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Foundations of Embedded Systems

Introduction to Embedded Systems and Microcontrollers

Microcontroller Architecture and Core Components

Development Tools, Board Setup, and the Firmware Workflow

Digital Input and Output Fundamentals

Firmware Development with C and C++

C and C++ Concepts for Firmware Development

Registers, Bitwise Operations, and Hardware Abstraction

Timers, Delays, and Periodic Firmware Tasks

Interrupts and Event-Driven Firmware

Firmware Debugging and Testing Practices

Peripheral Interfacing and Data Acquisition

UART Serial Communication

I2C Peripheral Interfacing

SPI Peripheral Interfacing

Analog-to-Digital Conversion and Sensor Measurement

Peripheral Selection and Interface Integration

Real-Time Embedded Software

Real-Time Systems Fundamentals

Introduction to Real-Time Operating Systems

RTOS Synchronization and Inter-Task Communication

Applied Firmware Development

Integrated Microcontroller Application Project

Quiz

Question 1: Which microcontroller component stores the instructions that the processor executes?

Question 2: Which C/C++ qualifier is commonly used for a variable that can change outside the normal program flow, such as in an interrupt service routine?

Question 3: Which two signal lines are used for data and clock communication on a typical I2C bus?

Question 4: What does a microcontroller ADC do?

Question 5: What RTOS mechanism is most appropriate for passing sensor readings from one task to another task in order?

Survey and Feedback

Course Feedback Survey: How effectively did this course prepare you to develop and test basic microcontroller firmware?

Dive into the core of modern electronics with our comprehensive course, "Embedded Systems: Microcontroller Architecture and Firmware Development. " Whether you are an aspiring engineer, a hobbyist, or a software developer looking to transition into hardware, this course provides a deep, practical understanding of how microcontrollers interact with the physical world.

Dive into the core of modern electronics with our comprehensive course, "Embedded Systems: Microcontroller Architecture and Firmware Development." Whether you are an aspiring engineer, a hobbyist, or a software developer looking to transition into hardware, this course provides a deep, practical understanding of how microcontrollers interact with the physical world. Embedded systems are the invisible engines powering everything from consumer electronics and automotive systems to medical devices and the Internet of Things (IoT). In this course, you will bridge the gap between hardware and software by mastering microcontroller architecture, digital input/output, and firmware development using C and C++.

Moving beyond the basics, you will explore essential peripheral interfacing techniques, including UART, I2C, SPI, and Analog-to-Digital Conversion (ADC). You will learn how to write efficient, event-driven firmware using interrupts and timers, and discover the critical role of Real-Time Operating Systems (RTOS) in managing complex, time-sensitive tasks. You will also master the intricacies of bitwise operations, hardware abstraction, and register-level configurations, ensuring your code is both highly optimized and reliable. Furthermore, the course delves into advanced debugging practices, teaching you how to diagnose common firmware faults, utilize logic observations, and implement effective testing procedures. 

Through hands-on modules and an integrated capstone project, you will gain real-world experience in writing, debugging, and deploying robust firmware. By the end of this journey, you will possess the skills to design, build, and troubleshoot your own embedded applications, empowering you to bring your innovative hardware ideas to life.

Embedded Systems: Microcontroller Architecture and Firmware Development

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            <p>The study of embedded systems bridges the gap between hardware architecture and software engineering, forming the backbone of modern consumer, industrial, automotive, and medical technologies. This course, "Embedded Systems: Microcontroller Architecture and Firmware Development," provides a comprehensive exploration of microcontroller operations, beginning with the fundamental components of the CPU, memory, and input/output peripherals. Learners will examine the intricacies of digital logic, development board setup, and the complete firmware workflow. By establishing a strong foundation in hardware components and development tools, the curriculum prepares participants to safely and effectively configure microcontroller pins, manage digital inputs and outputs, and implement robust hardware and software debouncing strategies.</p>

<p>Building upon these foundational principles, the course advances into rigorous firmware development utilizing C and C++ programming paradigms. Participants will engage with low-level hardware abstraction, bitwise operations, and direct register access to precisely control microcontroller behavior. The curriculum systematically addresses critical timing mechanisms, interrupt-driven event handling, and systematic debugging practices essential for reliable system performance. Furthermore, the course delves into peripheral interfacing and data acquisition, detailing industry-standard communication protocols such as UART, I2C, and SPI, alongside analog-to-digital conversion techniques. The final modules introduce the complexities of Real-Time Operating Systems (RTOS), focusing on task scheduling, synchronization, and inter-task communication, ultimately culminating in an integrated capstone project where learners will design, implement, and validate a fully functional embedded application.</p>
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