linux-driver-development

Guide Linux kernel device driver development through an 8-stage workflow.

1|Updated Mar 7, 2026
One-click install
npx skills add https://github.com/gitcomit8/agent-skills --skill linux-driver-development
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: linux-driver-development
Source: https://github.com/gitcomit8/agent-skills/tree/main/linux-driver-development
Command: npx skills add https://github.com/gitcomit8/agent-skills --skill linux-driver-development

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes scripts (resource) and references (resource) components.

What problem does it solve?

This Skill streamlines the complex process of writing, debugging, and submitting high-quality Linux kernel device drivers from scratch, ensuring code is correct, idiomatic, and maintainable.

Core Features & Use Cases

  • Structured Workflow: Guides users through 8 distinct stages, from identifying device types to implementing power management and error handling.
  • Compilable Code: Guarantees that all generated code is syntactically correct and can be compiled with the Linux kernel build system.
  • Best Practices: Incorporates kernel development best practices like devm_* resource management, proper IRQ handling, and adherence to subsystem architectures.
  • Use Case: A developer needs to write a new driver for a custom I2C sensor on an embedded system. This Skill will guide them through selecting the correct subsystem, implementing the probe/remove functions, handling device tree bindings, and registering the device with the IIO framework.

Quick Start

Use the linux-driver-development skill to write a character device driver for a memory-mapped peripheral.

Frequently Asked Questions about linux-driver-development

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

FAQPage Schema
How do I write a Linux kernel device driver from scratch?

Writing a Linux kernel device driver involves an 8-stage workflow: device type identification, subsystem architecture review, skeleton implementation, device tree bindings, probe/remove functions, and power management. This ensures compilable, idiomatic C code for kernel module development.

What's the best way to implement probe and remove functions for a platform driver?

Implementing probe and remove functions for a platform driver requires using `devm_*` resource management for automatic cleanup. Proper probe/remove implementation handles device tree bindings, manages IRQs, and registers with subsystems like IIO to ensure robust kernel module behavior.

How do I add device tree bindings for an I2C sensor driver?

Adding device tree bindings for an I2C sensor driver involves defining hardware properties in the device tree and parsing them during the probe function. This process integrates with the IIO subsystem to correctly initialize and register the custom sensor.

Does this driver development workflow support power management integration?

Yes, the driver development workflow explicitly supports power management integration. It guides you through incorporating power management into the kernel module, ensuring the device driver handles power states correctly alongside robust error handling and `devm_*` resource cleanup.

Can I use this approach to build a character device driver for a memory-mapped peripheral?

Yes, you can use this approach to build a character device driver for a memory-mapped peripheral. The workflow generates compilable C code and explanations tailored to character devices, platform drivers, and I2C/SPI drivers for embedded systems.