Add verify-application-entrypoints to the top-level gate graph. It inventories executable sources and package bins across apps, packages, and examples; rejects unclassified launchers including root-level js/mjs/cjs/ts files; and permits only the dsh CLI plus the explicitly private Python runtime carrier exception.
Update repository, architecture, CLI, and naming records to state the same rule: Node consumers select a dsh profile instead of invoking application-package bins, and no compatibility aliases remain. Fixtures prove both allowed classifications and representative escape attempts, making the architectural rule mechanically enforceable.
verify-client-runtime-deps walks each package's host and browser faces from the
entries its manifest publishes, over the bound host and client Programs, and
reports an external package no host-face reference reaches. Wired into hygiene.
A workspace name is out of scope: it also states which package supplies an
injected service or a mounted Remote contribution, and the app installs it
either way. A package whose published Node entry has no source counterpart is
skipped and named, because a generated artifact carries imports no source
states.
A dependency in optionalDependencies, or a peer carrying
peerDependenciesMeta.<name>.optional, may be absent from an installed
tree — that absence is the whole promise of "optional". A static import
is evaluated when the importing module loads, so one absent package
stops being "this capability is unavailable" and becomes a load failure
for everything that reaches the importing module.
Nothing checked it, and nothing here could: the failure needs an
installed tree missing that package, and a workspace install always has
every package, so the unit tests, the snapshots, and the packed-install
probe all pass while the published package is broken for the consumer
who declined the optional peer.
verify-optional-dependency-imports reads each package's own manifest for
what it allows to be absent, then scans the files that ship across both
compiler faces. Value-versus-type is decided against a bound Program
rather than the import syntax, because verbatimModuleSyntax is off: the
compiler already erases an import whose bindings resolve to types, so a
syntactic rule would report four forms that emit nothing. Only the type
phase erases an import — `import defer` still resolves and links its
module, deferring evaluation alone — which is what phaseModifier
expresses and the deprecated isTypeOnly cannot.
A violation names the package, the declaration that made it optional,
and the way out in order: import it as a type, or restructure so module
scope does not need it. A dynamic import() only moves the failure to
first use, so the gate does not offer it as the remedy.
The gate runs in ci-static and ci-primary through ciSharedStaticGates
and locally in hygiene; it needs no build. TypeScriptProject gained a
face parameter so a repository-wide gate can seed the client aggregate,
which was previously unreachable; the constraint it was built with is
unchanged, a face config and never the root solution.
The tree has no violation today, so this guards the rule rather than
fixing a defect. The spec pins all seven import forms against what tsc
emits, including the four a syntactic rule would misreport.
Restore the Wine-emulated windows job as the required pull-request
Windows signal. Add DSH_CI_FAILOVER switch to windows-native so it
retargets onto the self-hosted [self-hosted, dsh-win-ci, windows]
pool under failover. Enable serial-windows as a master-only
self-hosted standby mirroring serial-linux-selfhosted.
The windows-native job remains absent from all-checks-passed.needs —
Wine owns the required verdict, native Windows reports independently.
Restore wine-apt-cache, wine-windows-gates.sh, check:windows-wine
script, and the original Agent Note topology.
release:dsh takes major, minor, patch, or an explicit version and writes one
version across the family; release:vendor takes none and increments each
package's own patch, but only for packages whose published payload changed since
their vendor-<package>-v* tag. That tag is the record of the commit a package
last published from, so the change judgement needs no state file, and the diff
is filtered through the manifest's files rules - editing a vendored comment does
not trigger a release.
Both refresh the lockfile, commit, and print the tag to create after the commit
merges. --dry-run reports the plan and writes nothing.
Incrementing the release numbers is also what drops an upstream prerelease
segment: cordis 4.0.0-rc.7 publishes as 4.0.1, because a prerelease version
would not satisfy a consumer's plain range.
A throwaway consumer outside the repository declares every member as a file:
dependency, installs, and runs the installed executable with plain Node,
asserting the version it reports. That is the check a workspace link or a stale
lib/ in the checkout cannot pass for: it reads only what files selected.
The family declares its executable, so the vendored family — libraries a
consumer imports, with no executable — states that it has none instead of
carrying a probe that would prove nothing.
Both pack workflows run it after packing, still without credentials.
A release family owns its member discovery, version baseline, tag naming, and
packed-payload rule; the dsh family shares one version across packages/ and
apps/, while every vendor/ package keeps its own version line. Publish order is
topological over runtime dependencies so no package reaches the registry before
one it depends on.
pack packs the whole family into one directory and records the upload order;
publish decides per package against the registry, skipping a version whose
published tarball has the same integrity and failing when it differs, which is
what makes re-running publish over one artifact safe.
The vendored packages keep upstream's payload: their manifests export ./src/*,
so the harness rule that rejects sources and declaration maps would publish an
export map pointing at absent files.