Open In App

Digital Electronics and Logic Design Tutorials

Last Updated : 26 Mar, 2025
Summarize
Comments
Improve
Suggest changes
Like Article
Like
Share
Report
News Follow

Digital Electronics and Logic Design are key concepts in both electronics and computer science. Digital systems are at the core of everything from basic devices like calculators to advanced computing systems.

  • Digital systems use binary numbers (0s and 1s) to represent and process information.
  • Logic gates like AND, OR and NOT are combined to create circuits that perform logical operations on binary inputs.
  • Combinational circuits produce outputs based only on current inputs, without storing any past information.
  • Sequential circuits use memory elements, such as flip-flops, to store and process information over time.
  • The principles of digital electronics and logic design are fundamental in building processors, memory systems and many other computing applications.

In this Digital Electronics and Logic Design tutorial, we will dive deep into the fundamentals and advanced concepts like the Number System, Logic Gates, Boolean Algebra, Combinational Circuits, Sequential Circuits, etc.

Introduction

  1. What is Digital Electronics and Logic Design?
  2. Difference Between Analog and Digital Systems
  3. Characteristics of Digital Systems

Number System and Representation

  1. Number System and Base Conversions
  2. Binary Number System
  3. Binary Representations
  4. Signed and Unsigned Representation
  5. Gray Code
  6. BCD or Binary Coded Decimal
  7. Excess-3 Code
  8. Octal Number System
  9. Decimal Number System
  10. Hexadecimal Number System
  11. Floating Point Representation
  12. Number System Conversion Programs

>> Quiz on Number System and Representation

Logic Gates

  1. Logic Gates Introduction
  2. AND Gate
  3. OR Gate
  4. NOT Gate
  5. NAND Gate
  6. NOR Gate
  7. XOR Gate
  8. XNOR Gate
  9. Logic Gates using NAND and NOR
  10. Applications of Logic Gates

Boolean Algebra

  1. Boolean Algebra Introduction
  2. Properties of Boolean algebra
  3. Representation of Boolean Functions
  4. Canonical and Standard Form
  5. Sum of Product (SOP) Form
  6. Product of Sum (POS) Form
  7. Functional Completeness
  8. DeMorgan's Theorem

Gate-Level Minimization

  1. Minimization of Boolean Functions
  2. K-Map(Karnaugh Map)
  3. 5 variable K-Map
  4. Don’t Care Conditions
  5. Implicants in K-Map
  6. Quine-McCluskey Method (Tabular Method)
  7. Variable Entrant Map (VEM)
  8. Consensus theorem

>> Quiz on Logic Gates, Boolean Algebra and Minimization

Combinational Circuits

  1. Combinational Circuit Introduction
  2. Half-Adder
  3. Half-Subtractor
  4. Half-Adder and Half-Subtractor using NAND NOR Gates
  5. Full-Adder
  6. Full Subtractor
  7. Parallel Adder & Parallel Subtractor
  8. Carry Look-Ahead Adder
  9. BCD Adder
  10. Code Converters – BCD(8421) to/from Excess-3
  11. Code Converters – Binary to/from Gray Code
  12. Code Converters – BCD to 7 Segment Decoder
  13. Multiplexers
  14. Demultiplexer
  15. Encoders and Decoders
  16. Encoder
  17. Binary Decoder
  18. Combinational circuits using Decoder
  19. Magnitude Comparator
  20. Static Hazards

>> Quiz on Combinational Circuits

Sequential Circuits

  1. Introduction to Sequential Circuits
  2. Difference Between Combinational and Sequential Circuits
  3. Latches
  4. One bit memory cell
  5. Flip-Flops(Types and Conversions)
  6. SR Flip-Flops
  7. JK Flip-Flops
  8. D Flip-Flops
  9. T Flip-Flops
  10. Master Slave JK Flip Flop
  11. Synchronous Sequential Circuits
  12. Asynchronous Sequential Circuits
  13. Synchronous vs Asynchronous Sequential Circuits
  14. State Reduction and State Assignment

>> Quiz on Sequential Circuits

Register and Counters

  1. Registers
  2. Shift Registers
  3. Serial In Serial Out (SISO) Shift Register
  4. Serial In Parallel Out (SIPO) Shift Register
  5. Parallel In Serial Out (PISO) Shift Register
  6. Parallel In Parallel Out (PIPO) Shift Register
  7. Universal Shift Register
  8. Counters
  9. Ripple Counter
  10. Ring Counter
  11. Johnson Counter
  12. Design of Counters for Specific Sequences
  13. Amortized analysis for increment in counter
  14. Registers Vs Counters
  15. RTL (Register Transfer Level) design vs Sequential logic design

Memory and Programmable Logic

  1. Read-Only Memory (ROM)
  2. Random Access Memory (RAM)
  3. RAM vs ROM
  4. Programmable Logic Array
  5. Programming Array Logic
  6. Field-Programmable Gate Arrays (FPGAs)
  7. Logic Family
  8. Operational Amplifier (op-amp)

Hardware Description Languages (HDLs)

  1. Hardware Description Language
  2. Introduction to Verilog
  3. Verilog Data Types
  4. Introduction to VHDL
  5. HDL Model of Combinational Circuits
  6. HDL Model of Sequential Circuits

Data Communication

  1. Data Communication
  2. Block Coding
  3. Difference between Unipolar, Polar and Bipolar Line Coding
  4. Difference between Broadband and Baseband Transmission
  5. Transmission Impairment
  6. What is Scrambling?
  7. Analog to Analog Conversion (Modulation)
  8. Analog to digital conversion
  9. Digital to Analog Conversion

FAQs for Digital Electronics and Logic Design Tutorials

What is digital electronics?

Digital electronics is the branch of electronics that deals with digital signals, which are discrete levels of voltage representing binary numbers (0s and 1s). It forms the basis for the design and operation of digital devices like computers, smartphones and many other modern electronic systems.

What is logic design in digital electronics?

Logic design is the process of creating circuits that perform specific functions based on binary logic. It involves using logic gates and combinational and sequential circuits to create complex digital systems that can perform a variety of tasks.

What are the prerequisites for learning digital electronics and logic design?

A basic understanding of electrical circuits and fundamental concepts in electronics is recommended. Familiarity with binary numbers and Boolean algebra is also beneficial.

Why is digital electronics important?

Digital electronics is crucial because it forms the foundation of modern computing and communication systems. It enables the development of complex electronic devices and systems that are faster, more efficient and more reliable than their analog counterparts.


Article Tags :

Similar Reads

three90RightbarBannerImg