microsoft/windows-drivers-rs
Windows Drivers Rs
This project provides a framework and toolset for developing memory-safe kernel-mode and user-mode drivers for the Windows operating system. It enables developers to build drivers using safe programming patterns that prevent common memory errors and system crashes, while providing the necessary infrastructure to interface with low-level hardware and system APIs.
The framework distinguishes itself by offering procedural macros and binding generation tools that translate complex C-style system headers into idiomatic, type-safe code. It includes a custom global allocator designed for the strict constraints of kernel environments and provides declarative macros to simplify the definition of driver entry points and system structures.
The project also incorporates a comprehensive build and packaging system that automates the integration of specialized development kits, linker configurations, and signature verification. These tools ensure that compiled driver binaries adhere to security and deployment standards, while built-in runtime hooks for panic handling help maintain system stability during unexpected failures.
Features
- Kernel-Mode Sensor Drivers - Provides a framework for developing memory-safe kernel-mode drivers that interface with low-level hardware and system APIs.
- Windows Driver Development - Enables the creation of Windows kernel-mode drivers using memory-safe language abstractions.
- Safe Kernel Abstractions - Wraps low-level system interfaces in memory-safe abstractions to reduce complexity and prevent common kernel errors.
- Kernel Memory Allocators and Synchronizers - Provides a custom global allocator designed for safe dynamic memory management within the strict constraints of kernel-mode environments.
- Rust Driver Frameworks - Provides a collection of tools and abstractions for developing memory-safe drivers for Windows.
- Memory-Safe Systems Programming - Provides a development environment that enforces strict memory safety patterns for kernel-mode software.
- Kernel FFI Binding Generators - Provides automated tools to generate type-safe bindings from complex kernel-mode C headers.
- Driver Packaging Automators - Automates the packaging and signature verification of driver files to ensure deployment compliance.
- Windows Kernel Development Kits - Provides bindings and procedural macros to translate system headers into idiomatic code for hardware communication.
- Windows Driver Build Tooling - Automates the build, signing, and deployment of secure driver binaries.
- Build Automation - Integrates with build systems to automate the compilation and packaging of kernel-mode drivers.
- Windows Driver Build Automators - Configures build workflows to integrate specialized development kits for Windows kernel-mode components.
- Kernel Linker Configurations - Automates linker configuration to streamline the creation of compliant kernel-mode binary packages.
- Hardware Abstraction Layers - Wraps low-level system primitives in safe abstractions to prevent memory errors during hardware communication.
- Kernel Panic Handlers - Implements runtime hooks for panic handling to maintain system stability and prevent crashes during unexpected failures.
- User-Mode Drivers - Enables the creation of drivers that run in isolated user-mode environments to provide secure hardware access while maintaining system stability.
- Driver Entry Point Declarations - Simplifies the definition of driver structures and system entry points using declarative macros.
- Kernel - Translates complex C-style kernel headers into type-safe code using procedural macros.
- Driver Security Compliance - Ensures driver binaries meet operating system security and deployment requirements through automated verification.
- Signature Verification Tools - Automates the validation of digital signatures on compiled driver binaries to ensure compliance with security and deployment standards.
- Kernel Panic Recovery - Provides runtime hooks to intercept critical failures and maintain system stability in kernel environments.
- Driver Metadata Declarations - Simplifies the definition of driver entry points and system structures using procedural macros to reduce boilerplate code.
