A coding agent could develop this repo's Go packages and could not develop the application: every path to running YellowJacket ended in a blocking GTK window, so 265 bound methods, 46 events, 33 component directories and 13 stores had exactly one form of verification available — `tsc --noEmit`. The unlock is that `wails dev`'s dev server on :34115 serves the real frontend with the real generated bindings against the same Go backend a desktop window attaches to, so a plain Chromium under Xvfb gets a fully functional app. Four test tiers now exist, cheapest first: - `make ui-test` — 313 Vitest tests in a real browser in ~2 s, no app, no backend, no display. Works because `frontend/wailsjs/` is a pure passthrough to `window.go`/`window.runtime`, so faking just those two globals runs the real bindings and the real store code. - `make test` — services in-process, asserting on the payload the frontend would receive, via a new `events.Emit` wrapper. - `make dev-headless` + `playwright-cli` — the real app, driven interactively, with an event bridge on `window.__yjEvents` and a dev-only control surface at `/__test/`. - `make e2e` — 19 of those flows frozen as Playwright specs. `events.Emit(ctx, …)` replaces all 35 direct `runtime.EventsEmit` call sites: wails' `getEvents` `log.Fatalf`s on any context without its runtime, so those paths could not run under test and a background worker could take the app down. Four packages had each hand-rolled the same guard; nine more guarded on `ctx != nil`, which does not help. `TestNoDirectRuntimeEmits` fails the build on a new one. Fixtures are generated, not committed (`make testdata`), and seeds are built by *running the app* — never by hand-writing config and DB rows, which would be a second description of a valid YJ_HOME. `.gitea/workflows/ci.yml` is the first workflow here that tests anything; the other three only package, so `gitea_ci` reported only packaging jobs and misled anyone asking whether a push was healthy. Both jobs were prototyped to green in a bare ubuntu:24.04 container before the YAML was written, which immediately caught `make lint` linting three configurations that nothing builds: all three passes omitted `webkit2_41`, so wails resolved webkit2gtk-4.0 — which Arch still ships and Ubuntu 24.04 dropped. Operational instructions live in `.pi/skills/yellowjacket-dev/`, measured discoveries in `.planning/NOTES.md`, and architecture in `CLAUDE.md` — split by tense, not by topic, because a topical split gives every new fact two plausible homes. `make skill-check` fails a commit if the skill cites a make target that does not exist.
200 lines
4.9 KiB
Go
200 lines
4.9 KiB
Go
//go:build dev
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package testctl
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import (
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"fmt"
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"net/http"
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"os"
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"path/filepath"
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"strings"
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"yellowjacket/backend/events"
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"yellowjacket/backend/system"
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)
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// handleHealth answers the one question every spec starts with: is the
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// backend up, and is it looking at the library it should be?
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//
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// The frontend can answer parts of this, but only after it has rendered
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// — which is exactly the thing under test. This answers before a
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// single component has mounted, so it is usable as a gate.
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func handleHealth(d Deps, _ *http.Request) (any, error) {
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out := map[string]any{
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"ok": true,
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"home": os.Getenv("YJ_HOME"),
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"dbPath": dbPath(),
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"pid": os.Getpid(),
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"context": d.Context() != nil,
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}
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counts := map[string]int64{}
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for table, query := range map[string]string{
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"tracks": "SELECT COUNT(*) FROM audio_files",
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"libraries": "SELECT COUNT(*) FROM libraries",
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"playlists": "SELECT COUNT(*) FROM playlists",
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"queueTracks": "SELECT COUNT(*) FROM queue_tracks",
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"exploreIndex": "SELECT COUNT(*) FROM explore_index",
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} {
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var n int64
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if err := d.DB.QueryRowWriter(query).Scan(&n); err != nil {
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counts[table] = -1
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continue
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}
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counts[table] = n
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}
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out["counts"] = counts
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libs, err := libraryRows(d)
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if err != nil {
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return nil, err
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}
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out["libraries"] = libs
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return out, nil
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}
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// libraryRows lists the configured libraries by name and path, so a
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// spec can assert it is driving the fixture library and not somebody's
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// real music collection.
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func libraryRows(d Deps) ([]map[string]any, error) {
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rows, err := d.DB.QueryContext(
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"SELECT id, name, path FROM libraries ORDER BY id",
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)
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if err != nil {
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return nil, err
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}
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defer func() { _ = rows.Close() }()
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out := []map[string]any{}
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for rows.Next() {
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var (
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id int64
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name, path string
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)
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if err := rows.Scan(&id, &name, &path); err != nil {
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return nil, err
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}
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out = append(out, map[string]any{
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"id": id, "name": name, "path": path,
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})
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}
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return out, rows.Err()
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}
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// handleEmit pushes a backend event into every connected frontend.
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//
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// This is the biggest lever the surface has. Half this app is
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// push-driven, and several of those events are only produced by work
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// that takes minutes to hours (a full scan, a download, an artifact
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// import). Emitting one directly renders the view that consumes it
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// without staging the work that would normally produce it.
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//
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// POST /__test/emit {"name":"LibraryScanProgress","data":[{"...":1}]}
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func handleEmit(d Deps, r *http.Request) (any, error) {
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var body struct {
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Name string `json:"name"`
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Data []any `json:"data"`
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}
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if err := decode(r, &body); err != nil {
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return nil, err
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}
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if body.Name == "" {
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return nil, errNoEventName
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}
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// events.Deliver rather than events.Emit: an ordinary emitter wants
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// an event with nowhere to go dropped, but this endpoint exists to
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// impersonate one, and reporting a 200 for an event that never
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// reached a frontend would send a caller debugging the wrong half of
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// the app.
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if err := events.Deliver(d.Context(), body.Name, body.Data...); err != nil {
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return nil, fmt.Errorf("emit %s: %w", body.Name, err)
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}
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return map[string]any{"emitted": body.Name, "args": len(body.Data)}, nil
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}
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// handleSQL runs a statement against the writer connection.
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//
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// One general escape hatch rather than a bespoke endpoint per piece of
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// forced state — "mark this track played", "insert a wanted-list row",
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// "age this cache entry" — each of which would otherwise arrive one at
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// a time and never be removed.
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//
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// POST /__test/sql {"sql":"UPDATE ...","args":[1,"x"]}
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func handleSQL(d Deps, r *http.Request) (any, error) {
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var body struct {
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SQL string `json:"sql"`
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Args []any `json:"args"`
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}
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if err := decode(r, &body); err != nil {
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return nil, err
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}
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if body.SQL == "" {
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return nil, errNoSQL
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}
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// Route by statement kind rather than by trying one and falling
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// back: the read pool is opened query_only, so sending a write
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// there fails in a way that looks like a bug in the caller's SQL.
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if isQuery(body.SQL) {
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rows, err := d.DB.QueryContextWith(r.Context(), body.SQL, body.Args...)
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if err != nil {
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return nil, err
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}
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defer func() { _ = rows.Close() }()
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return scanAll(rows)
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}
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res, err := d.DB.ExecContext(body.SQL, body.Args...)
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if err != nil {
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return nil, err
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}
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affected, err := res.RowsAffected()
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if err != nil {
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return nil, err
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}
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return map[string]any{"rowsAffected": affected}, nil
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}
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// isQuery reports whether a statement returns rows.
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func isQuery(sql string) bool {
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first, _, _ := strings.Cut(strings.TrimSpace(sql), " ")
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switch strings.ToUpper(first) {
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case "SELECT", "WITH", "PRAGMA", "EXPLAIN":
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return true
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default:
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return false
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}
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}
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// dbPath reports where the SQLite file lives, mirroring database.NewDB.
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func dbPath() string {
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dir, err := system.GetUserDataDirPath()
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if err != nil {
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return ""
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}
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return filepath.Join(dir, "yj.db")
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}
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