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>
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
Remove symbols with no remaining consumer:
- `gateway_name` property on Docker/MacosInfraService — nothing uses it; the
launch flow reads `gateway().name` off the Gateway service. (+ its docker test.)
- firecracker `infra_vm` EGRESS_PORT / SUPERVISE_PORT / GIT_HTTP_PORT — dead
duplicates; launch.py uses supervisor.types / docker.egress / a local const.
- macOS `INFRA_DB_VOLUME` back-compat alias — unused since the DB-volume test
moved to `ORCHESTRATOR_DB_VOLUME`.
- docker `infra.py`: the unused `ORCHESTRATOR_SOURCE_HASH_LABEL` import and the
`__all__` re-exports of the orchestrator constants (consumers import them from
`docker.orchestrator`, not `docker.infra`).
- macOS `infra.py`: the unused `GatewayError` import + re-export.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Add a backend-neutral `InfraService` ABC (backend/infra_service.py) so all three
backends present the same composer contract: `orchestrator()` / `gateway()`
accessors, `ensure_running(*, startup_timeout) -> str` (the host control-plane
URL), `stop()`, plus concrete `url()` / `is_healthy()` that delegate to the
orchestrator. `DockerInfraService` and `MacosInfraService` now subclass it.
Give firecracker the missing class: `FirecrackerInfraService`
(backend/firecracker/infra.py) wraps the `infra_vm` substrate as the pair
coordinator (adopt-or-boot-both under the singleton flock). `infra_vm` keeps only
the plane-agnostic substrate; its `ensure_running` / `_adopt` / `InfraEndpoint`
move to the class, and the coordinator helpers it now calls cross-module go
public (`singleton_lock` / `expected_version` / `adoptable` /
`record_booted_version`).
Unify the return type on the way: `ensure_running` returns the URL string
everywhere (was `str` for docker, two different `InfraEndpoint`s for
macOS/firecracker), and those `InfraEndpoint`s are deleted — the services are the
source of truth (callers read `gateway().address()` / `orchestrator().url()`).
docker's `url` property becomes the inherited `url()`. backend.py /
consolidated_launch / image_builder + tests updated.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Sweep for vestiges of the old combined-plane model and the pre-split shared
rootfs. Two are load-bearing, the rest are stale docs/comments:
- Bug: macOS `enumerate_active` only excluded the gateway container from the
agent list, so after the split the orchestrator container
(`bot-bottle-mac-orchestrator`, also `bot-bottle-`-prefixed) was enumerated as
a phantom agent. Exclude both infra containers; test covers it.
- Dead code: the gateway `bootstrap.py` still carried an `orchestrator` daemon
spec + `_OPT_IN_DAEMONS` + a signing-key/JWT env branch, all for the old
combined container where the gateway process could also run the control plane.
No backend ever requests it now — removed; the key-stripping stays as
defense-in-depth.
Stale-comment reframes: "the/single infra container" -> the orchestrator +
gateway pair (or the specific plane); "shared rootfs / bb_role init / one
published rootfs" -> the per-plane rootfs + `role_init`; the deleted
Dockerfile.infra references in Dockerfile.orchestrator/.gateway; and the macOS
"one infra container ... same address" docstring + its now-false
share-one-address test (the planes are distinct containers with distinct
addresses).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Extract the Apple-Container control-plane lifecycle out of `MacosInfraService`
into `MacosOrchestrator` (backend/macos_container/orchestrator.py): the
container run on the host-only control network, the container-only DB volume,
the source-hash recreate gate, health polling against the resolved
control-network address, and `probe_orchestrator_url`. `url()` == `gateway_url()`
here (Apple has no container DNS, so one resolved address serves the CLI and the
gateway).
`MacosInfraService` now composes `orchestrator()` + `gateway()`: ensure the
networks, build both images (each service self-builds via `ensure_built` — added
to `MacosGateway` too), bring the orchestrator up first, then connect the gateway
with the orchestrator-minted token. `ORCHESTRATOR_IMAGE` + the DB-volume constant
move to the orchestrator module (with back-compat aliases where imported).
Container-lifecycle tests split into test_macos_orchestrator; test_macos_infra
now covers the composition.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Rename the module files to match their functions' verb-first names:
`bottle_provision.py` -> `provision_bottle.py`,
`gateway_provision.py` -> `provision_gateway.py` (and the test file to match).
Imports, docstrings, and the git_gate/service.py pointer updated.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
The backends' public teardown entry point now pairs with `launch_consolidated`
under the provision/deprovision verb used everywhere else
(`deprovision_bottle`, `deprovision_git_gate`). Renamed across all three
backends' consolidated_launch + launch modules and the tests.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Rename `consolidated_util` -> `bottle_provision` and align it with
`gateway_provision` as the two provisioning domains: `bottle_provision` owns
the bottle lifecycle (`provision_bottle` + `deprovision_bottle`, the latter
renamed from `teardown_consolidated`), `gateway_provision` owns the git-gate
state pushed through the transport (`provision_git_gate`/`deprovision_git_gate`).
The three backends' consolidated_launch modules import from the new module;
their own public `teardown_consolidated` wrappers (called by launch.py) keep
their names.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
`backend/docker/gateway_provision.py` had no docker-specific code left once
`DockerGatewayTransport` moved out — `provision_git_gate` / `deprovision_git_gate`
drive any `GatewayTransport`, and the guest-side paths they write
(`/git-gate/creds/<id>`, `/git/<id>`, `/etc/git-gate/...`) are identical inside
every backend's gateway. Yet the neutral `backend/consolidated_util.py` reached
into the docker package to import them.
Move it to `backend/gateway_provision.py`, a sibling of its only importer. The
gateway *package* can't host it (git_gate already imports gateway.git_gate,
so gateway importing git_gate would cycle), but the backend layer uses git_gate
freely. Docstrings + the git_gate/service.py pointer updated.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Give every backend a `gateway_transport.py` holding just its `GatewayTransport`
impl, named consistently with the backend: `DockerGatewayTransport`,
`MacosGatewayTransport` (was `AppleGatewayTransport`), and
`FirecrackerGatewayTransport` (was `SshGatewayTransport`).
- docker: split `DockerGatewayTransport` out of `gateway_provision.py`, which
keeps only the backend-neutral provisioning logic (provision_git_gate /
deprovision_git_gate) the other backends share.
- macOS: `gateway_provision.py` held only the transport, so it's replaced by
`gateway_transport.py`.
- firecracker: move the transport out of `gateway.py`.
Behaviour-preserving; importers + tests updated.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Extract the Apple-Container gateway data plane out of `MacosInfraService` into
`MacosGateway`, the macOS implementation of the shared `Gateway` service.
`connect_to_orchestrator(url, gateway_token)` runs the triple-homed gateway
container (egress + agent + control networks) carrying the mitmproxy CA and the
pre-minted `gateway` token; `address()` / `ca_cert_pem()` /
`provisioning_transport()` round out the contract.
The infra service now composes the gateway: `ensure_running` mints the
role-scoped `gateway` JWT (it holds the signing key; the gateway never does —
#469) and hands it to `gateway().connect_to_orchestrator(...)`, and
`ca_cert_pem` delegates to the service. The inlined `_ensure_gateway_container`
+ CA-read are gone. `AppleGatewayTransport` + the gateway container name/label
now live with the gateway module, breaking the old infra→provision coupling.
Splits the gateway-run + CA tests out of test_macos_infra into a dedicated
test_macos_gateway; the infra tests mock `svc.gateway`.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
The single Apple container existed only because two guests writing one
bot-bottle.db over virtiofs would race incoherent fcntl locks; #469 removed
that (the data plane no longer opens the DB), so the macOS backend now runs
the planes as two containers like docker:
* bot-bottle-mac-orchestrator — lean control plane on the host-only
`bot-bottle-mac-control` network only (image Dockerfile.orchestrator,
`-m bot_bottle.orchestrator`). Sole mounter of the container-only DB
volume; holds the signing key. The CLI + gateway reach it at its
control-network address.
* bot-bottle-mac-infra — the gateway, triple-homed on the NAT egress net,
the host-only agent net, and the control net. Resolves the orchestrator by
IP (Apple has no container DNS) via BOT_BOTTLE_ORCHESTRATOR_URL; holds the
CA + gateway JWT.
Agents sit on the agent network only, so they have no route to the control
plane. ensure_networks gains the control network; MacosInfraService brings up
the orchestrator then the gateway; probe_orchestrator_url + ca_cert_pem target
the right containers. pyright 0 errors; unit suite green (2274). Needs a real
Apple-container host to validate the networking.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Brings in main's 8 commits — #470 (backend-agnostic CI guards: BackendStatus
enum, quiet status(), is_backend_available/is_backend_ready, tests/_backend.py
skip_unless_backend) plus firecracker status() readiness checks (kvm/kernel/
dropbear/mke2fs).
Reconciled #470's additions into the reorg'd backend structure:
* BackendStatus enum + the status(*, quiet=) ABC signature -> backend/base.py
* is_backend_available / is_backend_ready -> backend/selection.py
* exposed all three through the lazy backend facade (__init__).
Integration-test conflicts were our control_plane->orchestrator renames vs
main's skip_unless_docker -> skip_unless_backend swap: kept our refactored
import paths + main's guard. Repointed main's new is_backend_* tests to patch
selection._backends (our moved home) instead of the facade.
pyright: 0 errors. Full unit suite green (2272).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Add a module-level BackendStatus(IntEnum) with READY=0 to replace magic
0 comparisons. Extend BottleBackend.status() with a quiet parameter:
quiet=False (default) prints diagnostics; quiet=True returns the code
silently for programmatic checks.
Add is_backend_available() (cheap PATH check, alias for has_backend) and
is_backend_ready(name, *, quiet=False) (full status() check) to the
backend package for callers that need to distinguish availability from
readiness.
Update tests/_backend.py guards to use is_backend_ready(quiet=False) so
diagnostic output is printed during test discovery, giving the operator a
concrete reason for each skip rather than a bare "prerequisites
unavailable" message.
Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
The codebase used "control plane" both as an architectural role term AND
as an identifier alias for the orchestrator component, producing
duplicate names for one thing (control_plane_url vs orchestrator_url,
CONTROL_PLANE_PORT, host_control_plane_token, …). Going forward the
concrete component is always named for what it is — Gateway or
Orchestrator — and the plane vocabulary is reserved for prose (module
descriptions, the security argument).
Renamed (identifiers + the in-repo env/wire/file string values, all
setters/getters are in this repo so the change is atomic):
ControlPlaneServer -> OrchestratorServer
control_plane_url -> orchestrator_url
probe_control_plane_url -> probe_orchestrator_url
host_control_plane_token -> host_orchestrator_token
CONTROL_PLANE_PORT -> ORCHESTRATOR_PORT
CONTROL_PLANE_TOKEN_ENV/FILE -> ORCHESTRATOR_TOKEN_ENV/FILENAME
BOT_BOTTLE_CONTROL_PLANE_TOKEN-> BOT_BOTTLE_ORCHESTRATOR_TOKEN
control-plane-token (file) -> orchestrator-token
control_auth (module) -> orchestrator_auth (stays top-level;
the gateway imports it and must not
import the orchestrator/ package)
CONTROL_AUTH_HEADER -> ORCHESTRATOR_AUTH_HEADER
x-bot-bottle-control-auth -> x-bot-bottle-orchestrator-auth
CONTROL_AUTH_JWT_ENV -> ORCHESTRATOR_AUTH_JWT_ENV
BOT_BOTTLE_CONTROL_AUTH_JWT -> BOT_BOTTLE_ORCHESTRATOR_AUTH_JWT
_control_auth_headers -> _orchestrator_auth_headers
Prose plane-terms ("control plane", "data plane") are preserved,
including the test name test_data_plane_daemons_get_jwt_not_key (it
names the security invariant). Gateway and orchestrator verified to
agree on the renamed wire header; full unit suite green (2243).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Group the gateway's data-plane modules into three service sub-packages
mirroring the host-side trio (bot_bottle.egress / .supervisor / .git_gate):
gateway/egress/ addon_core, addon, dlp_config, dlp_detectors
gateway/supervisor/ server (was supervise_server)
gateway/git_gate/ render, http_backend
Prefix-stripped filenames now that the package namespaces them; each
sub-package has a thin docstring __init__ (no eager imports, cheap leaf
loads). The two cross-cutting files stay at the gateway root:
policy_resolver (shared per-client lookup) and gateway_init, renamed to
bootstrap now that gateway/ already namespaces it.
Updated all importers (bot_bottle + tests), the in-VM/container `-m`
launch strings, the Dockerfile.gateway addon shim + ENTRYPOINT, and the
five gateway entries in scripts/critical-modules.txt. Full unit suite
green (2243).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Split the flat egress.py into an egress/ package: neutral DTOs
(EgressRoute, EgressPlan) in plan.py, and the concrete Egress service
class plus rendering/env helpers in service.py, behind a thin
__getattr__ facade so leaf imports stay cheap.
Egress drops ABC and becomes a concrete service the backends call:
resolve_token_values / agent_env_entries / prepare are now methods.
Backend launch paths (docker, firecracker, macos_container) call
Egress().<method>(...) instead of the module-level functions.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Turn the git_gate module into a package with GitGate as a concrete service class
(dropping the ABC), mirroring the Supervisor shape. The host-side git-gate
operations are now methods the backend drives:
git_gate/
__init__.py — thin __getattr__ facade (keeps `from bot_bottle.git_gate
import …` working; render/hook names lazily forwarded to
gateway.git_gate_render)
plan.py — GitGatePlan (the launch DTO the backend contract references)
service.py — GitGate: prepare / provision_dynamic_keys /
revoke_provisioned_keys / preflight_host_keys
provision.py — deploy-key lifecycle (was git_gate_provision.py)
host_key.py — host-key preflight (was git_gate_host_key.py)
The backend launch + base.py preflight now call GitGate() methods instead of the
free functions. The runtime rendering / in-gateway hook execution stay in
gateway/git_gate_render.py (data plane) — only the host-side service moved.
Because the facade forwards names lazily, the ~25 `from bot_bottle.git_gate
import GitGatePlan` call-sites are unchanged, and importing git_gate.plan (the
contract's dependency) no longer drags in the provisioning / forge-API code.
Full unit suite green (2243).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
The three concrete-backend package inits eagerly imported their
`*BottleBackend` (which pulls the whole framework), so importing any leaf under
them (e.g. `backend.docker.util`) paid ~78 modules. Give each the same thin
`__getattr__` treatment as the top-level backend package: re-export the public
class(es) lazily on first access, with a TYPE_CHECKING block for checkers.
`import bot_bottle.backend.docker.util` drops from 78 -> 6 bot_bottle modules;
the docker/firecracker/macos-container packages themselves are ~3 each. All
`from bot_bottle.backend.docker import DockerBottleBackend` call-sites and the
lazy selection path keep working.
This is what makes backend leaves cheap — and unblocks moving docker_cmd into
backend/docker/util if we want.
Full unit suite green (2243).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Give each service its own store package + manager, and cut the supervise module
along the control/data-plane boundary so nothing in the shared layer reaches up
into the orchestrator.
Stores, by owner:
- bot_bottle/store/ keeps only the shared base (DbStore, migrations) and the
concrete stores that aren't service-owned (audit_store, config_store).
- bot_bottle/orchestrator/store/ now houses the orchestrator-owned stores —
queue_store (supervise queue), secret_store, config_store — plus a new
orchestrator store_manager that migrates them (composing audit/config
downward from the base). The old shared store_manager is gone.
Supervise plane, by tier:
- bot_bottle/supervisor/ (NEUTRAL, importable by every tier including the
gateway): types.py (the Proposal/Response/AuditEntry wire types + the tool/
status/poll constants + the shared daemon constants moved out of
supervise.py) and plan.py (SupervisePlan, a pure DTO).
- bot_bottle/orchestrator/supervisor/ (orchestrator-only): queue.py (the
queue/audit I/O wrappers + render_diff + sha256_hex) and supervise.py (the
Supervise lifecycle that stages the DB via the store manager). Its __init__
re-exports the neutral vocabulary so orchestrator-side callers import from
one place.
The gateway now imports only bot_bottle.supervisor.types (never
bot_bottle.supervise), so the data plane holds no code dependency on the
orchestrator — it reaches the queue over the control-plane RPC. This removes
the circular import that moving queue_store under orchestrator introduced
(supervise -> orchestrator -> service -> supervise).
supervise_types.py -> supervisor/types.py; supervise.py deleted (split). Full
unit suite green (2251).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Separate the gateway (data plane) from the orchestrator (control plane) at the
module level. The gateway runtime files move out of the package root — and the
backend-neutral Gateway lifecycle ABC + GATEWAY_* constants move out of
orchestrator/ — into a new bot_bottle/gateway/ package:
gateway/__init__.py (was orchestrator/gateway.py: Gateway ABC + consts
+ rotate_gateway_ca)
gateway/gateway_init.py (the PID-1 daemon supervisor)
gateway/egress_addon.py, egress_addon_core.py, egress_dlp_config.py,
dlp_detectors.py (the egress mitmproxy daemon)
gateway/git_http_backend.py (the git-http daemon)
gateway/git_gate_render.py (the git-gate pre-receive rendering)
gateway/supervise_server.py (the supervise MCP daemon)
gateway/policy_resolver.py (the data-plane control-plane RPC client)
orchestrator/ now holds only control-plane files. The shared plan/types/auth
layer (egress.py=EgressPlan, git_gate.py=GitGatePlan, supervise.py,
supervise_types.py, control_auth.py) and the launch-time git-gate provisioning
helpers stay at root, so orchestrator/ and backend/ still own them.
Because these daemons are invoked as `python3 -m bot_bottle.<name>`, loaded flat
by mitmproxy, and referenced in Dockerfile.gateway, the move updates more than
Python imports: the `-m` invocations (firecracker/macOS infra scripts), the
Dockerfile.gateway addon shim + ENTRYPOINT, gateway_init's _DAEMONS module
paths, and the git-gate CGI heredocs all now point at bot_bottle.gateway.*.
No behavior change; full unit suite green (2251).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Review follow-up on #469: the data plane held the same control-plane secret
that authorizes every route, so a compromised egress/git-gate could queue a
supervise proposal AND approve it (or rewrite policy, read injected tokens) —
the (source_ip, identity_token) checks attribute the *bottle*, not the caller.
Replace the single shared bearer secret with role-scoped, HMAC-signed tokens
(compact HS256 JWTs, stdlib-only — no new dependency):
* new `control_auth` mints/verifies `{role}` tokens; roles are `gateway`
(data plane) and `cli` (host operator/launcher).
* the orchestrator holds only the signing *key* and verifies; `dispatch`
gates each route by role — `gateway` reaches /resolve + /supervise/
{propose,poll}, everything else is `cli`-only (401 unauthenticated,
403 wrong role).
* the gateway is handed a pre-minted `gateway` token it cannot rewrite into
`cli`; the host CLI mints its own `cli` token from the host key.
* `gateway_init` scopes the signing key to the orchestrator process and the
gateway token to the data-plane daemons, so even in the combined infra
container a compromised data-plane daemon never sees the key.
Launchers (docker gateway + infra, macOS infra) inject the minted token(s);
Firecracker stays open behind its nft boundary. Open mode (no key) still grants
full `cli` access — the fail-visible fallback for tests.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
PRD 0070's rule — only the orchestrator opens bot-bottle.db; the data
plane reaches state through the control-plane RPC — was not in force.
Three data-plane daemons held a direct read-write handle on the shared
SQLite file: the supervise MCP server, the egress DLP addon (the most
attack-exposed process, TLS-bumping hostile traffic), and the git-gate
pre-receive hook. An RCE in any of them could read every bottle's
plaintext identity_token and forge attribution fleet-wide (issue #469).
Add the agent half of the supervise flow to the control plane:
POST /supervise/propose -> queue a proposal, 201 {proposal_id}
POST /supervise/poll -> non-blocking decision poll, 200 {status,...}
Both attribute the caller by (source_ip, identity_token) exactly like
/resolve — never a caller-supplied slug — so a bottle can only ever queue
or read its own proposals even if the data plane is compromised. A decided
poll archives server-side, preserving the archive-after-read contract.
Data plane: the supervise server, egress addon, and git-gate hook now
queue/poll through PolicyResolver.propose_supervise / poll_supervise
instead of opening the DB. supervise_server keeps its ~30s grace window
by polling the RPC; egress keeps its safelist keyed by resolved bottle;
the git-gate hook gets (source_ip, identity_token) from the CGI env.
Packaging: drop the DB bind-mount and SUPERVISE_DB_PATH from the
data-plane containers/VMs (docker gateway + infra, macOS infra,
firecracker infra). The orchestrator remains the sole opener of the one
file via BOT_BOTTLE_ROOT / host_db_path().
Update PRD 0070: the rule is now in force; remove the transitional caveat.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Implements the interim secret-provider design (PRD prd-new-secret-provider):
each agent receives a random ENV_VAR_SECRET injected into its container env
at launch. The host uses this key to encrypt each egress auth token value
(HMAC-SHA256 CTR mode, stdlib-only) and store it in a new
bottled_agent_secrets table (one row per env var, key column plaintext for
auditing). The key never touches the DB.
On infra container restart the in-memory token map is lost. launch_consolidated
now calls _reprovision_running_bottles after ensure_running: for each
registered bottle still alive on the gateway network it execs
`printenv ENV_VAR_SECRET` into the agent container and posts the result to the
new POST /bottles/<id>/reprovision_gateway control-plane endpoint, which
decrypts the stored rows and restores _tokens — no manual intervention needed.
Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
- Drop the module-level paragraph emphasizing the single-UID security
boundary (#issuecomment-5010): redundant given the safe environment.
- Move `podman` from each agent image (claude, codex, pi) into the
`build_image` derived layer so bottles without `nested_containers`
pay no image-size cost (#issuecomment-5013).
- Update `build_image` docstring and inline comments to reflect the move.
- Add TODO(#394) noting the planned docker-layer abstraction refactor.
Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
This is the layer that actually decides it, and it was in the script
from the start: ~/.docker/config.json's proxies block is what the Docker
CLI copies into every container it starts. Being client-side it beats
the podman service outright, which is why containers.conf `env`,
http_proxy=false, and the service environment each looked correct on
disk and changed nothing a nested container saw.
Also corrects the comment on the service-env substitution, which
claimed to be the one place the address sticks. It is not; it covers
podman's own pulls and non-CLI API clients.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Third attempt at the same symptom, and the first at the right layer.
podman's Docker-compatible API injects proxy settings from the *daemon*
environment after containers.conf is applied, so neither the env list
(892bfc16) nor http_proxy=false (21c144ae) could override it — the same
compat-path blind spot already seen with hosts_file. Nested containers
kept reporting `wget: bad address 'bot-bottle-gateway:9099'` through
both.
Substituting the resolved address into the service's own environment,
before `podman system service` starts, is the one place it sticks.
NO_PROXY keeps the name, which is matched against what a client asks
for.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
The address-bearing proxy URLs from 892bfc16 were written correctly but
never took effect: podman copies the host's proxy environment into every
container by default, and that copy overrides containers.conf `env`,
restoring the `bot-bottle-gateway` name a nested container cannot
resolve. Verified on the macOS host — containers still reported
`wget: bad address 'bot-bottle-gateway:9099'` with the addresses in
place.
Setting http_proxy=false disables only podman's own passthrough; the
proxy vars still reach containers, by address, from the env list.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
podman's containers.conf `hosts_file` turns out to apply only to native
`podman run`; the Docker-compatible API ignores it, and the agent types
`docker`. (`base_hosts_file`, used before this, is a no-op in both
paths on podman 5.4.2.) So no config key can put the gateway name in a
nested container's /etc/hosts.
The name is therefore resolved in the bottle, where /etc/hosts does
carry it, and the address goes into the proxy URL handed to nested
containers. NO_PROXY keeps the name, since that is matched against what
a client asks for.
Verified on the macOS host: with the gateway reachable, a nested
container gets 200 from an allowlisted host and 403 from one that is
not — the egress boundary applies inside nested containers too.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Answers the last open question in #392: DNS from inside a nested
container was not a phantom, but it was also not a DNS problem. Public
resolution fails there by design — everything egresses through the
proxy — and the actual breakage was two missing pieces:
- The proxy URL names `bot-bottle-gateway`, which resolves only through
the bottle's own /etc/hosts. Containers got their own hosts file, so
they failed at "Could not resolve proxy", which reads like broken DNS.
base_hosts_file propagates the bottle's entries.
- The gateway TLS-intercepts, so a container that does not trust the
bottle's CA bundle fails with "unable to get local issuer
certificate". The bundle is now mounted read-only and the usual env
vars point at it, which covers curl, wget, python, and node without
distro-specific trust commands.
Verified on the macOS host by reproducing each failure and confirming
that these three conditions applied by hand produced HTTP 200 from
inside a nested container. podman already forwards the proxy env, so
that needed nothing.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
netavark shells out to `nft` for the bridge network every compose file
expects, and aardvark-dns serves name resolution inside nested
containers. Neither arrives with the base image's
`--no-install-recommends` podman, and each fails at a different and
misleading layer: without nft containers are created but never start;
without aardvark-dns DNS inside a container fails while the engine, the
pulls, and the bridge all look healthy. That last one is the likeliest
explanation for the "DNS inside nested containers fails entirely" note
in #392 — a missing package, not a design gap.
Verified on the macOS host: with passt alone, `docker run` reached
netavark and died on "unable to execute nft".
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
podman 5 uses pasta as the default rootless network helper; podman 4
used slirp4netns. The spike was written against bookworm's podman 4.3.1,
so its package list never included passt — and the trixie bump (#451)
changed the default out from under it. Every nested container failed to
start with "could not find pasta", while image pulls and the service
itself worked, which disguised a missing dependency as a compat-API bug.
The bootstrap now checks for pasta up front so this fails with a clear
message instead of surfacing at the first `docker run`.
Note the sun_path fix in a12d2191 did NOT cause or cure this; that path
was over the 108-byte limit independently and would have bitten as soon
as attach was reached.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
podman derives conmon's attach socket as
`$XDG_RUNTIME_DIR/libpod/tmp/socket/<64-hex-id>/attach`. With the
descriptive `/tmp/bot-bottle-podman-run` that path is 116 bytes, past
the 108-byte sun_path limit, so every attached `docker run` failed with
"unable to upgrade to tcp, received 500" — while image pulls and the
service itself worked, which is what made it look like a compat-API bug
rather than a path-length one.
Found on the macOS host: quay.io pulled fine and then no container
could be started. Test pins the budget so a more readable name cannot
silently reintroduce it.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Adds the `nested_containers` bottle flag. On the macOS backend it starts
a rootless podman service inside the bottle and exposes its
Docker-compatible API socket, so the agent still runs `docker` and
`docker compose`. No host daemon socket is mounted and the guest gains
no capabilities; backends that cannot run a guest-local engine reject
the flag in the shared prepare template rather than ignoring it.
Podman rather than rootless Docker because Apple Container's capability
bounding set omits CAP_SYS_ADMIN, which the kernel requires to write a
multi-range uid_map via newuidmap. With no subordinate UID range podman
falls back to a single-UID self-mapping an unprivileged process may
write itself, so the image build strips /etc/subuid and /etc/subgid
entries rather than adding them.
That mapping is also why nested containers are not an isolation layer:
root inside one is the agent user outside it. They are a build/test
convenience; the bottle remains the boundary.
Ports the spike branch onto main, renaming docker_access — it implied
Docker and granted access to nothing on the host — and drops podman
from the derived layer now that every built-in image ships it (#451).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
FROM-scratch images (commit_container output) and registry images built
for reproducibility often omit the created field entirely. Both backends
were calling die() in that case, crashing the cached-image quickstart
before any container started.
image_created_at now returns datetime | None — None when the field is
absent or unparseable, die() only on real inspect failures (non-zero
exit, malformed JSON). stale_checks in both backends skips the staleness
check when None is returned.
Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
Addresses review comments 3098, 3099, 3100 on PR #336:
- Add BottleImages(agent, sidecar) dataclass to backend/__init__.py.
Docker/macOS backends use str image refs; smolmachines uses Path
artifacts. Replaces the singular `image` variable from the canonical
pattern in comment 3100.
- Replace _image_stale_checks/skip_stale with public prelaunch_checks().
CLI now calls backend.prelaunch_checks(plan) before backend.launch(plan);
if StaleImageError is raised and the operator confirms, launch proceeds
without re-checking. Removes the while-True/skip_stale retry loop.
- Add abstract _build_or_load_images(plan) -> BottleImages to
BottleBackend. launch() calls it then passes images to _launch_impl.
Each backend implements both methods.
- Fix comment 3098 (macos-container): _build_images is removed.
build_or_load_images() has separate fresh/cached code paths — the
cached path never calls a build helper.
- Update _start_bundle (smolmachines) to accept sidecar_artifact: Path
directly. Sidecar artifact resolution moves to _sidecar_from_path(),
called by build_or_load_images alongside _agent_from_path().
- image_cache: StaleImageError exception + check_stale/check_stale_path (raise instead of warn)
- BottleBackend.launch: template method (skip_stale flag) that calls _image_stale_checks then _launch_impl
- Each backend: _image_stale_checks delegates to a stale_checks() function in its launch module; _launch_impl replaces launch override
- macos_container: adds image_created_at to util, cached-image support in _build_images, stale_checks
- cli/start.py: catches StaleImageError, prompts interactively, retries with skip_stale=True; headless mode dies on it
Extract the shared CA cert polling loop into `backend/util.poll_ca_cert`
(firecracker and macos backends were duplicating deadline/sleep/raise logic).
Each caller now wraps a fetch lambda and converts TimeoutError to its own
error type. Also corrects the PRD port publication line from {port}:{port}
to {host_port}:8099.
Collapses the two-container Docker model (gateway + orchestrator) into one
bot-bottle-infra container, matching the macOS and Firecracker backends.
- Dockerfile.infra: now a shared gateway+orchestrator base (COPY bot_bottle
from orchestrator build, no CMD override)
- Dockerfile.infra.fc: new Firecracker-specific layer (buildah/crun/netavark)
- gateway_init: adds orchestrator daemon with _OPT_IN_DAEMONS gating so it
only starts when BOT_BOTTLE_GATEWAY_DAEMONS explicitly includes it
- orchestrator/lifecycle: OrchestratorService manages one infra container;
builds orchestrator (intermediate) then infra; live source bind-mounted at
/bot-bottle-src with PYTHONPATH so the subprocess uses the checkout
- backend/consolidated_util: extracts provision_bottle + teardown_consolidated
shared across all three backends; removes duplication in docker/fc/macos
consolidated_launch modules
- firecracker/infra_vm: builds four images (orchestrator→gateway→infra→infra.fc)
- All unit tests updated and passing (1878 tests)
- PRD status: Draft → Active
If resolve_teardown_timeout() raised after launch_consolidated()/register_agent()
returned, the teardown callback was never registered, leaving the bottle
registered with no cleanup path. Resolve the timeout into a local variable
before the registration call so any failure aborts before the bottle exists.
Add tests covering OrchestratorConfigStore, resolve_teardown_timeout priority
ordering (env > db > default), and the source-order invariant that the resolver
runs before registration in all three backends.
Resolves via ENV VAR -> orchestrator DB config -> default (30 s, up from 5 s):
BOT_BOTTLE_ORCHESTRATOR_TEARDOWN_TIMEOUT_SECONDS
teardown_timeout_seconds key in new orchestrator_config table (bot-bottle.db)
New OrchestratorConfigStore (same DbStore/TableMigrations pattern as the
registry) stores the DB-level setting. resolve_teardown_timeout() implements
the priority chain and is called at stack.callback registration time in all
three backends (macos_container, docker, firecracker).