Digital Electronics

Neso Academy via YouTube

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Provider

YouTube
Pricing

Free Video
Languages

English
Duration & workload

1 day 6 hours
Sessions

On-Demand
Level

Intermediate

Found in

Explore digital electronics fundamentals in this comprehensive video course. Learn about signals, Boolean algebra, number systems, logic gates, and circuit design. Dive into topics like Karnaugh maps, combinational and sequential circuits, flip-flops, and state machines. Master concepts such as multiplexers, encoders, decoders, counters, and registers. Gain practical knowledge through examples, problem-solving techniques, and hands-on circuit analysis. Develop skills in digital system design, including programmable logic arrays and array logic.

Syllabus

What is Signal?.
What is an Analog Signal?.
What is Digital Signal?.
Need of Digital Signals.
Introduction to Digital Electronics.
Switch and Bits Intuition.
Introduction to Boolean Algebra (Part 1).
Introduction to Boolean Algebra (Part 2).
Boolean Algebra Examples (Part 1).
Boolean Algebra Examples (Part 2).
Redundancy Theorem (Boolean Algebra Trick).
Sum of Products (Part 1) | SOP Form.
Sum of Products (Part 2) | SOP Form.
Product of Sums (Part 1) | POS Form.
Product of Sums (Part 2) | POS Form.
SOP and POS Form Examples.
Minimal to Canonical Form Conversion (Part 1).
Minimal to Canonical Form Conversion (Part 2).
Examples & Tricks (SOP and POS Forms).
Positive and Negative Logic.
Dual Form.
Self Dual.
Complement Meaning and Examples.
Venn Diagram.
Switching Circuits (Part 1).
Switching Circuits (Part 2).
Statement Problems in Boolean Algebra (Part 1).
Statement Problems in Boolean Algebra (Part 2).
Introduction to Number Systems.
Binary Number System.
Decimal to Binary Conversion.
Decimal to Octal Conversion.
Decimal to Hexadecimal Conversion.
Binary to Decimal Conversion.
Octal to Decimal Conversion.
Hexadecimal to Decimal Conversion.
Octal to Binary & Binary to Octal Conversion.
Hexadecimal to Binary & Binary to Hexadecimal Conversion.
Hexadecimal to Octal & Octal to Hexadecimal Conversion.
Binary Addition.
Binary Subtraction.
Binary Multiplication.
Binary Division.
Octal Addition.
Octal Subtraction.
Octal Multiplication.
Hexadecimal Addition.
Hexadecimal Subtraction.
Hexadecimal Multiplication.
r's Complement.
(r-1)'s Complement.
1's and 2's Complement.
Shortcut for 2's Complement.
Data Representation using Signed Magnitude.
Data Representation using 1's Complement.
Data Representation using 2's Complement.
Binary Subtraction using 1's Complement.
Binary Subtraction using 2's Complement.
Classification of Codes.
Binary Coded Decimal (BCD) Code.
BCD Addition.
Shift Add 3 Method | Simple method for Binary to BCD conversion.
2421 Code.
Excess-3 Code (XS-3 Code).
Excess-3 Code Addition.
Introduction to Gray Code.
Binary to Gray Code Conversion.
Gray Code to Binary Conversion.
What is Parity?.
Hamming Code | Error detection.
Hamming Code | Error Correction.
Logic Gates (Part 1).
Logic Gates (Part 2).
Logic Gates (Part 3).
Logic Gates (Part 4).
Logic Gates (Part 5) | Important!.
Logic Gates (Part 6) | Important!.
NAND Gate as Universal Gate (Part 1).
NAND Gate as Universal Gate (Part 2).
NOR Gate as Universal Gate.
Karnaugh Map (K' Map) - Part 1.
Karnaugh Map (K' Map) - Part 2.
Karnaugh Map (K' Map) - Part 3.
K' Map and Implicants.
4 Variable Karnaugh Map (Part 1).
4 Variable Karnaugh Map (Part 2).
4 Variable Karnaugh Map (Part 3).
Don't Care in Karnaugh Map (K' Map).
Don't Care in K' Map (Response to Doubt).
K' Map using Max Terms (Part 1).
K' Map using Max Terms (Part 2).
5 variables K' Map.
Quine-McCluskey Minimization Technique (Tabular Method).
Digital Electronics Previous Year Solution of DRDO & ISRO (Part 2).
Digital Electronics Previous Year Solution of DRDO & ISRO (Part 3).
4-Bit Even Parity Generator.
Seven Segment Display Decoder.
Seven Segment Display Decoder (Part 2).
Seven Segment Display Decoder (Part 3).
Comparison between Combinational and Sequential Circuits.
Half Adder.
Full Adder.
Full Adder using Half Adder.
4 Bit Parallel Adder using Full Adders.
Half Subtractor.
Full Subtractor | Easy Explanation.
Realizing Half Adder using NAND Gates only.
Realizing Half Adder using NOR Gates only.
Realizing Full Adder using NAND Gates only.
Realizing Half Subtractor using NAND Gates only.
Realizing Half Subtractor using NOR Gates only.
Realizing Full Subtractor using NAND Gates only (Part 1).
Realizing Full Subtractor using NAND Gates only (Part 2).
2-Bit Multiplier Using Half Adders.
Carry Lookahead Adder (Part 1) | CLA Generator.
Carry Lookahead Adder (Part 2) | CLA Adder.
BCD Adder | Simple Explanation.
Introduction to Multiplexers | MUX Basic.
4X1 Multiplexer.
8X1 Multiplexer.
MUX Tree Basic | 4X1 MUX using 2X1 MUX | Easy Explanation.
Implementing 8X1 MUX using 2X1 MUX.
Implementing 8X1 MUX using 4X1 MUX (Special Case).
32X1 MUX using 8X1 MUX.
Implementation of Boolean Function using Multiplexers.
1-Bit Full Adder using Multiplexer.
Logical Expression from Multiplexer.
Introduction to Demultiplexer | 1:2 DEMUX.
1:4 Demultiplexer.
Full Subtractor using 1:8 Demultiplexer.
Demultiplexer as Decoder.
2-Bit Comparator.
Introduction to Encoders and Decoders.
Priority Encoder.
Decimal to BCD Encoder.
Octal to Binary Encoder.
Hexadecimal to Binary Encoder.
Full Adder Implementation using Decoder.
Practice Problems on Combinational Circuits (Part 1).
Practice Problems on Combinational Circuits (Part 2).
Practice Problems on Combinational Circuits (Part 3).
Practice Problems on Combinational Circuits (Part 4).
Digital Electronics Test-1.
Introduction to Sequential Circuits | Important.
SR Latch | NOR and NAND SR Latch.
What is a Clock?.
Triggering Methods in Flip Flops.
How to get Edge Triggering | Simulation using Multisim.
Difference between Latch and Flip Flop.
Introduction to SR Flip Flop.
Truth Table, Characteristic Table and Excitation Table for SR Flip Flop.
Introduction to D flip flop.
Truth Table, Characteristic Table and Excitation Table for D Flip Flop.
Introduction to JK flip flop.
Truth Table, Characteristic Table and Excitation Table for JK flip flop.
Race Around Condition or Racing in JK Flip Flop.
Master Slave JK Flip Flop.
Behaviour of Master Slave D Flip Flop.
Introduction to T flip flop.
Truth Table, Characteristic Table and Excitation Table for T flip flop.
5 Steps for Flip Flop Conversions | JK to D Flip Flop Conversion.
T Flip Flop to D Flip Flop Conversion.
SR Flip Flop to JK Flip Flop Conversion.
SR Flip Flop to T Flip Flop Conversion.
Preset and Clear Inputs in Flip Flop.
Introduction to State Table, State Diagram & State Equation.
Design Procedure for Clocked Sequential Circuits.
Mealy and Moore State Machines (Part 1).
Mealy and Moore State Machines (Part 2).
Analysis of Clocked Sequential Circuits (with D Flip Flop).
Analysis of Clocked Sequential Circuits (with JK Flip Flop).
Analysis of Clocked Sequential Circuits (with T Flip Flop).
Sequence or Pattern Detector.
Sequence Detector (Example).
State Reduction and Assignment.
ASM Chart.
ASM Chart for Moore State Machine.
Difference between Synchronous and Asynchronous Sequential Circuits.
Introduction to Counters | Important.
Types of Counters | Comparison between Ripple and Synchronous counters.
3 Bit Asynchronous Up Counter.
4 Bit Asynchronous Up Counter.
3 bit & 4 bit Asynchronous Down Counter.
3 Bit & 4 Bit UP/DOWN Ripple Counter.
Modulus of the Counter & Counting up to Particular Value.
State Diagram of a Counter.
Decade (BCD) Ripple Counter.
How to Design Synchronous Counters | 2-Bit Synchronous Up Counter.
3-Bit Synchronous Up Counter.
3-Bit & 4-bit Up/Down Synchronous Counter.
Ring Counter.
Johnson's Counter (Twisted/Switch Tail Ring Counter).
Introduction to Registers.
Data Formats and Classification of Registers.
Shift Register (SISO Mode).
Shift Register (SIPO & PIPO Mode).
Shift Register (PISO Mode).
Bidirectional Shift Register.
Universal Shift Register.
Practice Problems on Sequential Circuits (Part 2).
Practice Problems on Sequential Circuits (Part 3).
Programmable Logic Array (PLA) | Easy Explanation.
Programmable Array Logic (PAL).

Taught by

Neso Academy

Reviews

4.5 rating, based on 28 Class Central reviews

Start your review of Digital Electronics

ALEENA PAUL @aleenapaul10

Very comfortable hearing ....Easy to understand.... Simple way of explaining.... So interesting ....
BELUGA
4

The course was really helpful for me as a Engineering student. Also I would like to suggest you to also give certificate for completion of course.
Berk Evran

The content of the electronics course reveals the logic behind modern miracles. This journey, starting from the most basic laws of current and extending to the complex world of semiconductors and transistors, is an enlightenment in itself.
When doing circuit analysis, it's great to see how abstract formulas become reality. laying the foundations of the digital world with logic doors and designing a system that works with this information gives an incredible sense of success. This lesson is not just memorization, but literally "how does it work?" It is a mind-opening discipline that teaches the answer to the question
Thilagan M.S

The Digital Electronics class was highly informative and engaging. It provided a strong foundation in logic gates, Boolean algebra, combinational and sequential circuits. The practical sessions using logic trainers and simulation software helped in understanding real-time circuit behavior. Concepts like multiplexers, flip-flops, counters, and registers were taught clearly with examples. The course enhanced problem-solving and analytical skills essential for electronics and computer engineering. The instructor explained each topic in a simple and systematic way, making complex ideas easy to grasp. Overall, the class improved both theoretical knowledge and practical application in the field of digital systems and logic design.
Kushal

Taking the Digital Electronics course was a great learning experience. I gained a solid understanding of how digital systems work, starting from basic logic gates all the way to complex circuits. I learned about Boolean algebra, number systems, flip-flops, multiplexers, and how digital devices process binary data. The hands-on labs helped me apply what I learned in theory, especially when designing and testing simple circuits. At first, it was challenging to understand the logic behind each component, but over time it all started to connect. Overall, this course really improved my technical and problem-solving skills in electronics.
NNM22EE064 SURABHI R S

Good app i learnt many things in this course. Thank you to this app. Thank you for giving course Free The Digital Electronics class was highly informative and engaging. It provided a strong foundation in logic gates, Boolean algebra, combinational and sequential circuits. The practical sessions using logic trainers and simulation software helped in understanding real-time circuit behavior. Concepts like multiplexers, flip-flops, counters, and registers were taught clearly with examples. The course enhanced problem-solving and analytical skills essential for electronics and computer engineering
KISHOR KUMAR K

This course expertly covered foundational digital electronics concepts, from number systems to logic gates and sequential circuits. The practical lab sessions reinforced theoretical knowledge effectively, though more advanced project examples could further enhance learning. The modular structure was clear, aiding a methodical approach to complex topics.
The curriculum's strength lies in its comprehensive overview and methodical approach. A deeper dive into application-specific topics like microprocessors could enrich the experience. Overall, an excellent foundation.
Kishor Kumar

This course expertly covered foundational digital electronics concepts, from number systems to logic gates and sequential circuits. The practical lab sessions reinforced theoretical knowledge effectively, though more advanced project examples could further enhance learning. The modular structure was clear, aiding a methodical approach to complex topics.
The curriculum's strength lies in its comprehensive overview and methodical approach. A deeper dive into application-specific topics like microprocessors could enrich the experience. Overall, an excellent foundation.
Dokuparthi SOHALI Meeravali

It's good u can prefer this for digital system for 1st year B.tech they have explain very nicely we can understand very easily
Mekala Siddartha

Neso Academy's digital electronics course is an invaluable free resource on YouTube. It's a fantastic starting point for anyone learning the subject, and it's particularly effective for college students who need to grasp core concepts quickly and efficiently for their semester exams. While it may not be sufficient as the only resource for a comprehensive, in-depth study, its clarity and focused format make it an absolute lifesaver for many. It's an excellent example of how online education can supplement traditional classroom learning
Hariharan

The Digital Electronics certificate course was highly beneficial, providing a solid foundation in fundamental concepts such as logic gates, Boolean algebra, combinational and sequential circuits. The curriculum was well-structured, progressing fro…

The Digital Electronics certificate course was highly beneficial, providing a solid foundation in fundamental concepts such as logic gates, Boolean algebra, combinational and sequential circuits. The curriculum was well-structured, progressing from basics to advanced applications in a clear and logical manner. Faculty explanations were effective, supported by practical assignments and circuit design exercises that strengthened understanding. The course bridged theory with real-time applications, enhancing my problem-solving and analytical skills. Online flexibility made learning convenient without compromising quality. Overall, this course greatly improved my technical knowledge in Digital Electronics and will significantly support my academic progress and future professional opportunities.
DHARANESH P K

It's completely usefull and I learnt the digital electronics subject the staff can teach detailed and simple way it's completely very useful the classroom platform useful
Pryson A

Best teaching I will understand everything

It was useful to students to make a great Mark's

Every question are use full than BE student and

Diploma students
MUTHU BALA G

Yes it is very useful to learn our digital electronics subjects and most interesting because essay to understand the topics etc
Ranganth P

Hi frends it's not bad and it's used for me really happy to attend this classs and useful not vasst and not vast of time
Dubakula Dinesh
1

it was a grate learning platform and its is simple to implement in the projects and did many example questions which are very useful in examination and interview purpose
Sandra Anna Biju

This digital circuit course provides a solid foundation in core topics such as Boolean expressions, Karnaugh Maps (K-Map), flip-flops, counters, and registers. The explanations are clear and beginner-friendly, making complex concepts easier to grasp. The course progresses in a logical manner, and the real-life circuit examples help in understanding practical applications. It's ideal for students aiming to strengthen their basics electronics
Ritika Sugumaran
1

This is the first time I have attended a class in this format and wondered how effective it would be. It was very effective and therefore I would definitely be interested in attending other classes in the same format. The instructor was very knowlegeable and provided a wealth of information about the current version, especially since the last version I used was several releases ago
AKASH MATHEW

This course helped me a lot in enhancing my knowledge in digital electronics. It helped me a lot with signals, algebra, gates and many more topics.
Shreevathsa Bhat

Very helpful course and very easy to understand that digital electronics subject. Very helpful to electronic students.