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Foundations of Computer Architecture and Embedded Systems

Introduction to Embedded Systems

Core Hardware Components of a Microcontroller

Microcontrollers, Arduino, STM32, and Raspberry Pi

CPU Operation and Register Fundamentals

The CPU Instruction Cycle

CPU Registers and Basic Data Operations

From High-Level Code to Machine Instructions

Memory Architecture and Data Storage

Memory Types in Embedded Systems

Memory Organization and Addressing

The Stack, Variables, and Function Calls

Hardware Control Through Registers and Peripheral Interfaces

Memory-Mapped Input and Output

Digital Input and Output Registers

Bitwise Operations for Hardware Control

Sensors, Actuators, and Physical Responses

Assembly Language and Low-Level C

Introduction to Assembly Language

Control Flow and Conditional Execution

Low-Level C for Peripheral Access

Integrated Embedded-System Design

Tracing Software-to-Hardware Behavior

Debugging Fundamentals for Embedded Systems

Beginner Embedded Application Design

Quiz

Question 1: Which microcontroller component temporarily stores operands and calculation results during instruction execution?

Question 2: Which memory type commonly stores a microcontroller program even when power is removed?

Question 3: What is the primary purpose of a GPIO direction register?

Question 4: Which bitwise operation is commonly used to set a selected bit without changing the other bits in a hardware register?

Question 5: In a button-controlled LED system, what sequence best describes the relationship between software and physical hardware?

Survey and Feedback

Course Feedback Survey

Unlock the secrets of how software interacts with the physical world in 'Foundations of Computer Architecture and Embedded Systems. ' Have you ever wondered how a simple line of code can turn on an LED, control a motor, or read a sensor.

Unlock the secrets of how software interacts with the physical world in 'Foundations of Computer Architecture and Embedded Systems.' Have you ever wondered how a simple line of code can turn on an LED, control a motor, or read a sensor? This comprehensive course bridges the gap between high-level programming and bare-metal hardware, giving you the tools to build robust, real-world devices. Designed for aspiring embedded engineers, computer science students, and tech enthusiasts, this course demystifies the inner workings of microcontrollers and CPUs. You will embark on a fascinating journey from the fundamental CPU instruction cycle to memory architecture, hardware control, and low-level programming using C and Assembly language. We will explore popular development platforms like Arduino, STM32, and Raspberry Pi, helping you understand the critical trade-offs in processing capability, power use, and real-time behavior so you can select the right tool for your projects. By diving deep into memory-mapped I/O, bitwise operations, and peripheral interfaces, you will learn exactly how to manipulate hardware at the register level. Finally, you will bring it all together by designing, tracing, and systematically debugging your own beginner-level embedded applications. Whether you are looking to build a lucrative career in embedded systems, enhance your engineering portfolio, or simply want to master the hardware-software interface, this course provides the essential foundation you need to succeed.

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            <p>The study of computer architecture and embedded systems forms the critical bridge between software engineering and physical hardware execution. This course, Foundations of Computer Architecture and Embedded Systems, provides a comprehensive examination of how microcontrollers operate at the fundamental level to drive applications in consumer electronics, transportation, health care, and industrial control. By exploring the core hardware components of a microcontroller—including the central processing unit (CPU), memory structures, and peripheral interfaces—learners will develop a rigorous understanding of how digital instructions translate into observable physical responses. The curriculum systematically compares prominent development platforms, such as Arduino, STM32, and Raspberry Pi, to illustrate the essential trade-offs among processing capability, real-time behavior, power consumption, and hardware complexity.</p>

<p>Progressing beyond high-level abstractions, the coursework delves into the intricacies of CPU operation, register fundamentals, and the instruction cycle, tracing the precise pathway from high-level software to machine-level execution. Participants will analyze memory architecture, distinguishing between volatile and nonvolatile storage, and examine the critical role of memory-mapped input and output in direct hardware control. Through the application of bitwise operations, assembly language, and low-level C programming, learners will acquire the technical proficiency necessary to manipulate general-purpose input/output (GPIO) registers and interface with external sensors and actuators safely. Ultimately, the program culminates in integrated embedded-system design, equipping individuals with systematic debugging methodologies and the expertise to conceptualize, trace, and troubleshoot complete embedded applications from the initial code compilation down to the physical electrical signal.</p>
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