My interest in VLSI is deep rooted. Even before I began studying it as a “Science” I remember reading about the gadgets in magazines. From the invention of the first silicon transistor to the microchip invented by Texas Instruments, from the first vacuum tubes and integrated circuits, to the Intel microprocessor and the present day C.P.U. – every event has been a milestone which I have not only read about but also savoured for how it has
learned the principles of circuit analysis. I learned from fundamental concepts to the advanced design and analysis methods of VLSI integrated circuits and their diverse applications, during my junior and senior years, through courses like Linear & Digital Integrated Circuits, DSP, VLSI design and their associated course projects. I was deeply impressed by how semiconductors and VLSI have brought forth a reign in electronics industry with their immensely wide applications. As an undergraduate student I
XII exam. This was my first step towards study of engineering as my undergraduate academic pursuit. Exemplary marks in my high school and top 1% rank in All India Engineering Entrance Exam helped me to secure admission to National Institute of Technology (NIT), one of the premier engineering colleges of India. Among the multitude of courses, offered in the engineering discipline, the field that is unique and offers immense diversification for research and higher studies is Electronics Engineering
indicate strong academic performance, what defines me is my constant yearning to learn by going beyond the required curriculum through active participation in various technical events and seminar. During my sophomore year, I was introduced to the field of VLSI design while working in IEEE Electronics and Robotics Special Interest Group through a seminar on the topic “The Death of Moore’s Law will spur innovation”, predicting the rise in performance of FPGAs
Electronics Bbarati Vidyapeetb University College of Engg. Pune. Email: mv14patil@gmail.com.meenacbavan2007@rediffmail.com ABSTRACT: This paper presents the methodology for monitoring patients remotely using GSM network & Very large scale integration (VLSI) technique. Patient monitoring systems consist of equipment, devices and supplies that measure, including blood pressure, body temperature, heart activity, display and record human physiological characteristics, various bodily substances (e.g. cholesterol
DEPARTMENT OF COMPUTER ENGINEERING EGCP 543 PROJECT Course Instructor Dr. YOONSUK CHOI SIVA TEJ MEKA CWID: 802327080 CONTENTS 1. Abstract 2. Introduction 3. Data encryption standard 4. Skipjack 5. Control software 6. Silicon solutions 7. Applications i. Cellular digital packet data ii. Mobile communication iii. Information vending iv. Smartcard PCMCIA
Abstract— VLSI technology has been the cornerstone of every technological achievement in the past century, but as Gordon Moore predicted it is nearing its saturation. A lot of other technologies have been researched upon to fulfill the needs of the fast paced world; one of the potential replacements is Quantum Dots Cellular Automata technology which uses Nano-sized particles to realize real time digital operations. The advantage of QCA technology over its VLSI counterpart is a set of characteristics
reality headsets. It is this engineering challenge that compels me to apply for University of Michigan’s Master’s program in Electrical and Computer Engineering. My journey in the field of electronics began when I joined Netaji Subhas Institute of Technology (NSIT, Delhi University) as an undergraduate in the Electronics & Communication Engineering (ECE) division. Keen to have a strong engineering base, I focused on foundational courses such as Semiconductor Physics, Digital Circuit Design & Computer
calculating the air gap torque of a three phase induction motor. The two research projects in this area gave me a significant insight into the varied fields where electronics can be applied. It came to my notice at this instant that Electronic Design and VLSI/Automation are interdependent and closely related areas. Thus I decided to take up research task in the field of Automation and Verification of Hardware Circuits. Getting admit from the prestigious Institute of Electronic Design and Automation (EDA)
Conventional CMOS technology comes up with a lot of margins while scaling into a nano-level. So, to overcome this, several substitute technologies have been proposed as a solution. Quantum Dot Cellular Automata (QCA) technology is one such upcoming nano-technology that can be a perfect substitute of Complementary Metal Oxide Semiconductor (CMOS) due to its high speed and low power procedure in the field of nano-science and nano-electronics. Thus, QCA overcomes the drawbacks of CMOS technology and has a substantial