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* [fastapi-guard] Phase 1a: gated config flags for the HTTP security layer Adds the ROBOCO_GUARD_* settings (all default-off / secure-default) for the upcoming fastapi-guard 7.2.0 hardening — guard_enabled (master switch), guard_fail_secure (fail-closed default; NAS overrides to false), guard_telemetry_enabled + guard_agent_api_key + guard_project_id (guard-agent telemetry, opt-in), guard_emergency + guard_emergency_whitelist (lockdown kill switch). Inert until consumed: nothing reads them yet, so the request path is unchanged. Foundation for v0.16.0. * [fastapi-guard] Phase 1b: security foundation module + gated wiring Add fastapi-guard 7.2.0 + guard-core 3.3.0 (bare, unpinned) and roboco/security.py: - build_security_config() from settings — behind-nginx real-IP (trusted_proxies + trust_x_forwarded_proto), HSTS/CSP headers, threat-ban + 404-sweep rules, redis-backed state, exclude_paths (/ws + health + docs), env-driven enforce_https, fail_secure (secure default), emergency lockdown, guard-agent telemetry (opt-in), passive-mode calibration switch. - guard_deco singleton (SecurityDecorator) for per-route decorators (Phase 2+). - Three custom content validators guard's WAF can't cover: prompt-injection / role-override, secret-exfil / credential-in-body, internal-SSRF. - apply_guard(app) + guarded_lifespan() wired into create_app AFTER settings. guard_passive_mode config flag added. Entirely gated by ROBOCO_GUARD_ENABLED (default off): create_app mounts nothing and returns the unchanged app when off (verified). make quality GREEN (cov 95.32%, pip-audit clean, import-linter 2/0). 12 new unit tests. * [fastapi-guard] Phase 2: critical-path decorators Apply guard decorators to the highest-value endpoints (metadata-only; enforced only when the middleware is mounted, so no-op while ROBOCO_GUARD_ENABLED is off): - provider keys (ollama/grok/self-hosted writes): strict rate_limit + max_request_size + block_clouds (no datacenter IP should touch secret writes). - settings write + release approve/reject (CEO-gated): strict rate_limit. - intake chat (prompter start/messages/events): rate_limit + max_request_size + custom_validation(prompt_injection_validator) — the prompt-facing free-text ingress gets the injection/role-override/secret-exfil content scan. make quality GREEN (cov 95.32%, contracts 2/0). App builds with guard off, decorators inert (verified). * [fastapi-guard] Phase 3: wide decorator coverage across ingress + sensitive routes Targeted-wide application (metadata-only; no-op until ROBOCO_GUARD_ENABLED). The global SecurityMiddleware already rate-limits + WAF-scans every request, so this adds the custom content validators on free-text ingress + tight limits on sensitive ops (not blanket per-route rate_limit on reads): - agent gateway do verbs (note/say/commit/dm/pitch/progress/draft_playbook/...): rate_limit + max_request_size + custom_validation(secret_exfil or prompt_injection). - a2a message/send + chat writes: rate_limit + size + prompt_injection. - optimal/RAG (kb/search, rag/query, mentor/ask, errors/decisions/standards/ learnings): prompt_injection on searches, secret_exfil on record writes; docs index → internal_ssrf. - tasks: create/update → prompt_injection; QA/doc/PM transitions → secret_exfil; CEO-gated verbs → tight rate_limit. - secretary chat → prompt_injection; research → internal_ssrf; orchestrator spawn/mutations → rate_limit; git ops + flow verbs → tight rate_limit. Pure GET/reads left to the global middleware. Applied via a Sonnet workflow, then verified: app builds with guard off (decorators inert), make quality GREEN (cov 95.37%, contracts 2/0). Decoy/honeypot-path surface deferred (needs verified guard ban-API integration — not rushed). * [fastapi-guard] Phase 5: arm the NAS composes in passive/log-only mode Arm ROBOCO_GUARD_ENABLED=true + ROBOCO_GUARD_PASSIVE_MODE=true + ROBOCO_GUARD_FAIL_SECURE=false on the two NAS composes (docker-compose.yaml + .yml). Passive = guard mounts and logs what it WOULD block but blocks nothing, so the next NAS deploy calibrates against real traffic; flip PASSIVE_MODE off after the false-positive review to enforce. fail_secure=false keeps a guard-internal error from 500ing the personal deploy. The registry (user-facing) compose is deliberately left unarmed so its published default stays conservative. Phase 4 (passive calibration) is the operational step this enables. * feat(security): Phase 3b — full-arsenal per-route guard enrichment Stack the applicable guard decorators per surface instead of the minimal rate_limit/max_request_size/custom_validation triad: content_type_filter on every JSON-body write, honeypot_detection form-traps on human-facing POSTs, block_clouds on key-writes + CEO release ops, behavior_analysis runaway-rate rules on the agent flow/do verbs, suspicious_detection + usage_monitor on the sensitive surfaces. Nine distinct decorators now applied thoughtfully per endpoint. All metadata-only — no-op while ROBOCO_GUARD_ENABLED is off. * fix(a2a): permit PR reviewer to deliver gate verdicts to the owning PM can_a2a_direct had no pr_reviewer rule, so a reviewer (team=board, or a cell team) fell through to the cell-member path and was cross-cell-denied when the in-path gate delivered a pr_fail change-request to main-pm (or a cross-cell cell-pm): "Cannot A2A main-pm ... Ask None to coordinate with None". The delivery is best-effort, so pr_fail still transitioned but the verdict never reached the owning PM — the blind-re-submit signal-gap the pr_fail fix closes. Add an explicit pr_reviewer handler: it may A2A only cell_pm / main_pm (its sole comms surface — everything else it posts on the PR itself), with a matching route hint. The cell reviewers kept same-team access by coincidence; this scopes every reviewer to PM-only, the correct model, with no other A2A caller affected. Refresh uv.lock to the current resolution. * feat(models): adopt Claude Sonnet 5 as the sonnet tier Point the 'sonnet' alias at claude-sonnet-5 (MODEL_MAP) and give pr_reviewer its own opus tier in ROLE_MODEL_MAP — it was falling through to the sonnet default, and the role gates untrusted external/fork PRs plus root→master, which warrants opus. Price claude-sonnet-5 at the promotional 33% off Sonnet 4.6 ($2.01 / $10.05, cache 0.201 / 0.5025) through 2026-08-31 via a dedicated pricing fragment that beats the bare 'sonnet' alias; revert to full rate when the promo ends. Bare 'sonnet' stays full-rate as a conservative fallback (prod prices the resolved claude-sonnet-5 id from the transcript). Update the model docs and the billing / usage / manifest / spawn tests. * feat(security): calibrate the guard WAF for RoboCo traffic + document the layer The first end-to-end run of the fastapi-guard layer showed active enforcement would block ~50% of legitimate agent traffic — RoboCo request bodies are code, SQL, diffs, file paths, HTML, and URLs, which the stock signature WAF reads as attacks. build_security_config now excludes RoboCo's free-text top-level body fields (derived from the real request models, including the free-form container fields whose nested prose is stringified and scanned) from WAF scanning, dropping the active-mode false-positive rate to zero while keeping the WAF on every non-excluded (id/enum/slug/branch) field and leaving the prompt-injection / secret-exfil / internal-SSRF validators — which run independently of the exclusion — fully in force. enable_penetration_detection is made explicit. Only excluded_detection_body_fields is reliable on guard 7.2.1: the per-route categories knob is bypassed for JSON bodies, and the body scanner excludes top-level keys only (scanning str(value) of every non-excluded field), so free-form container fields must be excluded wholesale. Adds tests/unit/test_security_middleware.py — the first end-to-end exercise of the middleware (mounts it, drives guard's lifespan, fires real requests): proves passive mode is log-only, active mode does not false-positive on realistic agent payloads, threats are still blocked inside excluded fields, and the WAF still fires on non-excluded fields. Docs: CHANGELOG (Unreleased); a user-facing Optional-subsystems page + nav + env reference for the HTTP security layer; the agent-facing RAG corpus (what it is + why a request could be blocked); and the roboco mapping (api-core-websocket / deployment-tooling / _complete_map). * feat(security): Surface N — scanner honeytrap (guard /api auto-ban + nginx edge-drop) Turns scanner probes against the scanner, in two layers matched to where traffic lands. Behind nginx only /api, /ws, /health, /ready reach the orchestrator, so guard can only see (and ban) scanner probes on those paths; the classic root probes (/.env, /wp-login.php, /phpmyadmin, /.git/config) hit the panel. So: - build_security_config's threat_ban_config gains recon / sensitive_file / cms_probing categories. A scanner probing those fingerprints on an /api path is detected on the URL-path scan; repeated probes from one IP trip an adaptive per-IP auto-ban (redis-backed, 24h). Only bans in active mode (passive logs the recon hit) and needs redis (the 24h ban exceeds the in-memory cap). The spec's decoy-route file is redundant — the WAF url-path scan bans regardless of a registered route — so it is intentionally omitted. - docker/nginx.conf drops the classic root scanner paths at the edge with 444 (connection closed, no response) before they reach the panel, anchored to known scanner fingerprints so /.well-known and every real panel/API route are untouched. Always on, independent of ROBOCO_GUARD_ENABLED. Tests: 2 unit (the exclusion set + the scanner-ban categories are present) and 2 integration (a decoy path is blocked in active mode, passes in passive). The nginx regex was validated against 15 scanner + 19 legit paths (0 false positives). Docs: CHANGELOG, the HTTP-security page, the roboco mapping, and the agent-facing RAG corpus. * Token optimization — per-role observability, compute policy, spawn preflight (#291) * test(models): lock the sonnet→claude-sonnet-5 MODEL_MAP invariant * feat(usage): surface cache tokens + cache_hit_rate in usage breakdowns * feat(usage): add per-role usage breakdown endpoint * feat(usage): add spawn-waste signal (per-role unproductive rate + respawn strikes) * feat(panel): surface per-role cost/cache + spawn-waste on the metrics page * feat(routing): Phase 2 per-role compute policy — qa→haiku, main_pm→sonnet, per-role effort env mechanism (default-inert) * feat(orchestrator): Phase 3 flag-gated spawn preflight — refuse non-gateway delivery roles (respawn-forever guard) * chore(compose): arm ROBOCO_SPAWN_PREFLIGHT_ENABLED on the NAS composes * docs: per-role usage observability, per-role compute policy, and spawn preflight --------- Co-authored-by: Renn F <rennf93@users.noreply.github.com> * fix(panel): pin outputFileTracingRoot so the standalone build isn't broken by stray lockfiles * feat(routing): populate ROLE_EFFORT_MAP + wire the verified --effort flag (cell_pm/board/auditor to medium) * feat(gateway): omit empty context_briefing sections (Phase 4 payload compaction) * refactor(orchestrator): extract spawn chokepoint guards to restore xenon rank B on spawn_agent --------- Co-authored-by: Renn F <rennf93@users.noreply.github.com>
52 lines
5.2 KiB
Markdown
52 lines
5.2 KiB
Markdown
# Metrics
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The Metrics page (`/metrics`) is where you watch the company's throughput and its spend. Three tabs: **Performance**, **Token Usage**, and **Delivery** (the active tab is in the URL as `?tab=`).
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## Performance
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The Performance tab is a snapshot of velocity and pipeline health, computed from the live task list and the orchestrator's agent status.
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- **Velocity** — completed today, completed this rolling 7 days, total completed all-time, and a completion rate across all tasks.
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- **Task Status** — counts of tasks that are pending, in progress, blocked, awaiting QA, and completed.
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- **Agent Status** — how many agents are running, idle, waiting (need input), or in error.
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- **Team Health** — one card per cell with a health score and its active / blocked / done breakdown. The score is a simple read on blockers: more blocked tasks pulls a cell's health down. A healthy cell sits near 100%; blockers visibly degrade it, so a cell sliding toward red is the signal to look at its [blockers](./command-center.md).
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## Token Usage
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The Token Usage tab is the cost dashboard, scoped to the last 24 hours unless a panel says otherwise.
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- **Summary cards** — tokens in, tokens out, total tokens, total cost over 24h, the trend versus the prior period, and dollars saved by prompt caching.
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- **Time series + model donut** — usage over time, and the split across models.
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- **Per-agent and per-team bars** — who and which cell is spending.
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- **Monthly projection** — projected monthly cost from a rolling-average daily run rate.
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- **Cache efficiency** — cache hit rate and the cost it saved.
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- **Cost & cache by role** — cost and cache-hit-rate broken out per role (developer, main PM, QA, …), so you can see which roles are cheap-and-cached versus expensive.
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- **Spawn waste** — the share of spawns that produced no output (loaded a prompt, delivered nothing), per role, plus any wedged tasks with open respawn strikes.
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- **Sessions table** — the recent agent spawn sessions behind the numbers.
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!!! tip "These panels update live"
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The token panels subscribe to a live usage stream over `/ws/system` and update in place as agents spend, falling back to periodic HTTP polling when the socket is down. You don't need to refresh to watch cost accrue.
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### Where the dollar figures come from
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Cost is derived from per-session token counts using provider-aware pricing — and local / Ollama usage is intentionally priced at **$0**, so a self-hosted or Ollama-routed workforce shows tokens but no dollars. The full cost model, the budget cap, and where each number originates are documented in [Cost & usage](../operations/cost-and-usage.md); this page only shows the numbers.
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!!! note "Spend against budget lives on the scorecard"
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Metrics shows raw usage and projection. Your **monthly budget cap** and whether you're over it appear on the Company Scorecard in [Business](./business.md), not here.
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## Delivery
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The Delivery tab is the flow dashboard — not *what* the company shipped or what it cost, but *how the work moved*. Every panel is reconstructed from the task lifecycle history RoboCo already records (each status transition is logged), so it needs no extra bookkeeping. Cycle-time, bottlenecks, and rework look back 30 days; the scorecards look back 7.
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- **Cycle Time by Stage** — the average time a task sits in each lifecycle stage (claimed, in progress, awaiting QA, awaiting documentation, awaiting PR review, awaiting PM review, …). This is where you see *where the time actually goes* — a tall "awaiting QA" bar means work waits on review, not on coding.
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- **Bottlenecks** — the same data ranked by total time absorbed, with the single **worst stage** called out and a live count of how many tasks are **parked** in each stage right now, plus the current active-blocker count. It answers "what is holding the company up today?"
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- **Rework** — how often work bounces back to `needs_revision` (the headline rate = reworked ÷ completed), broken down by cell and by agent, plus the token cost of that rework. Crucially, a bounce is attributed to the **QA or PR-reviewer who sent it back**, not the developer who owns the task — so a high `QA fails` number against a reviewer is a signal about *that reviewer's* gate, and a high rate against a developer is a signal about *their* first-pass quality.
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- **Cell scorecards** — one card per cell (Backend / Frontend / UX-UI) with its completed count, average cycle time, rework rate, and cost over the last 7 days — the quick read on which cell is moving cleanly.
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!!! tip "Reading rework attribution"
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A bounce charges the reviewer who rejected it via the `task.qa_fail` / `task.pr_fail` events, while the *rate* (`reworked / completed`) is computed against the task's owner. So one agent can show a low rate (good first-pass work) while another shows many `QA fails` (an active, rejecting gate) — both are healthy. Watch for a developer with a high rate **and** a reviewer with near-zero fails: that's a gate letting work through that later needs revision.
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## Next
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→ [Cost & usage](../operations/cost-and-usage.md) for the pricing model and budget cap · [Health & metrics](../operations/health-and-metrics.md) for operational monitoring · [Command Center](./command-center.md) for the at-a-glance view.
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