agentdb-advanced
Master advanced AgentDB features including QUIC synchronization, multi-database management, custom distance metrics, hybrid search, and distributed systems…
Run a GEPA learning cycle via `metaharness learn` (upstream ADR-235, metaharness@0.3.0) — optimizes a harness genome against a SWE-bench-style slice manifest. $0 dry-run by default; `--run` is the explicit spend opt-in. Requires a metaharness repo checkout (`--repo` or
$ npx -y skills add ruvnet/claude-flow --skill harness-learn --agent claude-codeHow it fires
How this skill gets triggered: by you, by Claude, or both.
/harness-learnContext preview
The summary Claude sees to decide when to auto-load this skill.
Run a GEPA learning cycle via `metaharness learn` (upstream ADR-235, metaharness@0.3.0) — optimizes a harness genome against a SWE-bench-style slice manifest. $0 dry-run by default; `--run` is the explicit spend opt-in. Requires a metaharness repo checkout (`--repo` or
name: harness-learn description: Run a GEPA learning cycle via `metaharness learn` (upstream ADR-235, metaharness@0.3.0) — optimizes a harness genome against a SWE-bench-style slice manifest. $0 dry-run by default; `--run` is the explicit spend opt-in. Requires a metaharness repo checkout (`--repo` or $METAHARNESS_REPO) — without one it reports `checkout-required` with clone instructions. Degrades gracefully when metaharness is absent. argument-hint: "--host <h> --model <m> --slice <manifest> [--repo <checkout>] [--run] [--alert-on-fail]" allowed-tools: Bash
Surfaces `metaharness learn` — the upstream GEPA learning harness that evolves harness policy genomes against a scored task corpus instead of hand-editing prompts. Candidates are scored on held-out slices and only measured winners promote (the shipped cand-6 genome is the first such promotion: holdout gold 2/12 → 3/12, zero regressions).
measured improvement loop rather than manual prompt iteration.
resolves the slice manifest and reports cost without any model calls.
to inspect what the promoted policy actually says.
The learning harness (GEPA + SWE-bench + Docker) is too heavy for the npm package, so `learn` needs a local clone:
git clone https://github.com/ruvnet/metaharness.git node scripts/learn.mjs --repo ./metaharness --host claude-code --model haiku --slice slices/lite.json
Without a checkout the script emits `{status: "checkout-required"}` and exits 0 — a precondition report, not an error (distinct from `degraded: true`, which means the npm package itself is absent). The managed-service path (gateway-side learn jobs, no checkout) is upstream's ADR-235 follow-up and not available yet.
Implementation: [`scripts/learn.mjs`](../../scripts/learn.mjs).
1. Validate `--repo` exists when given; export it as `$METAHARNESS_REPO`. 2. Invoke the pinned `metaharness` binary (`metaharness@~0.3.0`, local install or one-time versioned cache — never `@latest`): `metaharness learn --host <h> --model <m> --slice <s> [--run]` via `_harness.mjs` (graceful degradation, hard timeout). 3. Default timeouts: 120s dry-run, 600s with `--run` — real runs on larger slices need an explicit `--timeout-ms` matched to slice size × model cost. 4. Detect the checkout-required message → structured payload, exit 0. 5. Parse the trailing JSON report when upstream emits one; otherwise return the raw report text under `rawReport`.
`--run` is the ONLY path that spends. Everything else — dry-run, checkout probe, degraded path — is $0. The MCP tool (`metaharness_learn`) has a 120s subprocess budget; run real learning cycles from a terminal via `ruflo metaharness learn ... --run --timeout-ms <big>`.
An agent meta-harness for Claude Code and Codex. 📖 RuFlo Explained — Build an AI Team That Plans, Remembers, Tests, and Improves A 14-chapter guide: from the basic idea to a first useful task, then memory, agent teams, plugins, cost and verification.
Repo: ruvnet/claude-flow
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