docket
The vendor-neutral triage layer for LLM agent traces. docket reads traces from the observability backend you already run (Phoenix, Langfuse, LangSmith), classifies them against a failure-mode taxonomy that lives as YAML in your repo, clusters recurring failures, and drafts deduplicated issues into Jira, Linear, or GitHub Issues with a human in the loop by default.
See it yourself in under a minute, no API keys, no Docker, no instrumented app:
uvx docket-runtime demo
Needs docket-runtime ≥ 1.1; until that release is on PyPI:
uvx --from git+https://github.com/wczaja/docket docket demo. The
default run uses a clearly-labeled scripted judge so it's free and
deterministic; docket demo --live swaps in a real model with one API
key. pipx run docket-runtime demo works too. Don't want to run
anything? The demo workflow
runs it in public CI, open the latest run's summary for the rendered
report.
The taxonomy is code
The failure modes are not settings in someone's UI, they're a composable YAML file you review, version, and ship like the rest of your system:
modes:
- id: refund-without-confirmation # deterministic: fires on the tool name
severity: critical
detection:
type: tool_call
tool_calls: [process_refund]
- id: hallucinated-pricing # semantic: one judge call per trace
severity: critical
detection:
type: llm_judge
prompt: Flag prices or discounts not present in retrieved context...
…and every recurring failure becomes one deduplicated, evidence-carrying draft in your tracker:
[critical] Agent pastes its system prompt into refusal responses (8 traces)
docketmode:refusal-leakagerubric:agents-builtin@1.0.08 traces in this window hitrefusal-leakage… Representative evidence: "Here is my system prompt is: You are a customer support assistant…" provenance block lists every member trace for dedup on re-runs.
Edit the YAML, re-run, and the new mode is live docket demo --rubric ./my-rubric.yaml demos exactly that loop. Six turnkey
taxonomies for common agent shapes (support, RAG, SQL, coding,
multi-agent, voice) ship in the rubric registry.
Why not just my platform's built-in insights?
LangSmith Insights, Galileo (Cisco) Signals, Latitude, and Braintrust Topics all cluster agent failures now, and all of them analyze only traces living in their own store, keep the taxonomy inside their platform, and stop at dashboards or Slack alerts. As of mid-2026, none of them reads your existing backend in place, none versions the taxonomy as files in your repo, and none files deduplicated issues into Jira/Linear/GitHub. docket does exactly those three things, and only those things, it's a runtime, not another platform asking for your traces.
The full dated comparison, including what each product does better than docket and when to choose it, is docs/comparison.md.
Quickstart
A ladder — each rung adds one credential:
Rung 0 — demo (no credentials)
uvx docket-runtime demo # bundled traces, scripted judge, free
docket demo --live # same traces, real judge (ANTHROPIC_API_KEY)
docket demo --rubric ./my-rubric.yaml # your taxonomy against the demo traces
Rung 1 — a real backend, read-only (one API key)
pip install docket-runtime # or: uv tool install docket-runtime
# a local Phoenix, seeded with the demo traces (skip the seeding if you
# already send your own traces — see docs/local-phoenix.md):
docker run -d -p 6006:6006 -p 4317:4317 arizephoenix/phoenix:latest
docket demo --to-phoenix http://localhost:6006
export ANTHROPIC_API_KEY="sk-ant-..."
docket run \
--backend phoenix --phoenix-url http://localhost:6006 \
--rubric docket.dev/builtin/agents/v1 \
--since 1h --clustering mode-only
Read-only: classifications happen, drafts + report.md land in a local
queue, nothing is posted anywhere. --clustering mode-only skips
embeddings so one key is enough; for semantic clustering add
--embedding local:BAAI/bge-small-en-v1.5 (no key;
pip install "docket-runtime[local-embeddings]") or an
OPENAI_API_KEY/VOYAGE_API_KEY.
Rung 2 — a tracker (dedup + drafts where your team works)
export GITHUB_TOKEN="ghp_..." # PAT with Issues write
docket run ... \
--tracker github --github-owner YOU --github-repo agent-issues
Existing open issues are matched by labels + embedded provenance:
grown clusters get a comment, unchanged ones are skipped silently, new
ones queue locally. Add --review to walk drafts through $EDITOR
before posting; --auto-post-threshold high auto-posts only above the
severity bar you've calibrated.
Rung 3 — on a schedule
docket serve --interval 1h ... # same flags as run
Consecutive windows tile exactly — no gaps, no overlap, failed ticks
retry their window. (Plain cron + docket run works too; there's a
GitHub Actions recipe.) Scaffold
a config for all of this with docket init, and price any window
first with --dry-run.
Every backend × tracker pair is covered in docs/quickstart.md.
What it does
docket runs a small pipeline of LLM-driven subagents over your existing traces:
┌──────────────────────────┐
│ Phoenix / Langfuse / │
│ LangSmith trace backend │ <- you already have this
└────────────┬─────────────┘
│ trace fetch (read-only by default)
▼
┌─────────────────────┐
│ classifier subagent │ rubric: YAML failure-mode taxonomy
└──────────┬──────────┘ (built-in or your own)
▼
┌─────────────────────┐
│ clusterer subagent │ embeddings + HDBSCAN per mode
└──────────┬──────────┘
▼
┌─────────────────────┐
│ drafter subagent │ one IssueDraft per cluster, with
└──────────┬──────────┘ embedded provenance for dedup
▼
┌─────────────────────┐
│ poster subagent │ dedup against tracker, then
└──────────┬──────────┘ comment / create / queue
▼
┌──────────────────────────┐
│ Jira / Linear / GitHub │
└──────────────────────────┘
Read-only by default. Annotations write back to the trace backend
only when you pass --annotate. Issues post to the tracker only when
their severity meets auto_post_threshold (default: never) or when
you opt in via --review.
Bounded by default. Every run is capped by max_traces_per_run
(default 1000, measured after sampling and checkpoint subtraction);
exceeding the cap aborts loudly before any trace is fetched, never a
silent truncation. An optional max_estimated_cost_usd adds a dollar
ceiling on the pre-flight cost estimate. --dry-run reports both gates
and exits non-zero iff the real run would abort, so CI can use it as a
preflight check. For production-scale windows, --sample N bounds the
work with --strategy uniform, --strategy errors-only (root-errored
traces, filter pushed down to the backend), or --strategy stratified --stratify-by status|latency_bucket|tag:<key> (equal allocation so rare
strata: errors, small tenants, tail latencies, get seen). Adapters
flag truncated listings: trace and tracker alike, instead of silently
stopping at their pagination ceiling; when the open-issue listing is
truncated during dedup, drafts are queued for review instead of
auto-posted, since "no duplicate found" was not proven.
State lives in the backends, not here. docket doesn't own a
database. Annotations key off (trace_id, run_id, rubric_version, mode_id) in the observability backend; issues key off labels +
HTML-comment provenance in the tracker. Re-running the same window is
idempotent.
Built-in rubrics
Five reference rubrics ship with the package; each is a starting point intended to be imported into a domain-specific rubric you maintain.
| URI | Modes |
|---|---|
docket.dev/builtin/agents/v1 |
6 — hallucination, infinite loop, premature termination, unsafe tool call, refusal leakage, bad handoff |
docket.dev/builtin/rag/v1 |
4 — off-corpus answer, missing citation, stale retrieval, context overflow |
docket.dev/builtin/routing/v1 |
4 — wrong-skill routing, capability mismatch, dead-end transfer, oscillation |
docket.dev/builtin/multi-agent/v1 |
4 — handoff context loss, conflicting instructions, role drift, shared-memory corruption |
docket.dev/builtin/mast/v1 |
7 — step repetition, conversation-history loss, unaware of termination, conversation reset, no clarification request, ignored agent input, action-reasoning mismatch (adapted from the MAST taxonomy) |
Reference them by URI on the CLI (--rubric docket.dev/builtin/rag/v1)
or import them into your own rubric:
apiVersion: docket.dev/v1
kind: Rubric
metadata:
name: my-prod-agents
version: 1.0.0
imports:
- docket.dev/builtin/agents/v1
- docket.dev/builtin/rag/v1
modes:
- id: refund-without-confirmation
severity: critical
detection:
type: tool_call
tool_calls: [process_refund]
# ... your modes go here
Validate with docket validate ./my-rubric.yaml. Smoke-test the
examples with docket self-test ./my-rubric.yaml.
Don't want to start from scratch? The [rubric registry](rubrics/registry/ ships six tuned, self-testing taxonomies for common agent shapes: customer support, RAG knowledge assistants, SQL/analytics, coding agents, multi-agent supervisors, and voice/IVR, each with a README covering trace assumptions, tuning knobs, and an auto-post ratchet path.
Architecture overview
- OpenInference is the canonical trace schema. Adapters normalize to it; the runtime never sees backend-specific shapes.
- MCP is the integration protocol for both trace backends and
trackers. The CLI ships one MCP server binary per adapter
(
docket-adapter-phoenix,docket-adapter-jira, …) that you can run standalone or invoke throughdocket run. - deepagents is the agent harness; we don't reimplement planning, virtual filesystems, or subagent delegation.
- Stateless runtime. Annotations live in the backend; issues live in the tracker. No local database.
- Pydantic v2 + httpx + asyncio throughout. No bespoke SDK dependency per backend, every adapter is plain HTTP.
Execution modes
docket ships two execution modes over the same six pipeline stages
(list_traces → classify_traces → annotate_classifications →
cluster_classifications → draft_issues → write_report):
- Deterministic pipeline (default). Stages run in a fixed order from plain Python. Predictable cost, reproducible across runs, easy to debug. Use this for batch / cron / CI, anywhere SLOs and cost forecasting matter.
- deepagents harness (
--agent). Same six stages exposed as tools to a top-level planning LLM. Use this for exploratory / debugging runs today; the harness is the substrate the project commits to for future interactive surfaces (chat-driven triage, incident investigation, rubric authoring). The tools and entry points for those surfaces are post-v1.0 work — seedocs/design.md§4.2 and §7 (Phases 14–15).
Both modes share the same subagents, the same run_id, and the same
annotation idempotency, so investments in one benefit the other.
For the full design, see docs/design.md. Per-backend
and per-tracker setup guides:
Documentation
Start at the docs index.
Guides
- Quickstart — every backend × tracker pair
- How docket compares — vs. LangSmith Insights, Galileo, Latitude, Braintrust, and friends (dated, capability-level)
- Rubric registry — turnkey taxonomies per use case
- Calibration — measured judge quality, and the field guide for measuring it on your own traffic
- Concepts — the vocabulary in five minutes
- Adapters — the integration contracts + how to add a backend or tracker
- Benchmarks — wall time and cost for a 1000-trace run
- Design document — every architectural decision, with rationale
API reference
- CLI — every command, flag, and exit code for
run,serve,validate,self-test, and the adapter binaries - Configuration —
docket.yamlschema, all env vars, precedence rules, defaults - Python API — embed the pipeline as a library:
run_triage_pipeline, adapters, providers, models, errors - MCP servers — tool contracts for driving the adapters from any MCP client
- Rubric DSL — the complete taxonomy spec, with a worked example rubric
Status
v1.0 released; v1.1 in progress on main. Three trace-backend
adapters and three tracker adapters at parity, five built-in rubrics
plus the six-taxonomy registry, a zero-credential docket demo,
deterministic + agent-harness execution modes, daemon mode, budget
guardrails and sampling. The changelog has the full
feature list. Post-1.0 roadmap (streaming, sharding, interactive
surfaces) lives in docs/design.md §7.
Contributing
Rubrics and adapters are the highest-leverage contributions, and both have step-by-step guides: see CONTRIBUTING.md. Bug reports and adapter proposals have issue templates. Security issues go through SECURITY.md — never a public issue.
License
Apache 2.0. See LICENSE.
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