UDEMY STM32 Embedded Rust Foundations Peripherals Part 1 2026 BOOKWARE-MiMiR

<p>Mimir, Keeper of the Well of Wisdom</p><p>STM32 Embedded Rust: Foundations &amp;amp; Peripherals - Part 1</p><p>https://www.udemy.com/course/stm32-embedded-rust-foundations-<br/> peripherals-part-1/</p><p>Year : 2026<br/> Language : English<br/> Level : All Levels<br/> Category : IT &amp;amp; Software<br/> Subcategory : Hardware<br/> Duration : 5h 24m<br/> Lectures : 45<br/> Rating : 0.0/5 (0 reviews)<br/> Students : 30</p><p>INSTRUCTOR(S)</p><p>HEADLINE<br/> Learn Embedded Rust, no_std, STM32 HALs, GPIO, UART, timers,<br/> interrupts, and safe peripheral programming from the ground</p><p>WHAT YOU'LL LEARN<br/> * Build STM32 firmware with Rust using no_std, HALs, GPIO,<br/> UART,<br/> timers, interrupts, and Rust's safety guarantees.<br/> * Learn to program STM32 microcontrollers with Rust, from<br/> no_std<br/> fundamentals to safe, efficient peripheral control<br/> * Master Embedded Rust on STM32: no_std, HALs, GPIO, UART,<br/> timers, interrupts, ownership, and safe peripheral<br/> programming.<br/> * Develop safe STM32 firmware in Rust and gain hands-on<br/> experience with peripherals, interrupts, HALs, and no_std<br/> development.<br/> * Learn how to apply Rust's ownership and type system to real<br/> STM32 firmware while controlling GPIO, UART, timers, and<br/> interrupts.</p><p>REQUIREMENTS<br/> * A working knowledge of Rust is required. Familiarity with<br/> embedded systems or STM32 is helpful, but not required for<br/> this course.</p><p>WHO IS THIS COURSE FOR<br/> * Rust developers who want to learn embedded programming on<br/> STM32 and build safe, efficient firmware using real<br/> microcontroller peripherals.</p><p>DESCRIPTION<br/> Build Real STM32 Firmware with Rust Ready to move beyond Rust<br/> tutorials and start building real embedded firmware on STM32<br/> microcontrollers? STM32 Embedded Rust: Foundations &amp;amp;<br/> Peripherals<br/> ? Part 1 takes you from the fundamentals of embedded Rust to<br/> writing safe, efficient firmware that interacts directly with<br/> real hardware. You?ll learn how to use Rust in a resource-<br/> constrained no_std environment, work with STM32<br/> microcontrollers<br/> through Hardware Abstraction Layers (HALs), and control<br/> essential peripherals such as GPIO, UART, and timers. Along<br/> the<br/> way, you?ll discover how Rust?s ownership and type systems can<br/> help you write embedded software that is safer, more reliable,<br/> and easier to maintain?without sacrificing the low-level<br/> control<br/> and performance that STM32 developers expect. What you'll<br/> learn<br/> By the end of this course, you'll be able to: Set up a Rust<br/> development environment for STM32 embedded development<br/> Understand the fundamentals of Rust in a no_std environment<br/> Use<br/> STM32 HALs to interact with microcontroller peripherals<br/> Configure and control GPIO Implement serial communication<br/> using<br/> UART Work with hardware timers and timing Understand and use<br/> interrupts Apply Rust's ownership and borrowing model to<br/> embedded firmware Safely manage resources shared between<br/> different parts of your application Build efficient firmware<br/> without a garbage collector or runtime overhead Understand the<br/> relationship between Rust's safety guarantees and embedded<br/> systems programming Learn Embedded Rust by Building This isn't<br/> a<br/> course where you'll spend hours writing Rust code that never<br/> leaves your computer. You'll apply what you learn to the<br/> problems that embedded developers actually face: configuring<br/> hardware, communicating with peripherals, responding to<br/> interrupts, managing shared resources, and writing firmware<br/> that<br/> needs to behave predictably. You'll also develop an important<br/> mental model for idiomatic embedded Rust. Rather than simply<br/> translating C code into Rust, you'll learn how to take<br/> advantage<br/> of Rust's type system, ownership model, and compile-time<br/> guarantees to design better firmware. Why STM32 and Rust?<br/> STM32<br/> is one of the most widely used microcontroller families in<br/> embedded development. Rust brings modern language safety and<br/> powerful abstractions to this world while retaining the<br/> performance and hardware control required by resource-<br/> constrained systems. That combination makes Rust particularly<br/> compelling for developers who care about memory safety,<br/> reliability, performance, and maintainable firmware. Who is<br/> this<br/> course for? This course is designed for: Embedded C/C++<br/> developers who want to learn Rust for STM32 Rust developers<br/> looking to enter embedded systems Firmware engineers<br/> interested<br/> in modern embedded development Electronics and hardware<br/> developers who want to write firmware in Rust Students,<br/> makers,<br/> and experienced hobbyists interested in STM32 You don't need<br/> to<br/> be an expert in Rust to get started. The course introduces the<br/> embedded-specific concepts progressively while maintaining the<br/> technical depth needed to build a solid foundation. The<br/> Beginning of Your Embedded Rust Journey This is Part 1 of the<br/> STM32 Embedded Rust series. In this part, you'll establish the<br/> foundations you'll need for more advanced firmware<br/> development:<br/> Rust, no_std, STM32 HALs, GPIO, UART, timers, interrupts, and<br/> safe peripheral programming. Future parts build on these<br/> concepts to explore increasingly advanced topics such as<br/> performance, concurrency, reliability, and production-grade<br/> STM32 firmware. If you're ready to take Rust out of the<br/> desktop<br/> environment and put it to work on real microcontrollers, this<br/> course will give you the foundation you need to start building<br/> STM32 firmware with confidence.</p><p>COURSE CONTENT</p><p>Chapter 1: Setting up Rust<br/> 1. Why Use Rust<br/> 2. Installing Rust<br/> 3. Creating A Project with Cargo<br/> 4. Reusing An Existing Directory For Project Setup with<br/> Cargo<br/> 5. Understanding Rust Editions<br/> 6. Understanding Rust Channels<br/> 7. The Rust Target Tripples<br/> 8. The White House Recommends Rust For Safe Systems<br/> Programming<br/> 9. How To Get The Most Out of This Course</p><p>Chapter 2: Embedded Rust Setup<br/> 10. Understanding Cross Compilation<br/> 11. Hosted Versus Non-Hosted Environments<br/> 12. Compiling For Bare-Metal Targets<br/> 13. From Reset To Main : The Execution Sequence<br/> 14. Runtime And Panic Crates<br/> 15. Understanding The Documents Needed For Bare-Metal<br/> Development<br/> 16. ROM versus FLASH versus SRAM Memories<br/> 17. Automating Target Specification with Cargo<br/> 18. Customizing MCU Memory Layout For The Linker<br/> 19. Installing Cargo Generate<br/> 20. Streamlining Firmware Development with Cargo Generate</p><p>Chapter 3: Flashing Firmware Onto The MCU<br/> 21. OpenOCD versus Probe-rs<br/> 22. SWD JTAG And UART Interfaces<br/> 23. Host And Adapter Connections<br/> 24. Installing OpenOCD<br/> 25. OpenOCD Interfaces And Target Specifications<br/> 26. Flashing Firmware with OpenOCD<br/> 27. Introduction To Semihosting<br/> 28. Knurling Tools And Probe-rs<br/> 29. The Knurling Tools App Template</p><p>Chapter 4: ARM versus MCU Vendors<br/> 30. Relationship Between ARM And MCU Vendors<br/> 31. Core Peripherals Versus Vendor-Specific Peripherals<br/> 32. SYSTick Timer Interrupts with Cortex-m Crate</p><p>Chapter 5: Bit Fiddling In Rust<br/> 33. Unsigned 32-bit Integers<br/> 34. The Left Shift Operator<br/> 35. Creating Masks<br/> 36. Checking If A Bit Is Set<br/> 37. Setting A Bit<br/> 38. Clearing A Bit<br/> 39. A Visual Summary<br/> 40. Toggling A Bit</p><p>Chapter 6: Layers of Abstraction in Embedded Rust<br/> 41. Installing STM32CubeCLT<br/> 42. MMIO PAC HAL And BSP<br/> 43. Choosing Between The PAC And HAL<br/> 44. SVD To Rust<br/> 45. Understanding Memory-Mapped IO</p><p>DATES<br/> Published : 2026-08-09<br/> Last Updated : 2026-08-09</p><p>If you fear the truth, dont come to my well.</p>