(id)
if !known || !spec.Hideable {
delete(c.ViewVisibility, id)
}
}
if visible, ok := c.ViewVisibility[string(c.DefaultPage)]; ok && !visible {
c.ViewVisibility[string(c.DefaultPage)] = true
}
}
// ResolvedViewVisibility answers for every known view, so no caller has
// to know the defaults -- the frontend included, which is why the
// binding returns this rather than the stored map.
func (c *GeneralConfig) ResolvedViewVisibility() map[string]bool {
resolved := make(map[string]bool, len(Views))
for _, v := range Views {
visible := v.VisibleByDefault
if stored, ok := c.ViewVisibility[string(v.ID)]; ok && v.Hideable {
visible = stored
}
resolved[string(v.ID)] = visible
}
return resolved
}
+103
View File
@@ -0,0 +1,103 @@
package config
import "errors"
var (
errUnknownView = errors.New("unknown view")
errViewNotHideable = errors.New("view cannot be hidden")
errViewIsLaunchPage = errors.New("view is the launch page")
)
// View identifies one of the shell's primary destinations -- the
// things the sidebar lists and `index.ts` knows as `VIEW_TAGS`.
type View string
// The primary views, in no particular order: the sidebar owns the order
// it draws them in, because that is presentation.
const (
ViewHome View = "home"
ViewPlaylists View = "playlists"
ViewArtists View = "artists"
ViewGenres View = "genres"
ViewAlbums View = "albums"
ViewTracks View = "tracks"
ViewExplore View = "explore"
ViewDownloads View = "downloads"
ViewAutotag View = "autotag"
ViewSettings View = "settings"
)
// RetiredViews are destinations that used to exist and no longer do.
//
// A *visibility* entry for a removed view needs no such list: it is a
// key in a map, and an unknown key is dropped on load. A `DefaultPage`
// is a **value**, and an unknown one fails validation -- which on the
// load path means the app refuses to start rather than a setting being
// ignored. So the one shape that cannot be retired for free is named
// here and reset to the default instead.
//
// `jobs` was folded into Settings by #27: library scans under
// Libraries, index work under Search Index, downloads under the
// download clients, and the autotag apply into the Autotag view.
var RetiredViews = map[View]struct{}{
"jobs": {},
}
// ViewSpec is what the backend knows about a destination. The label and
// the icon are deliberately absent: those are presentation, they live
// beside the rest of the app's icon vocabulary in
// `frontend/src/utils/icon-language.ts`, and a Go copy of them would be
// a second thing to keep in step for nothing.
type ViewSpec struct {
// ID is the view name the frontend navigates by.
ID View
// VisibleByDefault is what an install gets when the config says
// nothing about this view -- which is every install until somebody
// changes it, and every view added after this one shipped.
VisibleByDefault bool
// Hideable is false for Settings alone. It is a property of the
// view rather than a check in the setter because `config.toml` is
// hand-editable, and an app that can be locked out of its own
// Settings by a typo is a support problem nobody can debug
// remotely.
Hideable bool
// CanLaunch reports whether the view may be the launch page.
// Settings is the only one that may not, which is the shape the
// DefaultPage enum already had.
CanLaunch bool
}
// Views is the one list of primary destinations, in the order Settings
// offers them.
//
// It is the single source for three things that used to be written down
// separately: which views exist, which of them may be the launch page
// (`DefaultPage`'s validation reads it), and what an unconfigured
// install shows.
//
// Autotag is the one view hidden by default: it rewrites tags on disk,
// which is not what most libraries want on day one, and #25 asks for it
// to be turned on deliberately.
var Views = []ViewSpec{
{ID: ViewHome, VisibleByDefault: true, Hideable: true, CanLaunch: true},
{ID: ViewPlaylists, VisibleByDefault: true, Hideable: true, CanLaunch: true},
{ID: ViewArtists, VisibleByDefault: true, Hideable: true, CanLaunch: true},
{ID: ViewGenres, VisibleByDefault: true, Hideable: true, CanLaunch: true},
{ID: ViewAlbums, VisibleByDefault: true, Hideable: true, CanLaunch: true},
{ID: ViewTracks, VisibleByDefault: true, Hideable: true, CanLaunch: true},
{ID: ViewExplore, VisibleByDefault: true, Hideable: true, CanLaunch: true},
{ID: ViewDownloads, VisibleByDefault: true, Hideable: true, CanLaunch: true},
{ID: ViewAutotag, VisibleByDefault: false, Hideable: true, CanLaunch: true},
{ID: ViewSettings, VisibleByDefault: true, Hideable: false, CanLaunch: false},
}
// LookupView returns the spec for a view id.
func LookupView(id string) (ViewSpec, bool) {
for _, v := range Views {
if string(v.ID) == id {
return v, true
}
}
return ViewSpec{}, false
}
+307
View File
@@ -0,0 +1,307 @@
package config
import (
"errors"
"log/slog"
"path/filepath"
"testing"
)
// newViewTestConfig builds a Config backed by a temp file, which is all
// SetViewVisible needs: it saves and emits, and the emit is a no-op
// without a running app.
func newViewTestConfig(t *testing.T) *Config {
t.Helper()
c := &Config{
logger: slog.Default(),
filePath: filepath.Join(t.TempDir(), "config.toml"),
}
// Load a file that is not there: that is what marks the config
// loaded, without which Save refuses on the *second* write.
if err := c.Load(); err != nil {
t.Fatalf("Load() error: %v", err)
}
return c
}
// A view the config says nothing about takes its own default, which is
// what makes this need no migration in either direction: an existing
// install gets Autotag hidden without a key, and a view added later
// gets its own answer rather than the list's.
func TestViewVisibilityDefaults(t *testing.T) {
t.Parallel()
general := &GeneralConfig{}
general.ApplyDefaults()
resolved := general.ResolvedViewVisibility()
if len(resolved) != len(Views) {
t.Fatalf("resolved %d views, want %d", len(resolved), len(Views))
}
if resolved[string(ViewAutotag)] {
t.Error("autotag should be hidden by default")
}
for _, v := range Views {
if v.ID == ViewAutotag {
continue
}
if !resolved[string(v.ID)] {
t.Errorf("%s should be visible by default", v.ID)
}
}
}
// A stored answer wins over the default, in both directions -- turning
// Autotag on is the whole user-facing point.
func TestViewVisibilityStoredWins(t *testing.T) {
t.Parallel()
general := &GeneralConfig{
ViewVisibility: map[string]bool{
string(ViewAutotag): true,
string(ViewExplore): false,
},
}
general.ApplyDefaults()
resolved := general.ResolvedViewVisibility()
if !resolved[string(ViewAutotag)] {
t.Error("autotag was switched on and should be visible")
}
if resolved[string(ViewExplore)] {
t.Error("explore was switched off and should be hidden")
}
}
// A key for a view that no longer exists is discarded rather than
// migrated. This is the property the #25-before-#27 ordering rests on:
// when Jobs folds into Settings, `jobs = true` in somebody's config is
// a key nothing asks about, not a cleanup task.
func TestValidateDropsUnknownAndUnhideableViews(t *testing.T) {
t.Parallel()
general := &GeneralConfig{
ViewVisibility: map[string]bool{
"a-view-that-was-removed": true,
string(ViewSettings): false,
string(ViewAutotag): true,
},
}
if err := general.Validate(); err != nil {
t.Fatalf("Validate() error: %v", err)
}
if _, ok := general.ViewVisibility["a-view-that-was-removed"]; ok {
t.Error("an unknown view id should be dropped on load")
}
if _, ok := general.ViewVisibility[string(ViewSettings)]; ok {
t.Error("settings is not hideable and should not be stored")
}
if !general.ResolvedViewVisibility()[string(ViewSettings)] {
t.Error("settings must resolve visible whatever the file said")
}
}
// On load there is nobody to tell, so a launch page hidden by a
// hand-edited file is un-hidden rather than the launch page being
// reset to something the user did not choose.
func TestValidateRevealsAHiddenLaunchPage(t *testing.T) {
t.Parallel()
general := &GeneralConfig{
DefaultPage: ViewAutotag,
ViewVisibility: map[string]bool{
string(ViewAutotag): false,
},
}
if err := general.Validate(); err != nil {
t.Fatalf("Validate() error: %v", err)
}
if !general.ResolvedViewVisibility()[string(ViewAutotag)] {
t.Error("the launch page must be visible")
}
}
// A launch page naming a view that no longer exists resets to the
// default instead of failing validation, which on the load path would
// mean the app refusing to start for whoever had it selected.
//
// This is the one shape #25's storage decision does *not* make free: a
// visibility entry is a key and an unknown key is dropped, but a launch
// page is a value.
func TestARetiredLaunchPageFallsBackToTheDefault(t *testing.T) {
t.Parallel()
general := &GeneralConfig{DefaultPage: "jobs"}
if err := general.Validate(); err != nil {
t.Fatalf("Validate() error: %v", err)
}
if general.DefaultPage != DefaultDefaultPage {
t.Errorf("DefaultPage = %q, want %q", general.DefaultPage, DefaultDefaultPage)
}
}
// A name that is merely wrong is still an error: that is a typo, and
// saying so is more useful than ignoring it.
func TestAnUnknownLaunchPageIsStillAnError(t *testing.T) {
t.Parallel()
general := &GeneralConfig{DefaultPage: "nonsense"}
if err := general.Validate(); !errors.Is(err, errUnknownDefaultPage) {
t.Fatalf("Validate() error = %v, want errUnknownDefaultPage", err)
}
}
// A retired view is not a view, so nothing offers it and nothing
// resolves it -- the visibility map included.
func TestARetiredViewIsGone(t *testing.T) {
t.Parallel()
for id := range RetiredViews {
if _, ok := LookupView(string(id)); ok {
t.Errorf("%s is retired but still in Views", id)
}
general := &GeneralConfig{}
general.ApplyDefaults()
if _, ok := general.ResolvedViewVisibility()[string(id)]; ok {
t.Errorf("%s is retired but still resolves a visibility", id)
}
}
}
// Settings may not be the launch page, which is the shape the old
// DefaultPage enum had and is now read off the same table.
func TestValidateRejectsAnUnlaunchablePage(t *testing.T) {
t.Parallel()
general := &GeneralConfig{DefaultPage: ViewSettings}
err := general.Validate()
if !errors.Is(err, errViewCannotLaunch) {
t.Fatalf("Validate() error = %v, want errViewCannotLaunch", err)
}
}
// At the setter the user is present and can act, so the two states
// they could not get out of are refused rather than repaired.
func TestSetViewVisibleRefusals(t *testing.T) {
t.Parallel()
tests := []struct {
name string
view string
visible bool
want error
}{
{"settings is never hideable", string(ViewSettings), false, errViewNotHideable},
{"the launch page is not hideable", string(ViewHome), false, errViewIsLaunchPage},
{"an unknown view is not a setting", "nonsense", false, errUnknownView},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
t.Parallel()
c := newViewTestConfig(t)
err := c.SetViewVisible(tt.view, tt.visible)
if !errors.Is(err, tt.want) {
t.Fatalf("SetViewVisible() error = %v, want %v", err, tt.want)
}
})
}
}
// Showing a view is never refused, including Settings and the launch
// page -- there is no state to be stuck in.
func TestSetViewVisibleShowsAnything(t *testing.T) {
t.Parallel()
c := newViewTestConfig(t)
for _, v := range Views {
if err := c.SetViewVisible(string(v.ID), true); err != nil {
t.Fatalf("SetViewVisible(%q, true) error: %v", v.ID, err)
}
}
if !c.GetViewVisibility()[string(ViewAutotag)] {
t.Error("autotag was switched on and should be visible")
}
}
// The stored map survives a save/load round trip, which is what a
// map-valued TOML key is worth checking for.
func TestViewVisibilityRoundTrips(t *testing.T) {
t.Parallel()
path := filepath.Join(t.TempDir(), "config.toml")
original := &Config{logger: slog.Default(), filePath: path}
if err := original.Load(); err != nil {
t.Fatalf("Load() error: %v", err)
}
if err := original.SetViewVisible(string(ViewAutotag), true); err != nil {
t.Fatalf("SetViewVisible() error: %v", err)
}
if err := original.SetViewVisible(string(ViewExplore), false); err != nil {
t.Fatalf("SetViewVisible() error: %v", err)
}
loaded := &Config{logger: slog.Default(), filePath: path}
if err := loaded.Load(); err != nil {
t.Fatalf("Load() error: %v", err)
}
resolved := loaded.GetViewVisibility()
if !resolved[string(ViewAutotag)] {
t.Error("autotag should have loaded as visible")
}
if resolved[string(ViewExplore)] {
t.Error("explore should have loaded as hidden")
}
}
// Every view the shell can launch into is a view the sidebar can show,
// or an install could land on a page with no nav item and no setting
// pointing at it.
func TestEveryLaunchableViewIsAView(t *testing.T) {
t.Parallel()
for _, v := range Views {
if !v.CanLaunch {
continue
}
if !v.Hideable {
continue
}
if _, ok := LookupView(string(v.ID)); !ok {
t.Errorf("%s is launchable but not a known view", v.ID)
}
}
}
+25 -7
View File
@@ -13,13 +13,31 @@ const (
// enforces this at runtime; it is also the floor below which a
// reported size is treated as bogus and not persisted.
//
// 800x600 is where the shell was measured to still work, rather
// than a round number: below ~780 the header's subtitle wraps and
// pushes the title out of the 4em top bar, and below ~600 tall the
// eleven sidebar items no longer fit at once. The previous
// 512x384 was aspirational — at 700x480 the sidebar overflowed
// behind the player bar with no scroll and Settings and Jobs could
// not be reached at all.
// **Both reasons this comment used to give have expired**, and the
// value is right for a third one. It said the floor was 800x600
// because "below ~780 the header's subtitle wraps and pushes the
// title out of the 4em top bar" and "below ~600 tall the eleven
// sidebar items no longer fit at once". Neither mechanism can
// happen now: the subtitle is display:none from 899px down
// (index.css), and the sidebar host is overflow-y:auto — measured
// at 600x460, its scrollHeight is 434 against a 332px client and
// Settings is reachable after scrolling. A floor defended by two
// mechanisms that no longer exist is a number nobody can argue
// with, which is worse than either answer.
//
// It stays 800x600 because that is where the *desktop* chrome
// stops being comfortable — the Compact band of plan 018's size
// matrix (#24) — and not because the app breaks below it. It does
// not: under 600px wide the phone layout takes over (bottom-nav,
// no sidebar) and the shell fits 320px exactly, which is what
// makes this a comfort floor rather than a correctness one, and
// why a very small window reflows instead of becoming a
// mini-player (#12 is a second always-on-top window, not a mode of
// this one).
//
// The previous 512x384 was aspirational — at 700x480 the sidebar
// overflowed behind the player bar with no scroll and Settings and
// Jobs could not be reached at all.
MinWidth = 800
// MinHeight is the smallest allowed window height in pixels.
MinHeight = 600
+46
View File
@@ -135,3 +135,49 @@ SELECT
) AS INTEGER) AS known
FROM audio_files a
WHERE a.album_id = sqlc.arg(album_id);
-- name: GetAlbumsCompleteness :many
-- The same question as GetAlbumCompleteness, asked of a screenful of
-- albums at once.
--
-- A card grid cannot afford one query per card, and the answer it wants
-- is the one thing a badge cannot guess: an album held 9 tracks of 12
-- must show the count, never a bare tick. So this is one query for the
-- whole grid, asked only of the cards that have a local album id.
--
-- It is two grouping levels rather than the single-album form's
-- correlated subqueries, because a correlated subquery in the FROM
-- clause is not something SQLite will reliably do -- and because the
-- slice may only be spelled once, or sqlc expands it twice with
-- independently numbered placeholders.
--
-- The per-disc level is where the meaning is, and it is the same
-- meaning as the single-album query. `owned` counts DISTINCT track
-- numbers within a disc (this app detects duplicates, and counting two
-- files of track 3 twice would report a short album as complete), with
-- a file that declares no track number falling back to its own id
-- because three untagged files are three tracks and not one.
-- `expected` takes each disc's declared total and sums over discs,
-- since a total is declared per disc and a release total written on
-- every file of a two-disc album would double its expectation. A disc
-- whose files declared nothing contributes a NULL that SUM ignores,
-- and `known` is what says the album is therefore unanswerable.
WITH per_disc AS (
SELECT
album_id AS album_id,
COUNT(DISTINCT COALESCE(CAST(track_number AS TEXT), 'f' || id))
AS owned_on_disc,
MAX(total_tracks) AS disc_total,
SUM(CASE WHEN total_tracks IS NULL THEN 1 ELSE 0 END)
AS discs_without_a_total
FROM audio_files
WHERE album_id IN (sqlc.slice('album_ids'))
GROUP BY album_id, COALESCE(disc_number, 1)
)
SELECT
CAST(album_id AS INTEGER) AS album_id,
CAST(SUM(owned_on_disc) AS INTEGER) AS owned,
CAST(COALESCE(SUM(disc_total), 0) AS INTEGER) AS expected,
CAST(SUM(discs_without_a_total) = 0 AS INTEGER) AS known
FROM per_disc
GROUP BY album_id;
@@ -342,3 +342,35 @@ WHERE ti.status = 'pending'
)
ORDER BY ti.group_key
LIMIT 1;
-- name: GetTaggingItemsForAlbum :many
-- Every tagging group holding a file of this album.
--
-- The join is `audio_files.group_key`, not a key derived from the
-- album's folder path: a group carved out of a mixed-bag folder by
-- SplitMixedFolder is keyed on its tags rather than on a directory,
-- so a path-derived key finds nothing for exactly the messiest
-- libraries this is meant to help.
--
-- Usually one row. A multi-disc album is one group per disc, which
-- the caller has to know about rather than average over -- applying
-- to "the album" would silently retag one disc of three.
SELECT
ti.group_key,
ti.status,
ti.score,
ti.best_match_release_mbid,
ti.track_count,
ti.album_name,
ti.album_artist,
ti.synthetic
FROM tagging_items ti
WHERE ti.group_key IN (
SELECT DISTINCT af.group_key
FROM audio_files af
WHERE af.album_id = sqlc.arg(album_id) AND af.group_key != ''
)
AND ti.cleared_at IS NULL
-- Best first, with an unscored group last rather than first: NULL
-- sorts low in SQLite and DESC would put it at the top.
ORDER BY ti.score IS NULL, ti.score DESC, ti.group_key;
@@ -8,6 +8,7 @@ package sqlcgen
import (
"context"
"database/sql"
"strings"
)
const deleteAlbum = `-- name: DeleteAlbum :exec
@@ -234,6 +235,98 @@ func (q *Queries) GetAlbumsByArtistName(ctx context.Context, arg GetAlbumsByArti
return items, nil
}
const getAlbumsCompleteness = `-- name: GetAlbumsCompleteness :many
WITH per_disc AS (
SELECT
album_id AS album_id,
COUNT(DISTINCT COALESCE(CAST(track_number AS TEXT), 'f' || id))
AS owned_on_disc,
MAX(total_tracks) AS disc_total,
SUM(CASE WHEN total_tracks IS NULL THEN 1 ELSE 0 END)
AS discs_without_a_total
FROM audio_files
WHERE album_id IN (/*SLICE:album_ids*/?)
GROUP BY album_id, COALESCE(disc_number, 1)
)
SELECT
CAST(album_id AS INTEGER) AS album_id,
CAST(SUM(owned_on_disc) AS INTEGER) AS owned,
CAST(COALESCE(SUM(disc_total), 0) AS INTEGER) AS expected,
CAST(SUM(discs_without_a_total) = 0 AS INTEGER) AS known
FROM per_disc
GROUP BY album_id
`
type GetAlbumsCompletenessRow struct {
AlbumID int64
Owned int64
Expected int64
Known int64
}
// The same question as GetAlbumCompleteness, asked of a screenful of
// albums at once.
//
// A card grid cannot afford one query per card, and the answer it wants
// is the one thing a badge cannot guess: an album held 9 tracks of 12
// must show the count, never a bare tick. So this is one query for the
// whole grid, asked only of the cards that have a local album id.
//
// It is two grouping levels rather than the single-album form's
// correlated subqueries, because a correlated subquery in the FROM
// clause is not something SQLite will reliably do -- and because the
// slice may only be spelled once, or sqlc expands it twice with
// independently numbered placeholders.
//
// The per-disc level is where the meaning is, and it is the same
// meaning as the single-album query. `owned` counts DISTINCT track
// numbers within a disc (this app detects duplicates, and counting two
// files of track 3 twice would report a short album as complete), with
// a file that declares no track number falling back to its own id
// because three untagged files are three tracks and not one.
// `expected` takes each disc's declared total and sums over discs,
// since a total is declared per disc and a release total written on
// every file of a two-disc album would double its expectation. A disc
// whose files declared nothing contributes a NULL that SUM ignores,
// and `known` is what says the album is therefore unanswerable.
func (q *Queries) GetAlbumsCompleteness(ctx context.Context, albumIds []sql.NullInt64) ([]GetAlbumsCompletenessRow, error) {
query := getAlbumsCompleteness
var queryParams []interface{}
if len(albumIds) > 0 {
for _, v := range albumIds {
queryParams = append(queryParams, v)
}
query = strings.Replace(query, "/*SLICE:album_ids*/?", strings.Repeat(",?", len(albumIds))[1:], 1)
} else {
query = strings.Replace(query, "/*SLICE:album_ids*/?", "NULL", 1)
}
rows, err := q.db.QueryContext(ctx, query, queryParams...)
if err != nil {
return nil, err
}
defer rows.Close()
var items []GetAlbumsCompletenessRow
for rows.Next() {
var i GetAlbumsCompletenessRow
if err := rows.Scan(
&i.AlbumID,
&i.Owned,
&i.Expected,
&i.Known,
); err != nil {
return nil, err
}
items = append(items, i)
}
if err := rows.Close(); err != nil {
return nil, err
}
if err := rows.Err(); err != nil {
return nil, err
}
return items, nil
}
const getAlbumsWithPendingReleaseMBID = `-- name: GetAlbumsWithPendingReleaseMBID :many
SELECT id, pending_release_mbid FROM albums
WHERE pending_release_mbid IS NOT NULL AND pending_release_mbid != ''
@@ -231,6 +231,82 @@ func (q *Queries) GetTaggingItem(ctx context.Context, groupKey string) (TaggingI
return i, err
}
const getTaggingItemsForAlbum = `-- name: GetTaggingItemsForAlbum :many
SELECT
ti.group_key,
ti.status,
ti.score,
ti.best_match_release_mbid,
ti.track_count,
ti.album_name,
ti.album_artist,
ti.synthetic
FROM tagging_items ti
WHERE ti.group_key IN (
SELECT DISTINCT af.group_key
FROM audio_files af
WHERE af.album_id = ?1 AND af.group_key != ''
)
AND ti.cleared_at IS NULL
ORDER BY ti.score IS NULL, ti.score DESC, ti.group_key
`
type GetTaggingItemsForAlbumRow struct {
GroupKey string
Status string
Score sql.NullFloat64
BestMatchReleaseMbid sql.NullString
TrackCount int64
AlbumName string
AlbumArtist string
Synthetic int64
}
// Every tagging group holding a file of this album.
//
// The join is `audio_files.group_key`, not a key derived from the
// album's folder path: a group carved out of a mixed-bag folder by
// SplitMixedFolder is keyed on its tags rather than on a directory,
// so a path-derived key finds nothing for exactly the messiest
// libraries this is meant to help.
//
// Usually one row. A multi-disc album is one group per disc, which
// the caller has to know about rather than average over -- applying
// to "the album" would silently retag one disc of three.
// Best first, with an unscored group last rather than first: NULL
// sorts low in SQLite and DESC would put it at the top.
func (q *Queries) GetTaggingItemsForAlbum(ctx context.Context, albumID sql.NullInt64) ([]GetTaggingItemsForAlbumRow, error) {
rows, err := q.db.QueryContext(ctx, getTaggingItemsForAlbum, albumID)
if err != nil {
return nil, err
}
defer rows.Close()
var items []GetTaggingItemsForAlbumRow
for rows.Next() {
var i GetTaggingItemsForAlbumRow
if err := rows.Scan(
&i.GroupKey,
&i.Status,
&i.Score,
&i.BestMatchReleaseMbid,
&i.TrackCount,
&i.AlbumName,
&i.AlbumArtist,
&i.Synthetic,
); err != nil {
return nil, err
}
items = append(items, i)
}
if err := rows.Close(); err != nil {
return nil, err
}
if err := rows.Err(); err != nil {
return nil, err
}
return items, nil
}
const listAudioFilesInTaggingGroup = `-- name: ListAudioFilesInTaggingGroup :many
SELECT
af.id,
+28 -11
View File
@@ -34,13 +34,29 @@ type UserConfig struct {
// in one burst that every provider sees as a flood.
WantedBatch int `toml:"WantedBatch"`
// MinFileSizeMB, MaxFileSizeMB and PreferredFileSizeMB bound and
// nudge what auto-pick (interactive or via the request list) may
// grab without asking. Zero on any of them is permissive: see
// AutoDownloadPrefs.
MinFileSizeMB int `toml:"MinFileSizeMB"`
MaxFileSizeMB int `toml:"MaxFileSizeMB"`
PreferredFileSizeMB int `toml:"PreferredFileSizeMB"`
// MinKbps, MaxKbps and PreferredKbps bound and nudge what auto-pick
// (interactive or via the request list) may grab without asking.
// Zero on any of them is permissive: see AutoDownloadPrefs.
//
// They replaced MinFileSizeMB / MaxFileSizeMB /
// PreferredFileSizeMB, which were megabytes and so said nothing
// without knowing how long the release was. The old keys are
// deliberately *not* read back: a number that meant "300 MB" cannot
// be reinterpreted as a bitrate without knowing the album it was
// aimed at, so migrating it would be inventing an intent the user
// never expressed. An existing config falls back to no window,
// which is the permissive default and matches a fresh install —
// and MaxFileSizeMB is the one that does carry over, because a
// ceiling on total bytes still means exactly what it did.
MinKbps int `toml:"MinKbps"`
MaxKbps int `toml:"MaxKbps"`
PreferredKbps int `toml:"PreferredKbps"`
// MaxFileSizeMB is a hard ceiling on a candidate's total size, kept
// in megabytes on purpose — it is a question about disk space, not
// about quality, and it has to apply to a candidate whose bitrate
// cannot be worked out at all.
MaxFileSizeMB int `toml:"MaxFileSizeMB"`
// AllowedFormats restricts auto-pick to these formats. Empty means
// no restriction. Values are Format strings ("flac", "mp3", ...).
@@ -56,10 +72,11 @@ func (c *UserConfig) AutoDownloadPrefs() AutoDownloadPrefs {
}
return AutoDownloadPrefs{
MinSizeMB: c.MinFileSizeMB,
MaxSizeMB: c.MaxFileSizeMB,
PreferredSizeMB: c.PreferredFileSizeMB,
AllowedFormats: formats,
MinKbps: c.MinKbps,
MaxKbps: c.MaxKbps,
PreferredKbps: c.PreferredKbps,
MaxSizeMB: c.MaxFileSizeMB,
AllowedFormats: formats,
}
}
+32
View File
@@ -12,6 +12,7 @@ import (
"strconv"
"strings"
"yellowjacket/backend/tagtotals"
"yellowjacket/backend/tagwriter"
)
@@ -275,6 +276,25 @@ func (i *Importer) tagFile(p plannedFile, dl Download) error {
changes[tagwriter.FieldDiscNumber] = p.Track.DiscNumber
}
// An imported file should arrive knowing how much of the album it
// is one of, or the album reads as "in your library" from its first
// imported track onward.
//
// A *track* download is the case this must not touch: a
// RecordingMBID anchor resolves Expected to exactly that one track,
// so totalling it would write "1 of 1" onto a track off a
// twelve-track album -- a confident lie, and one that outranks the
// catalog's own total, which is the fallback that would otherwise
// have answered correctly.
if dl.RecordingMBID == "" {
if tracks, discs := tagtotals.For(
expectedPositions(dl.Expected), p.Track.DiscNumber,
); tracks > 0 {
changes[tagwriter.FieldTotalTracks] = tracks
changes[tagwriter.FieldTotalDiscs] = discs
}
}
if err := i.tags.WriteUntrackedFileTags(p.Source, changes); err != nil {
return fmt.Errorf("write tags: %w", err)
}
@@ -282,6 +302,18 @@ func (i *Importer) tagFile(p plannedFile, dl Download) error {
return nil
}
// expectedPositions is the download's resolved tracklist as bare
// positions.
func expectedPositions(expected []ExpectedTrack) []tagtotals.Position {
out := make([]tagtotals.Position, 0, len(expected))
for _, t := range expected {
out = append(out, tagtotals.Position{Disc: t.DiscNumber, Track: t.Position})
}
return out
}
// destinationFor computes a file's library path from the template.
func (i *Importer) destinationFor(
p plannedFile,
+74
View File
@@ -446,3 +446,77 @@ func keysOf(m map[string]tagwriter.TagChanges) []string {
return out
}
// An imported album should arrive knowing its own size, or the album
// page reads "in your library" from its first imported track onward --
// which is the badge complaint this exists to answer.
func TestImportWritesTheAlbumTotals(t *testing.T) {
t.Parallel()
f := newImportFixture(t,
"01 - Airbag.flac",
"02 - Paranoid Android.flac",
"03 - Subterranean Homesick Alien.flac",
"04 - Exit Music (For a Film).flac",
)
if _, err := f.importer.Import(
context.Background(),
fourTrackDownload(),
Result{Dir: f.dir, Files: f.files},
ImportOptions{LibraryRoot: f.root, WriteTags: true},
); err != nil {
t.Fatalf("Import: %v", err)
}
changes := f.tags.writes["01 - Airbag.flac"]
if changes == nil {
t.Fatal("no tag write recorded for the first track")
}
if got := changes[tagwriter.FieldTotalTracks]; got != 4 {
t.Errorf("%s: got %v, want 4", tagwriter.FieldTotalTracks, got)
}
if got := changes[tagwriter.FieldTotalDiscs]; got != 1 {
t.Errorf("%s: got %v, want 1", tagwriter.FieldTotalDiscs, got)
}
}
// A RecordingMBID anchor resolves Expected to exactly the one track it
// asked for, so totalling it would tag a track off a twelve-track album
// as "1 of 1" -- worse than saying nothing, because a declared total
// outranks the catalog total that would have answered correctly.
func TestImportWritesNoTotalsForATrackDownload(t *testing.T) {
t.Parallel()
f := newImportFixture(t, "01 - Airbag.flac")
dl := Download{
ID: "dl-track",
LibraryID: 1,
RecordingMBID: "mbid-recording",
Artist: "Radiohead",
Album: "OK Computer",
Expected: []ExpectedTrack{{Position: 1, Title: "Airbag"}},
}
if _, err := f.importer.Import(
context.Background(),
dl,
Result{Dir: f.dir, Files: f.files},
ImportOptions{LibraryRoot: f.root, WriteTags: true},
); err != nil {
t.Fatalf("Import: %v", err)
}
changes := f.tags.writes["01 - Airbag.flac"]
if changes == nil {
t.Fatal("no tag write recorded")
}
if _, ok := changes[tagwriter.FieldTotalTracks]; ok {
t.Errorf("%s written for a single-track download: %v",
tagwriter.FieldTotalTracks, changes[tagwriter.FieldTotalTracks])
}
}
+8 -10
View File
@@ -236,6 +236,12 @@ func (m *Manager) AutoPickable(dl Download, ranked []Candidate) bool {
return AutoPickable(dl, ranked, m.preferences())
}
// AutoPickVeto wraps the package function the same way, and is what the
// request list quotes back to the user.
func (m *Manager) AutoPickVeto(dl Download, ranked []Candidate) string {
return AutoPickVeto(dl, ranked, m.preferences())
}
// Reload rebuilds every provider from stored config. Called at startup
// and after any provider settings change.
//
@@ -612,16 +618,8 @@ func (m *Manager) Attempt(
return false, "", err
}
if !m.AutoPickable(dl, ranked) {
best := ranked[0]
return false, fmt.Sprintf(
"best of %d found is not a confident enough match "+
"(match %.0f%%, quality %.0f%%)",
len(ranked),
best.Match.Overall*100, //nolint:mnd // percent
best.Quality.Overall*100,
), nil
if veto := m.AutoPickVeto(dl, ranked); veto != "" {
return false, veto, nil
}
if err := m.store.CreateDownload(ctx, dl); err != nil {
+44 -6
View File
@@ -218,8 +218,17 @@ func TestManagerEndToEndAutoPick(t *testing.T) {
}, "staging was never released, or the library was never rescanned")
}
// An ambiguous result set must park for the user rather than guess.
func TestManagerWaitsWhenAmbiguous(t *testing.T) {
// Two equally good copies are not an ambiguity — they are a spare.
//
// This asserted the opposite for as long as auto-pick required 0.08 of
// daylight over the runner-up, and that rule was wrong in exactly the
// case it fired hardest: a popular album turns up several *correct*
// copies, all matching the tracklist, differing only in format and
// seeders. There is no question there about what to fetch, only about
// which copy, and the ranking already answers that — closest to the
// preferred bitrate first. A candidate does not have to be better than
// the field, only good enough on its own terms.
func TestManagerAutoPicksAmongEquallyGoodCopies(t *testing.T) {
t.Parallel()
f := newManagerFixture(t)
@@ -237,11 +246,41 @@ func TestManagerWaitsWhenAmbiguous(t *testing.T) {
t.Fatalf("Start: %v", err)
}
if f.manager.AutoPickable(dl, ranked) {
t.Fatal("two equivalent candidates must not auto-pick")
if veto := f.manager.AutoPickVeto(dl, ranked); veto != "" {
t.Fatalf("two equally good copies must auto-pick, got veto: %s", veto)
}
waitForDownloadState(t, f.store, dl.ID, StateComplete)
// Exactly one of them was fetched, not both.
if grabs := a.GrabCalls + b.GrabCalls; grabs != 1 {
t.Errorf("grabs = %d, want exactly 1", grabs)
}
}
// The user can still pick explicitly when auto-pick is not what
// happened — a candidate the ranking did not choose is still grabbable.
func TestManagerPickIsExplicit(t *testing.T) {
t.Parallel()
f := newManagerFixture(t)
a := fakeWithAlbum(1, "source-a", ".flac")
b := fakeWithAlbum(2, "source-b", ".flac")
f.manager.installProvider(Config{ID: 1, Priority: 50}, a)
f.manager.installProvider(Config{ID: 2, Priority: 50}, b)
// No tracklist: never auto-picks, so the result set parks for the
// user and Pick is the only way anything is fetched.
dl := fourTrackDownload()
dl.Expected = nil
ranked, err := f.manager.Start(context.Background(), dl)
if err != nil {
t.Fatalf("Start: %v", err)
}
// Nothing was grabbed while waiting for the user.
if a.GrabCalls != 0 || b.GrabCalls != 0 {
t.Errorf(
"grabs happened without a pick: a=%d b=%d",
@@ -258,7 +297,6 @@ func TestManagerWaitsWhenAmbiguous(t *testing.T) {
t.Errorf("stored request id = %s, want %s", stored.ID, dl.ID)
}
// The user picks the second one explicitly.
if err := f.manager.Pick(
context.Background(), dl.ID, ranked[1].ID,
); err != nil {
+313 -77
View File
@@ -1,6 +1,7 @@
package download
import (
"fmt"
"math"
"sort"
"strings"
@@ -34,38 +35,102 @@ const (
weightArtistFit = 0.12
)
// Quality sub-weights. They sum to 1.0 along with weightSizeFit below.
// Quality sub-weights. Each set sums to 1.0.
//
// There are two of them because a stated preference changes what the
// other numbers are *for*. `formatRank` and `bitrateScore` are the
// app guessing at how good a copy is — FLAC over MP3, 320 over 128 —
// and that guess exists precisely because the user has not said. Once
// they have, the guess should not outvote them: with the old single set
// a preference of 320 kbps moved a candidate's score by at most 0.05
// against the 0.42 riding on format, so asking for 320 and being handed
// a FLAC every time was the *designed* behaviour. That is the same
// fault the megabyte window had — a preference the user can express and
// the ranking can ignore.
const (
weightFormat = 0.42
weightBitrate = 0.23
weightHealth = 0.20
weightPriority = 0.10
weightSizeFit = 0.05
weightFormat = 0.42
weightBitrate = 0.23
weightHealth = 0.20
weightPriority = 0.10
weightBitrateFit = 0.05
)
// Quality sub-weights when the user has named a preferred bitrate.
// The weight comes off format and bitrate — the two proxies the
// preference replaces — and health and priority are untouched, since
// neither is a stand-in for anything the user just said.
const (
statedWeightFormat = 0.20
statedWeightBitrate = 0.10
statedWeightHealth = 0.20
statedWeightPriority = 0.10
statedWeightBitrateFit = 0.40
)
// qualityWeights picks the set, in the order scoreQuality applies them.
func qualityWeights(p AutoDownloadPrefs) (
format, bitrate, health, priority, fit float64,
) {
if p.PreferredKbps > 0 {
return statedWeightFormat,
statedWeightBitrate,
statedWeightHealth,
statedWeightPriority,
statedWeightBitrateFit
}
return weightFormat,
weightBitrate,
weightHealth,
weightPriority,
weightBitrateFit
}
// unanchoredCap bounds the match score of a free-text request. Without
// an MBID there is no tracklist to be right about, so a confident-
// looking score would be a lie — and auto-pick keys off this.
const unanchoredCap = 0.65
// AutoDownloadPrefs gates and scores what AutoPickable may choose
// without asking. Zero values are permissive: no size window and no
// format restriction.
// without asking. Zero values are permissive: no bitrate window, no
// size ceiling and no format restriction.
//
// **The window is a rate, not a size.** It used to be three numbers in
// megabytes, which cannot mean anything on their own: 300 MB is a
// generous FLAC single and a suspiciously small boxset, and the user
// setting the number has no idea which release the pipeline will
// eventually apply it to. A bitrate is the same statement normalised
// by how long the music is, so one number holds across a 9-minute EP
// and a 3-hour opera — and it is the unit the thing being described is
// actually measured in. The runtime is known for every request
// auto-pick can act on (`Download.Expected` carries per-track lengths,
// and an anchored request is the only kind that reaches here), so this
// costs no extra lookup.
type AutoDownloadPrefs struct {
// MinSizeMB and MaxSizeMB bound what auto-pick will grab. Zero
// means no bound on that side. A candidate outside the window is
// filtered out of auto-pick entirely, not merely scored down — a
// tiny "sampler" torrent or a boxset ten times the expected size is
// usually the wrong thing entirely, not a worse copy of the right
// thing.
MinSizeMB int `json:"minSizeMb"`
MaxSizeMB int `json:"maxSizeMb"`
// MinKbps and MaxKbps bound the average bitrate auto-pick will
// grab. Zero means no bound on that side. A candidate outside the
// window is filtered out of auto-pick entirely, not merely scored
// down — a 96 kbps rip of the right album is not a worse copy the
// user might accept, it is one they said not to take unattended.
//
// For reference: 320 is the top of MP3, ~5001000 is FLAC depending
// on the material, and anything under ~128 is a transcode.
MinKbps int `json:"minKbps"`
MaxKbps int `json:"maxKbps"`
// PreferredSizeMB nudges the score toward a target size within the
// min/max window (a lossless rip and a heavily-padded lossless rip
// can both pass the window). Zero disables the nudge; sizeFit then
// returns a neutral value that does not affect ranking.
PreferredSizeMB int `json:"preferredSizeMb"`
// PreferredKbps nudges the score toward a target rate within the
// window, and breaks the tie when several candidates are equally
// good matches. Zero disables the nudge; bitrateFit then returns a
// neutral value that does not affect ranking.
PreferredKbps int `json:"preferredKbps"`
// MaxSizeMB is a hard ceiling on the whole candidate, and it is
// deliberately still a size. It answers a different question from
// the window above — not "is this the quality I want" but "is this
// going to fill the disk" — and it has to hold even for a candidate
// whose bitrate cannot be worked out, which is exactly the shape a
// mislabelled boxset arrives in. Zero means no ceiling.
MaxSizeMB int `json:"maxSizeMb"`
// AllowedFormats restricts auto-pick to candidates whose audio
// files are all in one of these formats. Empty means no
@@ -74,19 +139,33 @@ type AutoDownloadPrefs struct {
}
// eligible reports whether a candidate may be auto-picked under these
// preferences: within the size window (when set) and, when a format
// list is given, every audio file in an allowed format.
func (p AutoDownloadPrefs) eligible(c Candidate) bool {
// preferences: inside the bitrate window and the size ceiling (when
// set) and, when a format list is given, every audio file in an
// allowed format.
//
// `runtimeMillis` is how long the requested release is, and 0 means
// nobody knows. An unknown runtime **passes** the bitrate window
// rather than failing it: the window is a statement about quality, and
// refusing everything the moment a tracklist is missing a length would
// turn a gap in MusicBrainz into a silent embargo. The size ceiling
// still applies, which is why it exists separately.
func (p AutoDownloadPrefs) eligible(c Candidate, runtimeMillis int64) bool {
const bytesPerMB = 1 << 20
if p.MinSizeMB > 0 && c.TotalSize < int64(p.MinSizeMB)*bytesPerMB {
return false
}
if p.MaxSizeMB > 0 && c.TotalSize > int64(p.MaxSizeMB)*bytesPerMB {
return false
}
if kbps := candidateKbps(c, runtimeMillis); kbps > 0 {
if p.MinKbps > 0 && kbps < float64(p.MinKbps) {
return false
}
if p.MaxKbps > 0 && kbps > float64(p.MaxKbps) {
return false
}
}
if len(p.AllowedFormats) == 0 {
return true
}
@@ -107,11 +186,14 @@ func (p AutoDownloadPrefs) eligible(c Candidate) bool {
// filter returns only the candidates these preferences allow to be
// auto-picked, in the same (already ranked) order.
func (p AutoDownloadPrefs) filter(ranked []Candidate) []Candidate {
func (p AutoDownloadPrefs) filter(
ranked []Candidate,
runtimeMillis int64,
) []Candidate {
out := make([]Candidate, 0, len(ranked))
for _, c := range ranked {
if p.eligible(c) {
if p.eligible(c, runtimeMillis) {
out = append(out, c)
}
}
@@ -119,32 +201,116 @@ func (p AutoDownloadPrefs) filter(ranked []Candidate) []Candidate {
return out
}
// sizeFit scores how close totalSize is to PreferredSizeMB, 0..1,
// falling off linearly as the size doubles or halves away from it.
// Returns a neutral 0.5 when no preference is set, so the absence of a
// preference does not bias ranking.
func (p AutoDownloadPrefs) sizeFit(totalSize int64) float64 {
// bitrateFit scores how close a candidate's average bitrate is to
// PreferredKbps, falling off linearly as it doubles or halves away
// from it.
//
// The range is **0.5 to 1.0, not 0 to 1**, and the floor is the point.
// This carries 0.40 of the quality score once a preference is set, so a
// span down to zero would let a preference of 320 kbps push a perfectly
// good FLAC under `minQuality` and out of auto-pick altogether —
// turning "I like 320" into "never take anything else", silently. A
// preference may promote the copy that matches it; it may not
// disqualify the others. That is what `MinKbps`/`MaxKbps` are for, and
// they say so out loud.
//
// Returns the neutral floor when no preference is set or the rate
// cannot be worked out, so neither an absent preference nor an absent
// runtime biases ranking.
func (p AutoDownloadPrefs) bitrateFit(
c Candidate,
runtimeMillis int64,
) float64 {
const (
bytesPerMB = 1 << 20
neutral = 0.5
neutral = 0.5
span = 0.5
)
if p.PreferredSizeMB <= 0 || totalSize <= 0 {
if p.PreferredKbps <= 0 {
return neutral
}
preferred := float64(p.PreferredSizeMB) * bytesPerMB
ratio := float64(totalSize) / preferred
kbps := candidateKbps(c, runtimeMillis)
if kbps <= 0 {
return neutral
}
ratio := kbps / float64(p.PreferredKbps)
if ratio < 1 {
ratio = 1 / ratio
}
// ratio is now >= 1: 1.0 is an exact match, 2.0 is double or half
// the preferred size. Falls to 0 at 2x away and beyond.
fit := 1 - (ratio - 1)
// the preferred rate, where the closeness term reaches 0.
return neutral + span*clamp01(1-(ratio-1))
}
return clamp01(fit)
// candidateKbps is a candidate's average audio bitrate, or 0 when it
// cannot be worked out.
//
// Two sources, in this order, and the order matters:
//
// - **Derived from bytes over runtime**, which is the honest one. It
// covers lossless (where a stated bitrate rarely exists), it cannot
// be lied to by a filename, and it is what the user's window means.
// Only the *audio* files count: cover scans and a log file are not
// part of the bitrate, and a folder with 30 MB of artwork would
// otherwise read as a better rip than the same music without it.
// - **The mean stated bitrate**, when the runtime is unknown. Weaker
// — a provider that parses it from an MP3 header states it and one
// that guesses from the filename also "states" it — but a number
// from the file itself beats no number at all.
func candidateKbps(c Candidate, runtimeMillis int64) float64 {
const bitsPerByte = 8
audio := c.AudioFiles()
if len(audio) == 0 {
return 0
}
if runtimeMillis > 0 {
var bytes int64
for _, f := range audio {
bytes += f.Size
}
if bytes > 0 {
// bytes×8 bits over seconds, expressed in kbps: the two
// factors of 1000 (millis→seconds, bits→kilobits) cancel.
return float64(bytes) * bitsPerByte /
float64(runtimeMillis)
}
}
var (
sum int
count int
)
for _, f := range audio {
if f.Bitrate > 0 {
sum += f.Bitrate
count++
}
}
if count == 0 {
return 0
}
return float64(sum) / float64(count)
}
// runtimeMillis is how long the requested release is, summed over its
// expected tracklist. Zero when the tracklist is absent or carries no
// lengths, which is what every caller here treats as "unknown".
func (d Download) runtimeMillis() int64 {
var total int64
for _, t := range d.Expected {
total += t.LengthMillis
}
return total
}
// Score fills a candidate's Match, Quality and Score fields.
@@ -160,7 +326,9 @@ func Score(dl Download, c Candidate, priority int, prefs AutoDownloadPrefs) Cand
c.Files = mergeMatched(c.Files, matched)
c.Match = scoreMatch(dl, c, audio, titleFit)
c.Quality = scoreQuality(c, audio, priority, prefs)
c.Quality = scoreQuality(
c, audio, priority, prefs, dl.runtimeMillis(),
)
c.Score = weightMatch*c.Match.Overall + weightQuality*c.Quality.Overall
@@ -279,11 +447,12 @@ func scoreQuality(
audio []CandidateFile,
priority int,
prefs AutoDownloadPrefs,
runtimeMillis int64,
) QualityScore {
q := QualityScore{
Health: clamp01(c.Health),
Priority: clamp01(float64(priority) / 100.0),
SizeFit: prefs.sizeFit(c.TotalSize),
Health: clamp01(c.Health),
Priority: clamp01(float64(priority) / 100.0),
BitrateFit: prefs.bitrateFit(c, runtimeMillis),
}
if len(audio) == 0 {
@@ -310,11 +479,13 @@ func scoreQuality(
q.FormatRank = worst
q.Bitrate = bitrateScore(audio)
q.Overall = weightFormat*q.FormatRank +
weightBitrate*q.Bitrate +
weightHealth*q.Health +
weightPriority*q.Priority +
weightSizeFit*q.SizeFit
wFormat, wBitrate, wHealth, wPriority, wFit := qualityWeights(prefs)
q.Overall = wFormat*q.FormatRank +
wBitrate*q.Bitrate +
wHealth*q.Health +
wPriority*q.Priority +
wFit*q.BitrateFit
if q.Mixed {
q.Overall *= 0.9
@@ -444,6 +615,19 @@ func Rank(
return out[i].Match.Overall > out[j].Match.Overall
}
// Closest to the preferred bitrate wins the tie.
//
// This is what decides which copy is taken now that auto-pick
// no longer requires the winner to be clear of the field: when
// several candidates are equally good matches of equal overall
// quality, the one the user said they wanted the shape of is
// the answer, ahead of provider priority. With no preference
// set every BitrateFit is the same neutral value and this
// falls through, exactly as before.
if out[i].Quality.BitrateFit != out[j].Quality.BitrateFit {
return out[i].Quality.BitrateFit > out[j].Quality.BitrateFit
}
if out[i].Quality.Priority != out[j].Quality.Priority {
return out[i].Quality.Priority > out[j].Quality.Priority
}
@@ -454,19 +638,58 @@ func Rank(
return out
}
// AutoPickable reports whether a ranked list has a clear enough winner
// to grab without asking. It demands an anchored request, a high match,
// decent quality, and daylight between first and second place — if two
// candidates are close, the choice is the user's.
func AutoPickable(dl Download, ranked []Candidate, prefs AutoDownloadPrefs) bool {
const (
minMatch = 0.85
minQuality = 0.5
minLead = 0.08
)
// Auto-pick gates. Named rather than inlined because AutoPickVeto
// reports which of them refused, and a number in a sentence the user
// reads should be the same number the decision used.
const (
minMatch = 0.85
minQuality = 0.5
)
if !dl.Anchored() || len(ranked) == 0 {
return false
// AutoPickable reports whether a ranked list has a candidate worth
// grabbing without asking: an anchored request with a tracklist behind
// it, and a candidate that clears the match and quality bars inside the
// user's guardrails.
//
// **It does not require the winner to be better than the runner-up.**
// It used to demand 0.08 of daylight on the combined score, which meant
// the check fired hardest in the case it was never written for: a
// popular album turns up five *correct* copies, all matching the
// tracklist at 95%+ and differing only in format and seeders, their
// scores land within a point of each other, and auto-pick refused
// forever on the grounds that the choice was the user's. It was not.
// There was no question about *what* to fetch, only about which copy —
// and abundance is the one condition under which that question matters
// least. A candidate does not need to be the best one, only one that
// meets the criteria; where several do, `Rank` puts the one closest to
// the preferred bitrate first.
func AutoPickable(dl Download, ranked []Candidate, prefs AutoDownloadPrefs) bool {
return AutoPickVeto(dl, ranked, prefs) == ""
}
// AutoPickVeto returns the reason auto-pick declined, or "" when it
// would go ahead.
//
// It exists because "it rejected all of them" was indistinguishable
// from "it found nothing good". The request list's message was built
// from `ranked[0]` — the best candidate *before* the size and format
// guardrails, and before the lead check — so a request refused because
// the user's maximum size excluded every copy, or because three equally
// good copies were found, reported "best of 12 found is not a confident
// enough match (match 96%, quality 88%)". Numbers that clear both
// thresholds, beside a refusal, is a message that teaches the user the
// matcher is broken. Each gate names itself now.
func AutoPickVeto(
dl Download,
ranked []Candidate,
prefs AutoDownloadPrefs,
) string {
if len(ranked) == 0 {
return "nothing found"
}
if !dl.Anchored() {
return "the request is free text, so there is no release to be right about"
}
// An anchor with no tracklist behind it is an anchor in name only:
@@ -474,29 +697,42 @@ func AutoPickable(dl Download, ranked []Candidate, prefs AutoDownloadPrefs) bool
// is exactly the evidence a wrong-album candidate also has. This
// matters most for the request list, where nobody is watching.
if len(dl.Expected) == 0 {
return false
return "no tracklist for this release is known yet, so a candidate cannot be checked against it"
}
// The guardrails apply before the match/quality/lead checks: a
// candidate outside the allowed size or format is not a worse
// choice, it is not a choice auto-pick may make at all, so it must
// not count as "the winner" nor as "second place" for the lead
// check below.
eligible := prefs.filter(ranked)
// The guardrails apply before the match and quality checks: a
// candidate outside the allowed bitrate, size or format is not a
// worse choice, it is not a choice auto-pick may make at all, so it
// must not count as "the winner" either.
eligible := prefs.filter(ranked, dl.runtimeMillis())
if len(eligible) == 0 {
return false
return fmt.Sprintf(
"all %d found are outside the auto-download bitrate, size or format limits",
len(ranked),
)
}
best := eligible[0]
if best.Match.Overall < minMatch || best.Quality.Overall < minQuality {
return false
if best.Match.Overall < minMatch {
return fmt.Sprintf(
"best of %d found matches this release only %.0f%% (needs %.0f%%)",
len(ranked),
best.Match.Overall*100, //nolint:mnd // percent
minMatch*100, //nolint:mnd // percent
)
}
if len(eligible) > 1 && best.Score-eligible[1].Score < minLead {
return false
if best.Quality.Overall < minQuality {
return fmt.Sprintf(
"best of %d found is the right release but scores %.0f%% on quality (needs %.0f%%)",
len(ranked),
best.Quality.Overall*100, //nolint:mnd // percent
minQuality*100, //nolint:mnd // percent
)
}
return true
return ""
}
// mergeMatched copies MatchedTo assignments from the audio-only slice
+360 -57
View File
@@ -1,6 +1,34 @@
package download
import "testing"
import (
"strings"
"testing"
)
// trackMillis is five minutes; okComputer's four of them make a
// twenty-minute release, which is what turns a candidate's byte count
// into a bitrate the assertions below can name.
const trackMillis = 5 * 60 * 1000
// okComputerRuntime is that release's runtime, for the helpers that
// need it directly.
const okComputerRuntime = 4 * trackMillis
// kbpsCandidate builds an annotated candidate whose audio adds up to
// the given average bitrate over okComputer's runtime.
func kbpsCandidate(id, ext string, kbps int) Candidate {
// bits = kbps × 1000 × (runtimeMillis / 1000), so the thousands
// cancel and the byte count is kbps × runtimeMillis / 8.
const bitsPerByte = 8
total := int64(kbps) * okComputerRuntime / bitsPerByte
c := candidateFor(id, allTitles(), ext, total/int64(len(allTitles())))
c.Files = AnnotateFiles(c.Files)
c.TotalSize = total
return c
}
// okComputer is the reference request used across ranking tests.
func okComputer() Download {
@@ -8,11 +36,15 @@ func okComputer() Download {
ReleaseMBID: "mbid-ok-computer",
Artist: "Radiohead",
Album: "OK Computer",
// Four five-minute tracks: twenty minutes, so a candidate's
// bitrate is a number these tests can state exactly. Without
// lengths there is no runtime and the bitrate window has
// nothing to divide by.
Expected: []ExpectedTrack{
{Position: 1, Title: "Airbag"},
{Position: 2, Title: "Paranoid Android"},
{Position: 3, Title: "Subterranean Homesick Alien"},
{Position: 4, Title: "Exit Music (For a Film)"},
{Position: 1, Title: "Airbag", LengthMillis: trackMillis},
{Position: 2, Title: "Paranoid Android", LengthMillis: trackMillis},
{Position: 3, Title: "Subterranean Homesick Alien", LengthMillis: trackMillis},
{Position: 4, Title: "Exit Music (For a Film)", LengthMillis: trackMillis},
},
}
}
@@ -187,7 +219,7 @@ func TestUnanchoredMatchIsCapped(t *testing.T) {
}
}
func TestAutoPickableRequiresAnchorAndLead(t *testing.T) {
func TestAutoPickableRequiresAnchorAndTracklist(t *testing.T) {
t.Parallel()
dl := okComputer()
@@ -211,14 +243,18 @@ func TestAutoPickableRequiresAnchorAndLead(t *testing.T) {
}
})
t.Run("two close candidates are not", func(t *testing.T) {
// Two identical copies are a spare, not an ambiguity. This
// asserted the opposite while auto-pick required daylight over the
// runner-up — a rule that made abundance the thing that stopped a
// request being satisfied, which is backwards.
t.Run("two equally good candidates still are", func(t *testing.T) {
t.Parallel()
twin := best
twin.ID = "twin"
if AutoPickable(dl, []Candidate{best, twin}, AutoDownloadPrefs{}) {
t.Error("identical candidates must not auto-pick")
if !AutoPickable(dl, []Candidate{best, twin}, AutoDownloadPrefs{}) {
t.Error("identical good candidates must auto-pick")
}
})
@@ -300,18 +336,11 @@ func TestProviderPriorityBreaksTies(t *testing.T) {
}
}
const mb = 1 << 20
func TestAutoDownloadPrefsEligible(t *testing.T) {
t.Parallel()
flacCandidate := candidateFor("c", allTitles(), ".flac", 30_000_000)
flacCandidate.Files = AnnotateFiles(flacCandidate.Files)
flacCandidate.TotalSize = 300 * mb
mp3Candidate := candidateFor("c", allTitles(), ".mp3", 3_000_000)
mp3Candidate.Files = AnnotateFiles(mp3Candidate.Files)
mp3Candidate.TotalSize = 30 * mb
flacCandidate := kbpsCandidate("c", ".flac", 900)
mp3Candidate := kbpsCandidate("c", ".mp3", 128)
tests := []struct {
name string
@@ -321,18 +350,25 @@ func TestAutoDownloadPrefsEligible(t *testing.T) {
}{
{"zero value is permissive", AutoDownloadPrefs{}, flacCandidate, true},
{
"within min/max window",
AutoDownloadPrefs{MinSizeMB: 100, MaxSizeMB: 500},
"within the bitrate window",
AutoDownloadPrefs{MinKbps: 320, MaxKbps: 1200},
flacCandidate, true,
},
{
"below minimum",
AutoDownloadPrefs{MinSizeMB: 400},
"below the minimum bitrate",
AutoDownloadPrefs{MinKbps: 500},
mp3Candidate, false,
},
{
"above the maximum bitrate",
AutoDownloadPrefs{MaxKbps: 500},
flacCandidate, false,
},
{
"above maximum",
AutoDownloadPrefs{MaxSizeMB: 200},
// The ceiling is bytes, not a rate, and it is the guard
// that still works when the bitrate cannot be worked out.
"above the hard size ceiling",
AutoDownloadPrefs{MaxSizeMB: 50},
flacCandidate, false,
},
{
@@ -351,57 +387,131 @@ func TestAutoDownloadPrefsEligible(t *testing.T) {
t.Run(tt.name, func(t *testing.T) {
t.Parallel()
if got := tt.prefs.eligible(tt.c); got != tt.want {
got := tt.prefs.eligible(tt.c, okComputerRuntime)
if got != tt.want {
t.Errorf("eligible() = %v, want %v", got, tt.want)
}
})
}
}
// A release nobody knows the length of cannot be judged on bitrate, and
// the window must not become a silent embargo because MusicBrainz is
// missing a track length. The size ceiling still applies — that is why
// it is a separate field.
func TestBitrateWindowPassesAnUnknownRuntime(t *testing.T) {
t.Parallel()
c := kbpsCandidate("c", ".mp3", 128)
prefs := AutoDownloadPrefs{MinKbps: 900}
if !prefs.eligible(c, 0) {
t.Error("an unknown runtime must pass the bitrate window")
}
if prefs.eligible(c, okComputerRuntime) {
t.Error("a known runtime must still be judged")
}
ceiling := AutoDownloadPrefs{MaxSizeMB: 1}
if ceiling.eligible(c, 0) {
t.Error("the size ceiling must apply even with no runtime")
}
}
// Artwork is not part of the bitrate. A folder carrying 30 MB of
// scans would otherwise read as a better rip than the same music
// without them, which is backwards.
func TestBitrateIgnoresNonAudioFiles(t *testing.T) {
t.Parallel()
c := kbpsCandidate("c", ".mp3", 320)
bare := candidateKbps(c, okComputerRuntime)
c.Files = append(c.Files, CandidateFile{
Path: "Radiohead - OK Computer/cover.jpg",
Size: 30 << 20,
})
c.Files = AnnotateFiles(c.Files)
if got := candidateKbps(c, okComputerRuntime); got != bare {
t.Errorf("bitrate with artwork = %f, want %f", got, bare)
}
}
// Where no runtime is known, a stated per-file bitrate is better than
// no answer at all.
func TestBitrateFallsBackToTheStatedRate(t *testing.T) {
t.Parallel()
c := candidateFor("c", allTitles(), ".mp3", 3_000_000)
for i := range c.Files {
c.Files[i].Bitrate = 192
}
c.Files = AnnotateFiles(c.Files)
if got := candidateKbps(c, 0); got != 192 {
t.Errorf("stated bitrate = %f, want 192", got)
}
}
func TestAutoDownloadPrefsFilter(t *testing.T) {
t.Parallel()
small := candidateFor("small", allTitles(), ".flac", 10_000_000)
small.TotalSize = 50 * mb
lossy := kbpsCandidate("lossy", ".mp3", 128)
lossless := kbpsCandidate("lossless", ".flac", 900)
big := candidateFor("big", allTitles(), ".flac", 30_000_000)
big.TotalSize = 500 * mb
prefs := AutoDownloadPrefs{MinKbps: 500}
prefs := AutoDownloadPrefs{MinSizeMB: 100, MaxSizeMB: 600}
filtered := prefs.filter(
[]Candidate{lossy, lossless}, okComputerRuntime,
)
filtered := prefs.filter([]Candidate{small, big})
if len(filtered) != 1 || filtered[0].ID != "big" {
if len(filtered) != 1 || filtered[0].ID != "lossless" {
t.Errorf("filter() = %v, want only the in-window candidate", filtered)
}
}
func TestAutoDownloadPrefsSizeFit(t *testing.T) {
func TestAutoDownloadPrefsBitrateFit(t *testing.T) {
t.Parallel()
const neutral = 0.5
tests := []struct {
name string
prefs AutoDownloadPrefs
totalSize int64
want float64
name string
prefs AutoDownloadPrefs
c Candidate
want float64
}{
{"no preference is neutral", AutoDownloadPrefs{}, 300 * mb, neutral},
{
"no preference is neutral",
AutoDownloadPrefs{},
kbpsCandidate("c", ".flac", 900), neutral,
},
{
"exact match scores 1",
AutoDownloadPrefs{PreferredSizeMB: 300},
300 * mb, 1.0,
AutoDownloadPrefs{PreferredKbps: 320},
kbpsCandidate("c", ".mp3", 320), 1.0,
},
{
"double the preferred size scores 0",
AutoDownloadPrefs{PreferredSizeMB: 300},
600 * mb, 0.0,
// The floor is neutral, not zero: this term carries 0.40
// of the quality score once a preference is set, and a
// span to zero would let "I like 320" quietly disqualify
// every FLAC from auto-pick.
"double the preferred rate falls to the neutral floor",
AutoDownloadPrefs{PreferredKbps: 320},
kbpsCandidate("c", ".flac", 640), neutral,
},
{
"half the preferred size scores 0",
AutoDownloadPrefs{PreferredSizeMB: 300},
150 * mb, 0.0,
"half the preferred rate falls to the neutral floor",
AutoDownloadPrefs{PreferredKbps: 320},
kbpsCandidate("c", ".mp3", 160), neutral,
},
{
"an unknowable rate is neutral",
AutoDownloadPrefs{PreferredKbps: 320},
kbpsCandidate("c", ".mp3", 320), neutral,
},
}
@@ -409,30 +519,223 @@ func TestAutoDownloadPrefsSizeFit(t *testing.T) {
t.Run(tt.name, func(t *testing.T) {
t.Parallel()
if got := tt.prefs.sizeFit(tt.totalSize); got != tt.want {
t.Errorf("sizeFit(%d) = %f, want %f", tt.totalSize, got, tt.want)
// The last case deliberately withholds the runtime.
runtime := int64(okComputerRuntime)
if tt.name == "an unknowable rate is neutral" {
runtime = 0
}
if got := tt.prefs.bitrateFit(tt.c, runtime); got != tt.want {
t.Errorf("bitrateFit() = %f, want %f", got, tt.want)
}
})
}
}
// An otherwise-perfect candidate must not auto-pick when it falls
// outside the configured size guard: the guardrail applies before the
// match/quality/lead checks, not as one more input averaged into them.
func TestAutoPickableRejectsCandidateOutsideSizeGuard(t *testing.T) {
// outside the configured guardrails: they apply before the match and
// quality checks, not as one more input averaged into them.
func TestAutoPickableRejectsCandidateOutsideTheGuardrails(t *testing.T) {
t.Parallel()
dl := okComputer()
best := Score(dl, candidateFor("a", allTitles(), ".flac", 30_000_000), 50, AutoDownloadPrefs{})
best.TotalSize = 500 * mb
best := Score(dl, kbpsCandidate("a", ".flac", 900), 50, AutoDownloadPrefs{})
if !AutoPickable(dl, []Candidate{best}, AutoDownloadPrefs{}) {
t.Fatal("expected this candidate to be auto-pickable with no guardrails")
}
tight := AutoDownloadPrefs{MinSizeMB: 10, MaxSizeMB: 100}
if AutoPickable(dl, []Candidate{best}, AutoDownloadPrefs{MaxKbps: 320}) {
t.Error("candidate above the bitrate window must not auto-pick")
}
if AutoPickable(dl, []Candidate{best}, tight) {
t.Error("candidate outside the size guard must not auto-pick")
if AutoPickable(dl, []Candidate{best}, AutoDownloadPrefs{MaxSizeMB: 1}) {
t.Error("candidate above the size ceiling must not auto-pick")
}
}
// The refusal has to name the gate that refused.
//
// Before AutoPickVeto, every one of these came back as the same
// sentence built from `ranked[0]` — the best candidate before the size
// and format guardrails — so a request refused because the user's size
// window excluded every copy reported a match and a quality that both
// cleared their thresholds. A refusal quoting numbers that pass is
// what made the matcher look broken from outside.
func TestAutoPickVetoNamesTheGate(t *testing.T) {
t.Parallel()
dl := okComputer()
best := Score(
dl,
candidateFor("a", allTitles(), ".flac", 30_000_000),
50,
AutoDownloadPrefs{},
)
// candidateFor sizes the files and leaves TotalSize at 0, which is
// what the guardrails read.
sized := func(c Candidate, total int64) Candidate {
c.TotalSize = total
return c
}
tests := []struct {
name string
dl Download
ranked []Candidate
prefs AutoDownloadPrefs
wantSub string
}{
{
name: "nothing found",
dl: dl,
ranked: nil,
wantSub: "nothing found",
},
{
name: "free text",
dl: Download{Artist: "Radiohead", Album: "OK Computer"},
ranked: []Candidate{best},
wantSub: "free text",
},
{
name: "no tracklist behind the anchor",
dl: Download{
ReleaseMBID: "mbid-ok-computer",
Artist: "Radiohead",
Album: "OK Computer",
},
ranked: []Candidate{best},
wantSub: "no tracklist",
},
{
// The candidate is 120 MB and the window tops out at 1 MB:
// the old message reported its match and quality instead.
name: "outside the size window",
dl: dl,
ranked: []Candidate{sized(best, 120<<20)},
prefs: AutoDownloadPrefs{MaxSizeMB: 1},
wantSub: "bitrate, size or format limits",
},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
t.Parallel()
got := AutoPickVeto(tt.dl, tt.ranked, tt.prefs)
if !strings.Contains(got, tt.wantSub) {
t.Errorf("veto = %q, want it to mention %q", got, tt.wantSub)
}
})
}
}
// A clear winner has no veto at all — the sentence is empty, which is
// what AutoPickable reads.
func TestAutoPickVetoIsEmptyForAClearWinner(t *testing.T) {
t.Parallel()
dl := okComputer()
best := Score(
dl,
candidateFor("a", allTitles(), ".flac", 30_000_000),
50,
AutoDownloadPrefs{},
)
weak := Score(
dl,
candidateFor("b", allTitles()[:2], ".mp3", 1_000_000),
50,
AutoDownloadPrefs{},
)
if got := AutoPickVeto(dl, []Candidate{best, weak}, AutoDownloadPrefs{}); got != "" {
t.Errorf("veto = %q, want none", got)
}
}
// With several candidates that all clear the bar, the preferred
// bitrate decides which one is taken.
//
// This is what replaced the daylight requirement. Auto-pick no longer
// refuses when the field is close; it takes the copy nearest the shape
// the user asked for, which is the question they actually answered in
// Settings.
func TestPreferredBitrateBreaksTheTie(t *testing.T) {
t.Parallel()
dl := okComputer()
prefs := AutoDownloadPrefs{PreferredKbps: 320}
// Same album, same completeness, same health, same provider — the
// only difference between them is the rate.
lossless := kbpsCandidate("lossless", ".flac", 900)
perfect := kbpsCandidate("perfect", ".mp3", 320)
ranked := Rank(
dl, []Candidate{lossless, perfect}, nil, prefs,
)
if ranked[0].ID != "perfect" {
t.Errorf(
"winner = %q (fit %f) over %q (fit %f), want the 320 kbps copy",
ranked[0].ID, ranked[0].Quality.BitrateFit,
ranked[1].ID, ranked[1].Quality.BitrateFit,
)
}
if AutoPickVeto(dl, ranked, prefs) != "" {
t.Error("a close field must still auto-pick")
}
}
// With no preference set, nothing changes: BitrateFit is the same
// neutral value for every candidate and the older tie-breaks decide.
func TestNoPreferredBitrateLeavesRankingAlone(t *testing.T) {
t.Parallel()
dl := okComputer()
lossless := kbpsCandidate("lossless", ".flac", 900)
lossy := kbpsCandidate("lossy", ".mp3", 320)
ranked := Rank(
dl, []Candidate{lossy, lossless}, nil, AutoDownloadPrefs{},
)
if ranked[0].ID != "lossless" {
t.Errorf(
"winner = %q, want the lossless copy on format alone",
ranked[0].ID,
)
}
}
// A preferred bitrate promotes the copy that matches it and must never
// disqualify the ones that do not. It carries 0.40 of the quality
// score, so a fit spanning down to zero would put a perfectly good FLAC
// under minQuality and out of auto-pick — turning a preference into a
// prohibition without saying so. MinKbps and MaxKbps are how a user
// says that on purpose.
func TestAPreferredBitrateNeverDisqualifies(t *testing.T) {
t.Parallel()
dl := okComputer()
far := AutoDownloadPrefs{PreferredKbps: 128}
lossless := Score(dl, kbpsCandidate("flac", ".flac", 900), 50, far)
if lossless.Quality.Overall < minQuality {
t.Errorf(
"quality = %f under a far-off preference, want >= %f",
lossless.Quality.Overall, minQuality,
)
}
if veto := AutoPickVeto(dl, []Candidate{lossless}, far); veto != "" {
t.Errorf("a far-off preference vetoed the candidate: %s", veto)
}
}
+26 -6
View File
@@ -310,15 +310,35 @@ func (r *Reconciler) run(ctx context.Context, force bool) (Summary, error) {
summary.Synced = r.syncExternalLists(ctx)
attempted, started, err := r.attemptDue(ctx, force)
if err != nil {
return summary, err
// Nothing is searched for when there is nothing to search with, and
// the point is what that *does not* do to the list.
//
// Attempting anyway is not merely wasted work: every request comes
// back "no download clients are enabled", which RecordAttempt writes
// down as an attempt and schedules a retry for -- so a user who has
// deliberately built a wanted list with no client watched their
// requests accrue failures and announce "next check in 6 hours"
// about a check that cannot happen. Wanting something without a way
// to fetch it is a supported thing to do; being told it is being
// looked for is a lie.
//
// Everything above this line still runs: an artist subscription
// still expands, and a request the user satisfied by some other
// route -- ripped, bought, copied in -- is still retired, because
// neither needs a provider.
summary.NoProviders = len(r.manager.enabledProviders()) == 0
if !summary.NoProviders {
attempted, started, err := r.attemptDue(ctx, force)
if err != nil {
return summary, err
}
summary.Attempted = attempted
summary.Started = started
}
summary.Attempted = attempted
summary.Started = started
summary.Waiting = r.countWaiting(ctx)
summary.NoProviders = len(r.manager.enabledProviders()) == 0
r.logger.Info(
"reconciled request list",
+78
View File
@@ -453,6 +453,15 @@ func TestReconcileRespectsBatchSize(t *testing.T) {
f := newReconcileFixture(t)
ctx := context.Background()
// A client that searches and finds nothing. The batch size is about
// how many requests one pass *searches for*, which only means
// anything when there is something to search with -- a pass with no
// provider now attempts nothing at all, deliberately.
f.manager.installProvider(
Config{ID: 1, Priority: 50},
NewFakeProvider(1, "finds-nothing", Caps{CanSearch: true}),
)
f.reconciler.SetBatch(2)
for _, mbid := range []string{"rg-1", "rg-2", "rg-3", "rg-4"} {
@@ -593,3 +602,72 @@ func TestSummaryReportsNoProviders(t *testing.T) {
t.Error("summary did not report that no download client is enabled")
}
}
// ...and it does not search, which is the part the user sees.
//
// Attempting with no provider fails every request with "no download
// clients are enabled", and RecordAttempt writes that down as an
// attempt and schedules a retry -- so a wanted list built deliberately
// without a client accrued failures and announced "next check in 6
// hours" about a check that cannot happen. Wanting something with no
// way to fetch it is supported; being told it is being looked for is
// a lie.
func TestNoProvidersMeansNoAttempt(t *testing.T) {
t.Parallel()
f := newReconcileFixture(t)
ctx := context.Background()
id, err := f.store.AddRequest(ctx, Request{
MBID: "rg-1",
Entity: EntityReleaseGroup,
LibraryID: 1,
Title: "OK Computer",
})
if err != nil {
t.Fatalf("AddRequest: %v", err)
}
f.catalog.tracklists["rg-1"] = fourTrackDownload().Expected
summary, err := f.reconciler.RunNow(ctx)
if err != nil {
t.Fatalf("RunNow: %v", err)
}
if summary.Attempted != 0 {
t.Errorf("attempted %d requests with no client to search with, want 0",
summary.Attempted)
}
// The list still knows what is on it: "nothing happened" has to be
// reportable as "nothing was searched for, of the one thing you
// want" rather than as silence.
if summary.Waiting != 1 {
t.Errorf("summary reported %d waiting, want 1", summary.Waiting)
}
req, err := f.store.GetRequest(ctx, id)
if err != nil {
t.Fatalf("GetRequest: %v", err)
}
if req.Attempts != 0 {
t.Errorf("attempts = %d, want 0: a pass that could not search did not",
req.Attempts)
}
if req.LastError != "" {
t.Errorf("lastError = %q, want empty: the request did not fail, it "+
"was never tried", req.LastError)
}
// A new request is due immediately (next_try_at is set to now on
// insert), so the fault is not the presence of a time -- it is a
// time pushed into the future by a failed attempt, which is what the
// UI renders as "next check in 6 hours".
if req.NextTryAt.After(time.Now().Add(time.Minute)) {
t.Errorf("next try scheduled for %v: a check that cannot happen was "+
"put on the clock", req.NextTryAt)
}
}
+18 -2
View File
@@ -36,13 +36,24 @@ func newServiceFixture(t *testing.T) serviceFixture {
// assertion read it; the second is that same goroutine still writing
// into `t.TempDir()` after the test returned. One cause, two shapes.
//
// Putting the candidate outside the auto-pick size window stops the
// Putting the candidate outside the auto-pick guardrails stops the
// grab from ever starting, which is better than waiting for it: there
// is no goroutine to be slow, so the tests state what they mean
// ("the request exists, in this state") without a timing assumption
// underneath. A test that does want the download has `managerFixture`
// and sets its own preferences.
mf.manager.SetPreferences(AutoDownloadPrefs{MaxSizeMB: 1})
//
// The guard is a *format* the fake never produces, and it used to be
// `MaxSizeMB: 1`, which never fired: the size gates read
// `Candidate.TotalSize`, which real providers fill and the fake
// leaves at zero, and zero is under every ceiling. So the grab went
// ahead anyway and the second failure shape above — the TempDir
// cleanup race — kept happening, reproducibly, roughly one run in
// fifteen. A guard has to be keyed on something the fixture
// actually sets.
mf.manager.SetPreferences(AutoDownloadPrefs{
AllowedFormats: []Format{FormatWMA},
})
return serviceFixture{managerFixture: mf, svc: svc}
}
@@ -182,6 +193,11 @@ func TestManualDownloadSatisfiesRequestOnSuccess(t *testing.T) {
f := newServiceFixture(t)
ctx := context.Background()
// This is the one test here that is *about* the download, so it
// undoes the fixture's guard rather than relying on it — which is
// what it was doing implicitly while the guard did not work.
f.manager.SetPreferences(AutoDownloadPrefs{})
provider := fakeWithAlbum(1, "source", ".flac")
f.manager.installProvider(Config{ID: 1, Priority: 50}, provider)
+6 -1
View File
@@ -302,7 +302,12 @@ type QualityScore struct {
Bitrate float64 `json:"bitrate"`
Health float64 `json:"health"` // seeders, free slots
Priority float64 `json:"priority"` // user's per-provider preference
SizeFit float64 `json:"sizeFit"` // closeness to the preferred download size
// BitrateFit is closeness to the preferred *rate*, which is what
// the auto-download window is expressed in. It replaced a
// `SizeFit` measured in megabytes: a size means nothing without
// knowing how long the music is, so the same number described a
// generous single and a suspiciously small boxset.
BitrateFit float64 `json:"bitrateFit"`
// Mixed marks a candidate whose files are not all the same format,
// which usually means a hand-assembled folder rather than a rip.
+49 -5
View File
@@ -25,8 +25,26 @@ const (
// where cached cover art thumbnails are stored.
thumbnailDir = CoverArtCacheDirName
// thumbnailTimeout is the HTTP timeout for fetching a thumbnail.
thumbnailTimeout = 10 * time.Second
// thumbnailTimeout is the HTTP timeout for fetching a thumbnail,
// and it has to cover a redirect the Cover Art Archive does not
// serve itself.
//
// `coverartarchive.org` answers `front-250` with a 307 to an
// Internet Archive storage node (`dn######.us.archive.org`), and
// those nodes are routinely slow: measured against the twelve
// albums on Explore's own shelves, a successful fetch took 1416 s
// and a failing one 1317 s. At 10 s *every* cover on the page
// timed out — 24 cards, 5 of which had art, all of those from the
// disk cache — which reads as "Explore has no album art" rather
// than as a slow upstream, because a timeout writes nothing and
// says nothing.
//
// 30 s is chosen to clear that measured range with room, not to be
// generous: the fetch is off the critical path (each one is its own
// goroutine behind an 8/s limiter, and the frontend renders a
// placeholder until it lands), so the cost of waiting is nothing
// and the cost of giving up early is a blank page.
thumbnailTimeout = 30 * time.Second
// thumbnailMaxSize is the maximum image size to cache (2 MB).
thumbnailMaxSize = 2 * 1024 * 1024
@@ -97,6 +115,20 @@ func (p *CoverArtProxy) GetThumbnail(
return ""
}
// A 404 is an answer, and it is already on disk.
//
// `writeCache(mbid, nil)` has recorded "the archive has no art for
// this" as an empty file since this was written, and nothing has
// ever read it back: `readCache` returns "" for an empty file,
// which is indistinguishable from a miss, so every art-less release
// group was re-fetched from the network on every render that asked
// about it. On Explore's shelves a third of the cards are art-less,
// so that was a third of the page spending a live CAA request to be
// told again what the last one said.
if p.knownMissing(releaseGroupMBID) {
return ""
}
// Source 3: fetch from Cover Art Archive (slow, cached to disk).
url := CoverArtGroupURL(releaseGroupMBID)
data, cacheable, err := p.fetch(url)
@@ -177,8 +209,9 @@ func (p *CoverArtProxy) GetCandidateThumbnail(
}
}
// Network fetch on release group.
if releaseGroupMBID != "" {
// Network fetch on release group — unless a previous one was told
// there is none. See `knownMissing`.
if releaseGroupMBID != "" && !p.knownMissing(releaseGroupMBID) {
url := CoverArtGroupURL(releaseGroupMBID)
data, cacheable, err := p.fetch(url)
@@ -194,7 +227,7 @@ func (p *CoverArtProxy) GetCandidateThumbnail(
}
// Network fetch on release (fallback).
if releaseMBID != "" {
if releaseMBID != "" && !p.knownMissing(releaseMBID) {
url := CoverArtURL(releaseMBID)
data, cacheable, err := p.fetch(url)
@@ -285,6 +318,17 @@ func (p *CoverArtProxy) cachePath(mbid string) string {
return filepath.Join(p.cacheDir, mbid+".jpg")
}
// knownMissing reports whether a previous fetch was told the archive
// has no art for this MBID — the empty file `writeCache(mbid, nil)`
// leaves behind. It is deliberately separate from `readCache`, which
// answers "what are the bytes" and cannot express the difference
// between no answer and an answer of none.
func (p *CoverArtProxy) knownMissing(mbid string) bool {
info, err := os.Stat(p.cachePath(mbid))
return err == nil && info.Size() == 0
}
func (p *CoverArtProxy) readCache(mbid string) string {
path := p.cachePath(mbid)
+9
View File
@@ -2212,6 +2212,7 @@ func (e *Service) gatherTopCandidates(
ArtistType: a.Type,
Country: a.Country,
InLibrary: a.InLibrary,
LocalID: a.LocalID,
},
category: "artist",
qualityScore: quality,
@@ -2243,6 +2244,7 @@ func (e *Service) gatherTopCandidates(
ArtistType: a.Type,
Country: a.Country,
InLibrary: a.InLibrary,
LocalID: a.LocalID,
},
category: "artist",
qualityScore: quality,
@@ -2275,6 +2277,7 @@ func (e *Service) gatherTopCandidates(
PrimaryType: rg.PrimaryType,
Year: year,
InLibrary: rg.InLibrary,
LocalID: rg.LocalID,
},
category: "release_group",
qualityScore: quality,
@@ -2320,6 +2323,7 @@ func (e *Service) gatherTopCandidates(
PrimaryType: rg.PrimaryType,
Year: year,
InLibrary: rg.InLibrary,
LocalID: rg.LocalID,
},
category: "release_group",
qualityScore: quality,
@@ -2347,6 +2351,7 @@ func (e *Service) gatherTopCandidates(
CAAReleaseMBID: r.CAAReleaseMBID,
ReleaseName: r.ReleaseName,
InLibrary: r.InLibrary,
LocalID: r.LocalID,
},
category: "recording",
qualityScore: quality,
@@ -2403,6 +2408,7 @@ func (e *Service) gatherTopCandidates(
CAAReleaseMBID: r.CAAReleaseMBID,
ReleaseName: r.ReleaseName,
InLibrary: r.InLibrary,
LocalID: r.LocalID,
},
category: "recording",
qualityScore: quality,
@@ -2425,6 +2431,7 @@ func (e *Service) gatherTopCandidates(
ArtistType: m.ArtistType,
Country: m.Country,
InLibrary: m.InLibrary || m.LocalArtistID > 0,
LocalID: m.LocalArtistID,
},
category: "artist",
qualityScore: quality,
@@ -2445,6 +2452,7 @@ func (e *Service) gatherTopCandidates(
PrimaryType: m.PrimaryType,
Year: year,
InLibrary: m.InLibrary || m.LocalReleaseGroupID > 0,
LocalID: m.LocalReleaseGroupID,
},
category: "release_group",
qualityScore: quality,
@@ -2459,6 +2467,7 @@ func (e *Service) gatherTopCandidates(
ArtistMBID: m.ArtistMBID,
Length: m.Duration,
InLibrary: m.InLibrary || m.LocalRecordingID > 0,
LocalID: m.LocalRecordingID,
},
category: "recording",
qualityScore: quality,
+94
View File
@@ -82,6 +82,100 @@ func TestPruneStaleLocalCrossReferences(t *testing.T) {
}
}
// TestPruneClearsInLibraryWithNoLocalID covers the fixed point: a row
// carrying in_library with a NULL local_*_id. The upsert's conflict
// clause is `in_library = MAX(in_library, excluded.in_library)`, so it
// can only ever raise the flag, and this pass used to be gated on the id
// being present — which meant nothing in the app could clear such a row,
// ever. It is asserted for all three entity types because the gate was
// written once and used three times, so a fix applied to one is a fix
// that looks complete.
//
// The rows are seeded with raw SQL rather than through seedIndexResult
// deliberately: upsertBatch writes a zero LocalArtistID as literal 0,
// not NULL, and 0 satisfies `IS NOT NULL` — so the old gate already
// caught that shape and a fixture built through the upsert cannot
// reproduce this at all. NULL is what the artifact importer and any
// older writer leave behind, the column being nullable with no default.
func TestPruneClearsInLibraryWithNoLocalID(t *testing.T) {
t.Parallel()
db := database.NewTestDB(t)
si := NewSearchIndex(db, nil, nil, slog.Default())
// A genuinely owned artist, to prove the wider gate does not simply
// clear everything it now looks at.
database.InsertTestTrack(t, db, database.TestTrack{
FilePath: "/music/owned.mp3",
Artist: "Owned",
})
artist, err := db.Queries.GetArtistByName(t.Context(), "Owned")
if err != nil {
t.Fatalf("read seeded artist: %v", err)
}
seedIndexResult(t, db, SearchIndexResult{
EntityType: EntityArtist,
MBID: testMBID("owned"),
Title: "Owned",
ArtistName: "Owned",
ArtistMBID: testMBID("owned"),
InLibrary: true,
LocalArtistID: artist.ID,
})
orphans := []struct {
name string
entityType string
mbid string
}{
{"artist", EntityArtist, "orphan-artist"},
{"release group", EntityReleaseGroup, "orphan-release-group"},
{"recording", EntityRecording, "orphan-recording"},
}
for _, o := range orphans {
if _, err := db.ExecContext(
`INSERT INTO explore_index
(entity_type, mbid, title, artist_name, artist_mbid,
in_library,
local_artist_id, local_release_group_id, local_recording_id)
VALUES (?, ?, ?, ?, ?, 1, ?, ?, ?)`,
dbEntityType(o.entityType), dbMBID(testMBID(o.mbid)), o.name, o.name,
dbMBID(testMBID(o.mbid)),
nil, nil, nil,
); err != nil {
t.Fatalf("seed %s orphan: %v", o.name, err)
}
}
si.pruneStaleLocalCrossReferences()
inLibrary := func(t *testing.T, mbid string) int {
t.Helper()
var flag int
if err := db.QueryRowWriter(
"SELECT in_library FROM explore_index WHERE mbid = ?", dbMBID(mbid),
).Scan(&flag); err != nil {
t.Fatalf("read in_library for %q: %v", mbid, err)
}
return flag
}
for _, o := range orphans {
if got := inLibrary(t, testMBID(o.mbid)); got != 0 {
t.Errorf("%s with a NULL local id: in_library = %d, want 0", o.name, got)
}
}
if got := inLibrary(t, testMBID("owned")); got != 1 {
t.Errorf("owned artist: in_library = %d, want 1 (it still has a file)", got)
}
}
// TestUnenrichedLibraryArtistMBIDs_OrdersByOwnedTrackCount verifies the
// backfill queue prioritizes artists by how many tracks the user actually
// owns, not by how many duplicate-mbid artist rows happen to exist (the
+15 -1
View File
@@ -2562,6 +2562,19 @@ func (si *SearchIndex) PopulateLocalCrossReferences() {
// The row itself is left in place (it may still be part of the shipped
// catalog, just no longer owned) — only the "this is mine" bookkeeping
// is cleared.
//
// It is gated on the flag *or* the id, not on the id alone. Gated on
// the id, `in_library = 1 AND local_*_id IS NULL` is a fixed point: the
// upsert can only ever raise the flag and this pass skipped such a row
// by construction, so nothing in the app could clear it — a row claiming
// to be owned, permanently, with no local row to check the claim
// against. Nothing in the tree writes that shape today
// (collectLibraryEntities sets both together), which is exactly why it
// is worth closing now: the exposure is a database written by an older
// version, and the next writer that sets the flag without an id, which
// nothing structurally prevents. A NULL id fails the existence test on
// its own, so the wider gate needs no second clause to say what "not
// owned" means.
func (si *SearchIndex) pruneStaleLocalCrossReferences() {
type prune struct {
entityType string
@@ -2594,7 +2607,8 @@ func (si *SearchIndex) pruneStaleLocalCrossReferences() {
result, err := si.db.ExecContext(
`UPDATE explore_index
SET in_library = 0, `+p.column+` = NULL
WHERE entity_type = ? AND `+p.column+` IS NOT NULL
WHERE entity_type = ?
AND (`+p.column+` IS NOT NULL OR in_library = 1)
AND NOT EXISTS (`+p.exists+`)`,
dbEntityType(p.entityType),
)
+10 -1
View File
@@ -41,7 +41,16 @@ type TopResult struct {
ReleaseGroupMBID string `json:"releaseGroupMbid,omitempty"`
ReleaseName string `json:"releaseName,omitempty"`
// Library status — populated from index cross-reference columns.
InLibrary bool `json:"inLibrary"`
//
// LocalID is the one the cards read. It is the local row behind
// this entity — an album, a file, an artist — and it is set and
// cleared by a test against `audio_files`, so it means "there is
// something of mine here". InLibrary is written by the same pass
// but is a one-way ratchet the prune can only clear alongside a
// local id, so it is the weaker of the two and stays for scoring
// (`fwInLibrary`), which is where an approximate answer is fine.
InLibrary bool `json:"inLibrary"`
LocalID int64 `json:"localId,omitempty"`
}
// MBArtist is a Wails-friendly projection of a MusicBrainz artist.
+109
View File
@@ -232,3 +232,112 @@ func TestGetAlbumCompleteness_EmptyAlbum(t *testing.T) {
t.Errorf("empty album reported %+v, want zero and unknown", got)
}
}
// The batch and the single-album query are two spellings of one
// question, and the thing worth pinning is that they never disagree.
//
// They are genuinely different SQL — the single-album form is
// correlated subqueries over one album, the batch is two grouping
// levels over a slice — so the risk is not a typo but a drift in
// meaning: a disc's total counted once per file, a duplicate counted
// twice, a disc with no total silently covered by one that had one.
// Every shape the table above cares about is staged here at once,
// because a batch that is only ever asked about one album is not being
// asked the question that can go wrong.
func TestGetAlbumsCompletenessAgreesWithTheSingleAlbumQuery(t *testing.T) {
t.Parallel()
lib, _ := setupTestLibrary(t)
shapes := map[int][]track{
1: disc(1, 100, 12, 12),
2: disc(1, 200, 9, 12),
3: disc(1, 300, 13, 12),
4: {{recordingID: 400, disc: 1, number: 1}},
5: append(disc(1, 500, 10, 10), disc(2, 600, 2, 5)...),
6: append(
disc(1, 700, 10, 10),
track{recordingID: 750, disc: 2, number: 1},
),
7: append(
disc(1, 800, 5, 6),
track{recordingID: 899, disc: 1, number: 3, total: 6},
),
}
ids := make([]int64, 0, len(shapes))
for albumID, tracks := range shapes {
stageAlbum(t, lib, albumID, tracks)
ids = append(ids, albumIDFor(t, lib, albumID))
}
batch, err := lib.GetAlbumsCompleteness(ids)
if err != nil {
t.Fatalf("GetAlbumsCompleteness: %v", err)
}
if len(batch) != len(ids) {
t.Fatalf("batch answered for %d albums, want %d", len(batch), len(ids))
}
for _, id := range ids {
one, err := lib.GetAlbumCompleteness(id)
if err != nil {
t.Fatalf("GetAlbumCompleteness(%d): %v", id, err)
}
if got := batch[id]; got != one {
t.Errorf("album %d: batch says %+v, single says %+v", id, got, one)
}
}
}
// An album with no files is absent from the batch, not zeroed.
//
// "I have none of this" and "I have no idea" are the third state Known
// exists to keep apart, and a caller reading a missing key gets nothing
// rather than a confident zero it would have to know to distrust.
func TestGetAlbumsCompletenessOmitsAnAlbumWithNoFiles(t *testing.T) {
t.Parallel()
lib, _ := setupTestLibrary(t)
stageAlbum(t, lib, 1, disc(1, 100, 3, 3))
held := albumIDFor(t, lib, 1)
got, err := lib.GetAlbumsCompleteness([]int64{held, 4242})
if err != nil {
t.Fatalf("GetAlbumsCompleteness: %v", err)
}
if _, ok := got[4242]; ok {
t.Errorf("an album with no files answered %+v, want absent", got[4242])
}
if !got[held].Complete {
t.Errorf("held album reported %+v, want complete", got[held])
}
}
// A caller with nothing to ask about must not issue a query at all —
// sqlc's empty-slice branch rewrites the placeholder to NULL, which is
// a perfectly valid query returning nothing, so this is about the round
// trip rather than the answer.
func TestGetAlbumsCompletenessAsksNothingForAnEmptyList(t *testing.T) {
t.Parallel()
lib, _ := setupTestLibrary(t)
for _, ids := range [][]int64{nil, {}, {0}, {-1, 0}} {
got, err := lib.GetAlbumsCompleteness(ids)
if err != nil {
t.Fatalf("GetAlbumsCompleteness(%v): %v", ids, err)
}
if len(got) != 0 {
t.Errorf("GetAlbumsCompleteness(%v) = %+v, want empty", ids, got)
}
}
}
+141 -15
View File
@@ -289,8 +289,13 @@ func (l *Library) scanInternal(
l.mu.Unlock()
}()
// The configured mode, not a hardcoded "auto". `ScanConcurrency`
// has been a validated config field with three values and one
// caller passing a constant, so choosing `ssd` or `hdd` by hand
// did nothing at all.
diskProfile := system.ProfileForPath(libraryPath)
workerCount := resolveScanWorkerCount(
ScanConcurrencyAuto,
l.conf.ScanConcurrency,
libraryPath,
)
@@ -300,6 +305,10 @@ func (l *Library) scanInternal(
"libraryName", libraryName,
"libraryPath", libraryPath,
"workers", workerCount,
"mode", l.conf.ScanConcurrency,
"device", diskProfile.Device,
"rotational", diskProfile.Rotational,
"queueDepth", diskProfile.QueueDepth,
)
// Helper to build a ScanProgress with library identification.
@@ -818,7 +827,7 @@ func (l *Library) scanInternal(
g := new(errgroup.Group)
g.SetLimit(workerCount)
for work := range workChan {
for work := range readaheadWork(scanCtx, workChan, diskProfile) {
g.Go(func() error {
if err := l.waitIfPaused(scanCtx); err != nil {
return err
@@ -1285,9 +1294,101 @@ func surveyAudioFiles(
return count, maxModTime
}
// hddWorkerCount is the maximum number of concurrent extraction
// workers when the library resides on a spinning disk.
const hddWorkerCount = 2
// How many extraction workers a spinning disk gets, and why it is two
// numbers rather than one.
//
// Extraction is not CPU work — every parser here reads headers and
// returns — so on a spinning disk the whole cost is seek latency, and
// the only question worth asking is how many reads should be in flight
// at once. That has two different right answers and the drive says
// which:
//
// - A drive with command queueing (NCQ: /sys/block/<dev>/device/
// queue_depth reports 31 or 32 on any SATA disk with it enabled)
// reorders outstanding reads into the order its head passes over
// them. Handing it several at once is most of why a parallel scan
// beats a serial one at all, and four is where the returns flatten:
// the drive needs a few requests to have anything to reorder, and
// past that it is queueing requests it was already going to
// service in that order.
// - A drive without it — queue_depth 1, which is what a USB bridge
// or a pre-2004 disk reports — services one command at a time in
// the order given. Every extra worker there is one more seek
// competing for one head, and the scan gets *slower* the harder it
// is pushed. Two is kept rather than one because the readahead
// hints (see readaheadWork) do the overlapping that concurrency
// was standing in for, and one worker cannot hide a stall.
//
// This used to be a flat 2 for anything rotational, which is a
// pre-NCQ assumption: it left a modern spinning disk with a quarter of
// the queue depth it can use.
const (
hddWorkerCountQueued = 4
hddWorkerCountSerial = 2
)
// Readahead tuning.
const (
// readaheadDepth is how many files ahead of the workers the
// prefetcher runs. It is the channel's buffer, so it is also the
// number of `WILLNEED` hints outstanding at once — comfortably more
// than a queueing drive's 32-command window is worth filling with
// one library, and small enough that a cancelled scan is not
// holding a long tail of queued reads.
readaheadDepth = 16
// readaheadBytes is how much of each file to pull in. Everything
// the scanner reads lives at the head: ID3v2 and FLAC's
// STREAMINFO/VORBIS_COMMENT/PICTURE blocks, and the first MPEG
// frame with its Xing header. 512 KB covers a tag carrying
// embedded cover art, which is the large case — and reading a
// little too much sequentially costs a spinning disk almost
// nothing next to the seek that got there.
readaheadBytes = 512 << 10
)
// readaheadWork forwards scan work while asking the kernel to fetch
// each file's header before a worker reaches it.
//
// The buffered channel *is* the lookahead: this goroutine runs ahead
// of the workers until the buffer fills, hinting every file as it goes,
// so by the time a worker takes an item the read it needs has been in
// flight for `readaheadDepth` files' worth of parsing. That is the
// only thing that helps a spinning disk here, because the per-file work
// is already header-only — every parser in `backend/metadata` reads a
// few hundred bytes and returns, so the scan is not waiting on CPU or
// on bytes, it is waiting on the head to arrive.
//
// It runs on rotational disks only. An SSD has no seek to hide and
// already has one worker per core; issuing hints there is pure syscall
// overhead against an OS readahead that is already ahead of us.
func readaheadWork(
ctx context.Context,
in <-chan scanWork,
profile system.DiskProfile,
) <-chan scanWork {
if !profile.Rotational {
return in
}
out := make(chan scanWork, readaheadDepth)
go func() {
defer close(out)
for work := range in {
hintReadahead(work.absolutePath, readaheadBytes)
select {
case out <- work:
case <-ctx.Done():
return
}
}
}()
return out
}
// resolveScanWorkerCount returns the number of concurrent
// extraction workers based on the configured concurrency mode
@@ -1296,20 +1397,45 @@ func resolveScanWorkerCount(
mode ScanConcurrency,
libraryPath string,
) int {
return workersForProfile(
mode,
system.ProfileForPath(libraryPath),
goruntime.NumCPU(),
)
}
// workersForProfile is the policy on its own, so it can be tested
// against drives this machine does not have.
//
// `hdd` and `ssd` override what the device says rather than being a
// separate branch: the mode is the user overruling detection, and
// detection is right about the queue depth either way — a user who
// picks `hdd` on a queueing drive still wants that drive's queue used.
func workersForProfile(
mode ScanConcurrency,
profile system.DiskProfile,
cpus int,
) int {
spinning := profile.Rotational
switch mode {
case ScanConcurrencySSD:
return goruntime.NumCPU()
spinning = false
case ScanConcurrencyHDD:
return min(hddWorkerCount, goruntime.NumCPU())
default: // auto
if system.IsRotationalDisk(libraryPath) {
return min(
hddWorkerCount, goruntime.NumCPU(),
)
}
return goruntime.NumCPU()
spinning = true
case ScanConcurrencyAuto:
}
if !spinning {
return cpus
}
workers := hddWorkerCountSerial
if profile.Queues() {
workers = hddWorkerCountQueued
}
return min(workers, cpus)
}
// scanWork represents a file to be processed by a worker.
+59
View File
@@ -244,6 +244,65 @@ func (l *Library) GetAlbumCompleteness(albumID int64) (AlbumCompleteness, error)
}, nil
}
// GetAlbumsCompleteness answers the same question for a screenful of
// albums in one query, keyed by album id.
//
// A card grid asks this about every card that has a local album behind
// it, and one query per card is how a grid of fifty albums becomes
// fifty round trips. The answer matters there for the reason it
// matters on the album page: an album held 9 tracks of 12 has to show
// the count, and a bare tick saying "in your library" is the complaint
// this whole rule came from.
//
// An album with no row in the result is one with no files, and it is
// absent rather than zeroed — "I have none of this" and "I have no
// idea" are the same third state `Known` exists to keep apart, and a
// caller reading a missing key gets nothing rather than a confident 0.
func (l *Library) GetAlbumsCompleteness(
albumIDs []int64,
) (map[int64]AlbumCompleteness, error) {
out := make(map[int64]AlbumCompleteness, len(albumIDs))
if len(albumIDs) == 0 {
return out, nil
}
keys := make([]sql.NullInt64, 0, len(albumIDs))
for _, id := range albumIDs {
if id <= 0 {
continue
}
keys = append(keys, sql.NullInt64{Int64: id, Valid: true})
}
if len(keys) == 0 {
return out, nil
}
rows, err := l.db.ReadQueries.GetAlbumsCompleteness(l.ctx, keys)
if err != nil {
l.logger.Error("could not get album completeness in batch",
"albums", len(keys), "error", err)
return nil, fmt.Errorf("could not get album completeness: %w", err)
}
for _, row := range rows {
known := row.Known != 0 && row.Expected > 0
out[row.AlbumID] = AlbumCompleteness{
Owned: int(row.Owned),
Expected: int(row.Expected),
Known: known,
Complete: known && row.Owned >= row.Expected,
}
}
return out, nil
}
// GetAlbumTracks returns one album's tracks in disc/track order.
func (l *Library) GetAlbumTracks(albumID, libraryID int64) ([]Track, error) {
rows, err := l.db.ReadQueries.GetTracksByAlbum(
+38
View File
@@ -0,0 +1,38 @@
//go:build linux
package library
import (
"os"
"golang.org/x/sys/unix"
)
// hintReadahead asks the kernel to start fetching the head of a file
// that is about to be read.
//
// `POSIX_FADV_WILLNEED` returns immediately and queues the read, which
// is the whole point: on a spinning disk the first access to a file
// costs a seek of several milliseconds, and that latency can only be
// hidden by having the next seek already in flight while the current
// file is being parsed. A drive with command queueing can then service
// the queued reads in head order rather than in the order they were
// asked for.
//
// Errors are dropped on purpose. This is a hint: a file that has since
// been deleted, a filesystem that does not implement fadvise, or a
// permission the walk saw and this open does not, all mean "no
// prefetch", never "fail the scan". The read that follows is what
// reports a genuine problem.
func hintReadahead(path string, bytes int64) {
f, err := os.Open(path)
if err != nil {
return
}
defer func() { _ = f.Close() }()
_ = unix.Fadvise(
int(f.Fd()), 0, bytes, unix.FADV_WILLNEED,
)
}
+13
View File
@@ -0,0 +1,13 @@
//go:build !linux
package library
// hintReadahead is a no-op off Linux.
//
// macOS has `F_RDADVISE` and Windows has `FILE_FLAG_SEQUENTIAL_SCAN`,
// and neither is wired up here for the reason the scan concurrency
// heuristic is not either: this package cannot tell a spinning disk
// from an SSD on those platforms (see system.ProfileForPath), so it
// would be prefetching without knowing whether prefetching is what the
// device wants.
func hintReadahead(_ string, _ int64) {}
+122
View File
@@ -0,0 +1,122 @@
package library
import (
"context"
"testing"
"yellowjacket/backend/system"
)
// How many workers a scan gets is decided by two facts about the
// device, and the second one is new: a spinning disk that can queue
// commands wants several reads in flight, and one that cannot wants
// almost none. Before this it was a flat 2 for anything rotational,
// which is a pre-NCQ assumption — a modern SATA disk reports a queue
// depth of 32 and was being given a quarter of what it can use.
func TestWorkersForProfile(t *testing.T) {
t.Parallel()
const cpus = 16
ssd := system.DiskProfile{Device: "sda", QueueDepth: 32}
hddQueued := system.DiskProfile{
Device: "sdb", Rotational: true, QueueDepth: 32,
}
hddSerial := system.DiskProfile{
Device: "sdc", Rotational: true, QueueDepth: 1,
}
// Neither NVMe nor a device-mapper volume publishes queue_depth.
// An unknown depth must not be read as "cannot queue", or every
// such device would be scanned as if it were a 2003 drive.
unknown := system.DiskProfile{Device: "dm-0", Rotational: true}
tests := []struct {
name string
mode ScanConcurrency
profile system.DiskProfile
want int
}{
{"ssd auto", ScanConcurrencyAuto, ssd, cpus},
{"queueing hdd auto", ScanConcurrencyAuto, hddQueued, hddWorkerCountQueued},
{"serial hdd auto", ScanConcurrencyAuto, hddSerial, hddWorkerCountSerial},
{"unknown depth queues", ScanConcurrencyAuto, unknown, hddWorkerCountQueued},
// The mode overrules detection about the *disk*, never about
// its queue: forcing hdd on a queueing drive still uses it.
{"forced hdd on an ssd", ScanConcurrencyHDD, ssd, hddWorkerCountQueued},
{"forced ssd on an hdd", ScanConcurrencySSD, hddQueued, cpus},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
t.Parallel()
if got := workersForProfile(tt.mode, tt.profile, cpus); got != tt.want {
t.Errorf(
"workersForProfile(%q, %+v) = %d, want %d",
tt.mode, tt.profile, got, tt.want,
)
}
})
}
}
// A machine with fewer cores than the policy asks for gets its cores.
func TestWorkersNeverExceedTheCPUCount(t *testing.T) {
t.Parallel()
hdd := system.DiskProfile{Rotational: true, QueueDepth: 32}
if got := workersForProfile(ScanConcurrencyAuto, hdd, 1); got != 1 {
t.Errorf("single-core hdd = %d workers, want 1", got)
}
}
// The prefetch stage must forward every item and nothing else: it is a
// pass-through with a side effect, and a scan that drops a file because
// of a *hint* would be a spectacular way to lose part of a library.
func TestReadaheadForwardsEveryFile(t *testing.T) {
t.Parallel()
in := make(chan scanWork, 4)
for _, p := range []string{"/a", "/b", "/c", "/d"} {
in <- scanWork{absolutePath: p}
}
close(in)
var got []string
for w := range readaheadWork(
context.Background(),
in,
system.DiskProfile{Rotational: true, QueueDepth: 32},
) {
got = append(got, w.absolutePath)
}
want := []string{"/a", "/b", "/c", "/d"}
if len(got) != len(want) {
t.Fatalf("forwarded %v, want %v", got, want)
}
for i := range want {
if got[i] != want[i] {
t.Errorf("item %d = %q, want %q", i, got[i], want[i])
}
}
}
// On an SSD the stage is not inserted at all — the channel comes back
// unchanged, so a scan there pays nothing for a feature it cannot use.
func TestReadaheadIsSkippedOnSolidState(t *testing.T) {
t.Parallel()
in := make(chan scanWork)
out := readaheadWork(
context.Background(), in, system.DiskProfile{QueueDepth: 32},
)
if out != (<-chan scanWork)(in) {
t.Error("an ssd must get the original channel, unwrapped")
}
}
+41 -10
View File
@@ -279,17 +279,19 @@ func (h *MPRISHandler) enqueue(fn func()) {
}
}
// UpdateMetadata pushes track metadata to D-Bus.
func (h *MPRISHandler) UpdateMetadata(meta Metadata) {
h.mu.Lock()
h.trackID++
tid := h.trackID
h.mu.Unlock()
m := map[string]interface{}{
// metadataMap builds the org.mpris.MediaPlayer2.Player Metadata value
// for one track.
//
// It is separated from UpdateMetadata, which needs a live D-Bus
// connection, so the map's contents can be asserted on: this file is
// behind a build tag and everything in it that touches h is reachable
// only from a session bus, which is the same reason the Android
// contract lives in an untagged androidpayload.go.
func metadataMap(meta Metadata, trackID uint64) map[string]any {
m := map[string]any{
"mpris:trackid": dbus.ObjectPath(
fmt.Sprintf(
"/org/yellowjacket/Track/%d", tid,
"/org/yellowjacket/Track/%d", trackID,
),
),
}
@@ -306,16 +308,45 @@ func (h *MPRISHandler) UpdateMetadata(meta Metadata) {
m["xesam:album"] = meta.Album
}
// Always present, even with nothing to point at.
//
// Every other key here can be omitted safely because a client
// reading the map sees a track with no title or no album and
// renders it that way. Art is different: KDE's applet (and
// others) treat an *absent* mpris:artUrl as "no news about the
// art" and keep drawing whatever the last track had, so playing
// something with no cover left the previous album's sleeve on
// screen — which reads as the wrong track playing rather than as
// missing artwork.
//
// An empty string is the honest answer and is what the spec's
// "URI" type degrades to; a client that cannot load it falls back
// to its own placeholder, which is the behaviour wanted.
artURL := ""
if meta.ArtFilePath != "" {
m["mpris:artUrl"] = "file://" + meta.ArtFilePath
artURL = "file://" + meta.ArtFilePath
}
m["mpris:artUrl"] = artURL
if meta.DurationSec > 0 {
m["mpris:length"] = int64(
meta.DurationSec,
) * usPerSec
}
return m
}
// UpdateMetadata pushes track metadata to D-Bus.
func (h *MPRISHandler) UpdateMetadata(meta Metadata) {
h.mu.Lock()
h.trackID++
tid := h.trackID
h.mu.Unlock()
m := metadataMap(meta, tid)
h.enqueue(func() {
h.props.SetMust(playerIf, "Metadata", m)
})
+86
View File
@@ -0,0 +1,86 @@
//go:build linux && !android
package mediacontrols
import "testing"
// The one key that must be present even when it is empty.
//
// Everything else in the map may be omitted, because a client reading
// it renders a track with no title as a track with no title. Art is
// different: KDE's applet treats an *absent* mpris:artUrl as no news
// about the art and keeps drawing the last one it saw, so a track with
// no cover wore the previous album's sleeve — which reads as the wrong
// track playing rather than as missing artwork.
func TestMetadataMapAlwaysCarriesArtURL(t *testing.T) {
t.Parallel()
tests := []struct {
name string
meta Metadata
want string
}{
{
name: "no art at all",
meta: Metadata{Title: "Blue in Green"},
want: "",
},
{
name: "art on disk",
meta: Metadata{
Title: "Blue in Green",
ArtFilePath: "/covers/kind-of-blue_lg.jpg",
},
want: "file:///covers/kind-of-blue_lg.jpg",
},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
t.Parallel()
m := metadataMap(tt.meta, 1)
got, ok := m["mpris:artUrl"]
if !ok {
t.Fatal("mpris:artUrl is absent; it must always be sent")
}
if got != tt.want {
t.Errorf("mpris:artUrl = %v, want %q", got, tt.want)
}
})
}
}
// The trackid has to change between tracks or a client is entitled to
// treat the metadata as describing the same track it already has.
func TestMetadataMapTrackIDVaries(t *testing.T) {
t.Parallel()
first := metadataMap(Metadata{Title: "A"}, 1)["mpris:trackid"]
second := metadataMap(Metadata{Title: "B"}, 2)["mpris:trackid"]
if first == second {
t.Errorf("trackid did not change: %v", first)
}
}
// The optional keys stay optional — this is what makes artUrl's
// always-present treatment a deliberate exception rather than drift.
func TestMetadataMapOmitsEmptyOptionalFields(t *testing.T) {
t.Parallel()
m := metadataMap(Metadata{}, 1)
for _, key := range []string{
"xesam:title",
"xesam:artist",
"xesam:album",
"mpris:length",
} {
if _, ok := m[key]; ok {
t.Errorf("%s is present for an empty Metadata", key)
}
}
}
+188
View File
@@ -0,0 +1,188 @@
package player
import (
"errors"
"testing"
"time"
"github.com/gopxl/beep/v2"
)
// errTestDecode stands in for a decoder blowing up mid-track.
var errTestDecode = errors.New("decode blew up")
// stalledStreamer never produces a sample and never reports
// end-of-stream: (0, true), forever. A damaged file that decodes to
// nothing looks like this, and so does any source whose producer has
// quietly stopped.
type stalledStreamer struct{}
func (stalledStreamer) Stream(_ [][2]float64) (int, bool) { return 0, true }
func (stalledStreamer) Err() error { return nil }
// failingStreamer produces n good samples and then fails, which is
// what a decode error mid-track looks like: the same (0, false) a
// finished track returns, distinguishable only by Err.
type failingStreamer struct {
remaining int
err error
}
func (f *failingStreamer) Stream(samples [][2]float64) (int, bool) {
if f.remaining <= 0 {
return 0, false
}
n := min(len(samples), f.remaining)
for i := range n {
samples[i] = [2]float64{1, 1}
}
f.remaining -= n
return n, true
}
func (f *failingStreamer) Err() error { return f.err }
// drainUntilEnd calls Stream until it reports end-of-stream, or gives
// up. It returns whether the stream ended.
//
// The give-up bound is wall clock rather than a call count: the stall
// budget is a duration, so a tight loop has to actually wait it out.
func drainUntilEnd(bs *BufferedStreamer, within time.Duration) bool {
buf := make([][2]float64, 512)
deadline := time.Now().Add(within)
for time.Now().Before(deadline) {
if _, ok := bs.Stream(buf); !ok {
return true
}
time.Sleep(time.Millisecond)
}
return false
}
// A source that stops producing without ever ending is the fault this
// whole file exists for: Stream used to answer with silence and ok
// forever, so the chain never ended, the player stayed in Playing
// with the button showing pause, and the decoder's position never
// moved -- a frozen seek bar over a track that was not playing.
func TestAStalledSourceEndsTheStream(t *testing.T) {
bs := NewBufferedStreamer(stalledStreamer{}, 2048)
defer bs.Close()
if !drainUntilEnd(bs, maxStarvedDuration+2*time.Second) {
t.Fatal(
"a stalled source never ended the stream: the player " +
"would sit in Playing with a frozen position",
)
}
if !errors.Is(bs.Err(), errSourceStalled) {
t.Fatalf(
"expected the stall to be reported, got %v", bs.Err(),
)
}
}
// Close is the other exit that used to leave `done` false, with the
// same consequence: the ring drains and every call after it is
// silence that claims to be audio.
func TestClosingEndsTheStream(t *testing.T) {
bs := NewBufferedStreamer(finiteStreamer(1<<20), 2048)
// Let the read-ahead fill something, so this exercises the drain
// after Close rather than a buffer that was empty anyway.
time.Sleep(20 * time.Millisecond)
bs.Close()
if !drainUntilEnd(bs, 2*time.Second) {
t.Fatal("a closed streamer never reported end-of-stream")
}
}
// A source that fails is not a source that finished, and only Err
// tells them apart. Before this, the player reported a mid-track
// decode failure to the queue as a natural end, so the queue
// auto-advanced in silence and counted the broken track as played.
func TestAFailedSourceReportsItsError(t *testing.T) {
src := &failingStreamer{remaining: 4096, err: errTestDecode}
bs := NewBufferedStreamer(src, 2048)
defer bs.Close()
if !drainUntilEnd(bs, 2*time.Second) {
t.Fatal("a failing source never reported end-of-stream")
}
if !errors.Is(bs.Err(), errTestDecode) {
t.Fatalf(
"expected the source's error to survive, got %v",
bs.Err(),
)
}
}
// The ordinary case has to keep working: a source that ends cleanly
// ends with no error, or every finished track would be reported as a
// failure and skipped.
func TestADrainedSourceReportsNoError(t *testing.T) {
bs := NewBufferedStreamer(finiteStreamer(4096), 2048)
defer bs.Close()
if !drainUntilEnd(bs, 2*time.Second) {
t.Fatal("a finite source never reported end-of-stream")
}
if bs.Err() != nil {
t.Fatalf(
"a track that finished normally reported %v", bs.Err(),
)
}
}
// A slow source is exactly what the read-ahead exists to absorb, so
// underruns must not be charged cumulatively -- otherwise a file on a
// slow disk ends itself partway through.
func TestUnderrunsDoNotAccumulateAcrossASlowSource(t *testing.T) {
const total = 8192
src := &slowStreamer{
inner: finiteStreamer(total),
delay: 2 * time.Millisecond,
}
bs := NewBufferedStreamer(src, 1024)
defer bs.Close()
buf := make([][2]float64, 256)
got := 0
for {
n, ok := bs.Stream(buf)
if !ok {
break
}
for i := range n {
if buf[i][0] != 0 {
got++
}
}
}
if got != total {
t.Fatalf(
"a slow but healthy source was cut short: got %d of %d "+
"samples",
got, total,
)
}
}
// beep.Streamer is what the player wraps; keep the type honest.
var _ beep.Streamer = (*BufferedStreamer)(nil)
+113 -9
View File
@@ -1,6 +1,7 @@
package player
import (
"errors"
"sync"
"time"
@@ -34,8 +35,45 @@ type BufferedStreamer struct {
done bool
err error
closed chan struct{}
// starved counts consecutive Stream calls served with silence
// because the ring was empty, and starvedSince is when that run
// began. An underrun is legitimate for a moment -- that is what
// the read-ahead exists to absorb -- but it is not legitimate
// forever, and "forever" is indistinguishable from healthy
// playback everywhere above this type: the chain never ends, so
// the player stays in Playing with the button showing pause, and
// the decoder's position never moves, so the 1 Hz report pins the
// seek bar and suppresses its interpolation.
starved int
starvedSince time.Time
}
// The silence fill is bounded by both a duration and a run of calls,
// and it needs both.
//
// Duration alone is the real measure -- the speaker paces itself, so
// wall clock is what says whether the source has actually stopped --
// but a caller draining in a tight loop (a test, a decode-to-buffer)
// makes hundreds of calls in microseconds and would trip nothing.
// A call count alone is the opposite failure: the same tight loop
// spends the whole budget before the read-ahead goroutine has been
// scheduled once, and ends a perfectly good stream at sample zero.
//
// The duration is longer than the 2 s read-ahead it is there to
// outlast, and the count is short enough that the speaker (~200 ms a
// call) reaches it well inside that.
const (
maxStarvedDuration = 3 * time.Second
minStarvedCalls = 8
)
// errSourceStalled is returned by Err when the source stopped
// producing samples without ever reporting end-of-stream.
var errSourceStalled = errors.New(
"audio source stopped producing samples",
)
// NewBufferedStreamer creates a BufferedStreamer that pre-fills
// bufferSize samples from source via a background goroutine.
// A typical bufferSize is 2× the sample rate (~2 seconds of audio).
@@ -54,8 +92,24 @@ func NewBufferedStreamer(
return bs
}
// finish marks the stream ended, recording err as the reason when
// there is one. Every exit from readAhead goes through it: an exit
// that leaves done false strands Stream in its underrun branch,
// where it returns silence and ok forever.
func (bs *BufferedStreamer) finish(err error) {
bs.mu.Lock()
defer bs.mu.Unlock()
bs.done = true
if err != nil && bs.err == nil {
bs.err = err
}
}
// readAhead continuously reads from the source into the ring buffer
// until the source is drained, an error occurs, or Close is called.
// It always marks the stream done on the way out.
func (bs *BufferedStreamer) readAhead() {
// Temporary buffer for reading from source outside the lock.
// 512 samples per chunk keeps the critical section short.
@@ -63,6 +117,13 @@ func (bs *BufferedStreamer) readAhead() {
tmp := make([][2]float64, chunkSize)
// Every exit marks the stream done. An exit that does not is what
// stranded Stream in its underrun branch, returning silence and ok
// for the rest of the process's life.
var exitErr error
defer func() { bs.finish(exitErr) }()
for {
// Check if closed.
select {
@@ -72,6 +133,15 @@ func (bs *BufferedStreamer) readAhead() {
}
bs.mu.Lock()
// Stream gave up waiting for us. Nothing downstream is
// listening any more, so filling the ring is work for nobody.
if bs.done {
bs.mu.Unlock()
return
}
space := len(bs.ring) - bs.count
if space == 0 {
@@ -115,14 +185,12 @@ func (bs *BufferedStreamer) readAhead() {
}
if !ok {
bs.mu.Lock()
bs.done = true
if srcErr := bs.source.Err(); srcErr != nil {
bs.err = srcErr
}
bs.mu.Unlock()
// A drained source and a failed one both land here and are
// not the same event: one is a track that ended, the other
// is a track that broke. Err is what tells them apart, and
// it is why the player must ask before treating this as a
// natural finish.
exitErr = bs.source.Err()
return
}
@@ -154,7 +222,27 @@ func (bs *BufferedStreamer) Stream(
}
if bs.count == 0 {
// Buffer temporarily empty — fill with silence.
// The read-ahead has not caught up. Silence buys it time --
// but only for a bounded stretch, because "forever" is
// reported upward as healthy playback and there is no watchdog
// above this to notice otherwise.
bs.starved++
if bs.starvedSince.IsZero() {
bs.starvedSince = time.Now()
}
if bs.starved >= minStarvedCalls &&
time.Since(bs.starvedSince) > maxStarvedDuration {
bs.done = true
if bs.err == nil {
bs.err = errSourceStalled
}
return 0, false
}
for i := range samples {
samples[i] = [2]float64{}
}
@@ -162,6 +250,9 @@ func (bs *BufferedStreamer) Stream(
return len(samples), true
}
// Samples arrived, so whatever the stall was, it is over.
bs.resetStarvationLocked()
// Copy available samples from ring buffer.
n := len(samples)
if n > bs.count {
@@ -197,6 +288,19 @@ func (bs *BufferedStreamer) Flush() {
bs.readPos = 0
bs.writPos = 0
bs.count = 0
// A seek empties the ring on purpose, and the refill that follows
// is exactly the stall the budget exists to tolerate. Charging it
// against a budget the previous underrun already spent would end
// the track on a seek near the end of a slow file.
bs.resetStarvationLocked()
}
// resetStarvationLocked forgets an underrun run. Must be called with
// bs.mu held.
func (bs *BufferedStreamer) resetStarvationLocked() {
bs.starved = 0
bs.starvedSince = time.Time{}
}
// LockSource blocks the read-ahead goroutine from touching the
+213
View File
@@ -0,0 +1,213 @@
package player
import (
"log/slog"
"testing"
"time"
"github.com/wailsapp/wails/v3/pkg/application"
"yellowjacket/backend/events"
"yellowjacket/internal/testfixtures"
)
// fixtureSampleRate is what cmd/gentestdata writes (audio.go). It is
// deliberately not the speaker rate, which is what lets these tests
// tell the decoder's format from the player's default.
const fixtureSampleRate = 22050
// newTestPlayer is a player with a context and no database, so the
// track-metadata lookup cannot succeed.
func newTestPlayer(t *testing.T) *Player {
t.Helper()
p := NewPlayer(slog.Default(), nil)
rec := events.NewRecorder()
_ = p.ServiceStartup(
events.WithSink(t.Context(), rec),
application.ServiceOptions{},
)
return p
}
// loadFileLocked needs no speaker: it decodes, builds the chain and
// registers it paused. speaker.Play on an uninitialised device is
// what the integration guard elsewhere is about, so these assert on
// the state the load computed rather than on playback.
// p.format used to be assigned once, in the constructor, to the
// *speaker's* rate -- so it claimed 44.1 kHz for every file ever
// loaded. Play()'s replay-after-finish path resamples from it, so a
// finished track played again was resampled from a rate the decoder
// never produced: audibly the wrong speed and pitch, and wrong
// length and position arithmetic with it.
//
// The fixtures are 22050 Hz, which is exactly the point -- any of
// them disagrees with the speaker rate.
func TestLoadRecordsTheDecodersOwnFormat(t *testing.T) {
m := testfixtures.Load(t)
path := m.Case(t, testfixtures.CaseCoverDedup)[0]
p := newTestPlayer(t)
if got := p.format.SampleRate; got != speakerSampleRate {
t.Fatalf(
"precondition: a fresh player should hold the speaker "+
"rate, got %d",
got,
)
}
if err := p.LoadFile(path); err != nil {
t.Fatalf("LoadFile(%s): %v", path, err)
}
if p.format.SampleRate == speakerSampleRate {
t.Fatalf(
"p.format still holds the speaker rate (%d) after "+
"loading a %d Hz file: the replay path would "+
"resample from the wrong rate",
speakerSampleRate, fixtureSampleRate,
)
}
if got := int(p.format.SampleRate); got != fixtureSampleRate {
t.Errorf(
"expected the decoder's rate %d, got %d",
fixtureSampleRate, got,
)
}
}
// trackLengthMs is written only when the database has a row for the
// file and cleared only by UnloadTrack, so a track with no row used
// to inherit whatever the last track's duration was -- and every
// position report is scaled by it, so the whole seek bar was then
// reporting one track's progress on another track's scale.
//
// There is no database here, so the lookup cannot succeed: exactly
// the case that used to inherit.
func TestLoadDoesNotInheritThePreviousTracksDuration(t *testing.T) {
m := testfixtures.Load(t)
path := m.Case(t, testfixtures.CaseCoverDedup)[0]
p := newTestPlayer(t)
// Stand in for a previous track whose duration was resolved.
p.trackLengthMs = 9_999_000
if err := p.LoadFile(path); err != nil {
t.Fatalf("LoadFile(%s): %v", path, err)
}
if p.trackLengthMs == 9_999_000 {
t.Fatal(
"the previous track's duration survived the load: every " +
"position report for this track would be scaled by it",
)
}
}
// A new chain supersedes the old one's pending finished callback.
// Without this, a callback that queued for p.mu behind a LoadFile
// woke up and rewound, stopped and auto-advanced the *new* track.
func TestANewChainSupersedesTheOldFinishedCallback(t *testing.T) {
m := testfixtures.Load(t)
paths := m.Case(t, testfixtures.CaseCoverDedup)
if len(paths) < 2 {
t.Skip("need two fixture tracks")
}
p := newTestPlayer(t)
if err := p.LoadFile(paths[0]); err != nil {
t.Fatalf("LoadFile(%s): %v", paths[0], err)
}
stale := p.chainID
if err := p.LoadFile(paths[1]); err != nil {
t.Fatalf("LoadFile(%s): %v", paths[1], err)
}
if p.chainID == stale {
t.Fatal("loading a second file did not supersede the chain")
}
called := false
p.SetPlaybackFinishedHandler(func(error) { called = true })
// The first track's callback, arriving late.
p.onPlaybackFinished(stale, nil)
if called {
t.Error(
"a superseded chain's callback drove auto-advance: the " +
"track that is loaded now would be skipped",
)
}
if p.state == Stopped {
t.Error(
"a superseded chain's callback stopped the current track",
)
}
}
// The decoder is read by the read-ahead goroutine and by every
// position emit, and those used to be guarded by different mutexes:
// the read by srcMu, the position by the speaker lock, which
// read-ahead never takes. Under -race this failed on the emit that
// LoadFile itself makes.
//
// It needs the read-ahead goroutine to actually be running, so it
// keeps asking for the position for long enough to overlap it.
func TestPositionReadsDoNotRaceTheReadAhead(t *testing.T) {
m := testfixtures.Load(t)
path := m.Case(t, testfixtures.CaseFLACAlbum)[0]
p := newTestPlayer(t)
if err := p.LoadFile(path); err != nil {
t.Fatalf("LoadFile(%s): %v", path, err)
}
for range 200 {
if _, err := p.CurrentPositionSeconds(); err != nil {
t.Fatalf("CurrentPositionSeconds: %v", err)
}
}
}
// Seeking emits the landing position, and that emit reads the
// decoder -- so the source lock the seek holds must be released
// before it. A reentrant take here is a deadlock, not a failure,
// which is why this test exists rather than a comment.
func TestSeekEmitsWithoutDeadlocking(t *testing.T) {
m := testfixtures.Load(t)
path := m.Case(t, testfixtures.CaseFLACAlbum)[0]
p := newTestPlayer(t)
if err := p.LoadFile(path); err != nil {
t.Fatalf("LoadFile(%s): %v", path, err)
}
done := make(chan struct{})
go func() {
defer close(done)
_ = p.Seek(1)
}()
select {
case <-done:
case <-time.After(10 * time.Second):
t.Fatal("Seek deadlocked: the position emit re-took the source lock")
}
}
+171 -34
View File
@@ -52,9 +52,17 @@ type Player struct {
control *beep.Ctrl
volume *effects.Volume
speakerStreamer beep.Streamer
playbackFinishedHandler func()
playbackFinishedHandler func(error)
trackChangeID uint64
mediaControls mediacontrols.Handler
// chainID identifies the streamer chain currently registered with
// the speaker. updateStreamers bumps it, and the finished
// callback carries the value it was registered with, so a callback
// that queued for p.mu behind a LoadFile can tell that the player
// has moved on and return rather than rewinding somebody else's
// track.
chainID uint64
mediaControls mediacontrols.Handler
// duckAmount is the attenuation currently applied on top of the
// user's volume, in the same base-2 exponent effects.Volume uses.
@@ -180,11 +188,18 @@ func (p *Player) InitSpeaker() error {
}
// SetPlaybackFinishedHandler sets a callback invoked when a track
// finishes naturally. This allows the queue to drive auto-advance
// stops streaming. This allows the queue to drive auto-advance
// without circular imports.
//
// The error says *why* the track stopped: nil for a track that
// reached its end, non-nil for one that broke partway through. Both
// arrive here because both look identical to the speaker, and only
// the queue holds the metadata a PlaybackFailed needs -- but they are
// not the same event, and reporting a decode failure as a natural
// finish is how a broken file used to auto-advance in silence.
//
//wails:ignore // internal wiring, not part of the app's IPC surface.
func (p *Player) SetPlaybackFinishedHandler(handler func()) {
func (p *Player) SetPlaybackFinishedHandler(handler func(error)) {
p.mu.Lock()
defer p.mu.Unlock()
@@ -424,6 +439,19 @@ func (p *Player) updateStreamers(
newBaseStreamer beep.StreamSeeker,
sr beep.SampleRate,
) error {
// A new chain supersedes the old one, so any finished callback the
// old one still owes is stale from here on.
p.chainID++
// The previous read-ahead goroutine reads the same decoder this
// one is about to, under its own srcMu -- two goroutines, two
// mutexes, one decoder that is not safe for concurrent use. The
// replay-after-finish path rebuilds from p.seeker without going
// through LoadFile, which is where that pair could meet.
if p.buffered != nil {
p.buffered.Close()
}
// set base streamer
p.baseStreamer = newBaseStreamer
p.seeker = newBaseStreamer
@@ -474,23 +502,57 @@ func (p *Player) startPaused() {
p.control.Paused = true
speaker.Unlock()
// Captured, not read at callback time: by then p.chainID names
// whatever is loaded *now*, which is the thing the guard exists to
// distinguish this chain from.
chainID := p.chainID
buffered := p.buffered
// The beep.Callback runs with the speaker mutex held, so we
// dispatch to a goroutine that can safely acquire p.mu.
speaker.Play(beep.Seq(
p.speakerStreamer,
beep.Callback(func() {
go p.onPlaybackFinished()
// Asked here rather than under p.mu: this is the chain that
// just ended, and by the time the goroutine holds the lock
// p.buffered may be a different one.
var err error
if buffered != nil {
err = buffered.Err()
}
go p.onPlaybackFinished(chainID, err)
}),
))
p.state = Paused
}
// onPlaybackFinished handles the natural end of a track. It is
// called on a new goroutine from the beep callback (which holds
// the speaker lock) so that it can safely acquire p.mu.
func (p *Player) onPlaybackFinished() {
// onPlaybackFinished handles a track that stopped streaming, whether
// it ended or broke. It is called on a new goroutine from the beep
// callback (which holds the speaker lock) so that it can safely
// acquire p.mu.
//
// chainID names the streamer chain the callback fired for and srcErr
// says why it stopped.
func (p *Player) onPlaybackFinished(chainID uint64, srcErr error) {
p.mu.Lock()
// The player has moved on while this callback queued for the lock
// -- a user pressing Next during the last second of a track is
// enough. Everything below is about the *current* track: rewinding
// the decoder, saying playback stopped, asking the queue to
// advance. Doing any of it now would do it to the wrong track.
if chainID != p.chainID {
p.mu.Unlock()
p.logger.Debug(
"Ignoring finished callback for a superseded chain",
"chain", chainID, "current", p.chainID,
)
return
}
p.state = Stopped
handler := p.playbackFinishedHandler
mc := p.mediaControls
@@ -501,10 +563,11 @@ func (p *Player) onPlaybackFinished() {
// the Stopped state anyway, so this only moves the decoder.
p.rewindLocked()
p.emitPositionLocked()
p.mu.Unlock()
// Emit Wails events outside the lock — these are non-blocking
// calls that don't need player state.
// Emitted under p.mu, like every other transition in this file.
// Outside it, a Play() taking the lock in the gap emits `playing`
// first and this stale `stopped` lands last -- leaving the button
// showing play over a track that is audibly running.
p.emitPlaybackFinished()
events.Emit(
@@ -513,6 +576,8 @@ func (p *Player) onPlaybackFinished() {
map[string]string{"state": string(Stopped)},
)
p.mu.Unlock()
// Notify media controls outside the lock. The track just
// ended so position is 0.
if mc != nil {
@@ -521,12 +586,19 @@ func (p *Player) onPlaybackFinished() {
)
}
p.logger.Info("Playback finished naturally")
if srcErr != nil {
p.logger.Error(
"Playback stopped: the audio source failed",
"err", srcErr,
)
} else {
p.logger.Info("Playback finished naturally")
}
// Notify queue for auto-advance. Called without p.mu held
// because it re-enters the player via LoadFile/Play.
if handler != nil {
handler()
handler(srcErr)
}
}
@@ -587,6 +659,18 @@ func (p *Player) loadFileLocked(filePath string) error {
p.currentFile = f
// The decoder's own format, kept for the paths that rebuild the
// chain later: Play()'s replay branch resamples from it, so a
// stale rate there plays a finished track back at the wrong speed.
p.format = format
// The previous track's duration must not outlive it. This is set
// again by emitTrackChanged below, but only when the database has
// a row for the file -- and every position this player reports is
// scaled by it, so inheriting means every report is wrong by the
// ratio between two unrelated tracks.
p.trackLengthMs = 0
if err := p.updateStreamers(
streamer, format.SampleRate,
); err != nil {
@@ -906,6 +990,8 @@ func (p *Player) CurrentPosition() (int, error) {
return 0, errNoAudioFileLoaded
}
defer p.lockSourceLocked()()
speaker.Lock()
pos := math.Round(
100.0 * float64(p.seeker.Position()) /
@@ -924,6 +1010,28 @@ func (p *Player) Seek(targetSeconds int) error {
return p.seekLocked(targetSeconds)
}
// lockSourceLocked blocks the read-ahead goroutine from touching the
// decoder and returns the function that releases it, so a caller can
// `defer p.lockSourceLocked()()`.
//
// Reading the decoder's position is a read *of the decoder*, and the
// speaker lock does not exclude the read-ahead goroutine -- it never
// takes it. That was a genuine data race on every position emit,
// once a second for the whole of playback.
//
// srcMu is not reentrant, so nothing that already holds it may call
// this; seekSourceLocked exists to keep that region free of emits.
// Must be called with p.mu held.
func (p *Player) lockSourceLocked() func() {
if p.buffered == nil {
return func() {}
}
p.buffered.LockSource()
return p.buffered.UnlockSource
}
// rewindLocked returns the decoder to the start of the track without
// touching playback state. Must be called with p.mu held.
func (p *Player) rewindLocked() {
@@ -959,6 +1067,46 @@ func (p *Player) seekLocked(targetSeconds int) error {
return fmt.Errorf("cannot get track length: %w", err)
}
// The source lock is released before anything below is emitted:
// emitPositionLocked reads the decoder's position and takes the
// same lock, which is not reentrant.
seekErr := p.seekSourceLocked(targetSeconds, lengthSecs)
if seekErr != nil {
p.logger.Warn(
"Seek failed, playback will start from "+
"the beginning",
"target-seconds", targetSeconds,
"err", seekErr,
)
// The optimistic move the UI already made has to be taken
// back, and only the backend knows it did not happen.
events.Emit(p.ctx, events.SeekFailed)
p.emitPositionLocked()
return fmt.Errorf("failed to seek: %w", seekErr)
}
if p.mediaControls != nil {
p.mediaControls.NotifySeek(targetSeconds)
}
// Report the landing position immediately rather than leaving the
// UI to guess until the next tick — this is the half of H-3 that
// desynced the seek bar by 30 s over four keyboard seeks.
p.emitPositionLocked()
return nil
}
// seekSourceLocked moves the decoder and flushes the stale read-ahead
// behind it. It owns the source lock for exactly that long and
// emits nothing, so its caller is free to read the position
// afterwards. Must be called with p.mu held.
func (p *Player) seekSourceLocked(
targetSeconds int,
lengthSecs int,
) error {
// Block the read-ahead goroutine from reading the source while
// we seek it. The decoder (e.g. FLAC's bufseekio.ReadSeeker) is
// not safe for concurrent Read+Seek, and read-ahead runs on its
@@ -1014,19 +1162,11 @@ func (p *Player) seekLocked(targetSeconds int) error {
if seekErr != nil {
speaker.Unlock()
p.logger.Warn(
"Seek failed, playback will start from "+
"the beginning",
"target-seconds", targetSeconds,
"samples", samples,
"err", seekErr,
p.logger.Debug(
"seek rejected by the decoder",
"samples", samples, "err", seekErr,
)
// The optimistic move the UI already made has to be taken
// back, and only the backend knows it did not happen.
events.Emit(p.ctx, events.SeekFailed)
p.emitPositionLocked()
return fmt.Errorf("failed to seek: %w", seekErr)
}
@@ -1039,15 +1179,6 @@ func (p *Player) seekLocked(targetSeconds int) error {
p.buffered.Flush()
}
if p.mediaControls != nil {
p.mediaControls.NotifySeek(targetSeconds)
}
// Report the landing position immediately rather than leaving the
// UI to guess until the next tick — this is the half of H-3 that
// desynced the seek bar by 30 s over four keyboard seeks.
p.emitPositionLocked()
return nil
}
@@ -1140,6 +1271,10 @@ func (p *Player) seekerLengthSecsLocked() (int, error) {
return 0, errNoAudioFileLoaded
}
// Len is fixed for the life of the decoder, so unlike Position it
// races with nothing and needs no source lock -- which it must not
// take anyway: displayPositionSecsLocked calls this while holding
// it, and srcMu is not reentrant.
speaker.Lock()
length := p.seeker.Len() / int(p.format.SampleRate)
speaker.Unlock()
@@ -1156,6 +1291,8 @@ func (p *Player) displayPositionSecsLocked() int {
return 0
}
defer p.lockSourceLocked()()
speaker.Lock()
pos := p.seeker.Position()
total := p.seeker.Len()
+1
View File
@@ -81,6 +81,7 @@ func (q *Queue) emitTracksModified(
Index: index,
Positions: positions,
CurrentIndex: q.currentIndex,
Source: q.source,
},
)
}
+50
View File
@@ -219,6 +219,56 @@ func TestEmit_AddTrackSendsDeltaNotSnapshot(t *testing.T) {
}
}
// The append clears the source, and the delta is the only event those
// paths emit — so if it does not carry the source, the frontend keeps
// the label it was last given and goes on offering a link back to an
// album the queue no longer holds until something forces a full state.
func TestEmit_AppendDeltaCarriesClearedSource(t *testing.T) {
t.Parallel()
q, db, rec := setupRecordedQueue(t)
paths := seedAudioFiles(t, db, 4)
q.SetQueue(
paths[:3], 0, false,
Source{Type: "album", ID: 1, Label: "Abbey Road"},
)
if _, ok := rec.Wait(events.QueueChanged, waitFor); !ok {
t.Fatalf("no QueueChanged after SetQueue; got %v", rec.Names())
}
rec.Reset()
q.AddTrack(paths[3])
if got := modifiedOf(t, rec).Source; got != (Source{}) {
t.Errorf("delta source = %+v, want zero value", got)
}
}
// And a delta that did not clear it still reports the source it has,
// or the frontend would drop a perfectly good label on every removal.
func TestEmit_NonAppendDeltaCarriesSource(t *testing.T) {
t.Parallel()
q, db, rec := setupRecordedQueue(t)
paths := seedAudioFiles(t, db, 4)
album := Source{Type: "album", ID: 1, Label: "Abbey Road"}
q.SetQueue(paths, 0, false, album)
if _, ok := rec.Wait(events.QueueChanged, waitFor); !ok {
t.Fatalf("no QueueChanged after SetQueue; got %v", rec.Names())
}
rec.Reset()
q.RemoveTrack(3)
if got := modifiedOf(t, rec).Source; got != album {
t.Errorf("delta source = %+v, want %+v", got, album)
}
}
func TestEmit_RemoveTracksReportsPositions(t *testing.T) {
t.Parallel()
+3 -3
View File
@@ -83,7 +83,7 @@ func TestFallback_TriggersOnNaturalFinish(t *testing.T) {
q.SetFallbackSource(fake)
q.SetQueue(seedPaths, 0, false, Source{Type: "album", ID: 1, Label: "Seed Album"})
q.OnPlaybackFinished()
q.OnPlaybackFinished(nil)
waitUntil(t, func() bool { return fake.callCount() == 1 }, "fallback to be resolved")
waitUntil(t, func() bool {
@@ -159,7 +159,7 @@ func TestFallback_EmptyResultLeavesQueueExhausted(t *testing.T) {
q.SetFallbackSource(fake)
q.SetQueue(seedPaths, 0, false, Source{})
q.OnPlaybackFinished()
q.OnPlaybackFinished(nil)
waitUntil(t, func() bool { return fake.callCount() == 1 }, "fallback to be resolved")
@@ -193,7 +193,7 @@ func TestFallback_StaleResolutionDiscarded(t *testing.T) {
q.SetFallbackSource(fake)
q.SetQueue(seedPaths, 0, false, Source{})
q.OnPlaybackFinished() // starts resolving, blocked on gate
q.OnPlaybackFinished(nil) // starts resolving, blocked on gate
time.Sleep(20 * time.Millisecond) // let the goroutine reach the gate
+78
View File
@@ -0,0 +1,78 @@
package queue
import (
"errors"
"testing"
"yellowjacket/backend/events"
)
// errTestDecode stands in for a decoder blowing up mid-track.
var errTestDecode = errors.New("decode blew up")
// currentIndex == -1 against a non-empty queue is a state this
// package produces on purpose: onQueueExhausted(false) sets it and
// deliberately leaves the finished track loaded in the player, so it
// stays on the now-playing bar. Pressing play from there and letting
// it finish re-enters OnPlaybackFinished with exactly that pair --
// which used to index q.tracks[-1] and panic, on a goroutine
// dispatched from the audio callback with no caller to recover it.
func TestFinishedWithNoCurrentTrackDoesNotPanic(t *testing.T) {
t.Parallel()
tests := []struct {
name string
index int
}{
{"exhausted queue leaves -1", -1},
{"index past the end", 3},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
t.Parallel()
q, _, _ := setupRecordedQueue(t)
q.tracks = []Track{
{FilePath: "/a.mp3"},
{FilePath: "/b.mp3"},
}
q.currentIndex = tt.index
// The assertion is that this returns at all.
q.OnPlaybackFinished(nil)
if q.currentIndex != tt.index {
t.Errorf(
"an out-of-range index was acted on: %d became %d",
tt.index, q.currentIndex,
)
}
})
}
}
// A track that broke mid-playback is not a track that was listened
// to. The player cannot say so itself -- the metadata is here -- so
// it hands the reason over and this is where it becomes a
// PlaybackFailed rather than a silent auto-advance.
func TestAFailedTrackIsReportedAndNotCountedAsAPlay(t *testing.T) {
t.Parallel()
q, _, rec := setupRecordedQueue(t)
q.tracks = []Track{
{FilePath: "/a.mp3", Title: "A", AudioFileID: 1},
{FilePath: "/b.mp3", Title: "B", AudioFileID: 2},
}
q.currentIndex = 0
q.OnPlaybackFinished(errTestDecode)
if _, ok := rec.Last(events.PlaybackFailed); !ok {
t.Errorf(
"a track that failed mid-playback told the user nothing; "+
"got %v",
rec.Names(),
)
}
}
+36 -9
View File
@@ -1,18 +1,45 @@
package queue
// OnPlaybackFinished is called when a track finishes playing naturally.
// This drives the auto-advance behavior and records the play.
func (q *Queue) OnPlaybackFinished() {
// OnPlaybackFinished is called when a track stops streaming. This
// drives the auto-advance behavior and records the play.
//
// srcErr says why the track stopped: nil for one that reached its
// end, non-nil for one that broke partway through. The player cannot
// tell the user which, because the metadata lives here -- so a failure
// is reported as PlaybackFailed and *not* recorded as a play, while
// the advance happens either way. Before this, a file that failed
// mid-track advanced in silence and was counted as listened to.
//
//wails:ignore // internal wiring, not part of the app's IPC surface.
func (q *Queue) OnPlaybackFinished(srcErr error) {
q.mu.Lock()
if len(q.tracks) == 0 {
// currentIndex is -1 whenever the queue has been exhausted, and
// onQueueExhausted deliberately leaves the finished track loaded
// in the player -- so a natural finish can re-enter here against a
// queue that is not empty and an index that is not valid. Every
// other path in this package bounds-checks before indexing; this
// one panicked, on a goroutine with no caller to recover it.
if q.currentIndex < 0 || q.currentIndex >= len(q.tracks) {
q.mu.Unlock()
return
}
// Capture the track that just finished before advancing.
finishedID := q.tracks[q.currentIndex].AudioFileID
finished := q.tracks[q.currentIndex]
finishedID := finished.AudioFileID
if srcErr != nil {
q.emitPlaybackFailed(finished, srcErr)
}
// A track that broke was not listened to.
recordFinished := func() {
if srcErr == nil {
q.recordPlay(finishedID)
}
}
// Repeat One: replay the current track.
if q.repeatMode == RepeatOne {
@@ -21,7 +48,7 @@ func (q *Queue) OnPlaybackFinished() {
}
q.mu.Unlock()
q.recordPlay(finishedID)
recordFinished()
return
}
@@ -31,7 +58,7 @@ func (q *Queue) OnPlaybackFinished() {
// Queue exhausted — this is the extension point for a future fallback playlist.
q.onQueueExhausted(false)
q.mu.Unlock()
q.recordPlay(finishedID)
recordFinished()
return
}
@@ -44,12 +71,12 @@ func (q *Queue) OnPlaybackFinished() {
if !q.playCurrentOrSkip(true, q.nextIndex) {
q.onQueueExhausted(false)
q.mu.Unlock()
q.recordPlay(finishedID)
recordFinished()
return
}
q.emitIndexChanged()
q.mu.Unlock()
q.recordPlay(finishedID)
recordFinished()
}
+2 -2
View File
@@ -107,7 +107,7 @@ func TestPlaybackFailed_AutoAdvanceSkipsPastIt(t *testing.T) {
// The first track finished: auto-advance lands on the missing
// file and must step over it rather than stopping dead.
q.OnPlaybackFinished()
q.OnPlaybackFinished(nil)
if got := q.GetState().CurrentIndex; got != 2 {
t.Errorf("currentIndex after skipping: got %d, want 2", got)
@@ -183,7 +183,7 @@ func TestQueueExhausted_KeepsTheFinishedTrackLoaded(t *testing.T) {
q.SetQueue(paths, 0, false, Source{})
q.Play()
q.OnPlaybackFinished()
q.OnPlaybackFinished(nil)
if q.GetState().CurrentIndex != -1 {
t.Errorf(
+44
View File
@@ -156,12 +156,21 @@ type PlaybackFailure struct {
}
// TracksModified is the payload for the QueueTracksModified event.
//
// Source is carried because an append is exactly what can *invalidate*
// it: a queue built from one album stops being that album the moment a
// track from somewhere else is added to it. The delta is the only event
// those paths emit, so without this the frontend would keep the label
// it was last given and go on saying "Playing from" an album that is no
// longer what is queued — an event carrying what its consumer needs, so
// nothing has to invalidate anything.
type TracksModified struct {
Action string `json:"action"`
Tracks []Track `json:"tracks,omitempty"`
Index int `json:"index"`
Positions []int `json:"positions,omitempty"`
CurrentIndex int `json:"currentIndex"`
Source Source `json:"source"`
}
// Queue manages an ordered list of tracks for playback.
@@ -455,6 +464,8 @@ func (q *Queue) AddTrack(filePath string) {
q.generateShuffleOrder()
}
q.dropSource()
q.persistAddTrack(track)
q.persistState()
q.emitTracksModified(
@@ -505,6 +516,8 @@ func (q *Queue) AddTracks(filePaths []string) {
q.generateShuffleOrder()
}
q.dropSource()
q.persistAddTracks(newTracks)
q.persistState()
q.emitTracksModified(
@@ -563,6 +576,8 @@ func (q *Queue) InsertNextTracks(filePaths []string) {
q.generateShuffleOrder()
}
q.dropSource()
q.persistInsertTracks(newTracks, insertPos)
q.persistState()
q.emitTracksModified(
@@ -613,6 +628,8 @@ func (q *Queue) InsertNext(filePath string) {
q.generateShuffleOrder()
}
q.dropSource()
q.persistInsertTracks([]Track{track}, insertPos)
q.persistState()
q.emitTracksModified(
@@ -680,6 +697,8 @@ func (q *Queue) InsertTracksAt(filePaths []string, index int) {
q.generateShuffleOrder()
}
q.dropSource()
q.persistInsertTracks(newTracks, index)
q.persistState()
q.emitTracksModified(
@@ -1537,6 +1556,31 @@ func (q *Queue) reindexPositions() {
}
}
// dropSource forgets which collection the queue was built from.
//
// A Source is a claim that everything queued came from one album,
// playlist, genre or artist, and the frontend renders it as a
// "Playing from X" link back to that page. Adding or inserting a track
// makes the claim false — the queue is now that album *plus* something
// else — so every path that does so calls this.
//
// It was set by SetQueue and cleared in exactly one place, Clear, so a
// label survived every append. It is persisted too (source_type /
// source_id / source_label on the queue state row), which is what made
// a wrong label outlive the session that earned it: an album queued on
// Monday, added to on Tuesday, still offered a link back to that album
// on Friday.
//
// Removing, reordering and shuffling deliberately do not call this. A
// queue with a track taken out of it, or played in another order, is
// still that album — the link still goes somewhere true. Only the
// arrival of a track from elsewhere makes it a lie.
//
// The caller must hold q.mu.
func (q *Queue) dropSource() {
q.source = Source{}
}
// commitMutation persists the current queue state after a mutation.
// When reindex is true, track positions are renumbered first.
// The caller must hold q.mu.
+111
View File
@@ -126,6 +126,117 @@ func TestClear_ResetsSource(t *testing.T) {
}
}
// A queue built from one album stops being that album the moment a
// track from somewhere else joins it, so every path that adds one
// drops the source. Before this, SetQueue was the only writer and
// Clear the only clearer, so "Playing from Abbey Road" outlived every
// append — and, being persisted, every restart too.
func TestAppendPathsDropSource(t *testing.T) {
t.Parallel()
album := Source{Type: "album", ID: 1, Label: "Abbey Road"}
tests := []struct {
name string
append func(q *Queue, paths []string)
}{
{
name: "AddTrack",
append: func(q *Queue, paths []string) {
q.AddTrack(paths[5])
},
},
{
name: "AddTracks",
append: func(q *Queue, paths []string) {
q.AddTracks(paths[5:7])
},
},
{
name: "InsertNext",
append: func(q *Queue, paths []string) {
q.InsertNext(paths[5])
},
},
{
name: "InsertNextTracks",
append: func(q *Queue, paths []string) {
q.InsertNextTracks(paths[5:7])
},
},
{
name: "InsertTracksAt",
append: func(q *Queue, paths []string) {
q.InsertTracksAt(paths[5:7], 1)
},
},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
t.Parallel()
q, db := setupTestQueue(t)
paths := seedAudioFiles(t, db, 8)
q.SetQueue(paths[:5], 0, false, album)
if got := q.GetState().Source; got != album {
t.Fatalf("source before append: got %+v, want %+v", got, album)
}
tt.append(q, paths)
if got := q.GetState().Source; got != (Source{}) {
t.Errorf(
"source after %s: got %+v, want zero value",
tt.name, got,
)
}
})
}
}
// Removing and reordering deliberately do not drop it: a queue with a
// track taken out of it is still that album, and the link still goes
// somewhere true.
func TestRemoveAndMoveKeepSource(t *testing.T) {
t.Parallel()
album := Source{Type: "album", ID: 1, Label: "Abbey Road"}
t.Run("RemoveTrack", func(t *testing.T) {
t.Parallel()
q, db := setupTestQueue(t)
paths := seedAudioFiles(t, db, 5)
q.SetQueue(paths, 0, false, album)
q.RemoveTrack(3)
if got := q.GetState().Source; got != album {
t.Errorf("source after RemoveTrack: got %+v, want %+v", got, album)
}
})
t.Run("MoveQueueTracks", func(t *testing.T) {
t.Parallel()
q, db := setupTestQueue(t)
paths := seedAudioFiles(t, db, 5)
q.SetQueue(paths, 0, false, album)
q.MoveQueueTracks([]int{0}, 3)
if got := q.GetState().Source; got != album {
t.Errorf(
"source after MoveQueueTracks: got %+v, want %+v",
got, album,
)
}
})
}
func TestSetQueue_WithStartIndex(t *testing.T) {
t.Parallel()
+10 -1
View File
@@ -24,10 +24,19 @@ func DefaultBindings() map[string]string {
"player.repeat": "R",
"player.mute": "M",
// Navigation (Global scope)
// Navigation (Global scope). Back and forward are the browser's
// own combination on every platform, which is the whole design
// brief for them: the app has one global history and this is the
// gesture people already have for it. The modifier is what keeps
// them clear of `player.seekBack`/`seekForward`, which are the
// bare arrows -- a binding is matched on its full canonical
// string, so "Alt+Left" and "Left" are different keys and not a
// conflict.
"nav.search": "/",
"nav.searchAlt": "Ctrl+F",
"nav.queue": "Q",
"nav.back": "Alt+Left",
"nav.forward": "Alt+Right",
// App actions
"app.selectAll": "Ctrl+A",
+76 -7
View File
@@ -28,6 +28,7 @@ var (
errUnsupportedOp = errors.New("unsupported operator")
errInvalidSortField = errors.New("invalid sort field: not in allowed field list")
errNotNumeric = errors.New("value must be numeric")
errInvalidMatch = errors.New("match must be \"all\" or \"any\"")
)
// Rule represents a single filter condition for a smart playlist.
@@ -37,13 +38,45 @@ type Rule struct {
Value string `json:"value"`
}
// MatchType decides how a rule set's conditions combine.
//
// The rules used to be joined with " AND " and nothing else, so a
// playlist could only ever narrow: "jazz released after 1960" was
// expressible and "jazz or blues" was not, which is most of what
// anyone reaches for a second rule to say.
type MatchType string
const (
// MatchAll requires every rule to hold — the historical behaviour,
// and what an empty match means so that every rule set written
// before this existed keeps the meaning it was saved with.
MatchAll MatchType = "all"
// MatchAny requires at least one rule to hold.
MatchAny MatchType = "any"
)
// joiner returns the SQL keyword that combines two conditions.
// An unrecognised value cannot reach here — ParseRuleSet rejects one
// — so the default is about the empty string, which is every rule set
// saved before this field existed.
func (m MatchType) joiner() string {
if m == MatchAny {
return " OR "
}
return " AND "
}
// RuleSet holds the complete filter configuration for a smart
// playlist, including optional sort and limit.
type RuleSet struct {
Rules []Rule `json:"rules"`
Limit int `json:"limit,omitempty"`
SortField string `json:"sort_field,omitempty"`
SortDir string `json:"sort_dir,omitempty"`
Rules []Rule `json:"rules"`
// Match is "all" or "any"; empty means "all". It is omitempty so
// an untouched playlist's stored JSON does not change shape.
Match MatchType `json:"match,omitempty"`
Limit int `json:"limit,omitempty"`
SortField string `json:"sort_field,omitempty"`
SortDir string `json:"sort_dir,omitempty"`
}
// fieldMap maps user-facing rule field names to track_metadata column
@@ -116,7 +149,12 @@ const genreDelimiter = "||"
// slice of rules. It is a pure function — no database access needed.
// Returns the clause (without the leading "WHERE"), the parameter
// args, and any validation error.
func BuildWhereClause(rules []Rule) (string, []any, error) {
//
// match decides how the conditions combine; an empty match is MatchAll,
// which is what every rule set saved before the field existed means.
func BuildWhereClause(
rules []Rule, match MatchType,
) (string, []any, error) {
if len(rules) == 0 {
return "", nil, nil
}
@@ -179,7 +217,28 @@ func BuildWhereClause(rules []Rule) (string, []any, error) {
args = append(args, condArgs...)
}
return strings.Join(conditions, " AND "), args, nil
// Under OR, each condition is parenthesised; under AND it is not.
//
// The asymmetry is deliberate rather than an omission. AND is the
// tighter operator in SQL, so an OR-join has to protect any
// condition that contains a top-level AND of its own or the halves
// come apart: `days_since_played less_than` is
// `last_played IS NOT NULL AND <expr> < ?`, which read without
// brackets under an OR-join happens to still parse correctly and
// would stop doing so the moment a condition grows a top-level OR.
// Bracketing under AND would be a no-op semantically and would
// rewrite the clause every existing test pins, so the brackets go
// exactly where they change something.
if match == MatchAny {
bracketed := make([]string, len(conditions))
for i, cond := range conditions {
bracketed[i] = "(" + cond + ")"
}
conditions = bracketed
}
return strings.Join(conditions, match.joiner()), args, nil
}
// validateOperator checks that the operator is valid for the field
@@ -599,7 +658,7 @@ func Evaluate(
start := time.Now()
logger := db.Logger()
where, args, err := BuildWhereClause(ruleSet.Rules)
where, args, err := BuildWhereClause(ruleSet.Rules, ruleSet.Match)
if err != nil {
return nil, fmt.Errorf(
"smart playlist rule error: %w", err,
@@ -1036,6 +1095,16 @@ func ParseRuleSet(jsonStr string) (RuleSet, error) {
)
}
// A match nobody recognises would otherwise fall through to AND,
// which is a playlist quietly returning the wrong tracks rather
// than refusing to be saved. This is the only place a rule set
// enters the backend, so it is the only place that has to ask.
if rs.Match != "" && rs.Match != MatchAll && rs.Match != MatchAny {
return RuleSet{}, fmt.Errorf(
"%w: %q", errInvalidMatch, rs.Match,
)
}
return rs, nil
}
+203 -24
View File
@@ -1,6 +1,7 @@
package smartplaylist
import (
"errors"
"strings"
"testing"
@@ -170,7 +171,7 @@ func TestBuildWhereClause_TextIs(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "artist", Operator: "is", Value: "Queen"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -189,7 +190,7 @@ func TestBuildWhereClause_TextIsNot(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "artist", Operator: "is_not", Value: "Queen"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -209,7 +210,7 @@ func TestBuildWhereClause_TextContains(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "title", Operator: "contains", Value: "Black"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -231,7 +232,7 @@ func TestBuildWhereClause_TextDoesNotContain(t *testing.T) {
Field: "title", Operator: "does_not_contain",
Value: "Black",
},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -251,7 +252,7 @@ func TestBuildWhereClause_TextStartsWith(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "title", Operator: "starts_with", Value: "Back"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -270,7 +271,7 @@ func TestBuildWhereClause_TextEndsWith(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "title", Operator: "ends_with", Value: "Black"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -292,7 +293,7 @@ func TestBuildWhereClause_TextIsAnyOf(t *testing.T) {
Field: "artist", Operator: "is_any_of",
Value: `["Queen","AC/DC"]`,
},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -312,7 +313,7 @@ func TestBuildWhereClause_NumericIs(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "year", Operator: "is", Value: "1980"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -331,7 +332,7 @@ func TestBuildWhereClause_NumericIsNot(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "year", Operator: "is_not", Value: "1980"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -350,7 +351,7 @@ func TestBuildWhereClause_NumericGreaterThan(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "year", Operator: "greater_than", Value: "2000"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -369,7 +370,7 @@ func TestBuildWhereClause_NumericLessThan(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "year", Operator: "less_than", Value: "1980"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -391,7 +392,7 @@ func TestBuildWhereClause_NumericBetween(t *testing.T) {
Field: "year", Operator: "between",
Value: "1975,1985",
},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -414,7 +415,7 @@ func TestBuildWhereClause_NumericBetweenJSON(t *testing.T) {
Field: "year", Operator: "between",
Value: `["1975","1985"]`,
},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -434,7 +435,7 @@ func TestBuildWhereClause_GenreIsProducesSubquery(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "genre", Operator: "is", Value: "Rock"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -466,7 +467,7 @@ func TestBuildWhereClause_GenreIsNotProducesSubquery(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "genre", Operator: "is_not", Value: "Rock"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -495,7 +496,7 @@ func TestBuildWhereClause_GenreIsAnyOfProducesSubquery(t *testing.T) {
Field: "genre", Operator: "is_any_of",
Value: `["Rock","Pop"]`,
},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -524,7 +525,7 @@ func TestBuildWhereClause_GenreContainsUsesSubquery(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "genre", Operator: "contains", Value: "Rock"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -557,7 +558,7 @@ func TestBuildWhereClause_MultipleRulesAND(t *testing.T) {
clause, args, err := BuildWhereClause([]Rule{
{Field: "artist", Operator: "is", Value: "Queen"},
{Field: "year", Operator: "greater_than", Value: "1975"},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -572,6 +573,110 @@ func TestBuildWhereClause_MultipleRulesAND(t *testing.T) {
}
}
func TestBuildWhereClause_MultipleRulesOR(t *testing.T) {
t.Parallel()
clause, args, err := BuildWhereClause([]Rule{
{Field: "artist", Operator: "is", Value: "Queen"},
{Field: "year", Operator: "greater_than", Value: "1975"},
}, MatchAny)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
want := "(artist_name = ? COLLATE NOCASE) OR (year > ?)"
if clause != want {
t.Errorf("clause = %q, want %q", clause, want)
}
if len(args) != 2 || args[0] != "Queen" || args[1] != int64(1975) {
t.Errorf("args = %v, want [Queen 1975]", args)
}
}
// An empty match is what every rule set saved before the field existed
// carries, and it has to keep meaning AND — a playlist silently
// widening to OR on upgrade is the whole risk of adding this field.
func TestBuildWhereClause_EmptyMatchIsAll(t *testing.T) {
t.Parallel()
rules := []Rule{
{Field: "artist", Operator: "is", Value: "Queen"},
{Field: "year", Operator: "greater_than", Value: "1975"},
}
empty, _, err := BuildWhereClause(rules, "")
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
all, _, err := BuildWhereClause(rules, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
if empty != all {
t.Errorf("empty match = %q, want the same as MatchAll %q",
empty, all)
}
}
// A condition carrying its own top-level AND is what makes the
// bracketing under OR load-bearing: `days_since_played less_than`
// is two predicates, and both belong to the same rule.
func TestBuildWhereClause_ORBracketsCompoundCondition(t *testing.T) {
t.Parallel()
clause, _, err := BuildWhereClause([]Rule{
{Field: "artist", Operator: "is", Value: "Queen"},
{
Field: "days_since_played",
Operator: "less_than",
Value: "30",
},
}, MatchAny)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
if !strings.Contains(clause, "(last_played IS NOT NULL AND") {
t.Errorf(
"compound condition is not bracketed under OR: %q",
clause,
)
}
}
func TestParseRuleSet_RejectsUnknownMatch(t *testing.T) {
t.Parallel()
_, err := ParseRuleSet(`{"rules":[],"match":"either"}`)
if err == nil {
t.Fatal("expected an error for an unknown match type")
}
if !errors.Is(err, errInvalidMatch) {
t.Errorf("err = %v, want errInvalidMatch", err)
}
}
func TestParseRuleSet_AcceptsAnyAndAll(t *testing.T) {
t.Parallel()
for _, want := range []MatchType{MatchAll, MatchAny} {
rs, err := ParseRuleSet(
`{"rules":[],"match":"` + string(want) + `"}`,
)
if err != nil {
t.Fatalf("match %q: unexpected error: %v", want, err)
}
if rs.Match != want {
t.Errorf("match = %q, want %q", rs.Match, want)
}
}
}
func TestBuildWhereClause_SameFieldMultipleTimes(t *testing.T) {
t.Parallel()
@@ -581,7 +686,7 @@ func TestBuildWhereClause_SameFieldMultipleTimes(t *testing.T) {
Field: "genre", Operator: "does_not_contain",
Value: "Punk",
},
})
}, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -609,7 +714,7 @@ func TestBuildWhereClause_SameFieldMultipleTimes(t *testing.T) {
func TestBuildWhereClause_EmptyRules(t *testing.T) {
t.Parallel()
clause, args, err := BuildWhereClause(nil)
clause, args, err := BuildWhereClause(nil, MatchAll)
if err != nil {
t.Fatalf("unexpected error: %v", err)
}
@@ -631,7 +736,7 @@ func TestBuildWhereClause_InvalidField(t *testing.T) {
Field: "nonexistent", Operator: "is",
Value: "anything",
},
})
}, MatchAll)
if err == nil {
t.Fatal("expected error for invalid field, got nil")
}
@@ -654,7 +759,7 @@ func TestBuildWhereClause_InvalidOperatorForNumeric(t *testing.T) {
_, _, err := BuildWhereClause([]Rule{
{Field: "year", Operator: "contains", Value: "1980"},
})
}, MatchAll)
if err == nil {
t.Fatal(
"expected error for text operator on numeric field",
@@ -676,7 +781,7 @@ func TestBuildWhereClause_InvalidOperatorForText(t *testing.T) {
Field: "artist", Operator: "greater_than",
Value: "Queen",
},
})
}, MatchAll)
if err == nil {
t.Fatal(
"expected error for numeric operator on text field",
@@ -723,6 +828,80 @@ func TestEvaluate_TextIs(t *testing.T) {
}
}
// Two rules that share no track at all: under AND this is empty, and
// under OR it is the union. Before Match existed only the first was
// expressible, so a playlist could only ever narrow — "jazz or blues"
// had no way to be said.
func TestEvaluate_MatchAnyUnionsWhereMatchAllIntersects(t *testing.T) {
t.Parallel()
db := database.NewTestDB(t)
seedSmartPlaylistData(t, db)
// Queen has two tracks; Beyoncé has one; no track is by both.
rules := []Rule{
{Field: "artist", Operator: "is", Value: "Queen"},
{Field: "artist", Operator: "is", Value: "Beyoncé"},
}
all, err := Evaluate(db, RuleSet{Rules: rules, Match: MatchAll})
if err != nil {
t.Fatalf("Evaluate(all): %v", err)
}
if len(all) != 0 {
t.Errorf("match=all returned %d tracks, want 0", len(all))
}
either, err := Evaluate(db, RuleSet{Rules: rules, Match: MatchAny})
if err != nil {
t.Fatalf("Evaluate(any): %v", err)
}
if len(either) != 3 {
t.Fatalf("match=any returned %d tracks, want 3", len(either))
}
for _, tr := range either {
if tr.ArtistName != "Queen" && tr.ArtistName != "Beyoncé" {
t.Errorf(
"track %q has artist %q, want Queen or Beyoncé",
tr.TrackName, tr.ArtistName,
)
}
}
}
// An empty match is what every playlist saved before the field existed
// carries, and it has to keep meaning AND all the way through Evaluate
// — a stored playlist silently widening on upgrade is the only real
// risk in adding this.
func TestEvaluate_EmptyMatchStillIntersects(t *testing.T) {
t.Parallel()
db := database.NewTestDB(t)
seedSmartPlaylistData(t, db)
tracks, err := Evaluate(db, RuleSet{
Rules: []Rule{
{Field: "artist", Operator: "is", Value: "Queen"},
{Field: "year", Operator: "greater_than", Value: "1979"},
},
})
if err != nil {
t.Fatalf("Evaluate: %v", err)
}
// Only "Another One Bites the Dust" (Queen, 1980) satisfies both.
if len(tracks) != 1 {
t.Fatalf("got %d tracks, want 1", len(tracks))
}
if want := "Another One Bites the Dust"; tracks[0].TrackName != want {
t.Errorf("got %q, want %q", tracks[0].TrackName, want)
}
}
// TestEvaluate_ArtworkEnrichment verifies the presentation-only
// cover-art and MusicBrainz-ID fields are attached to matched tracks
// by the batched fetchArtwork pass (they are no longer part of the
@@ -1340,7 +1519,7 @@ func TestSQLInjection_FieldName(t *testing.T) {
Field: "title; DROP TABLE playlists",
Operator: "is", Value: "x",
},
})
}, MatchAll)
if err == nil {
t.Fatal(
"expected error for injected field name, got nil",
+134 -57
View File
@@ -16,32 +16,107 @@ var errNoBlockDevice = errors.New(
"no matching block device found",
)
// IsRotationalDisk reports whether the block device backing the
// given path is a rotational (spinning) disk. Detection uses the
// Linux sysfs interface at /sys/block/<dev>/queue/rotational.
// Returns false on any error (assumes SSD).
func IsRotationalDisk(path string) bool {
dev, err := deviceForPath(path)
if err != nil {
return false
}
// DiskProfile is what the scanner needs to know about the device a
// library sits on. Both fields are about the same question — how many
// reads should be in flight at once — and they answer different halves
// of it, so they travel together rather than as two probes.
type DiskProfile struct {
// Device is the whole-disk kernel name ("sdb"), or "" when the
// path could not be resolved to one.
Device string
rotational, err := os.ReadFile(
filepath.Join(
"/sys/block", dev, "queue", "rotational",
),
)
if err != nil {
return false
}
// Rotational is /sys/block/<dev>/queue/rotational: true for a
// spinning disk, where a seek costs milliseconds.
Rotational bool
return strings.TrimSpace(string(rotational)) == "1"
// QueueDepth is /sys/block/<dev>/device/queue_depth — how many
// commands the drive will accept and reorder at once. This is
// NCQ: a SATA disk with it enabled reports 31 or 32, and one
// without reports 1. Zero means the file was not there to read,
// which is the case for anything that is not a SCSI/SATA device
// (NVMe, MMC, device-mapper, loop, a VM's virtio disk).
//
// It is the difference between concurrency helping and hurting.
// With queueing, several outstanding reads let the drive service
// them in the order its head passes over them, which is most of
// why a parallel scan is faster at all. Without it, every extra
// worker is one more seek competing for one head, and the scan
// gets slower the harder it is pushed.
QueueDepth int
}
// deviceForPath resolves a filesystem path to its underlying block
// device name (e.g. "sda") by matching the device major:minor
// from stat(2) against /sys/block/ entries.
func deviceForPath(path string) (string, error) {
// Queues reports whether the drive can reorder outstanding commands.
//
// An unknown depth (0) counts as queueing: everything that does not
// publish this file is a device where concurrency is fine — NVMe has
// its own queues, virtio and device-mapper are not the physical layer
// at all. The only case worth being careful about is the one that
// says so explicitly.
func (p DiskProfile) Queues() bool {
return p.QueueDepth != 1
}
// IsRotationalDisk reports whether the block device backing the
// given path is a rotational (spinning) disk. Returns false on any
// error (assumes SSD).
func IsRotationalDisk(path string) bool {
return ProfileForPath(path).Rotational
}
// ProfileForPath describes the device backing a filesystem path. A
// path that cannot be resolved yields the zero profile, which reads as
// "not rotational, queueing" — the permissive answer, since assuming a
// spinning disk on an SSD would halve a scan for nothing.
func ProfileForPath(path string) DiskProfile {
dev, err := diskForPath(path)
if err != nil {
return DiskProfile{}
}
return DiskProfile{
Device: dev,
Rotational: sysfsInt(dev, "queue", "rotational") == 1,
QueueDepth: sysfsInt(dev, "device", "queue_depth"),
}
}
// sysfsInt reads one small integer out of /sys/block/<dev>/<parts...>,
// returning 0 when it is absent or unparseable. Every attribute here
// is optional: sysfs layout varies by driver, and a missing file is
// "this device does not say", never an error worth propagating.
func sysfsInt(dev string, parts ...string) int {
p := filepath.Join(
append([]string{"/sys/block", dev}, parts...)...,
)
data, err := os.ReadFile(p) //nolint:gosec // sysfs, name from the kernel
if err != nil {
return 0
}
n, err := strconv.Atoi(strings.TrimSpace(string(data)))
if err != nil {
return 0
}
return n
}
// diskForPath resolves a filesystem path to the *whole disk* backing
// it — "sdb" for a file on "sdb3".
//
// It goes through /sys/dev/block/<major>:<minor>, which the kernel
// maintains as a symlink to the device's own sysfs directory, and then
// walks up to the parent when that directory turns out to be a
// partition. The previous implementation scanned /sys/block comparing
// dev numbers and, failing an exact match, took the first entry whose
// *major* agreed — and every SATA disk shares major 8. So a library on
// /dev/sdb3 resolved to whatever /sys/block listed first, which is
// alphabetical, which is sda. On the machine this was found on that
// meant a 6 TB spinning disk was read as the SSD next to it and scanned
// with one worker per core. Matching on major alone cannot be right
// whenever a machine has two disks, which is the case this exists for.
func diskForPath(path string) (string, error) {
var st syscall.Stat_t
if err := syscall.Stat(path, &st); err != nil {
return "", fmt.Errorf(
@@ -49,48 +124,50 @@ func deviceForPath(path string) (string, error) {
)
}
// Extract major and minor device numbers.
major := (st.Dev >> 8) & 0xff
minor := st.Dev & 0xff
// Linux packs dev_t as 12 bits of major and 20 of minor, split
// across the word. Masking the low byte of each — which is what
// this used to do — is right only for the first 256 of either.
major := unixMajor(uint64(st.Dev))
minor := unixMinor(uint64(st.Dev))
// Scan /sys/block/ for a matching device.
entries, err := os.ReadDir("/sys/block")
link := filepath.Join(
"/sys/dev/block",
strconv.FormatUint(major, 10)+":"+
strconv.FormatUint(minor, 10),
)
target, err := filepath.EvalSymlinks(link)
if err != nil {
return "", fmt.Errorf(
"could not read /sys/block: %w", err,
"%w: %s (%w)", errNoBlockDevice, link, err,
)
}
majorStr := strconv.FormatUint(major, 10)
devStr := majorStr + ":" +
strconv.FormatUint(minor, 10)
// A partition's directory sits inside its disk's, and only the
// disk carries `queue`. Climb at most one level: sysfs nests a
// partition exactly one deep under its disk.
name := filepath.Base(target)
for _, entry := range entries {
devFile := filepath.Join(
"/sys/block", entry.Name(), "dev",
)
data, err := os.ReadFile(devFile)
if err != nil {
continue
}
content := strings.TrimSpace(string(data))
if content == devStr {
return entry.Name(), nil
}
// The filesystem might be on a partition (e.g. sda1)
// whose parent block device is sda. Check if the
// major number matches.
parts := strings.SplitN(content, ":", 2)
if len(parts) == 2 && parts[0] == majorStr {
return entry.Name(), nil
}
if _, err := os.Stat(filepath.Join(target, "queue")); err != nil {
name = filepath.Base(filepath.Dir(target))
}
return "", fmt.Errorf(
"%w for %s", errNoBlockDevice, devStr,
)
if name == "" || name == "." || name == string(filepath.Separator) {
return "", fmt.Errorf(
"%w for %d:%d", errNoBlockDevice, major, minor,
)
}
return name, nil
}
// unixMajor and unixMinor decode a Linux dev_t. Spelled out rather
// than taken from golang.org/x/sys/unix so this file stays readable
// beside the encoding it is undoing.
func unixMajor(dev uint64) uint64 {
return (dev>>8)&0xfff | (dev >> 32 & ^uint64(0xfff))
}
func unixMinor(dev uint64) uint64 {
return dev&0xff | (dev >> 12 & ^uint64(0xff))
}
+25
View File
@@ -2,9 +2,34 @@
package system
// DiskProfile is what the scanner needs to know about the device a
// library sits on. See the Linux implementation for what each field
// means; off Linux nothing fills them, because neither macOS nor
// Windows publishes an equivalent of sysfs's `rotational` and
// `queue_depth` without going through platform APIs this package
// deliberately does not link.
type DiskProfile struct {
Device string
Rotational bool
QueueDepth int
}
// Queues reports whether the drive can reorder outstanding commands.
// Always true here: an unknown depth is the permissive answer, and
// assuming otherwise would halve every scan on every Mac.
func (p DiskProfile) Queues() bool {
return p.QueueDepth != 1
}
// IsRotationalDisk reports whether the block device backing the
// given path is a rotational (spinning) disk. On non-Linux
// platforms this always returns false (assumes SSD).
func IsRotationalDisk(_ string) bool {
return false
}
// ProfileForPath describes the device backing a filesystem path. Off
// Linux that is the zero profile, which reads as "an SSD that queues".
func ProfileForPath(_ string) DiskProfile {
return DiskProfile{}
}
+56
View File
@@ -0,0 +1,56 @@
// Package tagtotals derives the totals a tag's "5/12" form declares.
//
// It exists because the two writers that know a release's full
// tracklist -- the autotag apply pass and the download importer --
// must not import each other or the tag writer, and because getting
// the denominator wrong is invisible: a total that is too large marks
// a complete album incomplete forever, and nothing fails.
package tagtotals
// Position is one track's place in a release. A zero Disc means the
// release did not say, which is disc 1.
type Position struct {
Disc int
Track int
}
// For returns the totals to write on a file sitting on disc `disc`:
// how many tracks that disc has, and how many discs the release has.
//
// The track total is **per disc** and not the release's track count,
// because that is what the tag form means and what
// GetAlbumCompleteness sums -- summing a release total once per disc
// would multiply a two-disc album's expectation by two.
//
// Tracks are counted by distinct position rather than by row: a
// tracklist that lists a position twice is a defect in the source, and
// counting it twice would put an album permanently out of reach of its
// own total.
func For(all []Position, disc int) (tracks, discs int) {
disc = normaliseDisc(disc)
seenTracks := make(map[int]struct{}, len(all))
seenDiscs := make(map[int]struct{}, 1)
for _, p := range all {
d := normaliseDisc(p.Disc)
seenDiscs[d] = struct{}{}
if d != disc || p.Track <= 0 {
continue
}
seenTracks[p.Track] = struct{}{}
}
return len(seenTracks), len(seenDiscs)
}
// normaliseDisc treats an undeclared disc as disc 1.
func normaliseDisc(d int) int {
if d <= 0 {
return 1
}
return d
}
+92
View File
@@ -0,0 +1,92 @@
package tagtotals_test
import (
"testing"
"yellowjacket/backend/tagtotals"
)
func TestFor(t *testing.T) {
t.Parallel()
singleDisc := []tagtotals.Position{
{Disc: 0, Track: 1}, {Disc: 0, Track: 2}, {Disc: 0, Track: 3},
}
twoDiscs := []tagtotals.Position{
{Disc: 1, Track: 1},
{Disc: 1, Track: 2},
{Disc: 2, Track: 1},
{Disc: 2, Track: 2},
{Disc: 2, Track: 3},
}
tests := []struct {
name string
all []tagtotals.Position
disc int
wantTracks int
wantDiscs int
}{
{
name: "a single-disc release totals its own tracks",
all: singleDisc, disc: 0, wantTracks: 3, wantDiscs: 1,
},
{
// An undeclared disc is disc 1, on both sides of the
// question -- a file tagged "disc 1" and a tracklist that
// declares no disc describe the same disc.
name: "an undeclared disc is disc 1",
all: singleDisc, disc: 1, wantTracks: 3, wantDiscs: 1,
},
{
// The whole point: 5 here would be the release's track
// count, which summed once per disc claims a ten-track
// expectation for a five-track album.
name: "a multi-disc release totals the file's own disc",
all: twoDiscs, disc: 2, wantTracks: 3, wantDiscs: 2,
},
{
name: "the other disc gets its own total",
all: twoDiscs, disc: 1, wantTracks: 2, wantDiscs: 2,
},
{
// A disc the tracklist does not mention cannot be totalled,
// and 0 is how the caller is told to write nothing.
name: "a disc with no tracks totals nothing",
all: twoDiscs, disc: 3, wantTracks: 0, wantDiscs: 2,
},
{
name: "an empty tracklist totals nothing",
all: nil, disc: 1, wantTracks: 0, wantDiscs: 0,
},
{
// A source that lists a position twice would otherwise put
// the album permanently one track short of its own total.
name: "a repeated position counts once",
all: []tagtotals.Position{
{Disc: 1, Track: 1}, {Disc: 1, Track: 1}, {Disc: 1, Track: 2},
},
disc: 1, wantTracks: 2, wantDiscs: 1,
},
{
name: "a track with no position is not counted",
all: []tagtotals.Position{
{Disc: 1, Track: 0}, {Disc: 1, Track: 1},
},
disc: 1, wantTracks: 1, wantDiscs: 1,
},
}
for _, tc := range tests {
t.Run(tc.name, func(t *testing.T) {
t.Parallel()
tracks, discs := tagtotals.For(tc.all, tc.disc)
if tracks != tc.wantTracks || discs != tc.wantDiscs {
t.Errorf("For(%v, %d) = (%d, %d), want (%d, %d)",
tc.all, tc.disc, tracks, discs, tc.wantTracks, tc.wantDiscs)
}
})
}
}
+10 -1
View File
@@ -183,6 +183,15 @@ func syncDatabase(
discNum = toNullInt64(v)
}
// The completeness evidence. Without this the row keeps whatever
// the last scan read while the file on disk now declares a total,
// so the album stays "unknown" until a full rescan -- which is the
// state the report describes.
totalTracks := old.TotalTracks
if v, ok := asInt(params.changes[FieldTotalTracks]); ok {
totalTracks = toNullInt64(v)
}
composer := old.Composer
if v, ok := params.changes[FieldComposer].(string); ok {
composer = v
@@ -207,7 +216,7 @@ func syncDatabase(
AlbumID: albumID,
TrackNumber: trackNum,
DiscNumber: discNum,
TotalTracks: old.TotalTracks,
TotalTracks: totalTracks,
Year: year,
Composer: composer,
Comment: old.Comment,
+5
View File
@@ -101,6 +101,11 @@ func applyFlacTextChanges(cmt *flacvorbis.MetaDataBlockVorbisComment, changes Ta
{FieldYear, flacvorbis.FIELD_DATE, true},
{FieldTrackNumber, flacvorbis.FIELD_TRACKNUMBER, true},
{FieldDiscNumber, "DISCNUMBER", true},
// TRACKTOTAL/DISCTOTAL and no other spelling: dhowden/tag's
// Vorbis reader looks at exactly these two keys, so TOTALTRACKS
// or a "1/12" inside TRACKNUMBER reads back as no total at all.
{FieldTotalTracks, "TRACKTOTAL", true},
{FieldTotalDiscs, "DISCTOTAL", true},
{FieldComposer, "COMPOSER", false},
}
+63 -11
View File
@@ -6,6 +6,7 @@ import (
"log/slog"
"os"
"strconv"
"strings"
id3v2 "github.com/bogem/id3v2/v2"
@@ -66,17 +67,10 @@ func applyTextChanges(tag *id3v2.Tag, changes TagChanges) {
tag.SetYear(strconv.Itoa(v))
}
if v, ok := asInt(changes[FieldTrackNumber]); ok {
trckID := tag.CommonID("Track number/Position in set")
tag.DeleteFrames(trckID)
tag.AddTextFrame(trckID, id3v2.EncodingUTF8, strconv.Itoa(v))
}
if v, ok := asInt(changes[FieldDiscNumber]); ok {
tposID := tag.CommonID("Part of a set")
tag.DeleteFrames(tposID)
tag.AddTextFrame(tposID, id3v2.EncodingUTF8, strconv.Itoa(v))
}
applyPositionFrame(tag, "Track number/Position in set", changes,
FieldTrackNumber, FieldTotalTracks)
applyPositionFrame(tag, "Part of a set", changes,
FieldDiscNumber, FieldTotalDiscs)
if v, ok := changes[FieldComposer].(string); ok {
tag.DeleteFrames("TCOM")
@@ -90,6 +84,64 @@ func applyTextChanges(tag *id3v2.Tag, changes TagChanges) {
}
}
// applyPositionFrame writes an ID3v2 position frame (TRCK or TPOS) in
// the "n/N" form the readers parse.
//
// The number and the total are separate diff entries and either may be
// absent, so the frame's *existing* value is the base: writing a total
// alone must not discard the number that is already there, and writing
// a number alone must not discard a total the file already declared.
// A total with no number at all is not written, since "/12" says
// nothing a reader can use.
func applyPositionFrame(
tag *id3v2.Tag, description string, changes TagChanges, numKey, totalKey string,
) {
_, hasNum := changes[numKey]
_, hasTotal := changes[totalKey]
if !hasNum && !hasTotal {
return
}
frameID := tag.CommonID(description)
num, total := parseXofN(
strings.TrimRight(tag.GetTextFrame(frameID).Text, "\x00 \t\n\r"),
)
if v, ok := asInt(changes[numKey]); ok {
num = v
}
if v, ok := asInt(changes[totalKey]); ok {
total = v
}
if num <= 0 {
return
}
value := strconv.Itoa(num)
if total > 0 {
value += "/" + strconv.Itoa(total)
}
tag.DeleteFrames(frameID)
tag.AddTextFrame(frameID, id3v2.EncodingUTF8, value)
}
// parseXofN splits an ID3v2 "n/N" position value. A bare "n" yields a
// zero total, and anything unparseable yields zeros — the same reading
// dhowden/tag gives the frame.
func parseXofN(s string) (int, int) {
numText, totalText, _ := strings.Cut(s, "/")
num, _ := strconv.Atoi(strings.TrimSpace(numText))
total, _ := strconv.Atoi(strings.TrimSpace(totalText))
return num, total
}
// applyCoverArtChanges handles the FieldCoverArt entry in the diff map.
//
// - []byte with len > 0: embed the given image as front cover.
+2
View File
@@ -166,6 +166,8 @@ var oggFieldMappings = []struct { //nolint:gochecknoglobals // field mapping tab
{FieldYear, "DATE", true},
{FieldTrackNumber, "TRACKNUMBER", true},
{FieldDiscNumber, "DISCNUMBER", true},
{FieldTotalTracks, "TRACKTOTAL", true},
{FieldTotalDiscs, "DISCTOTAL", true},
{FieldComposer, "COMPOSER", false},
}
+28
View File
@@ -333,3 +333,31 @@ func TestWriteTrackTags_DBSync(t *testing.T) {
t.Error("expected FTS5 result for 'New Title'")
}
}
// The row is what the album page reads, and it is only refreshed by a
// scan. Leaving total_tracks at whatever the last scan saw means an
// album autotagged just now stays "unknown" -- a plain tick on an album
// the user holds two tracks of -- until a full rescan happens to run.
func TestWriteTrackTags_PersistsTheTotal(t *testing.T) {
db := database.NewTestDB(t)
dir := t.TempDir()
trackID := seedTestTrack(t, db, createPipelineTestMP3(t, dir))
tw := NewTagWriter(testLogger(), db, &mockPlayer{}, &mockPipelineLocker{})
if err := tw.WriteTrackTags(trackID, TagChanges{
FieldTrackNumber: 2,
FieldTotalTracks: 10,
}); err != nil {
t.Fatalf("WriteTrackTags: %v", err)
}
af, err := db.Queries.GetAudioFile(context.Background(), trackID)
if err != nil {
t.Fatalf("get audio file: %v", err)
}
if !af.TotalTracks.Valid || af.TotalTracks.Int64 != 10 {
t.Errorf("total_tracks: got %v, want 10", af.TotalTracks)
}
}
+9
View File
@@ -26,6 +26,15 @@ const (
FieldDiscNumber = "disc_number"
FieldComposer = "composer"
FieldCoverArt = "cover_art" // []byte for set, nil for clear
// FieldTotalTracks is how many tracks are on *this file's disc*, not
// in the whole release. That is what the "5/12" form declares and
// what GetAlbumCompleteness sums per disc; a release total written
// here would multiply the expectation by the number of discs.
FieldTotalTracks = "total_tracks"
// FieldTotalDiscs is how many discs the release has.
FieldTotalDiscs = "total_discs"
)
// AudioFormat represents a supported audio file format.
+199
View File
@@ -0,0 +1,199 @@
package tagwriter
import (
"path/filepath"
"testing"
"yellowjacket/backend/metadata"
)
// The totals are the evidence GetAlbumCompleteness reads, and every way
// of getting them wrong is silent: a tag written under a name the
// reader does not look at reads back as no total at all, which is
// indistinguishable from never having written one. So these assert the
// round trip through the *reader the scan uses*, not the bytes.
//
// WAV is the exception and it is not this change's: dhowden/tag has no
// RIFF reader at all, so metadata.ExtractTags cannot see a WAV's ID3
// chunk -- which is why every other test here reads that chunk itself.
func TestWriteTotals_RoundTripsInEveryFormat(t *testing.T) {
t.Parallel()
changes := TagChanges{
FieldTitle: "Some Song",
FieldTrackNumber: 2,
FieldTotalTracks: 10,
FieldDiscNumber: 1,
FieldTotalDiscs: 2,
}
viaScanner := func(t *testing.T, path string) *metadata.TrackMetadata {
t.Helper()
meta, err := metadata.ExtractTags(path)
if err != nil {
t.Fatalf("ExtractTags: %v", err)
}
return meta
}
tests := []struct {
name string
write func(t *testing.T, dir string) string
read func(t *testing.T, path string) *metadata.TrackMetadata
}{
{
name: "mp3",
read: viaScanner,
write: func(t *testing.T, dir string) string {
t.Helper()
path := createTestMP3(t, dir, "totals.mp3", nil)
if err := writeMp3Tags(testLogger(), path, changes); err != nil {
t.Fatalf("writeMp3Tags: %v", err)
}
return path
},
},
{
name: "flac",
read: viaScanner,
write: func(t *testing.T, dir string) string {
t.Helper()
path := filepath.Join(dir, "totals.flac")
makeMinimalFLAC(t, path)
if err := writeFlacTags(testLogger(), path, changes); err != nil {
t.Fatalf("writeFlacTags: %v", err)
}
return path
},
},
{
name: "ogg",
read: viaScanner,
write: func(t *testing.T, dir string) string {
t.Helper()
path := filepath.Join(dir, "totals.ogg")
createTestOGG(t, path)
if err := writeOggTags(testLogger(), path, changes); err != nil {
t.Fatalf("writeOggTags: %v", err)
}
return path
},
},
{
name: "wav",
read: readWavID3Tags,
write: func(t *testing.T, dir string) string {
t.Helper()
path := createTestWAV(t, dir, "totals.wav", nil)
if err := writeWavTags(testLogger(), path, changes); err != nil {
t.Fatalf("writeWavTags: %v", err)
}
return path
},
},
}
for _, tc := range tests {
t.Run(tc.name, func(t *testing.T) {
t.Parallel()
meta := tc.read(t, tc.write(t, t.TempDir()))
assertIntField(t, "TrackNumber", meta.TrackNumber, 2)
assertIntField(t, "TotalTracks", meta.TotalTracks, 10)
assertIntField(t, "DiscNumber", meta.DiscNumber, 1)
assertIntField(t, "TotalDiscs", meta.TotalDiscs, 2)
})
}
}
// A number and a total are separate diff entries, so writing one must
// not discard the other. For ID3v2 they share a single "n/N" frame,
// which is the only place this can go wrong -- and it goes wrong by
// silently zeroing a total the file already declared.
func TestWriteMp3Totals_PartialUpdateKeepsTheOtherHalf(t *testing.T) {
t.Parallel()
t.Run("writing the number keeps the total", func(t *testing.T) {
t.Parallel()
dir := t.TempDir()
path := createTestMP3(t, dir, "seeded.mp3", TagChanges{
FieldTrackNumber: 2,
FieldTotalTracks: 10,
})
if err := writeMp3Tags(testLogger(), path, TagChanges{
FieldTrackNumber: 4,
}); err != nil {
t.Fatalf("writeMp3Tags: %v", err)
}
meta, err := metadata.ExtractTags(path)
if err != nil {
t.Fatalf("ExtractTags: %v", err)
}
assertIntField(t, "TrackNumber", meta.TrackNumber, 4)
assertIntField(t, "TotalTracks", meta.TotalTracks, 10)
})
t.Run("writing the total keeps the number", func(t *testing.T) {
t.Parallel()
dir := t.TempDir()
path := createTestMP3(t, dir, "seeded.mp3", TagChanges{
FieldTrackNumber: 7,
})
if err := writeMp3Tags(testLogger(), path, TagChanges{
FieldTotalTracks: 12,
}); err != nil {
t.Fatalf("writeMp3Tags: %v", err)
}
meta, err := metadata.ExtractTags(path)
if err != nil {
t.Fatalf("ExtractTags: %v", err)
}
assertIntField(t, "TrackNumber", meta.TrackNumber, 7)
assertIntField(t, "TotalTracks", meta.TotalTracks, 12)
})
// "/12" says nothing a reader can use, and dhowden/tag reads it as
// track 0 -- which the scan would store as a real track number.
t.Run("a total with no number writes nothing", func(t *testing.T) {
t.Parallel()
dir := t.TempDir()
path := createTestMP3(t, dir, "bare.mp3", nil)
if err := writeMp3Tags(testLogger(), path, TagChanges{
FieldTotalTracks: 12,
}); err != nil {
t.Fatalf("writeMp3Tags: %v", err)
}
meta, err := metadata.ExtractTags(path)
if err != nil {
t.Fatalf("ExtractTags: %v", err)
}
assertIntField(t, "TrackNumber", meta.TrackNumber, 0)
assertIntField(t, "TotalTracks", meta.TotalTracks, 0)
})
}
+5 -4
View File
@@ -522,19 +522,20 @@ func readWavID3Tags(
}
}
// Track number (TRCK).
// Track number and total (TRCK), disc number and total (TPOS).
// Both carry the "n/N" form, so they are read the way a reader
// reads them rather than with Atoi -- which sees "2/10" as 0.
trckID := parsed.CommonID("Track number/Position in set")
if frames := parsed.GetFrames(trckID); len(frames) > 0 {
if tf, ok := frames[0].(id3v2.TextFrame); ok {
meta.TrackNumber = atoiSafe(tf.Text)
meta.TrackNumber, meta.TotalTracks = parseXofN(tf.Text)
}
}
// Disc number (TPOS).
tposID := parsed.CommonID("Part of a set")
if frames := parsed.GetFrames(tposID); len(frames) > 0 {
if tf, ok := frames[0].(id3v2.TextFrame); ok {
meta.DiscNumber = atoiSafe(tf.Text)
meta.DiscNumber, meta.TotalDiscs = parseXofN(tf.Text)
}
}
+25 -55
View File
@@ -4,18 +4,28 @@ includes:
common: ../Taskfile.yml
vars:
# The *installed* package name, which every adb-driven task below uses
# to uninstall, launch and filter. It must agree with `applicationId`
# in app/build.gradle, and nothing enforces that.
# APP_ID is an *assertion*, not a setting, and it has no default.
#
# ANDROID.md says to set this in build/config.yml. That does not work
# in beta.8, checked both ways: `wails3 task` builds its var set from
# CLI KEY=VALUE arguments and the Taskfile tree only -- nothing reads
# config.yml -- and even when set it feeds only these adb commands,
# never Gradle. So the identity is declared twice, here and in
# build.gradle, and a change to one alone means the official run and
# deploy tasks address a package that is not installed.
APP_ID: '{{.APP_ID | default "app.yellowjacket"}}'
# It used to be the id every adb-driven task below uninstalled,
# launched and filtered, defaulting to "app.yellowjacket". It could
# never have been a setting: `wails3 task` builds its var set from CLI
# KEY=VALUE arguments and the Taskfile tree only -- nothing reads
# build/config.yml, contrary to ANDROID.md, checked with --dry -- and
# even when set it fed only the adb commands, never Gradle. So the
# identity was declared twice, here and as `applicationId` in
# app/build.gradle, with nothing enforcing that they agree.
#
# They did not agree. The debug buildType carries
# `applicationIdSuffix ".dev"`, so the tasks that assemble a debug APK
# addressed the *release* id -- on a device, the user's installed app
# and their library (#159).
#
# The id is now read back from the built APK by scripts/android-
# pkgid.sh, so the thing installed and the thing launched agree by
# construction. Passing APP_ID= says "this build had better declare
# that id", and the deploy refuses before touching anything if it does
# not -- which is the check that would have caught #159 statically.
APP_ID: '{{.APP_ID | default ""}}'
MIN_SDK: '21'
TARGET_SDK: '35'
# The emulator runs the host architecture; physical devices are arm64
@@ -372,9 +382,7 @@ tasks:
ARCH: '{{.ARCH | default .HOST_ARCH}}'
cmds:
- task: ensure-emulator
- '"{{.ADB}}" uninstall {{.APP_ID}} 2>/dev/null || true'
- '"{{.ADB}}" install "{{.BIN_DIR}}/{{.APP_NAME}}.apk"'
- '"{{.ADB}}" shell am start -n {{.APP_ID}}/com.wails.app.MainActivity'
- './scripts/android-deploy.sh --apk "{{.BIN_DIR}}/{{.APP_NAME}}.apk" --target emulator{{if .APP_ID}} --expect "{{.APP_ID}}"{{end}}'
run:
summary: Build, install and launch a debug build in the Android Emulator
@@ -383,9 +391,7 @@ tasks:
- task: build
cmds:
- task: assemble:apk
- '"{{.ADB}}" uninstall {{.APP_ID}} 2>/dev/null || true'
- '"{{.ADB}}" install "{{.BIN_DIR}}/{{.APP_NAME}}.apk"'
- '"{{.ADB}}" shell am start -n {{.APP_ID}}/com.wails.app.MainActivity'
- './scripts/android-deploy.sh --apk "{{.BIN_DIR}}/{{.APP_NAME}}.apk" --target emulator{{if .APP_ID}} --expect "{{.APP_ID}}"{{end}}'
device:list:
summary: Lists connected Android devices and emulators (serials)
@@ -400,25 +406,7 @@ tasks:
ARCH: arm64
cmds:
- task: assemble:apk
- |
DEVICE='{{.DEVICE_ID | default ""}}'
if [ -z "$DEVICE" ]; then
DEVICE="${DEVICE_ID:-}"
fi
if [ -z "$DEVICE" ]; then
DEVICE=$("{{.ADB}}" devices | awk 'NR > 1 && $2 == "device" && $1 !~ /^emulator-/ { print $1; exit }')
fi
if [ -z "$DEVICE" ]; then
echo "Error: no connected physical Android device found."
echo "Pass DEVICE_ID=<serial> to target a device explicitly."
echo "Find connected device serials with: {{.ADB}} devices"
exit 1
fi
echo "Deploying {{.BIN_DIR}}/{{.APP_NAME}}.apk to device $DEVICE..."
"{{.ADB}}" -s "$DEVICE" uninstall {{.APP_ID}} 2>/dev/null || true
"{{.ADB}}" -s "$DEVICE" install "{{.BIN_DIR}}/{{.APP_NAME}}.apk"
"{{.ADB}}" -s "$DEVICE" shell am start -n {{.APP_ID}}/com.wails.app.MainActivity
- './scripts/android-deploy.sh --apk "{{.BIN_DIR}}/{{.APP_NAME}}.apk" --target device{{if .DEVICE_ID}} --serial "{{.DEVICE_ID}}"{{end}}{{if .APP_ID}} --expect "{{.APP_ID}}"{{end}}'
preconditions:
- sh: '[ -x "{{.ADB}}" ] || command -v adb'
msg: "adb not found. Install the Android SDK platform-tools (or set ANDROID_HOME)"
@@ -430,25 +418,7 @@ tasks:
vars:
ARCH: arm64
cmds:
- |
DEVICE='{{.DEVICE_ID | default ""}}'
if [ -z "$DEVICE" ]; then
DEVICE="${DEVICE_ID:-}"
fi
if [ -z "$DEVICE" ]; then
DEVICE=$("{{.ADB}}" devices | awk 'NR > 1 && $2 == "device" && $1 !~ /^emulator-/ { print $1; exit }')
fi
if [ -z "$DEVICE" ]; then
echo "Error: no connected physical Android device found."
echo "Pass DEVICE_ID=<serial> to target a device explicitly."
echo "Find connected device serials with: {{.ADB}} devices"
exit 1
fi
echo "Deploying {{.BIN_DIR}}/{{.APP_NAME}}.apk to device $DEVICE..."
"{{.ADB}}" -s "$DEVICE" uninstall {{.APP_ID}} 2>/dev/null || true
"{{.ADB}}" -s "$DEVICE" install "{{.BIN_DIR}}/{{.APP_NAME}}.apk"
"{{.ADB}}" -s "$DEVICE" shell am start -n {{.APP_ID}}/com.wails.app.MainActivity
- './scripts/android-deploy.sh --apk "{{.BIN_DIR}}/{{.APP_NAME}}.apk" --target device{{if .DEVICE_ID}} --serial "{{.DEVICE_ID}}"{{end}}{{if .APP_ID}} --expect "{{.APP_ID}}"{{end}}'
preconditions:
- sh: '[ -x "{{.ADB}}" ] || command -v adb'
msg: "adb not found. Install the Android SDK platform-tools (or set ANDROID_HOME)"
@@ -891,13 +891,41 @@ public class MainActivity extends AppCompatActivity {
}
}
/**
* The activity going away is not the app shutting down.
*
* <p>The scaffold called {@code bridge.shutdown()} here, which is
* the natural reading of onDestroy and is wrong for this app twice
* over. Android destroys and recreates an activity for a
* configuration change the manifest does not declare, under memory
* pressure, and on every background if the user has "Don't keep
* activities" on -- all **without restarting the process**. And
* when the user really does leave, this app's reason for existing
* in the background is that a song is playing, which is what the
* {@code mediaPlayback} foreground service is holding the process
* alive for. Either way, tearing the Go side down here would stop
* the music.
*
* <p>It was harmless only by accident: {@code nativeShutdown} calls
* {@code App.Quit()}, whose Android {@code destroy()} is an empty
* method, and {@code Run()}'s deferred {@code shutdownServices()}
* can never fire because Android's {@code platformRun} is
* {@code select{}} and does not return. So no {@code
* ServiceShutdown} has ever run on Android, and removing this call
* changes nothing today -- it stops the day someone implements
* {@code destroy()} from silently killing playback on a rotation.
*
* <p>There is no callback for "the process is going away"; Android
* simply kills it. Durability on this platform is the persist
* writers, which submit on every mutation rather than at exit.
*
* <p>See #52, and CLAUDE.md, "An activity is a view onto the
* process".
*/
@Override
protected void onDestroy() {
super.onDestroy();
unregisterSystemEventReceivers();
if (bridge != null) {
bridge.shutdown();
}
if (webView != null) {
webView.destroy();
}
@@ -129,7 +129,24 @@ public class WailsBridge {
}
/**
* Initialize the native Go library
* Initialize the native Go library.
*
* <p><b>{@code initialized} is deliberately per-instance, and making
* it {@code static} is the trap this comment exists for.</b> A
* recreated activity builds a new bridge and calls this again, in a
* process where the native library is already loaded and Go's
* {@code main()} is already running -- so "initialise once per
* process" looks like exactly the right rule. It is not, because
* {@code nativeInit} does <i>two</i> things: it runs
* {@code go mainFunc()}, and it stores the global JNI reference to
* <i>this</i> bridge. Skip it and Go keeps executing JavaScript
* against the destroyed activity's WebView: the app opens, renders,
* and never receives another backend event.
*
* <p>So this is called every time, and the half that must not repeat
* is latched on the Go side instead, at the top of {@code main()} --
* which is also where the damage was ({@code os.Exit(1)}), and the
* only place that can see it. See #52.
*/
public void initialize() {
if (initialized) {
+16 -6
View File
@@ -7,12 +7,22 @@ which is what lets Obtainium poll a plain URL with no token. It also
attaches the same file to the Gitea release, which is what a person
looking at the release page downloads.
**Tags are not pushed by hand any more.** `.gitea/workflows/release.yml`
reads the Conventional Commits on every merge to `main`, decides the
version, and pushes the tag this workflow is keyed on — so releasing the
APK means merging a `fix:` or `feat:` commit, not running `git tag`. The
`workflow_dispatch` path below remains, for rebuilding a tag that already
exists.
**Tags are not pushed by hand any more, but releasing is a decision.**
`.gitea/workflows/release.yml` reads the Conventional Commits since the
last tag, decides the version, and pushes the tag this workflow is keyed
on — so releasing the APK means **running that workflow**, not running
`git tag`. It has no push trigger: merging a `fix:` or `feat:` used to
be enough and produced a version per merged PR (issue #115). Run it with
`dry_run` first to see what the accumulated commits would ship. The
`workflow_dispatch` path below is a different thing and remains, for
rebuilding a tag that already exists.
**A prerelease tag is skipped here**, cleanly. This workflow triggers on
`v*`, which matches `v0.4.0-beta.1`, and it is the one where that would
hurt most: the APK goes to the credential-free generic registry that
Obtainium polls, and the `versionCode` maths below splits on dots — it
would read `1` out of `0-beta` and produce a wrong number rather than a
failed build.
## The 1.x installs cannot be upgraded to 0.0.x
-194
View File
@@ -1,194 +0,0 @@
# Config Improvement Suggestions
Remaining suggestions for improving the configuration system in YellowJacket.
## 2. Thread Safety Concerns
The current `Config` struct lacks synchronization:
- `Load()` and `Save()` can race with concurrent reads
- `handleConfigUpdate()` in library mutates `l.conf.DirectoryPath` without locks
**Suggestion:** Add a `sync.RWMutex` to protect config access, especially if config is read during scans.
```go
type Config struct {
mu sync.RWMutex
ctx context.Context
logger *slog.Logger
// ...
}
func (c *Config) Load() error {
c.mu.Lock()
defer c.mu.Unlock()
// ...
}
```
## 3. Nil Safety in Validation
In `config.go`, validation only runs if `c.Library != nil`, but `handleConfigPost` dereferences `postedConfig.Library` without checking for nil:
```go
if postedConfig.Library != nil {
c.Library = postedConfig.Library
// ...
}
```
**Status:** Partially addressed in the event refactor, but consider adding explicit nil checks in `Validate()` as well.
## 4. Inconsistent Error Handling on HTTP Responses
In `httphandler.go:28-31`, `WriteHeader` is called *after* rendering the error template, which won't work as expected (headers must be set before writing body):
```go
c.formSubmitError(err.Error()).Render(r.Context(), w)
w.WriteHeader(http.StatusInternalServerError) // Too late!
```
**Fix:** Set the status code before rendering:
```go
w.WriteHeader(http.StatusInternalServerError)
c.formSubmitError(err.Error()).Render(r.Context(), w)
```
## 5. Make `scanWorkerCount` Configurable
There's a TODO at `library.go:289`:
```go
// TODO: make configurable via Config.
var scanWorkerCount = goruntime.NumCPU()
```
**Suggestion:** Add this to `library.Config`:
```go
type Config struct {
DirectoryPath Directory `form:"Directory" schema:"directory,required"`
ScanWorkers int `form:"ScanWorkers" schema:"scan_workers"`
}
```
Then in `NewLibrary()` or `Scan()`:
```go
workers := l.conf.ScanWorkers
if workers <= 0 {
workers = goruntime.NumCPU()
}
```
## 6. Consider Config Defaults
Currently if no config exists, an empty one is saved. Consider providing sensible defaults (e.g., common music directories like `~/Music`).
```go
func (c *Config) setDefaults() {
if c.Library == nil {
c.Library = &library.Config{}
}
if c.Library.DirectoryPath == "" {
// Try common music directories
home, _ := os.UserHomeDir()
musicDir := filepath.Join(home, "Music")
if info, err := os.Stat(musicDir); err == nil && info.IsDir() {
c.Library.DirectoryPath = library.Directory(musicDir)
}
}
}
```
## 7. Config Reload/Watch Capability
The config is only loaded at startup. Consider adding:
- File watcher for external config changes (using `fsnotify`)
- Explicit reload method callable from UI
```go
func (c *Config) Watch() error {
watcher, err := fsnotify.NewWatcher()
if err != nil {
return err
}
go func() {
for event := range watcher.Events {
if event.Op&fsnotify.Write == fsnotify.Write {
c.Load()
// Emit event for listeners
}
}
}()
return watcher.Add(c.filePath)
}
```
## 8. Validation Should Return Structured Errors
Currently validation returns combined errors. Consider returning a structured validation result that the UI can map to specific fields for better user feedback.
```go
type ValidationError struct {
Field string
Message string
}
type ValidationResult struct {
Valid bool
Errors []ValidationError
}
func (c *Config) ValidateStructured() ValidationResult {
var result ValidationResult
result.Valid = true
if c.Library != nil {
if err := c.Library.Validate(); err != nil {
result.Valid = false
result.Errors = append(result.Errors, ValidationError{
Field: "Library.DirectoryPath",
Message: err.Error(),
})
}
}
return result
}
```
## 9. Use Standard Library for Config Paths
The path construction in `system/userdata.go` doesn't respect `$XDG_CONFIG_HOME` on Linux or use the standard Go `os.UserConfigDir()`.
**Current implementation:**
```go
case "linux":
return fmt.Sprintf("/home/%s/%s/yellowjacket", username, unixSubdirs[dt]), nil
```
**Suggested improvement:**
```go
func GetUserConfigDirPath() (string, error) {
baseDir, err := os.UserConfigDir() // Respects XDG_CONFIG_HOME
if err != nil {
return "", fmt.Errorf("could not get user config directory: %w", err)
}
path := filepath.Join(baseDir, "yellowjacket")
if err := os.MkdirAll(path, 0o755); err != nil {
return "", fmt.Errorf("could not create config directory: %w", err)
}
return path, nil
}
```
This approach:
- Respects `$XDG_CONFIG_HOME` on Linux
- Uses proper macOS paths (`~/Library/Application Support`)
- Uses `%AppData%` on Windows
- Is more portable and follows platform conventions
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@@ -1,53 +0,0 @@
# Development Overview
YellowJacket is a moderately complex application. This document gives an overview of how development of it works.
## Logical Breakdown
YellowJacket can be thought about in a heirarchy of logical modules and components. The borders of these logical sections are mostly represented in the code and directory structure as well.
- Frontend
- UI Components (see [Lit](###lit-web-components))
- Backend
- App
- Asset Handler
- Logging
- System
- Player
- Library
- Config
- Database
- Queries (see [sqlc](###sqlc))
## Dependencies
YellowJacket uses many tools and libraries to provide its functionality.
This section lists each of these dependencies and explains how they are used.
### [Wails](https://wails.io)
Used to create desktop apps with Go and web technologies.
### [SQLite](https://github.com/mattn/go-sqlite3?tab=readme-ov-file#go-sqlite3)
Used for local database.
### [sqlc](https://sqlc.dev/)
Used to generate Go code from SQL.
### [Templ](https://templ.guide/)
Used to generate HTML templates with Go code.
### [Beep](https://github.com/gopxl/beep?tab=readme-ov-file#beep)
Used for audio playback.
### [Lit Web Components](https://lit.dev/)
Used for dynamic/reactive frontend components.
### [HTMX](https://htmx.org/)
Used for requesting HTML fragments from the backend and rendering them on the frontend.
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