Digital Electronics & Logic Design Circuits from Udemy

Chapter - 1: Number Systems

Number Systems Basics Part - 1

Number Systems Basics Part - 2

Number Systems Conversions-1

Number Systems Conversions-2

Arithmetics of Number Systems

Complements of Number Systems-1

Complements of Number Systems-2

Data Representation

Range Over Flow

Codes

Problems Set - 1

Problems Set - 2

Problems Set - 3

Chapter - 2: Boolean Algebra

Boolean Algebra Basics

Boolean Axioms

Boolean Properties and Theorems - 1

Boolean Properties and Theorems - 2

Concept of Duality

Dual and Complement Pairs

Logic Systems

Problems Set - 1

Problems Set - 2

Chapter - 3: Boolean Functions

Minters and Maxterms

SOP and POS forms

Types of Boolean Expressions

Generating different Functions

Problems Set - 1

Problems Set - 2

Problems Set - 3

Problems Set - 4

Problems Set - 5

Chapter - 4: K-Maps

Introduction to K-maps

Analysis of K-maps -1

Analysis of K-maps -2

Four Variable K-maps

K-map Terminology

Problems Set - 1

Problems Set - 2

Chapter - 5: Logic Gates

Classification of Logic Gates

Analysis of NOT gate

AND gate and OR gate

NAND gate and NOR gate

EX-OR gate

EX-NOR gate

XOR and XNOR Properties -1

XOR and XNOR Properties -2

Realization of Logic Gates using NAND and NOR

Alternate Logic Gates

Problems Set - 1

Problems Set - 2

Problems Set - 3

Problems Set - 4

Problems Set - 5

Chapter - 6: Combinational Logic Circuits

Classification of Digital Circuits

Half Adder Circuit

Half Subtractor Circuit

Full Adder

Full Subtractor

Summary

Multi-bit Parallel Adders

Binary Parallel Subtractor

Carry Look Ahead Adder

Multiplier Circuits

Problem on Arithmetic Circuits

Problems on Arithmetic circuits

Problem on Arithmetic Circuits

Multiplexer Fundamentals

Design of MUX

Problem on MUX - 1

Problem on MUX - 2

Problem on MUX - 3

Problem on MUX - 4

Problem on MUX - 5

Problems on MUX Set

Decoder

Design of Decoders-1

Design of Decoders-2

BCD to Seven segment decoder

Problems on Decoders - 1

Problems on Decoders - 2

Problems on Decoders - 3

Encoder

Design of Encoders

Priority Encoder

De-Multiplexer

Magnitude Comparators

Problem on Comparators

Code Converters-1

Code Converters-2

Parity Generators/Checkers

ROM-1

ROM-2

Types of ROM

Examples on ROM

Chapter - 7: Sequential Logic Circuits

NOR Latch

NAND Latch

SR Flip-Flop -1

SR Flip-Flop -2

JK Flip-Flop

D & T Flip-Flops

Interconversion of Flip-Flops

Race-around condition

Master-Slave JK Flip Flop

Problems on Flip-Flops - 1

Problems on Flip-Flops - 2

Registers

SISO and SIPO Registers

PIPO and PISO Registers

Bi-directional Shift Register

Universal Shift Register

Counters

Classification of Counters

Asynchronous Counters

Up Or Down Counters

Variable Mod Counters

BCD Counter

Synchronous Counters

Ring and Twisted-Ring Counters

Self Starting and Free Running Counters

Series and Parallel Carry Synchronous Counters

Problems on Counters and Registers - 1

Problems on Counters and Registers - 2

Analysis of Sequential circuits

Moore FSM

Serial Adder

Differences between RAM and ROM

Differences between S-RAM and D-RAM

Good to know

Know what's good

, what to watch for

, and possible dealbreakers

Covers basic number systems, boolean algebra and functions, logic gates, and combinatorial and sequential logic circuits, which are core concepts in digital logic and circuit design

Teaches methods and skills that are highly relevant to industry and academia, making it suitable for individuals interested in pursuing careers in computer engineering

Provides a comprehensive overview of digital logic and computer architecture concepts, including number systems, logic gates, combinational and sequential logic circuits, and more

Begins with the basics of number systems and boolean algebra, making it accessible to learners with no prior knowledge

Covers advanced topics such as K-maps, multiplexers, decoders, encoders, and sequential logic circuits, providing in-depth knowledge for learners interested in digital system design

Requires learners to have a basic understanding of mathematics, making it suitable for those with a background in engineering or computer science

Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Digital Electronics & Logic Design Circuits with these activities:

Review Decimal and Hexadecimal Number Systems

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Refreshes previously learned knowledge to solidify understanding of how to represent numbers in different systems.

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Read chapters 1 and 2 of the course textbook
Complete practice problems on converting decimal to hexadecimal and vice versa

Participate in Peer-Assisted Study Sessions

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Fosters collaborative learning and improves understanding by discussing course concepts with peers.

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Join or form a study group with other students in the course
Meet regularly to review course material, solve problems, and discuss concepts

Practice Boolean Algebra Simplification Problems

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Reinforces concepts of Boolean Algebra by solving a variety of simplification problems.

Browse courses on Boolean Logic

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Solve 20-30 practice problems involving Boolean Algebra simplification
Use online resources or textbooks to check answers and identify areas for improvement

Four other activities

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Follow Tutorials on K-Map Analysis Techniques

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Develops skills in analyzing and simplifying Boolean functions using K-maps, a graphical method for logic minimization.

Browse courses on Combinational Logic

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Watch video tutorials or read articles on K-map analysis techniques
Apply learned techniques to solve sample problems

Review 'Digital Design: Principles and Practices' by John F. Wakerly

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Provides a comprehensive and in-depth understanding of digital logic and circuit design, supplementing the course material.

View Digital Design on Amazon

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Read relevant chapters of the book to reinforce course concepts
Complete practice problems and exercises provided in the book

Design and Implement a Combinational Logic Circuit

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Applies knowledge of combinational logic circuits to design and implement a practical circuit.

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Choose a specific combinational logic circuit to implement, such as an adder or decoder
Design the circuit using logic gates and draw the circuit diagram
Build the circuit using physical components or simulate it using a software tool
Test the functionality of the circuit and troubleshoot any errors

Contribute to Open-Source Projects Related to Digital Logic

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Provides practical experience in applying digital logic concepts while contributing to the open-source community.

Browse courses on Open Source

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Identify open-source projects on platforms like GitHub that involve digital logic or circuit design
Choose a project to contribute to and understand its goals and requirements
Implement new features, fix bugs, or improve documentation
Submit pull requests and collaborate with project maintainers

Career center

Learners who complete Digital Electronics & Logic Design Circuits will develop knowledge and skills that may be useful to these careers:

Logic Designer

Logic Designers are responsible for the design and development of digital logic circuits, which are used in a wide variety of electronic devices, from computers and smartphones to medical equipment and industrial machinery. This course provides a comprehensive foundation in the principles of digital electronics, from number systems and Boolean algebra through combinational and sequential logic circuits.

See salaries and explore the career path for Logic Designer

Hardware Engineer

Hardware Engineers design, develop, and test computer hardware, including processors, memory devices, and circuit boards. This course provides a strong foundation in the principles of digital electronics, which are essential for understanding and designing hardware systems.

See salaries and explore the career path for Hardware Engineer

ASIC Designer

ASIC Designers design and develop application-specific integrated circuits (ASICs), which are used in a wide variety of electronic devices, from smartphones and tablets to medical equipment and industrial machinery. This course provides a comprehensive foundation in the principles of digital electronics, with a particular focus on combinational and sequential logic circuits, which are essential for understanding and designing ASICs.

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FPGA Engineer

FPGA Engineers design and develop field-programmable gate arrays (FPGAs), which are used in a wide variety of electronic devices, from smartphones and tablets to medical equipment and industrial machinery. This course provides a comprehensive foundation in the principles of digital electronics, with a particular focus on combinational and sequential logic circuits, which are essential for understanding and designing FPGAs.

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Embedded Software Engineer

Embedded Software Engineers develop software that runs on embedded systems, which are used in a wide variety of electronic devices, from smartphones and tablets to medical equipment and industrial machinery. This course provides a strong foundation in the principles of digital electronics, which are essential for understanding and developing software for embedded systems.

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Systems Engineer

Systems Engineers design, develop, and integrate complex systems, including electronic systems, computer systems, and telecommunications systems. This course provides a broad overview of the principles of digital electronics, which are essential for understanding and designing complex systems.

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Test Engineer

Test Engineers develop and execute tests to verify the functionality and performance of electronic devices and systems. This course provides a foundation in the principles of digital electronics, which are essential for understanding and designing tests for electronic devices and systems.

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Technical Writer

Technical Writers create technical documentation, such as manuals, white papers, and articles, for a variety of audiences, including engineers, scientists, and consumers. This course provides a foundation in the principles of digital electronics, which can be helpful for understanding and writing about technical topics.

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Sales Engineer

Sales Engineers sell and support technical products and services to customers. This course provides a foundation in the principles of digital electronics, which can be helpful for understanding and selling technical products and services.

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Product Manager

Product Managers are responsible for the development and marketing of products. This course provides a broad overview of the principles of digital electronics, which can be helpful for understanding the technical aspects of products and for making decisions about product development and marketing.

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Teacher

Teachers teach students about a variety of subjects, including science, technology, engineering, and mathematics. This course provides a foundation in the principles of digital electronics, which can be helpful for teaching students about electronics and computer systems.

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Electrical Engineer

Electrical Engineers design, develop, and test electrical systems and components, including digital circuits. This course provides a foundation in the principles of digital electronics, which is essential for understanding and designing electrical systems and components.

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Computer Scientist

Computer Scientists design, develop, and analyze computer systems and software. This course provides a foundation in the principles of digital electronics, which is essential for understanding and designing computer systems and software.

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Software Engineer

Software Engineers design, develop, and test software applications. This course provides a foundation in the principles of digital electronics, which can be helpful for understanding the hardware that software runs on.

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Data Scientist

Data Scientists collect, analyze, and interpret data to extract insights and make predictions. This course provides a foundation in the principles of digital electronics, which can be helpful for understanding the hardware that data is stored on and processed by.

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