Udemy – Crash Course Digital Electronics 2021-11 – Full Version

Description

Crash Course Digital Electronics is the name of the digital electronics and robotics training course published by Udemy Academy. This course is designed not only to teach you how the basics of digital electronics work, but also to explain how we came to build such amazing things. We go back from 1839 to the Jacquard machine, considered the first programmable mechanical computer programmed using punched cards, to modern compilers, programming languages, microprocessors, microcontrollers and operating systems. I see. All tutorials are made using animation techniques to illustrate concepts and facilitate understanding. After completing a chapter, you’ll receive a quiz with a bunch of questions (including pictures and diagrams) to answer. If you understand them correctly, you can be sure to understand what I have to say in this chapter.

What you will learn in the crash course in digital electronics:

Basic concepts in digital electronics
How a processor works by building a processor from scratch
How Microprocessors and Microcontrollers Work and the Difference Between the Two
How to Load and Run Software on Microprocessors and Microcontrollers
The main design blocks of a CPU, microprocessor and microcontroller
Memory types such as Register, Cache, RAM, SRAM, DRAM, ROM, EEPROM and Flash
Various peripherals that exist in both microprocessors and microcontrollers
How technology progressed from the 18th century to 2022
Various communication protocols widely used in microcontroller
How Operating Systems (OS) Work and Why We Need Them in the First Place

Course details

Editor: Udemy
Instructor: Hardware Academy
French language
Level of training: beginner to advanced
Number of courses: 97
Training duration: 8 hours and 38 minutes

Course titles

Intensive course in digital electronics

Course prerequisites

Since the course is about digital electronics, to get the full benefit of the course, you will need to take and test your knowledge at the end of each chapter.
Basic programming skills in C/C++.
Basic knowledge of analog electronics.
Basic understanding of microcontroller programming.
A high school or equivalent understanding of math.