Flip `anti-slop/no-shape-in-symbol-names` from "off" to "error" and clear
every violation under src, config, tests and mobile.
What the rule bans
------------------
The case-insensitive substring "shape" in any JS/TS identifier: variables,
functions, parameters, types, type parameters, class members, private names,
object-literal keys and JSX identifiers. The one exemption is a statically
accessed member read owned by another value (`zodObject.shape` is fine), so
third-party APIs stay readable without a suppression.
"Shape" names a value's structure rather than its domain role. `UserShape`,
`validateArgShape` and `errorShape` all tell you the symbol is "an object
with some fields" -- which is already what a type says -- while saying
nothing about what the value is for or who owns it. The rule forces the
name to carry the domain instead.
Violations fixed
----------------
689 violations across 109 files at baseline (verified by re-running the
audit against the pre-change tree with the rule set to "error").
Fix pattern
-----------
Rename for the domain role, not the structure:
-type FieldShape = 'list' | 'map' | 'whole'
-const FIELD_SHAPES = { ... } satisfies Record<keyof Observation, FieldShape>
+type FieldEncoding = 'list' | 'map' | 'whole'
+const FIELD_ENCODINGS = { ... } satisfies Record<keyof Observation, FieldEncoding>
-function assertGitPushTargetShape(target: unknown): void
+function assertValidGitPushTarget(target: unknown): void
-function describeReadDirPathShape(p: string): ReadDirPathKind
+function classifyReadDirPath(p: string): ReadDirPathKind
Predicates became statements about the value (`isDeltaShapedProviderFrameKind`
-> `isDeltaProviderFrameKind`, `isDeleteShapedDiscardEntry` ->
`discardDeletesEntryFile`, `isSkillsCliAgentKeyShaped` ->
`isUsableSkillsCliAgentKey`). Type aliases dropped the suffix where the
remaining name was already unambiguous (`GhGraphqlErrorShape` ->
`GhGraphqlError`).
No wire-visible name was renamed: no IPC or RPC channel, stream opcode,
request/response param, persisted field, or i18n key. The `--shape=symlink|copy`
CLI flag read by .github/workflows/skill-update-roundtrip.yml is unchanged --
only the local variable holding it was renamed.
Exemptions
----------
They are file-scoped entries in config/oxlint-anti-slop.json, not inline
`oxlint-disable` comments. An inline directive naming an anti-slop rule reads
back as an UNUSED directive under the root lint scan, which does not load this
plugin -- the changed-code quality gate counts that warning, so the comment form
cannot be used for a rule that lives only in this config.
* src/renderer/src/components/browser-pane/annotate/**:
in the screenshot annotator a "shape" is the drawn geometry -- pen, arrow,
rect, ellipse, highlight. That is a genuine domain noun, and it pervades
every symbol in the module.
* repo-icon.tsx, repo-header-project-actions.tsx, mobile MobileRepoIcon.tsx:
lucide exports the icon component as `Shapes`. The name is theirs, and the
matching REPO_LUCIDE_ICONS key is the persisted icon name shared with the
desktop picker -- renaming it would orphan saved repo icons.
* src/shared/onboarding-state-types.ts, src/shared/constants.ts:
`shapedSidebar` is a persisted onboarding-checklist field and a telemetry
enum member; renaming it would orphan saved state.
* src/shared/rpc-contract/rpc-send-params.ts: matching zod's own literal `shape`
property is what selects the ZodObject branch of the conditional type.
No exemption was added merely to avoid a rename. Eight symbols initially
suppressed as "a cross-module refactor outside this change" were proven to have
zero non-TypeScript references repo-wide and renamed instead.
Zod's `ZodRawShape` needed no exemption at all: `Readonly<Record<string,
z.ZodType>>` is its definition, so repo-update-params.ts and
ui-update-value-tolerance-params.ts spell it out instead. Likewise
telemetry-event-classification.ts now reads `.shape` through an `in` narrowing,
which also retires two pre-existing type assertions; three more assertions the
rename had dragged onto changed lines (two `JSON.parse` sites, one node:sqlite
row read) became annotations and an explicit row mapping.
Verified
--------
* Audit reports zero violations; confirmed the rule genuinely fires by
planting a probe violation.
* node config/scripts/run-typecheck-projects-in-parallel.mjs exits 0.
* Vitest over src/shared, src/main/github/project-view, the annotate module,
the repo-icon components and the Chromium SameSite electron spec: all green.
* All 66 removed "shape" identifiers grepped repo-wide across every file type;
none survive.
* node config/scripts/generate-rpc-params-catalog.mjs --check exits 0.
* node --check on every changed .mjs; oxfmt clean on all changed files.
* `pnpm run check:code-quality:changed` reports 0 findings.
Not machine-verified: the 3 mobile/ files (its Vitest run cannot resolve
`expo/tsconfig.base.json` in this worktree), and the WSL- and Playwright-gated
specs. All are rename- or comment-only hunks, read in full.
win-crash-survival-e2e — packaged crash-survival proof harness
Windows only. Proves that a crash of Orca's main process does not orphan
open terminal PTYs — the regression behind
GitHub #7742 —
with machine-checkable assertions against an already-installed, packaged
Orca.exe.
Why this exists
On Windows, when Orca's main/renderer process crashed, open terminal PTYs were
orphaned and PowerShell hard-crashed with a 0xE9 "No process is on the other
end of the pipe" FailFast. Root cause: the terminal daemon (which hosts the
ConPTYs) died together with the main process, severing the console pipe.
The fix re-architected the daemon into a standalone daemon host relocated out of
the install dir (see
src/main/daemon/daemon-host-relocation.ts)
that is spawned detached and survives main-process death.
There is already a harness proving the daemon survives a Windows update
(tests/tools/win-update-e2e). This harness proves the
daemon survives a crash of the main process, so that guarantee can't silently
regress. It reuses win-update-e2e's shared modules (app driver, daemon
discovery, onboarding seed, PowerShell runner, platform guard, table renderer)
and adds only the crash step + its assertions.
What it does
- Launch the installed
Orca.exeunder an isolateduserDatadir (ORCA_E2E_USER_DATA_DIR), seeded with a fresh profile (onboarding dismissed plus one throwaway git repo), then open a plain terminal tab (the seeded workspace opens an agent tab, not a bare shell). - Stamp the interactive shell — typing DIRECTLY into it (not a nested
powershell), set a per-shell env sentinelORCA_CRASH_SENTINEL=<canary>and record the shell's own$PID. The command finishes fast, leaving the shell idle at a live PSReadLine prompt — the exact state that FailFasts with0xE9on a broken build. - Record the daemon PID and the real Electron main PID (resolved via
app.evaluate(() => process.pid)— the launched instance's own main, not the launcher stubapp.process()returns, and not a machine-wide scan). - Crash —
taskkill /F /PID <real-main-pid>with no/Tand no graceful close. This kills ONLY the real main of the instance this harness launched, never a scanned or image-named process, and never the process tree — a real crash does not tree-kill the detached daemon. Then prove the crash landed (poll the main PID until dead). - Assert survival: the daemon PID and the same interactive shell PID are still alive after the crash soak.
- Relaunch (same
userData, no reseed) and assert the daemon PID is unchanged (the new main adopts the surviving daemon instead of forking a new one) and that the reattached UI is bound to the same survivor shell — a bounded, readiness-aware command on the exact restored tab reads back bothORCA_CRASH_SENTINELand the shell's$PID, which a freshly re-spawned shell would not carry. - Scan the full crash-to-input window and require the Windows Application
event log to contain zero pwsh
FailFast/0xE9events (matched by crash-reporter provider+id, not fragile Message text). Scanning after the reattach keystroke catches shells that fail only on their next console read. - Teardown — close the relaunched app, then kill this run's scoped daemon
tree (re-discovered fresh via
findDaemonProcesses(userData), which the surviving shell is a descendant of) and remove the temp profile. It never kills a PID captured earlier in the run (a recycled PID could hit an innocent process), never installs/uninstalls, and never touches any other Orca on the box.
Exit code is 0 when every non-informational assertion passes, else 1 (2 for
a CLI usage error).
Usage
pnpm win-crash-survival-e2e --expect survival
# or explicitly point at an installed exe:
node tests/tools/win-crash-survival-e2e/run.mjs --expect survival --exe-path "C:\Users\<you>\AppData\Local\Programs\orca\Orca.exe"
Flags
| Flag | Meaning |
|---|---|
--expect <profile> |
Assertion profile (required): survival or orphaned (see below) |
--exe-path <path> |
Installed Orca.exe to drive (default: per-user install under %LOCALAPPDATA%\Programs\Orca) |
--soak-seconds <n> |
Post-crash observation window before relaunch (default 8) |
--keep-profile |
Skip temp-profile cleanup (debugging) |
Profiles
survival— the fixed behavior and the baseline that must keep passing: the main crash actually lands, yet the daemon + the same interactive shell PID survive, zero pwshFailFastevents fire, a relaunch adopts the same daemon PID, and the reattached UI reads back the survivor shell's env sentinel.orphaned— the directional inverse describing the old broken #7742 behavior. Daemon death is the primary signal (deterministic); pwshFailFast/0xE9is secondary — faithful only because the shell is left idle at a live PSReadLine prompt (which queries the severed console). On a fixed build this profile is expected to fail, proving the survival assertions are not vacuous. It is not exercised in CI (workflow_dispatchis unavailable on a non-default branch) and the0xE9only reproduces on a genuinely broken build.
Safety
- Never installs, updates, or uninstalls anything — it only launches an
existing exe against an isolated
userDatadir. - The crash kills only the real Electron main of the instance this harness
launched — resolved via
app.evaluate(() => process.pid)(not the launcher stubapp.process()returns) —/Fwith no/T. It nevertaskkills by image name or a scanned pid, so a developer's live Orca (a differentuserData, out of scope) is untouched. - Teardown never kills a PID captured earlier in the run (a recycled PID could
hit an innocent process): daemon cleanup re-discovers this run's daemon fresh via
a
userData-scopedfindDaemonProcesses, and the surviving shell is torn down as a descendant of that daemon tree. - Daemon discovery is scoped to this run's
userDatapath, so it never matches the many other daemons a dev box or CI runner can host. - Windows-only (
assertWin32); it no-ops with a clear error off win32.