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January 31, 2005
Editor: Tom R. Halfhill
In this issue:
Multicore Chips Rule in 2004
Editorial: State of the Semi Industry
Chips, Software, and Systems
Tom R. Halfhill - Senior Editor {01/31/2005}
PC processors boast the highest clock speeds.
Server processors have the fattest caches. But unsung embedded processors
are at the forefront of microprocessor evolution. As we noted last
year, some of the architectural advances appearing first or most
extensively in embedded processors are massively parallel processor
arrays, on-chip interconnect fabrics, reconfigurable logic, DSP
extensions, extendable instruction sets, and hardware-assisted simultaneous
multitasking. In 2004, high-performance embedded processors also
set the pace for multicore designs.
While the PC market is agog at dual-core 64-bit processors, the
embedded market already takes such chips for granted and will deliver
processors with four, eight, and sixteen 64-bit cores this year.
The rising demands of telecommunications and network processing
continue to drive aggressive innovation. Only the need for power
efficiency restrains embedded chips from matching the high clock
frequencies of PC processors and the bloated transistor budgets
of the biggest server processors.
Our year-end review of high-performance embedded processors finds
that innovation in this market continued to accelerate in 2004.
Looking forward, we expect most chip vendors will be preoccupied
delivering the ambitious processors announced last year. However,
we also expect some exciting new announcements in 2005, including
the public debut of at least two vendors now working in stealth
mode.
Our nominees for a Microprocessor Report Analysts’ Choice
Award in the High-Performance Embedded Processors category: Broadcom’s
SiByte BCM1480; IBM Microelectronics’ BlueGene/L; Stretch’s S5610;
and Toshiba’s TX9956CXBG.
Microprocessor Report readers can access the full story (4
pages) here:
www.mdronline.com/mpr/h/2005/0131/190502.html. To find out more
about Microprocessor Report, please visit:
www.mdronline.com.
Kevin Krewell - Senior Editor {01/31/2005}
In early January, I attended the Industry
Strategy Symposium (ISS) in Half Moon Bay, California, run by the
Semiconductor Equipment and Materials Institute (SEMI). SEMI’s ISS
is an executive conference geared for semiconductor equipment and
materials suppliers. The conference spent two and a half days looking
at the short-term market (one to three years) for semiconductors
and exploring some of the potential changes to the market over the
next decade. The makeup of this conference audience was international,
but Silicon Valley was of primary interest to many of the speakers
and attendees.
There were some common economic trends throughout the two days I
attended: a soft downturn in 2005, with a slow rebound in 2006;
consumer products replacing information technology (IT) products
as the primary driver of semiconductor growth; and concern over
China’s impact on the industry.
In regard to the semiconductor industry, although many presenters
expressed public confidence that the 64–45nm process node transition
will go smoothly, there were also a few skeptics who believe the
industry is underestimating the complexity of the 65–45nm transition.
Continual innovation will be required just to keep the industry
on the long-term trend line of 8–9% annual growth. This will be
true in the 65–45nm process node transition, as this transition
will need more new materials than ever before.
Education Is the Key
One of the speakers was W. Brian Arthur of the Santa Fe Institute,
and one of the topics he spoke about was how our education system
would help us to stay ahead of the rest of the world. That it is
our investment in education that feeds the high quality of our basic
research, which, in turn, leads to new discoveries and innovations.
Unfortunately, unlike Mr. Arthur, I’m not convinced we are doing
enough to stay ahead of the world on education. At the same time
that we need to be investing more in education, overall government
spending on education has not increased. In California, for example,
the state budget crisis has put a squeeze on the California state
university programs, forcing tuition increases and enrollment decreases.
These are not developments that will strengthen U.S. global competitiveness.
Another speaker at the conference, Paul Saffo, related that China
has had a massive increase in the number of universities (he said
400 universities are being founded) and is graduating tens of thousands
of engineers every year. Although our university system is well
established, whereas China’s is still in the early formative stage,
just the sheer number of Chinese graduates will make a significant
impact on the world’s manufacturers. Other speakers decried the
present restrictions the U.S. government has put on visas, limiting
companies’ ability to attract foreign talent to this country.
Aggregating the Analysts
The meeting included plenty of charts, graphs, bar charts, and arrows
(up and down). We even had an industry “weather report.” None of
the analyst firms represented at the conference believes the present
slowdown will be as deep or as long as the 2001–2003 semiconductor
recession. In-Stat’s own projections are on the more pessimistic
side, however, with industry revenues shrinking 5.7% in 2005. The
projections for 2005 ranged from –5.7% (In-Stat) to + 15 (Future
Horizons), but the distribution centered at near zero growth (which
is also the SIA projection).
As you might expect, we heard a lot about the boom-and-bust semiconductor
cycle. This cycle shows no sign of going away, but there is evidence
that the industry is finally beginning to deal with it more effectively.
The projected downturn in 2005 will be softened, compared with previous
downturns, by an earlier throttling of chip supplies with the onset
of the downturn. The typical pattern in the past had been that the
semiconductor industry would overbuild capacity during the boom
time, only to find itself with an oversupply when demand eventually
softened. The oversupply leads to a collapse in ASPs and higher
production overhead, owing to the underutilization of fabs. A number
of quarters are then required for the oversupply to be absorbed
by increasing demand, and the industry eventually begins another
growth spurt.
In the case of 2005, the general consensus of the analysts was that
companies adjusted production in 2004 before reaching the brink,
better anticipating the correction this time. In the past, it was
the greed of missing additional business during the growth cycle
that drove companies to continue building in the face of softening
demand and overcapacity; now, it appears to be the fear of a painful
downturn that is driving companies to be more cautious. The 2001–2003
downturn is all too fresh in everyone’s mind for them to become
overly exuberant about this most recent (2H03/1H04) upturn. The
exception to the rule that is scaring many at the conference is
China, which is still building fab capacity at an alarming rate.
Many analysts believe the manufacturers anticipated this downturn
better than previous ones, but none of the analysts would attribute
the better planning to any particular factor. Maybe it was the conversion
to better forecasting tools, or an accelerated supply chain, or
more pervasive enterprise resource planning (ERP) software. The
issue that did divide the analysts was whether 2005 would have a
net positive (dollar) growth or a slightly negative one. None were
expecting more than a single digit of growth or shrinkage on either
side of flat. They did agree the market will grow in unit shipments,
but that overall ASPs are under pressure.
The Digital Transition for Consumer Devices
David Steel, vice president of marketing for Samsung’s digital media
business described that transition of consumer products like cameras,
camcorders, VCRs, TV, and tape players (e.g., Walkman) to being
digital devices. The issue of the convergence of many of these devices
into a few multifunction devices had everyone’s attention, as CES
had just ended. These new products and markets are exploding and
will generate continued demand for the semiconductor technologies
that made the digital revolution possible in the first place. This
is where the cutting edge of the chip business is today.
The cutting edge of the digital revolution movement is Korea, where
broadband penetration is the highest in the world. Korea is therefore
becoming the test bed for the next generation of broadband wireless
applications, which has proved convenient for Korea-based Samsung.
China on Everyone’s Mind
One of China’s policies that was the focus of some concern is the
fixed Chinese exchange rate with the U.S. dollar. One analyst went
so far as to call it economic warfare. The fixed exchange rate and
the growing U.S. trade deficit with China are making China a major
purchaser of U.S. bonds.
While many analysts were counseling companies to grow slowly in
2005 and 2006, it is evident that China is continuing to invest
heavily in new fab capacity. China has only a handful of 300mm fabs
today, but it is currently building tens of new fabs. With the projected
slowdown of 2005, many hoped China would slow its building binge
also. At present, China still represents only a small percentage
of worldwide fab capacity, and it is not at the cutting edge—at
least not yet.
There are also some limitations that a few noted about China. The
country’s infrastructure, including roads and power, is still a
work in progress. It was also noted that local Chinese materials
suppliers are not up to world-class quality.
Mr. Arthur said that he believes China is the biggest economic story
of the past 20 years and will be the biggest story for the next
50 years. He predicted China will dominate commodity markets, pushing
the U.S. to stay ahead by innovating faster. The next waves of technology
that will keep us ahead will be in biotech and nanotechnology. This
is where maintaining our lead in the sciences will be essential.
Silicon Valley: Haven for Bad Management?
One of the guest speakers at the SEMI ISS meeting was Paul Saffo,
director and Roy Amara Fellow from the Institute for the Future.
Mr. Saffo provided the most quotable line of the conference: Bad
management is not a bug, it’s a feature [of Silicon Valley]. Mr.
Saffo then went on to list some of the key Valley entrepreneurs,
such as Steve Jobs and Larry Ellison, whom no one would consider
easy managers to work for. The defining example may well have been
William Shockley, who, had he been a good manager, might not have
inspired (actually driven) the “Traitorous Eight” to leave Schockley
Semiconductor and start Fairchild Semiconductor. And then later,
had Fairchild been such a great place to work, the founders of Intel,
National, and AMD wouldn’t have been inspired to leave Fairchild.
It also inspired the comic strip Dilbert written by ex-Silicon Valley
engineer Scott Adams.
Furthermore, innovative technologies like Java and products like
Acrobat survived being killed in their early stages only because
management overlooked them. Saffo called innovation “irrational”
and “deeply, deeply weird.” Which is not surprising, as innovation
is a creative process, and the creative process is difficult to
schedule.
When Failure Is Essential for Eventual Success
The other key to the success of Silicon Valley is that it is a place
built on the edge of failure. Many of the new technologies, innovations,
and products are built on the failure of pioneers. One example was
the PDA business, which was built on the failure of Apple’s Newton.
We could also be seeing one of the pioneers of the digital video
recorder, TiVO, fail to capitalize (financially) on this new market
it helped create. It could be that Silicon Valley has learned how
to fail correctly. It is also because the Valley is a place where
people dream they can change the world. The question Saffo posed
to the audience was this: Will it continue to be that place, or
will India and China become the next centers of innovation?
Despite all the talk of an industry downturn, disruptive technologies,
and the high cost of new process technology, the conference was
still reasonably upbeat. One thing that particularly cheered everyone
at the conference was the announcement that at its earnings release,
Intel announced plans to increase capital spending in 2005. Hope
springs eternal.
My own take was that this is another structural change for Silicon
Valley, much like the major upheaval in 1985. In that past transformation,
the Valley began losing its manufacturing base but maintained the
engineering and corporate functions. This next transition appears
to be carving out some of the engineering and administrative functions
and moving them to foreign locations. It still leaves in the Valley
the higher-value engineering, marketing, and corporate leadership.
Once more, the Valley needs to stay on the top of the value chain,
which I believe it can accomplish. Unfortunately, I believe some
jobs will be moved offshore, never to return. The education and
immigration issues do concern me, because without both education
and immigration, it will be harder for us to stay on the top of
the value chain in the future.
To find out more about Microprocessor Report, please visit:
www.mdronline.com.
Kevin Krewell - Senior Editor {01/31/2005}
Each year we look back at the technologies
that were either revealed during the previous year or made a significant
impact in that year. The list of earlier winners is quite diverse,
ranging from the processor and system architecture of IBM’s Power
4, to the EUV lithography developments that promise to extend Moore’s
Law scaling beyond the limits of optical lithography (and well beyond
the end of this decade), to the software architecture of Microsoft’s
Next-Generation Secure Computing Base and Intel’s mainstream multithreading
(Hyper-Threading). This year’s candidates also mix hardware, software,
and systems. Each clearly cannot exist without significant cooperative
efforts in all three areas.
We see three technologies making a big impact during the next few
years:
- The first is
heavily threaded and multicore (beyond two) mainstream processors.
- Virtualization,
available for many decades in mainframe servers from IBM, will
make it to mainstream PCs in 2006.
- The Cell processor,
being developed by IBM, Sony, and Toshiba at the STI Design Center,
promises to be a new architecture optimized for broadband media
and 3D graphics performance, but with uses beyond the game console.
With the promise
of incredible performance and scalability, and what is basically
a vector supercomputer on a chip, we present the 2004 Microprocessor
Report Analysts’ Choice Award for Best Technology to
the Cell Processor. Congratulations to the STI Design Center
and the participating employees at IBM, Sony, and Toshiba for what
promises to be a very exciting challenge to mainstream processors.
Microprocessor Report readers can access the full story (3
page; 1 graphic) here:
www.mdronline.com/mpr/h/2005/0131/190501.html. To find out more
about Microprocessor Report, please visit:
www.mdronline.com.
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