ai-testing-strategy

Generates a comprehensive testing strategy for AI systems covering model, data, fairness, and CI/CD automation.

Updated Jun 28, 2026
One-click install
npx skills add https://github.com/JaviMontano/claude-plugins --skill ai-testing-strategy-javimontano
Or copy as Structured Prompt for Agent▼
Please help me install this Agent Skill.
Skill: ai-testing-strategy
Source: https://github.com/JaviMontano/claude-plugins/tree/main/plugins/claude-native-toolkit/skills/ai-testing-strategy
Command: npx skills add https://github.com/JaviMontano/claude-plugins --skill ai-testing-strategy-javimontano

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) and assets (resource) components.

What problem does it solve? AI systems fail silently through data drift, bias, and model degradation that traditional software tests never catch. This Skill produces a complete testing strategy document that verifies an AI system behaves correctly, fairly, securely, and reliably across every layer, from data ingestion to production monitoring. ## Core Features & Use Cases - Testing Scope Matrix: Maps 6 test types (functional, performance, security, compliance, fairness, integration) against 6 system layers (UI, API, pipeline, model, data, infrastructure) with priority by maturity level. - Model & Data Quality Testing: Covers accuracy, adversarial robustness, concept drift simulation, counterfactual analysis, regression gates, schema validation, distribution testing, and training-serving skew detection. - Compliance & CI/CD Automation: Designs fairness tests (demographic parity, disparate impact), audit trail verification, and five-tier test automation with quality gates in CI/CD pipelines. - Use Case: A team shipping a credit-risk model asks for a testing strategy; the Skill produces the 6x6 scope matrix, fairness thresholds, integration approach selection, and release gates for a regulated environment. ## Quick Start Ask the assistant to define a comprehensive AI testing strategy for your ML service covering model predictions, data quality, fairness, and CI/CD automation.

Frequently Asked Questions about ai-testing-strategy

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

FAQPage Schema
How do I create a testing strategy for a machine learning model?▼

Define a testing scope matrix covering six test types (functional, performance, security, compliance, fairness, integration) across six system layers, then add model-specific tests for accuracy, adversarial robustness, drift, and regression. This Skill generates that full strategy document with measurable thresholds.

What tests should an AI system have beyond unit tests?▼

AI systems need data quality tests (schema, distribution, lineage), model tests (accuracy, calibration, adversarial, counterfactual), fairness tests (demographic parity, disparate impact), and continuous production monitoring for drift. Traditional unit tests alone miss data-driven failures.

How do I test an ML model for bias and fairness?▼

Measure demographic parity, equal opportunity, and disparate impact ratio (four-fifths rule) across protected groups, plus intersectional analysis for attribute combinations. The Skill defines thresholds such as 90% parity minimum and includes explainability and audit trail verification.

Does this Skill write the actual test code for my models?▼

No. It produces the testing strategy, decision tables, and gate definitions, not executable pytest fixtures or implementation code. For test implementation, use a testing framework skill; for non-AI software testing, use a general testing-strategy skill.

How do I test an AI system with no ground truth labels?▼

Use proxy metrics such as human evaluation, downstream task performance, and A/B testing against business outcomes. The strategy also covers uncertainty limits and delayed-outcome validation for unsupervised or generative systems.

Which integration testing approach works best for AI pipelines?▼

Bottom-up suits data-heavy batch systems where data quality is the main risk, top-down fits user-facing real-time systems, and parallel integration with contracts works for large multi-team platforms. Regulated systems typically combine bottom-up with a digital-twin test harness.