Address review: the self-heal classified every non-absence `network inspect`
failure as a poisoned network and force-removed the shared gateway. But
inspect also fails on transient daemon/API errors, permission failures,
timeouts, or a bad context — destroying a healthy gateway on that guess would
tear the network out from under every live bottle.
Now the destructive path runs only for the known poison signature (docker's
`ParseAddr` error from the malformed `::1/64` IPv6 gateway). The absent case
(`No such network`) still just creates; any other inspect failure raises a
clear GatewayError without mutating shared state.
Adds a regression test asserting a generic inspect error issues neither
`docker rm --force` nor `docker network rm` and surfaces the error.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
PR #515 stopped bot-bottle from *creating* a gateway network with a
malformed IPv6 subnet (--ipv6=false), but it can't recover a network that
is *already* poisoned. On a daemon that default-enables IPv6, the fixed-name
`bot-bottle-gateway` network gets an `fdd0::/64` subnet whose `::1/64`
gateway trips docker's own netip.ParseAddr, so `docker network inspect`/`ls`
exit non-zero — poisoning every command that reads networks.
Such a network can survive on a shared runner from a pre-fix or concurrent
launch. `_ensure_network` never healed it: its migrate/recreate branch only
ran when `network inspect` *succeeded*, but a poisoned network makes inspect
*fail*, so the code fell through to `network create`, which no-ops on
"already exists" — leaving the poison in place. The next subnet read then
failed with ConsolidatedLaunchError (test_multitenant_isolation), and a bare
`docker network ls` failed too (test_orphan_cleanup).
Fix, two parts:
- gateway.py: when `network inspect` fails for a reason other than "no such
network", treat the network as poisoned and force-remove + recreate it
IPv4-only. Absent-vs-poisoned is distinguished by the inspect stderr.
- test.yml: add an integration-docker preflight that drops the leftover
gateway network (and its container) before the suite, so direct `network
ls`/`inspect` calls in tests are clean even on a daemon where the in-code
heal can't run because inspect itself is what's broken.
Adds unit coverage for the poisoned-heal and the absent-create split.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
On a docker daemon that default-enables IPv6 (default-address-pools),
creating the gateway network with only `--subnet` lets the daemon also
attach an fdd0::/64 IPv6 subnet. Its gateway is stored as `::1/64`,
which trips docker's own netip.ParseAddr in `network inspect`/`ls`:
ParseAddr("fdd0:0:0:6::1/64"): unexpected character, want colon
That poisons every `_network_cidr`/`network ls` read and fails the
docker integration suite intermittently (whichever run the runner's
IPv6 pool index lands on a broken network). bot-bottle attribution
pins IPv4 source IPs and has no IPv6 support, so pass `--ipv6=false`
explicitly at network create to keep the gateway network IPv4-only
regardless of the daemon default.
Note: an already-poisoned runner still needs a one-time
`docker network rm bot-bottle-gateway` (and possibly a daemon
restart) to clear the malformed network.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Gitea AGit accepts pushes to refs/for/*, refs/draft/*, and
refs/for-review/* and opens pull requests backed by server-managed
refs/pull/<n>/head refs rather than ordinary refs/heads/* branches.
That breaks the git-gate branch workflow: follow-up commits can't be
pushed back through the branch, and Gitea rejects later direct updates
to the generated review ref, so recovery means recreating the PR.
Add a Phase 0 guard to the shared pre-receive hook that rejects
creation or update of those AGit review refs before any gitleaks scan
or upstream forward, with a message pointing callers at the
branch-backed PR workflow. Deletions (new == zero) stay allowed so
legacy AGit refs can still be cleaned up; normal branches and tags are
untouched.
Closes#506
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Addresses the third review round on PR #481.
- `bot-bottle doctor` now checks `is_backend_ready()` (a full backend
status() probe: daemon reachable, network pool present, KVM usable)
instead of the cheap PATH-only `is_backend_available()`. A host with a
stopped Docker daemon or half-configured Firecracker no longer reports
`ok: backend` / exit 0 when `start` can't actually work; each not-ready
backend prints its own diagnostics, and doctor passes only if at least
one backend is ready.
- `install.sh` resolves the pip `--user` scripts directory from the
interpreter (`sysconfig.get_path("scripts", get_preferred_scheme("user"))`)
instead of hardcoding `~/.local/bin`, which is wrong on a python.org
macOS interpreter (`~/Library/Python/<X.Y>/bin`). The PATH guidance now
prints the actual directory.
Tests: doctor tests mock `is_backend_ready` (the readiness contract) and
cover the not-ready → fail path; a new install-script test drives the
macOS `osx_framework_user` scheme and asserts it resolves a
non-~/.local/bin directory.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Addresses the review on PR #481.
Self-contained wheel (review point 1): the gateway/infra/orchestrator
images build from a context that must hold bot_bottle/, pyproject.toml,
and the root-level Dockerfiles. Modules previously located these by
walking __file__ to the repo root, so an installed wheel (package in
site-packages, no repo root) passed `doctor` but failed `start`.
- Add bot_bottle/resources.py: build_root() returns the repo root in a
checkout (unchanged) or a staged copy from the wheel's bundled
_resources/ otherwise; dockerfile()/nix_netpool_module()/
netpool_script() derive from it.
- setup.py bundles the root Dockerfiles, nix module, netpool script, and
pyproject.toml into bot_bottle/_resources/ at build; MANIFEST.in ships
them in the sdist.
- Route every _REPO_ROOT/_REPO_DIR call site (docker/macos launch, macos
infra, firecracker infra_vm/infra_artifact/setup, orchestrator
lifecycle/gateway) through resources. Checkout behavior is unchanged.
install.sh prerequisites (review point 2): check for git when installing
a git+ spec, and — before the pip fallback — that pip is usable and the
interpreter isn't externally managed (PEP 668), pointing at pipx.
Tests: test_resources covers checkout + staged-wheel layouts;
test_wheel_install builds the wheel, installs it into an isolated venv,
and asserts `doctor` runs and build_root() yields a valid context.
Running `start` end-to-end still needs a Docker/KVM host (CI).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Give bot-bottle a real distribution path so new users can install
without cloning the repo:
- pyproject.toml: full project metadata, a `bot-bottle` console-script
entry point (bot_bottle.cli:main), and package-data for the runtime
assets (Dockerfiles, egress entrypoint, netpool defaults, macos init).
Still zero runtime pip dependencies.
- install.sh: POSIX, sudo-free, idempotent bootstrapper — checks Python
>= 3.11, creates ~/.bot-bottle/{agents,bottles,contrib}, installs via
pipx (pip --user fallback), then runs `bot-bottle doctor`.
- `bot-bottle doctor`: new store-free subcommand reporting Python
version, backend availability (reuses is_backend_available rather than
hardcoding Docker), and config-dir presence. Exits non-zero when a hard
prerequisite is unmet.
- PRD prd-new-install-script and unit tests for doctor, the packaging
contract, and the install script.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Remove the empty-key opt-out codex flagged: ControlPlaneProvisioning
no longer lets the orchestrator start without a signing key when a
backend declares an "isolated" topology. Host separation is not the
safety condition — the gateway (and any other caller) must reach the
control-plane listener for /resolve, so an open orchestrator would
still grant them full `cli`. The signing key is now mandatory for
every backend.
Drops the now-purposeless Topology/COLOCATED machinery (no backend
declared a non-default topology) and the contractual
test_orchestrator_key_allows_empty_when_isolated. Updates the PRD's
invariant 4 and lifecycle docstring accordingly. Docs/behaviour only
otherwise.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Hoist control-plane auth provisioning out of the per-backend launchers into
one shared contract, parameterized per trust domain (#476). Every blocking
finding in PR #471 was the same integration-bug class: each launcher
re-derived, by hand, how to generate the signing key, scope it to the
orchestrator, mint the gateway JWT, and keep the host key canonical.
Introduces `trust_domain.py`:
* `TrustDomain` — one credential boundary (host-canonical key file + role
set + env vars). `mint`/`verify` are scoped to the domain's roles, so a
future host-controller domain (#468) uses its own key/verifier/roles
rather than a `host` role on the control plane's frozenset (which the
orchestrator key could then forge).
* `ControlPlaneProvisioning` — the single seam answering the four
invariants: host-canonical key, split key-vs-token credential, CLI token
valid across co-running backends, and fail-closed (no open mode) for any
co-located topology.
* `Topology` — the backend declares what it is; the default is co-located +
fail-closed, so a backend need not redeclare it.
The `Orchestrator` ABC gets `control_plane_key()` (fail-closed) and routes
`mint_gateway_token()` through the contract; docker/macOS/firecracker
orchestrators, the server (verify), and the host CLI client (mint cli) all go
through the domain instead of reading the host key directly. `orchestrator_auth`
gains an optional `roles=` arg (default unchanged) so a domain scopes its own
role set; `paths.host_signing_key(filename)` generalizes host_orchestrator_token.
Adds unit coverage for the domain boundary + provisioning invariants and a PRD
capturing the durable rationale. No change to the auth primitive's HMAC, the
plane split, or the server's documented open-mode fallback.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Closes#476