Monthly Archives: September 2004

Sept. 24, 2004 – Rice University researchers have found a way to lower the toxicity levels of fullerenes, a technique that could reduce health or environmental risks that nanomaterials might cause in consumer products and industrial processes.

The team from Rice’s Center for Biological and Environmental Nanotechnology performed what they called the first study of toxic effects on individual human cells exposed to buckyballs, soccer ball-shaped molecules containing 60 carbon atoms eyed for use in fuel cells, coatings and drugs. By attaching other molecules to the surface of buckyballs, they able to significantly lower the toxicity level when exposed to liver and skin cells in a Petri dish.

Kevin Ausman, the center’s executive director, said the simple chemical modification could lower potential exposure risks during disposal of a product like a fuel cell or within a manufacturing plant. Removing attached molecules and enhancing toxicity could also be useful in chemotherapy treatments, for instance.

“We’re already talking to companies that are looking at fullerenes for bulk manufacturing and making sure they’re aware of these things,” he said. “It’s the kind of thing that industry, because basically they want to reduce their own risk, is very interested in adopting in their own practices.”

The research will appear in an upcoming issue of the journal Nano Letters, published by the American Chemical Society. It also was published online by the journal Sept. 11.

Sept. 24, 2004 – Industrial and academic researchers are using microarray-based technology developed by Affymetrix Inc. to study the causes of cancer and other diseases, according to news releases.

The Santa Clara, Calif.-based company’s GeneChip systems will be used by the Broad Institute of the Massachusetts Institute of Technology and Harvard University to study the genetic causes of diseases and discover the molecular signatures of disease and drug response. A release said the GeneChip High Throughput system automates the most labor-intensive steps in microarray processing, and will give researchers the “massive-scale” capability they need to study complex biological problems.

 

Perlegen Sciences, an Affymetrix spinoff, is using the microarrays to study the genetic causes of Alzheimer’s disease, autism and Parkinson’s disease. The technology enables scientists to cost-effectively analyze whole genomes with sufficient resolution to identify the genetic variations that could play a role in these diseases, a release said.

Sept. 24, 2004 – No one can deny the impact of the nanotechnology bill that President Bush and his administration championed. Funding for nanotech has nearly doubled since Bush took office and his fiscal year 2005 budget called for $1 billion for nanotech. That federal support assures that America’s best nanotechnology thinkers can get ideas from concept to lab to product.

I submit, however, that it’s now time to take the next step. The industry and policymakers need to work together to find ways to move the U.S. government from funder to purchaser. Government purchases are a key component in creating the right environment for growth by ensuring that we have a domestic market. Without it, companies and technologies will look for the places that do, which can undermine both our economic and military security.

The federal government is known in procurement circles as The Fortune One Company. The federal shopping list resulted in $300 billion in procurement spending last year. What would be the impact if existing commercial nanotech entities had a front row seat in procurement discussions?

Imagine that the military had a preference for vehicular coatings that lasted longer because they were strengthened with nanoparticles. What if the National Park Service specified smaller, less obtrusive nano-enabled solar cells for their facilities?

Consider the impact of military hospitals expressing a preference for antibacterial wound dressings containing nanofibers that help prevent infection. Companies focused on nanotechnology could more quickly have the critical market mass to fuel expansion, develop new products and stay competitive in the worldwide market.

The 21st Century Nanotechnology Research and Development Act specifically addresses commercial issues. One of its objectives is to “encourage progress on Program activities through the utilization of existing manufacturing facilities and industrial infrastructures such as ¿ the employment of underutilized manufacturing facilities in areas of high unemployment as production engineering and research test beds.”

Sustained growth in manufacturing depends on commerce: customers buying products. If the federal government primes the pump, the free market takes care of the rest. Existing manufacturing facilities and infrastructures will, by demand, be utilized.

We’ve all read headlines questioning nanotech’s substance. While we understand great breakthroughs are yet to come, those of us selling products every day also know that nanotech already contributes to our economic and social good. Companies with a track record can provide a foundation and springboard for upcoming advancements. Let’s start building with the Fortune One Company.

Let me start the dialog with a proposal that mirrors the way procurement is handled in other fields. In fiscal year 2003, more than $26 billion in government procurement worked through the General Services Administration (GSA) Multiple Award Schedules (MAS). Under this system, a variety of more mature companies interested in selling to the government already have completed a long list of GSA form documents, legal representations, disclosures, and price lists. This process and paperwork are substantial barriers to small tech firms.

Often, their only alternative is to offer products through large distributors or resellers who represent perhaps thousands of products and are unable to make a handful of nanotech products a priority.

I propose the creation of a streamlined “Jump Start” procedure, in which nano-products can be quickly added (i.e. within 30 days) to a special Nanotech MAS. This Nanotech MAS would hold preference for purchasing over other MAS for a period of three years. After that time, products would be automatically moved to normal MAS contracts specific to each nanotech company.

What about nano companies whose products are components of other items? Let’s consider a version of a plan already in place for large government contractors. Large businesses are often required to have small business subcontracting plans in which they commit that they will reach certain goals in subcontracting to small businesses.

Specifying a three-year focus on subcontracting to small nanotechnology companies would fast-track nanotech components and technology into a broad range of applications.

Market pressures provide reliable limiters, just as they do in the small business arena. Competitive dynamics are still at work; this program simply gives the tie to the innovator. Moreover, it rewards development of the most market-sensitive nano solutions, since the same entrepreneurs who create the products create competition. At the program’s phase-out stage, nanotechnology’s potential will have been more thoroughly mined and fine-tuned to market demands.

What’s the next step? I discussed the issue with Secretary of the Treasury John Snow when he toured Nanofilm’s facilities recently. I suggested a summit of the National Nanotechnology Initiative under the guidance of the National Nanotechnology Coordination Office since the NNCO includes outreach to industry among its functions.

In addition, the NanoBusiness Alliance recognizes the importance of this issue and has plans for a forum for government procurement personnel as part of its 2005 public policy tour to Washington.

The act’s objective is “ensuring United States global leadership in the development and application of nanotechnology.” R&D can’t be the end of that commitment. It’s time to move beyond the lab report to the purchase order.

Demand stimulated by orders shifting from Taiwan to China has pushed testing and packaging houses to raise their budgets for equipment procurements. Production in China on processes of 0.18-micron and below is growing quickly, and leading foundries are reporting that they are ramping capacity on advanced processes, which will attract even more orders. The global share of wafer capacity from China foundries will grow to 9% in 2007, up from 4% last year, according to research from iSuppli.

(September 24, 2004) Sunnyvale, Calif.&#8212 The current semiconductor cycle has hit its peak in 2004, and 2005 will be the first year of a two-year downturn, according to the most recent forecast by analyst firm IC Insights. The firm delivered its forecast and analysis at a forum here.

Developed by the International Automotive Task Force (IATF) and Japan Automobile Manufacturers’ Association, Inc. (JAMA), in conjunction with the International Organization for Standardization (ISO), ISO/TS 16949:2002 specifies quality system requirements for the design, development, production, installation and servicing of automotive related products. It aligns existing American (QS-9000), German (VDA6.1), French (EAQF) and Italian (AVSQ) automotive quality systems standards within the global automotive industry to provide a single certification standard and common approach to quality management systems.

(September 23, 2004) Shanghai &#8212Testing and packaging houses located in China, including Amkor Technology and Global Advanced Packaging Technology (GAPT), are expanding to meet growing demand in the region, say industry makers.

September 23, 2004 – The US National Science Foundation (NSF) will award $69 million over five years to fund six major centers in nanoscale science and engineering. These awards complement eight existing centers established since 2001. The awards are part of a series of NSF grants totaling $250 million for nanoscale research in multiple disciplines in FY04.

The new centers will be located at the University of California-Berkeley, Stanford University in California, the University of Wisconsin, Ohio State University, the University of Pennsylvania, and Northeastern University in Massachusetts. Specific awards are listed below.

Nanoscale Science and Engineering Centers (NSEC) bring together researchers with diverse expertise — in partnership with industry, government laboratories, or partners from other sectors — to address complex, interdisciplinary challenges in nanoscale science and engineering. The new centers will impact a wide range of technologies, including nanomanufacturing, nanobiotechnology, electronics and medicine.

In addition, the centers’ education programs are designed to develop an innovative work force, advance pre-college training, address societal implications related to the research topic of each center, and to advance the public understanding of science and engineering.

NSF Awards in 2004 for Nanoscale Science and Engineering Centers

Center of Integrated Nanomechanical Systems ($11.9 million)
University of California – Berkeley
The center is a partnership between UC Berkeley, Caltech, Stanford and UC-Merced with collaborators in industry and the national laboratories.
Research is focused on the science and engineering of nano-mechanical systems that are likely to have applications in chemical and biological sensing, and high-density, low-power, low-cost computation.

Center for High Rate Nanomanufacturing ($12.4 million)
Northeastern University
Northeastern University will partner with the University of Massachusetts, Lowell, the University of New Hampshire, and Michigan State University to develop novel high-rate/high-volume, precise nanomanufacturing techniques that are expected to impact the electronic, medical and automotive industries.

Center for Affordable Nanoengineering of Polymer Biomedical Devices ($12.9 million)
Ohio State University
The center seeks to develop polymer-based, low-cost nanoengineering technology that can be used to produce nanodevices and structures for next-generation medical diagnostic and therapeutic applications.

Center on Molecular Function at the Nano/Bio Interface ($11.4 million)
University of Pennsylvania
The center’s research is aimed at the interface of nanotechnology and biology at the molecular level. Potential practical outcomes are in the areas of nanoscale device manufacturing, drug delivery and integrated chemical sensors as well as understanding basic complex biological and physiological processes.

Center for Probing the Nanoscale ($7.5 million)
Stanford University
This partnership between Stanford University, IBM, and other researchers in industry addresses the development of novel nanoprobes and application of these probes to answer fundamental questions in science and technology. The center expects to enhance the capabilities of the nanotechnology community to measure, image and control nanoscale phenomena.

Center for Templated Synthesis and Assembly at the Nanoscale ($13.4 million)
University of Wisconsin
The center addresses the self-assembly of complex materials and building blocks, including biological materials, at the nanoscale. Potential applications are in the areas of gene mapping, nanophotonics and nanosensors.

The National Science Foundation (NSF) is an independent federal agency that supports fundamental research and education across all fields of science and engineering, with an annual budget of nearly $5.58 billion. NSF funds reach all 50 states through grants to nearly 2000 universities and institutions.

Each year, NSF receives about 40,000 competitive requests for funding, and makes about 11,000 new funding awards. The NSF also awards over $200 million in professional and service contracts yearly.

September 23, 2004 – AMD and IBM have extended an existing chip manufacturing agreement into 2008 that will add about $250-$280 million to IBM’s coffers, according to an AMD SEC filing.

The pair’s existing deal, scheduled to expire at the end of 2005, involves joint development of chip manufacturing technology for 300mm, 65nm-45nm logic chips and microprocessors. The extension adds potential development of 32nm technologies, as well as an option for AMD to use third-party foundries for 90nm and 65nm chip manufacturing using jointly developed technology.

AMD also will use IBM’s C4 bump technology in its 300mm fab in Dresden, Germany, and has obtained a license to bump 200mm wafers for third parties.

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Sept. 23, 2004 – August proved to be a fruitful month for Nanosphere Inc. First, the federal government expanded a $2.5-million contract for its biodetection technology and tossed in another $750,000 for tests to diagnose gruesome diseases like plague and anthrax. At the same time, the Northbrook, Ill.-based nanotechnology company was gearing up for the fall debut of an automated diagnostic device for hospitals and clinics.

About 250 miles to the east, another startup was busy meeting its own milestones. NanoBio Corp. in Ann Arbor, Mich., was nearing the end of six-month Phase II clinical trials for a topical treatment for cold sores and was preparing for a similar round of testing for a nail fungus treatment. It also was using $3.2 million in federal funds to prove that its microbe-killing nanoemulsions posed no safety threats to people.

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The stars seem to be in alignment for biotech and nanotech hybrids. The tools for molecular biology and genetics have allowed scientists like NanoBio’s founder, medical researcher James Baker, to explore not only microbes and cells but also the tiny parts and pathways within them.

Simultaneously, increasingly sophisticated microscopy devices and fabrication techniques have given chemists like Nanosphere’s co-founder, Chad Mirkin, the capability to make and manipulate materials that can interact with DNA, proteins and other biological building blocks.

Adding to that capability is money, lots of money. The crossroads of biotech and nanotech are being well paved by government, particularly as concerns grow about terrorist attacks. The National Institutes of Health (NIH) shelled out more than $1.5 billion for biodefense research and development in 2003. The Department of Defense added about $1 billion to its biodefense coffers that year.

The pot is expected to grow even larger, thanks to the Project Bioshield Act of 2004 signed by President George W. Bush in late July. The act authorizes agencies to spend up to $5.6 billion over the next decade for vaccines, drugs, detection methods and other countermeasures to biological, chemical, radiological and nuclear attacks.

But the opportunity also may carry some baggage for companies like Nanosphere and NanoBio, industry analysts warn. Bioshield, which was designed to piggyback onto existing and developing biotech products for defense and homeland security, is riddled with tradeoffs. So many, in fact, that lawmakers began working on a “Bioshield II” bill before the ink had dried on the first act.

“They passed it, and they knew it was flawed from the beginning,” said Nancy Saucier, head of the medical industry group at the National Venture Capital Association. “It’s not a bad start, but we all look at it as a start.”

Their concerns range from liability and intellectual property issues to the bureaucratic double-whammy of regulations from the military or homeland defense plus the Food and Drug Administration.  “This is the toughest kind of contract you’ll ever do,” Saucier said.

Experts involved in the development of young companies add a list of other potential perils that apply not only to Bioshield but to many federal programs: dependence on government funding for revenues, an unrealistic view of markets and price points, personnel distracted by federal bureaucracy and an expensive, niche product designed to meet governmental but not consumer needs.

“Can you develop a nano-based technology and make it cheap enough and simple enough (for the consumer market)? Where do you go after the military application?” said Scott Anthony, a partner at the management consulting firm, Innosight. Companies that fail to test assumptions about the worth of their products in the “real world” market may be in for a rude awakening, he said. “Different people will use a different lens to evaluate it.”

Post 9-11, pre-Bioshield

The terrorist attacks in New York, Washington, D.C., and Pennsylvania, and the anthrax mailings later that year served as a wake-up call throughout the nation. Allocations for protective and preventative technologies soon followed. The NIH’s biodefense budget, for instance, is now about 30 times higher than it was in 2001.

“The environment changed between 2001 and 2002,” said Vijaya Vasista, Nanosphere’s chief operating officer, referring to shifting fiscal priorities. Nanosphere was established in 2000 to develop and market metallic nanoparticle-based DNA detection technologies.

Nanosphere won its $2.5-million award in 2002 from the Technical Support Working Group, the government’s counter-terrorism body, to develop a field-deployable system that identifies toxins. It captured another $750,000 in August from the National Institute of Allergy and Infectious Diseases, the NIH’s primary biodefense agency, to develop and evaluate diagnostic tests for anthrax, plague and drug-resistant forms of staph bacteria.

NanoBio, incorporated in 2001, already had experience in biodefense initiatives before 9-11. The company’s technology, emulsions that use nanoscale oil-and-water droplets to kill certain kinds of bacteria, viruses and spores, was developed under a Defense Advanced Research Projects Agency (DARPA) grant. DARPA wanted a nontoxic product that protects soldiers exposed to anthrax.

Both companies insist their respective key markets are in diagnostics and drugs, and not strictly for the military or homeland security. The funding allows them to develop and refine basic platforms that serve both purposes, they say, and help them get commercial products to market.

“Everything we do to develop biotoxic detection is leveraged into medical detection,” Vasista said. “That’s what prompted us to pursue the grants. … The development we do for them we would have had to do anyway.”

Michael Nold, NanoBio’s chief financial officer, said biodefense money has helped fund clinical studies for medical applications. The company wants to expand from remedies for cold sores and toenail fungus to genital herpes, shingles and vaginal infections.

“As a corporation we have a policy that you don’t aim a product specifically at the Department of Defense, at the government,” Nold said. “If you don’t have a parallel product for which there is a commercial application outside of that, you can find yourself in the cemetery of small companies. You just can’t rely on them.”

Spend, but spend wisely

Stuart Pulvirent, a managing director and senior research analyst with ThinkEquity Partners, said he’s seen less-savvy startups fall in that rut and never emerge. “The company gets used to taking that money,” he said. “It keeps taking research money but its revenue line stays the same.”

Pulvirent conducts nanotechnology and healthcare research for ThinkEquity, a company that identifies growth sectors for institutional investment. Nanosphere is not likely to fall victim to the syndrome.

Nanosphere unveiled its first product in 2003: a DNA-based detection technology marketed to research and clinical labs. It plans to showcase an automated version, the Verigene System, at the Association for Molecular Pathways meeting in Los Angeles in November. Vasista said Nanosphere anticipates sales of the new system in 2005.

The FDA approved the manufacturing of NanoBio’s emulsions, which are now progressing through the health and safety regulatory process. Nold said that once the company gets results from its current testing, it will be in a position to seek venture capital or partner with a drug company to begin the more expensive process of later-stage clinical trials.

Government support can be critical for startups with long development cycles such as a biotech or nanotech, Anthony and Saucier said. The challenge is maintaining a company vision and focus.

“The thing you have to watch out for is the perverse effects,” Anthony said. Too much money can blind companies to market opportunities that would seem more attractive if they felt leaner; it can compel them to hire workers who remain on the rolls after funding has dried up; it can skew product development toward a niche market, and nurture business models that complement government collaboration rather than capitalist competition.

“It is rarely just the technology that drives disruption,” said Anthony, whose consultancy specializes in potentially lucrative disruptive innovation. “It is the business model.”

Room for improvement

Project Bioshield passed the U.S. Senate unanimously. But even before its passage, Sens. Joseph Lieberman, D-Conn., and Orrin Hatch, R-Utah — the bill’s original cosponsors — were said to be preparing a second version to address a number of disincentives in the act.

Foremost on industry’s list of complaints are weak liability protections. Drug companies balked at the potential risks of introducing novel products in dire conditions such as anthrax or smallpox attacks. Liability costs from unanticipated side effects also concern them.

“People aren’t flocking because it isn’t covered,” Saucier said. “So far, they are still liable because there is no indemnification. Large pharmaceuticals aren’t going to bite on it.”

Indemnification, or protection from damages in the event of a lawsuit, has gummed up biodefense efforts in the past. Northrop Grumman Corp. and its partners wrestled with the government over liability protection in 2002 after the corporation was awarded a $175 million contract to install anthrax detectors in mail sorting facilities, according to Elemer Piros, senior biotechnology analyst with the investment and banking firm Rodman and Renshaw Inc.

He tracks Cepheid Inc., whose miniaturized DNA testing device provides the detection part of the system. It took several months for the government and companies to come to terms on the issue, which delayed rollout of a pilot system and temporarily depressed Cepheid’s stock.

The possibility of a crippling lawsuit concerns NanoBio’s Nold as well. “We are very comfortable with the safety of our emulsions, but we live in a very litigious society,” he said. “Our concern is that the emulsion that is being used is not the cause of the problem, but there is a problem and the whole world gets sued. … It costs you a tremendous amount of money to defend yourself when you were innocent to begin with.”

Critics also say passages covering intellectual property rights and pricing of products are too vague, leading to potential problems. But Nold, who hired a part-time staffer to pursue funding opportunities like Bioshield, sees IP and pricing as unlikely stumbling blocks. Ideally, he’d like to see the government buy one and only one installment of NanoBio’s protective emulsions.

“Hopefully, it is a one-time market,” he said. “They stockpile what they need in supplies and never use it; that’s the hope.”

Companies that accept Bioshield deals may be in for some surprises, Pulvirent and Saucier say. Pulvirent warns that companies may face restrictions about partnering with foreign corporations.

The government also may insist that no foreign nationals work on the project. Saucier also cautions that the government can pull the plug on finances at any time through the Termination for Convenience Clause. “The government has the right to get out of a contract, to zero out in the budget process,” she said. “Most people are terrified of that clause.”

Bioshield II is expected to rectify the shortcomings of the initial act, observers say, but it is unlikely to move forward during an election year. Saucier predicts it will take two years to iron out the issues.

Despite its flaws, she considers Bioshield good for companies like Nanosphere and NanoBio — as long as they remain aware of its potential sand traps. In the end, the companies making biodetection devices and protective drugs that help soldiers and citizens at home will become the shining stars in the project, she predicts.

“This is my personal view,” she said. “I think detection and prevention are where they’re going to find their money is best spent.”

Sept. 23, 2004 – The National Science Foundation has awarded $69 million to create six new centers for nanoscale science and engineering, according to a government news release.

The grants, which complement eight existing centers established since 2001, have been awarded to the Center of Integrated Nanomechanical Systems at University of California, Berkeley; Center for Probing at the Nanoscale at Stanford University; Center for Templated Synthesis and Assembly at the Nanoscale at University of Wisconsin; Center for Affordable Nanoengineering of Polymer Biomedical Devices at Ohio State University; Center on Molecular Function at the Nano/Bio Interface at University of Pennsylvania; and the Center for High Rate Nanomanufacturing at Northeastern University.

The Nanoscale Science and Engineering Centers link academic, government and industrial researchers to solve complex challenges within the emerging fields. The centers’ education programs are designed to develop an innovative workforce and address societal implications, as well as advance pre-college training and public understanding.

The awards are part of a series of NSF grants totaling $250 million for nanoscale research in fiscal year 2004.

September 22, 2004 – Worldwide semiconductor equipment sales have overshot orders for the first time in a year, and IC orders are falling back as well — but VLSI Research claims the market simply is taking a pause after a big meal earlier in the year, and not pushing back from the dinner table.

Worldwide bookings of ICs in August (a three-month average) were $15.25 billion, down 15% from July but up 24% from a year ago. (July’s final IC numbers also were revised slightly downward.) Billings were $14.78 billion, up 8.5% from July ($13.57 billion) and 27% from August 2003 ($11.55 billion). The IC B:B ratio was 1.00, compared with 1.14 in July (revised down from 1.25) and 1.08 a year ago.

Equipment bookings in August were $3.65 billion, a 20.8% drop from July but an increase of 73.7% from a year ago. Sales were $3.89 billion, down 6.2% sequentially but up 74.2% from August 2003. The three-month average for equipment sales rose 1.3% to $2.92 billion, a 6.3% decline from a year ago ($3.12 billion). July’s final figures were revised significantly downward, by as much as 20% for backend equipment.

The equipment book-to-bill ratio in August slipped below the parity level for the first time in 12 months to 0.94, down from 1.11 in July, and flat with 0.94 in August 2003. A B:B ratio of 0.94 means that $94 worth of new orders was received for every $100 of product billed for the month.

“Clearly, the industry slowed down in August, but we believe that this is a ‘correction’ period rather than the beginnings of a downturn,” stated VLSI. “The industry is just going through a digestion phase after buying too much equipment during the first half of 2004.”

Capacity utilization rates fell to their lowest levels since January, at 93.1% for frontend and 88.1%-90.1% for backend equipment. However, VLSI calls these levels “far healthier for the industry than the near-100% utilization marks we saw in the March-May time frame.” Geographically, every region showed decreased consumption except “Rest of World,” which nearly doubled to 14.2% of global consumption — vaulting past China, Europe, and Korea for fourth place overall, and only two percentage points behind North America.

VLSI’s predictions for September are mixed, depending upon which figures are called into focus. IC bookings are expected to be $13.40 billion (a one year low), with billings of $18.55 billion, for a B:B of 0.86 — the lowest since July 2001. Capacity utilization rates will be flat to slightly up for the frontend, down 4.1% for test, and slightly down for assembly.

For equipment, bookings and billings are expected to rebound to $4.42 billion and $4.94 billion, with three-month-average sales of $2.99 billion. The B:B ratio, however, is projected to further sink to 0.89, its lowest mark since November 2002.