m07-concurrency

Coordinate safe concurrent patterns in Rust across threads and async contexts.

Updated Aug 23, 2026
One-click install
npx skills add https://github.com/mberetvas/dbt-migrator --skill m07-concurrency-mberetvas
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: m07-concurrency
Source: https://github.com/mberetvas/dbt-migrator/tree/main/.github/skills/m07-concurrency
Command: npx skills add https://github.com/mberetvas/dbt-migrator --skill m07-concurrency-mberetvas

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Rust concurrency can be error-prone and hard to reason about, making it difficult to write safe, scalable concurrent code. This skill aggregates core concepts, patterns, and practical examples to help developers design and implement robust concurrent solutions.

Core Features & Use Cases

  • Pattern guidance for CPU-bound vs I/O-bound workloads, including thread spawning, async tasks, and hybrid models.
  • Practical templates for common data-sharing scenarios using Arc<Mutex<T>>, channels, and task coordination.
  • Real-world use cases such as parallel data processing, concurrent fetches, and graceful shutdown patterns.

Quick Start

Show me a concrete Rust concurrency pattern using tokio and channels for a multi-task workflow.

Frequently Asked Questions about m07-concurrency

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

FAQPage Schema
How do I coordinate safe concurrent patterns in Rust across threads and async tasks?

Rust concurrency patterns coordinate safe concurrent execution across threads and async tasks using Arc<Mutex<T>>, channels, and task orchestration to satisfy Send/Sync requirements and ensure robust error handling.

What's the best way to share data between Rust tokio tasks using Mutex and channels?

Sharing data between tokio tasks uses practical templates for Arc<Mutex<T>> and channels, providing structured task coordination and graceful shutdown patterns for concurrent Rust workloads.

When should I use Rust async-await with tokio versus spawning OS threads for CPU-bound versus I/O-bound workloads?

Rust async-await with tokio suits I/O-bound workloads, while OS thread spawning fits CPU-bound tasks; pattern guidance helps design hybrid models for scalable concurrent solutions.

Does Rust concurrency require explicit Send and Sync implementations for task orchestration?

Rust concurrency requires satisfying Send and Sync traits for safe task orchestration across threads and async contexts, ensuring data races are prevented at compile time without explicit implementations.

How to implement graceful shutdown patterns for concurrent tokio tasks and channels in Rust?

Graceful shutdown patterns for concurrent tokio tasks use channel coordination and robust error handling to safely terminate active workflows, preventing data loss during concurrent Rust application shutdown.

Why does my Rust concurrent code hang when using Mutex across multiple async tasks?

Rust concurrent code hangs from improper Mutex usage across async tasks; applying correct task orchestration patterns and robust error handling resolves deadlocks and ensures safe concurrent execution.