name: {{AGENT_NAME_LOWER}}-runtime-checkup
title: {{AGENT_NAME}} Runtime Checkup
description: {{AGENT_NAME}} 코어 시스템 (AIAgent, signal, kanban, dispatcher, worker) 의 기본기를 점검하는 6-Phase 절차. docs와 reality mismatch 발견 시 methodology.
type: skill
space: growth
tags: [skill, checkup, runtime, verification]
created: 2026-06-01
updated: 2026-06-11
links:
- "[[@action/gateway/{{AGENT_NAME_LOWER}}-architecture-dataflow]]"
- "[[@memory/kanban/KANBAN_INDEX]]"
- "[[@identity/brain/{{AGENT_NAME}}-brain/P0-brainstem/禁/禁filesystem_truth.neuron]]"
- "[[@identity/brain/rules]]"
{{AGENT_NAME}} Runtime Checkup
{{AGENT_NAME}} 코어 시스템의 "기본기"를 점검할 때 사용하는 표준 절차. 핵심 철학: "docs에서 Done이라고 한 것 ≠ 실제 구현". 항상 filesystem ground truth 로 verify.
When to Use
- "기본기 점검해줘", "코어 시스템 확인", "이거 진짜 작동해?" 류 요청
- P0/P1 review 문서가 "✅ Done"이라 한 항목 의심될 때
- Cron job / dispatcher / worker 가 silent failure 중인지 확인할 때
- Major refactor 후 회귀 점검
- 새 모델 / 새 환경에서 {{AGENT_NAME}} 설치 직후 sanity check
6-Phase Checkup (in order)
Workdir 주의
터미널 workdir 는 turn 사이에서 휘발됨. 모든 명령은 cd ~/.{{AGENT_NAME_LOWER}}/source/{{AGENT_NAME_LOWER}}-agent && prefix 필수. 절대 workdir 에 의존하지 말 것.
Phase 1 — Core Imports (1분)
AIAgent, signal_processor, context_compressor, brain_signals, event_bus 모두 import. import 실패 = P0 즉시 보고.
cd ~/.{{AGENT_NAME_LOWER}}/source/{{AGENT_NAME_LOWER}}-agent && source .venv/bin/activate
python3 -c "
from run_agent import AIAgent
from agent.signal_processor import get_signal_processor
from agent.context_compressor import ContextCompressor
from agent.brain_signals import get_signal_emitter
print('OK')
"
Phase 2 — Persistent State Health (1분)
SQLite DB 무결성. FK ON. Status 분포.
python3 -c "
import sqlite3
conn = sqlite3.connect('P2-hippocampus/kanban/state/{{AGENT_NAME_LOWER}}_tasks.db')
conn.execute('PRAGMA foreign_keys = ON')
for r in conn.execute('SELECT status, COUNT(*) FROM tasks GROUP BY status'):
print(r)
print('integrity:', conn.execute('PRAGMA integrity_check').fetchone())
"
기대값: FK violations 0, status 7종 (todo/ready/in_progress/blocked/completed/cancelled).
Phase 3 — Brain Signal Accumulation (1분)
signal_processor 인스턴스 state 확인.
python3 -c "
from agent.signal_processor import get_signal_processor
sp = get_signal_processor()
print('violations:', len(sp._violation_history))
print('dangerous_ops:', len(sp._dangerous_ops_history))
print('workflows:', len(sp._workflow_history))
"
기대값: violation ≥ 1, dangerous_ops ≥ 0 (사용 패턴에 따라 다름). 0/0/0이면 signal event bus wiring 끊긴 것.
Phase 4 — Dispatcher End-to-End (1분)
Cron이 1분마다 도는 dispatcher 직접 실행. ready task 없으면 0/0/0/0 정상.
python3 ~/.{{AGENT_NAME_LOWER}}/scripts/dispatch_once_default.py
Phase 5 — Tool Surface Verification (1분)
toolsets.py에 등록된 toolset과 실제 handler 연결.
python3 -c "
import toolsets
all_toolsets = toolsets.get_all_toolsets()
print('toolsets:', list(all_toolsets.keys()))
print('kanban tools:', all_toolsets.get('kanban', {}).get('tools', []))
"
기대값: kanban toolset 안에 13개 function (create/complete/block/unblock/claim/heartbeat/list/get/link/add_comment/get_events 등).
Phase 5b — Token Estimation Spot-Check (1분, 필요시)
ContextCompressor / chunker 가 silent off-by-N 버그 만들기 쉬운 영역. 변경 후 반드시:
python3 -m pytest tests/test_context_compressor.py::TestTokenEstimation -v --no-header
python3 -m pytest tests/test_context_compressor.py -k "chunk or topic or window" -v --no-header
python3 -m pytest tests/gateway/test_session_hygiene.py --no-header -q
3-tier chunking 버그 이력 (2026-06-01):
- dict 를 str(dict) 로 estimate → 1000x overcount
- list 를 str(list) 로 estimate → 같은 문제
- CharacterTextSplitter 가 빈 청크를 skip → 인덱싱 누락
수정 패턴:
def _estimate_tokens(text: str) -> int:
if isinstance(text, dict): return _estimate_tokens(json.dumps(text))
if isinstance(text, list): return sum(_estimate_tokens(t) for t in text) if text else 0
return len(text) // 4
CRITICAL DIAGNOSTIC — AttributeError in GatewayRunner
object.__new__(GatewayRunner) 기반 mock runner 테스트에서 자주 등장:
AttributeError: 'GatewayRunner' object has no attribute '_session_manager'
AttributeError: 'GatewayRunner' object has no attribute '_dispatcher'
AttributeError: 'GatewayRunner' object has no attribute '_sentinel_guard'
테스트에서 발생 = fixture 갭 (defer). GatewayRunner 가 decomp 됨에 따라 mock 이 새 속성을 모름.
프로덕션 로그(gateway.log/errors.log)에서 발생 = 진짜 버그 — method extraction gap. 조사 필요.
Production AttributeError 진단 흐름
grep "def _Y\|async def _Y" gateway/run.py gateway/agent_cache.py — 메서드가 어디로 갔는지 확인cd ~/.{{AGENT_NAME_LOWER}}/source/{{AGENT_NAME_LOWER}}-agent && git diff HEAD -- gateway/run.py | grep "^-.*def " — 클래스에서 제거된 메서드 목록- 제거된 메서드가 다른 모듈에 standalone 함수로 존재하는지 확인
- 존재하면 → method extraction gap:
self.method() → function(self, ...) 변환 필요
references/gateway-method-extraction-gap.md 참조
Fixture gap vs Real bug 구분
| 증상 | 컨텍스트 | 진단 |
|---|
AttributeError: 'X' object has no attribute '_Y' | test (pytest) | fixture 갭 (defer) |
AttributeError: 'X' object has no attribute '_Y' | production log | 진짜 버그 — 조사 필요 |
assert X == Y 실패 | test | 진짜 버그 (조사 필요) |
KeyError: 'Z' | any | 진짜 버그 (DB/mapping 문제) |
TypeError: ... argument ... | any | 진짜 버그 (signature mismatch) |
| Timeout / hang | any | 환경/순환 문제 (별도) |
Phase 4b — Cron-Runner Wrapper Registration (필요시)
Symptoms (문서엔 Done, 실제로는 silent):
jobs.json에 cron job entry가 없는데 script는 ~/.{{AGENT_NAME_LOWER}}/scripts/에 존재last_run_at이 며칠 전에서 멈춤launchctl list | grep {{AGENT_NAME_LOWER}} → ai.{{AGENT_NAME_LOWER}}.gateway 또는 ai.{{AGENT_NAME_LOWER}}.cron-runner plist 없음- 3개 board dispatcher (default/content/integrations) 중 일부만 jobs.json에 등록됨
원인: jobs.json은 declarative한 record 일 뿐, 실제 실행은 launchd plist + Python wrapper 가 담당. jobs.json에 등록 안 된 script는 절대 자동 실행 안 됨.
또는 반대 패턴 — LLM-based dispatcher가 script-based dispatcher blocking:
cron/scheduler.py:tick()은 sequential for job in due_jobs: loop. LLM agent job
(d1ef68ced116, kanban-dispatcher)이 먼저 실행되면 API 시간 동안 tick loop block →
뒤 script job ({{AGENT_NAME_LOWER}}-cron-runner-001)이 fire 못 함. 최대 26분 stall 검증됨.
진단: gateway log에서 "Running job" 순서 확인:
grep "Running job" ~/.{{AGENT_NAME_LOWER}}/P6-prefrontal/logs/gateway.log | tail -20
해결 (3단계):
- 즉시 조치: LLM-based job disable (중복일 경우).
cron_runner.py가 모든 board를
처리한다면 d1ef68ced116를 enabled: false.
- Systemic fix (권장):
cron/scheduler.py:tick()에서 script jobs를 LLM jobs보다
먼저 실행. 예방적 fix로 이후 ALL LLM job이 dispatcher blocking 불가:
_script_jobs = [j for j in due_jobs if j.get("script")]
_llm_jobs = [j for j in due_jobs if not j.get("script")]
for job in _script_jobs + _llm_jobs:
- Cron-runner fire frequency 모니터링: harmony check Layer 3.5b가 5분마다
0 fire (= stall) 또는 ≥12 fire (= abnormal) 감지. Layer 3.5b 결과에 따라
{{AGENT_NAME_LOWER}}_cron_watchdog.sh가 자동 kickstart.
Tick watchdog (T4.3): gateway/run.py:_start_cron_ticker에서 각 tick의
elapsed time 측정, tick_elapsed > 5 × interval → warning log.
Outer try/except도 logger.debug→logger.warning으로 강화.
참조: references/gateway-cron-ticker-diagnosis.md — 3가지 failure mode 별 root cause (housekeeping try/except, sequential tick block, stale lock) + tick watchdog + fire-frequency detection + auto-kickstart.
참조: references/gateway-platform-connection-diagnosis.md — Gateway 프로세스는 실행 중이지만 플랫폼 연결 안 됨 (orphaned extracted method). AdapterLoader.connect_all() 무호출 진단 및 수정.
참조: references/gateway-method-extraction-gap.md — GatewayRunner 메서드가 standalone 함수로 추출되었지만 self.method() 호출이 업데이트 안 됨 (e.g. _run_agent). Production AttributeError 진단 및 수정.
Phase 4c — Dead Worker Board 격리 (필요시)
진단:
python3 -c "
import sqlite3
conn = sqlite3.connect('~/.{{AGENT_NAME_LOWER}}/P2-hippocampus/kanban/state/{{AGENT_NAME_LOWER}}_tasks.db')
for r in conn.execute('SELECT id, title, board, worker_pid FROM tasks WHERE status=\"in_progress\"'):
print(r)
"
판단 기준:
- worker_pid != NULL + ETIME < 30s → 정상 (worker 처리 중)
- worker_pid != NULL + ETIME > 1h + ps에서 PID 없음 → DEAD, reclaim 필요
- board = "test" 또는 board = "default"이고 title = "Test ..." → false alarm: 격리된 test board, dispatcher 무관
False positive 회피:
- test/* board에 dead worker 격리돼 있으면 default dispatcher가 안 보는 게 정상
- board scope hardening v0.8.5 적용 후 cross-board reclaim 시도 없음
- 진짜 bug: production task (board=default/content/integrations) + real worker_pid + TTL expired
Phase 6 — Integration Path Spot-Check (1분)
Phase 7 — Vault Graph Health (1분, 필요시)
Obsidian vault .{{AGENT_NAME_LOWER}}/의 wikilink graph 무결성 점검. vault = agent의 장기 기억. 링크가 끊어지면 agent가 관련 문서를 찾지 못함.
진단: ~/.hermes/scripts/{{AGENT_NAME_LOWER}}_graph_gap_analysis.sh 실행:
bash ~/.hermes/scripts/{{AGENT_NAME_LOWER}}_graph_gap_analysis.sh
복구 패턴:
.neuron → .md 미인식: Obsidian이 .neuron 파일을 markdown으로 인식 못 함
→ ~/.{{AGENT_NAME_LOWER}}/.obsidian/app.json에 "extensionOverrides": [".neuron"] 추가 (파일 rename 불필요)- frontmatter
links: → body wikilinks 누락: Obsidian Graph View가 frontmatter 링크를
약하게 인식. write_file 또는 patch로 본문 하단에 ## Links\n- [[target]] 추가.
- bidirectional 부재: incident doc → neuron 링크만 있고 역방향(neuron → incident) 없음.
양방향 추가 시 Obsidian Local Graph에 양쪽 노드 모두 표시.
- Monitor/ brain signal orphan:
~/.{{AGENT_NAME_LOWER}}/monitor/brain_signals_*.md 파일들 (수천 개)
→ brain_monitor.py:_deliver()의 _deliver_fallback() 호출 제거 (생성 중단) +
기존 파일 일괄 삭제 (rm monitor/brain_signals_*.md). 정보 손실 0 — gateway.log에 동일 데이터.
검증:
bash ~/.hermes/scripts/{{AGENT_NAME_LOWER}}_graph_gap_analysis.sh --dangling-only
"✅ Done이라 doc에 적혀 있지만 진짜?" — 이 phase가 가장 자주 함정 있음.
grep -A 10 "subprocess.Popen" ~/.{{AGENT_NAME_LOWER}}/scripts/dispatch_once_default.py
grep -E "os\\.environ\\[" ~/.{{AGENT_NAME_LOWER}}/scripts/run_kanban_worker.py
grep -rln "KANBAN_WORKER_MODE" ~/.{{AGENT_NAME_LOWER}}/source/{{AGENT_NAME_LOWER}}-agent --include="*.py"
CRITICAL PITFALL — Shell Env Var Pattern
{{AGENT_NAME}}는 자주 shell env로 subprocess에 mode를 전달한다. Python 코드에 그 env var가 안 보일 수 있다. 이게 "미구현"이 아니라 "정상 구현" 인 경우:
| Env var | Where set | Where read | Why |
|---|
KANBAN_TASK_ID | dispatch_once_default.py (subprocess.Popen env=) | run_kanban_worker.py (os.environ) | dispatcher가 어떤 task 줄지 worker에게 알림 |
KANBAN_WORKER_MODE=1 | dispatch_once_default.py | run_kanban_worker.py | worker가 mode=1 감지하면 LLM bypass, 직접 sqlite3 |
KANBAN_BOARD | dispatcher | worker | multi-board 라우팅 |
DREW_HOME | parent process | worker | 경로 override |
KANBAN_WORKER_PID | dispatcher | worker | spawn tracker |
Rule of thumb: "Python code에 안 보임" → "Not implemented" 결론 금지. 항상:
~/.{{AGENT_NAME_LOWER}}/scripts/*.py 확인 (dispatcher / worker script는 source/{{AGENT_NAME_LOWER}}-agent 밖)subprocess.Popen(env=...) 의 env.update({...}) dict 확인os.environ.get("VAR") 호출 위치 확인- 그래도 0건이면 그때 "미구현" 결론
Verification Examples
Good (실제 구현 검증)
- dispatch_once_default.py:
env.update({'KANBAN_TASK_ID': task_id, 'KANBAN_WORKER_MODE': '1', ...}) ✓
- run_kanban_worker.py:
task_id = os.environ.get("KANBAN_TASK_ID") ✓
- → 두 파일이 shell env로 연결됨. 정상 동작
Bad (false negative)
- Python 코드에
KANBAN_WORKER_MODE 없음 → "구현 안 됨" 보고
- (실제로는 shell env로 전달 중)
- → 잘못된 진단
False-Alarm Verification Methodology (user preference, 2026-06-10)
When a checkup reveals a "broken" thing, the next move is verify-before-patch. The user's preference expressed in the 6/10 session: don't accumulate follow-ups for false alarms, don't spend time fixing what's already fixed.
Rule: For every checkup finding, classify it before acting:
-
Re-verify the symptom first with a counting tool — grep -c, lsof -i, ps aux, stat -f %z for file sizes. The goal is to distinguish "the symptom is real" from "I read something in a log dump that looked like a symptom."
-
Confirm with the actual port / path / PID, not with a remembered or assumed one. lsof -i :<port> is the source of truth for which port a service binds.
-
Drop findings that don't reproduce. Mark them as "False alarm" in the report with the specific verification that disproved the symptom. Future agents reading the report know not to re-investigate the same false alarm.
-
Example 6/10 F2: "kanban-dashboard port 5555 HTTP 000" → re-verified: actual port is 8765, curl http://localhost:8765/kanban returns 200. No fix needed. Reported as "False alarm: wrong port number in checkup."
-
Example 6/10 F3: "run_agent.py line 6790 NameError: api_start_time recurring" → re-verified: grep -c 'api_start_time is not defined' gateway.error.log returns 0. The visual scan of a 9.6M-line log was an artifact, not a real signal. No fix needed. Reported as "False alarm: 0 occurrences in log."
-
When to actually patch: only after re-verification shows the symptom is real AND the root cause is in our code. Anything else is scope creep.
This is a quality bar, not an extra step. The 5 minutes of grep -c is cheaper than the hours of "fixing" a phantom bug.
Internal-Tool Consolidation (user preference, 2026-06-10)
When a checkup produces follow-up work, ask: "can any of these be handled by an existing internal tool?" The user's framing on 6/10:
"보류된 follow-up은 내부 기능으로 대체 가능한 건 그렇게 하고 정리하면 되지 않을까. 어떠니."
Decision flow for each follow-up item:
-
Can an existing cron, watchdog, or skill handle this automatically?
- YES → wire it up now, mark follow-up as resolved
- NO → continue to step 2
-
Does the symptom actually reproduce on re-verification? (See "False-Alarm Verification Methodology" above.)
- NO (false alarm) → drop the follow-up entirely
- YES → continue to step 3
-
Is this a real reliability fix, or scope creep?
- Reliability fix → keep in incident doc section 6.5 "Open (deferred)"
- Scope creep → drop it
Concrete 6/10 examples:
- F1 (n8n plist missing) → step 1 YES (memory had 6/1 plist template). Consolidated: rewrote + bootstrap. Done.
- F2 (port 5555) → step 2 NO. False alarm. Dropped.
- F3 (api_start_time) → step 2 NO. False alarm. Dropped.
- "log rotation" (NEW follow-up surfaced during F1-F3) → step 1 NO (no existing tool), step 3 real reliability → step 1: write the tool. Consolidated:
{{AGENT_NAME_LOWER}}_log_rotate.sh + cron registration. Done.
Why this matters: a long follow-up list signals "we're not done, we're not sure if we're done, please come back later." Consolidating follow-ups into the existing system — or proving they're false alarms — makes the incident closure real and the run history clean.
Honest Assessment Over Optimism (user preference, 2026-06-10)
When asked "is X working?" or "is this fully integrated?", the user prefers an honest partial-credit answer over a reassuring "yes, all good." The 6/10 follow-up session surfaced 5 architectural drift points between {{AGENT_NAME}} and Hermes; the user asked directly whether "내부 아키텍처랑 공유도 되는거지?" (does the internal architecture share with hermes?). The right answer was:
"기능 사용: yes. 내부 아키텍처 작동: yes. 깊은 공유: 부분적 — 5개 균열이 남았습니다. 그중 2개는 harmony check + neuron으로 자동화 가능, 3개는 architecture fix 영역입니다."
Bad answer (do not give): "네, 모두 잘 작동합니다." — overstates state, hides unresolved work, sets up future discovery of the same drift.
Good answer (use this template): "X works at [layer]. Y is partial because [specific drift]. Z is out of scope because [reason]." Then list 3-5 specific follow-ups with one-line classification each (resolved / false alarm / architecture fix / user decision needed).
Why this matters: the user asks "정직하게" / "솔직하게" expecting partial-credit truth. Optimism is treated as missing the question, not as courtesy. The cost of admitting "이건 architecture fix" is one user clarification; the cost of pretending "다 잘 됩니다" is the user discovering it later and losing trust.
Rule: never claim "완전히 통합" or "문제 없이" unless you have all layers verified in the current session. "표면적으로 작동 + N개 미해결" is the honest baseline.
Daejeon-Je Based Autonomous Judgement (user preference, 2026-06-10)
When the user states a 대전제 (high-level premise) and asks for a plan, do NOT ask clarification questions for things the premise already answers. Decide and document the choice, even if it's a one-way door.
User phrasing that signals this preference:
- "내가 주는 대전제에 기반해 알아서 판단해"
- "설명이 부족한데, [대전제] ... 어떠니."
- "어떻게 생각하니" (after stating context)
Anti-pattern (do NOT do this):
"다음 4가지 결정이 필요합니다: 1) D1 label 2) D3 memory 3) D5 scheduler 4) scope. 결정해 주세요."
Right pattern:
"대전제: .{{AGENT_NAME_LOWER}} 구조 유지 + hermes는 내 맥락에 맞춤. 적용:
- D1 hermes → customize layer (PYTHONPATH hijack), upstream PR 안 함
- D3 memory → .{{AGENT_NAME_LOWER}} canonical, codex 무시 (policy)
- D5 scheduler → unify (cron-runner plist bootout)
- Scope → Phase 1+2+3 (5/13 + F1-F3 follow-up), 단 F2/F3는 false alarm verify 후 drop
이 결정으로 진행. 단, 유일한 1-way door (memory single source)는 user 사전 confirm."
What to defer to user:
- 1-way door decisions (e.g. memory single source — once committed, hard to reverse)
- Decisions that destroy features per
禁/禁task_qa_gate.neuron "Fixes that destroy the feature they secure"
- Decisions where the user's specific intent is genuinely unknowable (rare)
What to decide autonomously:
- Implementation details (e.g. "use
importlib.util proxy" vs "monkey-patch directly")
- Order of operations within a phase
- "Drop the follow-up" calls (false alarm)
- "This is a follow-up, but it's scope creep → drop" calls
The user's expectation is: I gave you the premise, you decided. Show me your work so I can audit, not so I can re-decide. This is the difference between "여러분의 대리인" and "여러분의 mirror."
"No Residue Left Behind" — Cleanup as Part of Execution (user preference, 2026-06-10)
When the user says "꼼꼼하게" or "찌꺼기 남기지 않게" (e.g. "꼼꼼하게. 찌꺼기 남기지 않게."), every step is:
- (a) action — make the change
- (b) cleanup — remove intermediate files, unused wrappers, dead code
- (c) verify — confirm no residue
Residue patterns to clean:
- Wrapper scripts that were useful for a brief moment but became redundant after the real fix
.pyc files in __pycache__/ (auto-regenerated, but listing them in commit output is noise).bak files (keep at most one canonical .bak for the most-recent rollback target; remove earlier ones)- Temp files in
/tmp/ from intermediate script invocations
- Imports/lines that the real fix made unreachable
Verification commands:
ls -la ~/.hermes/scripts/
find ~/.{{AGENT_NAME_LOWER}}/customize -name '__pycache__' -type d
find /tmp -name '{{AGENT_NAME_LOWER}}_*' 2>/dev/null
grep -cE 'set -u' ~/.hermes/scripts/*.sh
Honest cleanup log: at the end of a multi-step task, the report should explicitly mention:
- "Removed:
{{AGENT_NAME_LOWER}}-hermes wrapper (redundant after ~/.local/bin/hermes patch)"
- "Kept:
hermes.bak (rollback target for one risk-bearing patch)"
- "Cache:
__pycache__/ left in place (auto-regenerated, removal = noise)"
Why this matters: a clean run history makes future agents' work easier. They can read the 6/10 incident doc and see "the fix left these artifacts, here's why" — vs. a polluted history where they have to guess "is this __pycache__ from today's fix or yesterday's?"
When You Find a Memory/Reality Gap — Write the Incident Doc IMMEDIATELY
A checkup finding that contradicts a memory entry is the highest-value signal in this whole skill. The 2026-06-10 checkup discovered that the 6/1 incident was recorded in memory as "복구 완료" but the actual system had been dead for 6+ days at that point. The earlier incident doc (5/30~6/2) was incomplete: it described the recovery as successful, but didn't track whether the recovery stayed successful.
Required behavior when a checkup reveals gap between memory/incident-doc claims and reality:
- Do NOT silently update memory to "still broken" or "no longer fixed" — the gap is itself the data
- Write or update an incident doc under
P6-prefrontal/incidents/ with the structure:
- What was claimed in memory/incident-doc (cite the exact text + date)
- What the checkup actually found (filesystem ground truth, hard evidence)
- When did the gap open (best estimate from log mtimes, sessions, last_run_at)
- Why wasn't it caught (which watchdog/alert path was missing)
- What changes prevent recurrence (concrete list of plist edits, watchdogs, doc updates)
- Update memory with both: (a) the original "incident fixed" claim, annotated with "see incident doc for actual follow-through" and (b) the new finding
- Tag the checkup session for
filesystem-truth-audit — the audit skill is the right tool to verify the original incident doc's filesystem claims were true at the time, vs. when they started becoming stale
Why this matters: A future agent reading memory sees "5/30 incident fixed" and skips the diagnostic. A future agent reading "5/30 incident fixed; see P6-prefrontal/incidents/cron-jobs-stalled-20260601.md section 8 for follow-through — actual recurrence observed on 6/10, see incident-cron-runner-gap-20260610.md" gets the full context. The second memory is harder to write but more honest.
Three of the worst memory anti-patterns to avoid:
- "복구됨" / "fixed" / "resolved" without a verification date and the file/last_run_at/etc. that confirms it
- "Should now work" — verify the change actually took effect (config.yaml committed, in-memory state reloaded, etc.)
- "Done per [incident doc]" without a wikilink to the doc
Output Format
점검 끝나면 다음 형식으로 보고:
[P0] Core imports: OK
[P0] DB health: FK ok, status 분포 정상 (7종)
[P0] Brain signal: violations=N, dangerous_ops=M
[P0] Dispatcher: claimed=0 spawned=0 (정상, ready task 없음)
[P0] Tool surface: kanban toolset 13개 등록됨
[P1] X 발견: stdout=PIPE pipe full 위험
[P1] Y 발견: watchdog 부재 (TTL=1h lag)
[P2] Z 권장: docs 표현 정정
P0는 critical (한 줄로 fix 필요), P1은 단기 개선, P2는 장기 검토.
Files Likely Worth Touching
점검 후 발견되는 P1 issue는 보통:
~/.{{AGENT_NAME_LOWER}}/scripts/dispatch_once_*.py (3개 board) — stdout=PIPE → DEVNULL 변경~/.{{AGENT_NAME_LOWER}}/scripts/run_kanban_worker.py — watchdog 추가P4-cortex/growth/KANBAN-REVIEW-20260520.md — docs 표현 정정 ("Python mode 분기" → "shell env flag")
Related
- [[@action/gateway/{{AGENT_NAME_LOWER}}-architecture-dataflow]] — 전체 데이터 흐름
- [[@memory/kanban/KANBAN_INDEX]] — kanban 시스템 개요
- [[@identity/brain/{{AGENT_NAME}}-brain/P0-brainstem/禁/禁filesystem_truth.neuron]] — "files are truth" 원칙
launchd-process-health-check — the skill that pairs with this one for infra-level findings. Sub-pattern 6 in that skill (jobs.json patch has zero effect on a dead scheduler) is the meta-pattern for Pattern E in cron-jobs-stalled. The 6/10 incident response ran these two skills together.cron-jobs-stalled — for cron-stall-specific findings. Pattern E (silent scheduler death) added 2026-06-10.~/.{{AGENT_NAME_LOWER}}/P0-brainstem/brain/{{AGENT_NAME}}-brain/P0-brainstem/禁incident_aware.neuron (P0 policy) — auto-loads this skill + the 6/10 incident doc when watchdog fires or user requests "에이전트 상태 점검". Trip-wires the cross-layer diff path so the agent doesn't re-discover the 6 root causes from scratch.references/2026-06-10-harmony-check-recipe.md (under launchd-process-health-check) — the 4-layer cross-diff tool. Run after Pattern E recovery to verify the fix, or daily at 09:00 KST via cron. Includes the bash 3.2 pitfalls hit during 6/10 development.
