mirror of
https://github.com/stablyai/orca.git
synced 2026-09-21 16:02:20 +00:00
* fix(ports): stop joining an undefined resourcesPath on a non-Electron host `resolveWorkerEntryPath` branched on `isPackaged` alone and joined `process.resourcesPath`. orcad reports `isPackaged` true — correctly, it is a production build, and ~15 consumers read it that way to gate HTTPS-only skill downloads and the real CLI name — but `process.resourcesPath` is Electron-only and `undefined` under plain Node. So the packaged branch threw `TypeError [ERR_INVALID_ARG_TYPE]: The "path" argument must be of type string` where a clean "worker unavailable" was the honest outcome. The type said `resourcesPath: string`, which is how it went unnoticed; it is now `string | undefined`, so the compiler carries the fact. A host with no Electron resources tree has no asar to look in, so it falls back to the module directory and lets the caller report a missing worker. Found by the item 1 agent while auditing the same `isPackaged` defect class in the watcher. Verified in both directions: reverting the guard reproduces the TypeError. * feat(orcad): prove node-pty loads before anything requires it Of the two ways node-pty fails, only one is catchable. A missing module throws MODULE_NOT_FOUND. A module built against the wrong libc or Node ABI is refused by the dynamic loader, and in the worst case takes the process down before any handler exists — that is #9902, which crashed the desktop app on Ubuntu 20.04 before a window appeared. There was no libc or ABI precondition anywhere in the tree. So orcad now proves the load in a CHILD process, from main.ts, before anything requires node-pty. Whatever the child does — throw, abort, die on a signal — is data rather than our own death, and the operator gets a sentence naming the host's libc, Node ABI and prebuild slot plus the command to run. Proven-unloadable exits 78 (EX_CONFIG), so a supervisor does not restart an unequippable host forever. A probe that never answered is unverifiable, not blocked: refusing to boot on an inconclusive signal would take down hosts that work. The child dlopens the file node-pty would have chosen, before requiring the package. node-pty's loader walks several directories and rethrows only the LAST error, so a refused binary reads as "Cannot find module ./prebuilds/..." — which sends the operator to install a module that is already there. It also reports through stdout: node echoes the whole -e source above a stack trace, and matching tokens against stderr made the probe's own source text answer for the verdict. Verdicts reach clients as a terminal_unavailable degradation alongside the existing browser_unavailable one, through the same cause-registry shape. degradations[].code is now an open vocabulary; clients already render only `message`. Prebuilds are compiled from PATCHED sources — the patch IS the glibc-floor fix, so an upstream tarball reproduces #9902 — into linux-{x64,arm64}-{glibc,musl} and darwin-{x64,arm64} slots. libc is in the slot name because node-pty's loader falls back to prebuilds/<platform>-<arch> and cannot tell glibc from musl. orcad installs the matching slot at boot, so a host with no compiler serves terminals. The relay's five pure toolchain-diagnosis functions moved to a transport-free module so the Node bundle can reuse them without dragging ssh2 in behind them; the relay keeps its API by re-export. macOS gets `xcode-select --install` rather than the cross-distro apt/dnf/pacman/apk menu, every line of which is wrong there. * test(orcad): pin the node-pty precondition to ground truth, not a prepared host CI's test shard runs `vitest` directly, so `ensure-native-runtime --runtime=node` never prepares node-pty for the Node ABI — `degraded` is the correct verdict there, and asserting 'ok' encoded an environment the shard does not have. Asserting whatever it returned would be vacuous, so the expectation is now derived from an independent require() of node-pty. Verified it still bites: forcing the precondition to always report 'ok' fails the suite. * feat(orcad): run the terminal daemon, and the ops contract around it orcad declared `canRecoverPersistentLocalPtys: () => false` because it did not run the terminal daemon, so every restart, update and rollback SIGKILLed every running terminal — on the host whose selling point is that work survives the client going away. That is the one property `ssh-execution-boundary.md` recommends the peer model for. Item 4 — the daemon: - Port the launch path off electron: `daemon-init.ts`, `daemon-host-relocation.ts` and `observability/logs-directory.ts` now read the `AppEnvironment` port. Relocation additionally asks whether the app root is an asar archive rather than whether the build is packaged, so a Node host answering `isPackaged() === true` no longer walks into an Electron-only NSIS-escape path (same precedent as `parcel-watcher-entry-path.ts`). - `build-orcad.mjs` emits `daemon-entry.js` beside `orcad.js`, scans the forked children's metafiles for electron/node:sqlite, and load-checks the child under plain Node. - orcad spawns and adopts the daemon; shutdown disconnects and never kills it. `canRecoverPersistentLocalPtys` now reads the live provider and is false under degraded routing, where fresh terminals would die with the process. Item 3 — the ops contract (docs/reference/orcad-operations.md): - Bind policy: `--bind`, default loopback, pinned so neither `orca serve`'s wide default nor the connected-device widen can override it, and so a paired client cannot rebind the listener from outside. - Instance lock on the data root before profile load, scoped to the runtime role so it never refuses a restart that a live daemon makes worthwhile. - Supervision: exit codes a supervisor can act on (78 = do not retry), second-signal escalation, a shutdown deadline, and crash-loop containment on daemon respawn. - Health in the readiness payload: build hash, Node ABI, and a PTY self-test that spans both processes — the daemon spawns a real PTY in its own process and the verdict crosses its socket. Both bundle load-checks now assert on exit codes: these bundles are minified onto one line, so Node's uncaught-exception report echoes every string literal in the bundle and the previous message match passed against a bundle that never loaded. * feat(orcad): deploy, activate and roll back a versioned orcad install Plan items 6 and 7 from docs/design/shipping-orcad.html. Install reuses the relay's transaction verbatim — per-version lock, staged SFTP write, .install-complete sentinel, stale-lock recovery — under a parameterized namespace, so orcad-<v>/ sits beside relay-<v>/ permanently (§06). Parameterizing GC is the trap that creates: each model now collects only its own directories, enforced twice (prefix-scoped remote listing plus a local ownership re-check), and a client picks its model from how the host is registered, never from what it finds on disk. Activation is separate from installation, because a versioned directory selects nothing. A candidate is launched, publishes orca_server_ready, and only becomes active if its cross-process health payload passes: right build hash, listening, daemon live, PTY self-test green. A rejected candidate is stopped and the incumbent restarted, so a careful deploy cannot cause the outage it was being careful about. Update and rollback are shaped by the daemon. An update restarts orcad, the daemon outlives it, and the surviving daemon was forked from the outgoing bundle — so live terminals defer the update rather than proceed, and GC pins the active version, the rollback target and the live daemon's bundle. Orca's persisted state carries no schema version, so rollback restores a pre-activation snapshot rather than trusting backward-readability; the point past which it is unsafe is the first terminal created after activation, which the snapshot cannot describe and the surviving daemon still owns. Running the generated shell for real found two bugs the text assertions missed: tar members re-quoted inside a shell variable captured nothing, and kill -0 reports a zombie as alive. * test(orcad): assert the precondition is self-consistent, not environment-shaped The real-host case cannot predict a status: CI's shard runs vitest directly, so node-pty is never built for the Node ABI and 'degraded' is correct there, while a prepared checkout gives 'ok'. The previous attempt used require('node-pty') as ground truth, which resolves the JS wrapper while the native binding loads lazily — it proved strictly less than the precondition checks, and failed CI for exactly that reason. What is invariant on a host with node-pty installed: never 'blocked', and never a degraded verdict carrying an unestablished reason. The injected-input tests keep the logic coverage. * fix(orcad): drop an eslint-disable the rule no longer needs * test(orcad): separate slot placement from the load verdict Both remaining CI failures were the same shape: tests reaching into node_modules for a pty.node that only exists after `ensure-native-runtime --runtime=node`, which CI's shard never runs because it invokes vitest directly. Slot *placement* is the logic worth checking on every host, so it now uses a synthetic payload and asserts the verdict stays honest about not loading. The three assertions that genuinely need a Node-ABI binding are gated on it existing. Verified: breaking slot installation fails both placement tests; with the real pty.node hidden the file is 17 passed / 3 skipped instead of ENOENT. * test(orcad): gate the load-dependent cases on a real load, not on the file existing CI ships a pty.node built for Electron's ABI, so existsSync was true while require still failed — the gate ran exactly the tests that host can never satisfy. It now probes the binding in a child process, so a bad one cannot take the runner down. The self-consistency assertion also allowed too little: 'blocked' is the honest verdict for a corrupt binding, alongside 'ok' on a prepared host and 'degraded' on an unprepared one. What stays invariant is that anything other than 'ok' names an established cause, so a terminal is never declined for a reason nobody worked out. Verified against all three host states: prepared (19 passed), unprepared, and a corrupt binding (17 passed / 3 skipped, no failures). * test(orcad): gate on the whole premise — binding AND spawn-helper CI has a loadable pty.node but no spawn-helper, and a slot without the helper is legitimately 'degraded'. So the previous gate let a test run whose premise ('a complete slot yields ok') that host cannot satisfy. Verified in both states: with the helper present 19 pass; with it removed the load-dependent cases skip (17 passed / 3 skipped) instead of failing. * fix(orcad): preserve degradation types after rebase
310 lines
13 KiB
JavaScript
310 lines
13 KiB
JavaScript
#!/usr/bin/env node
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/**
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* Bundle `orcad` — the Orca runtime served from plain Node, no Electron.
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*
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* Variant B (see docs/design/node-only-runtime-backend.html): the browser-pane and
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* speech clusters are excluded. That is not a size optimisation — those modules are
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* the only ones that statically import `node:sqlite`, so dropping them is what keeps
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* the host Node floor at 18 instead of 22.5+.
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*/
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import { fork, spawnSync } from 'node:child_process'
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import { build } from 'esbuild'
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import { createHash } from 'node:crypto'
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import {
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chmodSync,
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copyFileSync,
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existsSync,
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mkdirSync,
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mkdtempSync,
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readFileSync,
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rmSync,
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writeFileSync
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} from 'node:fs'
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import { arch, platform, tmpdir } from 'node:os'
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import { join } from 'node:path'
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import process from 'node:process'
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import {
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ORCAD_VERSION,
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ORCAD_VERSION_FILENAME,
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orcadArtifactFilenames
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} from '../../src/shared/orcad-artifacts.ts'
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const ROOT = join(import.meta.dirname, '..', '..')
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const OUT_DIR = join(ROOT, 'out', 'orcad')
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const ENTRY = join(ROOT, 'src/main/orcad/main.ts')
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// Why beside orcad.js: the watcher runs in a forked child so a native @parcel/watcher
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// fault crashes that child instead of the server, and `resolveWatcherProcessEntryPath`
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// looks for it in the app root. A deployment has no desktop out/main to fall back to.
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const WATCHER_ENTRY = join(ROOT, 'src/main/ipc/parcel-watcher-process-entry.ts')
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const WATCHER_OUT_FILE = join(OUT_DIR, 'parcel-watcher-process-entry.js')
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// Why beside orcad.js: orcad forks the terminal daemon so PTYs outlive the runtime process,
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// and `getDaemonEntryPath()` probes the app root for this exact filename. Without it every
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// orcad restart would SIGKILL every running terminal.
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const DAEMON_ENTRY = join(ROOT, 'src/main/daemon/daemon-entry.ts')
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const DAEMON_OUT_FILE = join(OUT_DIR, 'daemon-entry.js')
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const AGENT_BROWSER_NAME = `agent-browser-${platform()}-${arch()}${process.platform === 'win32' ? '.exe' : ''}`
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const OUT_FILE = join(OUT_DIR, 'orcad.js')
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const AGENT_BROWSER_SOURCE = join(ROOT, 'node_modules', 'agent-browser', 'bin', AGENT_BROWSER_NAME)
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const AGENT_BROWSER_OUTPUT = join(OUT_DIR, AGENT_BROWSER_NAME)
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// Native addons must exist on the host; they cannot be bundled.
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// `electron` is external so a residual import fails loudly at require() time rather
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// than silently bundling the npm package's installer shim, which is what happened the
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// first time and made the bundle look clean while it was not.
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// Why only these: measured, not guessed. `node-pty` is a hard `require.resolve` — orcad
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// exits at startup without it. `@parcel/watcher` is a guarded dynamic import, so the
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// server boots without it but every watch install fails. `fsevents` is macOS-only and
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// optional upstream. better-sqlite3 / keytar / cpu-features were externalized here
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// defensively and appear nowhere in the graph; listing them implied a shipping burden
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// that does not exist.
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const EXTERNAL = ['electron', 'node-pty', '@parcel/watcher', 'fsevents']
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/** Why: the UMD build's relative dynamic requires do not bundle. Same fix build-relay.mjs uses. */
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const jsoncParserEsm = {
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name: 'jsonc-parser-esm',
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setup(pluginBuild) {
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pluginBuild.onResolve({ filter: /^jsonc-parser$/ }, () => ({
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path: join(ROOT, 'node_modules', 'jsonc-parser', 'lib', 'esm', 'main.js')
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}))
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}
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}
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/** Why: optional native deps reference prebuilt .node files that may not exist here. */
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const externalNativeAddons = {
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name: 'external-native-addons',
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setup(pluginBuild) {
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pluginBuild.onResolve({ filter: /\.node$/ }, (args) => ({ path: args.path, external: true }))
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}
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}
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rmSync(OUT_DIR, { recursive: true, force: true })
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mkdirSync(OUT_DIR, { recursive: true })
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copyFileSync(AGENT_BROWSER_SOURCE, AGENT_BROWSER_OUTPUT)
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if (process.platform !== 'win32') {
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chmodSync(AGENT_BROWSER_OUTPUT, 0o755)
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}
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/** Why one call per child and not one `outdir` build: esbuild mirrors each entry's source
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* directory under `outdir`, and both children must land flat beside orcad.js — that is where
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* their runtime resolvers look for them. */
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function buildForkedChild(entryPoint, outfile) {
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return build({
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entryPoints: [entryPoint],
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bundle: true,
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platform: 'node',
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target: 'node18',
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format: 'cjs',
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outfile,
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external: EXTERNAL,
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plugins: [externalNativeAddons],
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metafile: true,
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minify: true,
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sourcemap: false,
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define: { 'process.env.NODE_ENV': '"production"' },
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logLevel: 'error'
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})
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}
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const childResults = await Promise.all([
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buildForkedChild(WATCHER_ENTRY, WATCHER_OUT_FILE),
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buildForkedChild(DAEMON_ENTRY, DAEMON_OUT_FILE)
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])
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const result = await build({
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entryPoints: [ENTRY],
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bundle: true,
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platform: 'node',
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target: 'node18',
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format: 'cjs',
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outfile: OUT_FILE,
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external: EXTERNAL,
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plugins: [jsoncParserEsm, externalNativeAddons],
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metafile: true,
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minify: true,
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sourcemap: false,
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define: { 'process.env.NODE_ENV': '"production"' },
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logLevel: 'error'
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})
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const output = Object.values(result.metafile.outputs).find(
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(o) => o.entryPoint === 'src/main/orcad/main.ts'
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)
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// Why check `original` and not just `path`: when electron is bundleable, esbuild
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// rewrites `path` to the resolved file under node_modules and the naive check passes
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// while the package is very much in the bundle.
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// Why both metafiles: the forked children ship in the same deployment and run under the
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// same plain Node. A daemon-entry that reached electron would fail at fork time, on the
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// path whose whole point is that terminals survive.
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function collectImporters(metafiles, matches) {
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const importers = new Set()
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for (const metafile of metafiles) {
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for (const [file, info] of Object.entries(metafile.inputs)) {
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for (const imported of info.imports ?? []) {
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if (matches(imported.original ?? imported.path)) {
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importers.add(file)
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}
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}
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}
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}
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return importers
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}
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const metafiles = [result.metafile, ...childResults.map((child) => child.metafile)]
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const electronImporters = collectImporters(
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metafiles,
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(specifier) => specifier === 'electron' || specifier.startsWith('electron/')
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)
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const sqliteImporters = collectImporters(metafiles, (specifier) => specifier === 'node:sqlite')
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const graphErrors = []
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if (electronImporters.size > 0) {
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graphErrors.push(
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`${electronImporters.size} module(s) in the bundle import electron:\n${[...electronImporters]
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.map((file) => ` - ${file}`)
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.join('\n')}`
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)
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}
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if (sqliteImporters.size > 0) {
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graphErrors.push(
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`${sqliteImporters.size} module(s) in the bundle import node:sqlite:\n${[...sqliteImporters]
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.map((file) => ` - ${file}`)
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.join('\n')}`
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)
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}
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if (graphErrors.length > 0) {
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console.error(`[build-orcad] ${graphErrors.join('\n')}`)
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// Why this can exceed the ratchet baseline: the ratchet measures the graph reachable
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// from orca-runtime + runtime-rpc, but this entry also imports ipc/pty directly to
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// install the PTY controller. Once orcad ships, it should become a ratchet entry
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// point so the two numbers cannot drift.
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process.exitCode = 1
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} else {
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// Why smoke-load and not just read the metafile: the import scan proves no module
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// *names* electron, but a graph can still fail to resolve under plain Node — a
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// dynamic require, a missing native, a top-level throw. The plain-node-entry-guard
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// smoke-loads its entries for exactly this reason, and orcad cannot join that guard
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// because it is an esbuild artifact rather than a rollup input.
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// Why an exit code and not a message match: these bundles are minified onto one line, so
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// Node's uncaught-exception report echoes that whole line — which contains every string
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// literal in the bundle. A crash therefore "matches" any expected message, and a textual
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// assertion passes against a bundle that never loaded.
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const smoke = spawnSync(process.execPath, [OUT_FILE, '--orcad-smoke-load-check'], {
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encoding: 'utf8',
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timeout: 60_000
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})
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const smokeOutput = `${smoke.stdout ?? ''}${smoke.stderr ?? ''}`
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if (smoke.error || smoke.signal || smoke.status !== 0) {
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console.error(
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`[build-orcad] the bundle did not load under plain Node.\n` +
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`Expected a clean load-check exit, got status=${smoke.status ?? 'none'} ` +
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`signal=${smoke.signal ?? 'none'} ` +
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`error=${smoke.error?.message ?? 'none'}\n${smokeOutput.slice(0, 2000)}`
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)
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process.exitCode = 1
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}
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// Why require + parseArgs and not a real daemon: requiring the bundle evaluates every
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// top-level import, and calling its exported argv parser proves the entry's own code is
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// there rather than a graph that merely resolved. Booting one would need a socket, a
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// token and a PTY — `smoke:orcad-terminal` does that end to end, through orcad.
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// The verdict is carried by the exit code for the same minification reason as above.
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const daemonSmoke = spawnSync(
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process.execPath,
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[
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'-e',
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`const mod = require(${JSON.stringify(DAEMON_OUT_FILE)})\n` +
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`if (typeof mod.parseArgs !== 'function') { process.exit(3) }\n` +
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`try { mod.parseArgs([]); process.exit(4) } catch { process.exit(0) }`
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],
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{
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encoding: 'utf8',
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timeout: 60_000,
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env: { ...process.env, ORCA_DAEMON_ENTRY_LOAD_CHECK: '1' }
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}
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)
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const daemonSmokeOutput = `${daemonSmoke.stdout ?? ''}${daemonSmoke.stderr ?? ''}`
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if (daemonSmoke.error || daemonSmoke.signal || daemonSmoke.status !== 0) {
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console.error(
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`[build-orcad] the daemon child did not load under plain Node.\n` +
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`Expected a clean load check, got status=${daemonSmoke.status ?? 'none'} ` +
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`signal=${daemonSmoke.signal ?? 'none'} ` +
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`error=${daemonSmoke.error?.message ?? 'none'}\n${daemonSmokeOutput.slice(0, 2000)}`
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)
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process.exitCode = 1
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}
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const watcherFailure = await smokeLoadWatcherChild()
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if (watcherFailure) {
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console.error(
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`[build-orcad] the watcher child did not run under plain Node.\n${watcherFailure}`
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)
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process.exitCode = 1
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}
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}
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// Why a content hash and not ORCAD_VERSION alone: the remote install directory is keyed on
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// this string, so two different builds carrying one version would share a directory — and an
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// already-`.install-complete` dir is never re-uploaded. The deploy would silently run stale
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// bytes while reporting the new version.
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if (process.exitCode !== 1) {
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const hash = createHash('sha256')
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for (const filename of orcadArtifactFilenames()) {
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const artifactPath = join(OUT_DIR, filename)
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if (!existsSync(artifactPath)) {
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throw new Error(
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`orcad declares ${filename} in ORCAD_ARTIFACTS but never emitted it. Add the build ` +
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'step, or drop it from src/shared/orcad-artifacts.ts.'
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)
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}
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hash.update(readFileSync(artifactPath))
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}
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const fullVersion = `${ORCAD_VERSION}+${hash.digest('hex').slice(0, 12)}`
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writeFileSync(join(OUT_DIR, ORCAD_VERSION_FILENAME), fullVersion)
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console.log(
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`[build-orcad] ok — ${fullVersion}, ${(output.bytes / 1024 / 1024).toFixed(2)} MB, ${Object.keys(output.inputs).length} modules, zero electron and node:sqlite imports.`
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)
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}
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/**
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* Fork the shipped watcher child and drive one message through it.
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*
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* Why a real fork and not existsSync: the file being present says nothing about whether
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* its graph resolves under plain Node, and this child is only ever reached through
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* `fork()` at runtime — a broken one degrades silently to in-process watching.
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* `subscribe-started` is acked before the native module is touched, so this passes on a
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* build machine with no compiled @parcel/watcher.
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*/
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async function smokeLoadWatcherChild() {
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const probeDir = mkdtempSync(join(tmpdir(), 'orcad-watcher-smoke-'))
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const child = fork(WATCHER_OUT_FILE, [], { stdio: ['ignore', 'ignore', 'pipe', 'ipc'] })
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let stderr = ''
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child.stderr?.on('data', (chunk) => {
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stderr += String(chunk)
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})
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try {
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return await new Promise((resolve) => {
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const timer = setTimeout(() => {
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child.kill('SIGKILL')
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resolve(`No 'subscribe-started' ack within 30s.\n${stderr.slice(0, 2000)}`)
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}, 30_000)
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const settle = (failure) => {
|
|
clearTimeout(timer)
|
|
resolve(failure)
|
|
}
|
|
child.on('message', (message) => {
|
|
if (message?.op === 'subscribe-started') {
|
|
child.disconnect()
|
|
}
|
|
})
|
|
child.on('error', (error) => settle(`fork failed: ${error.message}`))
|
|
// Why exit and not disconnect: the child exits 0 on disconnect, so a non-zero code
|
|
// or a signal here is a load failure rather than a clean teardown.
|
|
child.on('exit', (code, signal) =>
|
|
settle(code === 0 ? null : `exit code=${code} signal=${signal}\n${stderr.slice(0, 2000)}`)
|
|
)
|
|
child.send({ op: 'subscribe', id: 1, dir: probeDir, opts: {} })
|
|
})
|
|
} finally {
|
|
rmSync(probeDir, { recursive: true, force: true })
|
|
}
|
|
}
|