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After
IT-enabled services, the Indian IT industry is chanting a new mantra:
chip design. Nasscom predictions that the industry will grow to
$808 million by 2005 have all the more raised expectations. Research
studies have further corroborated that the semiconductor industry
can thrive in India. Faced with recession and overwhelming costs
of construction, maintenance and equipment, global semiconductor
companies decided to outsource the manufacturing of chips. Countries
like Indiawith its talented work force, low cost and basic
skill sets capturing a significant proportion of the emerging opportunity
of chip designwere the obvious choice.
So,
on the one hand, there were multinational companies like Intel and
Texas Instruments setting up chip design centres in India. On the
other hand, more and more semiconductor companies and OEM organisations
began to outsource the development of complex technologies such
as system-on-chip to Indian start-ups and established companies
with design expertise.
Sanjay
Bhan, manager-staffing, Texas Instruments (TI), says, All
major semiconductor companies have opened up shop here and are beginning
to do more and more chip design. Companies such as TI have already
demonstrated that we can achieve chip design excellence. Services
companies as such are getting more and more into chip design services.
TI,
the first semiconductor major to establish an R&D centre in
India in 1985, started the trend, soon to be followed by companies
like Analog Devices and National Semiconductor. Motorola, IBM, Cisco,
Ishoni Networks, Cypress Semiconductor and Sun followed suit. Besides
these, there are software service players like HCL Technologies,
TCS and Wipro and several Indian startups like Arasan Chip, Bluefont
Technologies, Cradle Technologies, Sasken, Moschip, MindTree Consulting
and Indra Net-works among others hoping to partake from the $150
million Indian chip design industry.
Growing
demand
With
chips and processors now used in everything from computers and complex
electronic gadgets to everyday appliances, the demand for semiconductor
content in consumer electronics is continually growing.
Other
factors that have influenced the demand for chip design according
to Nasscom are: The return of the enterprise PC buyer, along with
the continuation of stable consumer and emerging market demand;
return of the communications infrastructure buyer and wireless handset
growth in units and semiconductor content. Nasscom in fact is so
bullish about this space, it believes the semiconductor design space
in India is at the same stage as IT services a decade ago.
Pratul
Shroff, CEO, eInfochips, an Ahmedabad-based chip design and verification
firm, agrees, We believe this will be the fastest growing
segment over the next five years.
Wanted
chip designers
It
is not surprising that demand for chip designers has shot up in
the last two years. And considering the target of $1 billion in
revenues in chip-design exports by 2004 set by the Indian government,
India would need to produce almost 5,000 chip designers every year,
as against the current output of 400 chip designers, according to
a report brought out by Tata Consultancy Services.
According
to a research based on primary and secondary data collected by Nasscom
to ascertain manpower skill requirements in the Indian software
sector, demand for EDA/ASIC/VLSI skills are growing rapidly and
account for 5 percent of the total job openings in the Indian IT
industry. (The survey was conducted from June to September 2002
across leading job websites, recruitment advertisements in the print
media and a dipstick survey among 20 HR professionals in the Indian
software sector.)
Says
Bhan, While the last decade established India as a software
power house, this decade India has a unique opportunity of establishing
itself as a chip design powerhouse. In short, the career prospects
are very bright. So bright that the scarcity of design engineers
is now a cause for concern. Since chip design is relatively nascent
industry in India, awareness of the potential opportunity therein
has been a major stumbling block.
Mohnish
Shah of Indra Networks explains, There is a shortage of experienced
chip design engineers, because the industry is very new. It
hasnt been around long enough to produce experienced engineers.
Generally, experienced engineers would be returning NRIs, he adds.
Chip
design training
To
deal with the dearth of chip designers some companies are tying
up with institutes offering training in chip design. Take eInfochips
for instance. The company has tied up with the Calorex Institute
of Technology that offers a diploma in VLSI design (an 18-week course
costing Rs 45,000). Besides, the short-term courses in Verilog HDL
and VHDL and FPGA, the fee, for which varies from Rs 10,000 to Rs
12,000.
Institutes
like CDAC offer diplomas in VLSI design, circuit/layout design,
verification, and logic design. All IITs have MTech level
specialisation in Micro-electronics/VLSI design, adds Bhan.
However,
Mohnish Shah of Indra Networks points out, The problem with
most private institutes is that they are not selective in their
enrolment process. Therefore, they turn out many graduates who really
dont have the aptitude for this field in the first place.
To
deal with this problem, most institutes have set up eligibility
criteria to enroll students. Calorex, for instance, will accept
only candidates who are a BE (Electronics, Computers, Electrical,
IC or EC) or MSc Electronics, with adequate knowledge in basic electronics,
digital electronics, microprocessor and microcomputer.
Recruitment
scenario
While
there is no agreement over whether companies prefer hiring out of
institutes or recruiting fresh engineers and training them, wannabe
chip designers may consider taking up a certification course to
gain some exposure to the skills required. Salaries may also vary
accordingly.
Time-to-market
was always an issue in the high-tech industry and a company needs
to ramp up the operation either for quicker time-to-market or higher
revenue in the case of consulting companies. Hence there was little
option of training manpower until a little while ago, explains
Shroff. Off late however, he adds, the emerging trend is for companies
to recruit fresh engineers and train them.
The
basic skill requirements would then vary depending on the domain
that one desires to specialise in, but in general strong background
in electrical/electronics engineering and computer engineering is
essential. Since the advances in VLSI happen at a rapid pace,
ability to quickly and continuously learn is a must, says
Bhan.
In
terms of specific skills, knowledge in following areas is required:
digital design fundamentals, VHDL/Verilog, simulation and synthesis
tools, computer architecture. Some specialised area would require
additional skillsfor example, mixed signal design, which requires
analog design skills as well.
But
for the IT industry, more worrying than the dearth of chip designers
is the fact that there are not enough institutes to offer training
in chip design. Nasscom believes that the focus on IT in education
institutions needs to be upgraded to enable Indian companies to
further enhance their global competitiveness. Only a handful of
engineering colleges have introduced engineering design in their
curricula. The organisation is actively working with the Ministry
of HRD and nine engineering colleges to serve as a key link between
market requirements and skills imparted through the formal education
system.
Researchers
say that India trains only 350 microelectronics engineers every
year, as compared to the requirement of over 3,500 per year. Hyperbole?
May be or may be not. But, the good news is: companies are hiring.Box:
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Job
profile of a chip designer
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| Teams |
Functions |
| Architecture |
Define
the design |
| Logic |
Implement
the design |
| Circuit
design |
Integrate
logic description language like Verilog or VHDL (VHSIC Hardware
Description Language) into circuit description to produce a
document called the netlist |
| Physical
design |
Execute
a layout for the chip out of the netlist. The layout
is used to produce masks, which are then used to
manufacture the chip on a silicon wafer |
| Testing
and Verification |
Check
if the chip performs its functions according to its specifications.
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