دانلود کتاب نرم‌افزار تعبیه‌شده با Rust

Embedded systems provide digital access to the physical analog world. They sense and act on real world signals through sensors, actuators, and memory mapped peripherals. While traditional computers center on people and human facing applications, embedded systems center on the environment they measure and control (1.1). Embedded systems are found across a wide range of industries, including automotive, aerospace, medical devices, and consumer electronics, and are frequently responsible for controlling safetycritical functions where failure can result in harm to people or property. With the continued expansion of IoT ecosystems and connected hardware devices, the adoption of memory-safe programming languages with strong, enforceable safety guarantees is becoming increasingly important. Rust adoption can help industry address the security and safety gaps identified in European regulatory frameworks, including UNECE requirements, and has been formally recognized in NIS-related cybersecurity guidance as a language that supports secure software development through its emphasis on memory safety and concurrency correctness. This book is written for developers who already know their way around embedded programming and want to apply Rust’s strengths to produce firmware that is safer, more reliable, and easier to maintain over time. In this book, you will learn how to harness Rust’s strengths to build robust, secure, and scalable embedded systems, applying pragmatic techniques and best practices that transfer to real firmware projects. By working through the material, you will gain the practical skills to build and run no_std programs both in an emulator and on real hardware, configure microcontroller memory layouts and startup flows, and interact with peripherals through safe drivers and HAL-based abstractions. You will also learn how to share data safely between the main execution context and interrupt handlers, apply debugging techniques and basic profiling methods, and ultimately produce firmware that is production ready and built for long-term maintenance. The teaching approach is deliberately hands-on, using practical code examples, tooling-focused workflows, and proven development methodologies, supported by a ready-touse environment for experimentation.