Does this skill support specific hardware platforms?

Yes, it includes patterns and best practices for common architectures including ARM Cortex-M, RISC-V, and specific chips like the STM32, ESP32, and nRF series.

How does this skill help with memory management?

It prevents the use of standard collections like Vec and Box, instead recommending static allocation or stack-based alternatives like the 'heapless' crate to ensure deterministic memory usage.

What is the primary purpose of the domain-embedded skill?

It provides specialized logic for Claude to handle the unique constraints of embedded systems, such as the absence of a standard library (no_std) and the lack of a dynamic heap allocator.

What common mistakes does this skill help avoid?

It helps prevent hardware conflicts by enforcing singleton patterns for peripherals and identifies unsafe practices like blocking inside Interrupt Service Routines (ISRs).

Can it assist with concurrency in embedded Rust?

Absolutely. It provides code patterns for safe interrupt handling, critical sections, and the use of frameworks like RTIC or Embassy for managing complex state machines.

Rust Embedded & No-Std Development

Name: Rust Embedded & No-Std Development
Author: lywa1998

bylywa1998

Developer Tools

Facilitates the development of resource-constrained, bare-metal Rust applications for microcontrollers and embedded systems.

About

This skill equips Claude with deep expertise in the Rust embedded ecosystem, focusing on no_std environments where heap allocation is unavailable. It enforces critical domain constraints such as interrupt safety, hardware ownership through HAL/PAC patterns, and real-time predictability. Whether you are using modern frameworks like RTIC and Embassy or writing low-level bare-metal firmware for ARM or RISC-V architectures, this skill ensures your code adheres to memory safety and hardware-level best practices to avoid common pitfalls like race conditions and memory leaks in restricted environments.

Key Features

Implements safe peripheral access using HAL traits and Singleton patterns
Provides robust patterns for interrupt-safe shared state using Mutexes and critical sections
Guides the use of heapless collections to manage memory without a heap allocator
Optimizes firmware for specific architectures including ARM Cortex-M, RISC-V, ESP32, and STM32
Enforces no_std and no_main requirements for bare-metal firmware development
0 GitHub stars

Use Cases

Building high-performance, asynchronous embedded applications using the Embassy framework
Porting existing Rust libraries to work in no_std and resource-constrained environments
Developing production-ready firmware for microcontrollers like STM32 or nRF52

About

Key Features

Implements safe peripheral access using HAL traits and Singleton patterns
Provides robust patterns for interrupt-safe shared state using Mutexes and critical sections
Guides the use of heapless collections to manage memory without a heap allocator
Optimizes firmware for specific architectures including ARM Cortex-M, RISC-V, ESP32, and STM32
Enforces no_std and no_main requirements for bare-metal firmware development
0 GitHub stars

Use Cases

Building high-performance, asynchronous embedded applications using the Embassy framework
Porting existing Rust libraries to work in no_std and resource-constrained environments
Developing production-ready firmware for microcontrollers like STM32 or nRF52