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research-repo-tools

PyPI version License CI CodeQL zizmor Codecov Audit dependencies

Shared development and maintenance tooling for Rust research repositories using Python scripting and Jupyter notebooks. Each capability has one implementation and one set of contracts, with tests grouped by capability. Shared toolchain setup supports changelog handling and the maintenance core; further workflows require a clear shared contract.

This package consolidates shared utilities from la-stack, delaunay, markov-chain-monte-carlo, and causal-triangulations. Its goal is to simplify that stack around a correct, performant, orthogonal, and simple toolchain, keeping consuming repositories focused on Rust.

uv is required. Install it using Astral's instructions and make it available on PATH. This package uses uv to obtain Python 3.15+ and Python tooling. Git and platform build prerequisites are listed in the toolchain guide. See release status and publishing and the supported CLI and Python interfaces.

Install with uv

Users install pinned releases directly from PyPI in their own projects. Consumers never need to clone research-repo-tools. Cloning this repository is for developing or fixing the package.

Once the desired version is published, the consuming project's maintainer adds it to a tooling dependency group, replacing X.Y.Z with that version:

uv add --group tooling --no-sync "research-repo-tools==X.Y.Z"

Include tooling in dev, retaining the project's other development dependencies:

[dependency-groups]
tooling = ["research-repo-tools==X.Y.Z"]
dev = [{include-group = "tooling"}]

Follow the toolchain guide to declare uv, Python, and Rust tool versions, merge the consumer justfile template, and commit the manifest and refreshed lockfile. The uv add --no-sync command records the dependency without installing or synchronizing it. The setup invocation below installs research-repo-tools before running setup, with no installation hooks or generated scripts.

Just recipes require sh on PATH. On Windows, expose Git for Windows' bin directory as described in the toolchain guide; setup checks this prerequisite before installing tools.

In a configured consumer checkout, run this once on Linux, macOS, or Windows:

uv run --locked --managed-python --only-group tooling research-repo-tools setup

Setup installs the declared tools, installs a pinned user-level Just through uv, configures PATH, and synchronizes the locked Python environment with managed Cargo available for native builds. Open a new terminal if PATH changed. From then on, use just help and just <recipe> without environment activation. Recipes select the locked project environment internally. Package contributors use the setup command described in CONTRIBUTING.md.

Common workflows

Capability Commands Contract
Actions actions allowlist, update Strict consumer allowlists and opt-in commit pin updates
Changelog changelog archive, check, generate, normalize, notes, tag Root CHANGELOG.md; completed minor series in docs/archives/changelog/
CI environment ci export Validate all single-line values before appending a GitHub environment command file
Coverage coverage report Cobertura summaries with deduplicated source lines
Dependencies deps check-uv, update-python, update-tools, update-uv Exact development pins; canonical Cargo SemVer; stable uv pins
Documentation docs check-lines Existing explicit-path Markdown policy: 160 characters with table exemptions
File selection files check-lines, list, run Configurable raw line gate, tracked/nonignored inputs, exclusions and portable argument batching
Notebooks notebooks advise, check, clear, execute, group, inspect, launch, lint, reset, sync Read-only review, locked JupyterLab, native Ruff/ty checks, execution reports, and explicit restoration
Papers papers check, normalize, source-date Explicit UTC dates, optional PDF text/geometry checks and validated metadata normalization
Performance performance assets, baseline, compare, convert, discover, export, extract, fetch, host, measure, profile, promote, publish, release-draft, release-upload, render, verify, verify-saved Complete configured measurement, retained evidence, release assets and publication
Python python check, fix, typecheck Complete tracked/nonignored inventory; native Ruff/ty policy; explicit fixes only
Releases release check, gate, publish, registry, update, verify Metadata preparation, reviewed publication gates and exact registry/GitHub verification
Review review branch, review uncommitted Opt-in CodeRabbit review with verified default base and streamed findings
SARIF sarif split Consumer-selected drivers/namespaces, corrected rule indices and complete output generations
Security security osv, secrets Managed OSV/Gitleaks, explicit inputs, full history, redacted native reports
Semgrep semgrep check-fixtures, scan Validate consumer rules, explicit inventory, reports and fixture expectations
Setup setup Require uv; install user Just and declared tools; sync the locked environment
Tectonic dependencies tectonic discover, export Read-only pkg-config/vcpkg discovery; consumer-owned provisioning
Templates templates NAME Shared changelog, release guide/OIDC workflow, just, TOML, and rumdl resources
Toolchain toolchain adopt, check, clean, export, python-check, python-tools-check, run, sync, sync-binaries, upgrade Exact declarations; managed installations and cleanup; verified execution and checked CI export
Validation validation cargo-examples, cargo-metadata, require, run Runtime Cargo example discovery, bounded live execution, package preflight and configured assertions
Workflow security zizmor check One declared scanner/persona, token discovery, explicit offline or required-online audits

Cargo examples

With the published release containing this capability pinned, define a consumer plan such as tooling/examples.toml. Cargo discovers binary examples, including nested and explicit targets. Consumers own feature choices, selection, budgets and scientific assertions:

schema = 1
profile = "release"
timeout = 600
build-timeout = 1800

[examples.diagnostics]
features = ["diagnostics"]
expect = ["consumer-defined success marker"]

Omit include to run every discovered binary example. Ordinary examples build once with default features; feature overrides build and run separately. Copy your existing scientific markers into per-example expect arrays unchanged. Add a thin consumer recipe and run just examples:

examples:
    uv run --locked --group dev research-repo-tools toolchain run -- research-repo-tools validation cargo-examples tooling/examples.toml

Output is inherited by default. expect opts stdout into live byte forwarding and literal matching; the child's buffering may change and temporary disk use scales with output. Stdin and stderr remain inherited. See the CLI/configuration/Python contract and migration from static validation plans.

Just recipes

For routine workflows, merge the consumer justfile template into the consuming repository's justfile. These thin recipes invoke its locked package version. After initialization, use just directly. Run just help, just help-workflows, or bare just to list commands and their arguments in lexicographic order.

Consumer recipe Purpose
just changelog Generate, normalize, and archive completed minor series
just changelog-archive Archive existing notes without regenerating history
just changelog-check Validate the whole root changelog and all archives without writing
just changelog-preview Validate the generated root and archives without writing; print the root candidate
just changelog-release TAG DATE Generate a prospective release with an explicit YYYY-MM-DD date
just changelog-unreleased TAG DATE Alias for changelog-release
just check Run Python, Semgrep fixture, and zizmor validation; extend with consumer domain gates
just ci Run the same canonical consumer gate as local validation
just clean [ARGS...] Preview obsolete package-owned installs; --apply removes them; repeat --keep-root PATH to retain other consumers' pins
just files COMMAND... Check raw line limits, list selected files or run a command over them
just help List recipes and arguments in lexicographic order, with aliases inline
just help-workflows Alias for help
just notebook-advise FILE... [--strict] Report configured review warnings, optionally failing on them
just notebook-check FILE... Validate notebook structure, cell IDs, and output policy
just notebook-clear FILE... Deliberately clear generated notebook state
just notebook-execute FILE... Execute selected notebooks and write results and reports
just notebook-inspect FILE... [--json] [--no-preview] Inventory cells and repair problems without generating IDs or loading Jupyter
just notebook-launch [--browser | --no-browser] [--scratch-dir PATH] Launch locked JupyterLab with private session caches
just notebook-lint FILE... Check structure, output policy, Python syntax, Ruff rules/formatting, and ty types
just notebook-reset [PATH...] [--revision REF] [--apply] Preview source restoration and declared cleanup; explicitly apply with --apply
just notebook-sync Synchronize locked notebook dependencies and the project kernel
just papers COMMAND... Read explicit source dates, check PDFs or normalize their metadata
just performance COMMAND... Compare Criterion samples, handle assets, and verify, render, or publish retained evidence
just python-check Check lint, formatting, and types for all tracked and nonignored Python, including fixtures
just python-fix Apply configured Ruff fixes and formatting to the same complete inventory
just python-typecheck Run native ty without modifying source
just release-check TAG Check final release metadata and generated notes
just release-first TAG DATE Prepare a first release after checking published stable history
just release-notes TAG Print release notes from the root changelog or an archive
just release-publish TAG Approve a validated draft GitHub Release and trigger its registry workflow
just release-tag TAG Create a local annotated tag from validated release notes
just release-tag-preview TAG Inspect the release annotation without changing Git state
just release-update TAG PREVIOUS DATE Prepare metadata with an explicit predecessor and date
just release-verify TAG [ARGS...] Verify the exact stable registry version and GitHub Release/assets
just review [base] Review branch and local changes; default to verified origin/main
just review-uncommitted Review staged, unstaged, and non-ignored untracked changes
just security-osv LOCKFILE... Audit explicitly selected uv.lock/Cargo.lock files
just security-secrets [ARGS...] Scan full reachable history and current tracked/nonignored files
just semgrep-check Validate the consumer's Semgrep rules and fixtures
just setup Install and verify declared tools, then synchronize the Python environment
just shared-python-plan VERSION Preview mandatory Python-minimum and optional tool-profile adoption outside the old environment
just shared-python-update VERSION Apply the migration and recreate the locked environment and notebook kernel
just tectonic COMMAND... Discover or export existing native dependency environments
just tools-check Check installed tools and versions without installing them
just tools-export Verify tools and append their environment to GITHUB_ENV
just tools-python-check Check inherited Python tool declarations, lock, and executable versions without changes
just tools-sync-binaries Install and verify pinned release binaries without package synchronization or dependency builds
just update Upgrade tools, then Cargo and Python dependencies and the development environment
just update-actions [ARGS...] Opt-in Actions pin update; use --dry-run or --check to preview the selected scope
just update-cargo-dependencies Upgrade root Cargo requirements (including incompatible releases) and lock resolution; skip projects without a root Cargo.toml
just update-cargo-tools Upgrade declared Cargo tools and release binaries; publish verified TOML pins
just update-dependencies Run the Cargo and Python dependency workflows
just update-python-dependencies Update direct dev pins, upgrade the full Python lock, and synchronize dev
just update-python-deps Alias for update-python-dependencies
just update-tools Upgrade uv and managed tools without repeating shell configuration
just update-uv Upgrade uv through its installation owner and reconcile its pin
just validate CONFIGURATION [NAME...] Check configured example outputs
just workflow-allowlist-check Check steps and reusable workflows against strict consumer selected-actions settings
just zizmor-check [ARGS...] Run local workflow audits; accept --offline, --require-online, and --format sarif

To preview a prospective release, run just changelog-preview --tag v1.2.3 --date YYYY-MM-DD.

Authenticated release installation in GitHub Actions

toolchain sync-binaries installs the exact release-binary pins declared by the consumer (dprint, gitleaks, osv-scanner, and rumdl). It checks warm caches and repairs damaged executables through the same SHA-256-verified installer as setup. It does not install Python, Rust, Cargo tools, Just, or project dependencies.

Install the locked tooling package first, then authenticate binary installation in a separate step. This example uses an existing uv installation and the consumer's committed manifest and lockfile:

- name: Install locked tooling package
  run: uv sync --locked --managed-python --only-group tooling
- name: Install pinned release binaries
  env:
    GITHUB_TOKEN: ${{ github.token }}
  run: uv run --locked --no-sync --no-python-downloads python -I -X utf8 -m research_repo_tools toolchain sync-binaries
- name: Set up development tools and dependencies
  run: uv run --locked --managed-python --only-group tooling research-repo-tools setup

The credential-bearing step uses the already installed package without synchronizing its environment. Release metadata requests authenticate with the first nonempty GITHUB_TOKEN, then GH_TOKEN; asset downloads carry no lookup credential. Setup commands and all toolchain version probes receive neither variable, and handled release-installation diagnostics redact both values. An explicit toolchain run -- COMMAND ... retains the caller's credentials for that command. Other native build and package-index settings continue to pass through. After setup, use just tools-sync-binaries for binary-only repair.

To reclaim obsolete managed Cargo tools, Rust toolchains, release binaries, and Python interpreters, use the shared clean recipe. Include every other consumer whose installed pins you want to retain:

just clean --keep-root ../la-stack
just clean --apply --keep-root ../la-stack

The default is a preview. Cleanup preserves current declarations, newer versions, unknown tools, other hosts, and Python interpreters referenced by the selected consumers' environments or uv tools. It only removes installations inside the package-owned store; user-wide Cargo, rustup and uv Python installs, project .venv, build artifacts, and dependency caches remain intact. See the cleanup contract for retention rules and Windows guidance. Consumers copy the packaged recipe and pin the shared package; the cleanup implementation lives here.

Follow the toolchain guide for declarations, first-time setup, and strictly read-only tool checks.

Dependabot approval and auto-merge

The shared GitHub workflow can approve Python, Rust, and GitHub Actions updates permitted by each repository's Dependabot configuration, including minor and major updates. Native auto-merge waits for required reviews and checks. Each repository owns its Dependabot configuration, dependency-file allowlist, Actions approval setting, and merge rules. Consumers pin the reusable workflow to a reviewed Git commit; no Python package upgrade is required. research-repo-tools is the first pilot consumer.

This workflow supersedes CodeRabbit approval polling and the CODERABBIT_REVIEW_TOKEN personal access token requirement. It uses GITHUB_TOKEN for approval and auto-merge. Any required CodeRabbit status remains an independent merge gate.

Workflow security and complete Python validation

The Python 3.15 and strict validation contract targets v0.1.9. Adopt that exact pin only after publication; v0.1.8 retains its 3.14 baseline and previous gate behavior. Merge the packaged python-validation.toml policy into your pyproject and retain the full existing Ruff configuration. It enables missing annotations (ANN001/002/003/201/202/204/205/206), TC, and UP037. The python-check recipe discovers *.py and *.pyi throughout the repository, including support code, tests, and negative Semgrep fixtures. Use exact per-file/rule exceptions for intentional violations. Extend check with existing Rust/domain tests and native notebook linting; keep semgrep-check in the canonical local and CI gate.

The commands require an already synchronized development environment. Checks never install or upgrade tools. python check runs Ruff format checks, Ruff lint, and strict ty (--error all); python typecheck runs strict ty alone. Both disable automatic source changes. python fix applies configured Ruff fixes followed by formatting; lint failures from the fix pass still propagate. Native settings, nested configuration, and precise exceptions remain active. Empty inventories require no validators; opted-in declaration and lock checks still apply. Missing tools fail before validation starts. Discovery selects one inventory for all policies. Executables and argument batches are preflighted before validation starts. Batches fill a portable argument-size budget; the first failing batch stops the gate and its native status propagates. python fix stops on a failed lint-fix batch before formatting. Use just setup to prepare the locked environment.

Declare one zizmor scanner pin, either zizmor==1.30.1 in the consumer's dev dependency group or zizmor = "1.30.1" in its existing managed Cargo toolchain. Keep the choice in that one repository-owned declaration. Configure an explicit persona in pyproject.toml:

[tool.research-repo-tools.zizmor]
persona = "regular"
timeout = 300

After setup, run:

just python-check
just zizmor-check
just ci

Local auditing uses ZIZMOR_GITHUB_TOKEN, then GH_TOKEN, then authenticated gh discovery. It reports an offline fallback when authentication is absent. Use just zizmor-check --offline for deliberate offline checking, or just zizmor-check --require-online in CI. Scanner errors propagate and never trigger an offline retry. Token values are not printed or stored by the wrapper.

The packaged zizmor.yml workflow runs the finding gate and then produces SARIF with the same pin/persona. SARIF output alone does not fail on findings; the plain gate does. Fork and Dependabot PRs retain audits and skip privileged upload. The installed validation and migration guide documents authentication, permissions, Python 3.15 annotations, exact negative fixture exceptions, notebook wiring, and consumer CodeRabbit settings. Extract it with templates VALIDATING_WORKFLOWS.md; templates python-validation.toml and templates zizmor.yml expose the corresponding reusable examples.

CodeRabbit review

Install and authenticate the CodeRabbit CLI explicitly and ensure coderabbit is on PATH. The package does not install it, authenticate, enable usage credits, or retry reviews automatically. These recipes are opt-in and remain outside just check and just ci. Agents must have an explicit maintainer request before invoking a live review.

just review
just review main
just review-uncommitted

just review includes committed branch changes plus staged, unstaged, and non-ignored untracked files. Before invoking CodeRabbit, it compares the local origin/main commit with the live origin main branch. Missing or stale refs stop with fetch guidance; failed or malformed remote lookups also stop review. The wrapper never fetches or changes Git state. Verification applies at invocation, not throughout a long review. An explicit local base such as main is checked locally without a remote query. Uncommitted review skips the base check entirely.

The configured consumer root must contain AGENTS.md and exactly one of .coderabbit.yaml or .coderabbit.yml; missing files, directories in place of files, or both configuration names are errors. Both files are passed as additional instructions. Output uses CodeRabbit's structured --agent mode and streams directly to the terminal without the usual five-minute subprocess timeout. Nonzero exit statuses propagate, and interruption returns 130. Service or authentication errors are unavailable reviews, not clean results. Verify findings and suggested changes against current code before acting on them.

Workflow examples

just changelog-archive
just changelog-preview --tag v1.2.3 --date 2026-09-07
just help
just release-check v1.2.3
just release-notes v1.2.3
just tools-check
just update

just update upgrades uv first. Standalone uv installations use uv self update; Homebrew installations use brew upgrade uv; verified uv tool installations use their native tool upgrader with the verified existing interpreter and requirement constraints. Other installation owners must update uv themselves. The updater records the resulting stable version in pyproject.toml. This changes the shared user installation; other projects with different exact uv pins must be reconciled before their commands will run. Review the generated changes before committing. just setup installs declared versions without upgrading them.

The underlying CLI remains available for integrations and custom recipes; see supported interfaces.

Reviewed registry publication

Use the shared release procedure and packaged RELEASING.md template for the same ordered commands in Python and Rust repositories. just release-publish TAG approves a validated draft GitHub Release; the consumer's reviewed workflow performs the registry upload after environment approval. just release-verify TAG --attempts 7 --interval 10 checks both the stable GitHub Release/assets and the exact PyPI or crates.io version. Registry lookup failures never imply absence or authorize another upload.

The packaged publishing.toml and publish-crates.yml templates define the shared policy and official crates.io Trusted Publishing/OIDC action wiring. Consumers declare required exact-commit checks and assets and retain native Cargo selection, features, MSRV, dependency order and deployment settings. See the release checklist, API, and migration. Adopt the exact published v0.1.8 package before consumer deployment. Publisher registration and live uploads are separate adoption steps recorded in the maintainer's private setup task.

toolchain run uses a managed CARGO_HOME; an ordinary local cargo login may configure a different home. The OIDC workflow supplies its temporary token through the upload step's environment. Review consumer credential-provider overrides for that flow.

To retain authored dependency release-note links while using the common changelog template, set changelog.dependency-bodies = "preserve" in the package configuration and remove the copied cliff-config. The default "concise" keeps short dependency summaries; both policies retain the common grouping and full breaking descriptions.

Shared Python adoption

Every managed consumer automatically inherits the exact installed release's published Requires-Python minimum. The pending v0.1.9 contract requires Python 3.15; published v0.1.8 retains Python 3.14. This mandatory language-feature guard applies to installable applications and dependency-only projects. For v0.1.9, the runtime floor and selected development minor are both 3.15. No opt-in is required, and development inheritance controls cannot disable the guard.

Optionally mirror the release's selected development interpreter as well:

[tool.research-repo-tools.toolchain]
inherit-python = true

The installed release's support minimum and selected development minor are separate authorities. Adoption intersects project.requires-python with the published minimum, preserving stricter lower bounds, upper bounds, and exclusions. Incompatible ranges fail for review before resolution or publication. Installable consumers also retain and reconcile uv constraints on the shared tooling groups. With inherit-python = true, .python-version mirrors the selected development minor. Otherwise a compatible local selector remains; an obsolete or missing selector advances to the shared selection. A stricter range excluding that selection needs a compatible local selector or an explicit compatibility decision. Ruff and ty infer targets from project metadata. Consumer lint rules, fixture exceptions, notebook policy, and deliberate lower targets remain consumer decisions.

After the target version is published, use the packaged standalone bootstrap:

research-repo-tools templates python-bootstrap.py --output python-bootstrap.py
# Merge the matching published Justfile recipes into the consumer's Justfile.
just shared-python-plan 0.1.9
just shared-python-update 0.1.9
just python-check

These recipes run the exact target package outside the old project environment, using the packaged standard-library-only python-bootstrap.py beside the Justfile. Copy both templates when installing this contract. The helper runs on older uv-supported Python, reads the exact target release's PyPI Requires-Python, then requests a compatible managed interpreter for the isolated target package. The executing package's installed metadata remains the support authority. An obsolete selector, lock, environment or Python on PATH cannot control startup. Preview resolves and installs a temporary candidate; it may download Python/packages and populate caches, but leaves consumer files and .venv unchanged. Apply updates all direct shared-package pins (including extras), application metadata, uv.lock, the environment, and the configured notebook group's project kernel. Resolution and candidate installation must succeed before publication.

For offline bootstrap or local wheel/sdist evaluation, the helper accepts --metadata-file PATH containing saved exact-release PyPI JSON. Supply the local artifact registry through uv's UV_FIND_LINKS; target name/version are verified, and the installed distribution still enforces its own metadata before adoption.

A caught failure restores original files and the prior environment. Recovery errors identify the retained backup; do not delete it before recovering. Close processes using .venv on Windows before applying. This is not a crash-atomic or concurrent-writer transaction. Include every required source in the tracked or nonignored inventory; external local path dependencies need a separately reviewed migration. just python-check detects mirror drift without repairing it or downloading an interpreter. Ordinary Python/toolchain checks and setup reject insufficient application metadata even with inherit-python = false or no setting. Routine checks do not advance versions or rewrite declarations.

The metadata change is a public compatibility change: rebuild and validate the consumer wheel and sdist after adoption, then publish those artifacts through the consumer's reviewed release workflow. Their Requires-Python rejects older interpreters before execution, including installation without tooling groups or research-repo-tools. Run the ordinary guard in CI before consumer builds. An implementation merge does not publish this capability; consumer upgrades require an exact PyPI release containing it. See the migration guide.

Shared Python tool versions

The optional python-tools extra is the single Ruff, ty, and pytest version authority for each exact shared release. The initial profile targets v0.1.8 and uses Ruff 0.16.9, ty 0.0.84, and pytest 9.1.1. Base installations do not include these development tools. Opt in independently of inherit-python:

[tool.research-repo-tools.toolchain]
inherit-python-tools = true

Keep your current exact shared-package pin in tooling and include that group from dev. After v0.1.9 is published, the same standalone adoption recipes prepare the new extra, declarations, lock, and environment:

just shared-python-plan 0.1.9
just shared-python-update 0.1.9
just tools-python-check
just python-check

Preview prints concrete manifest, selector (when inherited), and lock diffs after resolving and installing a private candidate. Adoption adds python-tools to all shared-package group requirements, retaining other extras such as notebooks. It converts old simple exact Ruff/ty/pytest pins in dependency groups into unversioned requirements, so the installed release owns their versions. Compatible ranges can also be retired; conflicting ranges, conditional requirements, URLs, extra requests, and uv source/constraint overrides fail before publication. Public runtime or optional dependencies on these tools require a deliberate consumer decision: adoption does not rewrite them. Other dependencies, native lint/type settings, precise fixture exceptions, and notebook packages stay local.

Tool inheritance retains compatible .python-version and native Python targets; the mandatory application minimum still applies. uv constrains the groups containing the shared package to its runtime requirement while retaining local restrictions. An incompatible selected interpreter or runtime range fails explicitly. Both forms of inheritance use the same candidate verification and recoverable apply process described above.

just tools-python-check checks declarations, locked versions, and the actual executables selected by PATH. just python-check, just python-typecheck, and managed tool checks enforce the profile too. They never synchronize or upgrade. just setup synchronizes the existing lock. just update-python-dependencies updates unrelated development pins and the lock while retaining the exact shared release and inherited versions. Upgrade the profile only by adopting another exact shared release. Tools outside Ruff/ty/pytest remain consumer-owned.

To opt out, disable inherit-python-tools, remove only python-tools from each shared-package requirement, and choose consumer-owned tool requirements in the appropriate groups. Keep any notebooks extra and inherit-python setting you still need. Run just update-python-dependencies, then just setup and your validation gates. Disabling the check alone does not remove the extra's pins. Consumer rollout is tracked in #30; retain downstream orchestration until the published pin passes its focused checks.

Dependency and secret scanning

Declare the optional release binaries and run setup:

[tool.research-repo-tools.toolchain.binaries]
gitleaks = "8.30.1"
osv-scanner = "2.6.0"
just setup
just tools-check
just security-osv uv.lock Cargo.lock
just security-secrets

Supply only the lockfiles the consumer actually owns. Use just files to inspect tracked and nonignored inputs for repositories containing several packages. OSV checks each explicit supported lockfile with Go and Rust call analysis disabled; it does not execute dependency build scripts. Advisory queries need network access. Missing inputs, uncovered sources, scanner failures, malformed or missing reports, and findings all block the gate.

Gitleaks checks all reachable Git history and a private snapshot of current tracked/nonignored files, including uncommitted new files. Full history is required (fetch-depth: 0 in Actions). Environment/build directories are excluded from the working snapshot. Selected symlinks and submodules fail explicitly; scan submodules as separate repositories. Native history scanning covers patches, not unreachable objects, nested repositories, archive contents or binary blobs. Extra working-tree exclusions are explicit --exclude arguments.

Reports go to target/security: numbered OSV JSON/SARIF pairs and Gitleaks history/working pairs. Findings retain native rule IDs and locations. Gitleaks uses complete native secret redaction; surrounding match text and commit messages are also removed before reports are published. Inline gitleaks:allow and ambient .gitleaksignore bypasses are disabled. Consumer .gitleaks.toml policy is honored; use --scanner-config PATH for another reviewed configuration. Raw scanner logs are not echoed because they can include sensitive metadata. Validated findings are printed by default: OSV identifies the lockfile, package/version and vulnerability; Gitleaks identifies the rule and location separately for history and the working tree. Semgrep prints the rule and source location. Each scan prints a finding count and published report paths, with findings listed once across JSON and SARIF. Terminal output omits descriptions that could interpolate source values, snippets, adjacent matches and commit messages. Keep the aggregate just security recipe and scan policy local. The first nonzero scanner status is returned; invalid successful reports return 1, and timeouts return 124. Checks never install or select an ambient scanner.

The standalone binaries require neither a paid GitHub security product nor a Gitleaks Action license. Consumers own exceptions, schedules, Actions permissions, and whether SARIF uploads are available for their repositories. See the migration map before deleting local tools.

First releases and Rust documentation scans

Declare cargo-deny = "0.20.2" in the managed Cargo table to run the exact cargo deny through the shared toolchain. Keep deny.toml policy local.

just release-first TAG DATE permits an Unreleased-only changelog while preparing the first stable release. It verifies that published stable release history is empty; failed GitHub queries never count as empty history. Draft/prerelease records are not predecessors. For an explicitly reviewed offline first release, invoke the CLI with release update TAG --first-release --offline --date DATE. Previous-tag selectors require a real predecessor and final validation still requires a dated release heading. No synthetic v0.0.0 predecessor is inserted.

Consumers can wrap semgrep scan --include '*.rs' --include '*.py' --include '*.md' --rust-docs in their own just semgrep-scan recipe. Keep rules and scope local. The shared scan checks native errors, exact coverage and agreement of active JSON/SARIF findings from the same native invocation. It scans batches of at most 100 files, also bounded by portable command length. Defaults are one job, 120 seconds per rule/target, a 300-second process timeout, disabled inline nosem, and aggregate semgrep.json/semgrep.sarif reports. The aggregate SARIF contains one run with the stable semgrep category. Set consumer policy explicitly when reviewed suppressions should apply:

[tool.research-repo-tools.semgrep]
config = "semgrep.yaml"
fixtures = "tests/semgrep"
batch-size = 100
inline-suppressions = true
jobs = 1
report-category = "semgrep-repository-rules"
report-layout = "aggregate"
target-timeout = 120
timeout = 600

Matching CLI overrides are --batch-size, --inline-suppressions / --no-inline-suppressions, --jobs, --report-category, --report-layout and --target-timeout. numbered layout writes one JSON/SARIF pair per batch. Each layout owns the entire output directory: successful generations remove all prior members, including reports from larger inventories or other layouts. Missing/malformed reports, scan errors in JSON, incomplete coverage and timeouts publish an empty generation. Generation or filesystem failures preserve or restore the previous directory, with recovery backups retained if rollback fails. Use a dedicated output directory. Native failures and active findings block; accepted inline suppressions remain marked in SARIF and do not count as active findings. Explicit file arguments include Python/Rust tests normally ignored by Semgrep; deliberately excluded fixtures remain consumer policy. Rule path filters remain active, and skipped required inputs fail the coverage gate.

Rust fences in Markdown and line/block rustdoc comments preserve source line numbers and hidden # lines. Macro-generated docs and #[doc = ...] attributes are outside this adapter's scope. semgrep check-fixtures --rust-docs adapts annotated Markdown fixtures to the existing shared assertion checker; count-based expectations use a separate fixture gate. Findings and fixture mismatches remain blocking.

SARIF selection and complete figure publication

Declare exact driver names and rule-ID namespace prefixes. An empty prefix list keeps all rules for that driver; unlisted drivers are omitted. No Codacy or repository-specific selection is built into the package.

[tool.research-repo-tools.sarif]
category-prefix = "codacy"

[tool.research-repo-tools.sarif.drivers]
"Opengrep (reported by Codacy)" = ["project."]
ruff = []

A consumer recipe can invoke sarif split input.sarif --output target/sarif and upload that dedicated directory. Keep the input outside the output directory; overlapping source paths and portable case/Unicode aliases are rejected. Repeated driver names get distinct stable categories; unrelated metadata is retained and indexed driver rule references are corrected. Empty generations remove stale output files. Invalid/non-finite input fails before publication. Extension rule references are rejected; see the supported SARIF API for the precise subset. Add --github-output "$GITHUB_OUTPUT" to append SARIF_DIRECTORY, SARIF_HAS_UPLOADABLE_RUNS and SARIF_RUN_COUNT after publication through the existing checked ci.export_environment API. Upload permissions, conditions and categories remain consumer-owned.

Use the same directory primitive for a complete scientific figure set:

from pathlib import Path
from research_repo_tools.files import publish_directory

with publish_directory(Path("figures/validation")) as candidate:
    render_figures(candidate)  # Consumer-owned rendering and figure names.
    validate_figures(candidate)  # Consumer-owned scientific assertions.

Only after generation and validation finish does the directory replace the previous figure set. Caught commit failures restore the original tree; incomplete rollback reports a retained recovery directory. See the consumer deletion map before removing working implementations; adoption requires an exact published release.

Dependency and tool updates

just update runs update-tools before update-dependencies. Every recipe stops at its first failed command; completed steps remain applied for review and retry. The aggregate is not a transaction across package managers. Dependency-only recipes use the installed, declared toolchain and leave uv and Cargo tool pins unchanged. Run setup first when adopting or changing tool declarations. Update launchers synchronize only tooling and retain installed consumer dependencies, so they can start before a native consumer is ready to rebuild.

just update-python-dependencies advances exact direct dev pins, upgrades the entire lock resolution within the resulting manifest constraints, and explicitly synchronizes dev, even with default-groups = []. The final sync runs with checked managed tools so native Python builds can find Rust. Included groups, including the pinned shared package in tooling, retain their declared constraints. The older update-python-deps spelling is an alias for this complete workflow.

For Rust projects, pin cargo-edit to an exact version in the managed Cargo tool table (for example, cargo-edit = "0.13.13") and keep the compiler pinned in rust-toolchain.toml, then run just setup to install and verify the declared tool. For both cargo upgrade and direct cargo-upgrade invocations, toolchain run rejects missing or non-exact cargo-edit declarations even when an unmanaged copy is on PATH. The default Cargo recipe upgrades requirements with incompatible releases allowed, then updates Cargo.lock. It skips Cargo when the root has no Cargo.toml, keeping Python-only consumers supported. Additional resolution roots and coupled dependency exclusions belong in the consumer's update-cargo-dependencies recipe. When merging the template, preserve those decisions; the aggregate calls that recipe by name. For example:

update-cargo-dependencies:
    uv run --locked --only-group tooling --inexact research-repo-tools toolchain run -- \
        cargo upgrade --incompatible allow --exclude coupled-a --exclude coupled-b
    uv run --locked --only-group tooling --inexact research-repo-tools toolchain run -- \
        cargo upgrade --manifest-path "fixtures/extra root/Cargo.toml" --incompatible allow
    uv run --locked --only-group tooling --inexact research-repo-tools toolchain run -- cargo update
    uv run --locked --only-group tooling --inexact research-repo-tools toolchain run -- cargo update --manifest-path "fixtures/extra root/Cargo.toml"

Exclusions apply to requirement upgrades; lock resolution still follows all declared constraints. Keep the required order of these commands and retain consumer checks for coupled dependencies and additional manifests. Review both manifests and lockfiles after updating. See update adoption for superseded policies and consumer integration requirements.

User-installed tool updates

A machine-configuration repository can use the same dependency commands while owning its user-wide Cargo installations. Keep the shared package's exact pin in the tooling group, included by dev, and map only the Just pins the repository owns:

[tool.research-repo-tools.deps.tools]
nextest_version = "cargo-nextest"
uv_version = "uv"

Merge these thin recipes into the repository's existing update workflow:

# Validate the selected uv executable's stable X.Y.Z version output.
check-uv:
    uv run --locked --only-group tooling --inexact research-repo-tools deps check-uv

# Upgrade user-installed Cargo packages before reconciling the owned Just pins.
update-cargo-tools:
    cargo install-update --all --locked
    uv run --locked --only-group tooling --inexact research-repo-tools deps update-tools

# Advance direct dev pins, then refresh the entire lock and synchronize dev.
update-python-dependencies:
    uv run --locked --only-group tooling --inexact research-repo-tools deps update-python
    uv lock --upgrade
    uv sync --locked --group dev

cargo install-update requires the separately installed cargo-update package. Its --all scope covers the user's Cargo installations; --locked retains each tool's published dependency resolution. A failed Cargo upgrade stops before pin reconciliation. Successfully upgraded tools remain installed and can be reconciled on retry. deps update-tools reads cargo install --list and the selected uv version, validates every mapped assignment, and updates only those Just pins. It does not install tools; --dry-run previews the pin changes.

deps check-uv validates stable version syntax; it does not install uv or assert equality with a Just pin. Python pin updates preserve intentional ranges, markers, extras, and included-group pins. A universal resolution requiring multiple versions for one direct exact pin fails before changing the manifest or lock. Even when no direct pin changes, the recipe still upgrades the full lock and synchronizes dev.

Shell bootstrap, Homebrew, stow, and machine-wide update ordering remain consumer policy. The standard research-project template continues to use isolated managed Cargo installations through toolchain upgrade.

Mixed installation owners on Linux and macOS

Declare Homebrew ownership explicitly for mapped user tools. Tools without an owner entry retain the verified Cargo-inventory contract; a working PATH binary does not establish ownership. The selected executable must resolve into the formula prefix and agree with Homebrew's installed inventory before reconciliation:

[tool.research-repo-tools.deps.tools]
nextest_version = "cargo-nextest"
format_version = "dprint"

[tool.research-repo-tools.deps.tool-owners]
cargo-nextest = "cargo"
dprint = "homebrew"

For prebuilt dprint and rumdl, migrate their pins to the managed release-binary table and remove the corresponding Cargo declaration or Just variable. The managed store verifies upstream release URLs, SHA-256 digests, and executable versions before publishing pins. Just remains supplied by the shared package's exact rust-just dependency; remove competing Just pins when adopting this model.

[tool.research-repo-tools.toolchain.binaries]
dprint = "0.60.1"
rumdl = "0.2.78"

Both tools support x86_64/aarch64 macOS and glibc Linux, plus x86_64 Windows; dprint also supports Windows ARM64. Missing release assets or checksums fail. Use the explicit Cargo declaration for rumdl on Windows ARM64.

Keep a machine's Homebrew/Brewfile policy conditional in its own recipe. This example composes the portable stages without invoking shell setup:

update: update-platform update-tools update-dependencies

update-platform:
    if [ "$(uname -s)" = Darwin ]; then brew update && brew upgrade && brew bundle; else echo "Skipped Homebrew/Brewfile stage: macOS policy only"; fi

update-tools: update-uv update-cargo-tools

update-uv *args:
    uv run --no-config --no-sync --no-python-downloads research-repo-tools deps update-uv "$@"

Linux needs no Homebrew. Retain the existing dependency recipes, Cargo exclusions, and additional manifests. User-wide Cargo upgrades remain an explicit consumer choice. Updating never installs Homebrew or invokes shell/bootstrap setup. just update-uv --dry-run identifies the selected installation owner and operation and previews project-pin reconciliation without upgrading or writing. The native owner determines the available upgrade within its retained constraints; toolchain upgrade --dry-run previews exact managed Cargo/prebuilt targets, and deps update-tools --dry-run previews verified user-tool pin reconciliation. Unknown ownership and missing tools fail. After a package-manager failure, completed installations remain; dependent recipes stop. Repair the reported cause and retry. There is no transaction across managers.

Actions allowlists and opt-in pin updates

The consumer's committed GitHub selected-actions payload is the sole allowlist. Use the strict payload with github_owned_allowed: false, verified_allowed: false, and patterns_allowed containing exact owner/repo[/path]@* identities. Wildcards in identities, owner-wide exemptions, duplicate JSON fields, and other policy shapes fail. Repository identity matching ignores case; nested paths match exactly. A repository entry does not also approve its subpaths.

Merge the packaged workflow-allowlist-check recipe, pointing it at that existing policy, then add it to the consumer's check/CI gate:

workflow-allowlist-check:
    uv run --locked --group dev research-repo-tools actions allowlist --policy .github/settings/allowed-actions.json .github/workflows
just workflow-allowlist-check

The checker reads explicit files or YAML directories and inspects both jobs.<id>.uses calls and every step's uses. Quoted/folded scalars and aliases are supported; alias findings point to the anchor. Duplicate/merge mappings and recursive aliases fail with file/line diagnostics. Local ./ actions and docker:// containers are outside this external policy. Keep actionlint for workflow schema and zizmor for full-SHA pinning/security; no repository settings are changed. Consumers can delete their generic YAML allowlist checker after pinning a published version with this capability and validating their own policy.

Action updates require separate, explicit opt-in targets in .github/action-updates.toml (also available as the action-updates.toml template):

[actions]
"actions/checkout" = "latest"
"owner/repo/subpath" = "v2.1.0"

latest selects GitHub's published stable release and permits major upgrades. An explicit stable version tag restricts the target. GitHub CLI (gh) is required for read-only release/tag lookup, including private repositories. Annotated tags are peeled to full commit SHAs. Existing selected references must already use full SHAs and ordinary version comments, such as # v1.2.3; the updater retains subpaths, quote style, trailing comment text, other workflow bytes, and line endings. Unsupported scalar forms, aliases when rewriting workflows, missing targets, or lookup failures abort before publication. References outside the selected identities remain unchanged and appear as skipped in the report.

Merge the packaged update-actions recipe and review the report before applying:

just update-actions --dry-run
just update-actions --check
just update-actions

Preview/check reports include action identity, location, old/new full SHAs, and old/new version comments. --check returns nonzero if updates are needed; --dry-run returns zero for a valid preview. Unchanged targets are no-ops. To include this stage in deliberate maintenance, opt in by changing the aggregate to update: update-tools update-dependencies update-actions. Actions compatibility then checks the final tool and Python dependency pins. Keep Dependabot's scheduled PR review policy in the consumer; this command neither enables nor disables it. Review overlapping proposals before merging.

Prefer the shared direct zizmor scanner, with one scanner pin. A retained zizmorcore/zizmor-action fails maintenance unless its upstream support inventory is explicitly checked, including when that wrapper is outside the update targets:

[compatibility."zizmorcore/zizmor-action"]
path = "support/versions"
tool = "zizmor"

The tool version comes from its existing exact Cargo/prebuilt, Python-group, or mapped Just declaration. Conflicting authorities fail. The inventory at the candidate or retained SHA must contain that version in the first column of a plain version list (optional opaque columns, comments/blank lines and latest are allowed; duplicate or unsupported entries fail). This avoids an embedded compatibility table. Other wrappers may opt into the same contract. This detects absent version support, not every possible runtime incompatibility; retain focused consumer CI.

changelog tag TAG creates a local annotated tag when explicitly invoked. --dry-run previews it. Generation needs git-cliff; tagging needs Git. Optional formatting needs rumdl, fixture validation needs Semgrep, and dependency updates need uv or Cargo. These executables are required only by the commands that invoke them. The CLI validates existing GitHub draft releases and uploads verified assets; performance release-upload --publish explicitly publishes the draft. This repository's tagged-release workflow publishes the tooling package to PyPI.

just changelog generates and normalizes history, then moves completed minor series to docs/archives/changelog/. The root file keeps Unreleased, the newest minor series, and archive links. The same changelog recipes are available here and in the consumer justfile template.

External-tool installation is explicit through setup, toolchain sync, or toolchain upgrade; managed execution selects the checked versions. Scientific benchmarks, broader evidence schemas, plotting, and deployment workflows remain outside this package. Scientific algorithms, case inventories, repository rules, and custom release commands stay in their consuming repositories.

Notebooks

For notebook work, add research-repo-tools[notebooks]==X.Y.Z at the same version as the tooling pin to a notebook dependency group. Keep analysis libraries in that group, and declare Ruff 0.16.8 or newer and ty 0.0.82 or newer in dev for linting. Refresh the lockfile, then use just notebook-sync. It registers a kernel in the project environment. Maintenance-only users need no Jupyter packages.

just notebook-sync
just notebook-lint notebooks/analysis.ipynb
just notebook-execute notebooks/analysis.ipynb

Execution leaves source files untouched and writes executed notebooks and JSON reports under target/notebooks, preserving root-relative paths. Consumers own fast/slow selections, input preparation, scientific assertions, and figure destinations. See the notebook contract for output policy, failure reports, and environment configuration. Linting uses the locked project's Ruff and ty with the consumer's configuration and preserves cell IDs in diagnostics. notebook-check provides structure and output checks alone.

The ID-pattern, JupyterLab launch, and source-reset interfaces target v0.1.8. Adopt an exact published PyPI version containing them before retiring consumer implementations. Merge their recipes from the packaged template after publication.

For lowercase kebab-case cell IDs, opt into a full-match spelling policy:

[tool.research-repo-tools.notebooks]
id-pattern = '[a-z0-9]+(?:-[a-z0-9]+)*'

just notebook-lint FILE... applies this pattern to every existing cell ID. --id-pattern PATTERN overrides it for one invocation. Presence, uniqueness, ASCII spelling, and the nbformat 1–64 character limit still apply. Without a pattern, the broad nbformat contract is preserved. Descriptive-ID advice remains an independent gate through just notebook-advise FILE... --strict. Neither command generates, repairs, or renumbers IDs.

For interactive work, declare JupyterLab in the consumer's notebook dependency group, refresh the lockfile, and run just notebook-sync. Configure browser and scratch storage in the consumer manifest:

[tool.research-repo-tools.notebooks.lab]
browser = false
scratch-dir = "target/jupyter"

[tool.research-repo-tools.notebooks.reset]
sources = ["notebooks"]
scratch = ["target/notebooks", "target/jupyter"]
checkpoints = ["notebooks/.ipynb_checkpoints"]
just notebook-launch --browser
just notebook-reset
just notebook-reset --apply

Launch selects the locked managed Python, dev, and configured notebook group. Its private Jupyter, IPython, and Matplotlib session state lives beneath the selected scratch directory and is removed when the server exits. Browser opening defaults to false; --browser and --no-browser override configuration.

Reset previews the exact restore and deletion map. --apply explicitly approves both working-tree restoration and declared cleanup. Source entries are literal files or directories selecting tracked .ipynb files, including deleted working files. The default restore source is the index; --revision REF selects a pinned Git tree. The index and other working files are preserved. Cleanup deletes only the declared scratch files/directories and explicitly named checkpoint directories; it never discovers checkpoint directories recursively. Unsafe paths, source aliases, tracked cleanup targets, links, and junctions are rejected before restoration. See the workflow contract for failure behavior, supported paths, and the consumer deletion map.

Read-only review commands are available from 0.1.5. Merge their recipes from the packaged template when updating an older consumer. Inspection uses only the base installation and tolerates older nbformat 4 files and cell fields awaiting repair:

just notebook-inspect notebooks/analysis.ipynb
just notebook-inspect notebooks/analysis.ipynb --json --no-preview

Previews expose up to 80 characters of cell source; use --no-preview for sensitive notebooks. Inspection never prints stored outputs or metadata, generates IDs, executes cells, or rewrites notebooks. It reports structural problems but does not certify validity. See the inspection schema.

Advisory policy is opt-in through a separate command, run alongside native lint:

just notebook-advise notebooks/analysis.ipynb
just notebook-advise notebooks/analysis.ipynb --strict

Without configuration, advice warns only about IDs that look generated or positional. Configure additional policy in the consumer's pyproject.toml, for example:

[tool.research-repo-tools.notebooks.advice]
descriptive-ids = true
ruff-rules = ["ANN001", "ANN201", "BLE001", "TID251"]
strict = false
subprocess-timeout = true

[tool.ruff.lint.flake8-tidy-imports.banned-api]
"pandas" = {msg = "Prefer Polars for this project"}
"csv" = {msg = "Prefer Polars for this project"}

Ruff supplies annotations, broad-exception, and configured import warnings; library preferences remain consumer policy. The optional timeout heuristic covers direct calls spelled subprocess.run, call, check_call, or check_output without an explicit non-None timeout. It skips entire cells that cannot be parsed as plain Python, including magics. See advisory behavior and limits.

Notebook dependency installation policy

Consumers can opt into a blocking source policy with:

[tool.research-repo-tools.notebooks]
prohibit-installs = true

just notebook-lint FILE... then rejects literal dependency-changing pip, uv, conda, and mamba commands in line magics, ! commands, %%bash, %%sh, and %%script bash/sh cells. It also checks literal subprocess calls and os.system commands in Python cells, including after line magics and inside %%capture, %%debug, %%prun, %%time, and %%timeit cells. Diagnostics retain notebook paths, cell IDs, and original source line numbers. The policy never runs cells or changes their source. Python strings and comments containing installation examples are not commands.

This is a source convention, not a sandbox: dynamically assembled commands, aliases, wrapper functions, arbitrary cell magics, and shell heredoc semantics are outside its contract. Keep dependency installation in the project setup; put quoted Python examples in strings or Markdown. Review unusual shell cells manually; the consumer can disable this policy and retain its own stricter gate if its syntax is outside the supported set. Native Ruff and ty remain responsible for Python syntax and type checks.

Raw text line limits

These interfaces target v0.1.8. Adopt an exact published version containing them; an upstream merge does not update consumer pins. The consumer declares selection and the positive limit in its pyproject.toml:

[tool.research-repo-tools.text]
line-limit = 160
include = ["*.md"]
exclude = ["CHANGELOG.md", "docs/archive/**", "docs/archives/changelog/**"]
just files check-lines
just files check-lines --limit 100 --include '*.txt' --exclude 'generated/**'

Each supplied option replaces its configured value; repeated include/exclude options form that override's list. Shared selection uses Git pathspec includes and case-sensitive POSIX glob excludes, fails on discovery errors, and checks every selected raw line. Fences, tables, URLs, tabs and trailing spaces count. Lengths are Unicode code points, independent of locale, rather than bytes or display columns. LF/CRLF/CR endings do not count; final lines without a newline do. Diagnostics are file:one-based-line: line length N exceeds LIMIT on stderr. Violations return 1, a clean or empty inventory returns 0, and read/selection or configuration errors return 1. The gate never formats source. The separate docs check-lines FILE... preserves its established fixed 160 limit and table exemption. Use files check-lines for a strict raw-source policy.

Reproducible papers and native dependency discovery

PDF operations are opt-in. Add research-repo-tools[papers]==X.Y.Z to the consumer's tooling group, using an exact published version containing the interfaces, refresh its lock and run setup. Source-date and dependency discovery work with the base package. Keep content, figures, bibliography, source/output locations, fixed dates and refresh decisions in the consumer.

[tool.research-repo-tools.papers.documents.example]
tex = "papers/example.tex"
pdf = "target/papers/example.pdf"
identity = "papers/example.tex"
min-pages = 1
require-text = ["Example title", "REFERENCES"]
forbid-text = ['\today']
# reference = "papers/example.pdf" # Enable retained-artifact equivalence.

The source must contain exactly one uncommented explicit \date{July 6, 2026} in the canonical English form. Parsing uses a fixed month map and UTC midnight, with no wall clock or locale dependency. A consumer build recipe can use:

export SOURCE_DATE_EPOCH="$(just papers source-date --paper example)"
# Consumer recipe compiles into its declared build directory using that environment.
just papers normalize --paper example
just papers check --paper example
just papers check --paper example --reference papers/example.pdf
# Explicit refresh intent, after consumer scientific and build checks:
just papers normalize --paper example --output papers/example.pdf

Literal-path commands are also supported: papers source-date SOURCE.tex, papers check BUILT.pdf --min-pages 1 --require-text TITLE --reference RETAINED.pdf, and papers normalize BUILT.pdf --tex SOURCE.tex --identity STABLE_NAME. CLI options override named policy. Normalization defaults to the input PDF; --output explicitly selects a separate destination. Every input and candidate is validated before replacement, and caught publication failures preserve prior artifacts using the shared transaction contract. Exclude concurrent writers.

The supported normalization profile is Tectonic's uncompressed XMP timestamps, document/instance UUIDs and 16-byte trailer IDs. Same-width edits preserve xref offsets, and the complete candidate must retain page text and geometry. Any Info creation/modification dates must already match the explicit UTC epoch, including when stored in compressed objects. Missing fields, unsupported profiles, encrypted or malformed PDFs fail without replacing output. Structural equivalence compares per-page text, media/crop boxes, rotation and units; it allows different native PDF bytes and does not certify rendering or scientific meaning.

Native discovery never installs host packages or modifies process environment:

just tectonic discover
just tectonic discover --format shell
just tectonic export --file target/tectonic.env

Linux/macOS resolve freetype2, graphite2, icu-uc, libpng and zlib with pkg-config; Linux also requires fontconfig and openssl. Existing PKG_CONFIG_PATH, PKG_CONFIG_LIBDIR and PKG_CONFIG_SYSROOT_DIR are retained; repeat --prefix PATH to discover existing lib/pkgconfig and share/pkgconfig. macOS also discovers existing Homebrew metadata and SDK shims. Windows requires TECTONIC_DEP_BACKEND=vcpkg, VCPKG_ROOT and an existing installed/VCPKGRS_TRIPLET directory (default x64-windows-static-md). Discovery checks locations/resolution; consumers still verify library versions and ABI. JSON is the default output on every platform; shell output is POSIX syntax. Windows callers can apply JSON assignments with PowerShell:

$native = just tectonic discover | ConvertFrom-Json
$native.PSObject.Properties | ForEach-Object { Set-Item "Env:$($_.Name)" $_.Value }

tectonic export appends validated UTF-8 LF assignments to the explicit file or GITHUB_ENV. Missing prerequisites and probe errors return nonzero and publish no assignments. Provision hosts explicitly in consumer setup/CI before discovery. See the API contracts and consumer deletion maps.

Performance evidence

These APIs and recipes require a published release newer than 0.1.2 containing them. The v0.1.9 adoption matrix lists the minimum version, extras, migration steps and compatibility boundaries for the coordinated performance extensions. Adopt research-repo-tools==0.1.9 only after its GitHub and PyPI publication is verified.

Merge the packaged performance recipe into the consumer justfile, then compare existing Criterion trees without executing benchmarks:

just performance compare target/baseline/criterion target/current/criterion --output target/comparison.json

Both samples default to new, the statistic to median, and the unit to ns. Use --baseline-sample NAME, --current-sample NAME, --statistic mean, or --unit when the measurement harness requires them. The JSON retains both full samples, including added and missing benchmarks. The CLI rejects comparisons with no common benchmarks. It does not infer statistical significance. Place --output outside both Criterion input roots, including path aliases.

Use Python to attach provenance captured by the consumer at measurement time:

from pathlib import Path

from research_repo_tools.criterion import COMPARISON_SCHEMA, parse_comparison, render_comparison
from research_repo_tools.evidence import Evidence, Provenance, compare_provenance, publish_evidence

def retain_comparison(payload: bytes, baseline: Provenance, current: Provenance) -> None:
    comparison = parse_comparison(payload)
    compatibility = compare_provenance(
        baseline, current, fields=("harness_sha256", "context.cpu", "context.rustc"),
    )
    if not compatibility.compatible:
        raise ValueError(f"Measurement context differs or is unknown: {compatibility.differences}")
    retained = Evidence(payload, COMPARISON_SCHEMA, (("baseline", baseline), ("current", current)))
    publish_evidence(
        retained, Path("evidence/comparison.json"), Path("evidence/manifest.json"),
        reports={Path("PERFORMANCE.md"): render_comparison(comparison).encode("utf-8")},
        immutable=(Path("evidence/comparison.json"), Path("evidence/manifest.json")),
    )

Choose compatibility fields and scientific acceptance rules in the consumer. Provenance records the full source commit, optional exact source and harness digests, and explicit context. Unknown values fail a requested compatibility check. Render or verify retained evidence independently of measurement:

just performance verify evidence/comparison.json evidence/manifest.json
just performance render evidence/comparison.json evidence/manifest.json --output PERFORMANCE.md

verify checks envelope structure and the exact payload digest; consumers still validate their own payload schemas. render additionally parses the shared comparison schema. Domain reports can keep their existing renderer and use the shared comparison results and publication transaction.

For published assets, use just performance fetch HTTPS_URL ASSET --sha256 DIGEST with an independently recorded digest, then just performance extract ASSET ABSENT_DIRECTORY --sha256 DIGEST. The extraction parent must exist. See the performance API for limits and retained-evidence migration before replacing consumer helpers or changing artifact formats.

Document publication

Publish a selected timing table and optional SVG into an existing marked section:

just performance publish publication.toml --preview
just performance publish publication.toml
just performance publish publication.toml --check

Preview prints validated candidate diffs without writing. Check exits 1 for stale or invalid outputs and 0 when current. Default mode updates the document and figure in one rollback-capable transaction. All modes verify the retained payload hash, selected measurements, configured provenance, and release/report references. No measurements or network retrieval run. This capability requires a published release newer than 0.1.2 containing it.

Place exactly one ordered <!-- PERFORMANCE:BEGIN --> and <!-- PERFORMANCE:END --> pair in the document. Configure shared comparison evidence and explicit benchmark selection in publication.toml:

schema = 1
document = "README.md"
payload = "evidence/comparison.json"
manifest = "evidence/manifest.json"
begin = "<!-- PERFORMANCE:BEGIN -->"
end = "<!-- PERFORMANCE:END -->"
unit = "ns"
svg = "figures/timings.svg" # Omit for table-only publication.
rows = [{benchmark = "step/2", label = "Two-dimensional step"}]
links = [
    {label = "Report and measurement context", path = "PERFORMANCE.md"},
    {label = "Retained measurements", path = "evidence/comparison.json"},
    {label = "Provenance", path = "evidence/manifest.json"},
]

[provenance.baseline]
revision = "aaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaa" # Replace with expected commit.
release = "v1.0.0"

[provenance.current]
revision = "bbbbbbbbbbbbbbbbbbbbbbbbbbbbbbbbbbbbbbbb" # Replace with expected commit.
release = "v1.1.0"

[[references]]
path = "Cargo.toml"
pattern = '^version = "(?P<value>[^"]+)"\r?$'
source = "version"

[[references]]
path = "PERFORMANCE.md"
pattern = '^Baseline: (?P<value>[^\r\n]+)'
source = "previous-tag"

[[references]]
path = "PERFORMANCE.md"
pattern = '^Current: (?P<value>[^\r\n]+)'
source = "tag"

Use the consumer's actual package/report paths and precise capture patterns. This example expects version = "1.1.0" and report lines Baseline: v1.0.0 and Current: v1.1.0. Record each source's release in its evidence Provenance.context, for example (("release", "v1.1.0"),). Maintain expected revisions independently of the files being checked. Add source-sha256, harness-sha256, or a context table to a provenance table when those identities are required. Unknown or mismatched values fail.

Rows follow configuration order; each must have both baseline and current data. The unit must match the recorded unit. Optional baseline-label and current-label change displayed headings without changing release expectations. The dependency-free SVG shows point ratios; scientific commentary stays in the consumer. Bytes outside the marker interior, including historical links and line endings, are preserved.

Links default to document-relative paths. To publish tagged GitHub links, set top-level repository = "owner/repository". The current release tag must exist locally and contain the exact retained, referenced, linked, and generated figure bytes. To assert that a measured source itself is a tagged commit, also set verify-tag = true in that source's provenance table. These are read-only local Git checks; fetching release assets remains a separate explicit operation.

Historical CSV/JSON formats can use declarative conversion into shared companions at new paths. See the publication API and migration guide. Scientific prose remains consumer-owned.

Configured benchmark workflows

Configured workflows around the retained-evidence APIs are available from v0.1.4. Pin an exact published version containing the capabilities your consumer uses. Start with the packaged benchmark.toml, examples.toml, and performance-report.toml templates, selecting your actual workloads and paths. For example, a measurement configuration contains:

schema = 1
command = ["cargo", "bench", "--locked", "--bench", "timings"]
sources = ["Cargo.toml", "Cargo.lock", "rust-toolchain.toml", "src/**/*.rs", "benches/timings.rs"]
harness = ["benches/timings.rs"]
sample = "new"
statistic = "median"
unit = "ns"
compatible = ["context.os", "context.architecture", "context.cpu"]

[probes]
rustc = ["rustc", "--version", "--verbose"]

[dependencies]
criterion = "Cargo.lock"

Use the template's just performance wrapper. These are alternative operations:

just performance compare target/criterion target/criterion --baseline-sample last --format markdown
just performance measure benchmark.toml --mode current-vs-latest --allow-git-mutations --payload target/local.json --manifest target/local.evidence.json
just performance measure benchmark.toml v1.2.0 v1.1.0 --allow-git-mutations --payload target/release.json --manifest target/release.evidence.json
just performance assets --repository owner/project --asset-template 'project-{tag}-baseline.tar.gz' \
  --payload target/releases.json --manifest target/releases.evidence.json

Measurement explicitly permits temporary Git worktrees and runs trusted consumer code. It needs existing local tags and a verified benchmark toolchain. Use a consumer recipe with toolchain run -- research-repo-tools performance measure when tools live under managed paths. Omitting tags infers the package release: prospective releases use working files, and published versions use their tagged source and predecessor. Publication chronology is the default; --order version selects numeric order. Asset comparison performs no measurement. Add --legacy-configuration legacy-baseline.toml only for declared historical layouts.

A report configuration contains:

schema = 1
current = "docs/PERFORMANCE.md"
archive = "docs/archive/performance"
title = "Benchmark timings"
prose-file = "docs/performance-interpretation.md"

After measurement, promote, rerender offline, then check or publish the configured README section:

just performance promote performance-report.toml --payload target/release.json --manifest target/release.evidence.json
just performance promote performance-report.toml --check
just performance publish performance-publication.toml --check
just performance publish performance-publication.toml

Promotion retains full JSON evidence and CSV, archives the prior report, rebases evidence links, and refreshes the archive index. --preview shows planned diffs. Future-release README preparation requires explicit tag-policy="prepare", repository, both current inventories and matching working-tree fingerprints. Any existing tag must still contain exact referenced and generated bytes. Historical conversion writes new paths and preserves original files and hashes; see migration and the configuration/API contracts.

Common harness and complete runs

The schema-2 measurement/report contracts and host capture are intended for v0.1.8; adopt an exact published release containing them before deleting working consumer tooling. Use the packaged common-benchmark.toml, complete-report.toml, and profiling.toml as scaffolds, editing their inventories and commands to match the consumer. See the contracts and adoption map.

Schema-2/3 measurements capture the selected current harness once, including declared lockfiles and toolchain files, and apply it to both isolated revisions. Every phase declares a command, an independent preflight gate, its expected Criterion full_id inventory, and optional environment overrides. Both gates must pass before either phase is timed. The defaults are 100 samples, both mean and median, and 0.95 confidence; different policies must be explicitly declared. Schema 3 (target v0.1.9) also supports exhaustive per-case sample counts, such as 10, 15, 20, 25 and 100 in one phase. Edit each phase's sample-counts map in the packaged template to match every full ID, or omit both maps and set a shared top-level sample-count for uniform sampling. Schema 2 retains its shared uniform count and v1 evidence contract. Direct Python plan/run constructors also retain those defaults; select CommonHarnessPlan(..., schema=3) or CompleteRun(..., schema=RUN_SCHEMA_V2) explicitly for v2. Commands must actually configure Criterion to emit those samples and intervals. The shared reader verifies the output.

Named report series select rows from a recorded phase. For example, a reference measured with the baseline is declared with phase = "baseline" even when displayed alongside the current library. Its provenance always names that phase. All measured cases, original raw Criterion bytes and required statistics remain in retained evidence, including cases omitted from report tables.

After configuring the templates, run these steps in order:

just performance measure common-benchmark.toml v1.2.0 v1.1.0 --allow-git-mutations \
  --payload target/complete-run.json --manifest target/complete-evidence.json
just performance promote complete-report.toml \
  --payload target/complete-run.json --manifest target/complete-evidence.json
just performance promote complete-report.toml --check

Keep the configured archive outside scratch directories such as target. Promotion writes immutable content-derived run directories, a validated latest pointer, an index and the current report together. Distinct measurements of the same release pair get distinct identities; identical retries reuse the existing run. Same-label local comparisons can be retained. Omitting both input paths rerenders the validated latest run after scratch cleanup. Explicit missing or partial inputs fail; they never select a different run as a fallback.

The standard complete report includes recorded per-phase source/harness fingerprints, host and toolchain observations, dependency versions, measurement commands and independent gate results. Current and newly retained reports link to their exact run payload and evidence envelope using paths relative to each report. Missing optional metadata is explicit; offline rerendering uses the measurement's recorded environment. Environment overrides show names only, and credential-shaped arguments are redacted from the summary. Keep credentials out of declarations because retained evidence preserves original values.

Provenance reports target v0.1.9. Pin an exact published release containing them. Existing complete-run histories remain readable: promotion upgrades the mutable index and current report while preserving all immutable historical bytes. Old retained reports keep their original presentation. See the renderer-version contract before upgrading a publication or restoring an older package pin.

Complete-run document sections and coordinate plots

These additions target v0.1.9. Configure complete-publication.toml under tooling/ using the packaged scaffold, then edit its named series, exact benchmark IDs, rows, coordinates, statistic, unit, release references and independent provenance pins to match your evidence:

just templates complete-publication.toml --output tooling/complete-publication.toml
just performance publish tooling/complete-publication.toml --preview
just performance publish tooling/complete-publication.toml
just performance publish tooling/complete-publication.toml --check

Schema 2 selects a validated complete-run archive, or explicit payload and manifest paths. Archive selection works after scratch cleanup; explicit missing or partial scratch inputs fail. The document section links the original full payload and envelope, preserving raw cases outside the selected presentation. The selected history remains immutable and is revalidated before publication.

Each configured series names an existing retained view, supplies a display label, and maps row keys to semantic benchmark IDs within that view. Row order controls the table and CSV; series order controls columns and the plot legend. Every row needs a finite, unique numeric coordinate for a coordinate plot. Plot lines follow numeric coordinate order. Mean or median and the timing unit must match recorded evidence; no unit conversion occurs. Consumer configuration owns workload coordinates, labels, scientific eligibility and interpretation.

The optional plot produces a deterministic accessible SVG with point timings and recorded marginal confidence intervals. Both axes support linear or log; log coordinates must be positive. Reused peers keep their original baseline phase, revision and release in tables, figures and CSV, with the complete-run identity. Optional comparisons select numerator/denominator series by name. Ratios are point estimates; time reduction is 100 × (numerator − denominator) / numerator, so positive values mean less denominator time. svg requires exactly one such comparison; csv exports selected timings with provenance and confidence bounds.

Missing selections fail by default. Explicit missing = "unavailable" permits unmapped cells, labels them in tables and CSV, and breaks plot lines at those rows. Invalid or unmeasured mapped IDs always fail. Coverage states selected, unavailable and omitted phase cases. Document bytes outside markers survive, and the document, SVGs and CSV move in one transaction with the existing freshness, release-reference, tagged-link and rollback checks. See the publication configuration and presentation API.

Criterion inventory and saved baselines

These additions target v0.1.9. Pin an exact published release containing them before removing consumer discovery or baseline-copy helpers. Start with the packaged criterion-inventory.toml and criterion-saved.toml templates. Discovery configuration declares native list commands, suite names, working directories, environments and bounded timeouts. It can require exact IDs and exclude explicitly named compatibility cases. IDs stay separate from Criterion's sanitized filesystem paths. Empty, malformed and duplicate inventories fail.

schema = 1
required = ["workload/library/2"]
excluded = []

[[suites]]
name = "workload"
command = ["cargo", "bench", "--locked", "--bench", "workload", "--", "--list"]
cwd = "."
timeout = 7200

Use the template's just performance wrapper to save the discovered inventory:

just performance discover criterion-inventory.toml --output target/criterion-inventory.json

Discovery may compile. Every suite gets a private CRITERION_HOME; commands must honor it. Existing inventory outputs are preserved; select a fresh path for another discovery. Schema-2 common-harness phases can replace expected with a discovery table containing the same suite declarations. The shared measurement then discovers both inventories after installing the current harness, validates series coverage, runs both correctness gates, and measures. It retains the discovered suite inventories with the complete run. See the configuration and API reference.

For saved release baselines, declare a verification plan:

schema = 1
criterion-dir = "target/criterion"
fresh-sample = "new"
saved-sample = "v1.2.0"
inventory = "target/criterion-inventory.json"
raw-files = ["benchmark.json", "estimates.json", "sample.json", "tukey.json"]
sample-count = 100
statistics = ["mean", "median"]
confidence-level = 0.95
unit = "ns"

Run inventory discovery first, then the consumer's correctness gates and native measurement with its saved-baseline option. Next validate the saved copy:

just performance verify-saved criterion-saved.toml

Package and publish only after validation succeeds. Criterion can report a copy error while returning success: verification requires complete fresh and saved inventories and exact binary equality for every configured raw JSON file. tukey.json is required by the scaffold above; configure additional JSON files when the consumer requires them. Rejection leaves evidence unchanged. Required cases, exclusions, suite/phase assignments, statistical settings and release eligibility remain consumer declarations. The consumer deletion map identifies the generic helpers these contracts replace.

Host and profiling metadata

These commands write explicit UTF-8 JSON outputs under the consumer root:

just performance host --output target/host.json
just performance profile profiling.toml --output profiling-results/environment.json

Host metadata includes available CPU model, physical cores, logical threads, total memory in bytes, OS and architecture. Profiling adds bounded configured version probes, explicit context and structured native Cargo/Rust TOML declarations. Unavailable observations are null; declarations are distinct from measured tool versions and resolved build settings. The default profiling probes capture Cargo and verbose rustc output in the selected root. Use the same managed-tool environment as the benchmark. Source provenance callers use measurement.capture_provenance, which includes this host record alongside source/harness fingerprints and tool/dependency identity. To include source identity directly in a profiling artifact, set measurement = "benchmark.toml" and the explicit release = "v1.2.0" at the top level of its configuration.

Keep compatibility thresholds, warning text, historical baseline parsing and profiling-mode selection in the consumer. Read retained metadata directly when interpreting historical evidence; do not attach observations from today's host.

Consumer glue and release jobs

The template's just files and just validate recipes replace discovery and example-runner scripts. Keep scientific output expectations in configuration:

schema = 1
[[checks]]
name = "simulation"
command = ["target/debug/examples/simulation"]
expect = ["Samples:", "Mean:"]
timeout = 300

Compile the example first, then use just validate examples.toml. Explicit executable paths discover Windows extensions. File-based validators can use just files run --include '*.md' --exclude CHANGELOG.md -- rumdl check; the shared runner selects tracked/nonignored files and batches literal arguments.

After setup/cache restoration in GitHub Actions, just tools-export verifies managed tools and appends checked settings to GITHUB_ENV. Cache keys should include OS/architecture and exact tool, Rust and lockfile identities. Generic ci export NAME ... supports additional declared single-line environment values.

Release benchmarks use three jobs: validate a mutable draft, measure a checked-out tag with read-only permissions, then attach/publish inert bytes in a separate writer job. The measurement recipe invokes performance baseline benchmark.toml v1.2.0 project-v1.2.0-baseline.tar.gz; it requires HEAD and configured source bytes to match the tag. Writer jobs install the exact published package and use the captured release target to attach and publish without checking out benchmark code. Identical completed attachment retries are accepted; conflicting bytes or incomplete provider metadata fail.

Trusted release target handoff

The target API requires v0.1.9 or newer. Adopt an exact published pin after GitHub and PyPI verification; v0.1.8 does not contain this capability. Install that pin in trusted preflight and writer jobs. With the installed console command on PATH, preflight captures the expected workflow commit and a title-equals-tag assertion:

research-repo-tools --root "$RUNNER_TEMP" performance release-draft \
  "$GITHUB_REPOSITORY" "$RELEASE_TAG" --commit "$GITHUB_SHA" \
  --expected-title "$RELEASE_TAG" --output "$RUNNER_TEMP/release-target.json"

Omitting --output prints only target JSON on stdout. Pass this target through a consumer-controlled trusted job output or artifact, separately from benchmark output. The benchmark job retains read-only permissions and owns its correctness checks and archive format. The final writer reads the original trusted target and inert asset, then explicitly requests publication:

research-repo-tools --root "$RUNNER_TEMP" performance release-upload \
  "$GITHUB_REPOSITORY" "$RELEASE_TAG" "$RELEASE_ASSET" \
  --target "$RUNNER_TEMP/release-target.json" --publish

Without --publish, attachment and verification leave the draft unpublished. Without --target, the existing upload command captures a fresh target inside that invocation and cannot bind an earlier benchmark run. The old release-draft command without --commit still checks draft state and emits no target. Output and title assertions require --commit. These commands require authenticated gh; consumers own token permissions, workflow/ref policy and fresh-preflight run-attempt checks. JSON parsing alone does not authenticate the handoff.

The same supported Python API can run in a trusted job containing only inert files:

from pathlib import Path
from research_repo_tools.release_assets import (
    parse_release_target, preflight_release_target, publish_release_asset,
    serialize_release_target,
)

root = Path("/trusted/job")  # Choose the native job directory on each platform.
target = preflight_release_target(root, "example/project", "v1.2.3",
                                 "a" * 40, expected_title="v1.2.3")
(root / "release-target.json").write_bytes(serialize_release_target(target))
# After the consumer's trusted handoff and benchmark gates:
captured = parse_release_target((root / "release-target.json").read_bytes())
publish_release_asset(root, captured.repository, captured.tag,
                      root / "baseline.tar.gz", target=captured, publish=True)

An invalid or unavailable publication response reports an unknown outcome. Inspect the captured release ID and attached asset before retrying; no rollback or automatic publication retry occurs. The API contract details validation, retry guarantees and the limits of client-side rechecks. The la-stack deletion map keeps downstream migration tied to an exact published package and integration checks.

Once no local executable modules remain, remove the consumer's build backend, console scripts and self-referencing notebook extra. Set [tool.uv] package=false, retain exact shared pins in tooling/notebook dependency groups, refresh the lock, and remove local wheel/entry-point tests. Rust/scientific and configuration tests remain. Declare release.tag-policy="canonical-stable" where vX.Y.Z is required; use just release-update TAG PREVIOUS DATE for offline release preparation. Version-independent documentation examples avoid release-update callbacks.

Clippy SARIF helpers

Declare the exact converter versions in pyproject.toml. Keep the consumer's Rust compiler pinned in rust-toolchain.toml, with the clippy component:

[tool.research-repo-tools.toolchain.cargo]
clippy-sarif = "0.8.0"
sarif-fmt = "0.8.0"

Use just setup to install them and just tools-check to verify them. Keep the Cargo invocation and SARIF upload workflow in the consumer. A Bash recipe can preserve failure from every pipeline stage with pipefail:

clippy-sarif:
    #!/usr/bin/env bash
    set -euo pipefail
    tool() { uv run --locked --no-sync --no-python-downloads research-repo-tools toolchain run -- "$@"; }
    tool cargo clippy --message-format=json | tool clippy-sarif | tee results.sarif | tool sarif-fmt

just update-cargo-tools upgrades only declared tools. Both helpers use the shared exact, locked Cargo installer and checked execution. See the platform contract.

Calling from Python

A consumer that needs a Python wrapper can invoke the same CLI contract without a subprocess. For a script in the consumer's scripts/ directory:

from pathlib import Path

from research_repo_tools import __version__
from research_repo_tools.cli import main

root = Path(__file__).resolve().parents[1]
print(f"Using research-repo-tools {__version__}")
raise SystemExit(main(["--root", str(root), "release", "check"]))

The process and file APIs below require a release newer than 0.1.2 that includes them. Pin the published version before removing local consumer helpers. They leave command policy and scientific decisions in the consumer:

import subprocess
import sys
from pathlib import Path

from research_repo_tools.files import replace_many
from research_repo_tools.process import format_exception_diagnostics, run_command, run_git_bytes

root = Path(__file__).resolve().parents[1]
try:
    result = run_command(sys.executable, ["--version"], cwd=root, timeout=30)
    payload = (root / "results.json").read_bytes()
    # Git receives the original bytes and applies its own configured filters.
    digest = run_git_bytes(
        ["--no-pager", "hash-object", "--path=results.json", "--stdin"],
        cwd=root, input=payload,
    ).stdout.strip()
    replace_many({
        root / "reports/results.json": payload,
        root / "reports/results.hash": digest + b"\n",
    })
except (OSError, subprocess.SubprocessError, ExceptionGroup) as error:
    raise SystemExit(format_exception_diagnostics(error)) from error

Text execution uses explicit UTF-8 by default; byte execution preserves LF, CRLF, and binary data. Publication stages every file first and rolls back caught replacement failures. See supported interfaces for lookup behavior, typed results/errors, recovery backups, concurrency limits, and API stability.

Consumer integration tests

The notebook fixture and Just inspection APIs target v0.1.8. Adopt an exact published release containing them before deleting consumer helpers. They require no pytest plugin; keep scientific assertions and repository-specific gate policy in the consumer tests.

Run notebook tests in the consumer's already synchronized locked environment, with the notebook extra and analysis dependencies installed. A pytest test can borrow that interpreter and copy only its selected inputs:

import sys
from pathlib import Path

from research_repo_tools.notebook_testing import isolated_project

def test_analysis(tmp_path):
    with isolated_project(
        Path(__file__).resolve().parents[2],
        [Path("notebooks/analysis.ipynb"), Path("data/example.csv")],
        parent=tmp_path,
        environment=Path(sys.prefix),
    ) as project:
        # Prepare domain inputs and assertions inside project.root.
        result = project.execute(
            Path("notebooks/analysis.ipynb"),
            env={"ANALYSIS_OUTPUT_DIR": str(project.root / "figures")},
        )
        assert result.returncode == 0, result.report
        assert result.report["failed_cell"] is None
        assert result.notebook_path.is_file()

The fixture copies the manifest, lockfile and Python selector without rewriting them, excludes native toolchain setup, and removes only its temporary workspace on context exit. Returned paths live until that exit. Cell failures and timeouts return a failed report. The helper does not synchronize dependencies or certify that installed packages match the lock; run the consumer's normal setup first.

Inspect Just's native metadata and dry-run text using the installed package's Just version:

from pathlib import Path

from research_repo_tools.just_inspect import dry_run, inspect_justfile

root = Path.cwd()
recipes = inspect_justfile(root).recipes
dependencies = {item["recipe"] for item in recipes["ci"]["dependencies"]}
assert "test-rust" in dependencies  # This assertion is consumer policy.
preview = dry_run(root, "release-notes", ["v1.2.3"])
assert "changelog notes" in preview.stderr

Dry-run preserves native stdout/stderr and argument boundaries. It does not run recipe bodies, but Just still evaluates configuration and expressions; use trusted Justfiles. See the integration-test API contract for overrides, errors, path boundaries, environment handling, and migration details.

Preparing a structured release

The release API requires a published version newer than 0.1.2 containing it. It replaces wrapper-owned discovery, staging, CLI-output parsing, and rollback:

from pathlib import Path

from research_repo_tools.releases import apply_release, plan_release

plan = plan_release(
    Path.cwd(), "v1.2.4", previous_tag="v1.2.3", release_date="2026-09-20",
)
for edit in plan.edits:
    print(edit.path)  # Inspect edit.before and edit.after for the exact byte diff.
# Omit apply_release for a fully validated preview.
result = apply_release(plan)

Declare required files, fixed metadata, and selected active references in release configuration. Add a small Python adapter when validation needs consumer-owned evidence rules. See the worked MCMC-style migration and typed API contract. Historical evidence stays excluded from updates.

Templates and optional settings

Standard changelog archiving and release commands need no configuration file. For generated GitHub links, specify the owner and repository in existing project metadata:

[tool.research-repo-tools.changelog]
owner = "example"
repository = "consumer"
# formatter = "rumdl.toml"  # optional external formatting

[tool.research-repo-tools.deps.tools]
rumdl_version = "rumdl"
uv_version = "uv"

[tool.research-repo-tools.semgrep]
config = "semgrep.yaml"
fixtures = "tests/semgrep"

--config PATH reads unprefixed tables from a separate TOML file when needed. Paths are relative to the consumer root, which defaults to the configuration directory; --root PATH overrides that root. Explicit executable paths such as deps.uv = "./bin/uv" use the same root; bare names use PATH. The selected uv executable is used for dependency resolution, Python pin updates, and uv version checks. Unknown settings fail. There are no repository profiles.

deps.tools values name packages installed separately with Cargo, as listed by cargo install --list. The special uv entry reads the selected uv executable. Just is supplied by the shared package's exact rust-just dependency. Do not introduce a competing Just variable or independently installed Cargo Just pin.

uv run --locked research-repo-tools templates CHANGELOG.md
uv run --locked research-repo-tools templates cliff.toml --owner example --repository consumer
uv run --locked research-repo-tools templates justfile
uv run --locked research-repo-tools templates research-repo-tools.toml

Templates print to stdout. --output PATH creates a file and refuses to replace existing content. Generation uses the packaged git-cliff template by default, so consumers need not maintain a copy.

Cargo pins accept canonical prereleases and build metadata, such as 1.2.3-rc.1+build.5; uv pins require stable X.Y.Z. All pin changes are validated before replacement. Comments, line endings, permissions, and symlink targets are preserved. deps update-python updates exact development requirements while retaining ranges, markers, extras, and other unmanaged constraints. Before uv changes the manifest and lockfile, the updater saves both originals. A failed update restores them; if restoration also fails, the command reports the retained backup paths for recovery.

See changelog behavior, release behavior, and scope and adoption for detailed contracts and migration guidance.

Contributing

To develop or fix this package, see CONTRIBUTING.md for environment setup, coding conventions, maintainer recipes, testing, and release preparation.

License

BSD-3-Clause. See LICENSE.

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