empirical-systems-evaluation

Measure multi-agent coordination system performance and recovery behaviors with statistical rigor.

2|Updated Feb 11, 2026
One-click install
npx skills add https://github.com/curiositech/port-daddy --skill empirical-systems-evaluation
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: empirical-systems-evaluation
Source: https://github.com/curiositech/port-daddy/tree/main/skills/empirical-systems-evaluation
Command: npx skills add https://github.com/curiositech/port-daddy --skill empirical-systems-evaluation

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Provides a complete, reproducible methodology to design, run, and report experiments that measure multi-agent coordination systems with statistical rigor, ensuring claims are supported by confidence intervals, effect sizes, and honest threats-to-validity.

Core Features & Use Cases

  • Precise metric definitions for latency, throughput, recovery time, and proportions with instrumentation guidance.
  • Statistical decision trees to choose parametric vs non-parametric tests, paired vs independent analyses, and multiple-comparison corrections.
  • Human evaluation protocols including anchored rubrics, rater calibration, and inter-rater reliability requirements.
  • Sample size planning and bootstrap CI procedures (B ≥ 10,000 recommended) and worked examples for crash-recovery benchmarks.
  • Use Case: comparing salvage protocols for crash recovery across coordination protocols with automated latency metrics and blinded human fidelity ratings.

Quick Start

Design an experiment comparing your coordination protocols by defining metrics (salvage latency, recovery fidelity), choosing baselines, performing a power-based sample size calculation, pre-registering an analysis plan with bootstrapped CIs and effect sizes, and running blinded human ratings with inter-rater reliability checks.

Frequently Asked Questions about empirical-systems-evaluation

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

FAQPage Schema
How do I design a statistically rigorous experiment for multi-agent coordination benchmarks?

To design multi-agent coordination benchmarks, define precise metrics like salvage latency and recovery fidelity, choose baselines, perform power-based sample size calculations, and pre-register an analysis plan with bootstrapped confidence intervals and effect sizes.

What statistical tests should I use when benchmarking multi-agent recovery latency?

Benchmarking multi-agent recovery latency requires statistical decision trees to choose appropriate parametric or non-parametric tests, paired or independent analyses, and multiple-comparisons correction based on your data distribution and experimental design.

How do I measure inter-rater reliability for human evaluation of multi-agent salvage fidelity?

To measure inter-rater reliability for multi-agent salvage fidelity, apply human evaluation protocols featuring anchored rubrics, rater calibration sessions, and inter-rater reliability requirements to ensure valid blinded human ratings.

What sample size do I need for bootstrapped confidence intervals in coordination protocol experiments?

Sample size planning for coordination protocol experiments involves power-based calculations to ensure adequate statistical power, with bootstrap confidence interval procedures recommending B ≥ 10,000 resamples to validate effect sizes accurately.

Can I compare fault tolerance and scheduling algorithms using effect sizes with confidence intervals?

Yes, comparing fault tolerance and scheduling algorithms requires calculating effect sizes with confidence intervals to quantify the practical significance of performance differences, supported by multiple-comparisons correction to address false positives.

When should I use non-parametric tests instead of parametric tests in multi-agent system evaluation?

Non-parametric tests are needed in multi-agent system evaluation when data violates normality assumptions, utilizing statistical decision trees to select the appropriate test based on data distribution, paired versus independent designs, and sample characteristics.