This VLSI Design course starts by covering the importance of digital design, differences between analog and digital signals, the benefits of digitization, and number systems. It includes Boolean algebra, logic gates, and simplification techniques like Karnaugh maps. The course then delves into binary addition, designing half and full adders, subtractors, and multiplexers, essential for VLSI design. It explores sequential circuits, flip-flops, registers, counters, and state machines, including Mealy and Moore models. The course concludes by detailing memory types, tri-state buffers, and programmable logic devices like PROM, PLA, PAL, CPLDs, and FPGAs, along with VLSI design styles and applications. Through these modules, participants gain a comprehensive understanding of VLSI design principles and techniques, preparing them for practical applications in the field.
Course Objectives
Online
4 units
IITM Pravartak Technologies Foundation
Technology Innovation Hub (TIH) of IIT Madras
and
L&T EduTech
Rs. 1900/- Inclusive of Tax
Students pursuing diploma/UG/PG Programs in Electrical/Electronics Engineering Department, Computer Engineering Department, or related fields interested in VLSI chip design and digital circuitry.
Fundamental understanding of digital electronics and logic design concepts
15
Dr. P. Rangarajan
Subject Matter Expert, L&T EduTech.
Dr. P. Rangarajan is a Subject Matter Expert in Electrical Engineering. He obtained his doctorate from Anna University in 2004, specializing in VLSI & Signal Processing. He earned his M.E. degree in Power Electronics from Guindy College of Engineering in 1996 and his B.E. degree in Electrical and Electronics Engineering from Coimbatore Institute of Technology in 1990. He has a total of 33 years of work experience. He has published 80 papers in international journals and holds four patents. He is also a recognized supervisor at Anna University, where he has guided nineteen Ph.D. scholars to completion. Additionally, he has executed projects funded by AICTE and DST. He received the CTS Best Faculty Award in 2014.
Need for Digital Logic Design, Introduction to Different Number System and their Conversions, Introduction to Various Codes in Digital System, Introduction to Boolean Algebra and Boolean Theorems, Minimization of Boolean Expressions by using Theorems, Canonical Forms in Digital Logic – SOP, Canonical Forms in Digital Logic – POS, Implementation of Boolean Functions with NAND and NOR Gates, Introduction to Karnaugh Map, 2 and 3 Variable K-Map Simplification with Examples, 4 Variable K-Map Simplification with Examples, K-Map Simplification for POS Expressions, Quine-McCluskey Method to Simplify Digital Logic
Design of Binary Adder, Design of Multibit Adder, Design of Binary Subtractor, Design of Parity Circuits, Design of Unsigned Multiplier, Design of Signed Multiplier, Design of Magnitude Comparator, Design of Encoder, Design of Decoder, Design of Multiplexer, Design of Demultiplexer, Design of Shifters
Design of Sequential circuits: SR Latch and Flip Flop, Design of Sequential circuits: JK Flip Flop, Design of Sequential circuits: D & T Latches and Flip Flops, Design of Sequential circuits: Registers, Design of Sequential circuits: Asynchronous Counters, Design of Sequential circuits: Synchronous Counters, Finite State Machines - Mealy State Sequential circuits, Finite State Machines - Moore State Sequential circuits
Memory and Its Types, Addressing of Memory, Digital Design using PROM, Digital Design using PLA, Digital Design using PAL, Introduction to CPLD & FPGA, VLSI Design Flow