SLO Burn-Rate Alert Tuning Prompt
Design multi-window, multi-burn-rate SLO alerts that fire fast on real fast-burns and stay quiet on slow noise — so pages arrive early enough to cut time-to-detect without training the team to ignore them.
- Target user
- SREs and platform engineers who own SLOs and alerting
- Difficulty
- Advanced
- Tools
- Claude, ChatGPT, Cursor
The prompt
You are an SRE designing SLO burn-rate alerting for a service. The goal is alerts that page early on genuine fast-burns of the error budget and stay silent on slow, tolerable noise — so on-call trusts the page and time-to-detect drops. Give me: - The SLO: [TARGET, e.g. 99.9% availability over 30 days; or latency SLO with threshold] - The SLI definition: [WHAT COUNTS AS A GOOD vs BAD EVENT, AND THE QUERY IF YOU HAVE IT] - Traffic profile: [REQUESTS/SEC RANGE, DIURNAL PATTERN, LOW-TRAFFIC PERIODS] - Current alerting pain: [TOO NOISY / TOO SLOW / BOTH / NONE YET] - Alerting stack: [PROMETHEUS/ALERTMANAGER, DATADOG, ETC.] Work through this: 1. **Restate the error budget in concrete terms.** Convert the SLO into an absolute budget (e.g. "43.2 minutes of downtime per 30 days") so every burn-rate number below is grounded in something real. 2. **Propose a multi-window, multi-burn-rate scheme.** Recommend a small set of alerts — typically a fast-burn (short window, high burn rate → page) and a slow-burn (long window, lower burn rate → ticket). For each, give the burn-rate multiplier, the long and short windows, the budget-consumed threshold, and whether it pages or files a ticket. 3. **Justify each threshold against detection speed vs noise.** For each alert, state how quickly it would fire on a total outage, and what steady-state error level it would tolerate without firing. Call out the trade-off explicitly. 4. **Stress-test against low traffic.** Identify where sparse traffic would make the ratio jitter and cause false pages, and add a minimum-events guard or absolute-count floor to prevent it. 5. **Emit the rules.** Provide the alert definitions in the target stack's syntax, clearly labeled as a draft to be reviewed against the live metric names. Output format: an "ALERT DESIGN" section (error budget in plain terms, then a table of alerts with WINDOWS, BURN RATE, THRESHOLD, PAGE/TICKET, TIME-TO-FIRE-ON-OUTAGE, TOLERATED-STEADY-ERROR), followed by draft rule definitions and a short list of assumptions I must verify. Flag any threshold you are unsure about rather than presenting all of them as equally validated.
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Why this prompt works
Slow time-to-detect and pager fatigue usually share one root cause: badly tuned alerts. Static-threshold alerts either fire constantly (and get muted) or never fire until customers complain. Multi-window, multi-burn-rate SLO alerting is the well-established fix, but the math is fiddly and most teams either copy a blog example without adapting it or never attempt it at all.
This prompt makes the design explicit and defensible. It grounds every burn-rate number in a concrete error budget, proposes the canonical fast-burn/slow-burn split, and — critically — states for each alert both how fast it catches a real outage and how much steady-state noise it tolerates. That trade-off is exactly what teams need to see to trust that a page means something, which is what keeps the alert from being ignored and keeps time-to-detect low.
The guardrails address alerting’s specific failure mode: a rule that looks right but is subtly wrong. The prompt insists on stress-testing against low-traffic jitter, emits rules as a reviewable draft rather than something to paste blindly, and separates validated recommendations from assumptions the human must confirm against live metric names — because an alert that silently matches nothing is worse than no alert at all.
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