Advanced Embedded Systems Programming with C and STM32 Microcontrollers Course Overview

Advanced Embedded Systems Programming with C and STM32 Microcontrollers Course Overview

The "Advanced Embedded Systems Programming with C and STM32 Microcontrollers" course is designed to provide learners with an in-depth understanding of embedded system development using the powerful and versatile STM32 microcontrollers. This comprehensive course starts with the Fundamentals of C and extends to advanced programming concepts and microcontroller hardware utilization. Through a mix of theoretical knowledge and practical exercises, students will learn to navigate the STM32 platform, implement Conditional statements, Loops, Functions, and manage Dynamic Memory Allocation, among other basic to advanced programming techniques in C.

As students progress, they will delve into Data Structures, Sorting and Searching Techniques, and Development Tools and Environment, which are crucial for managing complex projects. The course also covers STM32 GPIO Programming, Timers and PWM, DMA and ADC interfacing, and techniques to interface with various Display Units and Input Units like 7-Segment displays and keypads. Furthermore, the curriculum emphasizes the creation of Reconfigurable Reusable Firmware in C, ensuring that students acquire skills relevant to industry standards.

By the end of the course, participants will have the knowledge to tackle real-world projects, applying their skills in a Project Development module using STM32 Microcontrollers. This course is ideal for those seeking to enhance their embedded systems programming capabilities for professional advancement or hobbyist projects.

Training Advantage
Number of Learners
CoursePage_session_icon

Successfully delivered 3 sessions for over 3 professionals

Training Advantage
Number of Learners
CoursePage_session_icon

Successfully delivered 3 sessions for over 3 professionals

Purchase This Course

1,675

  • Live Training (Duration : 40 Hours)
  • Per Participant
  • Guaranteed-to-Run (GTR)
  • Classroom Training price is on request

Filter By:

♱ Excluding VAT/GST

You can request classroom training in any city on any date by Requesting More Information

  • Live Training (Duration : 40 Hours)
  • Per Participant
  • Classroom Training price is on request

♱ Excluding VAT/GST

You can request classroom training in any city on any date by Requesting More Information

Request More Information

Email:  WhatsApp:

Koenig's Unique Offerings

Course Prerequisites

To ensure that participants are able to fully engage with and benefit from the Advanced Embedded Systems Programming with C and STM32 Microcontrollers course, the following minimum prerequisites are recommended:


  • Basic understanding of electronics and microcontroller concepts
  • Familiarity with the C programming language (data types, control structures, functions, arrays)
  • Basic knowledge of binary and hexadecimal number systems
  • Experience with using a personal computer and installing software
  • Ability to read and understand technical documents in English
  • Enthusiasm and willingness to learn about embedded systems and microcontroller programming

While prior experience with ARM Cortex or STM32 microcontrollers is beneficial, it is not strictly necessary, as the course will cover the specifics of the STM32 platform.


Target Audience for Advanced Embedded Systems Programming with C and STM32 Microcontrollers

This course offers in-depth training in C programming and STM32 microcontroller for professionals looking to enhance their embedded systems skills.


  • Embedded Systems Engineers
  • Firmware Developers
  • Electrical Engineers
  • Computer Engineers
  • Systems Software Developers
  • Hardware Design Engineers
  • Technical Product Managers
  • IoT (Internet of Things) Developers
  • Robotics Engineers
  • Aerospace Engineers
  • Automotive Systems Engineers
  • Defense Systems Engineers
  • Electronics Hobbyists seeking professional development
  • Engineering Students specializing in electronics or computer science
  • Technical Leads/Managers overseeing embedded projects
  • Professionals looking to switch to embedded systems from other IT sectors


Learning Objectives - What you will Learn in this Advanced Embedded Systems Programming with C and STM32 Microcontrollers?

Introduction to the Course Learning Outcomes

This course provides comprehensive training in advanced embedded systems programming using C and STM32 microcontrollers, focusing on real-world applications, best practices, and hands-on experience.

Learning Objectives and Outcomes

  • Gain a solid understanding of C programming fundamentals and the ANSI C standard.
  • Learn the architecture and key features of STM32 ARM Cortex microcontrollers and embedded systems.
  • Develop proficiency in using control structures, functions, pointers, and data structures in C.
  • Master advanced C programming concepts including dynamic memory allocation, file handling, and low-level programming.
  • Understand the STM32 microcontroller hardware, including memory, peripherals, and security features.
  • Acquire skills in STM32 GPIO programming, interrupt handling, and peripheral interfacing.
  • Explore timer configurations, PWM techniques, and their application in STM32.
  • Learn to use DMA for efficient data transfer and ADC for interfacing with sensors in STM32.
  • Interface with various display and input devices, such as LCDs and keypads.
  • Apply best practices to develop reconfigurable and reusable firmware in C and undertake a capstone project for practical experience.

Technical Topic Explanation

Functions

Functions in programming are self-contained blocks of code designed to perform a specific task. When you create a function, you define what it does and what data (if any) it needs to operate. Once defined, you can reuse the function multiple times within your program. This makes your code more organized, modular, and easier to test and maintain. Functions are fundamental in many programming disciplines, including embedded systems programming, where efficient code is crucial due to hardware constraints. By using functions, developers can write cleaner, more efficient embedded software.

Embedded Systems

Embedded systems are specialized computing systems that integrate hardware and software to perform specific tasks within larger devices or systems. They are commonly used in products like cars, home appliances, and medical devices. Embedded systems programming typically involves languages like Embedded C, which is tailored for controlling devices and low-level operations. Professionals can enhance their skills through Embedded Systems Training and obtain certifications to demonstrate their expertise. Advanced Embedded Systems delve deeper into complex integrations and functionalities, requiring more sophisticated programming skills and comprehensive understanding of both hardware and software aspects.

STM32 Microcontrollers

STM32 microcontrollers are a family of 32-bit microcontrollers based on ARM Cortex-M processors, tailored for real-time applications. They are popular in embedded systems programming due to their energy efficiency, performance, and variety of built-in features like analog inputs and outputs, connectivity interfaces, and timers. These microcontrollers are widely used in industries like automotive, medical, and consumer electronics. For professionals looking to deepen their expertise, numerous options exist for advanced embedded systems training and Embedded Systems Certification, enhancing proficiency in both hardware manipulation and Embedded C programming.

Loops

Loops in programming are fundamental constructs that allow a set of instructions to be executed repeatedly under specific conditions. These are critical in embedded systems programming, an area of technology vital for designing intelligent devices like microcontrollers and handling tasks efficiently. Whether you’re engaged in Embedded C Training or seeking an Embedded Systems Certification, understanding loops (like for, while, and do-while) is essential. Loops make it possible to automate tasks, process data, and control device behaviors repeatedly, an integral part of learning and applying skills in Advanced Embedded Systems.

Fundamentals of C

Fundamentals of C involve learning the basic syntax and structure of the C programming language, which is crucial for developing applications and software components. This language forms the backbone of many modern systems, particularly in embedded systems programming, where efficiency and speed are paramount. By mastering the basics, professionals can advance to embedded C training and seek embedded systems certification. This foundational knowledge is also instrumental in tackling more complex topics in advanced embedded systems, creating a versatile skill set for tackling various technological challenges. Understanding C is essential for anyone looking to excel in tech-oriented careers.

Conditional statements

Conditional statements in programming are used to perform different actions based on specific conditions. These statements help direct the flow of a program by enabling decisions that guide which code blocks are executed. For example, in Embedded C Training for developing advanced embedded systems, conditional statements determine how a device behaves in response to various inputs like temperature or pressure. This concept is essential across all areas of Embedded Systems Programming and is a critical component assessed in Embedded Systems Certification. Understanding and implementing conditional statements effectively is fundamental in mastering Advanced Embedded Systems.

Dynamic Memory Allocation

Dynamic memory allocation in programming is a process where memory is assigned during runtime instead of in advance. This enables programs to use memory more efficiently, as it allocates only the amount needed and can scale according to current requirements. In embedded systems programming, managing dynamic memory is crucial due to the limited memory resources. Techniques from Advanced Embedded Systems courses or Embedded Systems Certification programs help programmers ensure their applications perform efficiently in constrained environments like those found in embedded C training modules.

Data Structures

Data structures are ways of organizing and storing data in computers so that it can be accessed and modified efficiently. They are essential for managing data in programming and computer applications. Common data structures include arrays, linked lists, stacks, queues, and trees. Each structure has advantages and is used based on the specific requirements of the data operations like searching, sorting, and indexing. The choice of data structure affects the performance and efficiency of programs, making understanding them critical for problem-solving in software development.

Timers and PWM

**Timers** and **PWM (Pulse Width Modulation)** are essential concepts in embedded systems programming, often highlighted in advanced embedded systems courses and embedded systems certification programs. Timers help in tracking how long an operation should occur, playing a crucial role in scheduling and managing activities in microcontroller-based systems. PWM is a technique used to control the amount of power delivered to a device by breaking up the signal into distinct on and off periods. This method is highly effective in managing the speed of motors and adjusting the brightness of LEDs, among other applications.

Sorting and Searching Techniques

Sorting and searching techniques are essential concepts in computer science used to organize and retrieve data efficiently. **Sorting** involves arranging data in a specific order (e.g., ascending or descending) to optimize further operations such as searching. Common sorting algorithms include QuickSort, MergeSort, and BubbleSort. **Searching**, on the other hand, is the process of finding specific data within a dataset, such as looking up a name in a sorted list. Techniques vary from simple linear searches, which check each element, to more complex binary searches, which divide and conquer by continuously halving the dataset. Both methods are foundational in programming and data management.

Development Tools and Environment

Development Tools and Environments refer to the software, interfaces, and platforms used by developers to create, test, and deploy applications and systems. This includes everything from Integrated Development Environments (IDEs), which provide a space to write, edit, and debug code, to software libraries and frameworks that offer pre-built code to help speed up development processes. These tools and environments are crucial for efficiency and accuracy in creating robust applications, including complex fields like Advanced Embedded Systems and Embedded Systems Programming. They ensure that software is built using the latest methodologies and is up to industry standards for quality and performance.

STM32 GPIO Programming

STM32 GPIO programming involves configuring and controlling the General Purpose Input/Output pins on STM32 microcontrollers, common in advanced embedded systems. These pins can be programmed to read input signals or output commands to other devices, crucial in embedded systems programming. Typically managed through Embedded C Training, developers use specific software tools and libraries to set up the GPIO modes like input, output, analog, or alternative functions. Advanced skills in this area often require embedded systems certification, reflecting a deeper understanding of microcontroller architecture and direct hardware manipulation. This knowledge is essential for creating responsive, efficient embedded applications.

DMA and ADC interfacing

DMA (Direct Memory Access) is a feature of computer systems that allows certain hardware subsystems to access main system memory independently of the CPU, optimizing the processing speed and efficiency. It's especially useful in handling large data streams. ADC (Analog-to-Digital Converter) interfacing involves connecting a device that converts analog signals into digital data for processing by computer systems. This is crucial in embedded systems programming where sensor data (analog) must be accurately and quickly converted into digital formats for analysis and response by the system. Advanced embedded systems often incorporate these technologies to enhance performance and reliability.

Display Units

Display units, a critical component of computing and electronics, are devices that visually represent textual and graphical information to users. They range from simple LED screens to sophisticated LCD and OLED panels found in computers, smartphones, and TVs. These units display data received from electronic systems, crucial in both consumer electronics and embedded systems. Despite not explicitly requiring Embedded Systems Programming or Advanced Embedded Systems knowledge, understanding display technologies benefits professionals in these fields, enhancing user interface development and hardware interaction for a more comprehensive Embedded Systems Certification.

Input Units

Input units in technology refer to the components of a computer or device that receive data from the external environment, which it will process or act upon. These can include devices like keyboards, mice, cameras, touchscreens, and sensors. In the context of embedded systems, input units are crucial as they gather inputs from the environment that embedded software, written primarily in Embedded C, responds to in real-time. This is fundamental in advanced embedded systems found in modern applications like robotics, automotive systems, and smart devices, often requiring specialized embedded systems programming and potentially leading to embedded systems certification.

Reconfigurable Reusable Firmware

Reconfigurable reusable firmware refers to customizable and adaptable software components embedded in hardware devices, allowing them to be updated or modified without replacing physical components. This technology empowers embedded systems programming by providing a foundation that can quickly adapt to new requirements or environments, enhancing both functionality and longevity. Designers who engage in Embedded C Training or pursue Advanced Embedded Systems certifications can leverage these skills to develop firmware that efficiently meets evolving technological demands, often seen in industries like telecommunications, automotive, and consumer electronics, emphasizing cost-effectiveness and sustainability.

Project Development

Project Development involves planning, executing, and overseeing the creation of a specific project from start to finish. This process begins with outlining the project’s goals, timelines, and required resources, followed by actively managing the development work to ensure it stays on track and adheres to the predefined criteria. It crucially includes various reviews and adjustments to respond to any emerging challenges or changes. Ultimately, the goal of Project Development is to deliver a final product or result that meets the initial objectives, ensuring satisfaction and effective utilization of available resources. This concept is central in fields such as software engineering, construction, and product design.

Target Audience for Advanced Embedded Systems Programming with C and STM32 Microcontrollers

This course offers in-depth training in C programming and STM32 microcontroller for professionals looking to enhance their embedded systems skills.


  • Embedded Systems Engineers
  • Firmware Developers
  • Electrical Engineers
  • Computer Engineers
  • Systems Software Developers
  • Hardware Design Engineers
  • Technical Product Managers
  • IoT (Internet of Things) Developers
  • Robotics Engineers
  • Aerospace Engineers
  • Automotive Systems Engineers
  • Defense Systems Engineers
  • Electronics Hobbyists seeking professional development
  • Engineering Students specializing in electronics or computer science
  • Technical Leads/Managers overseeing embedded projects
  • Professionals looking to switch to embedded systems from other IT sectors


Learning Objectives - What you will Learn in this Advanced Embedded Systems Programming with C and STM32 Microcontrollers?

Introduction to the Course Learning Outcomes

This course provides comprehensive training in advanced embedded systems programming using C and STM32 microcontrollers, focusing on real-world applications, best practices, and hands-on experience.

Learning Objectives and Outcomes

  • Gain a solid understanding of C programming fundamentals and the ANSI C standard.
  • Learn the architecture and key features of STM32 ARM Cortex microcontrollers and embedded systems.
  • Develop proficiency in using control structures, functions, pointers, and data structures in C.
  • Master advanced C programming concepts including dynamic memory allocation, file handling, and low-level programming.
  • Understand the STM32 microcontroller hardware, including memory, peripherals, and security features.
  • Acquire skills in STM32 GPIO programming, interrupt handling, and peripheral interfacing.
  • Explore timer configurations, PWM techniques, and their application in STM32.
  • Learn to use DMA for efficient data transfer and ADC for interfacing with sensors in STM32.
  • Interface with various display and input devices, such as LCDs and keypads.
  • Apply best practices to develop reconfigurable and reusable firmware in C and undertake a capstone project for practical experience.