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Mastering STM32CubeMX 5 and CubeIDE - Embedded Systems

BHM Engineering Academy, EmbeddedExpertIO ., and Israel Gbati

Hello Welcome to the Mastering STM32CubeMX 5 and CubeIDE course

This course teaches you how build embedded systems firmware and peripheral drivers using the STM32CubeMX 5 framework and the STMCubeIDE development environment. This course has many sections but primarily the course can be divided into three parts.

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Hello Welcome to the Mastering STM32CubeMX 5 and CubeIDE course

This course teaches you how build embedded systems firmware and peripheral drivers using the STM32CubeMX 5 framework and the STMCubeIDE development environment. This course has many sections but primarily the course can be divided into three parts.

The first part deals with peripheral driver development. In this part we master how to use the STM32CubeMX framework to setup the clocks and register  parameters of our peripheral drivers and then go on to the CubeIDE development environment to complete the development and testing of peripheral drivers. We shall master different setup configurations of our peripheral drivers in this part. These peripherals include the Universal Serial Bus (USB), the PWM, the SPI, the ADC, UART and the DMA.

The second part of this master course deals with developing embedded firmware applications using some of the Middleware provided by the STM32CubeMX framework. One of such Middleware we shall master is the FreeRTOS Realtime Kernel. We shall see how to use STM32CubeMX to create tasks and semaphores and other kernel components for realtime firmware development. We shall also see how to develop these kernel components from scratch using our CubeIDE development environment alone.

The third part of the course deals with working the CubeIDE as a standalone development environment. Over here we shall see how to develop bare-metal embedded-c firmware and drivers without using any libraries. We shall literally download the microcontroller chip's datasheet and develop our firmware and drivers using information from the datasheet only. We shall then go on to use this same datasheet information to develop firmware and peripheral drivers using ARM Assembly Language.

Please take a look at the full course curriculum.

REMEMBER : I have no doubt you will love this course. Also it comes with a  FULL money back guarantee for 30 days.   So put simply, you really have nothing to loose and everything to gain.

Sign up and let's start building some drivers.

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What's inside

Learning objectives

  • Develop a usb hid mouse firmware device
  • Develop a usb hid keyboard firmware device
  • Develop a usb virtual com port firmware device
  • Develop timer peripheral drivers
  • Develop adc peripheral drivers
  • Develop spi peripheral drivers
  • Develop uart peripheral drivers
  • Develop bare-metal embedded-c firmware using cubeide
  • Develop arm assembly language firmware using cubeide
  • Configure the dma to work with peripheral drivers

Syllabus

Introduction
Introduction (Same as Promo Video)
Download CubeMX 5 and CubeIDE
Installing CubeMX 5 and CubeIDE
Read more
Quick Notice
Installing CubeMX 5 Packages
Overview of STM32CubeMX 5
Overview of the Clock Configuration Tab
Developing General Purpose Input/Output Drivers and Firmware
Coding an Input/Output Driver
Coding an Input Interrupt Driver
Coding an Input Interrupt Driver (Multiple Inputs)
Source Code Download
Embedded Systems Bare-Metal Embedded-C and Assembly Programming with CubeIDE
Coding Gpio Drivers From Scratch Using Datasheet Information (Part I)
Coding Gpio Drivers From Scratch Using Datasheet Information (Part II)
Coding ARM Assembly Applications in CubeIDE
Coding Gpio Drivers From Scratch In Assembly Language (Part I)
Coding Gpio Drivers From Scratch In Assembly Language (Part II)
Converting Keil MDK ARM Assembly Syntax to GCC Assembly Syntax
Developing General Purpose Timers Drivers and Firmware
Coding a Hardware Timer to generate precise Delays
Coding a Hardware Timer Driver for Output Compare Functionality
Coding a Hardware Timer Driver for Counting Events
Coding a Hardware Timer Driver for Generating PWM Signals
Coding a Hardware Timer Driver for Generating Precise Interrupts
Developing Analog-to-Digital Conversion (ADC) Drivers and Firmware
Coding an ADC Driver for Single Conversion Mode
Coding an ADC Driver for Continuous Mode Conversion
Coding an ADC Driver for Interrupt Conversion Mode
Coding an ADC Driver for Single-Channel DMA Mode
Coding an ADC Driver for Multi-Channel DMA Scan Mode
Developing Serial Peripheral Interface ( SPI ) Drivers and Firmware
Coding SPI Drivers for Polling Transfer Mode
Coding SPI Drivers for Interrupt Transfer Mode
Coding SPI Drivers for DMA Transfer Mode
Developing Universal Asynchronous Receiver-Transmitter ( UART ) Drivers
Coding UART Drivers for Polling Transfer Mode
Coding UART Drivers for Interrupt Transfer Mode
Coding UART Drivers for DMA Transfer Mode
Coding Multiple UART Modules
Developing Universal Serial Bus ( USB) Drivers and Firmware
Understanding the USB capabilities of different dev boards
Coding USB Drivers for Human Interface Device (HID) - Mouse Functionality
Coding USB Drivers for Human Interface Device (HID) - Keyboard Functionality
Coding USB Drivers for Virtual Com Port Functionality (TX Only)
Coding USB Drivers for Virtual Com Port Functionality (RX and TX )
Developing Real-time Firmware with FreeRTOS
Coding : Experimenting with Tasks and Priorities
Coding : Accessing Hardware Drivers from Multiple Threads
Coding : Accessing Hardware Drivers from Multiple Threads using a MUTEX
Coding : Creating Threads Manually
Coding : Sending Notifications Between Threads
Closing Remarks
Closing

Good to know

Know what's good
, what to watch for
, and possible dealbreakers
Covers peripheral driver development, including USB, PWM, SPI, ADC, and UART, which are essential for embedded systems engineers
Explores FreeRTOS, a real-time kernel, which is widely used in embedded systems for managing tasks and resources
Uses STM32CubeMX and CubeIDE, industry-standard tools for STM32 microcontroller development, which are valuable for professional embedded systems development
Teaches bare-metal embedded-C firmware development, providing a deeper understanding of microcontroller operation without relying on libraries
Includes ARM Assembly Language firmware development, which can be useful for optimizing performance-critical sections of code
Requires downloading the microcontroller chip's datasheet, which may require additional effort to locate and understand

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Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Mastering STM32CubeMX 5 and CubeIDE - Embedded Systems with these activities:
Review Embedded Systems Fundamentals
Reinforce your understanding of embedded systems concepts. This will provide a solid foundation for the course's more advanced topics.
Browse courses on Embedded Systems
Show steps
  • Review basic microcontroller architecture and operation.
  • Brush up on C programming fundamentals, especially pointers and memory management.
  • Familiarize yourself with common embedded peripherals like GPIO, timers, and UART.
Read 'Embedded Systems Architecture' by Tammy Noergaard
Gain a deeper understanding of embedded systems architecture. This will help you make informed decisions when configuring peripherals and developing firmware.
View Embedded Systems Architecture: A Comprehensive... on Amazon
Show steps
  • Read the chapters related to microcontroller architecture and memory organization.
  • Focus on sections covering peripheral interfaces and communication protocols.
  • Take notes on key concepts and design considerations.
Practice STM32CubeMX Configuration
Reinforce your ability to configure STM32 microcontrollers using STM32CubeMX. This will help you quickly set up projects and generate initialization code.
Show steps
  • Create a new project in STM32CubeMX for a specific STM32 microcontroller.
  • Configure the system clock and GPIO pins for basic input/output operations.
  • Generate the initialization code and import it into CubeIDE.
  • Write a simple program to toggle an LED using the configured GPIO pin.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Document Your Learning Journey
Solidify your understanding by documenting your learning process. This will help you identify gaps in your knowledge and track your progress.
Show steps
  • Create a blog or online notebook to record your experiences with STM32CubeMX and CubeIDE.
  • Document the steps you take to configure peripherals and develop firmware.
  • Share your code snippets and explanations with others.
Develop a Simple Blinking LED Project
Apply your knowledge by building a simple project. This will help you gain practical experience with STM32CubeMX and CubeIDE.
Show steps
  • Create a new project in STM32CubeMX for your target STM32 microcontroller.
  • Configure a GPIO pin as an output and connect it to an LED.
  • Generate the initialization code and import it into CubeIDE.
  • Write a program to toggle the LED on and off with a delay.
  • Debug and test your code on the target hardware.
Explore Advanced Peripherals
Expand your knowledge by exploring advanced peripherals. This will help you develop more complex embedded systems applications.
Show steps
  • Find tutorials on using the ADC, SPI, or UART peripherals with STM32CubeMX and CubeIDE.
  • Follow the tutorials to configure the peripherals and write code to interact with them.
  • Experiment with different settings and configurations to understand their effects.
Contribute to an STM32 Project
Deepen your understanding by contributing to an open-source STM32 project. This will expose you to real-world development practices and challenges.
Show steps
  • Find an open-source STM32 project on GitHub or GitLab.
  • Identify a bug or feature that you can contribute to.
  • Fork the repository and make your changes.
  • Submit a pull request with your changes.

Career center

Learners who complete Mastering STM32CubeMX 5 and CubeIDE - Embedded Systems will develop knowledge and skills that may be useful to these careers:
Embedded Systems Engineer
An Embedded Systems Engineer designs, develops, and tests the software and hardware components that are embedded within electronic devices and systems. This role focuses on creating efficient and reliable firmware, and this course helps build a foundation in doing just that. The course's emphasis on using STM32CubeMX and CubeIDE makes it particularly relevant, as these are commonly used tools in embedded systems development. Gaining hands-on experience with peripheral drivers like USB, ADC, SPI, and UART, as well as real-time operating systems like FreeRTOS, will make a candidate more prepared for work as an Embedded Systems Engineer. Developing bare-metal firmware and working directly with datasheets, as taught in the course, are vital for engineers in this field.
See salaries and explore the career path for Embedded Systems Engineer
Firmware Engineer
A Firmware Engineer develops the low-level software that controls the hardware of electronic devices. This role requires a strong understanding of embedded systems principles, which this course delivers by covering the development of drivers and firmware for STM32 microcontrollers. The course's focus on developing peripheral drivers such as USB, SPI, and UART is directly applicable to the work of a Firmware Engineer, along with learning efficient use of real-time operating systems like FreeRTOS. Furthermore the course’s training on low level tasks like bare-metal programming and using datasheets provide invaluable skills that make a candidate a stronger Firmware Engineer. This course offers a practical approach to learning Firmware Engineering.
See salaries and explore the career path for Firmware Engineer
Computer Engineer
A Computer Engineer designs and develops computer systems and components, often dealing with both hardware and software. This course directly relates to their field by focusing on embedded systems, which is a key aspect of Computer Engineering. The course will provide practical skills in low-level programming and peripheral driver development while using STM32CubeMX and CubeIDE. The Computer Engineer will benefit from the hands-on approach of working directly with datasheets, and using real time operating systems. These will be useful skills for anyone in Computer Engineering.
See salaries and explore the career path for Computer Engineer
Internet of Things Developer
An Internet of Things Developer designs and builds the software and systems that connect everyday objects to the Internet. This position focuses on embedded systems design and development, which this course is designed to teach. The course's detailed instruction in using STM32CubeMX and CubeIDE, as well as peripheral drivers and real-time operating systems is applicable to an Internet of Things Developer. Furthermore the course provides hands-on learning experiences in low-level programming including bare-metal c and assembly language. In addition, the course provides important knowledge on USB communications, which are fundamental to the Internet of Things.
See salaries and explore the career path for Internet of Things Developer
Robotics Engineer
A Robotics Engineer designs, builds, and tests robots, which involves a blend of mechanical, electrical, and software engineering. This role frequently uses embedded systems to control the various components of a robot. The course’s practical hands-on approach when developing peripheral drivers for devices, such as timers, PWM, ADC, and UART modules, provides valuable skills for any Robotics Engineer. The course's coverage of real-time operating systems, such as FreeRTOS, are useful in the development of robots. The course’s deep dive into bare-metal programming, provides foundational knowledge needed in the field of Robotics Engineering.
See salaries and explore the career path for Robotics Engineer
Control Systems Engineer
A Control Systems Engineer designs and implements systems that control the behavior of machines and processes. This role often integrates hardware and software components, which this course helps prepare. The course's coverage of peripheral drivers such as ADC, PWM, and Timers, will help in building control systems. The course will help with working knowledge of real-time operating systems, notably FreeRTOS. The hands-on experience of using the datasheet to program bare-metal firmware, will make a candidate a stronger Control Systems Engineer.
See salaries and explore the career path for Control Systems Engineer
Automation Engineer
An Automation Engineer designs, develops, and implements automated systems and processes. This role often involves working with embedded systems and microcontrollers to control machinery and equipment. The course can be helpful by teaching the development of peripheral drivers like USB, SPI, and UART, which are used in automation systems. The focus on real time-systems and the use of FreeRTOS are useful in controlling automated processes. Furthermore the course’s emphasis on working with datasheets for bare-metal programming will contribute to a more complete understanding of automated systems for an Automation Engineer.
See salaries and explore the career path for Automation Engineer
Hardware Engineer
A Hardware Engineer designs and develops the physical components of electronic devices. While this role primarily deals with hardware, a strong understanding of how software interacts with hardware is essential for effective design, testing, and integration. This course can be helpful by covering peripheral drivers such as USB, ADC, and SPI, which allows work with hardware components at the software level. The skills in this course relating to bare-metal programming and understanding the datasheets may be helpful given these aspects of hardware engineering. Understanding the complexities of firmware and how it interfaces with hardware will make a more well-rounded Hardware Engineer.
See salaries and explore the career path for Hardware Engineer
Electrical Engineer
An Electrical Engineer designs and develops electrical systems and components. While primarily focused on hardware, they often need to understand how software interacts with hardware. This course can be helpful by covering the development of firmware and driver peripherals which is essential for understanding how hardware behaves when interacting with software. The hands-on approach of working directly with datasheets and programming bare-metal may help an Electrical Engineer better understand hardware. The course will provide practical insights into the software side of their work.
See salaries and explore the career path for Electrical Engineer
Test Engineer
A Test Engineer develops and executes tests on software and hardware systems. This role requires a good understanding of how these systems work. This course may be helpful by providing foundational knowledge in embedded systems, particularly in the development of firmware and peripheral drivers. Learning about different peripheral devices through the course and the process of working with datasheets for bare-metal programming may help a Test Engineer gain a deep understanding of the systems they are testing. The course’s practical focus on using STM32CubeMX and CubeIDE may help a Test Engineer.
See salaries and explore the career path for Test Engineer
Application Engineer
An Application Engineer provides technical support and solutions to customers who use a company's products. This role requires knowledge of a product's underlying technology and how to use it effectively. This course may be helpful by teaching embedded systems and how to develop drivers and embedded firmware using STM32 microcontrollers. The course’s hands-on approach will provide practical knowledge that may be helpful when supporting customers. Furthermore the course’s focus on low-level programming through bare-metal and using datasheets may lead to deeper more useful customer support.
See salaries and explore the career path for Application Engineer
Research Scientist
A Research Scientist conducts research in various fields. In a field related to embedded systems, the course may be helpful by providing a foundation for working with microcontrollers and developing firmware. The hands-on experience in bare-metal programming and working directly from the datasheets may help a Research Scientist. Some projects may involve the development of peripheral drivers and real time systems. A Research Scientist who works with embedded systems may find this course useful and practical.
See salaries and explore the career path for Research Scientist
Technical Consultant
A Technical Consultant advises clients on technical matters. This role requires a deep understanding of technology and its applications. This course may be helpful by teaching the fundamentals of embedded systems, including developing driver peripherals and firmware. A Technical Consultant will gain insight into bare-metal programming using datasheets as well as the development of real time operating systems. The hands-on experience provided by this course, may prove useful when consulting on embedded systems.
See salaries and explore the career path for Technical Consultant
Systems Analyst
A Systems Analyst analyzes and designs information systems. Although this role is not directly related to embedded systems, this course may be helpful by teaching the fundamentals and working methods of embedded systems, which are components of wider systems. The hands-on experience of working with peripherals and datasheets, in addition to experience with real time operating systems may be useful when a Systems Analyst is looking at the broader implications of a system. Furthermore an understanding of lower level programming may broaden the perspective of a Systems Analyst.
See salaries and explore the career path for Systems Analyst
Product Manager
A Product Manager is responsible for the strategy of a product. This position requires the manager to deeply understand product specifications. This course may be helpful by providing a Product Manager who is managing embedded systems products with a foundation in technology, through development of drivers and firmware. Understanding the practical issues with working with datasheets and bare-metal programming will make a more informed Product Manager. This course may help in this understanding by providing hands-on experience.
See salaries and explore the career path for Product Manager

Reading list

We've selected one books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Mastering STM32CubeMX 5 and CubeIDE - Embedded Systems.
Cover image
Embedded Systems Architecture
Save
Provides a comprehensive overview of embedded systems architecture. It covers hardware and software aspects, making it a valuable resource for understanding the underlying principles behind STM32CubeMX and CubeIDE. While not strictly necessary for the course, it offers deeper insights into the design choices and trade-offs involved in embedded systems development. It is commonly used as a textbook in university-level embedded systems courses.
Embedded Systems Architecture: A Comprehensive...
Paperback
$$$$

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Effort
10 total hours
Via
Udemy
Instructors
BHM Engineering Academy
EmbeddedExpertIO .
Israel Gbati
Language
English
Good to know
Covers peripheral driver development, including USB, PWM, SPI, ADC, and UART, which are essential for embedded systems engineers
Explores FreeRTOS, a real-time kernel, which is widely used in embedded systems for managing tasks and resources
Uses STM32CubeMX and CubeIDE, industry-standard tools for STM32 microcontroller development, which are valuable for professional embedded systems development
Teaches bare-metal embedded-C firmware development, providing a deeper understanding of microcontroller operation without relying on libraries
Includes ARM Assembly Language firmware development, which can be useful for optimizing performance-critical sections of code
Requires downloading the microcontroller chip's datasheet, which may require additional effort to locate and understand
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