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"This is the third transition in Intel:
from semiconductors to microprcessors, microprocessors to platform,
to being an internet building-block supplier" |
In September 2001, Intel appointed its first Chief Technology
Officer in 33 years of existence, Patrick Gelsinger.
Geeks everywhere would love Gelsinger: he gets his jollies from
tech (he chuckled wickedly as he led this correspondent through
a future that was 'IP everything'); he joined Intel in 1979 when
he was just 18 years old; and he holds the record for being the
youngest ever Group Vice President at the company (he made it at
32). On a recent visit to India, Gelsinger spoke to BT's R.
Sukumar on his job, the unending search for the future
at Intel, and the Intel India Development Centre at Bangalore. Excerpts.
You are Intel's first CTO. Why did Intel
suddenly feel the need for a CTO?
Intel had CTOs in the past, just that they didn't
call them that. There were people like Bob Noyce, Gordon Moore,
Andy Grove... So I think we really had people who were the technical
lighthouse for the company-setting a direction and really driving
those. The other reason why having a CTO is appropriate now is that
Intel has gone from being a fairly narrow company to being a very
broad company.
I'm trying to build end-client devices for
PCs and handhelds, trying to deliver the infrastructure for data
centres, both computing and communications, I am trying to deliver
the building blocks for the entire communication network. (Intel)
has gone from being very narrow in computing to very broad in the
whole range of internet communications and computing in the future.
As we've got very broad, having somebody whose
job it is to try to put all those pieces together can become increasingly
important. The various business groups are each focussed on their
individual areas; my job is to tie the pieces together. Also (to)
set a long-range common strategy and direction for our research.
And try and work with industry and get Intel's strategies and direction
to align with industry and international standards bodies.
Of MEMs, Silicon Photonics, And Convergence |
Micro-electromechanical
systems (MEMS) is a technology that combines computers with
tiny mechanical devices such as sensors or valves embedded in
semiconductor chips. That, and a light chip (remember Infinera
and Jagdeep Singh?) are among Intel's recent innovations. For
the tech blue-bloods out there, here's Gelsinger at his geekiest.
Based on some recent breakthroughs we are confident that
Moore's Law will be valid for decades into the future (the
extended Moore's Law).
We can start to take silicon and use it in entirely new
ways (the expanded Moore's Law). If you look at a cellphone
you see some chips in it, but you also see other things-conductors,
capacitors. What we want to do is integrate (all) these into
one chip in the future. And integrate to a point where radio
becomes a corner of the die; the chip will include a radio.
Imagine: the mobile pc of the future comes pre-integrated
with Bluetooth, 802.11, GPRs.
Today, if you want to build a network from Delhi to Bangalore:
you will end up with tens of thousands of dollars of capital
to create one wavelength of light; and you will need to create
every wavelength of light. Optics is very expensive, it uses
very exotic technology. What we want to do is make optics
in silicon. I have here one of the first wafers where we have
actually created an optical filter. So, if you were going
from Delhi to Bangalore, and you wanted to pull out some wavelength
at Hyderabad-I have maybe 50 wavelengths and want to pull
out one or two. You use a filter to pull out the couple you
want. And we have created that silicon filter. Pulling out
one wavelength will cost you $15,000 in optics; we've created
it in silicon where we can actually integrate silicon photonics
directly to filter it; this will probably cost less than $5
for one wavelenth. That's a dramatic cost-reduction in optics.
Ultimately, the goal is to make an optical processor, where
silicon will be able to drive an optical signal towards the
next processor, or chip-set or the next rack.
Infinera's approach is different, but it is along the same
lines. They're researching this. There is also some research
work going on at Lucent in this area. But no one else has
been able to demonstrate a filter in silicon; this is the
first one that anybody has been able to create. We're researching
each of the major optical building blocks.
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You've been with Intel for over 20 years.
How many times in this period have you seen the company reinvent
itself?
The first reinvention of Intel was occurring
just as I was getting into the company, where we really went from
being a semiconductor company to being a microprocessor company.
And calling it a microprocessor company in the early eighties was
very appropriate. The real heart of the company was microprocessors.
Second real transformation was the transition
into a platform company. PCI (Peripheral Components Interconnect,
a standard used to link the personal computer to anything from modems
and video cards) was the first major platform standard that we drove
as a company. That moved us out of just worrying about our piece
of the computer to worrying about the whole platform.
Now this is the third major transition in the
company since I've been there: from semiconductors to microprocessors,
microprocessors to platforms, now to being an internet building-block
supplier.
If you have to define Intel's business in
one line today how would you do it?
The definition we use in our mission statement
is ''worldwide supplier of internet building blocks''. In some ways
that may look limiting because communications is bigger than internet.
The reason I don't think so, and we have a simple phrase we use
in Intel: Everything over IP (Internet Protocol); IP everywhere.
For instance, we have switched products (switches, etc) today; the
future of all of that is going IP; future is Voice over IP; the
future is entertainment over IP.
There are four networks that will collapse
into one. You have the entertainment network, largely cable; the
data network, internet; you have the telephony network; and you
have the wireless network. We see all four moving to an IP network
in the future, and that becomes the common denominator. That's why
I don't think it (our mission statement) is all that limiting.
All tech companies are paranoid about being
unable to keep pace with technology. What does it take to keep a
company like Intel forward-focused?
At the simplest level, it is the mindset that
'technology wins'. Let me give you an example. When we moved from
the 486 (chip) to the Pentium (chip), it was a bad business decision.
Today, you can say, ''Were you nuts? Pentium went on to become a
huge product line.'' But when we made that decision in 1993 to convert
(from the 486 to the Pentium), we lost money in converting to the
new technology. 486 chips were more profitable than Pentium chips.
But we knew that Moore's Law (The number of transistors per square
inch on integrated circuits will double approximately every 18 months,
or the colloquial, processor power will double every 18 months)
would win; that new technology would win.
''Not Another Bell Labs'' |
Last
year we spent $3.8 billion on R&D. this year, our forecast
is $4.1 billion. Now, in that you have research, development,
and advanced development.
We also follow the distributed lab model. Many of the labs
for Intel don't work for me. I'm responsible for the overall
direction of the company and those labs, but many of them
don't work for me. We have about 7,000 non-product R&D
personnel out of a total of close to 30,000 engineers.
We want it to be very diffused. We're not trying to build
Bell Labs. We're not trying to build Xerox PARC. Those were
some of the finest research institutes but also the most ineffective...
None of that (research) ended up affecting the company.
I want to create a world class research and advanced development
capability but more important to me is making it the most
effective research and development capability. So many of
the labs are either geographically dispersed, or organisationally
dispersed, so they're next to the business groups we want
to influence.
What's a CTO? There are three different ends of the spectrum.
One is Chief Research Officer. That's the IBM model. Paul
Horn (Senior Vice President & Head Of Research) of IBM
doesn't really have anything to do with the business. Then
you can go to the other extreme-someone like Bill Raduchel
(Executive Vice President & CTO) at AOL. He is heavily
involved in the business decisions.
The other aspect is, do you have resources? Someone like
a Bill... he's a lone ranger. He has maybe 20-30 people. Whereas
Paul has 5,000 people. The model we are trying to follow is
somewhere in the middle. I own the research direction for
Intel, I have labs that work for me, and I am very involved
in the strategy of the company.
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You have to say technology wins and let that
drive your product, business, and strategic decisions. If you ever
don't do that, obsolescence becomes your enemy. You must make obsolescence
your friend by always committing to put your product in the front-end
of the technology transition, even when you lose money, lose margins,
in the process of doing so. If we don't capture technology transitions
then we open ourselves up for our competitors to do so.
We have to, then, cast a very broad net, because
you don't innovate all the technologies. I've got nearly a thousand
people doing innovative work inside Intel, but there are hundreds
of thousands of people outside of Intel doing innovative work. We've
structured our research programme into what I call research without
walls. The idea behind that is I partner very broadly with universities,
with other companies, so that we have a finger on the pulse of all
these other innovations. Let's take 802.11 (a wireless networking
technology) as an example; Intel wasn't the first with it; Atheros
was ahead of us. We weren't terribly behind, but we weren't the
first. It is a big thrust for Intel now, and we are positioned to
catch up very quickly. But if we didn't have a finger on the pulse
of the industry, if we were late, we'd never be able to participate
in a very critical technology transition.
So, we do that through our research. We do
that through the research of other companies. And we do that through
our venture plan.
There are two major areas where you can spot
innovation. One is in the academic community; the other is in the
venture community. So, between the research stuff that I own, the
academic relations part, and the venture stuff that Leslie L. Valdasz,
Sr. Vice President, Intel Capital, owns-we partner very heavily
on the very early stage deals-(we cover everything).
Intel runs a development centre, the Intel
India Development Centre, in Bangalore. How does the IIDC fit in
the company's larger research plans?
Let's think about it on two dimensions. One,
we aim at creating a larger international R&D capacity. The
three focus countries for that are Russia, India, and China. So,
if you want to know where Intel is going to increase its research
efforts, it is in those areas. We like other countries as well,
but are proactively putting in place plans to increase our presence
in those (three). There are two reasons for that. They're emerging
pools of talent, typically lower cost talent; and also emerging
markets as well-the three are the fast-growing large markets of
the future. So, the more we are in there, the more influential we
become in those markets-the more local we are.
Another aspect to look at is that it takes
a while to mature a new development centre. Initially, a new development
centre becomes largely a job shop: do this, and when you are done,
give me the results, and then I'll give you another job. And then
they become more mature, and start taking on not jobs, but projects.
And they become even more mature, and then it's not projects, but
products. Products become strategies.
IIDC is just a couple of years old. We've gone
from being a job shop and are just getting to the point now where
we get into projects. Our plan is to mature it to the point where
it is taking on entire product lines for the company. That it becomes
a very important part of our overall development capacity over time.
It's doing well. We're pretty happy. It is
now the largest area for e-business development for the company.
We've more people working in that area there than at anyplace else
at this point. It is taking on an increasing role in our communications
product-line.
Where does an Intel CTO go from here?
I don't know. It's not as if we've had CTOs
before. But CTOs tend to stay CTOs for a long time.
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