![]() |
![]() ![]() ![]() ![]() ![]() |
![]() ![]() |
![]() |
![]() |
![]() ![]() |
Author | Message |
vaishnavi
Newbie ![]() Joined: 26Apr2007 Online Status: Offline Posts: 13 |
![]() ![]() ![]() Posted: 26Apr2007 at 10:05pm |
nterestingly we guys are very alert when we opt for a branch in UG but when it comes to Masters ppl tend to be least bothered.
VLSI Design or Microelectronics is the next boom set to hit India. With the roadmap laid out for semiconductor industry with the much awaited Indian Semiconductor Policy drafted out last month, industry is having opportunities in plenty for budding VLSI Engineers. For a glimpse have a look at the following http://www.arcweb.com/txtlstvw.aspx?LstID=a05d0007-51af-4060-998b-b39fe3490802 A TCS- IITB combined research predicts a need for more than 5000 Microelectronics and VLSI Design Engineers annually in India. Industry has been constantly complaining of the lack of adequate manpower in this particular field. So what it takes to have a career in VLSI Design. As many of you might be aware that VLSI Design or Microelectronics is the most sought after branch in M Tech admissions. To get an admission in M Tech in VLSI Design from an IIT, needs you to be at least among the top 250 rankers in GATE Exam of EC or relevant discipline to get a call. With at most 15-20 seats per IIT you can workout yourself what is the final number of students admitted in this program at IITs. So what do you do just mess up your career in some pity branch at below average NITs, or some other college. Now what makes is so difficult to move into VLSI firms. First one is the common problem throughout the Indian education system. It is very difficult to find good faculty to teach these advanced courses. VLSI industry is majorly research driven, faculty that keeps pace with this research can only justify teaching these courses and crop seeds of VLSI talent across India. Second one that is particular to the VLSI industry is the cost factor, whereas majority of research in S/W domain is based on Open Source Technologies, which just needs a computer and internet connection, colleges find it very difficult to get licenses for the expensive VLSI tools. The reason in some cases is the mismanagement of funding provided to colleges and in many a case there is no funding at all. You can still make into a VLSI Design firm and pursue you dream career provided you make some smart choices while opting for a program in M Tech. Some of the colleges that offer a good M Tech program in VLSI Design are as follows. IIT Delhi (VLSI Design Tools & Technology, Integrated Electronics and Circuits) IIT Bombay (Microelectronics) IIT Madras (Microelectronics and VLSI Design) IIT Kharagpur (Microelectronics and VLSI Design) IIT Kanpur (Electrical Engineering- VLSI Design Group) IIT Roorkee (Semiconductor Devices and VLSI) IIT Guwahati (Microelectronics) BITS Pilani (Microelectronics) IIIT Hyderabad ( VLSI & Embedded Systems) NIT Tiruchirappalli (VLSI System ) NIT Warangal (VLSI System Design) NIT Surathkal (Microelectronics) NIT Calicut (Microelectronics & VLSI Design) DA-IICT Gandhinagar (ICT) CDAC NOIDA (VLSI Design) IIITM Gwalior (VLSI Design) VEDAIIT Hyderabad (runs an MS(VLSI) Prgram in collobaration with JNTU and AMD) Following article will make the picture more clear VSI Vision – August 2005 Debate – Are the graduating students “industry-ready”? C.P. Ravikumar CTO Texas Instruments Bangalore Talk to managers who are hiring today and ask them how many students they have to interview before they hit upon a success. The numbers they quote are staggering – sometimes as high as 30. This speaks volumes about the gap in the expectations of the industry and the output coming from academic institutions. At the VLSI Education Workshop held in Jaipur in March 2005, a work session was held to debate this issue. There were about 60 participants in the workshop, including students and faculty. Since I have the privilege of talking to many colleagues in the industry, I began by loosely defining what industry feels about being “industry-ready.” Some fellow-professionals complain that students are weak in fundamental concepts. Some interviews go sour because the student cannot answer simple questions on electrical circuits, digital logic, concepts regarding setup and hold times of flops, or MOS transistors. I have heard it from multiple sources that a working knowledge of VHDL or Verilog is not a requirement from graduating students – the industry would be happier if the student was strong in fundamentals and was able to apply his/her knowledge to solve the problem using any hints provided by the interviewer. Basic computer skills are assumed to be a given from the graduating student; most companies assume the knowledge of assembly language, at least one high-level programming language, editors, compilers, debuggers and other system-software. Soft skills are being emphasized by the industry. Good communication skills, such as documentation, making presentations, and clear articulation, are expected. It is important that the new-hire is a team-player rather than an individual performer; during college education, the student is competing with fellow students to excel – after joining industry, he/she must work with colleagues and make the team win. What can this gap be attributed to? Is the curriculum in the Universities outdated? Some teachers disagree. They feel the curriculum is already strong in fundamentals. It is the execution which needs improvement, they point out. Colleges do not have sufficient resources for recruiting faculty, develop labs, and invest in software tools. The examination system promotes rote learning. In some Universities, the exam papers have choices of questions – making it unnecessary for a student to know all the topics and tempting a student to skip studying important chapters. The “ready made kits” that offer canned experiments in labs have taken away the challenge and creativity in experiments. Lack of industry interaction has had its toll. What should be emphasized and what could be deemphasized? When I have posed this question to some of my industry colleagues, the responses I have obtained are that CMOS circuit design, design flows, effect of interconnects, design timing, verification and testing must be emphasized. They have felt that BJT can be de-emphasized. In some Universities, courses relating to semiconductor devices, circuit deign and test either do not exist or are made optional. The lack of exposure and motivation often drives the students to pursue careers in software. The investment in a software lab is smaller – often, a student can use a home computer to do software assignments, reducing the dependence on labs. There is also a belief that the number of job opportunities is higher in the software industry. To the industry’s complaints about the quality of outgoing students, some academicians have an acerbic response. “If industry wants high quality, let them pay for it!” Faculty point out that Indian semiconductor industries do not have sufficient University interaction programs. Universities require assistance in terms of student and faculty internships, student projects, and research funding. The lack of a body such as the SRC (Semiconductor Research Corporation) in India is a problem. Some faculty is also sore about the apathy meted out by Industry. “Does any Indian semiconductor industry even want anything from the academia, other than students?” asked a teacher. Several others complained about lack of support from EDA vendors who sell their tools to the colleges. To make the University interaction programs sustainable, it is important to make the situation a “win-win” for all concerned – students, industry, and the faculty. To make the work session lively, I invited two participants from the audience to do a role-playing. One participant acted out the role of a faculty member and the other one acted out the role of an industry professional. The situation is, the faculty member is trying to get research project from the industry. In the initial role-play, the faculty member (actor) explained what his objective was and sought help by asking the industry to off-source some of their work to the college. It would be a win-win situation, he explained, the students have good projects to work on, and the industry can get some development done at a lower cost. The industry professional (actor) agreed to this proposal and there was a happy ending! When the audience was asked to comment on this transaction, a number of flaws were pointed out – how does the faculty member convince that he and his students can indeed carry out the development work, what about IP protection, what will the faculty member gain from this arrangement, … We then asked the actors to reverse their roles and repeat the role-play. Armed with all the feedback from the previous act, they now had a more meaningful (albeit stormy!) dialogue. The semiconductor industry indeed needs to get into such dialogues with faculty from the colleges to initiate meaningful relationships. With the formation of the Indian Semiconductor Association and the announcement of their University Gateway program, we can look forward to the beginnings of such relationships. Post Resume: Click here to Upload your Resume & Apply for Jobs |
|
![]() |
|
dinaganesh
Newbie ![]() Joined: 29Nov2007 Location: United Kingdom Online Status: Offline Posts: 1 |
![]() ![]() ![]() |
hello friend , i am doing my front end design in vlsi, but can u tell me the no. of seats and cutt off for vlsi in iits. and some universities in abroad for research in vlsi . thanks in advance
|
|
![]() |
|
![]() ![]() |
||
Forum Jump |
You cannot post new topics in this forum You cannot reply to topics in this forum You cannot delete your posts in this forum You cannot edit your posts in this forum You cannot create polls in this forum You cannot vote in polls in this forum |
|
© Vyom Technosoft Pvt. Ltd. All Rights Reserved.