Sre runbooks
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Safe-by-default DevOps/SRE runbook automation for incident response, postmortems, on-call handovers, and operational troubleshooting. Implements Google SRE principles with agent-safe execution patterns including dry-run modes, human approval gates, and blast-radius limits.
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SKILL.md
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SRE Runbooks
Production-safe DevOps and SRE runbook automation. Execute incident response procedures, draft postmortems, generate on-call handovers, and troubleshoot production issues — all with built-in safety gates that prevent the agent from making destructive changes without human approval.
When to Use This Skill
Use this skill when:
- Responding to a production incident (alert fired, service degraded)
- Writing or updating a runbook for a service
- Drafting a postmortem after an incident
- Preparing on-call handover notes
- Troubleshooting a deployment failure or pipeline issue
- Performing a root cause analysis (RCA)
- Any request like "investigate this alert", "write a postmortem", "create runbook for X", "prepare handover notes"
Safety Model
This skill is risk tier L2 (elevated). Every automated action follows these safety rules:
Execution Gates
| Gate | Description |
|---|---|
| Read-only first | All investigations start read-only; writes require explicit escalation |
| Dry-run by default | Destructive commands print what they would do before execution |
| Blast-radius check | Before acting, compute and report the scope of impact |
| Human approval | Any change to production state requires human confirmation |
| Rollback plan | Every change proposal includes a verified rollback path |
| Audit log | Every action is logged with timestamp, identity, and justification |
Never-Automate List
These actions require a human in the loop, no exceptions:
kubectl deleteon running workloadsterraform destroyorterraform apply -auto-approve- Database DROP, TRUNCATE, or schema-destructive migrations
- DNS record deletion or apex domain changes
- IAM policy or RBAC role removal
- Secrets rotation without backup verification
- Firewall rule removal on production traffic paths
Incident Response Workflow
Phase 1: Triage (Read-Only)
When an alert fires, the agent:
- Acknowledges the alert in the incident management system
- Gathers context — recent deployments, config changes, metrics
- Identifies the blast radius — affected services, users, regions
- Checks for known patterns in the incident database
- Declares severity based on SLO impact
SEVERITY ASSESSMENT:
├── SEV0: User-visible outage, SLO breached → Page on-call
├── SEV1: Degraded but available, SLO at risk → Alert on-call
├── SEV2: Non-critical, SLO not threatened → Ticket
└── SEV3: Informational, no user impact → Log only
Phase 2: Investigation
The agent systematically works through:
-
The Four Golden Signals (Google SRE):
- Latency: Is response time elevated?
- Traffic: Is request rate anomalous?
- Errors: Is error rate above threshold?
- Saturation: Is any resource exhausted?
-
The Five Whys — progressive root cause drilling:
- Why did the alert fire? → Error rate spiked
- Why did errors spike? → Timeouts from auth service
- Why auth service timing out? → Connection pool exhausted
- Why pool exhausted? → New deployment changed pool size
- Why was pool size changed? → Config drift in deployment template
-
The Differential Diagnosis — rule out common causes:
- Recent deployment? Check deploy log
- Config change? Check config history
- Dependency issue? Check upstream health
- Capacity issue? Check resource metrics
- Network issue? Check connectivity between services
Phase 3: Mitigation
Execute mitigation steps with human approval at each gate:
- Contain — Stop the bleeding (rate-limit, circuit-break, shed load)
- Mitigate — Restore service (rollback, scale up, failover)
- Verify — Confirm recovery (check SLOs, run health checks)
- Communicate — Update status page and stakeholders
Phase 4: Resolution
After the incident is resolved:
- Verify full recovery — all SLOs green for 15+ minutes
- Document timeline — timestamped actions and decisions
- Create follow-up tickets — prevent recurrence
- Archive incident artifacts — logs, graphs, chat transcripts
Postmortem Template
Generate blameless postmortems following Google's template:
# Postmortem: [Incident Title]
**Date:** YYYY-MM-DD
**Severity:** SEV0/1/2
**Duration:** Xh Ym (HH:MM UTC to HH:MM UTC)
**Authors:** [Names]
**Status:** Draft / Review / Final
## Summary
[One paragraph — what happened, impact, duration]
## Timeline (UTC)
| Time | Event |
|------|-------|
| 14:32 | Alert fired: error rate >5% on api-gateway |
| 14:33 | On-call acknowledged |
| 14:38 | Identified: connection pool exhaustion |
| 14:42 | Rolled back deployment v2.4.1 → v2.4.0 |
| 14:47 | Error rate normalized; SLO recovered |
## Root Cause
[Technical explanation — what failed and why]
## Impact
- Users affected: [count or %]
- Revenue impact: [$ or N/A]
- SLO impact: [which SLO, how much burned]
## Detection
- How was it detected? (alert, user report, partner)
- Time to detect: X minutes
- Could detection have been faster?
## Resolution
[Steps taken to resolve — be specific]
## Action Items
| # | Action | Owner | Priority | Due |
|---|--------|-------|----------|-----|
| 1 | Fix connection pool default | @engineer | P0 | EOW |
| 2 | Add alert on pool saturation | @sre | P1 | Sprint |
| 3 | Update deployment checklist | @team | P2 | Month |
## Lessons Learned
- What went well?
- What went poorly?
- Where did we get lucky?
Runbook Template
# Runbook: [Service Name] — [Failure Mode]
**Owner:** [Team]
**Last Updated:** YYYY-MM-DD
**Severity:** [Expected severity when this runbook is needed]
## Symptoms
- [Alert name(s) that fire]
- [Observable symptoms — metrics, logs, user reports]
## Prerequisites
- [Access needed: VPN, jump host, cluster, dashboard URLs]
- [Credentials: which tokens/roles, NOT actual values]
## Investigation Steps
1. [Check dashboard X for metric Y]
2. [Run query: SELECT ... FROM ... WHERE ...]
3. [Check recent deployments: kubectl rollout history ...]
4. [...]
## Mitigation Steps
### Quick Fix (stop the bleeding)
1. [Action] → Expected result: [what you should see]
2. [Action] → Expected result: [...]
### Full Resolution
1. [Action with rollback command]
2. [...]
## Verification
- [ ] [Check 1]
- [ ] [Check 2]
- [ ] [SLO dashboard shows recovery]
## Escalation
- If [condition]: escalate to [team/on-call rotation]
- If unresolved after [N] minutes: page [escalation contact]
On-Call Handover Template
# On-Call Handover — YYYY-MM-DD
**From:** [Outgoing]
**To:** [Incoming]
**Shift:** [Hours covered]
## Active Incidents
| ID | Title | Severity | Status | Action needed |
|----|-------|----------|--------|---------------|
| INC-123 | API latency | SEV2 | Mitigating | Monitor for 24h |
## Known Issues (Watch List)
- [Service X] has been flapping on deploys — may need rollback
- [Alert Y] is noisy — ticket filed to tune threshold
## Upcoming Changes
- [Service A] deployment scheduled Tue 10:00 UTC
- [Infra B] maintenance window Thu 02:00-04:00 UTC
## Open Questions
- [Question that needs follow-up]
Platform Notes
- All platforms: This skill provides procedural knowledge — no binary dependencies required. The agent applies the patterns using its existing tools (shell, kubectl, terraform, monitoring APIs).
- Safety: The risk-tier L2 designation ensures agents pause for human approval before any destructive action. Platform runtimes should enforce this through their native approval mechanisms.
- OpenClaw: Compatible with native approval gates and elevated-tool controls.