capacity-planning

Calculate fleet sizing with headroom from demand forecasts and load tests.

Updated Aug 23, 2026
One-click install
npx skills add https://github.com/ohsonerdy/openclaw-frontier-stack --skill capacity-planning-ohsonerdy
Or copy as Structured Prompt for Agent▼
Please help me install this Agent Skill.
Skill: capacity-planning
Source: https://github.com/ohsonerdy/openclaw-frontier-stack/tree/main/skills/capacity-planning
Command: npx skills add https://github.com/ohsonerdy/openclaw-frontier-stack --skill capacity-planning-ohsonerdy

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

It prevents service outages and runaway costs caused by sizing a fleet based on averages, ignoring demand shape, growth, burst behavior, and autoscaler reaction time.

Core Features & Use Cases

  • Demand forecasting & demand shape: Combines current demand, growth rate, and peak-to-trough shape to size for projected peak, not today’s average.
  • Burst vs sustained capacity + headroom rules: Separates steady-state from short-window spikes and selects a headroom percentage that survives uncertainty and autoscaler lag.
  • Production-faithful load testing & per-replica measurement: Ensures load tests match real request mix, payloads, ramp profiles, concurrency/think time, auth, and downstream dependencies to measure per-replica saturation accurately.
  • Replica/machine sizing plus pre-provisioning for known events: Turns the plan into concrete fleet sizing and defines pre-scale, pre-warm, load-test verification, and abort criteria for events.

Quick Start

Run this skill to produce a quarter-ready capacity plan for your service by forecasting peak demand, selecting headroom, and calculating replica counts from a production-faithful load test.

Frequently Asked Questions about capacity-planning

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I calculate fleet sizing and headroom to prevent capacity exhaustion?▼

Capacity planning calculates fleet sizing by combining demand forecasts with per-replica saturation metrics and explicit headroom rules, ensuring your service survives burst traffic and autoscaler lag without over-provisioning resources.

Why does my autoscaling fail to prevent outages during sudden traffic bursts?▼

Autoscaling fails during bursts when capacity planning ignores autoscaler reaction time and demand shape. Proper planning separates sustained load from short-window spikes and applies headroom percentages to survive uncertainty and scaling lag.

How do I measure per-replica saturation using production-faithful load testing?▼

Per-replica saturation requires load testing that matches real request mix, payloads, ramp profiles, concurrency, think time, authentication, and downstream dependencies to accurately measure when individual service replicas reach their throughput limits.

What is the best way to pre-provision capacity for known high-traffic events?▼

Pre-provisioning for known events involves forecasting peak demand, pre-scaling and pre-warming replicas ahead of time, verifying with load tests, and defining explicit abort criteria to ensure sufficient headroom during the traffic event.

How do I size service replicas for projected peak demand instead of daily averages?▼

Sizing for projected peak demand requires combining current traffic, growth rate, and peak-to-trough demand shape to calculate replica counts, ensuring your fleet handles forecasted maximums rather than today's average load.

Can I use capacity planning for post-incident analysis of a service outage?▼

Yes, capacity planning supports post-incident analysis by evaluating whether capacity exhaustion caused the outage, comparing actual load against fleet sizing math, and adjusting headroom rules to prevent recurrence.