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Internship experiecne
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Technology in student life introduction
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Today, as Integrated Circuit has become core of all electronics products, merely able to design an IC is a not sufficient but main challenges lies in high performance & low power design optimization, Robustness with PVT variation tolerance and yield improvement. I know these mysteries can be only be unraveled by design innovation, developing new ideas & algorithms to increase performance of EDA tools. I believe ICS Research Group @ University of Texas, Austin is an ideal choice which can assist me in evolving my ideas to work on these challenges and overcome them , through a well structured curriculum, excellent research faculty and facilities. My curiosity towards applied science started growing since my high school. During my engineering studies; I found courses on digital design extremely fascinating; devoted a long time in labs & library halls and this addiction motivated me to take it as my major. Through intensive screening, I bagged the chance for a research internship at STMicroelectronics Inc to complete my bachelor thesis in this domain. Bird’s eye view of FPGA Design, exposure to challenges in SoC Design and direct interaction with the designers, was an added fillip to my growing interest in IC Design as a career. My hard work finally paid off when I was awarded with best thesis award in the department along with a job placement offer from STMicroelectronics. A stronghold in Digital & VLSI Design along with extensive practical exposure internship fetched me jobs offers from various chip design companies like Freescale Semiconductor, Texas Instruments, Cypress Semiconductor and STMicroelectronics. Outside my curriculum, I worked on “Digital Image Processing”, while I assisted Dr. Kulbir Singh, in one of his research projects at Thapar Centre for Industrial Research & Development in my eighth semester of B.Engg. With thoroughly considering my interest area and offered job profile by various semiconductor companies, I decided to join Freescale Semiconductor Inc as IC Design Engineer in Place & Route domain. Today as a Senior IC R&D Engineer, I am involved in research as well as design activities in complete SoC Physical Design flow from RTL to GDSII like Logic Synthesis, Place &Route and Static Timing Analysis. My area of expertise includes “OCV aware design optimization, Leakage & Dynamic Power Reduction, Design Automation and Robust Clock Tree Design for safety clusters & automotive ICs”. My liaison with the Freescale strengthened the essential foundations laid during my under-graduation. The creative atmosphere at Freescale led me to innovate several novel methodologies and implementations, which I filed for reviews with the Freescale’s Patent Review Committee.
When plumbing goes bad, hair needs cutting, or the car goes on the fritz, who is going to get the call? Most people will answer “the plumber, the stylist, or the auto repair place down the road at Wal-Mart.” That answer is mostly correct. Although, the focus needs to be on how those people got where they are today. These people, who do so much work for us every single day, need to get some consideration. In most cases they would have gone to a vocational high school or technical college. These are special schools in which students learn the exact skills they need to complete their desired career in an accelerated period of time. More people should be encouraged to go to these schools, because we will need more Blue Collar workers in our future.
Throughout its history, Intel has centered its strategy on the tenets of technological leadership and innovation (Burgelman, 1994). Intel established its reputation for taking calculated risks early on in 1969 by pioneering the metal-oxide semiconductor (MOS) processing technology. This new process technology enabled Intel to increase the number of circuits while simultaneously being able to reduce the cost-per-bit by tenfold. In 1970, Intel once again led the way with the introduction of the world’s first DRAM. While other companies had designed functioning DRAMs, they had failed to develop a process technology that would allow manufacturing of the devices to be commercially viable. By 1972, unit sales for the 1103, Intel’s original DRAM, had accounted for over 90% of the company’s $23.4 million revenue (Cogan & Burgelman, 2004).
Electronic Applications was found in 1972, its headquarters are on San Francisco and it is a major producer of silicon chips. The company’s sales, profit and stock price have grown fast on the past years while the human resources policies have remained unchanged.
“After the integrated circuits the only place to go was down—in size that it. Large scale integration (LS) could fit hundreds of components onto one chip. By the 1980’s, very large scale integration (VLSI) squeezed hundreds of thousands of components onto a chip. Ultra-Large scale integration (ULSI) increased that number into millions. The ability to fit so much onto an area about half the size of ...
The debate over whether or not the design|architecture} design or the CISC architecture is best has been occurring for several years. whether or not design|architecture} design with its tiny however economical instruction set or the CISC architecture with its massive and straightforward to use instruction set is best has been arduous to work out. during a time once new chips ar free nearly monthly, corporations wish to create certain they need the sting over the competition. they require their chips to be designed with speed in mind. several chips have used either the Reduced Instruction Set pc or the advanced Instruction Set pc since the start of the pc era however whether or not one is best has ne'er been a clear-cut issue. They each have strengths and weaknesses. we tend to ar progressing to discuss the advantages and downsides of every design and verify that is that the higher design.
My experiences with Xilinx have heightened my hunger for knowledge in the VLSI field. Two months after joining the corporation, I applied to several part-time programs in the vicinity that would allow me to acquire an MSEE degree within two to three years. San Jose State seemed an ideal choice, for its evening MSEE courses would allow me to pursue two independent, full-time positions concurrently. The San Jose program has complimented my Xilinx duties well; both demand large levels of energy and enthusiasm while guiding me to my ultimate goal a high degree of education in VLSI sciences. The resources that I poured into both endeavors have reaped many gains. I have been promoted to a Product-Yield Engineering position within Xilinx's Coarse Grain Static Memory (CGSM) Product Engineering division.
In the past few decades, one field of engineering in particular has stood out in terms of development and commercialisation; and that is electronics and computation. In 1965, when Moore’s Law was first established (Gordon E. Moore, 1965: "Cramming more components onto integrated circuits"), it was stated that the number of transistors (an electronic component according to which the processing and memory capabilities of a microchip is measured) would double every 2 years. This prediction held true even when man ushered in the new millennium. We have gone from computers that could perform one calculation in one second to a super-computer (the one at Oak Ridge National Lab) that can perform 1 quadrillion (1015) mathematical calculations per second. Thus, it is only obvious that this field would also have s...
A fascination for Science & Technology and keen interest in the ever-growing world of technology motivated me to take up engineering. The power of research and delivering it for the growth of Society is what makes me interested in the technology side of science. I choose to major Computer science Engineering with an intense urge to delve into this challenging field. During my under graduation program I learned the various fundamentals of Computer science Engineering which together with practical course works reinforced my interest.
In 1947 with the invention of the transistor, the role of the interconnect has proven to be a critical component in the design and manufacture of integrated circuits1. Various metals and manufacturing techniques have been employed, from pure Aluminum to Tungsten plugs to the metal that is used in the High Volume Manufacture of integrated circuit today, Copper.
The main reason for HandSpring to develop the product in short period of time is highly competitive market of hand-held computing. Companies like HandSpring and 3Com are rushing to catch the potential buyers of the market to gain brand recognition and brand loyalty. Because of this competition the HandSpring is compelling IDEO to speed up their process of innovation to meet market demand.
Their commitment to R&D creates future generations of products and the manufacturing processes they use to make them, while their capital expenditures ensure the availability of state-of-the-art factories that allow them to deliver high-volume, high-performance microprocessors efficiently. Looking into the future, they will continue to manufacture quality microprocessors that will live up to the Intel name and strive towards perfecting their existing ones.
Being the top student in my secondary school (with 85.5%), I got admitted into Electronics & Instrumentation Engineering at MIT, Ujjain. My curriculum enhanced my knowledge in Microprocessors, Digital Signal Processing, and Analytical and Industrial Instrumentation. Having a strong zeal towards Information System and Computer Programming, I have also learned different languages like C, C++, SQL and PL/SQL.
I took up Computer Science and Engineering as my discipline in Bhoj Reddy Engineering College for Women affiliated to Jawaharlal Nehru Technological University, one of the premier institutes in India. My undergraduate education has been a great learning and enriching process for me. It exposed me to all the core areas of Computer Science like operating systems, database management systems, networks and network security, data structures, algorithms and software engineering. These courses have given me a good foundation in the core concepts. My interest lies in Database Management, Programming Languages, Theory of Computation, and Software Engineering. I am fully acquainted with the fast growing subjects like Object Oriented Programming, Analysis and Design. On the other hand, the intensive laboratory classes exposed me to a fascinating world of experimentation. It was here that I discovered the qualities of perseverance and diligence in myself. I feel that these courses have done a lot to prepare me for my future studies and research work.
At the Univ. of Manchester, I got more opportunities to sharpen my research and practical abilities. In the coursework of VLSI design: logic gates circuit design, I designed schematic diagram and layout, and constructed models for simulations. Subsequently, I constantly adjusted relevant parameters based on the simulations and theoretical knowledge. In two weeks of continuous testing, I ultimately designed a chip circuit with a high response speed. Additionally, in the alarm clock design project based on Microchip PIC18F6722, I not only achieved the fundamental alarm functions on the basis of the limited circuit components and a microcontroller, but independently designed extra functions so that users can load music files via USB port. The clock could produce the corresponding melody as the alarm simply through a single buzzer. Although these are simple practices, the process of applying knowledge to actual applications brings me closer to my dream of becoming an
Electrical engineering, I believe, is the only field where one’s work becomes the most instrumental part of one’s mundane activity and life, and the output produced stays forever to credit. My perception is that, this field requires a lot of patience, perseverance and management skills in order to be successful. The connection that electrical engineering offered between me and this world is the fact that you can become a person who can impact so many lives. This made me pursue Electrical Engineering. After four years of undergraduate studies in Electrical Engineering, I feel completely satisfied with my decision to choose this branch of engineering as my career option as it has revealed the most pragmatic and down-to-earth approach to tackling