Tag Archives: Small Times Magazine

Nov. 2, 2005 – Applied Thin Films Inc., a company developing nanoscale-designed ceramic materials and thin films, announced it has received government contracts valued more than $3 million over a period of three years with the Department of Defense as the primary sponsor.

The projects are targeted toward advancing the company’s flagship product, Cerablak, which is a nanoscale-designed ceramic material based on aluminum phosphate compositions. Under a contract from the Navy, Applied Thin Films will develop radome material based on Cerablak’s dielectric properties for missile systems capable of hypersonic flight.

Under a recently concluded Phase I SBIR Navy contract, the company said it has demonstrated feasibility of using Cerablak as a protective coating for exhaust components of the Joint Strike Fighter. In addition, the company received a contract valued at about $250,000 from the Department of Army to explore the use of Cerablak for small arms weapon systems targeted toward increased reliability and durability in harsh environments.

Nano wind blows into Chicago


November 1, 2005

Nov. 1, 2005 – The NanoCommerce trade show and SEMI NanoForum begin today in Chicago. The events, which run through Thursday, are designed to cover both business and technology issues. More than 600 attendees are anticipated, according to event staff.

The program is comprised of business-related content on Tuesday and Wednesday and more technical content on Thursday. Scheduled to kick off the show Tuesday morning are presentations by Jim O’Connor, vice president of the early stage accelerator at Motorola, and Rick Snyder, chief executive officer of Ardesta and chairman of Gateway Inc.

Specific business tracks for attendees will cover nanomaterials, bio pharma, electronics, energy, environmental and societal implications, and defense and homeland security. Technical tracks include a variety of sessions covering metrology, processing and other semiconductor-related issues.

In addition to the trade events, the U.S. National Nanotechnology Initiative’s regional, state, and local initiatives in nanotechnology workshop — a federal effort to draw together regional nanotechnology development groups — is slated for the latter part of Thursday and Friday.

During Wednesday’s luncheon session, Small Times magazine will unveil its 2005 Best of Small Tech awards, the fourth annual industry awards for achievement in micro and nanotechnology.

The shows will also feature the emerging nanobusiness showcase this year for the first time, a conference component combining technical content and company presentations by 20 jury-selected participants. The showcase is intended to provide greater exposure for newly-emerging companies or for more established companies unveiling a nanotechnology-related development effort for the first time.

Check back at Smalltimes.com for more conference news during the week, including the unveiling of the 2005 Best of Small Tech winners on Wednesday afternoon.

– David Forman

Nov. 1, 2005 – HelioVolt Corp., an Austin, Texas, developer of solar energy technology, announced the joint publication with researchers from the National Renewable Energy Lab (NREL) of experimental results the company says confirm CEO B.J. Stanbery’s new theoretical model published in January.

The model is intended to explain much of the observed device physics and high performance characteristics of copper indium gallium selenide-based (CIGS) photovoltaics.

CIGS photovoltaics have traditionally lagged behind silicon in terms of research and investment despite the lower materials cost of CIGS. HelioVolt says its research equips the photovoltaic industry with the understanding of the technology necessary to energize commercialization efforts.

In particular, the model asserts that CIGS performance is attributed to a process called “spontaneous nanostructuring” by which the material in the CIGS absorber layer arranges itself at the atomic level for optimum photovoltaic efficiency.

“The nanostructure network that naturally occurs in CIGS is like creating separate express lanes for the positive and negative electrical charge carriers, reducing collisions between them and thereby increasing the current that flows outside of the device,” Stanbery said in a prepared statement. “Even when the composition of the CIGS devices varies, as long as this network exists, the efficient flow of the charge carriers takes place.”

Oct. 31, 2005 — PolyFuel Inc., a Mountain View, Calif., developer of fuel cell membranes, announced that its hydrocarbon DMFC (direct methanol fuel cell) membrane has passed the 5,000-hour mark in durability testing.

“Membrane durability has always been one of the key technical challenges faced by fuel cell manufacturers, as it translates directly to the lifetime of a fuel cell,” said Jim Balcom, president and CEO of PolyFuel, in a prepared statement. “In applications targeted for portable fuel cells, consumers are acclimatized to battery lifetimes in the 2,000 to 3,000 hour range for their portable devices.” Balcom said passing that threshold was a crucial benchmark.

Fuel cell membranes are engineered films of various plastic polymers — resembling stiff cellophane — that when covered with a catalyst material, enable fuels such as methanol or hydrogen to generate an electric current capable of powering electronic devices, or even automobiles. Unlike batteries, which must be recharged from a wall outlet, fuel cells are simply resupplied with a new fuel cartridge.

In the case of portable electronics, the methanol fuel — a type of alcohol — is expected to be supplied in the form of small, lightweight, snap-in cartridges that will share shelf space at stores with batteries and cigarette lighters.

– David Forman

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Oct. 28, 2005 – Nanotechnology faces many obstacles dampening its market viability — namely funding constraints precipitated by Wall Street’s wariness of technology. The vast majority of nanotech companies worldwide are small startups or university-led initiatives. Only 10 percent of these companies have ever attracted venture capital, according to our research, and just 10 percent of those have received more than one round of financing.

This trend won’t last. Nanotechnology companies are actively courting potential institutional and venture capital investors. Simultaneously, investors and company stockholders have contacted leading tech companies to ask about future cutting-edge nanotech applications. The level of interest seems to effectively feed on itself.

Industry money is finally approaching the level of government funding (totaled approximately $8 billion combined in 2004) for nanotech research & development. Corporate spending rose to $3.8 billion in 2004, spearheaded by companies including IBM, Hewlett-Packard, Motorola and GE.

And in 2005, a handful of emerging nanotech companies has obtained collectively more than $100 million in late-stage funding deals. The prospect of industry IPOs has the added effect of drawing additional funding to early-stage nanotech companies. Once one of the nanotech companies successfully goes public, others will likely follow.

We expect that the next IPO window will present itself within the next 12 months as the pendulum between lab discoveries and commercialization shifts towards the latter. This forecast, of course, is predicated on the assumption of an overall healthy economy and capital market environment.

The most likely entry will demonstrate strong management, good technology, sound intellectual property and visibility of revenue and profitability. The best candidates could also have strategic relationships in place and be visible to the relevant end use sector instead of simply relying on a “nano” label. To further outline the potential winning characteristics of next-stage nanotechnology participants, consider the importance of commercially viable products, intellectual property and parent companies.

Commercially viable products

During the Internet boom, many companies with adequate business plans could go public. But in 2001, disenchantment set in — the dot.com bubble altered market sentiment as investors became less aggressive and more wary about early technology stocks.

As a result, today most institutional and venture capital investors demand commercially viable products — for nanotech, that means companies with near-term opportunities (that is, a 3- to 5-year roadmap to major commercialization of a company’s products).

To date, most nanotech companies have produced very little commercial revenue, but change is afoot. Real products based on nanotechnology are entering the market, including microscopes, anti-coat wound dressings and drug delivery products, as well as catalysts for the chemical, pharmaceutical and water treatment industries.

Some nanotech-focused companies may form and leverage a partnership or alliance with an established firm during the early stages of bringing a new product to market. Whether it is a major distributor, a potential user/integrator of the technology, or simply a large corporate investor, such partnering tends to provide validation of company technology and potentially expedites the commercialization process.

Intellectual Property

Nanotechnology is likely to yield numerous “killer applications”. Hence, a broad IP-focused company could theoretically capture some of the value created by the market-moving nanotechnology applications and products of the future.

That said, IP is worth nothing unless it is successfully brought to market. As such, we believe there will be a premium on manufacturing know-how, at least during the early years. In addition, unlike the dot.com era, we believe the markets will demand profitable nano-production.

Parent Companies

Still other VCs and institutional investors are banking on a “safe bet” — the nanotech operations that function as subsidiaries of large, otherwise profitable companies. In this situation, investors still are left to wonder how and when the parent company intends to “unlock” the value created by the nanotech-enabled division, as the parent company may not get credit in its valuation for the nano division’s milestones until the markets can value the business on a stand-alone basis.

Since nanotech is still in its infancy, investors should consider a basket approach to purchases. Investors willing to do their homework could reap the nano rewards over the coming decade.

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Oct. 28, 2005 – Richard Smalley, the Nobel Prize-winning nanotechnology researcher who was also an ardent supporter of commercial nanotechnology development, died today of cancer. He was 62.

Smalley shared the Nobel Prize for Chemistry in 1996 with Robert Curl and Sir Harry Kroto for discovering the C60 molecule, a soccer ball-shaped form of carbon called buckminsterfullerene, or buckyballs.

Born June 6, 1943, Smalley studied at Hope College in Michigan and the University of Michigan before earning a Ph.D. in chemistry at Princeton University in 1973. He joined the faculty at Rice University in Houston in 1976 where he rose to become chair of the chemistry department as well as a professor in the physics department.

He was the founding director of the Center for Nanoscale Science and Technology at Rice and was director of the Carbon Nanotechnology Laboratory.

More recently, his work turned to the commercial applications of carbon nanotubes, a form of carbon related to the buckyballs he was famous for co-discovering. He was a scientific adviser to biotech startup C Sixty, which is investigating the use of fullerenes for biopharmaceutical applications and was chairman of Carbon Nanotechnologies Inc., a company developing manufacturing methods for carbon nanotubes. Smalley received the Lifetime Achievement award from Small Times magazine in 2003.

– David Forman

A tribute to Rick Smalley


October 28, 2005

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Illustration by Mike Mullen

Oct. 28, 2005 – Scientists often talk about standing on the shoulders of giants, referring to the great minds who inspired and instructed their own discoveries. Sometimes, a scientist is that giant.

Richard Smalley, the Nobel Prize-winning chemist who championed nanotechnology across the globe, earned that stature years ago. His co-discovery in the 1980s of fullerenes — or buckyballs, as he preferred to call them — rejuvenated the physical sciences. His invention of a process for making carbon nanotubes, a tubular form of fullerenes, fueled nanotube research and later commercialization.

And his eloquence on Capitol Hill, where he testified before science subcommittees and lobbied for support for nanosciences, persuaded many of the nation’s political leaders to invest in the emerging field. Nanotechnology now has an act in its name, and a $3.7 billion commitment from Congress. Appropriately, he attended the bill’s signing ceremony in the White House.

Rick Smalley died today after a long battle with non-Hodgkin’s lymphoma. He was a good friend to many people in the nanotechnology community, including Small Times. In 2001, he agreed to make himself accessible for three days to be profiled in the inaugural issue of Small Times magazine. The company then had no name recognition, no print publications and only a few online readers.

He remained a stalwart advocate for this publication and for efforts by many others who he felt shared his dedication toward furthering nanotechnology. He also could be a biting critic of those whose views he found scientifically objectionable.

Rick Smalley will be remembered for his scientific genius, his relentless drive and commitment to achieving the best — the traits that make him a giant. Hopefully history will also recognize his other attributes: his great sense of humor, generous spirit and endless curiosity.

Oct. 28, 2005 — pSivida Ltd. (NASDAQ:PSDV) announced it signed a license with Beijing Med-Pharm Corp. for the clinical development, marketing and distribution of pSivida’s lead product, BrachySil, in China.

Under the terms of the license, pSivida will manufacture BrachySil and Beijing Med-Pharm will be responsible for clinical development, securing regulatory approval, marketing and distribution in China. pSivida will retain manufacturing rights for BrachySil. A manufacturing and supply agreement for pSivida to supply BrachySil to Beijing Med-Pharm is slated to be done within 90 days.

Oct. 27, 2005 — SUSS MicroTec, an equipment supplier for MEMS manufacturing and testing, received three purchase orders from leading device manufacturing companies for its production wafer bonder ABC200.

The orders, which the company says were worth a total of more than $4 million, were received in September and October and are follow-on orders due to capacity expansions. The systems are scheduled to be shipped by the end of this quarter and early next quarter and will be installed in Europe, North America and Taiwan. The tools are being used for display and automotive applications in direct, triple stack anodic and thermal compression bonding processes.

Oct. 27, 2005 — The Foresight Nanotech Institute, a think tank and public interest organization focused on nanotechnology, awarded prizes to leaders in research, communication, government and study in the field of nanotechnology at the 13th Foresight Conference.

The 2005 prize for experimental work was awarded to Christian Schafmeister of the University of Pittsburgh, for his work in developing a novel technology synthesizing macromolecules with designed shapes and functions.

The prize for theoretical work went to Christian Joachim of the Center Nationale de la Recherche Scientifique in France for developing theoretical tools and establishing the principles for design of a wide variety of single molecular functional nanomachines.

The institute awarded its distinguished student award to Christopher Levins, a Ph.D. candidate in chemistry at the University of Pittsburgh, and its communication prize to Rocky Rawstern, editor of the Nanotechnology Now Web site. It presented its inaugural government award to U.S. Rep. Mike Honda, D-Calif.