A track credited to more than one artist has exactly one navigable artist in this app and the rest are punctuation. `primaryArtist()` string-parses the credit, strips a " feat. " clause and discards the guest; it deliberately does not split on "&", "with" or "," because those live inside real artist names. Measured on a real 26,069-file library plus an 80+80 MusicBrainz sample: 13% of recordings are multi-artist upstream, while only 0.86% of files carry any structured multi-artist tag — mp3 carries zero files with multiple MUSICBRAINZ_ARTISTID across 19,840. Of 1,286 files saying "feat.", 90% have nothing structured behind it, and a sample of 80 such files was multi-artist in MB 80 times out of 80. CLAUDE.md justified plan 013's removal of the credit tables with "3 credits of 2,823 listed more than one artist". That measured our own *writer* — cachedLinkArtist was called once per credit, so a collaboration could never have been recorded. Dropping the join table was still right on cost; the evidence for "multi-artist is rare" was not. A credit is ordered parts and the credit string is derived from them, so join phrases are assembly instructions, not disassembly ones. Nothing here reconstructs a credit by searching a name inside a credit string: the stored text may come from tags while the parts come from the catalog, and those disagree for ~1 in 3 multi-artist credits. Where it comes from, after two dead ends: the canonical dump CI already streams has no join phrases and no as-credited names, and the JSON dumps cover 153,691 recordings of ~35M with *zero* overlap against a real library. So mbdump.tar.bz2 — 7.1 GB, ~13.7 min in pure-Go bzip2, whose members are alphabetical, which is what lets one pass resolve an entity's credit without buffering 35M recordings. - artist_credit_part / artist_credit_ref, multi-artist credits only: a single-artist credit is already explore_index's own artist_name. - Column layouts verified against the real 20260815 export; ErrDumpShape makes a wrong guess a failed build, not a wrong catalog. - The pass runs on every mode, not just a build. The job picks its mode from the index's own state, and a complete import means "refresh", which never enters the importer — so credits could otherwise only arrive via a rebuild that re-downloads ~205 GB. It reports whether it populated anything, which is what flips `changed` and republishes. - The importer asks whether an artifact carries the tables, on the writer where `core` is attached, so the artifact already published still imports. Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> Claude-Session: https://claude.ai/code/session_01AfVYUVExXsx1nSWrXN8mAh
YellowJacket Frontend
This directory contains the frontend for YellowJacket.
Dependencies
There are a couple of tools that are required to build and use the frontend.
vitefor- transpiling typescript
- bundling the final "package" that is useb by the webview
- running a dev server with hot-reloading
- configured with the
vite.config.tsfile in this directory
pnpmfor managing frontend dependency packages
There are a handful of dependency packages that we use directly in the frontend.
picocssfor basic CSS while developinglitfor a simple but powerful wrapper around Web Components
Lastly, there are some dependencies that only benefit development
tsservercomes bundled with vscode and can be used as an LSP with other editors usingtypescript-language-server- Used for autocomplete, syntax highlighting, etc.
- This can be configured with the
tsconfig.jsonfile in the root of the project- NOTE: your configuration should align with the
viteconfig so you get in-editor feedback that aligns with how the build will be done.
- NOTE: your configuration should align with the
Development
Ideally, you would use the frontend in the wails app as the frontend depends on the Go bindings generated by Wails.
You can do this by running wails dev in the root of the YellowJacket repo.
If you want to run the frontend standalone, make sure the Wails go bindings have been generated with wails generate modules.
Then, you can run pnpm dev to run the vite dev server.
For more information on what commands are available, refer to package.json.
Code
Web Components
Our frontend is based off of Web Components, a standard that provides native browser encapsulation of components that can include HTML, CSS and Javascript all together.
Instead of writing these components manually in Javascript, we utilize lit as a wrapper library.
Typescript
To better integrate with our tooling and to provide a better developer experience with strong typing, we have written all functional frontend code in Typescript. Vite serves as our Typescript transpiler.
Important Files and Directories
NOTE: most of these directories have aliases defined in tsconfig.json and vite.config.ts so that we may refer to them by shorthand when importing.
index.htmlandindex.jsis the entrypoint for the frontend. The first page that loads.wailsjs/goGo code bindings generated by wails reside herewailsjs/runtimethe Wails runtime code needed to use Wails featuressrcall app code resides heresrc/assetsstatic assets like fonts, images and iconssrc/componentslit components that are used to compose the applicationsrc/pagespages that serve as other entrypoints for the application that can be navigated to