* feat(bundle): accept an ordered patch file list in dsh.bundle.patch
`dsh.bundle.patch` now accepts `string | string[]`. A list names patch
files applied in order as one bundle layer; each file's relative plugin
paths still resolve beside that file. `bundlePatchPaths` in dsh-app-boot
is the one resolver from a declaration to absolute paths, and every
reader uses it: profile loading, plugin-manager reconcile and bundle
rows, the client-runtime roster, and the workspace, cordis-config, and
product-isolation gates. `ProfileLayer.patchPath` becomes `patchPaths`.
* fix(bundle): keep declared patch files package-relative in the workspace gate
path.join produced backslash entries on Windows, so the expected files
list did not match package.json files. bundlePatchFiles returns the
validated declaration as written; bundlePatchPaths joins it.
Tests bring the changed sources to full per-file coverage, the READMEs and
docs describe the uplink, the invocation context, and the Peer registry in
both languages, and the generated catalogs are refreshed.
Every Typert Remote stream accepts client-to-Host items on the same
logical stream. A method declares the uplink item type in its return
type, RemoteStream<Out, In>, and reads the items through
this.ctx.invocation.uplink(); the invocation also carries the calling
Peer. Client generated methods return a handle that iterates the
downlink and exposes send/end/dispose for the uplink.
Web and Desktop now share one command pair: start:* launches the artifacts
of a prior complete build and dev:* builds first, then launches. start:web
is new and spells out the same source launch vector as `pnpm dsh web`;
dev:web runs `pnpm run build`, the three rebuild watchers, and `dsh web` in
one terminal, with --skip-build and --no-serve for the previous two-terminal
flow. The launcher gate pins both scripts to the dsh CLI, and a root
Makefile names the same commands as make web|dev-web|desktop|dev-desktop|build.
The dev-web stage supervisor waits for stages the terminal already
interrupted, escalates only survivors, forwards SIGTERM once, and reports a
stage that exits on its own. Signal listeners are persistent because the
tsdown watchers bundle signal-exit, which re-raises a signal when it finds
no other listener.
A Session row's "..." menu and its hover buttons become two list slots the
WorkspaceBrowser entry declares, `sidebar.workspaces.session.menu.item` and
`sidebar.workspaces.session.row.action`. The shipped actions register from
apply the way a client plugin does: pin (menu 100, button 200), rename (200),
fork (300), archive (menu 400, button 100). An entry receives only the row
identity, reads the pin and archive sets through Set hooks its own face
injects, decides its own visibility, renders `MenuItemButton` or one icon
button, and dismisses the menu through the slot-level `useMenuOpenState`
hook bound from the row's render occurrence.
Each action's behavior lives in its injected callbacks. `UiWorkspace` gains
`pinSession` and `unpinSession`; the pin write into the saved orders happens
there, through the viewing-store instance the apply creates and hands the
browser's registration as its handle (the ui-layout pattern), reading the
memberships current at completion. The rename dialog and the row-action
notice are `shell.overlay` entries fed by apply-closure observables through
the faces' `hooks`; the archived notice switches the archived filter
directly. WorkspaceBrowser threads no action callbacks, renders no toast,
and hosts no rename dialog; its title double-click raises the same rename
request.
In ui-primitives, `MenuItemButton` is the plain `role="menuitem"` row for
menus whose rows are components: it shares a data row's markup and styling
and needs no shared state, because `Menu` decides the keyboard walk from the
DOM and now runs the post-selection focus return once on the list's click
bubble for every row kind. `Menu` accepts such rows as `children` beside
`items`, which becomes optional together with `onSelect`; `separatorBefore`
lets a row start a group with the same hairline a separator entry draws. The
context-based `MenuAction` goes away with its extension group.
SessionProjectionHints gains a required `kind`: `sequenced` when the Host's live registry computed the block for an attached Session, `cached` when a header-only listing viewed it from the persisted projection cache. `asOfSeq` stays the producer's own watermark in that space, so the cache read faces report the lowest served row seq again instead of the -1 sentinel. The two fields are independent: `kind` names the sequence space, `asOfSeq` the position in it.
The projection cache read-only face (cachedSnapshot, cachedPredecessorTitle) now matches the lifecycle identity a header witnesses (formatVersion, createdAt, cwd, isSeeded) and serves its rows as a cached block with asOfSeq -1. The fold face (hydratePrepared, write, coldSnapshot) keeps the full identity including the inherited cut. The session list and @ completion drop their isSeeded guards, so forked sessions keep their cached title and list metadata across a Host restart; list-children keeps its body fallback.
A text error list does not show how failures are distributed across historical source versions or let developers aggregate repeated rejection reasons. Emit and save the same JSON report with per-version outcomes, stable failure groups and per-input diagnostics, plus runtime, checkout and report locations. Keep source versions from physical discovery rather than migrated handle headers.
Classify only known diagnostic fields such as unexpected members, unknown events, child prerequisites and sequence gaps. Preserve original messages and use an explicit fallback for other failures; the report makes no inference about historical producer bugs and cannot influence admission or retry decisions. Regression checks cover printed/file/log equality, private report files, grouped distinct sequence coordinates and source-file preservation.
Proactive pressure scaled `thresholdRatio` by the routed model's entire
context window, but a request also reserves output tokens the provider
charges to that same window — the LLM service deliberately never clamps
them (`packages/llm/llm/src/index.ts`).
With a 1,000,000-token window and the default 256,000-token request cap the
gate therefore sat at 800,000 while the provider refused any prompt above
792,576. Observed in a real session: three requests died at 792,850 /
797,639 / 793,352 message tokens ("maximum context length is 1048576 ...
you requested 1048850 tokens"), no pressure compaction ever fired, and the
overflow recovery that did run could not condense an ~800k-token history
into the 8192-token summary cap.
Scale both ratios by the message budget left after the reserve, sourced from
the effective request envelope's `maxTokens` and falling back to the
adapter's per-request output default. A reserve that leaves no message
budget reports a target-specific pressure configuration error, matching the
existing per-route warning policy rather than silently disabling proactive
compaction. The headless compaction e2e advertises a coherent capacity/cap
pair so its 8000-token message budget and 4000-token threshold are unchanged.
Related #1841
Sequential corpus migration waits for each Session to finish I/O and publication verification before starting the next. Use a bounded queue with one shared persistence Context, defaulting to available CPU count capped at 16. Expert --jobs overrides accept any positive safe integer. Stable input indices and separate completion counts keep interleaved progress useful for large corpora without opening every log simultaneously.
A concurrently upgraded child can invalidate its parent evidence. Preserve the backend revision checks and defer only the explicit source-change error for one serial retry after initial work drains. Corruption, unsupported formats and writer locks remain failures; historical files and existing V4 data remain unchanged. Deterministic scheduler tests cover 10,000 inputs, bounded overlap and retry ordering, while real raw/zstd corpora verify parent catalogs and serial-equivalent output. Performance timing was stopped at user request because the host has competing workloads.
Give developers one pnpm command to exercise the release migration against their own Session roots. Inventory physical generations so malformed entries remain visible, then reuse JSONL write-open locking, validation, and exclusive successor publication with the full root available for child-catalog evidence. Open existing V4 files read-only and preserve every historical generation.
Report each selected source and outcome, continue after individual failures, repeat all errors at the end, and retain a private temporary report with checkout/runtime details and full causes. A failed run exits nonzero. Explicitly close handles because source-launch await-using lowering inside a loop can retain a previous iteration error. Real-entry regressions cover raw/zstd tool-result conversion, repeated runs, unchanged originals, failure continuation, and unsupported layouts. Document the command in the migration cookbook.
The V4 acknowledgement still said missing child descriptors reject migration. The converter already skips backfill when a child has no single supported own descriptor, while explicit identity, timestamp, and mode conflicts still reject publication. Align both language versions with that behavior so release reviewers and corpus testers do not expect an obsolete refusal. Preserve every machine acknowledgement and schema fingerprint.
Integrate the master tip observed for the final V4 landing preparation on
top of the already merged migration stack. Preserve the V4 writer, flat
message migration, extension policy, catalog validation and historical
recordings while bringing in upstream profile resolution and desktop/UI
changes.
Resolve four generated translation-pairing records from the combined
English/Chinese text. Keep this master checkpoint separate from any
integration fixes and retain all reviewed parent history. Follow-up
validation covers the affected launch/UI paths and migration replay.
The cookbook previously promoted plugin prefixes and owner separation into a general requirement. That overstates the migration policy: direct source kinds and ordinary metadata need no new namespace solely because they are extensible.
Require each edge to document only the mappings its target needs and why, preserve nested opaque data, and permit alpha refusal of unexpected source fields that would otherwise acquire new target meaning. Exact V3 source and ToolSchema choices remain in the V3-to-V4 README; no runtime, schema, or provider behavior changes.
The convention identifies how an edge preserves the identifiers and extension fields that it explicitly maps; it does not require every extension-owned field in every source slot to be renamed.
Keep the cookbook general enough for preserved stream-start extras while retaining the exact field-owner mappings documented by each migration edge. This changes policy wording only, not the current V4 schema or conversion implementation.
The flat result conversion prefixes every extension-owned field, not just names currently colliding with core fields. Correct the cookbook wording to match that complete mapping.
Record why retaining opaque message and wrapper owners does not invent a shared owner or a new core metadata field. The deliberate costs are retaining duplicate opaque values and requiring plugin consumers to use V4 names; the first-class tool-message decision and runtime implementation stay unchanged.
imccyu