A project-local package builds its picture in TypeScript: its Producer returns a list of elements, and
the field names on those elements are fixed by the Composition Types it imports. Nothing authored
carries them, so `check` had no Record to validate — the object does not exist until the Producer
runs, which is at Build. A media element's artifact field is `artifact`, and a package writing
`source` instead passed `check` completely green and failed a paid Build.
The compiler decides those names without running anything, and it never ran on a project: the CLI
loads TypeScript through tsx, which strips types without reading them, and the tree's own
`tsconfig.json` covers the packages it ships rather than the ones a project writes.
`hypit check` now typechecks `<project>/packages/*/src`, with the options the Distribution checks
itself by, so a project package is held to the standard the packages it imports are held to. Node
resolution reaches none of those from a project — Hypit finds `@hypit/x` by its own walk to
`<root>/packages/x` and nothing links it into `node_modules` — so the mapping is read out of each
Distribution package's own `exports`.
Measured on a real project: `hypit check` takes 1.8s in total. As authored it reports one error, a
real one nobody had seen — a label passed to an assertion that takes none, so its refusal names
nothing. With the reported typo injected it reports that one plus exactly
`TS2353: 'source' does not exist in type 'VisualMediaElement'`, at the file and line. Every shipped
example reports none.
Separately, the Build-time refusal was describing a state it manufactured. Spreading an absent
artifact produced `{}`, so the field the author actually wrote was dropped without a word and the
identity check one call later reported `.artifact` as invalid — a field they had not typed. A media
element with no artifact now says so.
`hypit-whisperx-prepare` failed for a reason other than the one reported: `download_dir` is explicit,
so `NLTK_DATA` never decided anything. `nltk.download` fetches its index before it looks at what is on
disk, so preparing an installation that needed nothing still needed the network. Already installed is
now already done.
Two facts a package author needs, placed where the author is already reading rather than in a
document: a Type is its owning Module and its name, and two Types with identical value shapes are
distinct; `blobArtifact` is declared by `@hypit/artifact`, which is the Module that identifies it
whatever re-exports it.
Every workspace manifest omitted a license field, so a scanner reading
the published repository would resolve all 90 of them as unknown. Both
Python services went further and declared plain Apache-2.0, which is
looser than the LICENSE they actually ship under.
Package bytes feed the example package locks, so adding the field
invalidated all three; refreshed them. Only closureDigest and artifacts
move — same 31 selected packages, nothing added or removed.
Also record what the READMEs never said: ffmpeg is a real prerequisite
for a Build and had zero mentions, and the media Lambda layer is a GPL
FFmpeg build. That build is deliberate — libx264 is GPL-only and the
encode path requires it — and it stays lawful only because the operator
builds and deploys it into their own account. Publishing a prebuilt
layer would break that, so the boundary is now written down.
ValueSchema gains `format` and TypeDeclaration gains `default`. A schema
could say a value is a string but not whether it is a colour or a font
family, and nothing could say what an unspecified one should be -- so every
consumer decided both for itself, and the answers drifted. A colour and a
digest have an exact shape, so validateStoredValue now checks them: a
format nothing enforces goes stale the same way a copied constant does.
Each module now states its own Recipe once, in a recipe.ts its Surface
reads too, with the required key set taken off the default rather than
restated beside it. Four literals that had to be kept in step by hand are
gone.
The playground lists nothing any more. It asks the manifests which modules
declare a Producer outputting a VisualTrack -- exactly the four that do --
builds a form from the declared input schemas, seeds it from the declared
defaults, and calls the module's own bound handler. Its five adapter files
are deleted. A module that gains a visual Producer now appears there on its
own; one that loses it disappears.
Where a module has no honest default it says nothing: a value carrying
content-addressed media cannot have one, because the module has no bytes to
point at, and the form asks for a file instead.
protocol and runtime-adapter had no tests of their own. Both are load
bearing in the same way: a digest computed here is what a Build, a
package lock and a Runtime Profile are addressed by, so a change in
either is a change to the meaning of records already written down.
The protocol tests are about one property — values that mean the same
thing digest the same, values that mean different things do not — and
then about what has no canonical form at all: non-finite numbers,
undefined members, accessors, non-plain objects, cycles in either shape.
Both files end with pinned constants. They are not testing that sha256
works. They exist so that changing how a value is canonicalized, or how
an adapter is identified, cannot be a quiet change: editing a constant is
an act a reviewer sees, and a silently different digest is not. The
adapter pin has a precedent — renaming `kind` invalidated every recorded
lock, and nothing failed until a lock did.
Writing them found one defect. createRuntimeEndpointAdapterFacet built a
facet without validating it; only isRuntimeAdapterHostFacet checked, and
the loader skips a facet that fails that check. So a package with a
broken adapter registered nothing and surfaced as "adapter X is not
registered", three layers from the mistake. Both constructors now
validate what they are given.
The umbrella video-contracts package collapsed eight unrelated
vocabularies into one release unit. Public video communication now
lives in small, independently versioned contract packages: narrative,
media, program-space, speech, speech-evidence, semantic-map, visual-ir
and composition. Speech implementation packages are renamed for what
they do (speech-spine, speech-basis, speech-alignment), realization
folds into run, and hyperframes-render becomes render-hyperframes with
a renderer-neutral Visual IR spec. Every model package gains a direct
activation entry, and shared video test fixtures move to test-support.
Example package locks are regenerated for the decomposed closure; the
graph-check, live, echo-pro-aroll and bootstrap sources all compile
against the new package set.
Narratage (narration + montage) is the project, framework, npm scope
(@narratage/*) and CLI command. SVML remains the name of its markup
language, so file suffixes (.svml/.svs/.svrun), source Headers and
svml.* wire format ids are intentionally unchanged. Example locks are
regenerated because package manifests participate in artifact digests.
The exploratory root compiler never shipped, so version-numbered
narration only confused the current single implementation. Doc and spec
filenames drop their -v1 suffix, titles drop v1, prose describes the
present system, the v2-bootstrap example becomes bootstrap, and the CLI
usage/scripts are plain svml. Package locks are regenerated because
package README bytes participate in artifact digests.
Script Surface's own v1 target statements remain: that spec genuinely
defines its first public version.
The @0/@2/@4 numbers were rewrite-internal draft counters, not released
format versions. No external consumer or persisted data depends on them,
so the first public format of every id is @1. Negative-format tests use
@9 as the deliberately unknown version. Example package and runtime
locks are regenerated because format ids participate in digests.
Remove payload lineage coupling, load deployment adapters from locked packages, add explicit artifact lifecycle tooling, and keep image/media execution behind replaceable endpoints. Refresh the executable examples and architecture records to match the implemented boundaries.