golang-testing

Apply table-driven tests, subtests, benchmarks, and fuzzing to Go projects.

3|2|Updated Mar 8, 2026
One-click install
npx skills add https://github.com/agentmatters/mullai-bot --skill golang-testing-agentmatters
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: golang-testing
Source: https://github.com/agentmatters/mullai-bot/tree/main/src/Mullai.Skills/Skills/claude-code-everything/golang-testing
Command: npx skills add https://github.com/agentmatters/mullai-bot --skill golang-testing-agentmatters

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Go projects often struggle to establish robust testing practices that ensure reliability and maintainability. This skill provides templates and patterns for Go tests, including table-driven tests, subtests, benchmarks, and fuzzing, along with strategies for achieving high test coverage.

Core Features & Use Cases

  • Table-driven tests to cover multiple input scenarios with concise code.
  • Subtests and benchmarks to structure tests and measure performance across cases.
  • Fuzzing and coverage guidance to improve robustness and detect edge cases in Go code.

Quick Start

Run the example test suite to validate table-driven tests, subtests, and fuzzing templates.

Frequently Asked Questions about golang-testing

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

FAQPage Schema
How do I write table-driven tests in Go to cover multiple input scenarios?

Table-driven tests in Go use a struct slice to define input cases and expected results, iterating through them to run assertions concisely. This pattern keeps test code reusable and covers multiple scenarios without duplication.

What is the best way to structure Go subtests and benchmarks for performance testing?

Go subtests structure tests hierarchically using the testing.T.Run method, while benchmarks measure performance across cases via testing.B. Combining them isolates cases and measures execution time for performance-sensitive modules.

How does Go fuzzing improve code robustness and detect edge cases?

Go fuzzing automatically generates random inputs to feed into test functions, detecting edge cases and unexpected panics. It improves robustness by continuously mutating data to surface vulnerabilities that static test cases miss.

Can I use these Go testing patterns for TDD workflows during refactoring?

These Go testing patterns support TDD workflows by providing clear, reusable test templates for unit and integration contexts. They are fully applicable during new feature development and refactoring to ensure code reliability.

Do I need any external dependencies to apply these Go testing and coverage patterns?

No external dependencies are required to apply these Go testing patterns. The templates utilize the standard Go testing package for table-driven tests, subtests, benchmarks, fuzzing, and coverage strategies without extra modules.