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8e63ae4ada44240e1a8bc8a9c5d009697cfbf276
1129
Commits
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8e63ae4ada | feat: preserve editable prompts through workspace creation | ||
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798cda1cd5 | Enforce requested terminal incarnation before sending input | ||
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a7d1aef437 | Merge branch 'nwparker/worktree-create-technical-v2' into nwparker/instant-retained-workspace | ||
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5e2e2e1951 | perf(git): skip malformed remote base probes | ||
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08ae314cee | merge main into worktree technical improvements | ||
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39a02f1dc9 | merge main into retained composer integration | ||
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b268adef18 | feat(runtime): prepare owner-fenced deferred terminals | ||
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af82126058 |
fix(native-chat): give the Claude exit barrier a handle on unpublished exits (#18826)
A first-hand Claude exit is not published where it is observed. `handleExit` re-enters the close ladder and persists the transcript cursor before it emits `ended`, and only that emission reaches the runtime's recovery chain. So the runtime's `waitForRecovery` — whose whole job is to drain an in-flight recovery before teardown stops children — returns immediately for an exit that is still climbing the ladder, and nothing outside the adapter can tell an observed exit from a published one. The integration test for fenced host reconciliation had no handle on that barrier, so it bounded-polled the lease for 100ms instead. Measured under 16x local concurrency, publication alone takes 77-204ms: 19/24 runs failed. Retain the ladder-then-settle tail on the exit record and expose `drainObservedExits`, fold it into `waitForRecovery`, and export the barrier so a caller that needs the settled lease can await it. Codex publishes inside its own exit callback and needs nothing. The test now awaits the barrier: 0/24 under the same load, and it fails on an idle machine without the drain. |
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265871c53d |
fix(native-chat): stop a settling handoff throwing an unhandled rejection at teardown (#18824)
* fix: stop a handoff flow from outliving the host that owns its session A structured handoff runs on the session's serialized chain and nothing in production awaited it. When the client-side deadline for the switch expired first, teardown dropped the session map out from under a live flow, and the flow's own failure notification then threw `agent_session_ownership_unknown` out of a status publish — an unhandled rejection, plus journal rows written into a directory that was already being removed. Three fixes, each with a regression test that fails without it: - The status publish is a notification, not a mutation: it now reads the fence without requiring an attached session, so an evicted or torn-down session makes it a no-op instead of a throw. - `track` used `.finally`, which forwards a rejection onto a promise nobody awaits. `drain` settles flows through `allSettled`, so the bookkeeping chain is now settle-only and cannot resurface one. - Host teardown drains in-flight handoffs before dropping the session map. `drain` existed for exactly this and was never wired up. The integration test's `vi.waitFor` is dropped rather than widened: the request enqueues the flow on the session's serialized chain before it returns, so the status read is already ordered behind it. The poll only added a wall-clock deadline that a loaded runner missed. * fix: bound the handoff drain so a wedged flow cannot hold the quit open |
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a823f97d63 | perf(worktree): skip remote probes with no possible result (#18821) | ||
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504f2a5d0a | fix(worktree): preserve background startup across runtime requests | ||
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14b360733b | fix(worktree): preserve selection during background runtime startup | ||
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cc07249e78 |
fix(agent-session): refuse a pre-commit structured create with an envelope (#18697)
* fix(agent-session): refuse a pre-commit structured create with an envelope The create route refused by throwing, which reaches a client as a generic transport error indistinguishable from a lost answer — so desktop parked the launch as visibility-unknown with no chat and no terminal. Convert the whole pre-commit span, everything before `attach`, into a refusal envelope carrying a code, and name the definitive-refusal allowlist the fallback decision needs. * fix(agent-session): gate legacy fallback on definitive refusals * fix(mobile): preserve unknown structured create outcomes --------- Co-authored-by: Merge Sim <sim@local> |
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e89deb63c9 |
Show Claude background task status in Native Chat (#18757)
* feat(native-chat): show Claude background task status * fix(native-chat): carry background task fence forward * fix(claude): bound background task stop requests * Show running Claude background task details * Harden Claude background task status updates --------- Co-authored-by: Merge Sim <sim@local> |
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6f0e63a6de |
test: combine main with worktree creation PRs 18793 and 18794
# Conflicts: # src/shared/child-process/process-tree-termination.test.ts |
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b0c67eaf88 |
feat(mobile): port the restructured native-chat turn status and live tool progress (#18761)
* feat(mobile): port the restructured native-chat turn status and live tool progress Mobile chat had a single static "Agent is working" row and no live tool activity, while the desktop restructure (#17597, #18705) replaced that with a per-turn status row and a running-tool label. This brings mobile to parity and puts the derivation in one place instead of two. Shared (new, pure, RN-safe — desktop uses them as i18n fallbacks, mobile directly, matching the native-chat-empty-state pattern): - `native-chat-turn-status.ts`: duration formatting, label selection, the turn-timing state machine, and the active/settled split. - `native-chat-tool-activity.ts`: command-tool classification, the running-tool label descriptor, and running-call selection. Desktop now consumes both; `NativeChatWorkingStatus`, `NativeChatToolRun` and `use-native-chat-turn-status` keep their existing behavior and strings. Mobile gains the "Thinking" / "Working for 12s" / "Worked for 3m 4s" row with a caret that discloses the turn's tool activity, the pulsing "Running npm test" row with terminal-vs-wrench glyphs, and desktop's rule that a completed turn's tool run hides behind the turn caret. The bridge lane is untouched and keeps its three-dot indicator. Headings, quotes, code, lists and table cells are now selectable. Files at their max-lines cap were split rather than bumped: the tool-run subtree, the prompt card, the session-lane wiring, and the turn-disclosure state each move to their own module. * perf(mobile): stop the turn-status rows from re-rendering the whole transcript A streaming turn re-renders the chat list many times a second. The disclosure wiring handed every row a fresh status object and a fresh toggle closure on each of those renders, so `MobileNativeChatMessage`'s memo never held and every visible row re-rendered per tick — including settled turns that had not changed. Memoize the status selection on the timing map, and keep one stable toggle handler per turn (pruned when a turn leaves the transcript) attached only to the settled rows that can actually disclose anything. Now only the live turn's row changes identity while the agent works. * fix(mobile): keep the turn clock running when the optimistic echo is replaced An accepted send renders as `pending-N` until the transcript echo lands under its real message id. That flips the active turn key mid-turn, and the timing reducer treated the new key as a new turn — so a turn that had reached "Working for 8s" visibly restarted at "Working for 0s". The reducer now carries the start over when the previous key names a turn that has since left the transcript, which is exactly the echo-replacement case. A genuinely new turn (the previous key still in the transcript) and a turn that had already settled both keep their own clock; both are pinned by tests. Desktop does not pass the new key and is unaffected. * fix(mobile): keep the Tools toggle working on settled turns Hiding a settled turn's tool run behind the turn caret (desktop parity) also made the composer's global Tools control a no-op on every completed turn: the run it wanted to expand was not rendered at all. Let that toggle override the hiding, so it still reveals every run at once the way it did before. * fix(mobile): re-key the turn timing instead of only carrying its start The previous fix carried the start forward only while the turn was still working. When the transcript echo landed after the turn had already settled, the new key inherited nothing, the settled timing was pruned with the old key, and the turn's "Worked for N" row disappeared entirely. Move the timing onto the new key instead, which covers both orderings: an in-flight turn keeps counting from its original start (and later settles against it), and an already-settled turn keeps its duration. Both orderings are pinned. * test(mobile): pin the structured turn-status wiring at the view level Emulator QA could not reach the structured lane (mobile's Create Tab -> Codex falls back to a terminal tab when agentSession.createSupport says unsupported), so the view's own lane wiring had no coverage — the one seam between the shared turn-timing reducer and the rendered rows. Assert what the view hands each row: the live user turn gets a status object and the three-dot indicator is gone on the structured lane; the bridge lane keeps the indicator and gets no status; a finished turn settles to a numeric duration with a toggle; and an assistant row never carries a status row of its own. * fix(mobile): isolate structured chat turn state * fix(mobile): let the capability RPC actually store what a phone advertises `runtime.clientCapabilities.update` records the advertised set by assigning `authenticatedSocket.clientCapabilities`, but the socket handed to the dispatcher defined that property with a getter only. In strict mode the assignment throws `TypeError: Cannot set property clientCapabilities ... which has only a getter`, so the RPC answered `runtime_error` and the set was never stored. The consequence is not subtle: `supportsStructuredAgentSessions` requires the capability, so `projectSessionTabAgentStatus` removed every `agent-session` tab from a phone that had advertised it correctly. A paired phone saw ZERO tabs on a worktree whose only tab was a structured Codex chat — structured native chat was unreachable on mobile over this transport, not just missing its new turn UI. Give the socket a setter that writes through to the channel, which already owns the set for the connection's lifetime, so later requests on the same socket see it. Found while trying to capture emulator screenshots of the turn-status port: two full QA runs reported the new UI "missing" because the phone could only ever get a bridge/PTY tab. * fix(mobile): carry the turn key instead of caching a handler in a ref Builds on the scope-isolation fix: that kept (and extended) a ref that is written during render — once to memoize a per-turn handler, once to prune dead turns, once to reset on a scope change. React Doctor's "Ref mutated during render" is what CI's `check:react-doctor:changed` was failing on (x2), and on mobile it is a real hazard rather than a style note: react-freeze discards renders, and a discarded render would leave the cache mutated. Pass the settled turn's key down the row instead and let it call one stable handler with it. That preserves both properties the cache was bought for — per scope isolation, and identity stability so a streaming transcript does not defeat the row's memo — with no ref writes and no pruning to get wrong. The scope-keyed expanded set and the 128-turn cap are untouched; their tests move to the new contract and one now pins handler identity across a re-render. Note for future changes here: `check:code-quality:changed` does NOT cover this. CI additionally runs the standalone react-doctor CLI, which has rules the oxlint plugin config does not enable. * fix: ship native chat status translations * test(native-chat): pin the shared copy against the English catalog The shared constants are desktop's i18n fallback and mobile's actually-rendered string. If one changes without the other, desktop keeps rendering en.json while mobile renders the constant — and nothing fails, because a fallback is only used when the key is missing. That silent divergence is the exact thing the shared module exists to prevent, and it is now reachable precisely because these strings are runtime-required rather than statically extracted. Assert every key in both shared copy objects matches en.json byte for byte, plus the interpolation placeholders the catalog interpolates on. --------- Co-authored-by: Merge Sim <sim@local> |
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f8ad8fb35f |
test(worktree): cover optimized creation call signatures
Preserve explicit branch adoption, WSL callback routing and sparse cleanup expectations. |
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8c0e7eccd0 | perf(worktree): overlap preparation and prestart blank terminals | ||
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f2d3d0f620 | perf(worktree): remove redundant creation and terminal startup work | ||
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cb7f7dd11a |
fix(native-chat): tell old mobile builds why a structured chat is missing (#18756)
* fix(native-chat): tell old mobile builds why a structured chat is missing A structured native chat started on desktop was simply absent on a paired phone running any shipped App Store build. The host strips every `agent-session` tab from a client that does not advertise `agent-session.structured.v1`, and no released mobile build advertises it — so the chat had no representation at all and no way to explain itself. Keep the row and retitle it instead of deleting it. The shipped client does not filter unknown tab types and renders whatever title the host sends, so an old build now shows the chat's slot with a title naming the fix. Nothing is removed, so the tab order, groups and layout it belonged to are left intact. The prompt is keyed on the capability for that specific agent, not on the combined policy boolean: a capable phone whose desktop simply has the experiment off would otherwise be told to take an update that cannot help it. Claude rows are prompted too — mobile cannot render them yet and a later build can, so the message is true for that client as well. Restore is no longer gated on the caller's capability. It stayed gated on the host setting, which is what decides whether there is anything to reach at all, but gating on capability left an old client with nothing to project after a desktop restart: neither the chat nor the prompt. Tab titles are capped at 128px on one line in every shipped build, so the string is sized for ~15 characters rather than a sentence. Prompted rows are visible rows, so the host now permits all five session-tab mutations on them, close included. That is intended: a mobile close runs the same teardown as the desktop's own Close button. * fix(native-chat): keep fallback tabs safe and truthful --------- Co-authored-by: Merge Sim <sim@local> |
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30d7542bc5 |
fix(terminal): stop a hidden pane's unmeasured 80x24 from overwriting a live PTY's size on reattach (#18706)
* fix(terminal): stop a hidden pane's unmeasured 80x24 from overwriting a live PTY's size on reattach A pane that mounts while display:none (app relaunch or update with the floating terminal panel closed, a non-active floating tab, any background tab) cannot fit its container, so it reattaches with xterm's default 80x24. Main wrote those placeholder dims into `ptySizes` unconditionally, both before and after the attach. A daemon attach never resizes the live session, so the real PTY stayed at its wide grid while main's hidden headless model was created (or reflowed after renderer hydration) at 80 columns. Every byte the agent emitted while hidden was parsed 80 wide; reveal restored that image into the pane: rows clamped at column 80 with CHA fill, the status bar interleaved into response text, and for alt-screen TUIs the whole screen stuck in an 80x24 corner until a real resize forced a repaint. Scrollback damage was permanent. Fix, main-side only: - Pre-attach: seed `ptySizes` only for a genuinely fresh session id, or a measured request with nothing cached. A hidden reattach writes nothing. - Commit: on reattach, record the provider's proven grid (`attachedGrid`, set only by the local provider whose attach really resizes), then the reply's `snapshotCols/Rows` (the daemon emulator's grid), then the size main already held, and only then the request. - Reflow an already-created model to that grid after the seed block, so bytes that arrived before the reply no longer leave an 80x24 model. Both the ipc and runtime spawn paths take the same authority module. Renderer and wire formats are unchanged; `PtySpawnResult` is main-internal. Reproduced deterministically: close the floating panel with Claude Code streaming at 211x57, kill only the Electron main process so the daemon survives, relaunch. Main's cache read 80x24 against an applied 211x57 and the reveal snapshot was 80 columns wide; replaying the recorded bytes through an 80-column emulator reproduced the field screenshot. Relaunch with the panel open, and a fresh spawn, keep the wide grid. * fix(terminal): commit the adopted-claim reattach grid and reject non-integer provider grids Review follow-ups. The runtime spawn path's adopted-claim branch returned before the size commit, so an adoption attaching to a live session kept whatever the caller requested; it now commits and reflows like every other reattach. The grid validator requires integers so a malformed provider grid falls through to the cached size instead of reaching xterm. * fix(terminal): reflow main's headless model onto the committed grid for every spawn, not only reattaches A hidden attach whose daemon restarted comes back as a fresh session, and the pre-attach seed is now withheld for unmeasured attaches, so a live byte that created the model at 80x24 before the reply would have kept it there forever. * refactor(terminal): let the provider's reattach flag pick the adopted-claim grid source * fix(terminal): derive the adopted-claim reattach flag once for the size commit and the reservation The SSH relay's adopted reply carries no isReattach, so the size commit would have taken the request while the reservation was told it was an attach. Normalize once so both agree. |
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746a6b4870 |
fix(orchestration): fence the dispatch CLI preamble so it stops rendering as headings (#18718)
* fix(orchestration): fence dispatch CLI preamble * fix(orchestration): keep optional preamble sections out of Markdown headings The sub-dispatch and base-drift sections end with a bare rule directly under a paragraph, which Markdown parses as a setext H2, so the Chat UI rendered the section's last sentence as a heading. The unfenced sub-dispatch commands also lost their angle-bracket placeholders to the raw-HTML pass. Fence those commands like the main CLI block and put a blank line before each closing rule. --------- Co-authored-by: Merge Sim <sim@local> |
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86cd327749 |
Answer the structured-session support probe without installing the host (#18695)
* Answer the structured-session support probe without installing the host `getStructuredAgentSessionCreateSupport` called `ensureStructuredAgentSessionHost()` before answering, so a read-only "can you create a Codex session here?" question performed the create route's lifecycle work: the first install opens the durable agent-session record store, attaches the PTY write-gate record lookup and starts the orphan-child reaper. Ask the pure predicate instead. `supportsCreate` on the installed host resolves to `adapterSupportsCreate`, which for the Codex adapter is exactly `agent === 'codex' && supportsCodexStructuredLocation(location)` — no adapter instance is needed to answer it. Nothing is lost: the create/attach route still installs via `ensureStructuredHostInstalled`, and startup restoration still installs and reconciles when a store is already persisted. * test(runtime): cover structured support probe parity --------- Co-authored-by: Merge Sim <sim@local> |
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a65332a8bd |
feat(claude): move structured native chat onto the Claude Agent SDK and enable it on macOS and Linux (#18560)
* Join structured attach teardown through journal bind * fix: restore structured chat parity * feat: add Claude structured session adapter * fix: harden Claude structured adapter * fix: close Claude adapter edge cases * fix: start Claude init deadline after launch * feat: wire Claude structured sessions * fix: harden Claude structured runtime * fix: fence Claude structured compatibility * fix: preserve Claude free-text prompt answers * fix: decode addressed Claude prompt text * feat: enable Claude structured chat on mobile * fix(mobile): keep structured chat provider-aware * fix(mobile): negotiate Claude structured tabs * fix: keep scoped RPC tests native-free * fix: secure mobile structured image delivery * fix: close structured session data-loss gaps * fix: prove real Claude structured startup * fix: consume pre-spawn proof before retry * feat(native-chat): add desktop structured sessions * fix(native-chat): satisfy structured session cleanup gates * fix(native-chat): keep structured renders pure * fix(native-chat): open composer pickers upward * fix(native-chat): use existing view for structured sessions * fix: harden structured desktop status projection * fix: close structured desktop lifecycle gaps * fix: fence structured AI Vault resumes * fix: fence structured AI Vault resumes * fix: preserve structured tabs during activation * feat: toggle structured sessions between chat and TUI * fix: harden structured session handoffs * fix: bind structured TUI before rollout proof * fix: complete structured chat round trips * fix: align structured TUI return readiness * fix(native-chat): make reverse handoff transactional * Add Claude structured TUI handoff seams * fix(native-chat): clear sticky handoff recovery * fix(native-chat): complete mobile reverse after TUI exit * fix(native-chat): keep TUI transcripts readable * fix(native-chat): recover TUI transcript gaps * fix(native-chat): recover claimed TUI owners * fix(native-chat): retain cold TUI proof authority * fix(native-chat): preserve Claude handoff authority * fix(native-chat): recover TUI transcripts read-only * fix(native-chat): harden Claude handoff recovery * fix(native-chat): serialize structured handoff recovery * fix(native-chat): close handoff admission races * fix(native-chat): validate pinned launch environment * fix(native-chat): revalidate restored and retried owners * fix(native-chat): gate restart recovery publications * fix(i18n): catalog Claude session controls * fix(native-chat): wait for structured TUI process proof * fix(native-chat): queue stale idle TUI handoffs * fix(native-chat): route structured Codex options directly * fix(native-chat): persist structured session options * fix(native-chat): hydrate resumed structured options * fix(native-chat): preserve options across structured handoffs * fix(native-chat): replay pending option mutations * fix(native-chat): rotate settled handoff operations * fix(native-chat): rotate refused send operations * test(native-chat): derive refusal retry state from host * test(native-chat): give the host-oracle matrix test an explicit timeout * fix(native-chat): keep Claude option controls idle * fix mobile structured first-send hydration race * fix(native-chat): preserve handoff launch authority * fix(native-chat): harden shared handoff recovery * fix(native-chat): serialize structured handoff recovery * fix(native-chat): close handoff admission races * fix(native-chat): validate pinned launch environment * fix(native-chat): revalidate restored and retried owners * fix(native-chat): gate restart recovery publications * fix(i18n): catalog structured session recovery control * fix(native-chat): wait for structured TUI process proof * fix(native-chat): queue stale idle TUI handoffs * fix(native-chat): keep structured recovery provider-neutral * fix(native-chat): drop local terminal topology from structured sync * fix structured outbox and tab restore races * fix(native-chat): preserve Claude question groups * fix structured provider visibility and request handling * fix structured session TUI handoff recovery * fix reverse structured session handoff * fix(native-chat): recover Claude outbox and resume state * chore(mobile): preserve the working-tree lockfile state before the main merge Carries the pre-existing uncommitted mobile/pnpm-lock.yaml modification into history so the main merge cannot overwrite it. Verified benign pnpm drift (babel 7.29.7->7.29.8 transitives plus deprecation metadata); drops no patchedDependencies (the mobile lockfile declares none). * test(native-chat): drop orphaned Claude handoff-auth test left by the main merge 'pins Claude handoff auth through the terminal provider boundary' is absent from main and its production counterpart preserveClaudeAuthEnv no longer exists outside this test - orphaned residue of the terminal/native handoff work this PR excludes by scope. Removed rather than repaired: the failure was a renamed field (providerHome -> providerRoot), and renaming it would have carried out-of-scope handoff code into the merge. Body preserved as evidence and logged in CLAUDE-STRUCTURED-DISPOSITION-TABLE.md. * Fix mobile structured turn state * fix Claude structured session blockers * fix claude structured lane blockers * fix Claude acquisition exit proof * fix(claude): route stream-json launch through process wrapper * fix(claude): gate structured chat support * Fix Claude structured launch gating * fix(claude): split session acquisition and prune mobile scope * test(claude): align structured session fixtures * fix(agent-session): preserve handoff launch arguments * fix(claude): open journals through the factory after origin/main split The journal opener moved to journal-store-factory on main; retarget the Claude structured tests that still imported the old path. * fix(claude): resolve Claude structured launch args, auth, and win32 proof The origin/main merge re-expressed the lane's Claude wiring onto main's split orca-runtime facade and dropped three wires past green typecheck and lint. - resolveLaunchArgs discarded its provider parameter, so structured Claude sessions were launched with Codex app-server flags; Claude exits on --dangerously-bypass-approvals-and-sandbox, and a Codex arg-parse throw could block Claude session creation outright. - resolveClaudeLaunchEnv was no longer supplied, so the launch resolver fell back to the whole process env as configuredEnv and buildClaudeChildProcessEnv re-applied every auth var it had just stripped. The resolver now merges the Claude overlay onto a strip-applied copy of the inherited env, which also keeps PATH intact for withCliRuntimeOnPath. - The windowsProcessStartTimeAvailable producer was gone while the contract field and both consumers survived, so the renderer gate fail-closed and structured native chat was unreachable on every win32 host. Separately, structured Claude pinned CLAUDE_CONFIG_DIR unconditionally. An explicit pin makes the CLI abandon the macOS Keychain even when it names the CLI's own default, so a default claude.ai account could not authenticate where the legacy Claude terminal could. Pin only a home the CLI would not resolve on its own, matching ClaudeRuntimePathResolver, and compare against the env the child would otherwise inherit so a diverging overlay cannot outrank the record's account home. Also await the now-async revealNativeSession in its regression test, and set the native status before revealing so a rejecting reveal cannot leave a session released but never marked native. Claude-Session: https://claude.ai/code/session_013UqKCRB6k5e8UaYhXUHeWY * fix(claude): scrub case-insensitive Windows auth env * fix(native-chat): settle handoff outcome-write failures instead of leaking them A store write failure while recording a handoff outcome escaped the flow runner's catch handler, so the client never received the failure and the flow surfaced as an unhandled rejection (seen as an intermittent agent_session_store_corrupt error in the proven-dead-retry suite, whose teardown raced the flow's trailing outcome write). Record the failed outcome best-effort, and drain the coordinator before that test's teardown removes the store root. Claude-Session: https://claude.ai/code/session_011aXkcHyeiRJuezupQdjZaM * fix(native-chat): make the structured close-failure toast provider-neutral The structuredSessionCloseFailed toast fires for any structured session, but its copy said 'Codex chat', so a Claude structured session that fails to close showed the wrong provider name. The launch-failure toast is only reachable behind the agent === 'codex' gate, so its copy stays as is. Claude-Session: https://claude.ai/code/session_013ugSpCx4AWkySaJb69BQax * fix(native-chat): wire structured handoff proof recovery * fix(native-chat): wire structured handoff proof recovery * fix(native-chat): correct the structured chat opt-in copy The one `experimentalStructuredNativeChat` toggle gates both providers — `useStructuredAgentSessionCreate` runs `canUseStructuredNativeChat` for `'claude'` as well as `'codex'` — but its description named only Codex. Its scope line also said Windows keeps using terminal chat, while the gate refuses win32 only until the host proves it can read a process start time. `structured-native-chat-availability.test.ts` already pins that Windows is allowed once the proof is cached, so the two contradicted each other. Claude-Session: https://claude.ai/code/session_01RJFsidQWmKYFmeoUuVu4Tp * test(claude): pin @anthropic-ai/claude-agent-sdk 0.3.251 contracts against a scripted CLI PR 1 of the SDK migration: dependency + test-only harness, no product wiring. - Pin @anthropic-ai/claude-agent-sdk to exactly 0.3.251 — not the newest release — because 0.3.251 (published 2026-08-28) clears the repo's 3-day minimumReleaseAge supply-chain gate with no exclusion, while the newest release was minutes old and would have required excluding a brand-new publish from the exact control built to catch brand-new malicious publishes. Every contract this design depends on was verified identical on 0.3.251: the full option surface, no pid on SpawnedProcess (custom spawner stays mandatory), env defaulting to process.env when omitted, and --replay-user-messages appearing only via extraArgs. - Exclude all eight bundled CLI platform binaries via ignoredOptionalDependencies. The setting lives in pnpm-workspace.yaml because pnpm 12 no longer reads the package.json "pnpm" field (it warns and ignores it; verified by install ablation). Excluding the binaries is what makes Orca's pathToClaudeCodeExecutable override mandatory rather than merely preferred. Note: pnpm 12.0.0 honors the ignore list when reconciling an existing lockfile but not on fresh resolution of a new dependency, so the lockfile's SDK entry was pinned surgically; both 'pnpm install' and 'pnpm install --frozen-lockfile' verify clean and stable against the committed lockfile. - Contract-pin suite drives the real SDK against a scripted fake CLI and pins: unknown type/field/content-block pass-through (and keep_alive interception), spawner env fidelity plus the omitted-env process.env inheritance sharp edge, extraArgs producing --replay-user-messages, argument parity for every CLAUDE_STRUCTURED_BASE_ARGS entry plus --session-id/--resume/ --resume-session-at, canUseTool wire request_id stability and abort on control_cancel_request, one spawn per query, pathToClaudeCodeExecutable honored by the default spawner, the exact SDK version, and the eight platform binaries staying uninstalled. Claude-Session: https://claude.ai/code/session_01FGCRfYUnb4hbvfTAHGtJKQ * feat(claude): drive the structured transport through the agent SDK Replaces the hand-rolled `claude -p --input-format stream-json` transport with @anthropic-ai/claude-agent-sdk 0.3.251, keeping the existing connection interface for this commit so the acquisition path changes minimally. The control-plane rewrite is a separate change. Orca still supplies the process. `spawnClaudeCodeProcess` routes through `spawnProcess`, retains the child and its pid — the triple the durable lease adjudicates on — drains stderr so exit errors keep their tail, and hands `.cmd` shims to Orca's Windows argument encoder rather than the SDK's plain spawn. `close()` keeps Orca's own bounded tree-kill and exit deadline, so it still resolves true only after an observed exit. Launch resolution emits an SDK options object instead of argv; durable `launchArgs` translate to a typed option where one exists and to `extraArgs` otherwise, refusing a token neither can carry rather than dropping it. The child env is always passed explicitly — omitting it would let the SDK inherit `process.env` and reintroduce the ambient `ANTHROPIC_*` leak. The stdout line parser is deleted; the SDK owns framing, and unknown frames still reach the translator verbatim. Claude-Session: https://claude.ai/code/session_01JMhFjh9HEnkcJ5YTfCdgD3 * fix(claude): settle the frame the SDK pulled but never wrote The SDK's input pump is `for await (frame of prompt) { await transport.write(frame) }`. When that write rejects — the child dies between Orca's liveness guard and the write — the for-await ends abruptly and calls the generator's `return()`, so the code after `yield` never runs. The frame was already shift()ed out of `queued`, so the later `fail()` from the exit path could not reach it and `send()` never settled: `dispatchClaudeTurn` awaits that send before it can return `unknown`, wedging the caller and the durable outbox. The pre-SDK transport rejected on the stdin write callback instead. Retain the in-flight entry and settle it from the generator's cleanup, and let fail() reach it too for the pump that never resumes at all. Claude-Session: https://claude.ai/code/session_01AobxxokqQ3qcxS7sy7ckum * fix(claude): keep the agent SDK behind the structured-Claude boundary The ordinary OrcaRuntimeService graph statically reaches the Claude adapter and so the transport module, whose first line imported @anthropic-ai/claude-agent-sdk. The SDK is evaluated whenever the regular runtime loads, before any structured Claude session is chosen: it sets process.env.NoDefaultCurrentDirectoryInExePath, changing Windows executable resolution for later subprocesses, and a missing or incompatible install would break normal runtime startup — for a user who never leaves the terminal/TUI path. Defer the SDK to the connection, memoized so it loads once per process, and add the import-graph ratchet: a walk from the Electron main entry that fails on any static import of the package, plus a clean-fork check that loading the runtime leaves the Windows search variable untouched and a child-process pin that the side effect is still real. Claude-Session: https://claude.ai/code/session_01AobxxokqQ3qcxS7sy7ckum * fix(claude): answer list_models so the picker stops serving the seed sendControlRequest had no list_models case, so every request hit the default reject; readClaudeStructuredSessionOptions swallows that with .catch(() => null) and falls back to the static catalog. Every structured session therefore served a hardcoded model list with no per-model effort levels, no resolvedModel and no default detection, and nothing surfaced the failure. The pre-SDK transport got the live catalog from the CLI. Route it through the SDK's supportedModels(), wrapped in the { models } envelope the existing parser reads. Claude-Session: https://claude.ai/code/session_01AobxxokqQ3qcxS7sy7ckum * fix(claude): reap the child's descendants before killing it The forced step of the exit ladder went through the Codex helper, which spawns `pkill -KILL -P <pid>` and SIGKILLs the parent in the same tick: the parent usually dies first, the descendants reparent to pid 1, and `-P` matches nothing. An MCP or launcher descendant of a stubborn Claude child was left running. The test named for that requirement declined to assert it and killed the survivor by hand instead, so it could not fail for the thing it was named after. Route the Claude reap through Orca's existing sweep, which snapshots descendants while their parent link still exists and signals them before the root goes, and on Windows uses the identity-gated `taskkill /T /F`. The test now asserts the descendant is dead; the manual kill stays only as a failure-safe. close() still returns true only on an observed exit. Claude-Session: https://claude.ai/code/session_01AobxxokqQ3qcxS7sy7ckum * fix(native-chat): merge the duplicated handoff type import CI's static-analysis lint (`oxlint --config config/oxlint-code-quality-native-plugins.json src config tests mobile --deny-warnings`) exits 1 on the two separate `import type` statements from the same module. Claude-Session: https://claude.ai/code/session_01AobxxokqQ3qcxS7sy7ckum * fix(claude): answer a permission callback whose signal already aborted settleFrom registered the abort listener and then delivered the request. A callback that arrives already aborted never fires that event, so the promise stayed pending behind a durable prompt with no cancel path. Check the signal first, emit the cancel, and resolve the SDK's null sentinel without registering. Claude-Session: https://claude.ai/code/session_01AobxxokqQ3qcxS7sy7ckum * test(claude): wait for the child to record the frame, not just for its report The scripted CLI writes its report at startup, so `until(readReport)` returned a report with no user messages whenever the child had not yet read the line. The assertion then failed under parallel load. Poll for the frame instead of for the file. Claude-Session: https://claude.ai/code/session_01AobxxokqQ3qcxS7sy7ckum * fix(claude): coalesce partial deltas onto one assistant item and stop painting result frames Under --include-partial-messages every stream_event frame carries its own uuid, and the final assistant frame for a block carries yet another; only message.id ties them. The translator keyed each delta by its frame uuid, so a reply painted as one bubble per delta chunk followed by a complete duplicate under the final frame's uuid. The block's first stream frame now mints the claude:(sessionId, uuid) identity, deltas coalesce onto it through the shared 60ms seam, and the final frame reconciles onto that same item. Known SDK bookkeeping no longer reaches the provider-fallback row: result subtypes are catalogued and settled by the turn lifecycle, an empty thinking block (redacted thinking) is a modeled kind, a string-content user replay is a text block, and an empty user frame paints nothing. An unmodeled result subtype or content kind still lands on the bounded fallback row. Claude-Session: https://claude.ai/code/session_01GaP5HpYQbvy2hYehVhwfEW * fix(claude): prove descendant exit at the close boundary instead of on an unref'd timer close() reported proven=true as soon as the direct child exited while the descendant sweep's SIGKILL sat on an unref'd 2 s timer, so a SIGTERM-resistant MCP server outlived the lease release. The reaper now composes the same shared primitives the Codex structured provider uses: snapshot, verified bounded descendant termination on POSIX, taskkill /T /F on Windows. The proof is false whenever descendants outlive the deadline, a retried close re-verifies the retained snapshot rather than trusting the dead root, and the raw pipe child no longer goes through the PTY job sweep it never owned a job for. Measured on macOS: a killed child of a SIGSTOPped parent stays a matching zombie row in ps, so the root is killed while verification runs rather than stopped first as the Codex non-group path does. Claude-Session: https://claude.ai/code/session_0161QFm3KVRNJKfdzWVGVNWk * feat(claude): replace the hand-rolled control plane with the SDK's native surface PR 3 of the Claude structured SDK migration removes the wire-frame scaffolding PR 2 kept, so Orca drives the SDK's typed control surface directly. Inbound permissions move from a rebuilt control_request dispatch to the SDK's canUseTool / onUserDialog callbacks. The prompt registry now carries the callback's own resolver: a decodable can_use_tool becomes a durable prompt whose answer settles the callback; a malformed one is denied without registering; the SDK's abort signal (fired on control_cancel_request, which the SDK matches and dedups itself) forgets the prompt and settles it null, and a late answer after abort finds no prompt and is refused. Closing settles every in-flight callback so no promise dangles. The claude-agent-sdk-control-bridge that rebuilt the wire frame is deleted. Outbound control maps to Query methods: interrupt() for cancel, setModel / setPermissionMode / applyFlagSettings for options, supportedModels for the model list, initializationResult() for init proof, each under Orca's own request deadline and error classification. Cancel is interrupt-receipt aware: a CLI advertising interrupt_cancel_queued_v1 gets cancel_queued in one round trip, otherwise the receipt's still_queued uuids are swept with cancel_async_message so a cancelled turn cannot spawn a later unexpected turn; older CLIs resolve no receipt. Init keeps the 10s deadline and the unauthenticated-startup guidance. Every behavior is failing-first and ablation-proven; the toggle-off import boundary and the accepted loss of unknown-control visibility rows are unchanged. Claude-Session: https://claude.ai/code/session_01Pqjduxt5G4rr9aYvtp7rNm * fix(claude): arm the descendant snapshot before stdin closes and make the tree verdict unproven by default A healthy Claude root leaves within the graceful window, and the close ladder only snapshotted descendants when the root was still alive after that window. So the common close never looked at the tree: `treeExited` stayed null, `!== false` passed it, and close() reported a proven exit with an MCP child still running. A root that died before the walk made the snapshot vacuous too. The proof is now unproven by default. The reaper holds one verdict in Orca's vocabulary (exited / live / unverifiable), assigned in exactly one place from the bounded verification, and close() returns true only on `exited`. The snapshot is armed before stdin closes, while the root can still be walked, and is verified after the root exits; a root that left before any snapshot could be armed stays unverifiable rather than vouching for descendants it never showed us. The shared verifier gains the three-way verdict behind its boolean face, and the connection reports the root and tree verdicts separately along with the child's exit status. One verification per close attempt: the retried close re-verifies, so the intra-attempt re-reap is gone from the teardown budget. Claude-Session: https://claude.ai/code/session_01BSmXgkWSsNHft8jFkdBFG9 * fix(claude): verify the Windows tree after taskkill instead of trusting that it ran `terminateWindowsProcessTree` resolves from taskkill's callback whatever the error says, so a timeout, an access denial, a recycled root and a surviving descendant all looked identical to the reaper — which then returned a proven exit unconditionally. close() reported true and the lease was released with an MCP descendant potentially still live. The Windows branch now snapshots the root's descendants while it is alive and, after taskkill, polls a fresh process table to a bounded deadline: a row still matching by pid AND creation time is `live`, an unreadable table is `unverifiable`, and only a table with no match is `exited`. Creation time is the PID-reuse guard the POSIX path gets from ps lstart, so a descendant that denied a creation-time query is omitted rather than signalled on a bare pid. A root already observed exited is never taskkilled: `/T /F` on a recycled pid would take an unrelated tree down with it. The captured tree is tagged by platform so neither verifier can be handed the other's rows. Claude-Session: https://claude.ai/code/session_01BSmXgkWSsNHft8jFkdBFG9 * fix(claude): release a reservation on a first-hand root exit instead of latching it into manual recovery Making close() strict about the descendant tree exposed a second defect at the same boundary. A create-time acquisition has no ownerProcess until publication, so an unproven cleanup mapped to handoffStage `manual-recovery`, and adjudication then refuses every later attach with agent_session_ownership_unknown. A user who was merely signed out, or whose --resume the CLI rejected, wedged the session id permanently. Each question now answers from its own evidence. close() is unchanged and stays strict about the tree. Separately, the lease is keyed on the root's pid and start time, so when Orca's own child handle observed that root exit and no descendant snapshot was ever admissible, the reservation is released and the CLI's exit code and stderr reach the user. A descendant observed still alive, or a root Orca never saw leave, stays unproven and keeps the reservation. The settlement records only what was observed: the released lease says the provider process exited and its descendants were not verifiable, rather than reusing the wording that claims cleanup proved no child remains. Claude-Session: https://claude.ai/code/session_01BSmXgkWSsNHft8jFkdBFG9 * fix(claude): surface an API error a result frame reports instead of settling the turn on it The SDK models an API failure as a SUCCESS-subtype result whose `result` string is the user-facing error text, with no assistant frame behind it. The translator suppressed every catalogued result subtype as turn bookkeeping, so that turn tombstoned its lifecycle and showed the user a completed, empty reply with no sign anything had failed. Suppression is now by meaning. A result reporting a failure routes to the bounded provider-error surface, leading with the provider's own sentence and keeping the raw frame behind the row's disclosure; ordinary successful results stay off the timeline as before. A turn the user aborted also stays suppressed: its interrupt frame already says so, and its execution diagnostic would only be noise on every stop. Claude-Session: https://claude.ai/code/session_01BSmXgkWSsNHft8jFkdBFG9 * fix(claude): drop the stream state of turns that never received their final frame Every streamed delta recorded its block's identity, latest text and checkpoint length. Only the final assistant frame removed them, so an interrupted turn left its whole accumulated reply reachable until the session was disposed, and a long session with repeated interruptions grew those maps without bound. The partial text was already journaled by the flush that precedes settlement, so the live copy was pure retention. That state now lives in its own module, named for what it does — grow a streamed block's journal row between its deltas and its final frame — and turn settlement drops every block still awaiting a final. The translator reports how many remain, which is the invariant: a settled turn leaves none. Also makes a timed-out process-table read retryable while the root is still alive. A loaded host can miss the table's one-second deadline, and latching that as "no descendants" both lost the descendant sweep and, on a busy machine, made the close ladder report unproven for a tree it never actually looked at. Only the root's death still makes a missing snapshot final. Claude-Session: https://claude.ai/code/session_01BSmXgkWSsNHft8jFkdBFG9 * perf(claude): capture the Windows descendant tree from one process-table read The capture walked the descendant tree and then read the table again for the creation times the walk's projection drops. Each read is bounded in seconds and both run inside the close ladder's budget, so the second one cost the worst-case teardown three seconds for data the first read already held. The walk is now exported from the module that owns it and runs over rows the caller has already read, which is also what lets the snapshot keep the PID-reuse guard the projection cannot carry. Claude-Session: https://claude.ai/code/session_01BSmXgkWSsNHft8jFkdBFG9 * fix(pty): spend the descendant verification window instead of surrendering on one slow table read The verification abandoned the whole check the first time a process-table read missed its own one-second deadline, with seconds of its window still unspent. On a loaded host that reported a tree unverifiable without ever having looked at it, which the Claude close ladder then turned into an unproven close and a retried teardown. It also made the descendant-exit tests flake under a parallel suite run, for the same reason and with the same honest-but-premature verdict. A read that missed its deadline is now simply not an answer: the loop waits and reads again until its own deadline, and only a window that ends without a readable table reports unverifiable. This can only turn a premature verdict into one backed by evidence; it never manufactures a proof. Claude-Session: https://claude.ai/code/session_01BSmXgkWSsNHft8jFkdBFG9 * fix(claude): never let a later failed look collapse an observed live descendant into unverifiable The reaper's single assignment site latched only 'exited', so a second reap whose table reads all missed their deadline overwrote an earlier completed verification's 'live' with 'unverifiable'. The acquisition release gate discriminates on exactly that pair, so a root exit after such a decay released the lease over a descendant that had been observed alive. The latch is now monotone in trust order: exited is final, and live is only ever raised to exited. Claude-Session: https://claude.ai/code/session_01HfdhsvSJucLw4cTZxzg2CP * fix(claude): never prove a Windows tree gone while a descendant denied identification The Windows snapshot dropped rows that denied the creation-time query, and an emptied snapshot was judged exited without any table read: a descendant Orca was refused information about was treated as one that had left. The snapshot now counts the unidentified rows it saw, and verification caps its verdict at unverifiable while any exist. Nothing is ever signalled on a bare pid, as before. Claude-Session: https://claude.ai/code/session_01HfdhsvSJucLw4cTZxzg2CP * fix(claude): classify cleanup after a first-hand exit as a root exit instead of a proven tree When the CLI died between a successful acquire and the host's commit or proof of the lease, handleExit had already removed the session, so releaseAcquisition found nothing and reported true. The attach flow then settled exit-proven with deathEvidence claiming cleanup proved no provider child remains, though the tree was never verified. The adapter now keeps the exit that removed a published session until the session is acquired again; acquisition cleanup runs that connection's close ladder and classifies its verdict exactly as a start-time failure would be, so the record reads root-exit-observed. The wire helper keeps that typed classification and its provider diagnostic instead of wrapping it as unproven, and the router gives up its owner even when the release throws. Claude-Session: https://claude.ai/code/session_01HfdhsvSJucLw4cTZxzg2CP * fix(claude): integrate SDK teardown and picker lifecycle fixes * fix(claude): preserve resume leaf and settle processless spawns * fix(claude): reacquire from persisted resume leaf * fix(native-chat): restore Claude grouped question handling * fix(claude): persist only resumable transcript leaves * fix(claude): recover structured session exits safely * fix(claude): close remaining structured session P1s * fix(claude): harden transcript branch proof * Remove superseded root fix reports * fix(windows): restore indexed descendant row walk * fix(router): forward force-close lifecycle * fix(claude): fence stale turn cancellations * fix(claude): fence cancellation after unknown dispatch * fix(claude): fence replay and option recovery races * fix(claude): block replay fallback after waiter eviction * fix(claude): fence evicted slash results * fix(claude): fence ambiguous results and restore options safely * fix(claude): scrub SDK child env and localize pending launch * fix(claude): pin transcript roots and exit recovery proofs * fix(claude): retain unproven SDK exits * fix(claude): settle retained exit before reacquire * fix(claude): resume from settled retained cursor * chore: remove tracked review artifact * fix: harden Claude SDK transport session cleanup * fix: close Claude sessions safely * fix(claude): close races with fresh child snapshots * fix(claude): fail closed on recycled child identities * fix(claude): gate root cleanup on process identity * fix(claude): fence same-second root identity reuse * fix(claude): restore the root SIGKILL fallback the identity gate took away The direct root kill goes through the handle Node owns, not through a pid: libuv drops that handle in the same turn it reaps, so the signal either reaches the process Orca spawned or reaches nothing at all. Gating it on a process-table probe therefore bought no safety and cost the tree its only fallback whenever the probe declined -- a first capture landing in the fork's own second, a recycled descendant pid voiding the snapshot, or a process table that could not be read on either platform. Identity verification stays where a bare pid is genuinely addressed: Windows `taskkill /T /F`, and the descendant sweep's own revalidation before it signals. Also stops a declined root probe from collapsing an observed `live` or `exited` descendant verdict into `unverifiable`, and stops a successful taskkill from reporting `unverifiable` because a later probe found the root correctly dead. * docs(claude): rewrap the root-kill ordering comment * Match the Claude structured launch to the terminal path's managed-account auth rules The SDK path stripped ambient Anthropic auth unconditionally, let an explicit agentDefaultEnv override beat a pinned managed account, and had no account-switch guard. Reuse the terminal preflight's own predicate and messages so both transports strip, refuse, and report identically, and cover the CLI transcript location that mobile native chat depends on. * Reach the Claude structured chat lane from the desktop UI The main process has had a complete, correctly gated Claude Agent SDK lane for a while, but no renderer ever asked for it: the launch route accepted only `codex`, and the create path was typed `agent: 'codex'` end to end. Widen both to the structured provider union that already exists (`AgentSessionHandleProvider`), and generalize the codex-named create path instead of adding a Claude twin beside it. The pending-launch registry is now keyed by agent as well as workspace — a shared key handed a second caller the first agent's intent, so a Claude and a Codex launch in one worktree collided. Windows, per agent. Codex's client-side win32 refusal is deliberate and settled elsewhere, so it stays exactly as it was. Claude's answer is no longer guessed from the client's platform: a structured session fences its provider child on that child's process start time, and only the executing host knows whether it can read one. `agentSession.createSupport` already answers precisely that, per agent, and had no renderer caller — so the Claude create path asks it before creating and turns a "no", or a probe it cannot get answered, into the definitive refusal the launch fallback already handles. Fail closed either way. That refusal mapping also closes a real gap: the host reports an unsupported location by throwing `structured_agent_session_unsupported`, which reaches the client as a transport rejection rather than a refusal envelope, so `StructuredAgentSessionCreateRefusalError` never fired. The launch would retry the create, strand itself in `visibilityUnknown`, run no legacy fallback, and show an error toast. Close a fail-open hole while Claude and win32 become reachable: `create` with a client-supplied location, and `ensure`, both skip the worktree-resolving support check. They now ask the executing host the same question directly, so a host that cannot fence a provider child no longer creates one on a client's say-so. Also deletes `structured-agent-session-provider-routing.ts`, a duplicate of `structured-agent-session-provider-support.ts` with no importers. WSL, SSH and paired hosts, floating workspaces, draft prompt delivery, explicit TUI customization and initial session options all keep refusing; folder workspaces keep working. * P1-1: make the structured Claude auth policy required and testable The optional dep plus a {stripAuthEnv:false} fallback meant a dropped wiring under-stripped silently. Required at all three hops, asserted at install time for the @ts-nocheck caller, and the settings-to-policy mapping is now a named tested function. * P2-3: mobile's default Claude transcript root must follow CLAUDE_CONFIG_DIR session-file-resolver's default ignored the variable the pinned account home follows, so a CLAUDE_CONFIG_DIR launch wrote one tree and mobile read another. The Task-4 test now resolves with no root override (mobile's own call) and checks the answer against the root the CLI itself reports, instead of mirroring the code under test's own expression. * P2-1/P2-2/P3: close the teardown window, join the live-auth gate, align the refusal P2-1: a switch beginning inside the acquire teardown left a dead chat and no replacement. Past that point the launch waits the swap out and refuses only if it never settles; the entry guard still refuses outright, because nothing is torn down there yet. P2-2: structured children now hold the same OAuth-refresh gate a Claude PTY does, so a managed refresh cannot rotate the token out from under a live turn. P3: the refusal now matches the strip it guards (case-folded on win32, presence not truthiness), and the dead structured-to-TUI builder states its auth policy instead of silently signing a system-auth user out. * Make the live-auth gate tests independent of sibling connection teardown order * Do not offer structured Claude under a WSL-only managed account Structured Claude launches against the ambient Claude config, which the account service keeps in sync with the selected HOST account. A WSL-bound managed account lives inside the distro and is never synced there, so on Windows a structured session would authenticate as whatever the ambient identity happens to be while the UI names the WSL account — the user is told one identity and given another. That was unreachable only because nothing offered structured Claude on win32. Enabling it makes it reachable, so gate it here rather than patching the auth layer: refuse the structured path when the active managed Claude account is WSL-bound, and let the terminal-backed path — which resolves the account per runtime — handle that account shape. The answer rides the agentSession.createSupport seam the renderer already consumes, so no new capability and no renderer knowledge of account internals. A create the host declines becomes the definitive refusal the launch fallback already turns into a legacy native chat tab, with no error toast. Unknown answers refuse. An install with no managed accounts claims no identity and is fine, but an active selection that cannot be resolved — or account state that cannot be read at all — is not evidence that the ambient identity is right. Claude only. Codex resolves its account through a different path and its createSupport answer is untouched, as is every Codex routing decision. * Read the structured Claude account gate through the auth policy's accessor The gate resolved the active account from the account-service snapshot's runtime map; the auth policy resolves it with getSelectedClaudeAccountIdForTarget(settings, { runtime: 'host' }). Those are two sources and two resolution rules, and they disagree on a legacy settings blob that carries the selection only in the flat activeClaudeManagedAccountId: the accessor falls through to it, a direct read of the runtime map does not. The gate would then refuse a launch the policy would have run under host-1 — and in the mirror case a session could be admitted under a policy computed from a different account than the gate approved. Read the same settings through the same accessor so agreement is structural rather than coincidental, and drop the controller accessor that existed only to reach the snapshot. No behaviour change for any state both already agreed on; Codex is untouched. * Round-3 review fixes: N-1 empty-value regression, N-2 gate leak window, N-4 lost history N-1: my presence-based conflict predicate refused a terminal launch that works today. 'ANTHROPIC_API_KEY=' is how a user blanks a variable and the settings pipeline preserves that empty value; an empty override cannot beat the pinned account and the strip removes the name anyway. Back to truthiness for the value, keeping the win32 case folding. N-2: enter the live-auth gate only after the exit/close handlers that release it, so no throw in between can leave an entry nothing reconciles. N-4: the Claude transcript resolver searches config-dir-then-default and de-dupes, matching the Codex sibling in the same file, so adopting CLAUDE_CONFIG_DIR no longer hides history written before it. * Run the managed-account gate on every Claude acquisition, not just create createSupport gates the create path, but a session's account state can change while it lives. A reacquire after an unexpected child exit re-resolves the launch and re-derives auth, with nothing re-checking the gate — so a session created while supported could come back up in the refused shape. With the strip predicate keyed on there being an active non-WSL account, the WSL-only user's normalized steady state (accounts exist, none active) does not strip, and that reacquire reaches the child with ambient auth while the UI names the account. Gate at resolveLaunch, the one choke point every acquisition passes through, refusing with the pre-spawn error the caller already handles. Same predicate as create-time, now sharing one settings reader so the two cannot drift. Claude only; Codex resolves its account on a different path and is untouched. The runtime class that wires this does not typecheck its own `this` calls — a missing hookup compiles clean — so the wiring is pinned behaviourally rather than trusted to the compiler. * Move the structured Claude gate out of the @ts-nocheck runtime files Both call sites of the managed-account gate sat in files whose first line is `// @ts-nocheck`, so neither was typechecked: three arguments to a one-argument function plus an undeclared identifier compiled clean. New auth-identity decision logic had no compiler behind it. Move the verdict into a checked module that takes the two facts the runtime owns — the adapter's answer and a settings getter — and decides. The runtime class now only forwards. Move the gate reader's construction into the checked installer too, so the nocheck file passes a plain settings closure and never names a gate symbol. Every reference to the gate predicate and its reader now lives in a checked file, so the ablation that used to pass silently is a compile error at both the create-support and reacquire sites. Removing the file-level @ts-nocheck is a separate, larger job and is not attempted here. * Derive the gate test's auth policy from the settings under test A hardcoded stripAuthEnv asserts a gate/policy pairing production cannot produce, and false additionally lets launch.env inherit the runner's real process.env. Derive via claudeStructuredAuthPolicyForSettings instead: the gate settings type is the same Pick the policy takes, and both resolve the account through getSelectedClaudeAccountIdForTarget. * Pin the absent-vs-empty distinction in the managed-account gate An empty claudeManagedAccounts array is a real answer: the user has no managed accounts, nothing claims an identity, and the ambient path is legitimate. A readable settings object with no such field is settings we failed to parse — the same unknown as unreadable — so it refuses. The two are one character apart in the code and the difference is invisible without the reasoning, so record it at the branch and pin both sides. The test fails under the obvious "consistency fix" of treating a missing field as empty. * fix(claude): keep command queue bookkeeping out of the transcript Claude Code 2.1.258 emits a `command_lifecycle` frame for every uuid-stamped command it starts, completes or cancels. The frame carries a command uuid and a state and no content, and the CLI keeps it out of its own transcript -- but it is absent from the SDK's SDKMessage union and so from Orca's frame catalogue, where an uncatalogued kind defaults to a substantive row. Every structured turn therefore painted raw JSON rows into the user-visible transcript. Catalogue it and disposition it as status chrome. The unknown-kind default stays `timeline-substantive`: a kind we have never seen is likelier to carry content than to be chrome, and a visible row we can catalogue later beats content we silently dropped. A lifecycle state that reads as a failure still surfaces, because the payload error check in `classifyProviderFrame` outranks the catalogue. * fix(claude): let a re-walked descendant become eligible for the forced sweep A descendant first observed by a capture inside its own birth second could never be SIGKILLed: `ps lstart` is second-resolution, so that capture cannot rule out a pid recycled later in the same second, and the merge pinned each retained row to the boundary of the walk that first saw it. SIGTERM-resistant children forked in that window were signalled and then never escalated -- they survived close, quit and restart, reparented to init, and had to be killed by hand. Advancing that boundary on any later capture would be unsound: a later capture matching pid, pgid and start-second is exactly what an impostor would also show. But a capture is not a match -- it is a fresh ppid walk from a root Node pins through its own handle, so a row it re-derives is proved ours at that instant without appealing to its start time. Chain the fence from there instead, and take that walk at the close boundary while the root certainly still lives: the root may leave inside the grace window, and the post-timeout refresh never runs. A row absent from the later walk still keeps its earlier boundary, and a row no walk has ever re-derived in a later second is still never escalated. * Treat an absent managed-account list as empty, not as unreadable An empty claudeManagedAccounts array and a missing one are the same answer: this user has no managed Claude accounts, so nothing claims an identity and ambient auth is the truth. Refusing on absence strands any profile that simply never wrote the key, and it disagrees with the auth policy, whose own predicate takes `(accounts ?? [])` for exactly this reason. Only settings that cannot be READ stay unknown, and those still refuse — as do a WSL-bound active account and a selection naming an account the list does not explain. The earlier reasoning treated a missing field as settings we failed to parse. That conflated "not present" with "not readable"; only the second is unknown. * Support structured Claude when accounts are registered but none is selected Registered-but-deselected Claude accounts were refused, which is behaviourally identical to having no accounts at all: the auth policy does not strip, ambient auth is the truth, and the UI names no host identity. A user who deselected their accounts silently got legacy chat with nothing explaining why. Nothing selected for the host runtime is two states the settings cannot tell apart after the fact, because pruneInvalidClaudeRuntimeSelection empties the host slot and persists null in the second one: honest deselection -> ambient auth, UI names nothing -> SUPPORTED the WSL-only steady state -> ambient auth, UI names the WSL account -> REFUSED The presence of any WSL-bound account in the list decides. Simplifying this to "none active -> supported" re-opens the auth-identity misrepresentation, so the tests fail loudly on exactly that: five of them, across the unit rule and the createSupport path. * Stop treating an unanswerable create-support probe as a refusal A worktree is not resolvable for a beat after createWorktree resolves, so a probe fired immediately after creation fails the RPC with selector_not_found instead of answering. The catch collapsed that into `supported = false`, so the composer refused and quietly built a terminal session — the gate never said no, it was never asked successfully. Elapsed time was the only input that decided whether a Claude launch went structured. "Could not answer" and "answered no" are different states and only the second is a verdict. Retry while the host cannot yet resolve the selector, with a bounded backoff that covers the measured window with margin, and keep refusing on the first ask for everything else. Fail-closed is unchanged: a probe that still cannot be answered when the budget is spent refuses. The retry is narrowed with the shared error-code matcher, which classifies a token that transports re-wrap into a longer message without matching prose that merely mentions it. Codex never probes, so this race has never been able to refuse a Codex launch — the race itself is identical for it. Recorded at the early return, because whoever gives Codex a probe inherits the bug. * fix(claude): fence the forced sweep on re-derivation, not on lstart's second A descendant forked in the same wall-clock second as every walk that sees it was signalled with SIGTERM and then never escalated, so a SIGTERM-resistant child survived tab close, app quit and a full relaunch. Two children of one parent 96ms apart across a second boundary took opposite paths. The leak predates this branch: it reproduces with the change reverted. `ps lstart` has one-second resolution, so a walk landing inside a row's birth second can never rule out a pid recycled later in that same second. But a walk is not a match: a ppid walk only reaches what the root actually parents, and the root is pinned by Node's own handle, so a row the walk re-derived is ours whatever second it was born in -- a stranger would have to have been forked into our tree, and then it is not a stranger. Fence the escalation on that. Rows a merge retained from an earlier walk are not re-derived and still answer to the start-time fence, which remains correct for them. Scoped to callers that revalidate identity before signalling, which is the Claude close path. Codex teardown reaches this same verifier and is unchanged; the argument holds there too, but widening it is its own deliberate change. Also reverts two changes from the previous attempt at this leak. Advancing the capture boundary on a later walk is inert once the sweep fences on re-derivation -- both key on the same set of rows, so the new term short-circuits for exactly the rows whose boundary it advanced. The extra ladder refresh was a duplicate full process-table read: close() already awaits tree.refresh() immediately before proveClaudeChildExit, on the only path that reaches it. Known property: the kill lands roughly a grace window after the walk that proved membership, so a pid recycled inside that gap could in principle be signalled. It is bounded -- matchingSnapshotRows already requires the live row to carry the same start-second and pgid, so an impostor must be born in the remainder of that one second, land on that exact pid, and sit in the same process group, and it has already received the unfenced SIGTERM from the same loop. * Run the Claude structured integration suite as a runtime client The suite exercises agentSession.* for Claude, not the mobile surface: nothing in it asserts anything mobile-specific and its sibling integration suites use 'runtime'. Mobile now additionally requires the experimental structured-chat setting, which structured-agent-session.test.ts pins in both states, so the stale 'mobile' fixture was claiming coverage it never had. * fix(claude): report effort from get_settings, which is the only frame that has it The composer's Effort pill rendered blank in every structured session. This is not a missing source: the publication reads `effortLevel` off the `system/init` frame, and that frame has never carried an effort of any kind, while the correct value is already fetched at acquisition and thrown away on the auth diagnostic. Verified two ways -- a live get_settings probe against Claude Code 2.1.258, and the shipped binary's own init frame construction, which lists `model` and no effort. So `reportedOptions.effort` was always empty, the options reader dropped the key, and the pill had no value. Model survived only because `currentModelId()` has a fallback chain. The get_settings call acquisition already makes reports the session's current effort as `effective.effortLevel`; pass that into the publication instead. Selecting an effort already worked, so this is the arrival value only. The legacy PTY path is unaffected and must not be "fixed" to match: it reads its effort by parsing the startup banner (`CLAUDE_MODEL_EFFORT` in src/renderer/src/components/native-chat/claude-terminal-session-options.ts), which is why it shows a value where the structured path does not. Also removes the fixture that hid this: the fake init frame invented `effortLevel: 'high'`, a field the CLI does not send, which is why every gate stayed green over a value that is always empty in production. The fixture's get_settings now returns the real {applied, effective, sources} shape instead of a bare `{env: {}}`, so the two adapter tests that asserted an effort keep asserting it through the path production actually uses. The reader returns null rather than defaulting: an effort nothing measured would repeat the fixture's mistake, and a blank pill is the honest degradation if the provider ever renames the key. * fix(claude): only record an effort the child confirms it adopted apply_flag_settings answers `success` for an effort it then ignores. Measured against Claude Code 2.1.258: applying `bogus-effort-xyz` returns subtype "success" with no error while `applied.effort` stays at its previous value, and a valid `low` moves it. The option write treated the absence of a throw as adoption and recorded the requested value unconditionally, so Orca would show and persist an effort the child was not using, with nothing anywhere reporting a problem. Read the effort back after applying it, through the same reader the arrival value uses, and reject when the child reports a different one. A readback that could not be taken is not evidence of a refusal -- the apply itself succeeded -- so it still records; only a readback that disagrees rejects. Not reachable from today's picker, which offers catalog values only, but the CLI's effort catalog is server-delivered and has changed before, so a retired id would otherwise become a pill confidently displaying a setting that never took. * test(claude): assert the effort contract against the real binary The blank pill survived every gate because the only tests that touched it were fixture-backed, and the fixture invented the field. A test that pins the shape we read cannot catch the provider renaming the key, which is the failure mode that produced this defect. Asserts both halves against a live authenticated CLI: that no frame it publishes carries an effort at all, and that the session's current effort arrives through get_settings. Which frame proves the session varies by host -- this machine proves it with a SessionStart hook rather than a system/init frame -- so the negative half asserts over every published frame rather than picking one. Skips with the rest of the file when no authenticated CLI is present. * fix(claude): stop the synthesised content-part kinds leaking into the transcript Sending an image put a bare `claude · message:user:content:image` row between the user's bubble and the answer. Two causes, and only the second is a family. An image part counted as modelled only when `source.type === 'url'`, but claudeDispatchMessageContent sends a local attachment as a base64 source and the CLI replays that shape back, so every attached image was classified unmodelled. Accept the base64 and file sources Orca itself sends. The family is the real defect. `message:<role>:content:<type>` kinds are synthesised at runtime from whatever `part.type` arrives, so unlike the top-level frame catalogue they can never be enumerated ahead of time -- the `?? 'timeline-substantive'` default then prints the synthesised name at a user who cannot act on it. That default is right for top-level frames, where "substantive" means show the frame; here it meant show our own vocabulary, which drops the content AND leaks the opcode. So an unrenderable part now renders a sentence saying exactly that, with the kind and payload still on the row's disclosure. A part that carries its own readable sentence keeps it -- the placeholder is a fallback, not an override. An unknown future part type is therefore visible, never silently dropped and never printed as a kind: the same principle as the effort readback, which records only what the provider confirms. * Declare agentSession.requestHandoff on the cross-version wire surface The manifest is a ratchet for cross-version reachability, so the method is declared with real HandoffParams rather than counted. requestHandoff is capability-gated through requireStructuredHost and has no client caller, so declaring it is the whole of the change. Also model two host capabilities the harness omitted: the stub host's supportsCreate, and the fake adapter's, without which adapterSupportsCreate falls through to a supportsLocation the fake also lacks. Every ensure was refused for the harness's silence rather than for its location. * Gate structured Claude session tabs on the client capability that names them The Claude structured lane deleted the projection's `agent !== 'codex'` filter and added CLAUDE_STRUCTURED_AGENT_SESSION_RUNTIME_CAPABILITY in the same commit, but never wired the constant to anything. Paired clients then received agent-session tabs for Claude, which no shipped client renders -- mobile's resolveMobileNativeChat returns null for every agent but codex, so the row listed and selected into a pane with neither chat nor terminal. Restore the filter behind the declared capability instead of the bare agent name. No client advertises it yet, so this matches main's behaviour today and becomes a negotiation a future client can opt into. * Confirm the structured Claude model against the model the CLI reports set_model answers success for any string, including a model it cannot resolve — the failure only surfaces when the turn runs — and get_settings reports the settings-file model, not the session's. The init frame that opens each turn is the only channel carrying the adopted model, so keep the session's reported model current from it instead of reading it once at acquisition. Also stop rejecting an effort the readback cannot represent: max is session-scoped and excluded from the persisted effortLevel, so a readback reporting the level underneath it is an absence of evidence, not a refusal. * Clear the session-option hedge when the provider confirms the value The pill claimed every option was unconfirmed for the life of the session: the renderer recorded each write as dispatched and nothing ever moved it, so a model the CLI had already reported back still read as unconfirmed. Carry the provider's own confirmation to the surface. Main reports which option ids the provider named rather than merely accepted, and the client re-reads options as a turn changes, because the frame that opens a turn is where the adopted model arrives. A value the provider has not reported stays hedged, including an effort whose readback could not be taken. The confirmed list is optional on the wire: a host that predates it sends nothing and the client keeps hedging, which is the behaviour it had. * Keep the model report current across an acquisition fence bump * Show the picked session-option value and let the provider report correct it The pill showed a "not confirmed" second tooltip line for any value we had sent but not yet seen reported back. Nothing acts on it, and for the PTY lane it was permanent — that transport has no report channel. The pill now shows the picked value immediately and the provider's per-turn report corrects it when the two disagree; a newer local write still outranks a report that precedes it. `dispatched` stays as a provenance member rather than collapsing into `applied`: it is produced independently by the PTY lane, and it is where the `confirmed` wire field lands, which would otherwise be unobservable. Effort keeps its readback and its rejection path. That matters more now, not less: with the hedge gone the rejection is the only user-visible failure signal on this surface, so a spurious one would be the loudest bug here. Skipping the readback for an effort the settings response structurally cannot echo is what prevents it — the response carries the persisted level, so reading it back for a session-scoped value would report the level underneath and fail a valid write. * Hedge a session-option value only when the terminal transport sent it Both lanes emit `dispatched`, so it could never say which one produced a value. The descriptor now carries the transport that built it, set once in the shared snapshot builder from a parameter that is required rather than defaulted — the builder is the only place a descriptor is constructed, so a new producer has to name its lane or fail to compile. The structured lane confirms every value from the provider's own per-turn report, which makes the hedge transient noise there. The terminal lane can only learn an outcome by parsing the screen back, and only for Claude: every other agent's `dispatched` value stays unconfirmed for the life of the session, so the line is the only signal that we sent something we never saw land. * Refuse an effort the session's model advertises no control for * Refuse tab mutations on a Claude row the client never negotiated The branch added a case asserting a client advertising only agent-session.structured.v1 may mutate a claude row. That is the same ungated behaviour the projection gate removes, encoded a second time — mutation authorization reads the projection, so hiding the row refuses the write. Assert that contract instead, and add the positive case for a client that does negotiate Claude rows. * Resolve the Claude session's current model in one place so the effort guard and the pill agree * Record an effort the child did not adopt instead of refusing the write apply_flag_settings answers success for an effort it then ignores, so the readback exists to detect that. Refusing on it made the detection a veto, and a veto is only correct if the readback can never be wrong about which model is current -- which it was, twice. The pre-flight guard already refuses a level the model advertises no control for, so the veto guarded a door that is now locked upstream. Keep the detection, drop the refusal: a disagreement records the child's own answer and omits the option from confirmed, so main stops vouching for a value the provider rejected without blocking the user's write. * Stop a slow whole-machine ps from being read as an absent process `ps -axo ...command=` pays a per-pid argv read: measured 1.15s for 1,948 processes (0.03s without `command=`), and CPU contention stretched the same capture to 6.0s. Two budgets sized for a cheap look then misreport a readable machine. The reader's 3s ceiling killed 6 of 20 consecutive captures at load 27, so every consumer answered "unverifiable" about a table it could read. Raise it to 15s, and stamp the capture instant at ps START so `capturedAgeMs` is the upper bound its contract promises -- a 6s capture used to report itself as freshly taken, understating staleness against a 5s kill gate. The TTL keys on completion so a slow capture still coalesces instead of forking ps per caller. `readStructuredTuiProcessIdentity` then spent its whole 5s wait inside one capture and concluded "no exact child" after a single look taken before the child existed (observed landing at ~3.5s). Absence needs a look that did not race the spawn, so require two captures before the deadline can end the loop. Both surfaced by the real-binary Claude TUI resume test, which failed ~1 in 5 under load; 14/14 now, 8 of those runs containing a capture the old 3s budget would have killed. * Let the desktop renderer negotiate Claude structured tabs The paired-client gate hides agent-session rows an agent the client cannot render. The desktop renderer's own IPC dispatches as clientKind 'runtime' advertising only agent-session.structured.v1, so the gate hid Claude rows from the surface this feature ships on. It renders them; it should say so. * Stop a slow process table from silently blinding every freshness gate Stamping `capturedAgeMs` at ps START made the number honest, and honest broke both consumers that read it. `ps -axo ...command=` measured 2.5-9.0s on an idle 2,002-process laptop and 4.0-18.6s at load 46, so the age it now reports lands past every budget: `planRelayPtySweep` refuses the stop as "too old", and the renderer's `admitRemoteForegroundEvidence` refuses the record outright. That second one is the expensive half and was outside the diff -- a refusal bumps `consecutiveInspectionErrors`, the poll scheduler backs off to its 10s floor, and agent-completion detection stops for the pane. The subsystem went blind on exactly the loaded hosts the honest stamp was meant to serve. The evidence-publishing read now gives up at 1,200ms instead of waiting out `PS_TIMEOUT_MS`. It is one budget for one question: these consumers ask whether an observation describes NOW, and past this it does not -- a late answer is refused by the age gate anyway, having first blocked a polled path for the whole capture, so a prompt `unverifiable` is both the truthful verdict and the cheap one. Both relay call sites already produce it from a rejection, and an admitted `unverifiable` costs a poll where a refusal costs the cadence. Identity proof keeps the full 15s through `getFreshProcessTableSnapshot`, because it asks whether a process EXISTS and must never read slow as absent. The budget bounds the wait, never the capture: the reader coalesces, so an abandoned wait leaves its capture running to fill the cache rather than forking a second whole-machine `ps` on the host that can least afford one. 1,200ms is bracketed rather than picked. The floor is the capture's own cost -- `command=` measured 1.15s for 1,948 processes on an idle host, and a budget under that answers `unverifiable` about a machine nobody is straining. The ceiling is the consumer's: 2,000ms, less the 500ms a TTL-shared capture may already have aged, leaves 1,500ms, and transit takes the rest. That ceiling only fits once the capture stops being charged twice. `ps` runs inside the RPC round trip, so its duration is already in `receiveDelay`, and `capturedAgeMs` is that same duration on the host's clock; summing them halved the budget this gate grants a host from ~2.0s of `ps` to ~1.0s, which is why a 1.2s capture arriving at 1.3s read as 2.5s old and was refused. Admission now takes the larger of the two. The sweep's gate keeps its sum, which is correct there: `evidenceAgeSinceListingMs` is stamped after the listing ARRIVES, so it measures planning time and overlaps nothing. A stated limit rather than an assumed one: 15s is not proven sufficient for identity proof. The same capture reached 18.6s at load 46, so that path can still time out and answer "no exact child" about a host it simply could not read in time. Narrowing it needs a cheaper question than a whole-machine argv read, not a larger number. The one test guarding this field could not fail. `beginPtyHandlerTest` installs fake timers, so `Date.now()` is frozen, the real reader reports exactly +0, and `0 <= 500` held identically for a hardcoded zero, for completion-stamping and for start-stamping -- while the real reader on that host returns thousands of ms. It now drives a measured age in and asserts the handler publishes it rather than restamping; that the reader MEASURES it correctly stays pinned separately, against a controllable clock. Both consumers get boundary coverage either side, and each new gate was ablated red before it went green. * Keep the compatibility fields off the capture the budget just abandoned inspectProcess falls back to processHasChildren and listProcesses to getForegroundProcessName, and both read the same TTL-shared capture with no budget of their own. On a slow host they joined the in-flight capture the budgeted evidence read had just given up on, so the call still blocked for the full 6-18s and the budget bought nothing -- once for inspectProcess and once per managed PTY for listProcesses. Use the degraded answers those helpers already give for an unreadable table, reached promptly. pty.hasChildProcesses keeps its unbudgeted fresh probe: it is a one-shot destructive gate that can afford to wait. --------- Co-authored-by: Merge Sim <merge-sim@local> Co-authored-by: Merge Sim <sim@local> |
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refactor(agent-session-journal): move the session journal onto SQLite (#18652)
* refactor(agent-session-journal): move the session journal onto SQLite The agent-session journal kept its state in three hand-rolled file formats: an append-only `log.jsonl` with torn-tail repair, a `snapshot.json` holding folded state plus a retained tail, and byte-quarantine files for anything unreadable. This replaces all of it with one SQLite database per session — `journal.db` beside the existing `blobs/` store — using the in-house adapter and the open/pragma/migrate/harden pattern the orchestration database already follows. Two tables: `journal_rows` (the append-only log, keyed by `(session_id, epoch, seq)`) and `journal_sessions` (the derived projection, upserted in the SAME transaction as every insert). Rows stay JSON in one column, so the row schema, the version upcast chain, and the reducer survive byte for byte — `journal-reducer.test.ts` and four other suites pass unchanged and are the regression proof. Deleted: `journal-log-file.ts`, `journal-compaction.ts`, `journal-corruption-quarantine.ts`, and the public `compact()` / `compactionBoundary` / `autoCompact` members, none of which had a non-test caller. Existing `log.jsonl` / `snapshot.json` journals are deliberately abandoned. No importer: a session created on the old path stops working, which is acceptable because the feature is off by default. ## The physical quota is repriced, because SQLite does not charge like a file The 256 MiB per-session bound is unchanged, but the arithmetic under it could not survive: SQLite grows the database in pages and the WAL in frames, and the checkpoint that copies the WAL forward holds the same pages in both files at once, so a transaction's peak is about twice its content. Admission now charges the candidate transaction's own measured page cost, validated against a sweep that runs as a regression test (`journal-database-space.test.ts`) rather than derived from reasoning about the allocator. Four things are load-bearing rather than tuning, each measured: - `auto_vacuum = INCREMENTAL` must be set BEFORE `journal_mode = WAL`. Set it after and it is ignored with no error, reclamation silently becomes a no-op, and the file never shrinks again. Both halves are asserted. - `wal_autocheckpoint = 0` plus an explicit `wal_checkpoint(TRUNCATE)` at the end of every write path, so the one moment the same pages live in two files is a moment the charge accounts for. - Reclamation runs in bounded chunks. A single unbounded `incremental_vacuum` took a 252 MB directory to 504 MB — the reclamation added to defend the bound would have breached it. `PRAGMA incremental_vacuum(N)` also frees exactly one page unless it is stepped to completion, which no size assertion catches, so the freed page count is asserted directly. - A blocked checkpoint leaves the WAL on disk together with the database growth it already copied, so admission charges that deferred copy explicitly. The term is zero whenever the last checkpoint succeeded, so the uncontended path admits and refuses an identical set. The epoch discard is `DELETE FROM journal_rows` with no WHERE clause, which takes SQLite's truncate optimization: measured at ~0.26% of the database in WAL bytes where the `WHERE session_id = ?` form rewrote every emptied leaf at up to 99%. One database per session is what makes the unqualified form correct. An open, empty journal costs 57,344 bytes before a single row exists, so a configured quota below `JOURNAL_MIN_SESSION_BYTES` now fails loudly at open with the existing `journal_bound_exceeded` instead of as a run of identical append failures. No production caller configures one; the affected surface is test fixtures, rescaled to the smallest value that restores what each case proves. ## One deliberate behaviour change Compaction was the only mechanism that shed bytes inside an epoch, and the write path called it precisely so an append at the bound was not refused. The SQLite-shaped replacement — a bounded prefix delete — cannot be used: with the snapshot gone the surviving rows ARE the state, so dropping the oldest of them loses the oldest transcript silently at the next reopen. So no row is ever shed inside an epoch, and a session whose row bytes alone reach the bound now refuses every append where it previously compacted and continued. A loud typed refusal beats silent data loss. What still sheds is unreferenced BLOB bytes — the dominant and unbounded byte source — on the same write-path hook. The escape from the hard stop is the fold that already exists, `replaceEpochItems`, which now actually returns bytes to the filesystem instead of leaving them on the freelist. The prune's protected set is a union of live reducer digests AND the candidate row's own digests, including those cited only by a nested lifecycle-batch mutation. Content addressing never rewrites a digest already on disk, so protecting live state alone deletes the blob the append is about to cite — a dangling reference that surfaces one reopen later as an empty expansion on an item the user can see. `journal-store-blob-budget.test.ts` pins it, and it goes red when the set is narrowed back. ## Handle ownership A file handle used to be opened and closed per append; a SQLite handle is held for the session's lifetime. Every path that can open a connection now has one owner: the open function owns its raw connection until it returns, the store owns its retained one and releases it in a new `close()`, and every other connection is closed by the call that opened it. The attach, recovery, eviction, map-overwrite and host-teardown paths close what they drop, and host teardown is failure-complete — the sink-barrier flush throws by design, so a trailing close statement would be skipped on exactly the path that leaks. `close()` has a stated contract: admission at enqueue and permanent, the close step on the same queue past that gate, one shared in-flight attempt, fulfilment terminal, and the release last and deliberately unguarded so a retry re-enters it. Guarding the release would skip it on retry, guaranteeing a permanent leak in exactly the case where it did not release. `journal_closed` joins the error union for a write after `close()`; no file outside the directory references any of these codes. * fix(agent-session-journal): make a COMMIT final, stop repairs deleting valid rows, and keep rejected closes retryable Six review findings on the SQLite journal migration. 1. A successful COMMIT is now the point of no return. The ordinary append, the epoch roll and the epoch replacement each adopt the committed row or epoch BEFORE any post-commit filesystem work; checkpoint, reclaim, blob prune and directory measurement run through `runJournalPostCommit`, which is best-effort by design and falls back to the transaction's own charge as a conservative footprint. Previously a post-COMMIT scan failure rejected a durable append and the next one reused its sequence, and a failed epoch housekeeping step left the store writing into a prefix already deleted. 2. Corruption repair preserves instead of destroying. A rejected suffix is copied into a new `journal_quarantine` table and removed from the live epoch in ONE transaction per chunk, charged against the session bound before a byte is written; a journal that cannot afford the copy refuses to open rather than falling back to deletion. The repair state is exposed as `journal.repair` and the rows are readable through `recoverQuarantinedRows()`, so Orca-owned submission, receipt and lifecycle identity survives a gap or a malformed row. 3. The physical charge covers the B-tree key payload. `session_id` and `epoch` are stored in both tables and both primary-key indexes and appear nowhere in `row_json`, so the journal boundary now bounds them and `journalTxnPhysicalCost` charges those bounds plus the projection upsert. The charge sweep runs the exact production transaction at maximum admitted key sizes. 4. A rejected `close()` no longer orphans its handle. Callers hand the journal to `agentSessionJournalCloseRetries` instead of swallowing the rejection, the attach map replacement is ABORTED when the previous journal will not close, host teardown retries what the registry holds, and a failed runtime teardown is retained so the next stop is a real retry. 5. `journalWalBytes()` returns zero only for ENOENT and propagates every other stat error, so admission and reclamation fail closed. 6. The WAL contention test closes the writer before removing its temp root and asserts the directory is removable once handles close. Regression coverage: post-commit divergence (4), corruption repair (5), key bounds (5), WAL stat (8), close retry (5), plus a runtime stop-retry case. Each fix was ablated on this head and the matching tests go red. * fix(agent-session-journal): anchor replay at sequence 1, make quarantine append-only, and charge it in bytes Three ways the corruption quarantine still lost rows it was written to keep. Replay validated contiguity from the first row that HAPPENED to remain, so an epoch missing only its sequence-1 row declared the leftovers contiguous and set no `truncateFrom`. The load was still corrupt, so recovery imported provider history and `replaceEpochItems` deleted every live row — including Orca-minted submission, receipt and lifecycle identity that no transcript can reconstruct, and that nothing had quarantined. Replay now anchors at sequence 1, so a missing epoch row rejects the whole surviving range before any replacement runs. `journal_quarantine` was keyed on `(session_id, epoch, seq)` and copied with `INSERT OR REPLACE`. A repair frees the sequences it removed and the live epoch reuses them, so a second repair in the same epoch silently deleted what the first preserved. The table is now keyed on a surrogate `quarantine_id`, the copy is a plain append, and `(epoch, seq)` is metadata; existing v1 databases are rekeyed in the migration that already bumps `user_version`. The admission charge read `length(row_json)`, which counts CHARACTERS for a TEXT value where `journalTxnPhysicalCost` expects physical UTF-8 bytes. A multibyte suffix was charged at up to a third of what it writes, which defeats the pre-write physical bound — over a megabyte on a maximum-size lifecycle batch. * fix(agent-session-journal): keep a repaired epoch anchored and stop the v1 quarantine migration doubling the file Replay validated numeric contiguity from sequence 1 but never that sequence 1 IS the epoch row. When the anchor was missing the repair set aside every surviving row, and if provider-history import then failed — a transcript that is temporarily gone is enough — the journal reopened as a clean, row-less epoch: an ordinary append took sequence 1, replay accepted it, read-restore published it as history, and automatic recovery never ran again while the user's real messages sat in quarantine. Replay now rejects an unanchored prefix, the open publishes an `unreconcilable_prefix` anchor for an epoch its repair emptied, and that anchor keeps reporting corrupt — so provider history is retried on every attach — until the timeline is rebuilt or the session writes content of its own. A repair also discloses rows it set aside when no line was unreadable at all, which is the case that removes the most. The v1 quarantine rekey copied every legacy row into the new table inside one transaction and dropped the old one. A quarantine holds whole rejected rows: a single 8 MiB row nearly doubled the database past the physical bound the open had already checked, the dropped pages only reached the freelist, and the next open refused the session it had just migrated. The v1 table is renamed and frozen instead, and reads take both generations. Table creation also moves inside the migration transaction, so a crash can no longer leave a v2-shaped database still reporting version 0 for an older build to write into. * fix(agent-session-journal): stop an empty provider transcript retiring the repair marker A transcript that exists but decodes to zero messages was imported as a success: the import published an empty `legacy_import` replacement that deleted the `unreconcilable_prefix` anchor and its disclosure, so the next probe read the session as clean and every later attach skipped provider recovery while the user's rows sat in quarantine for good. The import now leaves the epoch untouched when nothing decodes, reporting `replaced: false`, and recovery treats that like a transcript it could not read — the marker stands and a later attach with real history rebuilds the timeline. * style(agent-session-journal): merge the duplicate journal-database-space import * refactor(agent-session-journal): drop quarantine, byte bound, blob spill and rate limit Match what comparable implementations do: the journal is an unbounded append-only SQLite log with no side tables and no admission control. Corruption: the rejected suffix is DELETED rather than copied into a quarantine table. The load still reports `corrupt` and recovery still rebuilds the epoch from provider history, so the observable outcome is unchanged — only the preservation half is gone. The schema is back to one version with two tables; no v1 database exists outside unmerged commits of this branch, so the rekey migration and the two-generation read path go with it. Sequence-1 epoch anchoring and the empty-provider-transcript retry are kept: both are about the corrupt signal being correct. Size: no `maxSessionBytes`, so no page-cost arithmetic, reclaim band, incremental vacuum, lifecycle byte reservations or `journal_bound_exceeded`. `auto_vacuum` and `wal_autocheckpoint = 0` existed only to make a transaction's physical cost predictable for that charge; with the charge gone SQLite's default checkpointing is what the journal wants, and the explicit pre-close checkpoint is redundant with the one `db.close()` performs. WAL, `synchronous = FULL` and `busy_timeout` stay. Payloads: an oversized body is truncated at the existing inline cap with the existing marker and the remainder is discarded, bounded at the translation layer that already calls these helpers. The truncation point and message do not change; the content-addressed blob directory and all digest tracking do. Rate: no `maxAppendsPerWindow` and no `journal_rate_exceeded`. `JournalPayloadLimits` is now just the inline cap. * fix(agent-session-journal): mark a partial repair pending and bound multi-block tool input A repair that keeps its prefix had nothing durable to show for the suffix it deleted: a sequence gap costs no malformed row, so no disclosure is appended, and the surviving rows keep their epoch anchor. The next probe read a contiguous anchored prefix, called it clean, and the deleted stretch of timeline was never asked for again — silent loss, with the deletion already committed. The deletion now writes a `journal_repairs` marker in the SAME transaction, and replay keeps reporting corrupt while it stands. It retires under exactly the rule the emptied-epoch anchor takes: a fresh epoch carries the rebuild, or the session writes content of its own past the sequence the repair left free. The repair's own disclosure is not that content. Legacy import bounded a tool call's input only when it was the message's sole block; the multi-block path returned `tool-call` unchanged, so a mixed message from Claude, Grok or an omp execution cell persisted the whole input despite `inlineHeadBytes`. `boundBlock` now routes it through `boundToolInput`. Also drops canonical comments describing quarantine, snapshot files, blob storage and blob compaction — none of which exist any more. * fix(agent-session-wire): stop awaiting the synchronous journal probe loadJournal runs on a sync-database connection and returns JournalLoad | null, so both wire call sites were awaiting a non-Promise. The type-aware code-quality gate flags it; the native gate does not. --------- Co-authored-by: Merge Sim <sim@local> |
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5083b58b9c |
fix(desktop): never replay a refresh token after a timeout; jitter relay lease renewal (#18719)
Two independent desktop hardening changes that share one incident date.
1. Refresh-token replay. A refresh POST that aborts client-side leaves the
token's fate unknown: the server may already have rotated it before the
reply was lost. Every caller above this module (the relay auth coordinator
most of all) then re-entered and resent the same stored token, which the
server reads as reuse and answers by revoking the whole token family. On
2026-09-04 that turned a slow refresh endpoint into 21,605 sign-outs.
- The refresh endpoint now gets one 60s attempt instead of a 30s attempt
plus a replayed retry.
- A failure with no status line is ambiguous: it is never retried, and the
token is recorded so a re-entry within 30s is refused outright rather
than replayed. The block is bounded, not permanent -- the token is only
possibly spent, and a permanent block would sign out every desktop whose
refresh merely timed out.
- Before any retry or replay the stored session is re-read; if another
caller already rotated it, that result is adopted and the old token is
never sent again.
- Only a definitive 5xx, which proves the server rejected without
rotating, is retried, and exactly once.
- A 401 on a token whose earlier attempt never answered now logs
orca_cloud_refresh_possible_replay so support can tell a real revocation
from a sign-out we caused ourselves. clearCloudSessionIfUnchanged
semantics are unchanged and still emit the invalidation event.
2. Lease renewal jitter. Both desktop renewal timers took the mean of a
60s-wide window before expiry. A cell recreate reconnects a whole cohort
inside one second, so every host in it renewed inside the same second ~54
minutes later, re-bursting the fleet every ~54 minutes. Renewal now
carries full +/-10% jitter, spreading the same cohort over ~10 minutes.
Early renewal is free on the server side: the rebind branch resets the
full 55-minute TTL from whenever it arrives, with no minimum-age or
early-renewal restriction (cloud/apps/relay/src/host-session-registry.ts
:736-743, and :794 for a fresh session). Only lateness is fatal -- :997
drains and closes a lease that has expired. The base interval is therefore
shrunk to fit the upward jitter rather than clipping the jittered value at
the margin, which keeps the distribution unbiased and keeps every sample at
least 90s before expiry. No wire change.
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a663a21fff |
perf(orchestration): project task columns so task reads hit the statement cache (#18641)
SyncDatabase refuses to cache any statement containing a wildcard, so every SELECT * FROM tasks recompiled on each call. getTask sits on the dispatch and lifecycle paths and listTasks runs several times per coordinator tick on the 2s poll, so those recompiles were continuous during a run. Project TASK_COLUMNS explicitly, the same fix #18420 applied to the graph publish, using the column list already imported in this file. getTask drops from 7.88us to 2.18us per call. |
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cae616384f |
perf(orchestration): bound the worker terminal archive in linear time (#18622)
boundArchiveLines built its kept-lines array with kept.unshift() per line, which is O(n) per call. The 256KB char budget admits ~262k lines when they are short, so a blank-line-heavy terminal tail turned the truncation into a quadratic main-process stall: 4.3s for a 300k-line input here, versus 6ms after collecting newest-first and reversing once. Order and truncation boundary are unchanged. |
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ef428d879e |
feat(relay): tell the phone when its desktop is signed out (#18698)
On 2026-09-04 an auth outage signed ~21,600 desktops out of Orca Cloud and every paired phone showed the generic "Can't reach desktop" for hours. The desktop knew why, the cell watched it happen, and neither could say so. The desktop now names auth loss on its control close reason; the cell remembers that reason per (userId, relayHostId) and replays it as the close reason of the 4404 it already sends a phone whose host is absent; the phone turns it into "Desktop signed out — sign in to Orca on your desktop to reconnect". Retry cadence, close codes and every message body are untouched. The reason rides the WebSocket close reason because there is no additive JSON channel to a shipped phone: RelayPhoneHelloSchema, RelayAuthSchema and the director's ResolveResponseSchema are all zod .strict(), and /v1/connect rejects any query string outright. A new close code was also rejected — an old phone would fall out of mobileRelayRecoveryFor and off the 5-15s host-offline backoff onto the faster transport backoff. The cell keeps the reason in memory rather than Postgres: a phone reaches the cell its host's assignment row already names, which is the cell that saw the close, and losing it on a cell restart degrades to today's verdict rather than a wrong one. |
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886fcf083f |
fix(runtime): let a scoped worktree listing report the host it could not cover (#18645)
* fix(runtime): let a scoped worktree listing report the host it could not cover
`orca worktree list --repo <id>` passed `[]` as `knownHostIds`, so a scoped
listing could never report a gap — for any host kind, reachable or not. With zero
matched rows both scope lists are empty by construction, and the answer is
`{hostIds: [], omittedHostIds: []}`: byte-identical to a repo that genuinely has
no worktrees. docs/reference/ssh-execution-boundary.md forbids a listing from
implying exactly that.
Measured on one runtime with one refusing SSH host, in the same second:
unscoped totalCount 0 omittedHostIds ["local","ssh:<target>"] (+ --host selectors)
scoped totalCount 0 hostScope {"hostIds":[],"omittedHostIds":[]}
The same runtime reports nine omitted hosts unscoped and zero scoped against a
live profile, so this is not a subtle inconsistency: it is one runtime giving two
contradictory answers about its own coverage.
A scoped listing now names the one host the caller asked about. That costs
nothing when rows come back — the host lands in `covered`, so it is never
reported omitted — and is the whole answer when they do not. Hosts the caller
scoped out are still never named, which a test pins, because naming them all is
the obvious over-correction.
* test(runtime): pin the scoped host derivation for local and executionHostId repos
Review flagged that the host-scope cases only covered a connectionId repo.
getRepoExecutionHostId reads two spellings, and a scoped listing naming the
wrong host would be worse than naming none, so both are pinned. Both fail with
the fix reverted.
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637dc30a32 |
fix(relay): observe Windows PTY child processes instead of answering false (#18591)
* fix(relay): observe Windows PTY child processes instead of answering false `processHasChildren` returned a hardcoded `false` on Windows, and a hardcoded negative is indistinguishable from a measurement. Every close guard reads it as "nothing is running in this pane", so an SSH-to-Windows tab running a build closed with no prompt. Measured on a real Windows SSH host: a live `PING.EXE` under the pane's `cmd.exe` still reported `hasChildProcesses: false`, while the identical harness on Linux reported `sleep` / `true`. Windows has no `ps`, but it does have a process table, and the pane walk over it already existed for the foreground reader. The answer now comes from `queryWindowsPaneProcessInventory`; a table it could not read reports `unverifiable` rather than a fabricated negative. `hasChildProcesses` is a boolean, which cannot hold the third answer, and it is read both as "busy, do not close" and as "the agent took the PTY, safe to type into" — so no single mapping of `unverifiable` is safe for both. The verdict moves to a new optional `childProcessEvidence` member that the close paths read; the boolean keeps its exact meaning for every client that cannot. Cost: `pty.inspectProcess` is the polled path and a relay host has no `@vscode/windows-process-tree`, so its table read falls back to the 1.36s CIM scan. Polling that would reinstate the fork storm the shared table exists to prevent, so only a caller whose answer decides something asks for the scan. * fix(runtime): forward scanChildProcesses through the environment inspection RPC `guardRunningTerminalClose` asks the host to pay for a real child-process read, but the environment path dropped the option before it reached the wire: the renderer sent only `expectedIncarnationId`, and the RPC schema — the shared `TerminalHandle` — silently stripped anything else. A host routing that pane through an SSH relay then declined to scan and answered `unverifiable`, which `inspectionReportsRunningWork` reads as running work. The result was a close confirmation on an idle pane, which is the nag this PR exists to avoid. Forwarded through all four layers: renderer payload, RPC schema, method handler, and the runtime/controller signatures. The schema is a dedicated extension rather than a field on `TerminalHandle`, so `clearBuffer`/`agentStatus`/`isRunningAgent` keep refusing an option they have no use for. The silent strip is not itself the defect — it is what makes a new optional member safe to send to an old host, per docs/reference/remote-wire-compatibility.md. The defect was the schema and its caller drifting inside one version, so the tests pin the registered method rather than the schema alone: pointing it back at `TerminalHandle` compiles, parses, and drops the option. Found by review on #18591. * fix(terminal): teach the shared running-work probe the third child-process answer Rebasing onto main landed `probePtyRunningWork`, which is a better home for this than the close guard: it already speaks `live` / `unverifiable` / `exited`, and it exists so the tab-close and window-close guards cannot drift. The child-process verdict belongs there, not in a parallel predicate beside it. So the mapping moves into the probe and `inspectionReportsRunningWork` is deleted rather than kept alongside. The probe now asks for the scan, and a host that could not observe the pane reports `unverifiable` instead of collapsing onto `exited` -- which is what `hasChildProcesses: false` meant on every Windows relay. The pane-close path is routed through the same probe for the same reason; it was the third caller asking this question through a direct inspect of its own. |
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fb69f00b65 |
fix(hosts): resolve a folder workspace's SSH host from the repo's host, not its raw connectionId (#18598)
* fix(hosts): resolve a folder workspace's SSH host from the repo's host, not its raw connectionId
`resolveFolderWorkspaceHost` inferred a workspace's host by reading
`repo.connectionId` directly. SSH ownership has two spellings on a repo row, and
a row carrying only `executionHostId: 'ssh:<target>'` has no `connectionId` to
read — so it counted as a local repo and the workspace resolved `{ kind: 'local' }`.
That is an execute-here answer for a workspace whose files are on an SSH host,
the #11163 class, and it fires on a well-formed row.
Resolve the host first, then read the target off it. Every other row keeps its
existing contribution, including a `runtime:` row's nested SSH target: that
target is not this client's to dial, but narrowing it here would be a second
behaviour change riding on this one. The runtime branch above still answers
`local`, and now says so — `FolderWorkspaceHost` has no runtime variant, and
widening the type is its own change, not an oversight to be silently corrected.
Three smaller items that stand on their own:
- `resolveWorktreeExecutionHost` gains a `malformed` reason distinct from
`unknown`. `unknown` (nothing carries the id) is a verdict the launch path may
legitimately dispose of as a plain local folder; `malformed` (the row named a
host that cannot be parsed) must fail closed. One word for two situations is
the shape that lost the distinction in #18006. The strict read is private to
that module: `getRepoExecutionHostId` stays the answer everywhere else, since
its fall-through to `local` is harmless for the grouping, label and index
callers that are nearly all of its ~340 call sites.
- `readAllWorktreeMetaForRepo` / `readWorktreeMetaForRepo` replace four
open-coded copies of the same host-qualified read (the F7/F8 lockstep shape).
- `getExecutionHostLabel` answers 'Unknown host' rather than 'All hosts' for an
id that names no host. Showing one unroutable row as though it were on every
host is wrong on its own terms. Plain English like every other label in that
module, none of which resolve through the renderer's i18n catalog.
* fix(hosts): resolve the host in candidate selection too, not just in resolution
The first pass fixed how a repo row is classified once it reaches
`resolveFolderWorkspaceHost`. The candidate filter decides which rows reach it at
all, and it read `repo.connectionId` raw as well — so an SSH-only row outside the
project-group subtree was dropped before the new logic could see it, and the
execute-here bug survived for the population the fix was for, via a different
path. Found in review by CodeRabbit.
Three repo-row reads had the same root cause, not one:
- the scope-connection filter, comparing a path repo's raw field against the
workspace/group connection;
- the group-connection set, built from group repos' raw fields;
- that set's membership test against path repos' raw fields.
The last two are one comparison with the mismatch on either side, so resolving
only the path side would have reintroduced it from the other direction.
All three, plus the resolution loop, now go through one `getRepoScopeConnectionId`
helper. Non-SSH hosts still fall back to the raw field, so a `runtime:` row keeps
contributing its nested target exactly as before.
The new tests use a repo matched only by path, outside the subtree — the
population every existing test missed, which is why four passing revert-tests
did not catch this. One of them is labelled as pinning the resolver rather than
the filter: under the old raw read both rows came back connectionless and matched
each other by accident, so it survives a filter revert and must not be counted as
coverage for it.
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6c4797ca9f |
perf(runtime): stop the expired-SSH-lease sweep from rescanning every tab layout (#18409)
* perf(runtime): stop the expired-SSH-lease sweep from rescanning every tab layout The `runtime:syncWindowGraph` IPC handler is the most expensive thing the main process does: measured on a real session it costs 20.7 ms per call at 0.71 calls/sec, which is 1.47% of wall and ~17% of all main-thread JS. 76% of that sits in one subtree: `getHydrationTargets` -> `hasRuntimeOwnedPtyCandidate` -> `getRecentExpiredSshLease` -> `findTerminalTabIdForLeaf`. Three pieces of pure waste, none of which change an answer: 1. `getRecentExpiredSshLease` evaluated its cheapest and most selective filter LAST. `SSH_PANE_RECOVERY_GRACE_MS` is 30 s, so nearly every stored expired lease fails it — but only after the predicate had already resolved the lease's leaf to its current tab, which is the expensive part. The freshness and reattach-eligibility gates now run first; the predicate is otherwise identical and side-effect free, so the selected lease is unchanged. 2. The sweep ran once per tab. `workspaceSessionWorktreeHasRuntimeOwnedPtyCandidate` asked "does a recent expired lease name THIS tab" for every tab in a worktree, and each ask re-read and re-filtered the whole lease list. It now resolves the worktree's recoverable tab ids once, lazily, so a worktree whose first tab already owns a serve/SSH pty still never sweeps. 3. `findTerminalTabIdForLeaf` allocated a `Set` and walked a whole pane tree per tab to answer one leaf lookup. It now reads a leafId -> tabId index built once per layouts record and reused until a layout object is replaced, which keeps first-tab-wins ordering identical. Measured by replaying a real 414-worktree / 801-tab / 137-lease session: 2.51 ms -> 0.27 ms per publish for this subtree, a 9.3x cut. No user-facing trade-off: same leases selected, same tabs reported recoverable, same SSH pane recovery affordance. * fix(runtime): revalidate the leaf membership index on root identity persistPtyBinding grafts a leaf by assigning `layout.root` on the SAME layout object inside the SAME layouts record, so the layout-identity revalidation kept serving an index blind to the grafted leaf and findTerminalTabIdForLeaf answered `undefined` where the pre-index linear scan answered the tab. That fed the SSH reattach fence (restoreReattachedPtyRuntime) and the expired-lease pane recovery resolver, both of which then fall back to the frozen lease tabId. Membership is a pure function of the root tree and no writer mutates a node in place, so root identity is the exact revalidation key — same O(tabs) pointer compare, no new cap, cadence or staleness window. * perf(runtime): resolve a leaf's tab by scan instead of a cached membership index Fix #3 of this PR cached a leafId -> tabId map per layouts record and revalidated it by comparing every root reference on every read. It was the only mutable cross-call state in the change, the only piece carrying a staleness invariant, and it had already needed one follow-up fix (1c23c544) after a layout-identity key turned out to be blind to `persistPtyBinding`'s in-place `layout.root` graft. The index was never what produced the measured win. After fix #1 moves the freshness gate first, the reporter's replay never calls `findTerminalTabIdForLeaf` at all — every stored expired lease is older than the 30 s recovery grace, so the entire 24.9 ms -> 0.9 ms comes from fixes #1 and #2, both of which are unchanged. `findTerminalTabIdForLeaf` is now an allocation-free scan over the existing `layoutContainsLeafId`, which short-circuits on the first matching leaf instead of materialising a Set per tab. Same answers, same first-tab-in-record-order semantics, no revalidation key, nothing for a writer to invalidate. Re-measured on the same 414-worktree / 801-tab / 137-lease replay (process.cpuUsage deltas, median of 3; wall clock is useless on this box): scenario main index scan all leases stale (replay) 24.86 0.87 0.88 ms/publish one lease inside the grace 24.31 1.08 1.04 ms/publish all 137 inside the grace 18.04 3.71 4.31 ms/publish The measured win is unchanged. Only the synthetic worst case — every one of 137 leases expiring inside the same 30 s window — pays for the cache's absence, and even there the two ranges overlap because the index's own revalidation is O(tabs) per lookup. Removes 208 net lines. `terminal-leaf-tab-resolution.test.ts` keeps the parity cases and adds the guard the cache needed: a subtree replaced in place after an earlier read must be visible to the next one. That test fails against the index. * docs(runtime): say why the leaf scan keeps Object.keys 'Allocation-free' overstated it — Object.keys does allocate one key array. A guarded for...in trades that for a hasOwn call per tab and measures slower, so record the reason the next reader does not re-litigate it. |
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ef9e9f3fd9 |
perf(main): take the idle ownership poll off the main thread and batch pending marker probes (#18425)
* perf(main): take the idle ownership poll off the main thread and batch pending marker probes The runtime-metadata ownership watch ran existsSync + readFileSync + JSON.parse on the main thread every 10s for the life of the process. Move it to fs/promises with an ENOENT catch (dropping the existsSync pre-check, a TOCTOU race anyway) and guard overlapping ticks. The base-directory poller's pending `.git` marker probes ran serially, costing D x latency per tick for up to 300 ticks. Route them through the same forEachWithConcurrency bound the full scan already uses. * test(runtime): pin that a shutdown-straddling ownership read cannot republish CodeRabbit flagged the async read resuming after stop(). The cleared activeTransports guard already neutralizes it; this test pins that guard rather than the interval teardown. |
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07e50e9513 |
perf(terminal): scan only new tail lines for the wait-blocked sentinel (#18437)
* perf(terminal): scan only new tail lines for the wait-blocked sentinel The wait-blocked scan must prove a signal is ABSENT, so it could not early-exit and re-tested all 2000 retained lines with a 13-alternative regex on every scan (20/s per streaming PTY) even though only ~20 lines were new. Index the matching line indices per tail-array identity and carry them across appends, testing only the lines each append produced. Also carries the retained character total and the redraw prefix's right-trimmed state across appends, so a saturated tail is no longer re-summed and re-scanned per chunk. * perf(terminal): build the carried tail window and its match index from one constructor |
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34222e0137 |
perf(orchestration): project explicit columns so the graph publish stops recompiling SQL (#18420)
* perf(orchestration): cache the prepared statements the graph publish recompiles SyncDatabase refuses to cache any `SELECT *` — node:sqlite can build the first row after a schema change from stale column names — so every wildcard read in the orchestration DB recompiles its SQL on each call. The graph publish runs that fan-out once per pane, ~0.7 times a second, forever. Add a per-connection prepared-statement cache scoped to the orchestration DB, whose schema is frozen in the constructor (createTables/migrate/trigger) and whose resets are DELETE-only, and route the buildByPaneKey -> getForHandle -> getRecent path through it. 5 publishes over 2 panes: 30 compilations -> 2. * perf(orchestration): project explicit columns so the existing cache covers the hot path Replaces the branch's second statement cache. The six graph-publish reads were uncacheable only because they were spelled `SELECT *` / `SELECT t.*`, which SyncDatabase refuses to cache (node:sqlite can build the first row after a schema change from stale column names). Spelling the projection out from type-checked column tuples makes them cacheable by the SyncDatabase LRU that is already merged, already bounded, and already clears on DDL — so the WeakMap and its documented cross-connection ALTER hazard both go away. Drift is caught at build time: `satisfies readonly (keyof Row)[]` plus an `Exclude<keyof Row, Cols[number]> extends never` assertion pins list vs type at tsc, and a PRAGMA table_info test against a freshly migrated OrchestrationDb pins list vs schema. Same win, verified: 6 compilations per publish -> 2 total then 0, identical to the WeakMap branch; 92/96/91 us CPU per 2-pane publish before, 11-12 us after on both. |
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5d8532f6d3 |
fix(worktrees): resolve the execution host at both worktree-create entry points (#18545)
Two entry points create the same workspace and disagreed about how to read its host. `orca-runtime-create-managed-worktree.ts:63` resolved through `getRepoSshConnectionId` and then normalized the row; the `worktrees:create` IPC handler branched on raw `repo.connectionId` (`register-worktree-create-handlers.ts:66-69`). So a repo naming its owner only as `executionHostId: 'ssh:<target>'` created remotely through the runtime and ran `git worktree add` on the client against a remote path through IPC (#11163). Same repo, two entry points, different answers. Both now take one route, resolved through the existing layer (`getRepoExecutionHostId` -> #18296's `resolveGitRouteForHost`). No new resolver. The row normalization on the `ssh` variant is kept, and it is a **workaround, not the pattern**. `createRemoteWorktree` and its callees re-read `repo.connectionId!` at five depths in `ipc/worktree-remote.ts` (1627, 1847, 1848, 1865, 2029), so the resolved connection has to reach them through the field they already read. It travels only as far as that object does — anything downstream that re-reads the row from the store still sees the unnormalized one, and it cannot express the `runtime:` refusal on its own. Proper fix, deliberately not done here: give that pipeline an explicit connection parameter and delete `repo.connectionId!` from it so every reader becomes a compile error, the technique #18307/#18325 used. That is a change inside a 2800-line module plus its callers, and it wants its own PR. Three answers that used to collapse into one, now distinct at both entry points: - `executionHostId: 'ssh:*'` with no `connectionId` -> that SSH host (IPC used to create locally); - `executionHostId: 'local'` with a surviving `connectionId` -> local, since a local row cannot nest an SSH namespace. This is what `getRepoSshConnectionId` and therefore the runtime sibling already answered; IPC used to go remote; - `runtime:<env>` -> refused. Its worktree is created by that environment's own server and the SSH target on its repo row is that server's nested one, addressable only as (environmentId, targetId). The renderer already routes runtime-environment creates over `worktree.create` RPC rather than this IPC channel, so reaching either entry point with one is a routing mistake. Matches `workspace-cleanup-git-route` and `runtime-git-command-target`. Folder-workspace creation is untouched on both sides: it is a registration, not a filesystem create, so the route is resolved after that branch on the IPC side, and on the runtime side only the agent trust write consumes it — where a `runtime:` host now yields `null` instead of the nested target, so the write stops going to a same-named target in this client's table. No wire or persistence change: the normalized row is a local value passed to the create pipeline, never stored, and `CreateWorktreeResult` is untouched. |
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3c91404820 |
fix(worktrees): route managed worktree removal by resolved execution host (#18529)
`removeManagedWorktree` resolved its host once — for the metadata prune (`cleanupHostId ?? getRepoExecutionHostId(repo)`) — and then read raw `repo.connectionId` for every step that touches the filesystem: the `git worktree list` deciding whether the path is registered, the provider handed to the unregistered-removal branch, the registered-remote-vs-local fork, and the PTY/history teardown. One function, two spellings. For a row naming its owner only as `executionHostId: 'ssh:<target>'` — the exact class #18296 names — the list ran on the client against a remote path, `removeRuntimeUnregisteredWorktree` was entered with `provider: null`, and the metadata was pruned under `ssh:<target>` while a same-named *local* directory was the one considered for deletion (#11163). #18358 made this reachable: it migrated the cleanup scan, so `executionHostId`-only rows now surface as removable candidates, but removal did not move with it. Routing is now one answer for the whole removal, taken from the host the prune already used, through #18296's host-keyed dispatch. The ambiguous `provider: SshGitProvider | null` carrier is deleted from the callees rather than supplemented, so every remaining reader is a compile error in the typed modules that do the destructive work (`runtime-unregistered-worktree-removal`, `runtime-registered-remote-worktree-removal`, `runtime-worktree-filesystem`). The orchestrator itself carries `@ts-nocheck` from its mechanical split, so that guarantee does not reach it — tests cover it instead. Every change is in the refusing direction; nothing became more aggressive: - an `ssh:` host with no registered provider throws instead of deleting a client-side path (`requireSshGitProvider` already threw for rows that spelled the same host as `connectionId`); - `runtime:<env>` throws rather than dialling a same-named target in this client's namespace, matching `workspace-cleanup-git-route` and `runtime-git-command-target`; - the folder-workspace teardown resolves its connection instead of reading the raw field, so a `runtime:` row stops dialling the wrong namespace. No wire or persistence change: `removeWorktreeMetadataAndHistory` already took the resolved host, and the removal RPC result shape is untouched. |
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98e77ef1a7 |
feat(mobile): structured native Codex chat (#18074)
* feat(mobile): finalize structured native Codex chat * fix(mobile): close structured chat lifecycle gaps * wip(mobile): fence stale structured inventory and bound operation-id retention Fence local structured-session inventory and subscription responses with a sync generation so a toggle-off clear, reconnect restore, or retry cannot apply a mirror from a superseded instance. Bound mobile ambiguous operation-ID retention at 128 with unmount cleanup. Staged on the reconcile branch only: the sync module is now 312 lines and needs a real split before this can reach the PR head. * fix(ci): split the structured session-tabs sync and give static analysis mobile types The local structured session-tabs sync module outgrew the 300-line cap once it took on generation fencing, so split it along its real seams instead of raising the cap: the generation/cursor fence, snapshot projection, snapshot apply, inventory refresh, and the subscription loop. The original path stays as a barrel so no importer moves. Repoint the host-session-mirror settle census at the apply module, which owns two receipts now — the snapshot it mirrors in, and the toggle-off teardown that retracts what it published. The teardown receipt is named rather than anonymous so the pin says which direction it settles. The changed-code quality gate lints mobile files and resolves their types from mobile/node_modules, but mobile is a separate pnpm project that the root install never populates, so every mobile type degraded to an `error` type and the gate reported phantom findings. Install mobile dependencies in static analysis when the diff touches mobile, gated on a new classifier output. * fix(mobile): let a slow capability handshake still reach connected The mobile capability update is an advisory whose result is discarded, yet an unanswered one was fatal while an explicit rejection was tolerated. A 5s timeout on the direct client force-closed the socket, and on the relay path it failed `confirmResume` before `connected` was ever published, so a consistently slow link redialled forever. Both paths now share one helper that settles every ambiguous outcome (timeout, mid-flight drop) like a rejection and rejects only when the frame never reached the wire — the one case nothing else recovers from, since the socket's own desync force-close is gated on already being connected. The generation guard still keeps a replaced session from connecting. Retained structured-session operation ids were capped at 128 with oldest-first eviction, but every retained id belongs to a send whose outcome is unknown, so eviction turned a user's retry into a second message on the host. Bound the map by expiry against the id's own embedded timestamp instead, mirroring the host's operation ledger, so no id is released while the host would still honour it. Also give the mobile CI install the root install's lockfile drift guard (mobile's lockfile carries patchedDependencies a silent rewrite would drop), gate mobile_dependencies on should_run, and key the pnpm store cache on both lockfiles. * refactor(mobile): extract the relay pending-request registry The merge composed two independently-sized changes — this branch's capability handshake settle and main's dial-stage tracking — pushing the relay session file to 304 lines against a 300 cap. Neither side broke it alone. Move the in-flight request registry (id generation, tracking, settlement, and reject-all with its delivery-ambiguity marking) into RelayPendingRequests, matching the existing collaborator pattern alongside RelayDialStageTracker and RpcSessionLivenessWatchdog. No behavior change. --------- Co-authored-by: Merge Sim <sim@local> |
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95eed52801 |
fix(cli): report which hosts a worktree listing covered, and stop the cap starving remote ones (#18417)
`orca worktree list` returned zero of 24 SSH worktrees at the default limit (#18104). Rows are resolved repo by repo, so every SSH repo's rows land contiguously at the end of the fleet order — the 24 remote rows sat at indices 496-520 of 521 and a plain `slice(0, 200)` never reached them. The omission was not fully silent: text output printed `truncated: showing 200 of 521` and JSON carried `totalCount` / `truncated`. What was missing is that the omission was *categorically every remote host* — no host column, no `hostScope`, nothing to distinguish "200 of 521" from "one host is entirely absent". Per docs/reference/ssh-execution-boundary.md, a listing that does not name its scope reads as absolute. Adopt the mechanism `terminal list` already has rather than inventing a second one: - `RuntimeTerminalListHostScope` becomes an alias of a shared `RuntimeListingHostScope`, now also carried (optional, so old hosts are unaffected) on `worktree.list` and `worktree.ps` results. - `src/shared/host-balanced-listing-page.ts` round-robins the row cap across hosts and returns the survivors in the caller's original relative order, so the page stays a subsequence of the unbounded listing and nothing downstream re-sorts. An uncapped listing is returned unchanged. - `worktree list` / `worktree ps` text output gains a `host=` column and the same trailing `scope:` line `terminal list` prints. Third defect, same mechanism: `hostScope.omittedHostIds` is built from the runtime's own bookkeeping, so it names `runtime:` ids for servers that are no longer paired — 6 of 9 in the recorded QA run hard-error when queried. Since `hostScope` is *the* documented way to complete a partial listing, that makes the mechanism unreliable for its intended use. Annotate rather than filter. Dropping an id would shrink what the listing admits it did not cover, and the boundary doc requires a listing to name its gaps — the gap is real whether or not this machine can name the host that owns it. `src/cli/omitted-host-scope-selectors.ts` resolves each omitted id against this machine's pairing store and the runtime's SSH-target registry and attaches the exact flag that reaches it, or `null` marked "not selectable from this machine". This is a client-side annotation: nothing new goes over the wire, it answers "can I select it" and never "is it up", and the SSH round trip is only paid when an `ssh:` host was actually omitted. No `--host` filter was added; the host column plus scope line covers the reported need without a new selector axis. |
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a35451f5b9 |
fix(relay): stop self-closing the control socket on unknown messages (#18400)
* fix(relay): stop self-closing the control socket on unknown messages
The desktop control client tore its own relay control WebSocket down with
code 4401 "unknown control message" for any well-formed control frame it
did not recognize. handleMessage() funneled everything that was not
ping / conn-open / drain / a tracked request reply into
failProtocol('unknown control message'), which closes the socket and
orphans the origin.
Three real frames hit that branch:
- A relay reply that arrives after the desktop's 10s request deadline
already deleted the pending entry. Relay control operations run DB
transactions that can exceed 10s under load, so resolveMessage() finds
no waiter and returns false.
- A control-error carrying no reqId (or an unknown one), including the
relay's own 'unknown_control_message' reply to a host command it could
not route.
- A newer relay's opcode that this build predates.
Fleet telemetry shows ~15 of these closes per day across app versions
1.4.175..1.4.197, so it is version-agnostic. The self-close was also far
more costly than the message that caused it: the relay session dropped to
'orphaned' and answered the phone with HOST_OFFLINE (4404) for the orphan
grace window, then the desktop had to re-register through the director's
503 reconnect throttle, stretching a single stray frame into minutes of
mobile downtime.
Per docs/reference/remote-wire-compatibility.md Rule 2, an unknown but
well-formed control frame must be dropped, not treated as fatal. Log and
ignore it; malformed JSON, binary frames, and messages before activation
still close as protocol violations.
Adds unit tests for the unknown-opcode drop, the timed-out-reply drop,
and the preserved malformed-frame teardown.
* docs(relay): correct the ignore rationale, drop the Rule 2 misattribution
Rule 2 of remote-wire-compatibility governs the SENDER of a new terminal-
stream opcode and treats the receiver's silent drop as a hazard, not a
mandate. Reframe the comment around the actual justification: the decoder
convention of dropping unknown frames, the control channel's lack of an
opcode negotiation step, and the incident cost asymmetry.
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4cc0b8de61 |
perf(hot-paths): delete allocation-only work in sort, explorer, monaco, rpc, snapshots (#18372)
* perf(hot-paths): delete allocation-only work in sort, explorer, monaco, rpc, snapshots * fix(perf): revert snapshot revision fast-path — same revision can carry a new session * perf(hot-paths): drop the unproven rpc buffer rewrite, dedupe the equality helpers - Revert the unix-socket chunk-carry change. Its comment claimed it avoided O(n^2) rescans, but chunks is reset to [remainder] every data event, so the join plus the tail byteLength is two passes where the old code did one; benchmarks showed no win. It also moved consumed-frame bookkeeping out of the closure, so a synchronous throw from the handler would re-dispatch frames. - project-host-compatibility: fold the two byte-identical array comparators into one generic arraysEqualByJson. - smart-attention: drop the leftover byTab.size === 0 branch that returned the same value as the line after it. |
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d05dd8ef50 |
fix(source-control): route hosted reviews by resolved execution host (#18382)
`ForgeProvider.createReview(repoPath, input, connectionId, options)` and the `connectionId` on `ForgeProviderRepositoryContext` carried the same collapse the five prior migrations closed: `string | null` spells "genuinely local", "runtime host" and "could not resolve" with one value. Because it was decided two layers up -- `repo.connectionId ?? null` at the `hostedReview:*` IPC handlers and in `RuntimeHostedReviewCommands` -- a row naming its owner only as `executionHostId: ssh:<target>` ran the whole review path against this machine's copy of a remote path (#11163): `git rev-parse`, `git status`, the base-on-remote ref probe, the upstream divergence read, and `gh`/`glab` with no host flags. Replace it with a required `ExecutionHostId` threaded from the decision point through the contract, routed by #18296's `resolveGitRouteForHost`. The parameter is removed rather than added beside, so all five implementations -- GitLab, GitHub, Bitbucket, Azure DevOps, Gitea -- and every caller became a compile error. None of these families carries `@ts-nocheck`, so unlike #18325 that guarantee is real here; `orca-runtime-file-commands.ts` does, but it only constructs `RuntimeHostedReviewCommands` with unchanged deps. Also fixed at the sites: - The branch cache scoped entries on `connectionId ?? ''`, so two rows at one path on different hosts shared one cached review, one backoff deadline and one invalidation. Keyed on the resolved host now, as #18377 did for its probe key. - `hostedReview:create` resolved shared symlink paths and normalized worktree paths off the raw field, so an `executionHostId`-only SSH row read `orca.yaml` and `resolve()`d a remote POSIX path on the client. Those ask the file-holder question -- `getRepoSshConnectionId` -- not the dialable one. - An SSH host with no provider now refuses inside the git-state layer instead of reaching the local branch, keeping "remote and unreachable" distinct from "local" (docs/reference/ssh-execution-boundary.md). `runtime:` is a routing mistake inside `hostedReviewSshConnectionId` -- that environment's server runs its own git, and the SSH target on its repo row is nested in that server's namespace, so dialing it here reaches a same-named box of ours. But store-backed callers ask `getRepoHostedReviewExecutionHostId` first, which is "what may this client dial" and answers `local` for a `runtime:` row. That is deliberate and matches #18377: the runtime registration controller only adopts a `runtime:` stamp onto a row with no `connectionId` (`runtimeRepoMatchesExecutionHost` refuses to match an SSH row), so the checkout really is in this process and refusing would regress a runtime server creating reviews for its own rows. No wire change. `connectionId` on `CreateHostedReviewArgs`, `CreateStackedHostedReviewArgs` and `HostedReviewCreationEligibilityArgs` in src/shared/hosted-review.ts is untouched -- every host already ignores it in favor of the repo row, and removing it from the request types would only churn the schema older clients still populate. The main-side eligibility input `Omit`s it so nothing on this side can read the ambiguous field again. |
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573537ecd4 |
feat(cli): make terminal close the canonical workspace teardown (#18073)
* fix(runtime): recover stale session owners and await retirement * fix(runtime): preserve session hydration and smoke compatibility * test(runtime): cover empty and unindexed session owners * feat(cli): make terminal close the canonical workspace teardown * fix(preload): align ssh termination result type * test(runtime): assert folder hydration owner * fix(runtime): fence legacy terminal stop by worktree host * fix(preload): reconcile ssh result import with main * fix(runtime): keep same-id sibling hosts out of workspace close The stale-owner fallback in the session controller re-routed any worktree whose catalog partition had no tabs to whichever other partition held tabs. Only `runtime:` environment ids rotate across relay restarts; `repoId::path` legitimately repeats across hosts, so an SSH workspace close could retire the local copy's tabs and resume records, or flip owners mid-close and strand the SSH PTY. Restrict the fallback to runtime hosts, and pin the session partition once per workspace close so record clearing targets the partition that owned the tabs. * test(runtime): give the cross-host close fixture a real resume record * fix(preload): take main's ssh-bridge import order so the merge stays duplicate-free |
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316ec38f67 |
fix(repos): route icon and remote-identity probes on a resolved execution host (#18377)
`detectRepoIcon`, `detectRepoIconAndUpstream`, `detectGitHubAvatarIcon`, `detectRepoFileIcon` and `probeGitRemoteIdentity` took a `connectionId`-shaped parameter threaded down from their callers. That shape spells "runtime host", "unresolved" and "genuinely local" all as one falsy value, and because it is a *parameter* each caller decided independently what to pass — a wrong answer was invisible at the boundary. Replace it with a required `ExecutionHostId` and route through #18296's `resolveGitRouteForHost` / `resolveFilesystemRouteForHost`. The parameter is removed rather than added beside, so every caller became a compile error. No new resolver, no wire change: nothing these modules return carries a host id. Fixed at the call sites: - `repo-git-remote-identity-enrichment` read `repo.connectionId` raw, so a row minted with only `executionHostId: ssh:<t>` ran `git remote -v` against this machine's copy of the path (#11163), and a `runtime:` row handed its *nested* SSH target to this client's dispatch table — a same-named box of ours. - Its location key had the same collapse, so two rows at one path on different hosts shared a probe, an abort controller and a backoff deadline. - `runtime-repository-fork-backfill` guarded on `repo.connectionId`, so an `executionHostId`-only SSH row had its upstream read off the client. `runtime:` is refused inside the modules (this process does not execute another environment's git or filesystem), but store-backed callers ask `getSshTargetIdForExecutionHost` — "what may this client dial" — so a `runtime:` row keeps the probe this process has always run for it. Registering and cloning stay `local` on purpose: those controllers do the filesystem work here, whatever host id is stamped on the row (see `assertCloneHostIsSupported`). |
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968dbd905f |
perf(renderer): take the English catalog and the xterm WebGL addon off the boot graph (#18326)
* perf(renderer): take the English catalog, xterm WebGL addon and emoji data off the boot graph The renderer's boot graph — the entry chunk plus its 331 modulepreload links, all fetched and evaluated before first paint — carried three payloads nothing needs at that moment. `en.json` (644 KB) was an eager i18next resource, but every renderer string goes through `translate(key, fallback)` and `en` resolves that inline default, so most of the catalog was dead weight. The renderer now bundles a generated `en-runtime-required.json` holding only the 2,583 of 13,828 entries a default cannot reproduce: plural-suffixed keys, keys whose catalog value differs from a call site's default, and keys no call site references with a literal default. `en.json` stays the translator source and the input to the four lazy catalogs. `@xterm/addon-webgl` (243.6 KB) and `emojibase-data` (170 KB) are now primed right after the React root renders instead of statically imported. The load stays eager and `attachWebgl` stays synchronous — it reads the resolved constructor — so no terminal ever falls back to the DOM renderer for a frame. `isPluginPanelTabKey`/`isQualifiedPluginKey` move to schema-free sibling modules, re-exported from `plugin-manifest.ts`. This evicts the plugin manifest schema graph from the boot chunk but measures ~0 KB, because six other shared modules still put zod on the boot path. Boot graph: 332 chunks / 5107.2 KB -> 336 chunks / 4161.5 KB (-945.7 KB, -18.5%). A new ratchet parses the built index.html and fails if `en.json`, `@xterm/addon-webgl` or `emojibase-data` is preloaded again; it runs at the end of every `build:electron-vite`. * chore(i18n): pin the generated English subset to LF and mark it generated * fix(i18n): make the runtime-catalog gate merge-robust and prime emoji data in tests CI builds the merge of a PR with main, so a byte-for-byte comparison against a committed generated file fails the moment any unrelated PR adds a translate() call — which is what happened here. The check now asserts the property that actually matters instead of byte equality: every runtime-required entry is shipped, and nothing shipped disagrees with en.json. Entries that stopped being required are dead weight, never a wrong string, so they are reported and tolerated. Failures now name the offending keys rather than saying "stale". The generator itself was already deterministic (plain code-unit sort, no locale collation, order-independent set construction); a test now pins that a reversed call-site walk produces byte-identical output. Test fixes for the catalog prune and the deferred emoji load: - browser-search / NativeChatSupportedAgents asserted key presence on the renderer's runtime resource. The durable contract is en.json — the renderer deliberately no longer bundles entries a call site default reproduces — so they assert against the translator catalog. - Four emoji tests typed a shortcode in the same tick as mount, before the catalog the hook primes on mount resolves. Not reachable by a human; the tests now await the prime. * revert(renderer): keep the emoji shortcode catalog statically imported Deferring emojibase-data introduced a window that did not exist before: until the dynamic import settled, getPrimedEmojiShortcodeEntries returned [], so exactShortcodeIndex built an empty map and replaceCompletedWorkspaceEmojiShortcode returned null — leaving a typed `:wink:` in the field literally, and persisting it as the workspace display name. Pre-change the shared catalog was statically imported, so the first call at any tick returned full data. The window is reachable by anything that dispatches input in the same task as the field's mount effect — Playwright/CDP in the e2e suite and agent automation both do, and the WorktreeMetaDialog test failure was exactly that, producing 'Feature 😉' instead of 'Feature 😉'. Nothing that resolves a shortcode can be async without that race, and a wrong persisted name is not an acceptable trade for 166.7 KB, so the deferral is reverted rather than papered over in the tests. The boot-graph ratchet drops its emojibase-data probe and records why. Boot graph: 5108.9 KB -> 4329.9 KB (-779.0 KB, -15.2%), down from -945.7 KB. * fix(terminal): make the deferred WebGL addon load recoverable and refit on late attach Two defects the deferral introduced, neither possible with a static import. A failed load latched the DOM renderer for the whole session. `.then(onOk, onError)` settles fulfilled, so the memoized promise was cached forever with a null constructor: attachWebgl's re-prime got the cached promise back, and resetTerminalWebglSuggestion — the documented "GPU setting changed, retry" path — could not clear it either. The rejection path now clears the memo, latches the queued panes the way a failed construction does so they retry at a recovery boundary rather than every frame, and caps attempts so a genuinely missing chunk is not re-fetched forever. The recovery boundary re-arms it. The queued-attach drain skipped the refit. Every other late-attach path pairs attach with a refit because the grid was measured under DOM cell metrics and WebGL floors the device cell width. Post-deferral, openTerminal's attachWebgl queued and returned, the initial fit rAF then measured DOM metrics and sized the PTY from them, and the addon attached with no refit — a persistently narrow PTY and an unpainted right gutter, not a one-frame flicker. Both paths now go through one attachWebglAndRefit pairing so they cannot diverge again. Regression tests cover both, and each was verified to fail without its fix. The addon-load state machine moves to terminal-webgl-addon-loader.ts and the viewport presentation helpers to pane-viewport-present.ts, keeping pane-webgl-renderer.ts under the 300-line budget without a suppression. |
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f2ddf7779f |
fix(ssh): pick the eligible expired lease, not the first one matching a pane (#18366)
`getRecentExpiredSshLease` selected the first `expired` lease matching the pane coordinates and left eligibility to the caller. Only `recoverTerminalPane` asked, and it asks id-qualified, where lease identity `(targetId, ptyId)` already makes the match unique -- so that check could never fire on a lease a different one shadowed. The two unqualified callers never asked at all: `workspaceSessionWorktreeHasRuntimeOwnedPtyCandidate` and `hasRecentExpiredSshLeasePane` both take a bare `!== null`. `(worktreeId, tabId, leafId)` is not unique. `supersedeSiblingLeasesForPane` exists because a pane accumulates leases as it re-leases under new relay ids, and it stamps `supersededBy` on an already-expired predecessor precisely so the predecessor stops counting. Inside the 30s SSH_PANE_RECOVERY_GRACE_MS window those two readers still counted it: a pane whose only recent lease is a superseded or relay-id-recycled corpse was reported as runtime-owned and preserved for recovery, and `recoverTerminalPane` then refuses it. Where an eligible successor also exists, the predecessor is stored first and shadowed it. Apply the existing `sshRemotePtyLeaseAllowsReattach` inside the selection, so the reader answers with the first ELIGIBLE orphan or nothing, and all three callers agree on what `expired` authorizes. `recoverTerminalPane`'s own check becomes unreachable and is folded into the comment on the branch that now covers it. Scope: an over-report in headless/mobile reconciliation, not a wrong-route readoption -- the id-qualified recovery path already refused these leases. No wire change and no host-semantics change: `expired` still says only that the client lost its route, and nothing here asserts a remote shell died. Coverage lives in a `*.test.ts`: config/vitest.config.ts, the config CI runs, includes only `*.test.ts`, so the orca-runtime-tests/*.spec.ts neighbours would never execute. |
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d5803bdbc4 |
feat(ssh): host-stamped remote foreground identity (#18078)
* docs: add SSH agent identity implementation plan * feat(ssh): host-stamped remote foreground identity * fix(runtime): preserve unfenced inspect call shape * perf(ssh): traverse foreground descendants linearly * fix(ssh): bound retired PTY evidence records * test(ssh): cover retired incarnation retention * fix(ssh): make remote process inspection total * Split SSH identity build hot spots * Fix process table snapshot module split * test(ssh): update process inspection expectations * docs: drop the SSH identity plan from the PR The design doc does not belong in the product repo; it stays out of the shipped tree while the implementation carries its own comments. --------- Co-authored-by: Merge Sim <sim@local> |
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7ea213cf8c |
perf(main): remove four per-chunk/per-waiter hot-path costs in PTY and terminal-wait (#18315)
Four independent wastes on the main process, none of which changes behavior: - One shared 2s sweep replaces one setInterval per terminal-wait waiter. 20 waiters allocated 20 handles and 10 main wakeups/s independent of output; now 1 handle and 0.5 wakeups/s. Same cadence, same per-waiter checks in the same order, same resolve semantics; the foregroundPollInFlight latch moved into the waiter's poll entry unchanged and each entry still interleaves its own foreground read, so one slow ps cannot delay another waiter. - SIGWINCH's `ps` for Orca's own row is memoized. It reads this process's controlling tty, which is invariant for the process lifetime, and feeds exactly one guard. Exec count per 4-pane tab switch drops 16 -> 8. The call stays synchronous: making it async would reorder SIGWINCH against subsequent writes. - The wait-blocked carry retains chunks with a running char count instead of concatenating and re-slicing a 256KB window on every chunk, and joins once at scan time. runWaitBlockedCheck receives a byte-identical `appended`. - maxUpwardCursorReach no longer compiles a RegExp per redraw chunk, and containsTerminalVerticalLineControl walks with charCodeAt instead of minting a one-char string per position. |
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37694d9896 |
fix(memory): close two per-id map reaper gaps and ratchet the pty-exit reaper (#18320)
`onPtyExit` deletes ~25 per-PTY maps but never `ptyLifecycleGenerationById`, so every PTY that ever ran left one entry behind for the life of the main process. Safe to delete because `getPtyLifecycleGeneration` lazily mints from the monotonic `nextPtyLifecycleGeneration` — a re-read after the delete returns a strictly newer number, never a reused one, so no stale frame can be accepted. `warnedLostHandlerPtyIds` outlived the buffered data it describes when the LRU cap evicted that data, and because the warn is once-per-id it also suppressed a legitimate re-warn on a fresh accumulation for that same id. `ambiguousOwnerWarnedWorktreeIds` was a module-scope Set with no delete anywhere, while both worktree teardown paths prune ~20 sibling collections. Not pruning also suppressed a legitimate re-warn for a recreated worktree id. Adds a ratchet that reads every per-PTY-keyed collection off a real runtime instance and requires each to be deleted by the reaper, cleaned by a helper the reaper calls (verified against that helper's source), self-clearing per in-flight operation, or explicitly justified as retained. |