Become an Embedded System Engineer w/ this 60 Days Challenge (Udemy.com)

46 Hours of Full HD Content, 76 Sections, 555 Lectures, and 95 Articles

This Embedded Systems course is designed as a 60 Days Challenge that takes you from beginner level to building practical embedded systems skills with confidence.

You do not need prior experience in electronics, programming, or hardware.

The course follows a structured learning path where each stage introduces a new skill, helping you move step by step toward becoming an Embedded System Engineer.

What You Will Learn

By the end of this course, you will learn how to:

• Program embedded systems using C

• Work with Arduino

• Work with PIC Microcontrollers

• Understand communication protocols

• Design and simulate electronic circuits

• Build IoT projects

• Design 3D enclosures

• Design and fabricate PCBs

• Understand the fundamentals of Embedded Systems Engineering

60 Days Learning Roadmap

The course is divided into focused learning stages:

Days 1 to 10: C Programming for Embedded Systems

Days 11 to 20: Arduino Microcontroller

Days 21 to 30: PIC Microcontroller

Days 31 to 37: Communication Protocols

Internet of Things: Extra Section

Days 38 to 44: Circuit Design and Simulation

Days 45 to 50: 3D Design and Simulation

Days 51 to 60: PCB Design and Fabrication

Days 1 to 10: C Programming for Embedded Systems

You will start by learning C Programming from scratch and build the programming foundation needed for embedded systems.

You will learn:

• Data types

• Control structures

• Functions

• Arrays

• Pointers

• Dynamic memory

• Input and output

• Problem solving

• Embedded programming concepts

C is widely used in embedded systems because it gives programmers direct control over memory, hardware, and microcontrollers.

You will also learn how C is used in applications such as robotics, automotive systems, electronics, and industrial systems.

By the end of this section, you will have a stronger understanding of programming and how microcontrollers are programmed.

Days 11 to 20: Arduino Microcontroller

In this section, you will learn Arduino step by step through practical examples and projects.

You will learn:

• Arduino programming

• Digital and analog input and output

• Sensors

• Motors

• Motion detection

• Electronics basics

• IoT concepts

• Real-world Arduino applications

Arduino is an open-source microcontroller platform used to build interactive electronic systems.

This section will help you understand how software can interact with real hardware.

Days 21 to 30: PIC Microcontroller

Next, you will move into PIC Microcontrollers and learn how microcontroller systems are designed and programmed.

You will learn:

• Microcontroller architecture

• Digital logic

• Binary numbers

• Boolean algebra

• Breadboard circuits

• Schematic diagrams

• Analog and digital interfacing

• Programming microcontrollers in C

This section gives you practical experience in building and programming embedded systems using PIC Microcontrollers.

Days 31 to 37: Communication Protocols

Communication is an essential part of embedded systems.

In this section, you will learn how microcontrollers exchange information with computers, sensors, and other devices.

You will learn:

• I2C Communication

• SPI Communication

• USB Interfacing

• Serial Communication

• Arduino Communication

• PIC Microcontroller Communication

• GUI Control

• Data transfer concepts

• Networking fundamentals

• Bluetooth communication concepts

You will gain a practical understanding of how data moves between embedded devices.

Internet of Things

This additional section introduces IoT concepts and shows how embedded systems can communicate through networks and the internet.

You will understand how connected devices collect, send, and receive data.

Days 38 to 44: Circuit Design and Simulation

In this section, you will learn how to design and simulate electronic circuits before building them physically.

You will work with tools such as:

• Fritzing

• Proteus

• Altium Designer

• Yenka

You will learn:

• Electronic circuit design

• Microcontroller circuit simulation

• Arduino circuit simulation

• PCB design basics

• PCB fabrication concepts

• Electronic component placement

• Soldering fundamentals

This section gives you the practical skills needed to move from an idea to a working electronic circuit.

Days 45 to 50: 3D Design and Simulation

You will learn how to create custom 3D enclosures for electronic and microcontroller projects.

Using Fusion 360, you will learn:

• 3D modeling basics

• Creating custom enclosures

• Working with dimensions

• Extrude

• Chamfer

• Split tools

• Creating cutouts

• Importing reference models

• Fixing design errors

• Preparing designs for 3D printing

• Understanding materials and filament types

You will follow practical examples to create enclosures for Arduino boards.

Days 51 to 60: PCB Design and Fabrication

The final stage focuses on Printed Circuit Board design and fabrication.

You will learn how to design PCBs using different software tools and prepare your designs for production.

You will learn:

• PCB layout

• PCB design workflow

• Component placement

• Circuit routing

• PCB fabrication

• Fritzing PCB Design

• Proteus PCB Design

• Altium Designer

• Arduino Nano PCB Design

• 3D PCB simulation

PCB design is a major skill in electronics and embedded product development.