Category Archives: OLEDs

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April 12, 2005 — Ecology Coatings of Akron, Ohio, announced a licensing deal Monday with DuPont Performance Coatings allowing DuPont to manufacture and sell Ecology Coating’s products for use in North American automotive applications. Ecology Coatings also announced the formal launch of its licensing program.

Terms of the DuPont agreement were not disclosed, but Rich Stromback, Ecology Coating’s chief executive officer, said DuPont licensed the technology to use in automotive applications where coatings must adhere to both metal and plastic while simultaneously withstanding abrasion and corrosion.

“The coatings industry has been overlooked,” he said. “Incorporating (nanomaterials) is tougher than people thought.”

Ecology’s technology combines the company’s core ultraviolet-curable coating technology — what it calls “liquid 100 percent solids” — with nanoparticles that act as a sort of smart filler, lowering the coating’s viscosity, adding to its durability and increasing its transparency.

Stromback said that his company’s technology is intended to compete with conventional coatings technology that can require heating a part in order to cure the coating. Ecology’s ultraviolet curing, he says, also makes it appropriate for medical, electronics and display applications.

The company’s business model is to focus on the technology and partner with leading firms to address individual markets. In addition to the DuPont agreement, Stromback says Ecology Coatings also has a licensee that uses its technology in surgical medical devices. He said the terms of the agreement prohibit him from naming the licensee.

Sally Judith Weine Ramsey, Ecology’s chief chemist, said flexibility would also become an issue for protective coatings as the market for organic light emitting diode (OLED) and other next-generation display technologies matures. “We’ve seen the coating being the bottleneck,” she said of the sector. Stromback said Ecology is in discussions with the holders of the key OLED intellectual property and leading manufacturers of OLED devices.

– David Forman

By David Forman

Feb. 1, 2005 — Two river routes lead to Wall Street in lower Manhattan. Sailing down the Hudson provides a wide, smooth ride, not to mention breathtaking views of the wooded cliffs of New Jersey — in short, a classy way to sail downtown.

The East River, by contrast, is a narrow, bumpy ride. The water is dark and oily from barge traffic. The stretch past LaGuardia airport is deafeningly noisy. And the currents are so dangerously tricky in one narrow spot that it’s officially known as Hell’s Gate.

Nanotechnology startups are likely to try both routes this year in their quest to land an IPO. Some will look for a classy ride with a large, established bank — think Nanosys’ aborted IPO, led by Merrill Lynch in 2004. Others will ply the somewhat less romantic route aboard a boutique bank willing to underwrite a more modest sum.

Retrenching for ’05

The nanotech business community appears to be gearing up for another run at the Street. For starters, experts continue to see nanotechnology’s potential for game-changing innovation and locate some of that innovation in the nanotech startup community. The World Economic Forum’s list of technology pioneers, unveiled in December, was replete with nanotech — Konarka Technologies, Polyfuel, Arryx, Molecular Imprints, Nanofilm, Quantum Dot and ZettaCore — that is, nearly 25 percent of the 29 companies selected as pioneers.

Investment banks have quietly continued to build up nanotechnology practices. Small investment banks have been bringing on nanotechnology analysts while big firms are continuing to initiate research. The latest is Citigroup Smith Barney’s London semiconductor equity research group, which put out a nanotech report in December.

Meanwhile, startups are retrenching. Nanosys recently completed a new building for manufacturing at its Palo Alto, Calif. headquarters, putting to rest speculation over whether the company intended to manufacture its own product or only license intellectual property to others.

Other startups have begun positioning themselves for a higher profile. For example, Austin, Texas-based Molecular Imprints has begun issuing regular news announcements, recently sold a tool to Hewlett-Packard and opened offices in Germany and Japan. In December, the firm hired a new executive vice president and chief financial officer, David Gino, who was involved in leading two previous companies through IPOs.

Late 2004 had its moments, even if they were modest. MicroEmissive Displays Group, a Scottish developer of polymer organic light emitting diode based microdisplays, floated 17.1 million shares on Nov. 30 under the symbol MED. The offering occurred on the Alternative Investment Market of the London Stock Exchange.

Reading the VC tea leaves

At first glance, private nanotechnology funding appears to be contracting. But that’s not necessarily the case. By the end of the third quarter, only $122.1 million had been invested in the field in the U.S., according to a Small Times analysis of the MoneyTree Survey by PricewaterhouseCoopers, Thomson Venture Economics and the National Venture Capital Association. That puts funding on track to be well below $200 million for the year, a far cry from the $301 million invested in 2003.

While the dollar amount has come down significantly, there has actually been a dramatic uptick in deal volume. By the end of the third quarter, investors had already invested in 30 nano companies, on pace to significantly outstrip the total of 34 funded during the entire year of 2003.

Beneath those numbers are essentially two generations of startups. The more mature of the companies founded in 2001 and 2002 raised fat rounds in late 2003 in anticipation of a possible exit window in 2004 or 2005. Consequently, they had no need to raise venture dollars last year.

At the same time, a new generation of nanotechnology companies turned to venture backers in 2004. That new crop sought earlier stage funding, which accounts for more deals but smaller rounds. The two trends led to more funding activity, but fewer dollars invested.

Nanotech’s leading entrepreneurs know the adage that luck comes when preparation meets opportunity. So expect that they’ll ply both routes to the public markets in 2005, plumbing the depths and gauging the currents all the way. But as 2004 showed, even if the approach is smooth sailing, there’s still no saying which way the winds will blow on Wall Street when they get there.



For nanotechnology, the percent of funding events classified as expansion stage or later stage steadily increased from 2001 to 2003. In 2004, however, the trend seemed to stall out as more rounds were classified as early stage.

Sources: Small Times and PricewaterhouseCoopers/Thomson Venture Economics/National Venture Capital Association MoneyTree Survey. Research by David Forman.


Jan. 21, 2005 — Veeco Instruments Inc. (Nasdaq: VECO) announced the introduction of a new optical profiler to address metrology challenges in the printed electronics industry.

The WykoNT4800 profiler is intended for applications in organic light emitting diode (OLED) displays, radio frequency identification tags (RFID), biosensors and other flexible circuit devices.

It combines high-speed, high-resolution optical profiling with large format staging and is intended for critical R&D and production metrology applications, such as surface shape and texture measurement, according to a company release.

By Janice K. Mahon, Min-Hao Michael Lu, Universal Display Corp., Ewing, New Jersey

VTE has been the leading technology for OLED production, but OVPD, IJP and LITI have the potential to drive display performance and manufacturing efficiencies in future device generations. For OLED technology to advance in FPD applications, its production technology must continue to achieve device performance advances and manufacturing cost reductions.

An OLED typically consists of a stack of organic layers sandwiched between two conductive films deposited onto a substrate. Within the organic stack, the emitting layer (EML) is critical. This layer determines the color of the light emitted, typically red, green and blue (RGB) for full-color displays; this layer also plays a major role in device efficiency. In 1997, researchers at Princeton University and the University of Southern California discovered that by adding phosphorescent dopants to the EML, the resulting phosphorescent OLEDs (PHOLEDs) could be up to four times more power-efficient than conventional, fluorescent OLEDs.

Universal Display Corp. then developed a class of new materials and device technology to enable the commercialization of this approach. Based on the demonstrated performance from phosphorescence, Pioneer introduced the first product containing PHOLED technology in a commercial product late in 2003. Since then, OLED manufacturing capacity has been quickly increasing (see “OLED opportunity”).

Read the complete article in a pdf format.

Other January 2005 SST Online Exclusive Features

If you have any questions or comments, please contact:
Julie MacShane, Managing Editor, SST at email: [email protected].

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Sept. 14, 2004 – When Nanosys withdrew its initial public offering in early August, the debate over what its withdrawal meant was so loud and vociferous that it effectively drowned out the news that Cambridge Display Technology (CDT) Corp., a developer of organic molecules for display applications, had filed to go public just a few days earlier.

The Nanosys withdrawal and its causes suggest CDT will also have a tough time on the public markets. In addition, CDT’s public offering, which could have occurred by the time you read this, can retroactively tell us even more about the market encountered and ultimately eschewed by Nanosys. Nanosys has decided not to comment on its decision other than a press release citing “adverse market conditions.”

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Cambridge, England-based CDT is in many ways similar to Palo Alto, Calif.’s Nanosys. Like Nanosys, its key asset is an extensive portfolio of intellectual property covering materials and processing know-how, which it licenses to manufacturing partners to generate revenue.

Like Nanosys, it already has key relationships in place. And its technology is also widely considered potentially disruptive — in CDT’s case, for next-generation displays on everything from cell phones to big-screen TVs. And, like Nanosys, CDT is not yet profitable.

“They are in a funny position,” said Kimberly Allen, director of technology and strategic research at iSuppli/Stanford Resources, an El Segundo, Calif., market research firm that follows the display sector closely. “Commercialization is in the hands of their licensees and partners.” Ultimately, it may be that more vertically oriented, product-centric companies have the best model for today’s market.

CDT owns some of the key IP in the field of polymer organic light emitting diodes, or polymer OLEDs. But polymer OLED technology is just one route to next-generation displays. Manufacturers might license competing technology or develop their own type of OLED or other display device, leaving CDT and its IP portfolio out in the cold. For that and other reasons, Allen considers it as a high-risk investment.

Being similarly high risk hampered Nanosys, but not because there is never a market for such offerings. Risk tolerance comes and goes, but in August it appeared at a low. By Aug. 16, nine IPOs had already been withdrawn, according to Nasdaq.com, and seven were withdrawn in July, up from an average of 1.8 per month for the first six months of year.

As the markets fell, the market for higher risk issues fell more precipitously. For example, for the six months ending Aug. 20, the Dow Jones Industrial Average was down about 5 percent and the Nasdaq about 10 percent. But the Punk Ziegel Nanotechnology Index was down 42 percent and the Merrill Lynch Nanotech Index, which launched April 1, was down 28 percent.

Meanwhile, the highest profile IPO of the year, Google, scaled back significantly as stock markets reeled in reaction to rising oil prices and other decidedly non-nano news.

“I think this (Nanosys’ withdrawal) is a statement about where the market is right now rather than about nanotechnology in general or Nanosys in particular,” said Lynn Foster, the emerging technologies director of Greenberg Traurig Consulting and a longtime nanotech industry observer.

“There are other companies making steady progress right now that will continue to gain traction and this won’t affect the timelines of their exit events,” he added, summarizing the views of many in the nanotech startup sector.

Now CDT will face the same scrutiny. It is one of just two companies — the other being Kodak — with a sizable portion of the patent pie surrounding OLED technology. Proponents are pushing the technology as the heir to the liquid crystal display, or LCD, most commonly used today in mobile phones, laptop computers and other consumer electronic devices.

Kodak, which discovered OLED technology in the early 1980s, uses a vapor-deposition process to build layers of OLED material onto a substrate. CDT suspends the OLEDs in a polymer solution that can be inkjet printed onto a substrate. As a result, says Allen, it can be used to make bigger displays like monitors and televisions.

But the company faces daunting challenges, not the least of which is the fact that, according to Allen, 98 percent of the product value currently on the market traces its roots to Kodak’s IP, not CDT’s. And, she says, even if you buy the idea that CDT’s portfolio deserves a premium for its future value when manufacturers build larger OLED devices like computer monitors and flat screen TVs, there’s no guarantee such devices will be OLED-based.

Add to that longevity issues. OLEDs degrade over time. Cell phones are the ideal proving ground for OLED technology because, among other reasons, consumers frequently upgrade to new phones. On the other hand, computer monitors and televisions are expected to function for years without a noticeable performance drop. CDT will have to significantly improve the lifetime of its displays for them to be viable in such markets, Allen says.

If CDT pulls off a successful IPO, it may be a sign that the market has become more risk tolerant or that investors are comforted by the fact that CDT’s manufacturing partners already have products on the market.

On the other hand, a withdrawn CDT offering or a poor performance would support the contention that the platform technology model is out of synch with the current stock market. It would suggest companies promoting the promise and potential of nanotech have less appeal than companies with new and better products tailored to a specific existing market, with scalable processes, solid relationships, and sustainable and growing revenues. If they also happen to be enabled by nanotech, so be it.

That was the approach taken by Immunicon Corp., which went public in April and raised $43 million in net proceeds. The company makes systems to collect and analyze rare cells from blood for cancer diagnostics and other purposes. It mentioned just once in its 122-page prospectus that its products use patented magnetic nanoparticles.

“Don’t try to sell your technology,” said Ed Erickson, chairman and chief executive. Instead, he advised, “Try to find some niche markets where you have specific leverage.”

The advice runs counter to the biotech boutique model and the platform play. In essence, Erickson maintains, companies should put the product horse before the platform cart, not the other way around.

By moving forward with a specific product in a proven market, he maintains, you prove your technology platform. You can branch out into other product markets later.

In a stock market skeptical of grandiose claims and high-risk ventures, the breakthrough nanotechnology IPO could be something as mundane as a market-focused diagnostics company. The breakthrough is that it presents a workable template for other nanotech-enabled startups to copy, and to go public despite an IPO market with a withering appetite for risk.

And in that sense, Immunicon might well have been the watershed nanotech IPO of 2004, precisely because it wasn’t a watershed at all.

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GERMANY, June 24, 2004 – If Dresden-based Novaled has its way, many of the displays of the future — highly efficient, extremely thin and even flexible — will have a “Made in Germany” label somewhere on them.

The company was spun off in 2001 from the Technical University of Dresden and Fraunhofer Institute of Photonic Microsystems (IPMS) to licence its OLED technology to display and lighting manufacturing.

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Novaled is now entering the final stages of getting its second-generation organic light emitting diode (OLED) technology ready for the market. By the middle of 2005, it plans on having its OLED display screens in PDAs or handhelds on store shelves.

The company eventually wants to set up a production site in Dresden for the OLED display market that promises to take-off in a big way over the next few years.

OLED technology, first developed by Eastman Kodak in the early 1980s, has many advantages over traditional liquid crystal displays (LCD) that many observers say could make them the technology of choice in a few years.

OLED displays are much clearer, brighter and have a higher contrast than traditional LCD screens, which give them a wider viewing angle. Since they do not need a backlight to function like LCDs do, but create their own light, they operate at a very low voltage. That makes them easier on batteries and cheaper to manufacture.

Uses for such screens, which can be made very small or potentially very large, range from mobile phone and stereo displays, which already exist, to advertising displays on everything from cereal boxes or billboards to lighting.

In the past, Canon has mentioned the potential for 500-inch polymer OLED display screens, printed very quickly using ink-jet technology on flexible surfaces. The talk has led to excited speculation about roll-up portable computer screens coming soon.

OLEDs are a series of carbon-based thin films sandwiched between two charged electrodes, one a metallic cathode and the other a transparent substance, usually glass. When voltage is applied to an OLED, the injected positive and negative charges recombine and produce light.

Novaled said it has set itself apart from the competition by developing OLED displays that use only half of the energy of those currently on the market. Through “doping” techniques, researchers apply certain molecules to transport materials, thereby increasing conductivity and decreasing operating voltage.

The around 20 Novaled scientists working on the project have a goal of further reducing operating voltage further, down to a fifth of current levels needed.

The company got a major boost last year when it secured 5.75 million euros ($7 million) in financing from international investors led by venture capital firms TechnoStart and TechFund Capital Europe. Other investors included Dresden Fonds and Thomson, the French media services and equipment group.

As soon as the PDA display is ready for market, Jan Blockwitz-Nimoth, Novaled’s technical director, said he wants to start generating the “first real profits” through the sale of licences.

After that, Blockwitz-Nimoth said the company is interested in creating a joint venture with a strong partner and has its eyes set on creating a production facility, likely in Dresden where it could take advantage of the region’s high-tech dynamic.

The market for OLED displays is growing rapidly. According to a study by the research firm iSuppli, the global market last year was around $250 million and is expected to grow to more than $3.1 billion in 2009 and $4 billion in 2010.  

Up to now, the Japanese have dominated that market, with players like Pioneer in Japan, Korea’s Samsung and RiT Display in Taiwan leading the pack. Samsung also is using OLED displays is some of its products.

This May in Tokyo, Seiko Epson presented a prototype of a big-screen color television using OLED technology, heating up the race considerably.

But the Germans are still in the running, besides Novaled, large German firms like Schott Glas and lighting industry giant Osram are conducting research.

Other high-tech companies and institutes here are hoping to secure the country’s place in the future OLED landscape by pooling their resources.

In 2003, several firms, including Novaled, the Fraunhofer IPMS institute, Deutsche Thomson Brandt, Applied Films and others formed a research association called OLEDFAB. Its goal is to set up a pilot production system of OLED displays in eastern Germany.

The German government believes the OLED outlook is good and provided the association with start-up funds of $3.9 million.

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NEW YORK, June 9, 2004 – You don’t have to be a professional futurist to see that the days of conventional film are numbered. Sales of digital cameras now outpace those of film. Digital cameras are increasingly cheaper, easier to use and often take better pictures. They are even being built into cell phones.

Nice for consumers, but nothing short of scary for a company that generates enormous revenues from film sales.

Eastman Kodak Co. (NYSE: EK) has been feeling the pinch. In the last year, it reduced its work force, cut its dividend from $1.80 to 50 cents and announced a new business model that executives characterized as a “fundamental change” in the company.

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By 2006, the company expects revenues from digital initiatives to outpace those derived from traditional film products. Various forms of small tech are among the lynchpins Kodak will use to shift itself over to the digital age.

Truth be told, said Vicki Barbur, technology director for Kodak’s Growth Initiatives division, “we have really been practicing nanotechnology for more than a hundred years.” While that’s true — nanoparticles are used in conventional films — it’s the new applications of nanotechnology and even MEMS that Kodak is counting on to facilitate its transition to new markets.

The products are already there.

Kodak’s Ultima line of inkjet printer paper is comprised of nine layers, including coatings, resins and the paper itself. The top layer includes a proprietary ceramic nanoparticle designed to improve density and gloss.

The company has also developed pigment nanoparticles as small as 10 nanometers that it says are less likely to clog inkjet nozzle heads. And it is using polymeric nanoparticles to immobilize ink on inkjet and instant photo papers.

It sounds simple, but getting all of those layers of different chemicals and materials to quickly attach to film or paper while keeping them separate is both a science and an art.

“If you’re producing multilayers, you’re trying to put them all down together,” said Barbur. “They would all mix. You’ve got to have the experience to differentiate the layers.”

Nor are nanomaterials the only form of small tech in which Kodak is engaged. Part of its recently announced strategy includes a foray into MEMS inkjet printer nozzles. And Kodak has taken a lead role in commercializing active matrix color organic light emitting diodes, or OLEDs, for displays. It claims its EasyShare LS633 camera was the first consumer electronics product on the market to feature such a display.

Kodak appears to be shifting gears effectively. It posted first quarter earnings of $28 million, or 10 cents a share in April, beating analyst estimates and dramatically outstripping its year-earlier earnings of $12 million. But outsiders and Kodak executives alike agree there is still a lot of transition work to do as film continues its downward spiral.

“In the past they’ve dabbled in things and announced how it’s going to save the company,” said Nathen Fox, president of Atomic-Scale Design,  a California nanomaterials company.

Fox previously worked for Imagica Corp., a Japanese maker of digital film scanners. “But even at best, all of the research and all of the marketing and product development that went into their digital film post-production and color-management processes can’t make up for the volume that film brings.”

It’s a reality of which Kodak was aware long before it announced its new strategy last year, said Jim Stoffel, the company’s chief technology officer. He joined the company six years ago as one of the “change guys.”

According to Stoffel, the strategy is to take advantage of Kodak’s core competencies in materials science, image science and coatings, while simultaneously supporting its brand. Prescription: complete solutions, not just for consumers, but also in the other major markets the company serves, such as commercial printing and medical imaging where customers are accustomed to Kodak providing a wide variety of products.

And then there is that elusive opportunity that nobody sees yet. Kodak Ventures makes investments designed to give the company access to new materials or process technologies. Last year, it took a strategic stake in Nanosys, a leading California nanotech startup commercializing inorganic semiconductor nanocrystals that recently filed to go public.

Kodak also provides its manufacturing capabilities to others through a manufacturing services business unit.

In the end, Stoffel admits, the transition is going to take a long time. “Very often we confuse a clear vision with a short distance,” he said. “This vision is clear but the pathway requires us to take many baby steps along the way.”

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April 5, 2004 — As the world goes mobile and cellular phone manufacturers jockey to get their gizmos in your pocket, a nanotechnology-based innovation is going along for the ride.

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OLEDs, or organic light emitting diodes, are poised to make cell phone displays brighter, faster and perhaps one day even cheaper than current technology — enough so that Kyocera Corp., a Japanese electronics firm, launched a new subsidiary for OLED R&D, manufacturing and sales activities.

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The new company, Kyocera Display Institute Co. Ltd., is slated to have 32 employees and is aiming to enter the OLED market in 2005 with OLED displays for phones, cameras and other consumer electronics devices.

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“It’s very significant,” said Kimberly Allen, director of technology and strategic resources for iSuppli/Stanford Resources, an El Segundo, Calif.-based research and analysis firm. “It’s the middle-sized companies (like Kyocera) that are … the key to getting active matrix OLEDs into the market.”

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Active matrix OLEDs offer high-end color viewing. Passive matrix screens are like the older monochromatic liquid crystal displays on low-end mobile phones and first-generation laptops.

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Allen said that while some larger electronics firms are struggling, the midsize firms are doing relatively well. Kyocera’s new venture also has the advantage of a built-in customer: In early 2000, Kyocera bought Qualcomm’s mobile phone business, which is now Kyocera Wireless Corp.

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OLEDs are already in the cellular phone market, though in their less robust form. Subdisplays — the miniature readouts on the outside of flip-style phones — are the initial application for passive matrix OLEDs in phones. Pioneer of Japan, Samsung NEC Mobile Display of Korea and RiTdisplay of Taiwan supply panels that Fujitsu, LG, Samsung and Motorola are using in phones either on or coming to market. The subdisplay, Allen says, is a place where consumers have lower quality expectations.

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However, those low expectations won’t last long. Passive matrix OLEDs work in places where entrenched technologies like LCD are used, but OLED can’t compete with LCD on price. Therefore, Allen says, the ultimate market for OLED is in higher quality, and higher margin, products such as the full-color active matrix displays inside phones, handheld computers and digital cameras.

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So far, it’s a wide open playing field. As far as Allen is aware, Kodak’s LS633 digital camera is the only consumer electronics product on the market with an active matrix OLED.

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The worldwide OLED market in 2003 was worth $250 million, according to Allen, who said $195 million of it, or 78 percent, was in cellular phones. And as the market grows, to $1.7 billion in 2007 by her forecasts, she expects mobile phones’ share to grow too.

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As for applications beyond consumer electronics, the technology faces some development hurdles. OLEDs degrade over time, making cell phones the ideal application for the present time, since consumers replace them frequently.

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Phone manufacturers are even working on innovative designs that would sandwich two displays — one on the outside and the other on the inside — around a single set of electronics within a flip-style phone’s cover. The technique would save power and money. Consumers would be likely to toss the phone long before the displays wore out.

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On the other hand, Allen said, “The display on your oven would not be a good idea.”

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EWING, N.J., Dec. 22, 2003 — “See the light!” declares a sign in the company’s entryway. Universal Display Corp. (UDC) expects its screen technology to see the light of commercial day sometime in 2004.

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OLED stands for organic light-emitting device, and screens based on UDC’s technology are composed of several ultrathin films of special molecules that glow when excited by an electric current. The OLED approach boasts brighter colors and wider viewing angles than those based on current liquid crystal display (LCD) technology. They also promise to be more power-efficient and deliver smoother video than LCD. Because OLED molecules emit their own light, displays based on them could be cheaper, simpler and thinner than LCD screens that require backlighting.

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First-generation OLED screens from RiTDisplay Corp., Samsung NEC Mobile Display Co. Ltd. and SK Display Corp. have already begun to appear in a few digital cameras, cell phones and car stereos. Pioneer says its new display will employ UDC’s phosphorescent material for the red pixels in the red, green, blue medley required for full color.

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The research group DisplaySearch predicts that the OLED market will grow to $3.1 billion by 2007. But UDC’s progress has been almost a decade in the making. Kodak scientist Ching Tang first reported carbon-based materials that glowed when electrified in 1987. UDC was founded in 1994 to market the OLED research going on at Princeton University and the University of Southern California.

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UDC counts Sony, Samsung, DuPont, Motorola, Toyota and the U.S. Army, in addition to Pioneer, among its strategic partners. Such alliances are critical because its business model is to license its technology rather than make OLED screens.

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Kimberly Allen, director of technology and strategic research at Stanford Resources, a market research firm, said that UDC is well-positioned to succeed as OLEDs mature, but she noted that there are also a number of new players, such as Covion Organic Semiconductors GmbH, in Frankfurt Germany, with similar technology.

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“The market will have to sort out who has the best phosphorescent materials for the best price,” said Allen. She noted that Hitachi and Casio have also joined the fray, showing off full-color active matrix at recent tech conferences.

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UDC went public in 1996 with a $7 million stock offering and has raised more than $100 million more since then through investors, partnership programs and grants. In November, it was awarded $730,000 in Small Business Innovation Research Phase II funding to develop a flexible display on metal foil for military applications.

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Janice Mahon, the company’s vice president of technology commercialization, said that UDC is developing flexible and transparent OLED displays as well as working toward full-color, active-matrix screen technology that might find applications in larger displays such as laptops, computer monitors or small televisions. Flexible screens could, for example, be used on curved surfaces such as vehicle dashboards or for displays that roll up like a small movie screen. Transparent screens could enable displays on windshields or windows.

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Mahon said that UDC’s approach employs phosphorescent material, while its chief competitors, Cambridge Display Technology (CDT) and Eastman Kodak use fluorescent materials.

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The practical difference, said Mahon, is that the phosphoresent OLEDs require significantly less power.

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Mahon said the company is working with its partner, Aixtron AG toward a second-generation production process, organic vapor phase deposition, that offers advantages over current thermal evaporation techniques. In contrast, CDT’s OLEDs are made with a liquid polymer that could be sprayed onto a surface with a low-cost process akin to inkjet printing. DuPont Displays is working to blend UDC’s performance advantages with the low cost of CDT’s “printable” approach.

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Company file: Universal Display Corp.
(last updated Dec. 22, 2003)

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Company

Universal Display Corp.

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Ticker symbol

Nasdaq: PANL

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Headquarters

Princeton Crossroads Corporate Center

375 Phillips Blvd.

Ewing, N.J., 08618

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History

UDC was founded in 1994 by Sherwin Seligsohn to commercialize the OLED research going on at Princeton and USC. In 1996, UDC took a $7 million IPO. In 1999, the company moved its operations into what is now a 20,000-square-foot facility in Ewing, N.J. During 2003, UDC helped fund MIT’s research into the use of quantum dots in OLEDs.

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Industries served

Computing, consumer electronics, vehicle displays, military communications

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Employees

45, with at least 25 focused on R&D and technical development

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Small tech-related products and services

Rather than developing and marketing its own products, UDC develops and licenses its organic OLED technology to other companies.

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Management

Sherwin I. Seligsohn: chairman of the board and chief executive officer

Steven V. Abramson: president and chief operating officer

Sidney D. Rosenblatt: executive vice president and chief financial officer

Julia J. Brown: vice president, technology development

Janice Mahon: vice president, technology commercialization

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Revenue

$2.4 million in 2002

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Selected strategic partners and customers

  • Pioneer Electronics
  • Aixtron AG
  • DuPont Displays
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    Selected competitors

  • Cambridge Display Technology
  • Eastman Kodak Co.
  • Covion Organic Semiconductors GmbH
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    Barriers to market

    In order to be useful in devices meant to last more than a few years, OLED technology will need to make significant advances in lengthening the working life of materials, especially blue emitters. UDC’s small-molecule process also needs to achieve certain economies of scale in order to become competitive within an established LCD infrastructure.

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    Relevant patents

    Sealed organic optoelectronic structures

    Protected organic optoelectronic devices

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    Recent articles

    DuPont, UDC link on flat panel display technology

    OLEDs get ready to light up the market for flexible screens

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    Contact

    URL: www.universaldisplay.com

    Phone: 609-671-0980

    Fax: 609-671-0995

    E-mail: [email protected]

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    — Research by Gretchen McNeely

    Nov. 18, 2003 — Seiko Epson Corp. has developed a controller chip for organic light-emitting diode (OLED) displays designed for car electronics and other consumer devices, according to a news release.

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    The S1D13701 is based on Epson’s existing display control chip series platform but has been modified for OLED displays. The chip, equipped with a signal output that connects directly to an OLED panel, is designed for display sizes used in car audio systems, the release said.

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    The company said the chip greatly reduces the load on the system’s central processing unit, and should lower costs by reducing development time. Epson expects to begin shipping samples shortly.

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    Epson also said has developed what it calls the world’s smallest Micro Flying Robot, on display this week at the 2003 International Robot Exhibition in Tokyo.

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    The prototype, which is not planned for commercial launch, was developed to demonstrate its “micromechatronics technology.” The 8.9-gram, 70-millimeter-tall microrobot includes a linear microactuator that acts as a stabilization mechanism, and contrarotating propellers powered by an ultrathin, ultrasonic motor.