본문으로 건너뛰기
cccskills
무료GitHub에 공개

dynamic-workflow

Coordinate large migrations, reviews, or research tasks across multiple agents. Keep plans and intermediate results in scripts and files, challenge findings with independent checks, and integrate verified work in controlled batches.

한국어 요약은 준비 중입니다. 영어 요약을 표시하고 있습니다.

원문원문 설명 보기

Plan-in-code fan-outs, adversarial verification, waves.

설치 방법 보기

이럴 때 유용합니다

  • Splitting large file migrations across agents
  • Testing audit findings against counter-evidence
  • Cross-checking research from different perspectives
  • Integrating refactoring work in successive batches

포함된 파일(1)

  • SKILL.md11.0 KB

SKILL.md(원문)

설치하기 전에 에이전트에게 전달되는 지시 내용을 확인할 수 있습니다.

Dynamic Workflow Skill

Runs large fan-out work as a workflow: the plan, the loop and every intermediate result live in a script and on disk, so the parent's context holds only verified results. Covers one-shot fan-outs, adversarial convergence (attempts + refuters), and multi-wave campaigns that integrate dozens of worker branches. It does not make delegate_task durable across restarts; that is the kanban swarm's job.

When to Use

Reach for it when the unit of work is clear (a file, an endpoint, a record) and there are more units than one context can hold. Skip it for under ~10 units or for serial chains. For a refactor or fix campaign on hermes-agent itself, load hermes-agent (the dev workflow) alongside; this skill owns the fan-out shape.

Prerequisites

  • delegate_task available and delegation.max_concurrent_children sized for the wave (default 10; the runtime rejects a tasks=[] larger than that with a clear error rather than queueing). delegation.max_spawn_depth >= 2 only if children must fan out themselves.
<!-- no-tmp: ok — explains why a literal /tmp is wrong -->
  • A writable run directory resolved from the terminal environment's temp dir ($TMPDIR, else the platform temp dir). Never a literal /tmp: Termux has no such directory and native Windows breaks on it. Use <tmp>/wf_<name>_<uuid>/, unique per run, so an interrupted earlier run cannot leave stale outputs to be misread.
  • execute_code for the deterministic layer (only web_search, web_extract, read_file, write_file, search_files, terminal, patch exist inside it).

How to Run

Two layers, split by a real capability boundary:

Layer A - execute_code scriptLayer B - delegate_task batch
Use forDETERMINISTIC work: fetch N URLs, parse N files, run N commands, template N outputs, build manifests, merge outputsLLM-JUDGMENT work: classify, review, decide, write, refute, refactor one unit
Holdsloop, branching, intermediate variablesnothing; one call with tasks=[...], each task its own isolated agent
Toolsthe sandbox set above; it can NOT call delegate_taskthe parent's toolsets, inherited unchanged (no per-task narrowing); children lose delegate_task, clarify, memory, send_message, cronjob_manage
Concurrencyyours (ThreadPoolExecutor, batches)bounded by delegation.max_concurrent_children
Costtool calls onlyone full agent tree per task; multiplies linearly

Do the deterministic part in Layer A first, fan out only the irreducibly-LLM step in Layer B, synthesize on the parent.

Background-first: results re-enter as messages

A top-level delegate_task returns immediately with one handle per task; each child's result re-enters the conversation as a new message when it finishes. You cannot read out_*.csv on the line after the call. Finish whatever does not depend on the children, give a one-line status, and END YOUR TURN; act on each result message as it lands. An ordinary follow-up user message does not cancel children; /stop, /new and process exit do. Only a delegation issued by an orchestrator subagent (depth > 0) is synchronous.

Quick Reference

  • Unit must be answerable without sibling output, else it is serial.
  • Manifest: one unit per line in <run>/manifest.jsonl; print count + run dir.
  • Per child: ~8-12 mechanical edits, or ~2-3k lines of reading, or ~50-70 KB of corpus; size by the LARGEST unit. Structured output goes to files, never the summary field (it truncates under load); delimiter-separated lines over JSON.
  • Parent verifies file count and per-run freshness before merging.
  • A "stalled" child usually completed its write; check the filesystem first.
  • Scoped slice first (one directory, 20 records), report token cost, then scale.

Procedure

One-shot fan-out

  1. Decompose into independent units.
  2. Layer A pre-pass writes the manifest.
  3. Size chunks against the limits above; for more tasks than max_concurrent_children, issue bounded waves yourself.
  4. Layer B: one delegate_task(tasks=[...]); each task reads its slice, writes <run>/out_<i>.csv, prints a status word, stops.
  5. End the turn. As result messages arrive, read the files, verify, merge; the cross-cutting synthesis stays on the parent.

Adversarial convergence (finding-quality work)

  1. Independent attempts: the SAME question to N children (2-4) with DIFFERENT framings in each context, each writing one claim per line to <run>/attempt_<i>.md. Located, individually falsifiable claims only ("POST /api/users/:id/role in src/routes/users.ts:142 has no role check"); a refuter cannot break "the auth layer has problems".
  2. Merge and dedupe on the parent; note the agreement count per claim.
  3. Refuters: a second batch told to BREAK each claim with counter-evidence, emitting claim_idx|survives|counter_evidence. Give them the sources, not the attempts' reasoning.
  4. Surface only survivors; drop refuted claims with a one-line reason.
  5. Feed new claims from round 2 through one more refutation; stop when a round adds no survivors, cap at 3 rounds.

The same mechanic protects the parent from its own wrong premises: when you hand children a heuristic ("every patch target on a facade is a dead seam"), tell them to refute it with evidence before acting on it. Four squads doing so turned a 647-site blanket rewrite into 59 real fixes and saved 130+ green tests.

Campaign shape (dozens of workers, several waves, hours)

The one-shot recipe does not scale to a whole-codebase pass. What did:

  1. Measure first (LOC, hotspots, dead symbols, oracle corpora) and write ONE shared BRIEF.md plus a per-cluster task_<cluster>.md. Every child reads both. When the fleet drifts (children shaving docstrings instead of cutting code), patch the brief once and steer; re-dispatched children inherit the fix.
  2. Exclusive ownership: one cluster of files per worker, edits outside it are discarded at integration. Sub-fan-outs inside one file own line RANGES and define helpers inside their range so diffs merge cleanly.
  3. Commit per verified step, locally, no push, no PR, no rebase from children. Committed state is the only handoff; every worker that died mid-campaign lost exactly its uncommitted tail. A worker sharing a worktree index commits with git commit -- <paths> only; a bare commit swept a sibling's staged hunks.
  4. Fleet size 12-16 concurrent. Above ~40 processes on one OAuth grant the hourly token refresh stampedes into 401s and kills the wave. Queue the rest.
  5. Parent liveness: a child reporting completed with a few dozen log lines, or with 0 commits on its branch, has not finished; look for its sub-branches or re-dispatch it with the predecessor's worktree and diff.
  6. Integration per round: freeze a base SHA, rebase clean branches mechanically, give each conflicting branch its own rebase worker ("main's behaviour wins, re-applied inside the new structure"), merge onto one integration branch, run the FULL suite on the combined tree. Collisions that every branch passed alone appear only here. The next round branches from the integrated commit so its workers cannot conflict with each other.
  7. Before declaring a round integrated: git rev-list --count <integration>..<branch> is 0 for EVERY branch. Workers keep committing after you merge their tip; 168 commits across six slices were once left behind that way.
  8. Test runs: exactly one runner on the box, behind a lock file, at high -j. Many parallel low--j runners were slower AND killed each other's process groups. Red files are re-run on a bare origin/main worktree in the same venv; identical per-file failure sets are pre-existing, not yours.
  9. Forward-port at the end, not per round: freeze main's SHA, fan out the conflicted files by directory to workers editing ONE merge worktree with no commits, then the parent commits the merge once. CI never runs on a conflicted PR, so re-merge main before every push.
  10. Live QA is its own wave: one squad per surface, isolated HERMES_HOME, expectation written before the check, evidence on disk, report only, and a PR-vs-main difference is the only thing that counts as a regression. Green unit tests missed the one P0 (a logged-in code path no test exercised).
  11. Reviewer claims get the same treatment as child claims: A/B against the base before "restoring" anything. Several confidently stated review deltas already behaved that way on base.
  12. A parent restart needs a HANDOFF.md: why it died, which handles are dead, per-branch scorecard (LOC delta, import smoke, targeted tests), and the exact re-dispatch text. Snapshot every dirty worktree into a wip: commit first.

Pitfalls

  • Calling delegate_task inside an execute_code script: not in the sandbox.
  • Synthesizing on the same turn as the fan-out call: the files do not exist yet.
  • Promising background-durable-for-days from delegate_task: it is turn-scoped and dies with the process. Durable graph = kanban swarm; one-off = cronjob.
  • Trusting summary for content, or status=completed for completion.
  • Same framing in every "independent" attempt: they collapse to one answer.
  • git stash anywhere in a worktree campaign: refs/stash is shared across worktrees and another worker will pop your edits. Compare via a temp worktree.
  • Reporting a hit target when the honest number is lower. Say "16% so far, here is the path to 30%" and run the next round.

Verification

  • Manifest line count matches the expected unit count.
  • Every out_*.csv exists and was written this run.
  • Every dropped claim has recorded counter-evidence; every surfaced claim went through refutation.
  • Campaign: every branch at 0 unmerged commits, full suite on the integrated tree with reds triaged against bare main, live QA report per surface, token cost reported on the scoped slice before the full run.

리뷰

아직 리뷰가 없습니다. 사용해 본 소감을 남겨 주세요.

댓글

로그인 없이 쓸 수 있습니다. 사용 후기, 질문, 작동하지 않은 환경 등을 편하게 남겨 주세요.

아직 댓글이 없습니다. 첫 댓글을 남겨 보세요.

보내면 바로 공개됩니다. 이메일 주소나 전화번호 같은 개인 정보는 쓰지 마세요. URL은 2개까지입니다.

0 / 1,000자

이 양식은 reCAPTCHA로 보호되며 Google 개인정보처리방침 및 서비스 약관이 적용됩니다.

같은 저장소의 스킬

1password

무료

Set up the 1Password CLI and use stored passwords or API keys in commands and configuration templates. Choose an authentication method, retrieve secret references, and pass credentials to processes through environment variables.

한국어 요약은 준비 중입니다. 영어 요약을 표시하고 있습니다.

  • Installing and configuring the 1Password CLI
  • Running commands with stored API keys
  • Filling configuration templates with stored secrets
NousResearch/hermes-agent25.5만2026년 10월 18일 업데이트

Build an Excel workbook linking the income statement, balance sheet, and cash flow statement. Populate historical figures, create formula-based forecasts, compare scenarios, and check that balances and cash totals agree across all three statements.

한국어 요약은 준비 중입니다. 영어 요약을 표시하고 있습니다.

  • Populating a financial model template with historical data
  • Building linked forecasts across three financial statements
  • Comparing base, upside, and downside scenarios
NousResearch/hermes-agent25.5만2026년 10월 18일 업데이트

Adapt existing PyTorch training scripts to use multiple GPUs or machines with limited code changes. The skill guides configuration, launch commands, mixed precision, which uses lower-precision numbers, and DeepSpeed or FSDP settings for distributing training work and memory.

한국어 요약은 준비 중입니다. 영어 요약을 표시하고 있습니다.

  • Move a single-GPU training script to multiple GPUs
  • Configure mixed precision training
  • Set up DeepSpeed or FSDP to reduce memory use
NousResearch/hermes-agent25.5만2026년 10월 18일 업데이트

Configure Hermes to run AI models through Actual Computer on your own hardware. Set up either the hosted relay or a local connection, select models, verify responses, and troubleshoot request errors or empty output.

한국어 요약은 준비 중입니다. 영어 요약을 표시하고 있습니다.

  • Connecting Hermes with an Actual inference key
  • Running models through a local Actual daemon
  • Downloading and loading local models
NousResearch/hermes-agent25.5만2026년 10월 18일 업데이트

Test an app from the perspective of a frustrated, less technical user. Find confusing steps and barriers, separate actionable usability problems from personal complaints, and produce screenshots, suggested fixes, and prioritized tickets.

한국어 요약은 준비 중입니다. 영어 요약을 표시하고 있습니다.

  • Reviewing usability before a launch or demo
  • Checking the experience of a new user
  • Finding friction in signup and subscription flows
NousResearch/hermes-agent25.5만2026년 10월 18일 업데이트

Resolve Git merge conflicts between two agents by comparing both changes and their stated goals. Combine compatible work, explain choices where designs differ, and verify the merged result with project builds or tests.

한국어 요약은 준비 중입니다. 영어 요약을 표시하고 있습니다.

  • Resolving conflicts between branches edited by two agents
  • Integrating changes from parallel worktrees
  • Reviewing reasons for conflicting design choices
NousResearch/hermes-agent25.5만2026년 10월 18일 업데이트

NousResearch의 스킬 모두 보기

이 스킬의 문제 신고