Digital Logic Design: A Complete Guide

Name: Digital Logic Design: A Complete Guide
Rating: 4.3 (335 reviews)

Number system, K-map, Boolean Algebra, Sequential Circuit, Basic Logic Family, Computational Circuits

Created byDr.S.UMA MAHESWARI

Last updated 8/2024

English

What you'll learn

In a Digital Logic Design course, students will learn a wide range of concepts, techniques, and skills related to designing, analyzing, and implementing digital
Number Systems: Understanding binary, octal, and hexadecimal number systems and their applications in digital electronics.
Boolean Algebra: Mastering the fundamental laws and theorems of Boolean algebra, including Boolean expressions, truth tables, and logic minimization techniques.
Logic Gates: Exploring basic logic gates (AND, OR, NOT) and their properties, truth tables, logic symbols, and practical applications in digital circuits.
Combinational Logic Design: Designing and analyzing combinational logic circuits using various components such as multiplexers, demultiplexers, encoders, decode
Sequential Logic Design: Understanding sequential circuits, flip-flops, latches, registers, counters, and their applications in building memory elements, sequen
Digital Circuit Analysis: Analyzing the behavior of digital circuits using methods such as truth tables, Boolean algebra, Karnaugh maps, and timing diagrams.
Memory and Storage Elements: Exploring various types of memory devices such as RAM, ROM, and programmable logic devices (PLDs), and their role in digital system

Course content

5 sections • 50 lectures • 6h 2m total length

Number System Representation13:59
Boolean Algebra14:00
Problem Solved 1: Boolean algebra3:38
Problem solved 2: Boolean algebra2:58
Sum of Product (SOP) and Product of Sum (POS)8:25
Problem solved: SOP4:23
Explore the sum-of-products method for solving boolean expressions, including handling missing terms and applying boolean algebra rules. Derive the canonical SOP by identifying mean terms for three-variable functions.
Min Terms and Max Terms5:29
Introduction and rules of K-Map15:50
2 and 3 Variable K-Map9:52
4 variable K-map6:35
Problem Solved 1: K-Map5:32
Problem Solved 2: K-Map4:29
Using a four-variable k-map with don't care conditions, group the ones to obtain y = a' c' + b c' + b d'.
Introduction to Logic family6:44
Explore digital logic families, their logic levels, supply voltages, and common gates such as nand, nor, xor, xnor, implemented with bipolar and unipolar devices.
Standard TTL11:30
TTL: Totem Pole Output11:12
TTL: Open collector Output4:31
Practise test 1

Half Adder7:02
design a half adder as a combinational logic circuit that adds single-bit numbers with inputs a and b, producing sum and carry via xor and and gates.
Half Subtractor5:20
Full adder11:04
Design a full adder with ladder logic, deriving sum and carry from three inputs; sum = a xor b xor c, carry = ab + ac + bc.
Full Subtractor10:47
Multiplexer11:27
Demultiplexer7:16
encoder8:43
Decoder3:40
Code Converters9:41
Code converter: Part 23:08
Binary to Grey Code6:59
Magnitude Comparator6:02

Memory Unit3:54
Static Random Access Memory (RAM)1:56
Dynamic RAM1:54
Difference between Static and Dynamic RAM1:23
Static RAM uses transistors to store data as voltage and requires no refreshing, delivering speed and cost; dynamic RAM uses capacitors, stores energy, requires refreshing, and is cheaper but slower.
ROM and its types1:54
Explore what ROM is, how it differs from RAM, its non-volatile nature and bootstrap role, and ROM types such as masked ROM, PROM, EPROM, and EEPROM.
PLD and its types5:06
Problem solved: PAL3:45
Problem solved PLA6:15
Demonstrate solving a logic problem with a programmable logic array, identify prime implicants ac, bc, ab, build the program table, and implement f1 and f2 with and/or gates.
Problem solved: PROM4:00

Requirements

No, There are no pre requisites.

Description

Welcome to the world of Digital Logic Design, where the binary language of computers comes to life! In this comprehensive course, you'll dive deep into the foundational principles and techniques of designing digital circuits, laying the groundwork for understanding the inner workings of modern electronics.

Whether you're a budding electrical engineer, computer scientist, or simply fascinated by the digital world around you, this course is your gateway to unlocking the mysteries of binary logic and digital systems. Through a blend of theoretical concepts and practical hands-on exercises, you'll develop the skills and knowledge necessary to design, analyze, and optimize digital circuits with confidence.

Our aim is to provide you with a rich learning experience that not only equips you with theoretical knowledge but also empowers you to apply these concepts in real-world scenarios. Whether you're pursuing a career in electronics, computer engineering, or simply have a passion for understanding how digital systems work, this course will lay a solid foundation for your journey.

Get ready to unlock the mysteries of digital logic design and embark on a rewarding learning adventure. Let's dive in and explore the fascinating world of digital circuits together!"

Explore more , All the best my dear learners

Who this course is for:

Beginner Electronics, CS and IT Aspirants

Digital Logic Design: A Complete Guide

What you'll learn

Explore related topics

Course content

Basic and Logic family16 lectures • 2hr 9min

Computational Circuits12 lectures • 1hr 31min

Sequential circuits4 lectures • 35min

Advanced Combinational and Sequential Logic9 lectures • 1hr 17min

PLD's and Memory9 lectures • 30min

Requirements

Description

Who this course is for: