hammer-benchmark-regression

Compare SDL3 HammerEngine metrics against baselines to flag performance regressions.

14|2|Updated Mar 24, 2025
One-click install
npx skills add https://github.com/Ronin15/SDL3_HammerEngine_Template --skill hammer-benchmark-regression
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: hammer-benchmark-regression
Source: https://github.com/Ronin15/SDL3_HammerEngine_Template/tree/main/.claude/skills/hammer-benchmark-regression
Command: npx skills add https://github.com/Ronin15/SDL3_HammerEngine_Template --skill hammer-benchmark-regression

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill requires python3.

What problem does it solve?

Unintended performance degradations can silently creep into a codebase, leading to critical issues in production if not caught early by rigorous, consistent benchmarking and automated regression detection.

Core Features & Use Cases

  • Full Benchmark Suite Execution: Runs all 6 critical HammerEngine performance tests, including the mandatory AI Scaling Benchmark, to provide a comprehensive performance snapshot.
  • Automated Regression Detection: Compares current performance metrics against a defined baseline, flagging regressions (Critical, Warning, Minor) with clear severity levels and likely causes.
  • Detailed Regression Reporting: Generates a comprehensive Markdown report outlining performance changes, identifying the source of regressions (e.g., AI infrastructure vs. integration), and recommending actions.
  • Use Case: Before merging a new feature branch, run a "performance regression check" to ensure that the changes haven't negatively impacted the AI, collision, or pathfinding systems, preventing performance bottlenecks from reaching the main branch.

Quick Start

Run a full performance regression check for the HammerEngine.

Frequently Asked Questions about hammer-benchmark-regression

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

FAQPage Schema
How do I detect performance regressions in my game engine automatically?

Performance regression detection compares current benchmark metrics against established baselines to identify degradation. This Skill runs a complete benchmark suite on SDL3 HammerEngine, extracts AI, collision, pathfinding, and rendering metrics, then flags regressions by severity level with likely causes and generates a detailed Markdown report for actionable insights.

What benchmarks does this tool run to check for performance issues?

The Skill executes all six critical HammerEngine benchmarks: AI Scaling, collision detection, pathfinding, event throughput, particle rendering, and UI stress testing. It extracts both synthetic and integrated metrics from each, with mandatory verification of AI and pathfinding results to ensure comprehensive performance coverage.

Can I use performance regression detection before merging feature branches?

Yes. This is a core use case: run the full regression check on your feature branch before merge to catch performance degradation in AI, collision, or pathfinding systems early. It prevents bottlenecks from reaching the main branch and provides detailed reports identifying regression sources and severity.

What do I need to set up to run these benchmarks?

You need Python 3 installed and access to the SDL3 HammerEngine codebase. The Skill handles full benchmark suite execution and metric extraction automatically, so no additional components or manual benchmark configuration is required beyond having Python 3 available.

How does the tool categorize and report performance regressions?

Regressions are flagged with three severity levels—Critical, Warning, and Minor—based on metric deviations from baseline. The report identifies whether the source is AI infrastructure, integration, rendering, or other subsystems, enabling targeted optimization and preventing silent performance degradation.

Why should I automate performance regression detection instead of manual testing?

Automated detection catches unintended performance degradation consistently before it reaches production. Manual testing is slow and error-prone; automation provides rigorous, repeatable regression detection with comprehensive baseline comparison across all six engine benchmarks on every run.