M1 (machinery works locally, each piece proven) — code HEAD d4cc9e4, unit suite 295 passed:
- M1.1 tagged-promote gate + promote-tested-version: live proof-A wrote a fresh canonical
(commit df2e273 = the tag commit, correcting samever's main-HEAD 2b82eba); live proof-C
green-untagged → 0 promotes, canonical byte-identical (tagged-gate blocks untagged).
- M1.2 sweep_decision (version-keyed trigger) + vendored faithful recipe-mirror-sync.sh
(smoke-tested: faithful no-op main/tags push, closed merged-upstream PR #2, left PR #5);
nightly_sweep rewritten (mirror_sync -> trigger -> run_on_tag). Live SKIP demo on custom-html.
- M1.3 all 21 used-recipes enrolled. M1.4 hollow-sweep fix (CCCI_REPO=/etc/cc-ci). M1.5 weekly timer.
- M1(A) reattach: live proof-B --quick reused the retained volume green; known-good unchanged.
Evidence + verify recipes in STATUS-canon.md; reasoning in JOURNAL-canon.md; DECISIONS appended.
Gate: M1 CLAIMED, awaiting Adversary.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
cc-ci — Co-op Cloud recipe CI server
Comment !testme on a PR in an enrolled Co-op Cloud recipe repo and cc-ci deploys the recipe
at that commit onto a real single-node Docker Swarm, runs install / upgrade / backup-restore tests
(Python + Playwright) end-to-end, and reports a live, tail-able run with pass/fail back to the PR.
This repo declares the entire server as a NixOS flake and holds the test harness, the per-recipe test trees, and the docs to enroll a recipe or rebuild the box from scratch.
Status: under active autonomous construction. See
machine-docs/STATUS.mdfor the live phase andplan.md-driven milestones inmachine-docs/BACKLOG.md. Definition of Done is D1–D10 (see the build plan).
Layout
flake.nix NixOS entry point + devshells (`#cc-ci` = live Hetzner host, `#cc-ci-incus` = legacy Incus host)
nix/hosts/cc-ci/ legacy Incus VM host config (fallback / historical)
nix/hosts/cc-ci-hetzner/ live Hetzner host config
nix/modules/ drone, comment-bridge, swarm, dashboard, secrets (Nix modules)
secrets/ sops-encrypted infra secrets (cc-ci-secrets submodule)
bridge/ !testme webhook listener source
runner/ run_recipe_ci.py + shared pytest harness
dashboard/ results overview generator
tests/<recipe>/ per-recipe install/upgrade/backup tests + custom/
docs/ install, enroll-recipe, secrets, architecture, runbook, baseline
All .nix code lives under nix/; flake.nix/flake.lock stay at the repo root. Host targets are:
#cc-ci= canonical live Hetzner server#cc-ci-hetzner= explicit alias for the same live Hetzner server#cc-ci-incus= legacy Incus VM definition only; do not use on Hetzner
Docs
docs/install.md— rebuild the server from scratch (D8)docs/testing.md— test architecture: generic lifecycle suite + layered recipe overlays (override/extend, discovery precedence, custom install-steps hook)docs/enroll-recipe.md— add a recipe under CI (D5)docs/secrets.md— secret model + rotation (D6)docs/architecture.md,docs/runbook.md— design + debugging failed runsdocs/baseline.md— bootstrap snapshot / rollback reference
Linting & formatting
The codebase is kept formatted + lint-clean by a single entrypoint, run from the pinned lint
devshell so local and CI use identical tool versions:
nix develop .#lint --command bash scripts/lint.sh # check-only (what CI runs)
nix develop .#lint --command bash scripts/lint.sh --fix # auto-format + apply fixes
Covers Nix (nixpkgs-fmt · statix · deadnix), Python (ruff lint+format), Shell
(shellcheck · shfmt), and YAML (yamllint). Config lives in ruff.toml / .yamllint.yaml;
tool/strictness choices are in machine-docs/DECISIONS.md. CI enforces it: the lint step in the
.drone.yml push pipeline runs the same command and fails the build on any unclean file, so
keep commits clean (--fix before pushing).
Loop state (autonomous build)
The multi-agent loop state lives under machine-docs/: STATUS.md (phase/blockers),
BACKLOG.md (work + adversary findings), REVIEW.md (independent verification), JOURNAL.md
(build log), DECISIONS.md (architecture choices) — plus the phase-namespaced *-1b.md / *-1c.md
variants. See the build plan for the two-loop Builder/Adversary protocol.