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@bounded-systems/mint

Deterministic versioning — intent files in, signed release out. A seam over semver: mint owns the flow (intent assembly, changelog, tagging, provenance) and delegates only the version arithmetic to the proven core.

Built because tagging-by-hand drifts: a manifest left behind its release tags is a recurring bug (string-audit#42). mint makes the version a per-PR declaration and the release a single atomic step.

Principles

  • Opinionated — one canonical release flow, no configurable branching.
  • Strongly deterministicplan() is a pure function of (currentVersion, intents, date). No commit-history ordering, no Date.now(), no randomness. Same intents in → same version + changelog out (sha in → sha out).
  • Typed end-to-end — intents and plan validated with Zod; a verbspec CLI/MCP surface mirrors the rest of the stack.
  • Owned — delegate only semver arithmetic; own assembly, rendering, tagging, and provenance.

Use

Each PR drops an intent in .release/ (see .release/README.md):

---bump: minor---
scan: promote to a verb (CLI + MCP) + shared Zod type contracts

Then:

mint plan # preview: 0.6.1 → 0.7.0 (minor) + the changelog entry
mint version # apply: bump package.json + lockfile, prepend CHANGELOG.md, consume intents
mint release # cut the v<version> tag + emit release provenance (CI keyless-signs it)

mint plan --json emits the machine-readable plan. --date YYYY-MM-DD pins the changelog date (the pure core never reads the clock; the CLI injects it).

Release provenance

mint release cuts the annotated tag v<version> (signed when a git signing key is configured) and emits a release provenance record — an in-toto Statement v1 binding the three things a release is:

tag → version plan → commit

The subject is the tag, anchored to its commit (in-toto gitCommit digest); the predicate carries the byte-exact changelog entry (the deterministic plan() output) and its sha256. Re-deriving the plan over the same intents reproduces that digest — the tag-to-plan link is machine-checkable, offline.

The Statement is deterministic (releaseStatement() is pure, like plan()) and keyless-signed in CI: release.yml runs mint attest, then cosign sign-blob binds the signature to the workflow's OIDC identity (Fulcio + Rekor — no key material). Locally the Statement is emitted unsigned (builder: null) so the flow degrades gracefully off-CI. This is the same Statement / DSSE / keyless-Sigstore shape the bounded-systems sites and @bounded-systems/verify already produce and verify, so a mint release record verifies with the same tooling:

cosign verify-blob \
--bundle mint-release.intoto.sigstore.json \
--certificate-identity-regexp '^https://github.com/<org>/<repo>/' \
--certificate-oidc-issuer https://token.actions.githubusercontent.com \
mint-release.intoto.json

anchored-chain: mint deliberately mirrors anchored-chain's in-toto constants + Statement/DSSE shape rather than depending on it: anchored-chain's in-toto module is Phase-0 and not yet re-exported from its public surface, is bun/TypeScript with a build step, and its predicate models a derivation chain, not a release. mint stays a zero-build node ESM package and can adopt anchored-chain's Signer/Verifier once that surface lands — the bytes already match.

Adopt mint's release in CI

A consumer repo calls the reusable release-provenance.yml on its tag push (a ~10-line caller — see the header of that workflow):

# .github/workflows/release.ymlname: releaseon: { push: { tags: ["v*"] } }permissions: { contents: write, id-token: write }jobs:
release:
uses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha> }

adoption.mjs --write drops both this caller and the version.yml caller into every publishable repo — the path off hand-tagging.

Shipping extra assets (binaries) on the same release

The release is created as a draft and published only once its assets are attached. A published release is immutable, so anything that attaches after the release goes public fails with 422: Cannot upload assets to an immutable release — which is how drift-gate v0.2.0 shipped with no binaries.

So build the assets in a job of the same workflow and hand the artifact to assets-artifact; the release job attaches them with the provenance and publishes once. A separate tag-triggered workflow racing for the same release is the thing to avoid — it is unordered by construction.

permissions: { contents: write, id-token: write, actions: read } # actions: read — artifact downloadjobs:
binaries:
runs-on: ubuntu-lateststeps:
# ... compile into dist/ ...
- uses: actions/upload-artifact@<sha>with: { name: release-binaries, path: dist/* }release:
needs: binariesuses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha>, assets-artifact: release-binaries }

If a repo must keep a separate attach workflow, pass finalize: false so this job leaves the draft for that workflow to publish — but that only moves the finish line, it does not order the two workflows.

Publish (npm + JSR)

mint ships from release.yml via OIDC trusted publishing — no NPM_TOKEN, no JSR token, ever. That one file is the whole release entry point: dispatch it to cut the tag in CI, or let it fire on a v* tag cut from a checkout. It is one file rather than two because npm validates the entry workflow's filename, not the file containing npm publish, and a package gets exactly one trusted publisher — so a repo may have exactly one entry workflow that reaches npm. That convention, and the npm form values it makes uniform, are in docs/npm-trusted-publishing.md; the lane itself is the reusable npm-publish.yml, which consumers call instead of hand-rolling a publisher. The package manifests are kept in lockstep by mint version (it bumps package.json, package-lock.json, andjsr.json).

npm uses a GitHub Environment gate — both the npm and jsr jobs declare the npm-publish environment, which requires a designated reviewer to approve in the GitHub Actions UI before either registry sees anything. The gate sits on the publishing jobs themselves rather than on a no-op approve job upstream, because that is the only way the environment claim reaches the OIDC token — and that claim is what npm's trusted-publisher Environment field pins. Approve at:

https://github.com/bounded-systems/mint/actions

Once approved, the package publishes immediately via OIDC trusted publishing (no token).

JSR publishes immediately on the same tag (no staging concept on JSR).

JSR-readiness is verified the same way CI publishes:

npx jsr publish --dry-run --allow-slow-types # the path release.yml runs
deno publish --dry-run --allow-slow-types # equivalent, Deno-native

jsr.json carries the SPDX license and a publish.include allowlist, so the published tarball is just the three exports + mint.mjs, README, CHANGELOG (no tests, lockfiles, or workflows). @types/node is a dev dependency so the JSR type-checker resolves mint's node: imports.

One-time JSR link (manual, once): before the first JSR publish, link the package on jsr.io — create @bounded-systems/mint under the @bounded-systems scope and connect it to the bounded-systems/mint GitHub repo (Settings → "Link to a GitHub repository"). That GitHub link is what authorizes the keyless OIDC publish; after it, every tagged release publishes with no token.

Consumers: the 24h JSR/npm cooldown after a release

Every fresh JSR/npm publish immediately hits Deno's minimumDependencyAge in any consumer running Deno 2.9+: since 2.9 it defaults to 24 hours — Deno refuses to resolve a version published inside that window, full stop, no config needed to trigger it. It's a real supply-chain guard (malicious versions are usually caught/yanked within days), but it applies to first-party @bounded-systems/* releases exactly the same as to a random third party.

Concretely: baobab@0.2.0 published, and every downstream consumer's CI (e.g. a check-contrast.yml caller) hard-failed for the next 24h trying to resolve it — not a flake, a guaranteed wait baked into every release (bounded-systems/mint#11). For one package that's a wait; for a coordinated rollout of several interdependent @bounded-systems/* packages in one sitting, it ripples — every consumer of every package in the batch eats the same 24h, and chains of dependencies compound it.

The fix does NOT live in a consumer's deno.json. An earlier version of this doc claimed a minimumDependencyAge.exclude list there would work — that was wrong, and only looked right because it was tested against Deno 2.8.3 (which doesn't enforce the 24h default at all; the default only started in 2.9). Verified against the real 2.9.1 binary: deno.json is never even read when deno run's entrypoint is a bare jsr:... specifier — config-file discovery only applies in normal "project mode." Planting invalid JSON in a deno.json and confirming Deno never complained is what exposed this.

What actually works: the --minimum-dependency-age CLI flag on the invocation itself. That means the fix has to live wherever the deno run command is composed — for a reusable GitHub Actions workflow like check-contrast.yml, that's an input on the workflow, not something a caller can override from its own repo (bounded-systems/baobab#7 adds minimum-dependency-age, defaulting to "0", since the only thing that workflow ever resolves from the network is @bounded-systems/baobab itself — a first-party package the caller already trust-bounds via its own version range input, so the age gate adds no real protection there). Any other reusable workflow or script that shells out to deno run jsr:.../npm:... directly needs the same treatment: an explicit --minimum-dependency-age (or --minimum-dependency-age=0 if every dependency it touches is first-party) on the command, not a config file a caller drops in.

This still doesn't scale past a handful of hand-fixed workflows — #11 is the open ask for mint to own generating this consistently across every @bounded-systems/* reusable workflow, rather than fixing each one by hand as it's hit.

Library

import{plan}from"@bounded-systems/mint";import{releaseStatement}from"@bounded-systems/mint/release";plan({currentVersion: "0.6.1",intents: [{bump: "minor",summary: "scan: promote to a verb"}],date: "2026-06-23",}).nextVersion;// "0.7.0"releaseStatement({version: "0.7.0",tag: "v0.7.0",commit: "0123456789abcdef0123456789abcdef01234567",date: "2026-06-23",changelog: "## 0.7.0 — 2026-06-23\n\n### Minor\n\n- scan: promote to a verb\n",producer: "@bounded-systems/mint",})._type;// "https://in-toto.io/Statement/v1"

Roadmap

  • Deterministic plan core + Zod intent contract
  • mint plan / mint version
  • mint release — signed tag + in-toto release provenance, keyless-signed in CI (cosign/Sigstore; anchored-chain-shaped)
  • verbspec-typed CLI + MCP surface
  • Reusable workflow_call Action (version.yml + release-provenance.yml)
  • Publish to npm (GitHub Environment approval gate) + JSR

Tracking: bounded-systems/string-audit#43.

License

MIT

About

Deterministic versioning — intent files in, signed release out. A seam over semver.

Resources

Code of conduct

Contributing

Security policy

Stars

0 stars

Watchers

0 watching

Forks

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Add copy buttons to all
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})();
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try {
var __m = "github.com";
var __re = new RegExp('^' + "github\\.com" + '
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Repository files navigation

@bounded-systems/mint

Deterministic versioning — intent files in, signed release out. A seam over semver: mint owns the flow (intent assembly, changelog, tagging, provenance) and delegates only the version arithmetic to the proven core.

Built because tagging-by-hand drifts: a manifest left behind its release tags is a recurring bug (string-audit#42). mint makes the version a per-PR declaration and the release a single atomic step.

Principles

  • Opinionated — one canonical release flow, no configurable branching.
  • Strongly deterministicplan() is a pure function of (currentVersion, intents, date). No commit-history ordering, no Date.now(), no randomness. Same intents in → same version + changelog out (sha in → sha out).
  • Typed end-to-end — intents and plan validated with Zod; a verbspec CLI/MCP surface mirrors the rest of the stack.
  • Owned — delegate only semver arithmetic; own assembly, rendering, tagging, and provenance.

Use

Each PR drops an intent in .release/ (see .release/README.md):

---bump: minor---
scan: promote to a verb (CLI + MCP) + shared Zod type contracts

Then:

mint plan # preview: 0.6.1 → 0.7.0 (minor) + the changelog entry
mint version # apply: bump package.json + lockfile, prepend CHANGELOG.md, consume intents
mint release # cut the v<version> tag + emit release provenance (CI keyless-signs it)

mint plan --json emits the machine-readable plan. --date YYYY-MM-DD pins the changelog date (the pure core never reads the clock; the CLI injects it).

Release provenance

mint release cuts the annotated tag v<version> (signed when a git signing key is configured) and emits a release provenance record — an in-toto Statement v1 binding the three things a release is:

tag → version plan → commit

The subject is the tag, anchored to its commit (in-toto gitCommit digest); the predicate carries the byte-exact changelog entry (the deterministic plan() output) and its sha256. Re-deriving the plan over the same intents reproduces that digest — the tag-to-plan link is machine-checkable, offline.

The Statement is deterministic (releaseStatement() is pure, like plan()) and keyless-signed in CI: release.yml runs mint attest, then cosign sign-blob binds the signature to the workflow's OIDC identity (Fulcio + Rekor — no key material). Locally the Statement is emitted unsigned (builder: null) so the flow degrades gracefully off-CI. This is the same Statement / DSSE / keyless-Sigstore shape the bounded-systems sites and @bounded-systems/verify already produce and verify, so a mint release record verifies with the same tooling:

cosign verify-blob \
--bundle mint-release.intoto.sigstore.json \
--certificate-identity-regexp '^https://github.com/<org>/<repo>/' \
--certificate-oidc-issuer https://token.actions.githubusercontent.com \
mint-release.intoto.json

anchored-chain: mint deliberately mirrors anchored-chain's in-toto constants + Statement/DSSE shape rather than depending on it: anchored-chain's in-toto module is Phase-0 and not yet re-exported from its public surface, is bun/TypeScript with a build step, and its predicate models a derivation chain, not a release. mint stays a zero-build node ESM package and can adopt anchored-chain's Signer/Verifier once that surface lands — the bytes already match.

Adopt mint's release in CI

A consumer repo calls the reusable release-provenance.yml on its tag push (a ~10-line caller — see the header of that workflow):

# .github/workflows/release.ymlname: releaseon: { push: { tags: ["v*"] } }permissions: { contents: write, id-token: write }jobs:
release:
uses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha> }

adoption.mjs --write drops both this caller and the version.yml caller into every publishable repo — the path off hand-tagging.

Shipping extra assets (binaries) on the same release

The release is created as a draft and published only once its assets are attached. A published release is immutable, so anything that attaches after the release goes public fails with 422: Cannot upload assets to an immutable release — which is how drift-gate v0.2.0 shipped with no binaries.

So build the assets in a job of the same workflow and hand the artifact to assets-artifact; the release job attaches them with the provenance and publishes once. A separate tag-triggered workflow racing for the same release is the thing to avoid — it is unordered by construction.

permissions: { contents: write, id-token: write, actions: read } # actions: read — artifact downloadjobs:
binaries:
runs-on: ubuntu-lateststeps:
# ... compile into dist/ ...
- uses: actions/upload-artifact@<sha>with: { name: release-binaries, path: dist/* }release:
needs: binariesuses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha>, assets-artifact: release-binaries }

If a repo must keep a separate attach workflow, pass finalize: false so this job leaves the draft for that workflow to publish — but that only moves the finish line, it does not order the two workflows.

Publish (npm + JSR)

mint ships from release.yml via OIDC trusted publishing — no NPM_TOKEN, no JSR token, ever. That one file is the whole release entry point: dispatch it to cut the tag in CI, or let it fire on a v* tag cut from a checkout. It is one file rather than two because npm validates the entry workflow's filename, not the file containing npm publish, and a package gets exactly one trusted publisher — so a repo may have exactly one entry workflow that reaches npm. That convention, and the npm form values it makes uniform, are in docs/npm-trusted-publishing.md; the lane itself is the reusable npm-publish.yml, which consumers call instead of hand-rolling a publisher. The package manifests are kept in lockstep by mint version (it bumps package.json, package-lock.json, andjsr.json).

npm uses a GitHub Environment gate — both the npm and jsr jobs declare the npm-publish environment, which requires a designated reviewer to approve in the GitHub Actions UI before either registry sees anything. The gate sits on the publishing jobs themselves rather than on a no-op approve job upstream, because that is the only way the environment claim reaches the OIDC token — and that claim is what npm's trusted-publisher Environment field pins. Approve at:

https://github.com/bounded-systems/mint/actions

Once approved, the package publishes immediately via OIDC trusted publishing (no token).

JSR publishes immediately on the same tag (no staging concept on JSR).

JSR-readiness is verified the same way CI publishes:

npx jsr publish --dry-run --allow-slow-types # the path release.yml runs
deno publish --dry-run --allow-slow-types # equivalent, Deno-native

jsr.json carries the SPDX license and a publish.include allowlist, so the published tarball is just the three exports + mint.mjs, README, CHANGELOG (no tests, lockfiles, or workflows). @types/node is a dev dependency so the JSR type-checker resolves mint's node: imports.

One-time JSR link (manual, once): before the first JSR publish, link the package on jsr.io — create @bounded-systems/mint under the @bounded-systems scope and connect it to the bounded-systems/mint GitHub repo (Settings → "Link to a GitHub repository"). That GitHub link is what authorizes the keyless OIDC publish; after it, every tagged release publishes with no token.

Consumers: the 24h JSR/npm cooldown after a release

Every fresh JSR/npm publish immediately hits Deno's minimumDependencyAge in any consumer running Deno 2.9+: since 2.9 it defaults to 24 hours — Deno refuses to resolve a version published inside that window, full stop, no config needed to trigger it. It's a real supply-chain guard (malicious versions are usually caught/yanked within days), but it applies to first-party @bounded-systems/* releases exactly the same as to a random third party.

Concretely: baobab@0.2.0 published, and every downstream consumer's CI (e.g. a check-contrast.yml caller) hard-failed for the next 24h trying to resolve it — not a flake, a guaranteed wait baked into every release (bounded-systems/mint#11). For one package that's a wait; for a coordinated rollout of several interdependent @bounded-systems/* packages in one sitting, it ripples — every consumer of every package in the batch eats the same 24h, and chains of dependencies compound it.

The fix does NOT live in a consumer's deno.json. An earlier version of this doc claimed a minimumDependencyAge.exclude list there would work — that was wrong, and only looked right because it was tested against Deno 2.8.3 (which doesn't enforce the 24h default at all; the default only started in 2.9). Verified against the real 2.9.1 binary: deno.json is never even read when deno run's entrypoint is a bare jsr:... specifier — config-file discovery only applies in normal "project mode." Planting invalid JSON in a deno.json and confirming Deno never complained is what exposed this.

What actually works: the --minimum-dependency-age CLI flag on the invocation itself. That means the fix has to live wherever the deno run command is composed — for a reusable GitHub Actions workflow like check-contrast.yml, that's an input on the workflow, not something a caller can override from its own repo (bounded-systems/baobab#7 adds minimum-dependency-age, defaulting to "0", since the only thing that workflow ever resolves from the network is @bounded-systems/baobab itself — a first-party package the caller already trust-bounds via its own version range input, so the age gate adds no real protection there). Any other reusable workflow or script that shells out to deno run jsr:.../npm:... directly needs the same treatment: an explicit --minimum-dependency-age (or --minimum-dependency-age=0 if every dependency it touches is first-party) on the command, not a config file a caller drops in.

This still doesn't scale past a handful of hand-fixed workflows — #11 is the open ask for mint to own generating this consistently across every @bounded-systems/* reusable workflow, rather than fixing each one by hand as it's hit.

Library

import{plan}from"@bounded-systems/mint";import{releaseStatement}from"@bounded-systems/mint/release";plan({currentVersion: "0.6.1",intents: [{bump: "minor",summary: "scan: promote to a verb"}],date: "2026-06-23",}).nextVersion;// "0.7.0"releaseStatement({version: "0.7.0",tag: "v0.7.0",commit: "0123456789abcdef0123456789abcdef01234567",date: "2026-06-23",changelog: "## 0.7.0 — 2026-06-23\n\n### Minor\n\n- scan: promote to a verb\n",producer: "@bounded-systems/mint",})._type;// "https://in-toto.io/Statement/v1"

Roadmap

  • Deterministic plan core + Zod intent contract
  • mint plan / mint version
  • mint release — signed tag + in-toto release provenance, keyless-signed in CI (cosign/Sigstore; anchored-chain-shaped)
  • verbspec-typed CLI + MCP surface
  • Reusable workflow_call Action (version.yml + release-provenance.yml)
  • Publish to npm (GitHub Environment approval gate) + JSR

Tracking: bounded-systems/string-audit#43.

License

MIT

About

Deterministic versioning — intent files in, signed release out. A seam over semver.

Resources

Code of conduct

Contributing

Security policy

Stars

0 stars

Watchers

0 watching

Forks

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Force GitHub README to respect dark mode\n(function() {\n var style = document.createElement('style');\n style.textContent = '\n .markdown-body {\n color-scheme: dark light;\n }\n .markdown-body pre { background: #161b22 !important; }\n .markdown-body code { background: rgba(110, 118, 129, 0.4) !important; }\n .markdown-body table th, .markdown-body table td { border-color: #30363d !important; }\n .markdown-body img { background: #0d1117; }\n .markdown-body blockquote { border-left-color: #8b949e; }\n .markdown-body hr { border-color: #30363d; }\n ';\n document.head.appendChild(style);\n})();", "GitHub Dark Mode README Fix"); } } catch(__e) { console.warn('[Userscript:GitHub Dark Mode README Fix]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + '
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Repository files navigation

@bounded-systems/mint

Deterministic versioning — intent files in, signed release out. A seam over semver: mint owns the flow (intent assembly, changelog, tagging, provenance) and delegates only the version arithmetic to the proven core.

Built because tagging-by-hand drifts: a manifest left behind its release tags is a recurring bug (string-audit#42). mint makes the version a per-PR declaration and the release a single atomic step.

Principles

  • Opinionated — one canonical release flow, no configurable branching.
  • Strongly deterministicplan() is a pure function of (currentVersion, intents, date). No commit-history ordering, no Date.now(), no randomness. Same intents in → same version + changelog out (sha in → sha out).
  • Typed end-to-end — intents and plan validated with Zod; a verbspec CLI/MCP surface mirrors the rest of the stack.
  • Owned — delegate only semver arithmetic; own assembly, rendering, tagging, and provenance.

Use

Each PR drops an intent in .release/ (see .release/README.md):

---bump: minor---
scan: promote to a verb (CLI + MCP) + shared Zod type contracts

Then:

mint plan # preview: 0.6.1 → 0.7.0 (minor) + the changelog entry
mint version # apply: bump package.json + lockfile, prepend CHANGELOG.md, consume intents
mint release # cut the v<version> tag + emit release provenance (CI keyless-signs it)

mint plan --json emits the machine-readable plan. --date YYYY-MM-DD pins the changelog date (the pure core never reads the clock; the CLI injects it).

Release provenance

mint release cuts the annotated tag v<version> (signed when a git signing key is configured) and emits a release provenance record — an in-toto Statement v1 binding the three things a release is:

tag → version plan → commit

The subject is the tag, anchored to its commit (in-toto gitCommit digest); the predicate carries the byte-exact changelog entry (the deterministic plan() output) and its sha256. Re-deriving the plan over the same intents reproduces that digest — the tag-to-plan link is machine-checkable, offline.

The Statement is deterministic (releaseStatement() is pure, like plan()) and keyless-signed in CI: release.yml runs mint attest, then cosign sign-blob binds the signature to the workflow's OIDC identity (Fulcio + Rekor — no key material). Locally the Statement is emitted unsigned (builder: null) so the flow degrades gracefully off-CI. This is the same Statement / DSSE / keyless-Sigstore shape the bounded-systems sites and @bounded-systems/verify already produce and verify, so a mint release record verifies with the same tooling:

cosign verify-blob \
--bundle mint-release.intoto.sigstore.json \
--certificate-identity-regexp '^https://github.com/<org>/<repo>/' \
--certificate-oidc-issuer https://token.actions.githubusercontent.com \
mint-release.intoto.json

anchored-chain: mint deliberately mirrors anchored-chain's in-toto constants + Statement/DSSE shape rather than depending on it: anchored-chain's in-toto module is Phase-0 and not yet re-exported from its public surface, is bun/TypeScript with a build step, and its predicate models a derivation chain, not a release. mint stays a zero-build node ESM package and can adopt anchored-chain's Signer/Verifier once that surface lands — the bytes already match.

Adopt mint's release in CI

A consumer repo calls the reusable release-provenance.yml on its tag push (a ~10-line caller — see the header of that workflow):

# .github/workflows/release.ymlname: releaseon: { push: { tags: ["v*"] } }permissions: { contents: write, id-token: write }jobs:
release:
uses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha> }

adoption.mjs --write drops both this caller and the version.yml caller into every publishable repo — the path off hand-tagging.

Shipping extra assets (binaries) on the same release

The release is created as a draft and published only once its assets are attached. A published release is immutable, so anything that attaches after the release goes public fails with 422: Cannot upload assets to an immutable release — which is how drift-gate v0.2.0 shipped with no binaries.

So build the assets in a job of the same workflow and hand the artifact to assets-artifact; the release job attaches them with the provenance and publishes once. A separate tag-triggered workflow racing for the same release is the thing to avoid — it is unordered by construction.

permissions: { contents: write, id-token: write, actions: read } # actions: read — artifact downloadjobs:
binaries:
runs-on: ubuntu-lateststeps:
# ... compile into dist/ ...
- uses: actions/upload-artifact@<sha>with: { name: release-binaries, path: dist/* }release:
needs: binariesuses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha>, assets-artifact: release-binaries }

If a repo must keep a separate attach workflow, pass finalize: false so this job leaves the draft for that workflow to publish — but that only moves the finish line, it does not order the two workflows.

Publish (npm + JSR)

mint ships from release.yml via OIDC trusted publishing — no NPM_TOKEN, no JSR token, ever. That one file is the whole release entry point: dispatch it to cut the tag in CI, or let it fire on a v* tag cut from a checkout. It is one file rather than two because npm validates the entry workflow's filename, not the file containing npm publish, and a package gets exactly one trusted publisher — so a repo may have exactly one entry workflow that reaches npm. That convention, and the npm form values it makes uniform, are in docs/npm-trusted-publishing.md; the lane itself is the reusable npm-publish.yml, which consumers call instead of hand-rolling a publisher. The package manifests are kept in lockstep by mint version (it bumps package.json, package-lock.json, andjsr.json).

npm uses a GitHub Environment gate — both the npm and jsr jobs declare the npm-publish environment, which requires a designated reviewer to approve in the GitHub Actions UI before either registry sees anything. The gate sits on the publishing jobs themselves rather than on a no-op approve job upstream, because that is the only way the environment claim reaches the OIDC token — and that claim is what npm's trusted-publisher Environment field pins. Approve at:

https://github.com/bounded-systems/mint/actions

Once approved, the package publishes immediately via OIDC trusted publishing (no token).

JSR publishes immediately on the same tag (no staging concept on JSR).

JSR-readiness is verified the same way CI publishes:

npx jsr publish --dry-run --allow-slow-types # the path release.yml runs
deno publish --dry-run --allow-slow-types # equivalent, Deno-native

jsr.json carries the SPDX license and a publish.include allowlist, so the published tarball is just the three exports + mint.mjs, README, CHANGELOG (no tests, lockfiles, or workflows). @types/node is a dev dependency so the JSR type-checker resolves mint's node: imports.

One-time JSR link (manual, once): before the first JSR publish, link the package on jsr.io — create @bounded-systems/mint under the @bounded-systems scope and connect it to the bounded-systems/mint GitHub repo (Settings → "Link to a GitHub repository"). That GitHub link is what authorizes the keyless OIDC publish; after it, every tagged release publishes with no token.

Consumers: the 24h JSR/npm cooldown after a release

Every fresh JSR/npm publish immediately hits Deno's minimumDependencyAge in any consumer running Deno 2.9+: since 2.9 it defaults to 24 hours — Deno refuses to resolve a version published inside that window, full stop, no config needed to trigger it. It's a real supply-chain guard (malicious versions are usually caught/yanked within days), but it applies to first-party @bounded-systems/* releases exactly the same as to a random third party.

Concretely: baobab@0.2.0 published, and every downstream consumer's CI (e.g. a check-contrast.yml caller) hard-failed for the next 24h trying to resolve it — not a flake, a guaranteed wait baked into every release (bounded-systems/mint#11). For one package that's a wait; for a coordinated rollout of several interdependent @bounded-systems/* packages in one sitting, it ripples — every consumer of every package in the batch eats the same 24h, and chains of dependencies compound it.

The fix does NOT live in a consumer's deno.json. An earlier version of this doc claimed a minimumDependencyAge.exclude list there would work — that was wrong, and only looked right because it was tested against Deno 2.8.3 (which doesn't enforce the 24h default at all; the default only started in 2.9). Verified against the real 2.9.1 binary: deno.json is never even read when deno run's entrypoint is a bare jsr:... specifier — config-file discovery only applies in normal "project mode." Planting invalid JSON in a deno.json and confirming Deno never complained is what exposed this.

What actually works: the --minimum-dependency-age CLI flag on the invocation itself. That means the fix has to live wherever the deno run command is composed — for a reusable GitHub Actions workflow like check-contrast.yml, that's an input on the workflow, not something a caller can override from its own repo (bounded-systems/baobab#7 adds minimum-dependency-age, defaulting to "0", since the only thing that workflow ever resolves from the network is @bounded-systems/baobab itself — a first-party package the caller already trust-bounds via its own version range input, so the age gate adds no real protection there). Any other reusable workflow or script that shells out to deno run jsr:.../npm:... directly needs the same treatment: an explicit --minimum-dependency-age (or --minimum-dependency-age=0 if every dependency it touches is first-party) on the command, not a config file a caller drops in.

This still doesn't scale past a handful of hand-fixed workflows — #11 is the open ask for mint to own generating this consistently across every @bounded-systems/* reusable workflow, rather than fixing each one by hand as it's hit.

Library

import{plan}from"@bounded-systems/mint";import{releaseStatement}from"@bounded-systems/mint/release";plan({currentVersion: "0.6.1",intents: [{bump: "minor",summary: "scan: promote to a verb"}],date: "2026-06-23",}).nextVersion;// "0.7.0"releaseStatement({version: "0.7.0",tag: "v0.7.0",commit: "0123456789abcdef0123456789abcdef01234567",date: "2026-06-23",changelog: "## 0.7.0 — 2026-06-23\n\n### Minor\n\n- scan: promote to a verb\n",producer: "@bounded-systems/mint",})._type;// "https://in-toto.io/Statement/v1"

Roadmap

  • Deterministic plan core + Zod intent contract
  • mint plan / mint version
  • mint release — signed tag + in-toto release provenance, keyless-signed in CI (cosign/Sigstore; anchored-chain-shaped)
  • verbspec-typed CLI + MCP surface
  • Reusable workflow_call Action (version.yml + release-provenance.yml)
  • Publish to npm (GitHub Environment approval gate) + JSR

Tracking: bounded-systems/string-audit#43.

License

MIT

About

Deterministic versioning — intent files in, signed release out. A seam over semver.

Resources

Code of conduct

Contributing

Security policy

Stars

0 stars

Watchers

0 watching

Forks

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Highlight search terms from Google/DuckDuckGo/Bing referrer\n(function() {\n var ref = document.referrer;\n var terms = [];\n \n if (ref.includes('google.com') || ref.includes('duckduckgo.com') || ref.includes('bing.com')) {\n var url = new URL(ref);\n var q = url.searchParams.get('q') || url.searchParams.get('p');\n if (q) {\n terms = q.split(/\\s+/).filter(function(t) { return t.length > 2; });\n }\n }\n \n if (terms.length === 0) return;\n \n var style = document.createElement('style');\n style.textContent = '.userscript-highlight { background: #fbbf24; color: #1a1a2e; padding: 1px 3px; border-radius: 2px; }';\n document.head.appendChild(style);\n \n function highlight(node) {\n if (node.nodeType === 3) { // text node\n var text = node.textContent;\n var found = false;\n terms.forEach(function(term) {\n var regex = new RegExp('(' + term.replace(/[.*+?^${}()|[\\]\\\\]/g, '\\\\') + ')', 'gi');\n if (regex.test(text)) {\n found = true;\n var frag = document.createDocumentFragment();\n var parts = text.split(regex);\n parts.forEach(function(part, i) {\n if (i % 2 === 0) {\n frag.appendChild(document.createTextNode(part));\n } else {\n var span = document.createElement('span');\n span.className = 'userscript-highlight';\n span.textContent = part;\n frag.appendChild(span);\n }\n });\n node.parentNode.replaceChild(frag, node);\n }\n });\n } else if (node.nodeType === 1 && node.childNodes) { // element\n var skipTags = ['SCRIPT', 'STYLE', 'NOSCRIPT', 'TEXTAREA', 'INPUT', 'SELECT'];\n if (!skipTags.includes(node.tagName)) {\n Array.from(node.childNodes).forEach(highlight);\n }\n }\n }\n \n highlight(document.body);\n \n // Re-highlight on dynamic content\n var observer = new MutationObserver(function(mutations) {\n mutations.forEach(function(m) {\n m.addedNodes.forEach(function(node) {\n if (node.nodeType === 1 || node.nodeType === 3) highlight(node);\n });\n });\n });\n observer.observe(document.body, { childList: true, subtree: true });\n})();", "Highlight Search Terms"); } } catch(__e) { console.warn('[Userscript:Highlight Search Terms]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + '
Skip to content

Repository files navigation

@bounded-systems/mint

Deterministic versioning — intent files in, signed release out. A seam over semver: mint owns the flow (intent assembly, changelog, tagging, provenance) and delegates only the version arithmetic to the proven core.

Built because tagging-by-hand drifts: a manifest left behind its release tags is a recurring bug (string-audit#42). mint makes the version a per-PR declaration and the release a single atomic step.

Principles

  • Opinionated — one canonical release flow, no configurable branching.
  • Strongly deterministicplan() is a pure function of (currentVersion, intents, date). No commit-history ordering, no Date.now(), no randomness. Same intents in → same version + changelog out (sha in → sha out).
  • Typed end-to-end — intents and plan validated with Zod; a verbspec CLI/MCP surface mirrors the rest of the stack.
  • Owned — delegate only semver arithmetic; own assembly, rendering, tagging, and provenance.

Use

Each PR drops an intent in .release/ (see .release/README.md):

---bump: minor---
scan: promote to a verb (CLI + MCP) + shared Zod type contracts

Then:

mint plan # preview: 0.6.1 → 0.7.0 (minor) + the changelog entry
mint version # apply: bump package.json + lockfile, prepend CHANGELOG.md, consume intents
mint release # cut the v<version> tag + emit release provenance (CI keyless-signs it)

mint plan --json emits the machine-readable plan. --date YYYY-MM-DD pins the changelog date (the pure core never reads the clock; the CLI injects it).

Release provenance

mint release cuts the annotated tag v<version> (signed when a git signing key is configured) and emits a release provenance record — an in-toto Statement v1 binding the three things a release is:

tag → version plan → commit

The subject is the tag, anchored to its commit (in-toto gitCommit digest); the predicate carries the byte-exact changelog entry (the deterministic plan() output) and its sha256. Re-deriving the plan over the same intents reproduces that digest — the tag-to-plan link is machine-checkable, offline.

The Statement is deterministic (releaseStatement() is pure, like plan()) and keyless-signed in CI: release.yml runs mint attest, then cosign sign-blob binds the signature to the workflow's OIDC identity (Fulcio + Rekor — no key material). Locally the Statement is emitted unsigned (builder: null) so the flow degrades gracefully off-CI. This is the same Statement / DSSE / keyless-Sigstore shape the bounded-systems sites and @bounded-systems/verify already produce and verify, so a mint release record verifies with the same tooling:

cosign verify-blob \
--bundle mint-release.intoto.sigstore.json \
--certificate-identity-regexp '^https://github.com/<org>/<repo>/' \
--certificate-oidc-issuer https://token.actions.githubusercontent.com \
mint-release.intoto.json

anchored-chain: mint deliberately mirrors anchored-chain's in-toto constants + Statement/DSSE shape rather than depending on it: anchored-chain's in-toto module is Phase-0 and not yet re-exported from its public surface, is bun/TypeScript with a build step, and its predicate models a derivation chain, not a release. mint stays a zero-build node ESM package and can adopt anchored-chain's Signer/Verifier once that surface lands — the bytes already match.

Adopt mint's release in CI

A consumer repo calls the reusable release-provenance.yml on its tag push (a ~10-line caller — see the header of that workflow):

# .github/workflows/release.ymlname: releaseon: { push: { tags: ["v*"] } }permissions: { contents: write, id-token: write }jobs:
release:
uses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha> }

adoption.mjs --write drops both this caller and the version.yml caller into every publishable repo — the path off hand-tagging.

Shipping extra assets (binaries) on the same release

The release is created as a draft and published only once its assets are attached. A published release is immutable, so anything that attaches after the release goes public fails with 422: Cannot upload assets to an immutable release — which is how drift-gate v0.2.0 shipped with no binaries.

So build the assets in a job of the same workflow and hand the artifact to assets-artifact; the release job attaches them with the provenance and publishes once. A separate tag-triggered workflow racing for the same release is the thing to avoid — it is unordered by construction.

permissions: { contents: write, id-token: write, actions: read } # actions: read — artifact downloadjobs:
binaries:
runs-on: ubuntu-lateststeps:
# ... compile into dist/ ...
- uses: actions/upload-artifact@<sha>with: { name: release-binaries, path: dist/* }release:
needs: binariesuses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha>, assets-artifact: release-binaries }

If a repo must keep a separate attach workflow, pass finalize: false so this job leaves the draft for that workflow to publish — but that only moves the finish line, it does not order the two workflows.

Publish (npm + JSR)

mint ships from release.yml via OIDC trusted publishing — no NPM_TOKEN, no JSR token, ever. That one file is the whole release entry point: dispatch it to cut the tag in CI, or let it fire on a v* tag cut from a checkout. It is one file rather than two because npm validates the entry workflow's filename, not the file containing npm publish, and a package gets exactly one trusted publisher — so a repo may have exactly one entry workflow that reaches npm. That convention, and the npm form values it makes uniform, are in docs/npm-trusted-publishing.md; the lane itself is the reusable npm-publish.yml, which consumers call instead of hand-rolling a publisher. The package manifests are kept in lockstep by mint version (it bumps package.json, package-lock.json, andjsr.json).

npm uses a GitHub Environment gate — both the npm and jsr jobs declare the npm-publish environment, which requires a designated reviewer to approve in the GitHub Actions UI before either registry sees anything. The gate sits on the publishing jobs themselves rather than on a no-op approve job upstream, because that is the only way the environment claim reaches the OIDC token — and that claim is what npm's trusted-publisher Environment field pins. Approve at:

https://github.com/bounded-systems/mint/actions

Once approved, the package publishes immediately via OIDC trusted publishing (no token).

JSR publishes immediately on the same tag (no staging concept on JSR).

JSR-readiness is verified the same way CI publishes:

npx jsr publish --dry-run --allow-slow-types # the path release.yml runs
deno publish --dry-run --allow-slow-types # equivalent, Deno-native

jsr.json carries the SPDX license and a publish.include allowlist, so the published tarball is just the three exports + mint.mjs, README, CHANGELOG (no tests, lockfiles, or workflows). @types/node is a dev dependency so the JSR type-checker resolves mint's node: imports.

One-time JSR link (manual, once): before the first JSR publish, link the package on jsr.io — create @bounded-systems/mint under the @bounded-systems scope and connect it to the bounded-systems/mint GitHub repo (Settings → "Link to a GitHub repository"). That GitHub link is what authorizes the keyless OIDC publish; after it, every tagged release publishes with no token.

Consumers: the 24h JSR/npm cooldown after a release

Every fresh JSR/npm publish immediately hits Deno's minimumDependencyAge in any consumer running Deno 2.9+: since 2.9 it defaults to 24 hours — Deno refuses to resolve a version published inside that window, full stop, no config needed to trigger it. It's a real supply-chain guard (malicious versions are usually caught/yanked within days), but it applies to first-party @bounded-systems/* releases exactly the same as to a random third party.

Concretely: baobab@0.2.0 published, and every downstream consumer's CI (e.g. a check-contrast.yml caller) hard-failed for the next 24h trying to resolve it — not a flake, a guaranteed wait baked into every release (bounded-systems/mint#11). For one package that's a wait; for a coordinated rollout of several interdependent @bounded-systems/* packages in one sitting, it ripples — every consumer of every package in the batch eats the same 24h, and chains of dependencies compound it.

The fix does NOT live in a consumer's deno.json. An earlier version of this doc claimed a minimumDependencyAge.exclude list there would work — that was wrong, and only looked right because it was tested against Deno 2.8.3 (which doesn't enforce the 24h default at all; the default only started in 2.9). Verified against the real 2.9.1 binary: deno.json is never even read when deno run's entrypoint is a bare jsr:... specifier — config-file discovery only applies in normal "project mode." Planting invalid JSON in a deno.json and confirming Deno never complained is what exposed this.

What actually works: the --minimum-dependency-age CLI flag on the invocation itself. That means the fix has to live wherever the deno run command is composed — for a reusable GitHub Actions workflow like check-contrast.yml, that's an input on the workflow, not something a caller can override from its own repo (bounded-systems/baobab#7 adds minimum-dependency-age, defaulting to "0", since the only thing that workflow ever resolves from the network is @bounded-systems/baobab itself — a first-party package the caller already trust-bounds via its own version range input, so the age gate adds no real protection there). Any other reusable workflow or script that shells out to deno run jsr:.../npm:... directly needs the same treatment: an explicit --minimum-dependency-age (or --minimum-dependency-age=0 if every dependency it touches is first-party) on the command, not a config file a caller drops in.

This still doesn't scale past a handful of hand-fixed workflows — #11 is the open ask for mint to own generating this consistently across every @bounded-systems/* reusable workflow, rather than fixing each one by hand as it's hit.

Library

import{plan}from"@bounded-systems/mint";import{releaseStatement}from"@bounded-systems/mint/release";plan({currentVersion: "0.6.1",intents: [{bump: "minor",summary: "scan: promote to a verb"}],date: "2026-06-23",}).nextVersion;// "0.7.0"releaseStatement({version: "0.7.0",tag: "v0.7.0",commit: "0123456789abcdef0123456789abcdef01234567",date: "2026-06-23",changelog: "## 0.7.0 — 2026-06-23\n\n### Minor\n\n- scan: promote to a verb\n",producer: "@bounded-systems/mint",})._type;// "https://in-toto.io/Statement/v1"

Roadmap

  • Deterministic plan core + Zod intent contract
  • mint plan / mint version
  • mint release — signed tag + in-toto release provenance, keyless-signed in CI (cosign/Sigstore; anchored-chain-shaped)
  • verbspec-typed CLI + MCP surface
  • Reusable workflow_call Action (version.yml + release-provenance.yml)
  • Publish to npm (GitHub Environment approval gate) + JSR

Tracking: bounded-systems/string-audit#43.

License

MIT

About

Deterministic versioning — intent files in, signed release out. A seam over semver.

Resources

Code of conduct

Contributing

Security policy

Stars

0 stars

Watchers

0 watching

Forks

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Strip utm_, fbclid, gclid, etc. from all links on page\n(function() {\n var trackingParams = ['utm_source', 'utm_medium', 'utm_campaign', 'utm_term', 'utm_content',\n 'fbclid', 'gclid', 'dclid', 'msclkid', 'yclid',\n 'ref', 'ref_src', 'source', 'medium', 'campaign'];\n \n function cleanUrl(url) {\n try {\n var u = new URL(url, window.location.origin);\n var changed = false;\n trackingParams.forEach(function(p) {\n if (u.searchParams.has(p)) {\n u.searchParams.delete(p);\n changed = true;\n }\n });\n return changed ? u.toString() : url;\n } catch (e) {\n return url;\n }\n }\n \n function cleanLinks() {\n document.querySelectorAll('a[href]').forEach(function(a) {\n var clean = cleanUrl(a.href);\n if (clean !== a.href) a.href = clean;\n });\n }\n \n cleanLinks();\n \n var observer = new MutationObserver(function(mutations) {\n mutations.forEach(function(m) {\n m.addedNodes.forEach(function(node) {\n if (node.nodeType === 1) {\n if (node.tagName === 'A') cleanLinks();\n node.querySelectorAll('a[href]').forEach(function(a) {\n var clean = cleanUrl(a.href);\n if (clean !== a.href) a.href = clean;\n });\n }\n });\n });\n });\n observer.observe(document.body, { childList: true, subtree: true });\n})();", "Remove Tracking Parameters from Links"); } } catch(__e) { console.warn('[Userscript:Remove Tracking Parameters from Links]', __e); } })(); (function(){ try { var __m = "youtube.com"; var __re = new RegExp('^' + "youtube\\.com" + '
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Repository files navigation

@bounded-systems/mint

Deterministic versioning — intent files in, signed release out. A seam over semver: mint owns the flow (intent assembly, changelog, tagging, provenance) and delegates only the version arithmetic to the proven core.

Built because tagging-by-hand drifts: a manifest left behind its release tags is a recurring bug (string-audit#42). mint makes the version a per-PR declaration and the release a single atomic step.

Principles

  • Opinionated — one canonical release flow, no configurable branching.
  • Strongly deterministicplan() is a pure function of (currentVersion, intents, date). No commit-history ordering, no Date.now(), no randomness. Same intents in → same version + changelog out (sha in → sha out).
  • Typed end-to-end — intents and plan validated with Zod; a verbspec CLI/MCP surface mirrors the rest of the stack.
  • Owned — delegate only semver arithmetic; own assembly, rendering, tagging, and provenance.

Use

Each PR drops an intent in .release/ (see .release/README.md):

---bump: minor---
scan: promote to a verb (CLI + MCP) + shared Zod type contracts

Then:

mint plan # preview: 0.6.1 → 0.7.0 (minor) + the changelog entry
mint version # apply: bump package.json + lockfile, prepend CHANGELOG.md, consume intents
mint release # cut the v<version> tag + emit release provenance (CI keyless-signs it)

mint plan --json emits the machine-readable plan. --date YYYY-MM-DD pins the changelog date (the pure core never reads the clock; the CLI injects it).

Release provenance

mint release cuts the annotated tag v<version> (signed when a git signing key is configured) and emits a release provenance record — an in-toto Statement v1 binding the three things a release is:

tag → version plan → commit

The subject is the tag, anchored to its commit (in-toto gitCommit digest); the predicate carries the byte-exact changelog entry (the deterministic plan() output) and its sha256. Re-deriving the plan over the same intents reproduces that digest — the tag-to-plan link is machine-checkable, offline.

The Statement is deterministic (releaseStatement() is pure, like plan()) and keyless-signed in CI: release.yml runs mint attest, then cosign sign-blob binds the signature to the workflow's OIDC identity (Fulcio + Rekor — no key material). Locally the Statement is emitted unsigned (builder: null) so the flow degrades gracefully off-CI. This is the same Statement / DSSE / keyless-Sigstore shape the bounded-systems sites and @bounded-systems/verify already produce and verify, so a mint release record verifies with the same tooling:

cosign verify-blob \
--bundle mint-release.intoto.sigstore.json \
--certificate-identity-regexp '^https://github.com/<org>/<repo>/' \
--certificate-oidc-issuer https://token.actions.githubusercontent.com \
mint-release.intoto.json

anchored-chain: mint deliberately mirrors anchored-chain's in-toto constants + Statement/DSSE shape rather than depending on it: anchored-chain's in-toto module is Phase-0 and not yet re-exported from its public surface, is bun/TypeScript with a build step, and its predicate models a derivation chain, not a release. mint stays a zero-build node ESM package and can adopt anchored-chain's Signer/Verifier once that surface lands — the bytes already match.

Adopt mint's release in CI

A consumer repo calls the reusable release-provenance.yml on its tag push (a ~10-line caller — see the header of that workflow):

# .github/workflows/release.ymlname: releaseon: { push: { tags: ["v*"] } }permissions: { contents: write, id-token: write }jobs:
release:
uses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha> }

adoption.mjs --write drops both this caller and the version.yml caller into every publishable repo — the path off hand-tagging.

Shipping extra assets (binaries) on the same release

The release is created as a draft and published only once its assets are attached. A published release is immutable, so anything that attaches after the release goes public fails with 422: Cannot upload assets to an immutable release — which is how drift-gate v0.2.0 shipped with no binaries.

So build the assets in a job of the same workflow and hand the artifact to assets-artifact; the release job attaches them with the provenance and publishes once. A separate tag-triggered workflow racing for the same release is the thing to avoid — it is unordered by construction.

permissions: { contents: write, id-token: write, actions: read } # actions: read — artifact downloadjobs:
binaries:
runs-on: ubuntu-lateststeps:
# ... compile into dist/ ...
- uses: actions/upload-artifact@<sha>with: { name: release-binaries, path: dist/* }release:
needs: binariesuses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha>, assets-artifact: release-binaries }

If a repo must keep a separate attach workflow, pass finalize: false so this job leaves the draft for that workflow to publish — but that only moves the finish line, it does not order the two workflows.

Publish (npm + JSR)

mint ships from release.yml via OIDC trusted publishing — no NPM_TOKEN, no JSR token, ever. That one file is the whole release entry point: dispatch it to cut the tag in CI, or let it fire on a v* tag cut from a checkout. It is one file rather than two because npm validates the entry workflow's filename, not the file containing npm publish, and a package gets exactly one trusted publisher — so a repo may have exactly one entry workflow that reaches npm. That convention, and the npm form values it makes uniform, are in docs/npm-trusted-publishing.md; the lane itself is the reusable npm-publish.yml, which consumers call instead of hand-rolling a publisher. The package manifests are kept in lockstep by mint version (it bumps package.json, package-lock.json, andjsr.json).

npm uses a GitHub Environment gate — both the npm and jsr jobs declare the npm-publish environment, which requires a designated reviewer to approve in the GitHub Actions UI before either registry sees anything. The gate sits on the publishing jobs themselves rather than on a no-op approve job upstream, because that is the only way the environment claim reaches the OIDC token — and that claim is what npm's trusted-publisher Environment field pins. Approve at:

https://github.com/bounded-systems/mint/actions

Once approved, the package publishes immediately via OIDC trusted publishing (no token).

JSR publishes immediately on the same tag (no staging concept on JSR).

JSR-readiness is verified the same way CI publishes:

npx jsr publish --dry-run --allow-slow-types # the path release.yml runs
deno publish --dry-run --allow-slow-types # equivalent, Deno-native

jsr.json carries the SPDX license and a publish.include allowlist, so the published tarball is just the three exports + mint.mjs, README, CHANGELOG (no tests, lockfiles, or workflows). @types/node is a dev dependency so the JSR type-checker resolves mint's node: imports.

One-time JSR link (manual, once): before the first JSR publish, link the package on jsr.io — create @bounded-systems/mint under the @bounded-systems scope and connect it to the bounded-systems/mint GitHub repo (Settings → "Link to a GitHub repository"). That GitHub link is what authorizes the keyless OIDC publish; after it, every tagged release publishes with no token.

Consumers: the 24h JSR/npm cooldown after a release

Every fresh JSR/npm publish immediately hits Deno's minimumDependencyAge in any consumer running Deno 2.9+: since 2.9 it defaults to 24 hours — Deno refuses to resolve a version published inside that window, full stop, no config needed to trigger it. It's a real supply-chain guard (malicious versions are usually caught/yanked within days), but it applies to first-party @bounded-systems/* releases exactly the same as to a random third party.

Concretely: baobab@0.2.0 published, and every downstream consumer's CI (e.g. a check-contrast.yml caller) hard-failed for the next 24h trying to resolve it — not a flake, a guaranteed wait baked into every release (bounded-systems/mint#11). For one package that's a wait; for a coordinated rollout of several interdependent @bounded-systems/* packages in one sitting, it ripples — every consumer of every package in the batch eats the same 24h, and chains of dependencies compound it.

The fix does NOT live in a consumer's deno.json. An earlier version of this doc claimed a minimumDependencyAge.exclude list there would work — that was wrong, and only looked right because it was tested against Deno 2.8.3 (which doesn't enforce the 24h default at all; the default only started in 2.9). Verified against the real 2.9.1 binary: deno.json is never even read when deno run's entrypoint is a bare jsr:... specifier — config-file discovery only applies in normal "project mode." Planting invalid JSON in a deno.json and confirming Deno never complained is what exposed this.

What actually works: the --minimum-dependency-age CLI flag on the invocation itself. That means the fix has to live wherever the deno run command is composed — for a reusable GitHub Actions workflow like check-contrast.yml, that's an input on the workflow, not something a caller can override from its own repo (bounded-systems/baobab#7 adds minimum-dependency-age, defaulting to "0", since the only thing that workflow ever resolves from the network is @bounded-systems/baobab itself — a first-party package the caller already trust-bounds via its own version range input, so the age gate adds no real protection there). Any other reusable workflow or script that shells out to deno run jsr:.../npm:... directly needs the same treatment: an explicit --minimum-dependency-age (or --minimum-dependency-age=0 if every dependency it touches is first-party) on the command, not a config file a caller drops in.

This still doesn't scale past a handful of hand-fixed workflows — #11 is the open ask for mint to own generating this consistently across every @bounded-systems/* reusable workflow, rather than fixing each one by hand as it's hit.

Library

import{plan}from"@bounded-systems/mint";import{releaseStatement}from"@bounded-systems/mint/release";plan({currentVersion: "0.6.1",intents: [{bump: "minor",summary: "scan: promote to a verb"}],date: "2026-06-23",}).nextVersion;// "0.7.0"releaseStatement({version: "0.7.0",tag: "v0.7.0",commit: "0123456789abcdef0123456789abcdef01234567",date: "2026-06-23",changelog: "## 0.7.0 — 2026-06-23\n\n### Minor\n\n- scan: promote to a verb\n",producer: "@bounded-systems/mint",})._type;// "https://in-toto.io/Statement/v1"

Roadmap

  • Deterministic plan core + Zod intent contract
  • mint plan / mint version
  • mint release — signed tag + in-toto release provenance, keyless-signed in CI (cosign/Sigstore; anchored-chain-shaped)
  • verbspec-typed CLI + MCP surface
  • Reusable workflow_call Action (version.yml + release-provenance.yml)
  • Publish to npm (GitHub Environment approval gate) + JSR

Tracking: bounded-systems/string-audit#43.

License

MIT

About

Deterministic versioning — intent files in, signed release out. A seam over semver.

Resources

Code of conduct

Contributing

Security policy

Stars

0 stars

Watchers

0 watching

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, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Auto-enable theater mode on YouTube\n(function() {\n function tryTheater() {\n var btn = document.querySelector('button[aria-label=\"Theater mode\"], ytd-player #player button[title=\"Theater mode\"]');\n if (btn && !btn.classList.contains('activated')) {\n btn.click();\n }\n }\n \n // Try immediately\n tryTheater();\n \n // Try after navigation (SPA)\n var lastUrl = location.href;\n setInterval(function() {\n if (location.href !== lastUrl) {\n lastUrl = location.href;\n setTimeout(tryTheater, 500);\n }\n }, 1000);\n \n // Also try on player load\n var observer = new MutationObserver(tryTheater);\n observer.observe(document.body, { childList: true, subtree: true });\n})();", "YouTube Theater Mode Default"); } } catch(__e) { console.warn('[Userscript:YouTube Theater Mode Default]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + '
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@bounded-systems/mint

Deterministic versioning — intent files in, signed release out. A seam over semver: mint owns the flow (intent assembly, changelog, tagging, provenance) and delegates only the version arithmetic to the proven core.

Built because tagging-by-hand drifts: a manifest left behind its release tags is a recurring bug (string-audit#42). mint makes the version a per-PR declaration and the release a single atomic step.

Principles

  • Opinionated — one canonical release flow, no configurable branching.
  • Strongly deterministicplan() is a pure function of (currentVersion, intents, date). No commit-history ordering, no Date.now(), no randomness. Same intents in → same version + changelog out (sha in → sha out).
  • Typed end-to-end — intents and plan validated with Zod; a verbspec CLI/MCP surface mirrors the rest of the stack.
  • Owned — delegate only semver arithmetic; own assembly, rendering, tagging, and provenance.

Use

Each PR drops an intent in .release/ (see .release/README.md):

---bump: minor---
scan: promote to a verb (CLI + MCP) + shared Zod type contracts

Then:

mint plan # preview: 0.6.1 → 0.7.0 (minor) + the changelog entry
mint version # apply: bump package.json + lockfile, prepend CHANGELOG.md, consume intents
mint release # cut the v<version> tag + emit release provenance (CI keyless-signs it)

mint plan --json emits the machine-readable plan. --date YYYY-MM-DD pins the changelog date (the pure core never reads the clock; the CLI injects it).

Release provenance

mint release cuts the annotated tag v<version> (signed when a git signing key is configured) and emits a release provenance record — an in-toto Statement v1 binding the three things a release is:

tag → version plan → commit

The subject is the tag, anchored to its commit (in-toto gitCommit digest); the predicate carries the byte-exact changelog entry (the deterministic plan() output) and its sha256. Re-deriving the plan over the same intents reproduces that digest — the tag-to-plan link is machine-checkable, offline.

The Statement is deterministic (releaseStatement() is pure, like plan()) and keyless-signed in CI: release.yml runs mint attest, then cosign sign-blob binds the signature to the workflow's OIDC identity (Fulcio + Rekor — no key material). Locally the Statement is emitted unsigned (builder: null) so the flow degrades gracefully off-CI. This is the same Statement / DSSE / keyless-Sigstore shape the bounded-systems sites and @bounded-systems/verify already produce and verify, so a mint release record verifies with the same tooling:

cosign verify-blob \
--bundle mint-release.intoto.sigstore.json \
--certificate-identity-regexp '^https://github.com/<org>/<repo>/' \
--certificate-oidc-issuer https://token.actions.githubusercontent.com \
mint-release.intoto.json

anchored-chain: mint deliberately mirrors anchored-chain's in-toto constants + Statement/DSSE shape rather than depending on it: anchored-chain's in-toto module is Phase-0 and not yet re-exported from its public surface, is bun/TypeScript with a build step, and its predicate models a derivation chain, not a release. mint stays a zero-build node ESM package and can adopt anchored-chain's Signer/Verifier once that surface lands — the bytes already match.

Adopt mint's release in CI

A consumer repo calls the reusable release-provenance.yml on its tag push (a ~10-line caller — see the header of that workflow):

# .github/workflows/release.ymlname: releaseon: { push: { tags: ["v*"] } }permissions: { contents: write, id-token: write }jobs:
release:
uses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha> }

adoption.mjs --write drops both this caller and the version.yml caller into every publishable repo — the path off hand-tagging.

Shipping extra assets (binaries) on the same release

The release is created as a draft and published only once its assets are attached. A published release is immutable, so anything that attaches after the release goes public fails with 422: Cannot upload assets to an immutable release — which is how drift-gate v0.2.0 shipped with no binaries.

So build the assets in a job of the same workflow and hand the artifact to assets-artifact; the release job attaches them with the provenance and publishes once. A separate tag-triggered workflow racing for the same release is the thing to avoid — it is unordered by construction.

permissions: { contents: write, id-token: write, actions: read } # actions: read — artifact downloadjobs:
binaries:
runs-on: ubuntu-lateststeps:
# ... compile into dist/ ...
- uses: actions/upload-artifact@<sha>with: { name: release-binaries, path: dist/* }release:
needs: binariesuses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha>, assets-artifact: release-binaries }

If a repo must keep a separate attach workflow, pass finalize: false so this job leaves the draft for that workflow to publish — but that only moves the finish line, it does not order the two workflows.

Publish (npm + JSR)

mint ships from release.yml via OIDC trusted publishing — no NPM_TOKEN, no JSR token, ever. That one file is the whole release entry point: dispatch it to cut the tag in CI, or let it fire on a v* tag cut from a checkout. It is one file rather than two because npm validates the entry workflow's filename, not the file containing npm publish, and a package gets exactly one trusted publisher — so a repo may have exactly one entry workflow that reaches npm. That convention, and the npm form values it makes uniform, are in docs/npm-trusted-publishing.md; the lane itself is the reusable npm-publish.yml, which consumers call instead of hand-rolling a publisher. The package manifests are kept in lockstep by mint version (it bumps package.json, package-lock.json, andjsr.json).

npm uses a GitHub Environment gate — both the npm and jsr jobs declare the npm-publish environment, which requires a designated reviewer to approve in the GitHub Actions UI before either registry sees anything. The gate sits on the publishing jobs themselves rather than on a no-op approve job upstream, because that is the only way the environment claim reaches the OIDC token — and that claim is what npm's trusted-publisher Environment field pins. Approve at:

https://github.com/bounded-systems/mint/actions

Once approved, the package publishes immediately via OIDC trusted publishing (no token).

JSR publishes immediately on the same tag (no staging concept on JSR).

JSR-readiness is verified the same way CI publishes:

npx jsr publish --dry-run --allow-slow-types # the path release.yml runs
deno publish --dry-run --allow-slow-types # equivalent, Deno-native

jsr.json carries the SPDX license and a publish.include allowlist, so the published tarball is just the three exports + mint.mjs, README, CHANGELOG (no tests, lockfiles, or workflows). @types/node is a dev dependency so the JSR type-checker resolves mint's node: imports.

One-time JSR link (manual, once): before the first JSR publish, link the package on jsr.io — create @bounded-systems/mint under the @bounded-systems scope and connect it to the bounded-systems/mint GitHub repo (Settings → "Link to a GitHub repository"). That GitHub link is what authorizes the keyless OIDC publish; after it, every tagged release publishes with no token.

Consumers: the 24h JSR/npm cooldown after a release

Every fresh JSR/npm publish immediately hits Deno's minimumDependencyAge in any consumer running Deno 2.9+: since 2.9 it defaults to 24 hours — Deno refuses to resolve a version published inside that window, full stop, no config needed to trigger it. It's a real supply-chain guard (malicious versions are usually caught/yanked within days), but it applies to first-party @bounded-systems/* releases exactly the same as to a random third party.

Concretely: baobab@0.2.0 published, and every downstream consumer's CI (e.g. a check-contrast.yml caller) hard-failed for the next 24h trying to resolve it — not a flake, a guaranteed wait baked into every release (bounded-systems/mint#11). For one package that's a wait; for a coordinated rollout of several interdependent @bounded-systems/* packages in one sitting, it ripples — every consumer of every package in the batch eats the same 24h, and chains of dependencies compound it.

The fix does NOT live in a consumer's deno.json. An earlier version of this doc claimed a minimumDependencyAge.exclude list there would work — that was wrong, and only looked right because it was tested against Deno 2.8.3 (which doesn't enforce the 24h default at all; the default only started in 2.9). Verified against the real 2.9.1 binary: deno.json is never even read when deno run's entrypoint is a bare jsr:... specifier — config-file discovery only applies in normal "project mode." Planting invalid JSON in a deno.json and confirming Deno never complained is what exposed this.

What actually works: the --minimum-dependency-age CLI flag on the invocation itself. That means the fix has to live wherever the deno run command is composed — for a reusable GitHub Actions workflow like check-contrast.yml, that's an input on the workflow, not something a caller can override from its own repo (bounded-systems/baobab#7 adds minimum-dependency-age, defaulting to "0", since the only thing that workflow ever resolves from the network is @bounded-systems/baobab itself — a first-party package the caller already trust-bounds via its own version range input, so the age gate adds no real protection there). Any other reusable workflow or script that shells out to deno run jsr:.../npm:... directly needs the same treatment: an explicit --minimum-dependency-age (or --minimum-dependency-age=0 if every dependency it touches is first-party) on the command, not a config file a caller drops in.

This still doesn't scale past a handful of hand-fixed workflows — #11 is the open ask for mint to own generating this consistently across every @bounded-systems/* reusable workflow, rather than fixing each one by hand as it's hit.

Library

import{plan}from"@bounded-systems/mint";import{releaseStatement}from"@bounded-systems/mint/release";plan({currentVersion: "0.6.1",intents: [{bump: "minor",summary: "scan: promote to a verb"}],date: "2026-06-23",}).nextVersion;// "0.7.0"releaseStatement({version: "0.7.0",tag: "v0.7.0",commit: "0123456789abcdef0123456789abcdef01234567",date: "2026-06-23",changelog: "## 0.7.0 — 2026-06-23\n\n### Minor\n\n- scan: promote to a verb\n",producer: "@bounded-systems/mint",})._type;// "https://in-toto.io/Statement/v1"

Roadmap

  • Deterministic plan core + Zod intent contract
  • mint plan / mint version
  • mint release — signed tag + in-toto release provenance, keyless-signed in CI (cosign/Sigstore; anchored-chain-shaped)
  • verbspec-typed CLI + MCP surface
  • Reusable workflow_call Action (version.yml + release-provenance.yml)
  • Publish to npm (GitHub Environment approval gate) + JSR

Tracking: bounded-systems/string-audit#43.

License

MIT

About

Deterministic versioning — intent files in, signed release out. A seam over semver.

Resources

Code of conduct

Contributing

Security policy

Stars

0 stars

Watchers

0 watching

Forks

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Remove or un-stick sticky/fixed headers that block content\n(function() {\n function unstick() {\n document.querySelectorAll('header, nav, [role=\"banner\"], .header, .navbar, .sticky, .fixed-top, [style*=\"position: fixed\"], [style*=\"position:sticky\"]').forEach(function(el) {\n if (el.style.position === 'fixed' || el.style.position === 'sticky' || \n getComputedStyle(el).position === 'fixed' || getComputedStyle(el).position === 'sticky') {\n el.style.position = 'static';\n el.style.top = 'auto';\n el.style.zIndex = 'auto';\n }\n });\n }\n \n unstick();\n \n var observer = new MutationObserver(unstick);\n observer.observe(document.body, { childList: true, subtree: true, attributes: true, attributeFilter: ['style', 'class'] });\n})();", "Kill Sticky Headers"); } } catch(__e) { console.warn('[Userscript:Kill Sticky Headers]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + '
Skip to content

Repository files navigation

@bounded-systems/mint

Deterministic versioning — intent files in, signed release out. A seam over semver: mint owns the flow (intent assembly, changelog, tagging, provenance) and delegates only the version arithmetic to the proven core.

Built because tagging-by-hand drifts: a manifest left behind its release tags is a recurring bug (string-audit#42). mint makes the version a per-PR declaration and the release a single atomic step.

Principles

  • Opinionated — one canonical release flow, no configurable branching.
  • Strongly deterministicplan() is a pure function of (currentVersion, intents, date). No commit-history ordering, no Date.now(), no randomness. Same intents in → same version + changelog out (sha in → sha out).
  • Typed end-to-end — intents and plan validated with Zod; a verbspec CLI/MCP surface mirrors the rest of the stack.
  • Owned — delegate only semver arithmetic; own assembly, rendering, tagging, and provenance.

Use

Each PR drops an intent in .release/ (see .release/README.md):

---bump: minor---
scan: promote to a verb (CLI + MCP) + shared Zod type contracts

Then:

mint plan # preview: 0.6.1 → 0.7.0 (minor) + the changelog entry
mint version # apply: bump package.json + lockfile, prepend CHANGELOG.md, consume intents
mint release # cut the v<version> tag + emit release provenance (CI keyless-signs it)

mint plan --json emits the machine-readable plan. --date YYYY-MM-DD pins the changelog date (the pure core never reads the clock; the CLI injects it).

Release provenance

mint release cuts the annotated tag v<version> (signed when a git signing key is configured) and emits a release provenance record — an in-toto Statement v1 binding the three things a release is:

tag → version plan → commit

The subject is the tag, anchored to its commit (in-toto gitCommit digest); the predicate carries the byte-exact changelog entry (the deterministic plan() output) and its sha256. Re-deriving the plan over the same intents reproduces that digest — the tag-to-plan link is machine-checkable, offline.

The Statement is deterministic (releaseStatement() is pure, like plan()) and keyless-signed in CI: release.yml runs mint attest, then cosign sign-blob binds the signature to the workflow's OIDC identity (Fulcio + Rekor — no key material). Locally the Statement is emitted unsigned (builder: null) so the flow degrades gracefully off-CI. This is the same Statement / DSSE / keyless-Sigstore shape the bounded-systems sites and @bounded-systems/verify already produce and verify, so a mint release record verifies with the same tooling:

cosign verify-blob \
--bundle mint-release.intoto.sigstore.json \
--certificate-identity-regexp '^https://github.com/<org>/<repo>/' \
--certificate-oidc-issuer https://token.actions.githubusercontent.com \
mint-release.intoto.json

anchored-chain: mint deliberately mirrors anchored-chain's in-toto constants + Statement/DSSE shape rather than depending on it: anchored-chain's in-toto module is Phase-0 and not yet re-exported from its public surface, is bun/TypeScript with a build step, and its predicate models a derivation chain, not a release. mint stays a zero-build node ESM package and can adopt anchored-chain's Signer/Verifier once that surface lands — the bytes already match.

Adopt mint's release in CI

A consumer repo calls the reusable release-provenance.yml on its tag push (a ~10-line caller — see the header of that workflow):

# .github/workflows/release.ymlname: releaseon: { push: { tags: ["v*"] } }permissions: { contents: write, id-token: write }jobs:
release:
uses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha> }

adoption.mjs --write drops both this caller and the version.yml caller into every publishable repo — the path off hand-tagging.

Shipping extra assets (binaries) on the same release

The release is created as a draft and published only once its assets are attached. A published release is immutable, so anything that attaches after the release goes public fails with 422: Cannot upload assets to an immutable release — which is how drift-gate v0.2.0 shipped with no binaries.

So build the assets in a job of the same workflow and hand the artifact to assets-artifact; the release job attaches them with the provenance and publishes once. A separate tag-triggered workflow racing for the same release is the thing to avoid — it is unordered by construction.

permissions: { contents: write, id-token: write, actions: read } # actions: read — artifact downloadjobs:
binaries:
runs-on: ubuntu-lateststeps:
# ... compile into dist/ ...
- uses: actions/upload-artifact@<sha>with: { name: release-binaries, path: dist/* }release:
needs: binariesuses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha>, assets-artifact: release-binaries }

If a repo must keep a separate attach workflow, pass finalize: false so this job leaves the draft for that workflow to publish — but that only moves the finish line, it does not order the two workflows.

Publish (npm + JSR)

mint ships from release.yml via OIDC trusted publishing — no NPM_TOKEN, no JSR token, ever. That one file is the whole release entry point: dispatch it to cut the tag in CI, or let it fire on a v* tag cut from a checkout. It is one file rather than two because npm validates the entry workflow's filename, not the file containing npm publish, and a package gets exactly one trusted publisher — so a repo may have exactly one entry workflow that reaches npm. That convention, and the npm form values it makes uniform, are in docs/npm-trusted-publishing.md; the lane itself is the reusable npm-publish.yml, which consumers call instead of hand-rolling a publisher. The package manifests are kept in lockstep by mint version (it bumps package.json, package-lock.json, andjsr.json).

npm uses a GitHub Environment gate — both the npm and jsr jobs declare the npm-publish environment, which requires a designated reviewer to approve in the GitHub Actions UI before either registry sees anything. The gate sits on the publishing jobs themselves rather than on a no-op approve job upstream, because that is the only way the environment claim reaches the OIDC token — and that claim is what npm's trusted-publisher Environment field pins. Approve at:

https://github.com/bounded-systems/mint/actions

Once approved, the package publishes immediately via OIDC trusted publishing (no token).

JSR publishes immediately on the same tag (no staging concept on JSR).

JSR-readiness is verified the same way CI publishes:

npx jsr publish --dry-run --allow-slow-types # the path release.yml runs
deno publish --dry-run --allow-slow-types # equivalent, Deno-native

jsr.json carries the SPDX license and a publish.include allowlist, so the published tarball is just the three exports + mint.mjs, README, CHANGELOG (no tests, lockfiles, or workflows). @types/node is a dev dependency so the JSR type-checker resolves mint's node: imports.

One-time JSR link (manual, once): before the first JSR publish, link the package on jsr.io — create @bounded-systems/mint under the @bounded-systems scope and connect it to the bounded-systems/mint GitHub repo (Settings → "Link to a GitHub repository"). That GitHub link is what authorizes the keyless OIDC publish; after it, every tagged release publishes with no token.

Consumers: the 24h JSR/npm cooldown after a release

Every fresh JSR/npm publish immediately hits Deno's minimumDependencyAge in any consumer running Deno 2.9+: since 2.9 it defaults to 24 hours — Deno refuses to resolve a version published inside that window, full stop, no config needed to trigger it. It's a real supply-chain guard (malicious versions are usually caught/yanked within days), but it applies to first-party @bounded-systems/* releases exactly the same as to a random third party.

Concretely: baobab@0.2.0 published, and every downstream consumer's CI (e.g. a check-contrast.yml caller) hard-failed for the next 24h trying to resolve it — not a flake, a guaranteed wait baked into every release (bounded-systems/mint#11). For one package that's a wait; for a coordinated rollout of several interdependent @bounded-systems/* packages in one sitting, it ripples — every consumer of every package in the batch eats the same 24h, and chains of dependencies compound it.

The fix does NOT live in a consumer's deno.json. An earlier version of this doc claimed a minimumDependencyAge.exclude list there would work — that was wrong, and only looked right because it was tested against Deno 2.8.3 (which doesn't enforce the 24h default at all; the default only started in 2.9). Verified against the real 2.9.1 binary: deno.json is never even read when deno run's entrypoint is a bare jsr:... specifier — config-file discovery only applies in normal "project mode." Planting invalid JSON in a deno.json and confirming Deno never complained is what exposed this.

What actually works: the --minimum-dependency-age CLI flag on the invocation itself. That means the fix has to live wherever the deno run command is composed — for a reusable GitHub Actions workflow like check-contrast.yml, that's an input on the workflow, not something a caller can override from its own repo (bounded-systems/baobab#7 adds minimum-dependency-age, defaulting to "0", since the only thing that workflow ever resolves from the network is @bounded-systems/baobab itself — a first-party package the caller already trust-bounds via its own version range input, so the age gate adds no real protection there). Any other reusable workflow or script that shells out to deno run jsr:.../npm:... directly needs the same treatment: an explicit --minimum-dependency-age (or --minimum-dependency-age=0 if every dependency it touches is first-party) on the command, not a config file a caller drops in.

This still doesn't scale past a handful of hand-fixed workflows — #11 is the open ask for mint to own generating this consistently across every @bounded-systems/* reusable workflow, rather than fixing each one by hand as it's hit.

Library

import{plan}from"@bounded-systems/mint";import{releaseStatement}from"@bounded-systems/mint/release";plan({currentVersion: "0.6.1",intents: [{bump: "minor",summary: "scan: promote to a verb"}],date: "2026-06-23",}).nextVersion;// "0.7.0"releaseStatement({version: "0.7.0",tag: "v0.7.0",commit: "0123456789abcdef0123456789abcdef01234567",date: "2026-06-23",changelog: "## 0.7.0 — 2026-06-23\n\n### Minor\n\n- scan: promote to a verb\n",producer: "@bounded-systems/mint",})._type;// "https://in-toto.io/Statement/v1"

Roadmap

  • Deterministic plan core + Zod intent contract
  • mint plan / mint version
  • mint release — signed tag + in-toto release provenance, keyless-signed in CI (cosign/Sigstore; anchored-chain-shaped)
  • verbspec-typed CLI + MCP surface
  • Reusable workflow_call Action (version.yml + release-provenance.yml)
  • Publish to npm (GitHub Environment approval gate) + JSR

Tracking: bounded-systems/string-audit#43.

License

MIT

About

Deterministic versioning — intent files in, signed release out. A seam over semver.

Resources

Code of conduct

Contributing

Security policy

Stars

0 stars

Watchers

0 watching

Forks

Releases

Packages

Used by

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@bounded-systems/mint

Deterministic versioning — intent files in, signed release out. A seam over semver: mint owns the flow (intent assembly, changelog, tagging, provenance) and delegates only the version arithmetic to the proven core.

Built because tagging-by-hand drifts: a manifest left behind its release tags is a recurring bug (string-audit#42). mint makes the version a per-PR declaration and the release a single atomic step.

Principles

  • Opinionated — one canonical release flow, no configurable branching.
  • Strongly deterministicplan() is a pure function of (currentVersion, intents, date). No commit-history ordering, no Date.now(), no randomness. Same intents in → same version + changelog out (sha in → sha out).
  • Typed end-to-end — intents and plan validated with Zod; a verbspec CLI/MCP surface mirrors the rest of the stack.
  • Owned — delegate only semver arithmetic; own assembly, rendering, tagging, and provenance.

Use

Each PR drops an intent in .release/ (see .release/README.md):

---bump: minor---
scan: promote to a verb (CLI + MCP) + shared Zod type contracts

Then:

mint plan # preview: 0.6.1 → 0.7.0 (minor) + the changelog entry
mint version # apply: bump package.json + lockfile, prepend CHANGELOG.md, consume intents
mint release # cut the v<version> tag + emit release provenance (CI keyless-signs it)

mint plan --json emits the machine-readable plan. --date YYYY-MM-DD pins the changelog date (the pure core never reads the clock; the CLI injects it).

Release provenance

mint release cuts the annotated tag v<version> (signed when a git signing key is configured) and emits a release provenance record — an in-toto Statement v1 binding the three things a release is:

tag → version plan → commit

The subject is the tag, anchored to its commit (in-toto gitCommit digest); the predicate carries the byte-exact changelog entry (the deterministic plan() output) and its sha256. Re-deriving the plan over the same intents reproduces that digest — the tag-to-plan link is machine-checkable, offline.

The Statement is deterministic (releaseStatement() is pure, like plan()) and keyless-signed in CI: release.yml runs mint attest, then cosign sign-blob binds the signature to the workflow's OIDC identity (Fulcio + Rekor — no key material). Locally the Statement is emitted unsigned (builder: null) so the flow degrades gracefully off-CI. This is the same Statement / DSSE / keyless-Sigstore shape the bounded-systems sites and @bounded-systems/verify already produce and verify, so a mint release record verifies with the same tooling:

cosign verify-blob \
--bundle mint-release.intoto.sigstore.json \
--certificate-identity-regexp '^https://github.com/<org>/<repo>/' \
--certificate-oidc-issuer https://token.actions.githubusercontent.com \
mint-release.intoto.json

anchored-chain: mint deliberately mirrors anchored-chain's in-toto constants + Statement/DSSE shape rather than depending on it: anchored-chain's in-toto module is Phase-0 and not yet re-exported from its public surface, is bun/TypeScript with a build step, and its predicate models a derivation chain, not a release. mint stays a zero-build node ESM package and can adopt anchored-chain's Signer/Verifier once that surface lands — the bytes already match.

Adopt mint's release in CI

A consumer repo calls the reusable release-provenance.yml on its tag push (a ~10-line caller — see the header of that workflow):

# .github/workflows/release.ymlname: releaseon: { push: { tags: ["v*"] } }permissions: { contents: write, id-token: write }jobs:
release:
uses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha> }

adoption.mjs --write drops both this caller and the version.yml caller into every publishable repo — the path off hand-tagging.

Shipping extra assets (binaries) on the same release

The release is created as a draft and published only once its assets are attached. A published release is immutable, so anything that attaches after the release goes public fails with 422: Cannot upload assets to an immutable release — which is how drift-gate v0.2.0 shipped with no binaries.

So build the assets in a job of the same workflow and hand the artifact to assets-artifact; the release job attaches them with the provenance and publishes once. A separate tag-triggered workflow racing for the same release is the thing to avoid — it is unordered by construction.

permissions: { contents: write, id-token: write, actions: read } # actions: read — artifact downloadjobs:
binaries:
runs-on: ubuntu-lateststeps:
# ... compile into dist/ ...
- uses: actions/upload-artifact@<sha>with: { name: release-binaries, path: dist/* }release:
needs: binariesuses: bounded-systems/mint/.github/workflows/release-provenance.yml@<sha>with: { ref: <sha>, assets-artifact: release-binaries }

If a repo must keep a separate attach workflow, pass finalize: false so this job leaves the draft for that workflow to publish — but that only moves the finish line, it does not order the two workflows.

Publish (npm + JSR)

mint ships from release.yml via OIDC trusted publishing — no NPM_TOKEN, no JSR token, ever. That one file is the whole release entry point: dispatch it to cut the tag in CI, or let it fire on a v* tag cut from a checkout. It is one file rather than two because npm validates the entry workflow's filename, not the file containing npm publish, and a package gets exactly one trusted publisher — so a repo may have exactly one entry workflow that reaches npm. That convention, and the npm form values it makes uniform, are in docs/npm-trusted-publishing.md; the lane itself is the reusable npm-publish.yml, which consumers call instead of hand-rolling a publisher. The package manifests are kept in lockstep by mint version (it bumps package.json, package-lock.json, andjsr.json).

npm uses a GitHub Environment gate — both the npm and jsr jobs declare the npm-publish environment, which requires a designated reviewer to approve in the GitHub Actions UI before either registry sees anything. The gate sits on the publishing jobs themselves rather than on a no-op approve job upstream, because that is the only way the environment claim reaches the OIDC token — and that claim is what npm's trusted-publisher Environment field pins. Approve at:

https://github.com/bounded-systems/mint/actions

Once approved, the package publishes immediately via OIDC trusted publishing (no token).

JSR publishes immediately on the same tag (no staging concept on JSR).

JSR-readiness is verified the same way CI publishes:

npx jsr publish --dry-run --allow-slow-types # the path release.yml runs
deno publish --dry-run --allow-slow-types # equivalent, Deno-native

jsr.json carries the SPDX license and a publish.include allowlist, so the published tarball is just the three exports + mint.mjs, README, CHANGELOG (no tests, lockfiles, or workflows). @types/node is a dev dependency so the JSR type-checker resolves mint's node: imports.

One-time JSR link (manual, once): before the first JSR publish, link the package on jsr.io — create @bounded-systems/mint under the @bounded-systems scope and connect it to the bounded-systems/mint GitHub repo (Settings → "Link to a GitHub repository"). That GitHub link is what authorizes the keyless OIDC publish; after it, every tagged release publishes with no token.

Consumers: the 24h JSR/npm cooldown after a release

Every fresh JSR/npm publish immediately hits Deno's minimumDependencyAge in any consumer running Deno 2.9+: since 2.9 it defaults to 24 hours — Deno refuses to resolve a version published inside that window, full stop, no config needed to trigger it. It's a real supply-chain guard (malicious versions are usually caught/yanked within days), but it applies to first-party @bounded-systems/* releases exactly the same as to a random third party.

Concretely: baobab@0.2.0 published, and every downstream consumer's CI (e.g. a check-contrast.yml caller) hard-failed for the next 24h trying to resolve it — not a flake, a guaranteed wait baked into every release (bounded-systems/mint#11). For one package that's a wait; for a coordinated rollout of several interdependent @bounded-systems/* packages in one sitting, it ripples — every consumer of every package in the batch eats the same 24h, and chains of dependencies compound it.

The fix does NOT live in a consumer's deno.json. An earlier version of this doc claimed a minimumDependencyAge.exclude list there would work — that was wrong, and only looked right because it was tested against Deno 2.8.3 (which doesn't enforce the 24h default at all; the default only started in 2.9). Verified against the real 2.9.1 binary: deno.json is never even read when deno run's entrypoint is a bare jsr:... specifier — config-file discovery only applies in normal "project mode." Planting invalid JSON in a deno.json and confirming Deno never complained is what exposed this.

What actually works: the --minimum-dependency-age CLI flag on the invocation itself. That means the fix has to live wherever the deno run command is composed — for a reusable GitHub Actions workflow like check-contrast.yml, that's an input on the workflow, not something a caller can override from its own repo (bounded-systems/baobab#7 adds minimum-dependency-age, defaulting to "0", since the only thing that workflow ever resolves from the network is @bounded-systems/baobab itself — a first-party package the caller already trust-bounds via its own version range input, so the age gate adds no real protection there). Any other reusable workflow or script that shells out to deno run jsr:.../npm:... directly needs the same treatment: an explicit --minimum-dependency-age (or --minimum-dependency-age=0 if every dependency it touches is first-party) on the command, not a config file a caller drops in.

This still doesn't scale past a handful of hand-fixed workflows — #11 is the open ask for mint to own generating this consistently across every @bounded-systems/* reusable workflow, rather than fixing each one by hand as it's hit.

Library

import{plan}from"@bounded-systems/mint";import{releaseStatement}from"@bounded-systems/mint/release";plan({currentVersion: "0.6.1",intents: [{bump: "minor",summary: "scan: promote to a verb"}],date: "2026-06-23",}).nextVersion;// "0.7.0"releaseStatement({version: "0.7.0",tag: "v0.7.0",commit: "0123456789abcdef0123456789abcdef01234567",date: "2026-06-23",changelog: "## 0.7.0 — 2026-06-23\n\n### Minor\n\n- scan: promote to a verb\n",producer: "@bounded-systems/mint",})._type;// "https://in-toto.io/Statement/v1"

Roadmap

  • Deterministic plan core + Zod intent contract
  • mint plan / mint version
  • mint release — signed tag + in-toto release provenance, keyless-signed in CI (cosign/Sigstore; anchored-chain-shaped)
  • verbspec-typed CLI + MCP surface
  • Reusable workflow_call Action (version.yml + release-provenance.yml)
  • Publish to npm (GitHub Environment approval gate) + JSR

Tracking: bounded-systems/string-audit#43.

License

MIT

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