rust-patterns

Apply idiomatic Rust patterns for ownership, error handling, and concurrency.

Updated Mar 19, 2026
One-click install
npx skills add https://github.com/espensev/ai-skills --skill rust-patterns-espensev
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: rust-patterns
Source: https://github.com/espensev/ai-skills/tree/main/gemini-skills/skills/rust-patterns
Command: npx skills add https://github.com/espensev/ai-skills --skill rust-patterns-espensev

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Rust projects can drift into unsafe memory handling, error-prone patterns, and confusing abstractions. This guide codifies idiomatic Rust practices to help you write safe, maintainable, and high-performance code by enforcing ownership discipline, clear error handling, and robust abstractions.

Core Features & Use Cases

  • Ownership and borrowing conventions to prevent data races and undefined behavior.
  • Error handling strategies using Result with thiserror/anyhow, enums, and explicit error types.
  • Traits, generics, and zero-cost abstractions for flexible, high-performance APIs.
  • Safe concurrency patterns with Arc<Mutex<T>> and message passing for multi-threaded code.
  • Clear module structure and data modeling patterns to improve maintainability.

Quick Start

Start by auditing a Rust module and applying the ownership, error handling, and trait-based patterns described here.

Frequently Asked Questions about rust-patterns

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

FAQPage Schema
How do I implement safe concurrency patterns in Rust to prevent data races?

Safe Rust concurrency patterns use Arc<Mutex<T>> for shared state and message passing for multi-threaded code. These idiomatic patterns ensure data race prevention and thread safety without undefined behavior in concurrent applications.

What's the best way to handle errors in Rust using Result and explicit error types?

Idiomatic Rust error handling uses Result with thiserror or anyhow, enums, and explicit error types. This strategy ensures robust error propagation and clear API boundaries across library and application codebases.

How do I apply Rust ownership and borrowing conventions to prevent undefined behavior?

Rust ownership and borrowing conventions enforce ownership discipline to prevent data races and undefined behavior. Applying these patterns involves auditing module data flow and restricting mutable references to satisfy borrow checker rules.

Can I use Rust traits and generics for zero-cost abstractions in high-performance APIs?

Rust traits and generics enable zero-cost abstractions for flexible, high-performance APIs. Using trait bounds and generic parameters allows compile-time polymorphism, ensuring minimal public surfaces without runtime overhead.

When should I use anyhow vs thiserror for Rust error handling?

Use thiserror for explicit, library-level error types and anyhow for application-level error aggregation. Idiomatic Rust patterns apply thiserror to define minimal public surfaces and anyhow to streamline error handling in binaries.

How do I structure Rust modules to improve maintainability and data modeling?

Clear Rust module structure and data modeling patterns improve maintainability by organizing code into cohesive units. Applying these idiomatic patterns involves minimizing public surfaces and modeling domain data with explicit enums and structs.