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tomtdhzz/requirement-orchestrator

Turn a software request into independently verifiable work under one controlling agent — spec-driven decomposition, delegation, and evidence-gated delivery across Claude and Codex. A Markdown-only methodology skill.

requirement-orchestrator 是什么?

requirement-orchestrator is a Claude Code agent skill that turn a software request into independently verifiable work under one controlling agent — spec-driven decomposition, delegation, and evidence-gated delivery across Claude and Codex. A Markdown-only methodology skill.

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Requirement Orchestrator

Turn a software request into independently verifiable work while keeping one controlling agent responsible for scope, dependencies, evidence, and integration. This skill is an orchestrator, not a prompt generator.

Select a semantic mode

  • analyze: investigate the request and codebase, maintain the ledger, and produce an execution blueprint without modifying code. This is the default when implementation was not requested.
  • diagnose: reproduce and explain a reported failure, separating confirmed root cause, evidence, unknowns, and recommended repair paths. Diagnosis is the deliverable; do not modify code.
  • execute: dispatch bounded work, review returned results, and complete integration. Enter only when the user authorized implementation or execution.
  • challenge: test an existing requirement, decomposition, or design for omissions and risks without changing its confirmed product goal. See references/challenge.md.

These are skill-level semantic modes. They do not invoke or require a platform's native Plan Mode, EnterPlanMode, or mandatory Explore/Plan agents. Use native modes only when independently useful and compatible with the user's constraints.

For a single-root-cause task with no delegation, use the control loop directly. Read references/spec-driven.md to shape the specification (requirements, acceptance scenarios, contracts). Read references/context-grounding.md before decomposing in an existing codebase. Read references/decomposition.md when there is more than one candidate task, a service/domain boundary, a scheduling decision, or a build/deployment failure where repository state may be causal. Read references/verification.md for acceptance-evidence standards. Read references/ledger.md when work has multiple tasks, agents, sessions, or platforms. Read references/mutation.md when execution rewrites, deletes, or fans a change across more than one existing artifact, or writes to an external system. Worked runs: references/examples/feature-example.md and references/examples/bug-example.md.

In diagnose, report the observed or reproduced failure, confirmed root cause and evidence, unverified items, impact, and recommended repair paths. Stop there unless the user separately authorizes execute.

Control loop

  1. Establish the goal, scope, acceptance criteria, constraints, and verified code facts. Ground unknowns first (references/context-grounding.md), then express the result as a specification — requirements, acceptance scenarios, and contracts (references/spec-driven.md). Investigate discoverable facts; ask the user only for decisions that materially affect scope, acceptance, or direction. Before decomposing, consult the capability knowledge base (see references/knowledge-base.md) to pull the existing skills relevant to the goal and a same-domain comparison; prefer reusing or importing a known capability over researching from scratch, and record the chosen capabilities in the ledger.
  2. For a reported bug or failure, attempt a proportionate local reproduction before claiming a root cause. Compare the observed failure with the report. Until reproduced or supported by equivalent direct evidence, label root-cause statements as hypotheses and state what remains unverified.
  3. Choose one primary decomposition axis and create bounded tasks. Derive the shared contracts and freeze them before dependent or parallel work (references/spec-driven.md). Record dependencies and cross-task contracts explicitly. Mirror the resulting task groups into a phased TODO (see Progress surface).
  4. Keep exactly one controlling agent. The controller owns the ledger, dispatch decisions, review status, replanning, and final integration.
  5. Dispatch only tasks with a complete contract. Read references/agent-contract.md before the first dispatch. Before dispatching writes to any system beyond the local working tree, run the target-system preflight below.
  6. Accept a worker result into review, verify its evidence and boundaries against the acceptance-evidence standards (references/verification.md), then mark it completed or return it with specific findings. For a bulk or external mutation, verify by independent read-back and a structural delta, not the tool's reported success count.
  7. Recompute affected dependencies after discoveries, failures, or scope changes. Rework the smallest affected branch.
  8. Declare the request complete only after task-level checks, cross-task contracts, and every acceptance scenario pass together; the end-to-end gate is defined in references/verification.md. On completion, append any qualifying project-specific lessons to the experience log (references/experience.md). Improving the skill itself from the run is a separate opt-in action — offered only when a lesson is general and recurring, applied only if the user chooses it, never automatic (see references/experience.md).

Progress surface

Keep a visible phased TODO in sync with the ledger so the user sees phases and step-level progress, not only prose. The ledger stays the detailed source of truth (dependencies, scopes, contracts, evidence); the phased TODO is its progress view.

  • Initialize one phase per decomposition group, then a final acceptance phase (for a bug flow, 对照 / 修复 / 验证; for a feature flow, the feature groups followed by 全量验收). Each item is one bounded task or verification step, phrased as an outcome in 5–10 words.
  • Drive it with the platform's native task list, never a hand-formatted tree. On Claude/omp use the todo tool: init with list: [{phase, items}], then start/done per item. On Codex use its plan/update-plan mechanism.
  • Advance state from real progress: mark an item in progress when its task is dispatched, and done only after the controller records completed in the ledger. Phase counts (N/M) then track verified acceptance, not dispatch.
  • Keep the two consistent: one TODO item corresponds to exactly one ledger task or verification step. Recompute both together during replanning.
  • In analyze and diagnose, the phases are investigation or diagnosis steps and completing them modifies no code.

Deliverable artifacts

Separate publishable docs from internal orchestration state: reader-facing docs go under docs/ (docs/prd/ spec, docs/tech-design/ design); the ledger, plan, and lessons are internal working state under .ai-work/ — never under docs/, and gitignored for a publishable project. See references/deliverables.md.

For any non-trivial build, produce a technical design after the spec and before execute: architecture, detailed design, alternatives considered, and cross-cutting concerns (references/tech-design.md). Skip it for a single-root-cause fix where the spec plus a task list suffices.

Self-review every generated Markdown deliverable before handoff: re-read it and confirm it renders as the reader will see it — structure intact, fenced/Mermaid blocks actually parse (render them, don't eyeball), links resolve. A parse/render failure is a defect to fix now. See references/deliverables.md and the Document / diagram artifact row in references/verification.md.

When the deliverable is a standalone project, "done" includes being publishable: a README (what/why, prerequisites, install, usage examples, config, architecture, test, limitations, license, disclaimer), a LICENSE, and a .gitignore that excludes build output, secrets, and .ai-work/. Verify the README's commands actually run. See references/deliverables.md.

Target-system preflight

Before dispatching writes to any system other than the local working tree — a wiki, ticketing system, database, or remote API — verify up front:

  • write permission and the exact scope the planned operations need, including delete or move if the plan requires them;
  • rate limits and whether failures are silent; choose safe concurrency and a retry or backoff;
  • that the result can be read back to verify.

Discover a missing capability here, not mid-batch. If a required permission or scope is unavailable, treat it as a blocker: state exactly what is missing and the smallest grant that unblocks, and stop before any partial application.

Platform routing

Non-negotiable boundaries

These are MUST NOT-level invariants regardless of phrasing; keep them few and sharp. Elsewhere in this skill, grade rule force with RFC 2119 keywords — MUST / SHOULD / MAY, meaningful only in capitals — and use restraint: reserve MUST / MUST NOT for correctness or harm, leave preferences as SHOULD / MAY. Pair every prohibition with the positive "do instead": for agents, negative-only rules are unreliable (they cue the very behavior they forbid), so a small set of hard boundaries plus positive defaults is the robust form, not an ever-growing mandatory checklist.

  • Do not treat task-tree position as execution dependency.
  • Do not let workers expand their write scope silently.
  • Do not run writing agents in parallel unless dependencies are resolved, write scopes do not overlap, shared contracts are frozen, and validation is independent.
  • A worker may submit work for review; only the controller may mark it completed.
  • When changing existing artifacts, do not clear-and-rewrite anything the task did not author and cannot regenerate; insert or patch in place, mark it with a rerun-safe marker, and verify by independent read-back.
  • Do not assert a derived value — a classification, label, summary, risk rating, or recommendation — beyond its verified source; mark an unverified derivation as such rather than fabricating a value.
  • Do not activate Trellis merely because .trellis/ exists.
  • analyze and diagnose are read-only. A platform permission or native-plan approval does not authorize edits. Enter execute only after a separate user instruction authorizes implementation.
  • Do not hand off a deliverable without consuming it as its reader will — render the doc, and run the README/usage commands from the repo root exactly as written. (Do instead: render diagrams, run the commands, fix breaks before handoff.)
  • Do not call a standalone project done without a working README, LICENSE, and .gitignore, or with internal .ai-work/ artifacts committed. (Do instead: ship the publishable scaffold; keep orchestration state out of the repo.)

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