First consumer of the runtime's single-slot mounting: the real apply mounts
on its own fiber, renderSlot('sidebar', ...) captures exactly the sidebar
slot's output, and update() re-renders the collapsed rail in place. The
.snap files carry semantic class names and svg fingerprints only.
The five ui-conversation machinery specs (apply-inject, chat-apply,
chat-toolview-slot, service-orchestration, selection-survival — now .tsx)
and the web app/app-shell specs assemble through the runtime instead of
hand-built Context + SlotsService + fake-session scaffolding per suite.
Session behavior mocks are typed against ISession, so incomplete fakes
fail at compile time.
A jsdom slot test runtime for feature specs: a real Cordis Context, the
production SlotsService and web-react renderer, and typed session/workspace
doubles (TestSessions implements ISessions with FixtureSession sessions;
TestWorkspaces implements IWorkspaces), so the compiler flags fixture drift
when a production face changes. Fixtures feed plain data: list rows,
conversation snapshots, and ISession-typed behavior stubs; provide-bundle
materialization runs the shared SessionProvideChannel.
DOM snapshot support: declare()/renderSlot() mount a single slot inside a
data-slot wrapper for local .snap capture, and a snapshot serializer folds
CSS-module class hashes to their semantic locals and collapses svg internals
to a content fingerprint. The typed provide() constrains declared-service
fakes to Partial of the service's outward face.
Feature packages now reach these domains through interface types only:
ISession/SessionFace (identity + prompt/cancel/loadOlder + the useSession
snapshot source), ISessions, IWorkspaces, ILayout, IConversation, and the
existing SlashServiceContract now actually mounted on Context.slash. The
concrete services implement their face; wire-pump and assembly entry
points stay on the classes. The provide-channel materialization and
current-projection logic moves into SessionProvideChannel so the
production service and the client test runtime share one implementation.
The workspaces service consumes sessions through the narrow SessionsPort.
The persisted row (sessionId, key, stateVersion, observedSeq, state)
becomes (sessionId, key, ver, seq, val) — the cache medium repeats these
three names for every unit of every session, so the long forms dominated
the JSON payload. ProjectionCheckpointRow and the checkpointRow zod spec
rename together; the domain spec bumps to v3 (cache semantics: the old
medium is discarded, not migrated). The unit-facing declaration keeps
stateVersion — only the persisted/checkpoint row shape changes.
eslint --fix removed the no-unnecessary-type-assertion hits the review
knives introduced; the two await-thenable errors were vi.runAllTicks()
awaits in the cache spec, replaced with advanceTimersByTimeAsync(0) (the
fake-timer-safe microtask drain). Repo-wide eslint, dual-aggregate tsc,
and the focused 100% coverage set all green.
Static: the cache package.json files array matches the workspace
constraint shape, the unused dsh-storage-json devDependency is dropped
(tests run on the memory backend), and docs/module-graph.md is
regenerated for the new package edge.
Coverage: two unreachable branches deleted rather than tested —
coldSnapshot's floor-0 tail reuse (a baseSeq-0 restore never throws and
an unrelated record still carries a usable watermark) and flushSoft's
non-mandatory clean-skip (throttle triggers only fire dirty). New tests
close the real gaps: write() on a never-dirty session and the non-JSON
unit-state rejection, plugin disposal clearing armed interval timers,
cachedSnapshot's all-version-mismatched and cwd-identity arms, the
zero-units empty-log cut, the coordinator seek-hook ladder (suffix /
not-found / plain failure / abort-reason relay), and the superseded-
retirement race proving forget()'s exact-entry guard.
Review finding (PR #791): the column carried bare values (no seq), so the
client could not seed its value store without risking a stale list block
outranking newer push frames — and nothing consumed the column at all,
leaving cold titles absent after a restart. SessionSummary.projections is
now the same SessionProjectionsBlock as the history tail (values +
asOfSeq; attached rows cut the live registry, cold rows serve the cache's
identity-checked cachedSnapshot whose asOfSeq is the lowest served-row
watermark). SessionManager.refreshList seeds each row's block into the
per-session projection store via per-key apply — partial-baseline
semantics: an absent key never clears, and higher-seq-wins keeps stale
list blocks beneath push frames and tail baselines — so cold titles
surface in the sidebar without opening a session.
Review finding (PR #791): rows carried only version/watermark/state, so a
recreated session id, or a persistence store replaced under a surviving
cache, could pass every watermark check and seed state folded from an
unrelated log; a checkpoint racing ahead of an eager log flush could
likewise expose values no stored log contains. Records now store the
header identity (createdAt, cwd) they were folded from — reads validate it
against the live header (listing) or the tail's stored header (cold read)
and discard unrelated records whole (domain version 2 discards v1 media by
the pre-release stance). A live checkpoint additionally flushes the
session's buffered events durably before the cache row lands: the cache
can trail the log, never lead it. cachedValues is reshaped into
cachedSnapshot(meta): the identity witness plus the {asOfSeq, values} cut
the list carrier serves.
Review finding (PR #791): with no projection definitions registered,
restoreFloor() is undefined and the fast path returned a successful empty
snapshot without touching persistence — a nonexistent session 'succeeded',
violating the documented not-found contract in that supported topology.
The no-unit branch now probes readFrom(id, 0): an absent log rejects with
the seam's not-found, a present one dates the empty cut at its stored end.
The projection cache surfaced two substrate gaps, both properties of the
domain-KV stack it landed on. (1) The json backend's root is relative and
joined per-open against process.cwd(): sessions are patched global
(~/.dsh/sessions) but workspace.json/session_projcache.json land under
<launch dir>/.storages, splitting derived media from their source of
truth. Proposal: patch storage-json.root to ~/.dsh/storages beside the
session root (profile key storageRoot, mirroring persistenceRoot) and
resolve-once at backend construction, adopting the JSONL backend's
recorded rationale. (2) A damaged cache medium (truncated / version-bumped
/ schema-drifted) bricks fail-loud boot even though its content is fully
rebuildable from session logs. Proposal: DomainSpec grows
recovery: 'reject' | 'reset'; the facility, on exactly the damage-class
errors, destroys a declared-reset medium once and reopens empty —
workspace stays authoritative and loud. Bilingual pair recorded.
gen-cordis-catalog/api, config and persistence catalogs, and doc graphs
regenerated over the new sessionProjectionCache service and the registry's
checkpoint faces. Classifications: ProjectionCheckpoint joins the type-link
exemptions (owned by the projection package source), Partial joins the
foundation names, the cache service gets its capability-seam role row, and
the package takes the one-sentence Model Experience contract (host-side
read-model accelerator, no model surface).
The base's bilingual gate now covers this branch's new README: add the
Chinese counterpart of the session-projection-cache package README, the
cache row on the group README's Chinese side, and re-record the touched
pairs (group, cache, session-persistence — whose English side gained the
readFrom rows earlier on this branch). verify-translation-pairing: 541
pairs consistent.
The watermark cache is the registry's authoritative mutable state; a
checkpoint consumer holding the live reference could corrupt every
subsequent snapshot and frame through it. structuredClone at the read face
(total, by the unit plain-JSON contract) pins the boundary; a mutation test
proves the cache is unreachable through handed-out rows. restore and
viewCheckpoint only touch caller-owned rows — no other leak path.
SessionSummary grows an optional projections column (whole value per key,
same passthrough posture as the history-tail block): attached rows cut the
live registry watermark cache; cold rows view the persisted projection
cache's stored rows via the new registry viewCheckpoint face (version-
matching keys only, zero I/O) — the RFC's motivating scenario, every
session's title across a listing without loading one event log. The column
is fail-soft and absence-coded: no registry, no cache row, or a throwing
read serve the row without the column, never breaking the listing.
New package on the domain data form: one session_projcache record per
session (key → {stateVersion, observedSeq, state}), landing beside
workspace.json under the shipped json backend. Write policy: two mandatory
points (turn/end + session disposal) with count/interval throttling between
them (both Config fields required — flush cadence is a deployment choice);
every background write is fail-soft (log + stay stale, self-heal on the
next write or cold read). coldSnapshot(id) runs the read ladder — cached
rows + persistence readFrom from the registry's anchored restore floor +
registry restore + fail-soft write-back — detecting crash-repair-shrunk
logs via the one-below anchor and degrading to a single full re-read.
Mounted in apps/cli/cordis.yml (writeEveryEvents 200 / writeIntervalMs
5000).
The registry grows the state-level read ladder the persisted cache builds
on: checkpoint(session) snapshots every unit's {stateVersion, observedSeq,
state} row from the watermark cache; restoreFloor(checkpoint) anchors the
tail read one event below the lowest usable watermark (so a shrunk log is
provable); restore(checkpoint, events, baseSeq) refolds each unit from its
usable row (or from init over a full read), rejects rows a tail read cannot
fix (version mismatch / overreach with baseSeq > 0 => re-read from 0), and
returns both the snapshot and the refreshed rows for durable write-back.
ProjectionCheckpointRow/ProjectionCheckpoint are the persisted-row types
minus the record keys.
SessionPersistence grows readFrom(id, fromSeq, signal?): the non-mutating
read-from-seq primitive for checkpoint consumers (the persisted projection
cache folds only the tail past its watermark). Coordinator owns validation,
per-id serialization, and the sequential fallback (loadStored + forward
skip); SQLite implements the optional seek-capable loadStoredFrom hook
(WHERE seq >= ?), JSONL stays sequential by contract. Contract suite covers
suffix exactness, empty-tail, non-mutation, and cancellation; seam README
(both languages) documents the method and the hook.
The check added last commit derived its elevated set from the sheets that
already rebind, which cannot catch the omission it targets: such a set only
confirms what someone already remembered, and a surface nobody has rebound
yet defines itself as unelevated. Review found the case that proves it —
TodoPanel scrolls in .list on a --dsw-specific-tip card, the same dark rung
as the menu surface, unrebound and with the derived check green.
Resolves the set from the palette's own dark elevation ladder instead: the
surface tokens whose dark value lands on bg-layer-2 or bg-layer-3, which is
the step the l1/l2 split encodes. A new palette token on an elevated rung is
in scope the moment it is defined.
Scope is by token family rather than geometry: only --dsw-alias-bg-* and
--dsw-specific-* name a surface. The button, interactive, and markdown
families reach the same rungs while naming a control or an inline span that
no scroll container renders a bar against, and shape cannot separate them
since a floating button carries a radius, a shadow, and a fixed size —
ChatView's .toBottom pill was the false positive that showed this.
Adds the missing TodoPanel rebind. Mutation-checked all four rebinds in
turn: each is named with its surface. The palette anchoring has its own
control — narrowing the family pattern turns it red on --dsw-specific-menu.
test:web ran build:web alone, which does not rebuild UI plugin client
bundles. Plugin CSS reaches the browser through packages/client/*/lib/
client.js, not apps/web/dist, so a changed *.module.css served its
previous bundle: the run exercised stale CSS and a removed declaration
still passed. That is how I first mistook a valid gutter test for a
vacuous one.
Root build already covers packages/*/*, so running it first is enough;
check-all already ordered build before build:web, so CI was never
exposed. Only the local script was, which is where a stale-bundle pass is
most likely to be believed.
Verified against the situation it fixes: mutate the source, rebuild the
bundle, restore the source, and the artifact is left without the
declaration while the source has it. Under the old script the run tested
that artifact; under the new one the artifact is rebuilt first (grep goes
0 to 1) and the scrollbar spec passes. The nine failing web files are the
pre-existing aria-golden set from f2c004524, unchanged by this.
