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Digital Electronics: Logic Design to VLSI
9 students
Digital Electronics: Logic Design to VLSI
Master number systems, Boolean algebra, K-Maps, combinational & sequential circuits, flip-flops, counters & VLSI basics.
Created byNation Innovation
Last updated 8/2026
English
What you'll learn
- Convert between binary, octal, hexadecimal, BCD, and Gray code number systems to solve digital electronics and digital circuit design problems.
- Apply Boolean Algebra, De Morgan's Theorem, SOP/POS canonical forms, and logic simplification techniques to design efficient digital logic circuits.
- Simplify complex Boolean expressions using Karnaugh Maps (K-Maps) with up to four variables, including don't-care conditions for logic optimization.
- Design and analyse combinational circuits including adders, subtractors, multiplexers, demultiplexers, encoders, decoders, and comparators
- Analyse and design sequential circuits using SR, JK, D, and T flip-flops, including excitation tables, state diagrams, and master-slave configurations
- Design registers and counters — shift registers, ripple counters, synchronous mod-N counters, ring counters — and verify self-starting sequences
- Implement digital logic circuits using 7400-series ICs and free logic simulation software while verifying truth tables and analyzing circuit behavior.
- Understand VLSI fundamentals — CMOS logic, MOSFET operation, and logic families — and relate digital design principles to VLSI implementation
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Course content
11 sections • 99 lectures • 11h 50m total length
Requirements
- No prior knowledge of digital electronics or circuit design is required — this course starts from the very basics with number systems and logic gates
- A basic understanding of high school mathematics — binary numbers, algebraic manipulation — is helpful but not mandatory; all relevant concepts are introduced in the course
- A notebook and pen for drawing circuit diagrams and completing truth tables alongside the lectures; this significantly improves retention of the material
- A willingness to work through solved examples step by step — digital logic design is a skill that develops through practice, and following along with circuit problems is essential
Description
This course takes you from the fundamentals of Digital Electronics all the way to the principles of VLSI Design, CMOS Technology, and Digital Logic Design — in a single, structured learning path that requires no prior background in electronics.
Modern processors, semiconductor chips, FPGAs, embedded systems, and computer hardware rely on the same core concepts taught in this course. Understanding how digital systems work at the gate and circuit level is the foundation for careers in VLSI Design, FPGA Design, Embedded Systems, Semiconductor Engineering, Computer Architecture, and Digital Electronics.
The course is designed to build strong conceptual understanding through step-by-step explanations, circuit diagrams, solved examples, and practical applications. Whether you are preparing for GATE, ESE, PSU examinations, university coursework, or a career in the semiconductor industry, this course provides a solid foundation in Digital Electronics and VLSI Fundamentals.
In this course, you will learn:
Number systems and codes— binary, octal, hexadecimal, BCD, Gray code, and conversions between all systems
Boolean algebra— laws, theorems, De Morgan's theorem, SOP and POS canonical forms, and logic simplification
Logic gates— AND, OR, NOT, NAND, NOR, XOR, XNOR — truth tables, symbols, and universal gate implementations
Karnaugh Maps (K-Maps)— 2, 3, and 4-variable minimisation, grouping rules, don't-care conditions, and circuit optimisation
Combinational circuits— half adder, full adder, subtractor, multiplexers, demultiplexers, encoders, decoders, and comparators
Sequential circuits— SR, JK, D, and T flip-flops; race-around condition; master-slave configuration; characteristic equations and excitation tables
Registers and counters— shift registers, ripple counters, synchronous counters, modulus counters, ring counters, and self-starting sequences
VLSI fundamentals— introduction to CMOS logic, MOSFET operation, logic families, and how digital circuits are implemented at the silicon level
The course is aligned with the GATE, ESE, and PSU digital electronics syllabus, making it equally useful for university students, working engineers refreshing their fundamentals, and competitive exam aspirants. Step-by-step explanations, solved examples, and circuit diagrams are used throughout.
Who this course is for:
- Electronics & EE students: Undergraduate students in electronics, electrical engineering, or computer science who need a thorough, exam-ready foundation in digital electronics as part of their curriculum.
- GATE / ESE / PSU aspirants: Competitive exam candidates preparing for GATE (ECE/EE/CS), ESE, or PSU recruitment examinations where digital electronics is a high-weightage subject requiring deep conceptual clarity.
- Aspiring VLSI engineers: Students and fresh graduates targeting careers as VLSI design engineers, verification engineers, STA engineers, or physical design engineers who need strong digital fundamentals before specialising.
- Embedded systems learners: Developers and hobbyists working with microcontrollers, FPGAs, or Arduino who want to understand the hardware logic layer beneath the software and build more robust digital systems.
- Teachers & tutors: Educators teaching digital electronics who want a well-structured, syllabus-aligned reference covering all major topics with clear explanations and worked examples for classroom use.
- Not for: Students looking for a course focused on analogue electronics, RF circuits, power electronics, or microcontroller programming — this course covers digital logic and VLSI fundamentals only.