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a718cef8ced6cf05f31dde808d899fb17ec6ee2f
5
Commits
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a718cef8ce |
Have every suite compose file name the caller's test image
Only the static family read FIPS_TEST_IMAGE; the firewall, ACL, nat, sidecar and both Tor compose files named the shared mutable tag directly, which is why the local CI runner has to retag its per-run image to that name. They now take the same defaulted form the static file already uses, so a harness run resolves the image it built and a bare hand run still resolves the shared tag exactly as before. Checked by rendering each file through `docker compose config` with the variables set: every service resolves to the supplied name and none is left naming the shared tag. |
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e4a854f6b0 |
Stop concurrent local CI runs from clobbering each other's containers
Two runs on one host destroyed each other's containers, producing mid-test "No such container" failures that look like real defects. The automated builder runs a full local CI on the same box every few minutes, so the machine is contended almost always and this has red-ed both a hand run and an automated gate. Two independent causes are fixed here. Container names were hardcoded, and docker names are global rather than scoped by compose project, so two runs collided on the same name; every name now takes an optional suffix that the harness sets from the run id. And the cleanup sweep matched a label shared by every run, so one run's teardown force-removed another's containers; resources now also carry a per-run label and the sweep can be narrowed to it. A third hazard turned up that was not in the original report: the sidecar suite passes explicit compose project names, which override the run-scoped project and put it outside the shared prefix entirely. Its project names, network, and derived container references are now scoped too. Both are default-off. With the suffix unset, names render exactly as they do today and a bare compose invocation is unchanged, which is what keeps the hosted CI and the documentation correct. A cleanup run with no run id still reaps everything, which is what a manual "clear the box" wants. The literal-name sweep was not sufficient: six scripts build container names dynamically from node labels, and two suites create their own containers outside compose. Those are handled at their construction sites. Verified: syntax check on all modified scripts; compose validation on every modified file with the suffix both set and unset; and a synthetic two-run reproduction that shows the old cleanup destroying a bystander run and the new one leaving it alone. Known gap: subnets are still hardcoded, so two concurrent full runs will still collide on address-pool overlap. That fix reaches into topology configs, chaos scenarios, diagrams and production source, so it is left for its own change rather than half-done here. |
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965de26239 |
testing: make ci-local.sh preemption-safe with per-run docker isolation
A CI worker may preempt an in-flight ci-local.sh run (SIGTERM, then SIGKILL after a grace period) to restart on a newer commit. For that kill to be safe, the script must clean up after itself and never let a dying run collide with its restart. It previously had no signal handling, shared the default compose project name across runs, and tore down each suite only at the suite end. - Derive a per-run id (honoring FIPS_CI_RUN_ID, else short-sha+random) and namespace every docker resource to it: a fipsci_<run>_<suite> compose project per suite and per parallel chaos child, and per-run image tags (fips-test:<run>, fips-test-app:<run>) retagged to :latest only after both builds succeed so :latest never points at a half-built image. - Install a bounded, idempotent teardown trap on SIGTERM/SIGINT (+ EXIT): reap parallel chaos children, then force-remove this run's docker resources via the new ci-cleanup.sh, wrapped in timeout so a stuck down cannot wedge it. - Exit 143 (SIGTERM) / 130 (SIGINT), distinct from 0 (pass) / 1 (failed), so a preempting worker tells a cancelled run from a real failure. - Add ci-cleanup.sh (also ci-local.sh --reap): force-removes leftover CI resources by the com.corganlabs.fips-ci=1 label and the fipsci_ project prefix, robust to however a prior run died. - Label every per-suite docker resource so the label sweep reaps it after a SIGKILL regardless of network name: direct docker run/network resources, the sidecar compose services, and every per-suite compose network (acl-allowlist, boringtun, firewall, nat, static, both tor suites, and the chaos generator template). Parametrize the static/sidecar compose image refs so the per-run tags are honored. - Give each parallel chaos child a unique /24 from 10.30.x (a new --subnet override on the sim CLI, assigned per-child in ci-local.sh) so parallel children never collide on a shared docker subnet, and a chaos net can never span a fixed-subnet suite (sidecar/static in 172.20.x). 10.30.x sits outside docker's default-address-pool range, so an auto-assigned net cannot land on it either; node IPs derive from the subnet, so no scenario config changes. |
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9e63b42bd9 |
Consolidate Docker test harness infrastructure
Replace 4 near-identical per-harness Docker setups with unified shared infrastructure. Net result: -463 lines across 55 files, faster CI (8.5 min vs ~13.5 min), 14 scenarios (down from 21). Unified Docker image (testing/docker/): - Single Dockerfile (trixie-slim) with FIPS_TEST_MODE env var for mode dispatch: default, chaos, sidecar, tor-socks5, tor-directory - Single entrypoint.sh with conditional logic per mode - Replaces 5 Dockerfiles, 3 entrypoints, 4 resolv.conf copies Shared build and libraries (testing/scripts/, testing/lib/): - testing/scripts/build.sh: single build script with macOS zigbuild support, replaces 4 per-harness copies - testing/lib/derive_keys.py: shared key derivation module, replaces 3 copies of derive-keys.py - testing/lib/log_analysis.py: shared log analysis extracted from chaos sim/logs.py, with CLI interface and rekey cutover tracking - testing/lib/wait-converge.sh: shared convergence wait helpers (wait_for_links, wait_for_peers) using fipsctl JSON polling Scenario consolidation: - Remove 7 redundant scenarios: tcp-chain (subsumed by tcp-mesh), tcp-only (subsumed by tcp-mesh), chaos-10 (replaced by churn-mixed --nodes 10), churn-10/churn-20/churn-20-mixed (subsumed by parameterized churn-mixed), cost-mixed-7node (overlaps mixed-technology) - Add churn-mixed scenario with --nodes flag for scale testing - Reduce idle scenario durations: smoke-10 60s→30s, ethernet-only 90s→30s, cost-avoidance 120s→45s, depth-vs-cost 120s→45s, bottleneck-parent 120s→60s, mixed-technology 180s→90s CI updates: - ci-local.sh: unified image build, structured chaos suite entries with per-scenario flags, --skip-build for sidecar - ci.yml: shared binary install + image build step, updated scenario matrix, chaos_flags support for parameterized scenarios - Add tcp-mesh and congestion-stress to CI matrix - Static ping test uses active peer convergence detection instead of hardcoded 5s sleep Chaos infrastructure improvements (from discovery-rework branch): - Pre-built Docker image instead of per-service build at scale - --nodes flag in chaos.sh for runtime topology size override |
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6c90cf6c02 |
Implement Tor transport with operator visibility
Add TorTransport in src/transport/tor/ supporting three operating modes: Outbound (socks5 mode): - Non-blocking SOCKS5 connect via tokio-socks with per-destination circuit isolation (IsolateSOCKSAuth) - TorAddr enum for .onion and clearnet address types - Connection pool with per-connection receive tasks, reuses TCP stream FMP framing - connect_async()/connection_state_sync()/promote_connection() follow the same non-blocking polling pattern as TCP transport Inbound (directory mode — recommended for production): - Tor manages the onion service via HiddenServiceDir in torrc - FIPS reads .onion address from hostname file at startup - No control port needed — enables Tor Sandbox 1 (seccomp-bpf) - Accept loop mirrors TCP pattern with DirectoryServiceConfig Monitoring (control_port mode and optional in directory mode): - Async control port client supporting TCP and Unix socket connections via Box<dyn AsyncRead/Write> trait objects - AUTHENTICATE with cookie or password auth - 8 GETINFO queries: bootstrap, circuits, traffic, liveness, version, dormant state, SOCKS listeners - Background monitoring task polls every 10s, caches TorMonitoringInfo in Arc<RwLock> for synchronous query access - Bootstrap milestone logging (25/50/75/100%), stall warning (>60s), network liveness transitions, dormant mode entry - Directory mode optionally connects to control port when control_addr is configured (non-fatal on failure) Operator visibility: - show_transports query exposes tor_mode, onion_address, tor_monitoring (bootstrap, circuit_established, traffic, liveness, version, dormant) - fipstop transport detail view: Tor mode, onion address, SOCKS5/control errors, connection stats, Tor daemon status section - fipstop table view: tor(mode) label with truncated onion address hint Security hardening: - Per-destination circuit isolation via IsolateSOCKSAuth - Unix socket default for control port (/run/tor/control) - Reference torrc with HiddenServiceDir, VanguardsLiteEnabled, ConnectionPadding, DoS protections (PoW + intro rate limiting) Config: - TorConfig with socks5, control_port, and directory modes - DirectoryServiceConfig: hostname_file, bind_addr - control_addr, control_auth, cookie_path, connect_timeout, max_inbound_connections Testing: - 69 unit + integration tests with mock SOCKS5 and control servers - Docker tests: socks5-outbound (clearnet via Tor) and directory-mode (HiddenServiceDir onion service) Documentation: - Transport layer design doc: Tor architecture, directory mode - Configuration doc: Tor config tables and examples |