Performance Analysis and Optimization

Profiles CPU, memory, and benchmarks of Rust applications using cargo, flamegraph, and perf.

Updated Jan 10, 2026
One-click install
npx skills add https://github.com/hiromima/collaborative-canvas --skill performance-analysis-and-optimization-hiromima
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: Performance Analysis and Optimization
Source: https://github.com/hiromima/collaborative-canvas/tree/main/.claude/skills/performance-analysis
Command: npx skills add https://github.com/hiromima/collaborative-canvas --skill performance-analysis-and-optimization-hiromima

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Rust applications often suffer from slow performance and high memory usage, and developers struggle to identify root causes efficiently.

Core Features & Use Cases

  • CPU profiling, benchmarking, and memory analysis to locate bottlenecks and optimize runtime.
  • Benchmarking with deterministic tests to measure improvements across changes.
  • Memory analysis to detect leaks, fragmentation, and high allocations in Rust programs.
  • Use cases include diagnosing a slow function, reducing memory footprint in a service, and validating performance regressions in CI.

Quick Start

Run a profiling session on your Rust binary to identify bottlenecks and high memory usage.

Frequently Asked Questions about Performance Analysis and Optimization

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

FAQPage Schema
How do I identify performance bottlenecks in a slow Rust application?

To identify performance bottlenecks in a slow Rust application, you profile CPU usage and analyze memory using tools like flamegraph, perf, and heaptrack to locate slow functions and high memory usage.

What's the best way to benchmark Rust code to validate performance regressions?

The best way to benchmark Rust code for regressions is using cargo bench to run deterministic tests, allowing you to accurately measure performance improvements and validate regressions across changes during development or in CI pipelines.

How does memory analysis work for detecting leaks and high allocations in Rust?

Memory analysis for Rust works by tracking allocations using tools like valgrind and heaptrack to detect memory leaks, identify fragmentation, and pinpoint high allocation areas that need optimization to reduce the service footprint.

Can I profile asynchronous Rust applications to diagnose runtime bottlenecks?

Yes, you can profile asynchronous Rust applications using tokio-console to diagnose runtime bottlenecks, alongside standard CPU profiling and memory analysis to guide optimization across development and release cycles.

How do I find what is causing binary bloat in my Rust release builds?

To find the cause of binary bloat in Rust release builds, you use cargo-bloat to analyze the compiled binary, identifying specific functions and dependencies consuming the most space to guide optimization efforts.