PDF: 2962 pages, 5.2 MB - Bay Area Council Economic Institute
PDF: 2962 pages, 5.2 MB - Bay Area Council Economic Institute
PDF: 2962 pages, 5.2 MB - Bay Area Council Economic Institute
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Semiconductors<br />
(SoC) technology, microelectromechanical systems (MEMS), and electronic design automation<br />
(EDA), in addition to less complex system in package (SIP) chips, application-specific integrated<br />
circuits (ASICs), and assembly-test-mark-pack (ATMP) services. Indian designers have kept pace,<br />
earning a reputation for quality, productivity and time-to-market, at about 20% of the cost.<br />
Multinationals have also felt comfortable, in terms of IP protection, turning over portions of<br />
complex design solutions to Indian engineers.<br />
Top Indian universities have been turning out an expanding talent pool of engineers qualified in<br />
chip design—a relatively recent phenomenon, due in part to collaborations with multinationals.<br />
But the semiconductor segment still has a low profile in India relative to IT and software, leading<br />
to an engineer shortage: only an estimated 60% of engineering school graduates in India have the<br />
specialized qualifications to work in the chip industry.<br />
The VLSI Society of India estimates that the semiconductor sector will require 10,000 engineers<br />
trained in very large scale integration (VLSI) by 2010 to do advanced system-on-chip work and<br />
achieve end-to-end design at the 65-nanometer level; at the beginning of 2006 there were<br />
perhaps 2,000.<br />
The extent to which the absence of a chip manufacturing base has held back India’s semiconductor<br />
industry is a subject of debate. At minimum, chip design work that might otherwise have<br />
stayed in India is said to have gravitated to China, Germany, Israel, and elsewhere because of the<br />
close links between designers and manufacturers that allow validation of designs for production.<br />
To date, no semiconductor wafer fabrication (or “fab”) facility has been built in India, for several<br />
reasons. Infrastructure is one problem—in particular, reliable water and power supplies, as well<br />
as efficient road and airfreight logistics to ship the physical product. “In contrast, for software<br />
and IT services, there is no requirement for well functioning logistics systems to move goods.<br />
The data packages move from servers to wired or wireless carriers to their destination, and<br />
those transmission services are well developed in India,” Semiconductor Industry Association<br />
president George Scalise points out.<br />
“A great deal of the semiconductor opportunity involves manufacturing,” Scalise explains. “In<br />
India there is in place now very little infrastructure and there are minimal investment policies and<br />
incentives to facilitate manufacturing investment, and this situation is not likely to improve anytime<br />
soon. India has a very bureaucratic system for dealing with new investment. The existing<br />
industrial parks in India are well designed, built, and maintained with policies and infrastructure<br />
that allow investors to function effectively. Most areas outside the parks lack the infrastructure<br />
that would make it easy to build and operate a design or manufacturing facility.”<br />
Additionally, India has been slow in forging the government-academic-NRI investor-entrepreneur<br />
links seen in China’s innovation clusters. Finally, whereas the Chinese government provided<br />
incentives to the Semiconductor Manufacturing International Corp. (SMIC) equivalent to<br />
50–100% of project cost, policy differences between the Indian Information Technology<br />
Ministry and the Finance Ministry have both delayed adoption of a clear semiconductor policy<br />
and reduced the development incentives first proposed.<br />
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