StockerYale Acquires KLOE, S.A. of France for the Development of Integrated Optical Circuits.Business/Technology Editors SALEM, N.H.--(BUSINESS WIRE)--March 15, 2001 Next Generation Of Optical Circuits Will Be Designed Using Proprietary Sol-Gel Technology StockerYale, Inc., (NASDAQ NASDAQ in full National Association of Securities Dealers Automated Quotations U.S. market for over-the-counter securities. Established in 1971 by the National Association of Securities Dealers (NASD), NASDAQ is an automated quotation system that reports on : STKR), a leading independent provider of phase masks, specialty optical fiber, and specialized illumination products, today announced that it has signed a letter of intent for an undisclosed amount of stock and cash to acquire a majority owned interest in KLOE, S.A. of Montpellier, France. This acquisition will allow the company to design and fabricate integrated optical devices and circuits using KLOE's advanced proprietary sol-gel technology. Because this technology is inherently more efficient and cost effective, it is ideal for the mass production of optical devices used within the framework of fiber optic networks. KLOE's proprietary sol-gel technology promises the development of next generation multiplexing, demultiplexing, advanced micro-optics, and signal processing See DSP. devices. In photonics, sol-gel refers to the process of making glass from liquid precursor molecules near room temperature. Linking these molecules together forms a colloidal suspension Noun 1. colloidal suspension - a colloid that has a continuous liquid phase in which a solid is suspended in a liquid colloidal solution, sol colloid - a mixture with properties between those of a solution and fine suspension called a "sol". When the sol is coated as a film, it "gels". From this point, additional processes will transform the gel into a glass compound. KLOE, S.A. is a French start-up company start-up company A new business. , founded by Dr. Paul Coudray and Dr. Pascal Etienne, whose origins were from the Universite de Montpellier II, specifically the Centre d'Electronique et de Micro-optoelectronique de Montpellier and the Laboratoire des Verres. Both Dr. Coudray and Dr. Etienne are associated with the CNRS CNRS Centre National de la Recherche Scientifique (National Center for Scientific Research, France) CNRS Centro Nacional de Referencia Para El Sida (Argentinean National Reference Center for Aids) (Centre National de la Recherche Scientifique The Centre national de la recherche scientifique ("National Scientific Research Centre", CNRS) is the largest governmental research organization in France. It involves 26,000 permanent staff (researchers, engineers, and administrative staff) and a further 4,000 temporary ). Dr. Coudray has a Ph.D. in optoelectronics and is a world-renowned expert in the micro-fabrication of optical devices. He has written more than 40 scientific papers including 7 invited papers and holds 1 patent. Of late, Dr. Coudray has spent much of his time focused on the design and micro-fabrication of integrated optical circuits. Dr. Etienne has a Ph.D. in Material Sciences and specializes in the synthesis, deposition and characterization of mineral and hybrid layers elaborated by the sol-gel process Sol-gel process A chemical synthesis technique for preparing gels, glasses, and ceramic powders. The sol-gel process generally involves the use of metal alkoxides, which undergo hydrolysis and condensation polymerization reactions to give gels. . Having written more than 25 scientific papers including 6 invited papers, and the recipient of 1 patent, he is a renowned expert in sol-gel technologies. During his professional career, Dr. Etienne developed layers with specific optical properties and also worked with sol-gel technology during his tenure at the Laboratory of Glasses for the University of Montpellier History The university is considerably older than its formal founding date, associated with a bull issued by Pope Nicholas IV in 1289, combining all the long-existing schools into a university. , a world leader in sol-gel technology. "Today's manufacturers of arrayed wave-guide gratings, (AWGs), and integrated optics Combining electrical and optical components on the same silicon-based substrates used in the fabrication of a semiconductor chip. Also called "silicon photonics," fiber-optic communications employs numerous integrated optics devices, including lasers, photodetectors, beam splitters, are still unable to reap all of the benefits associated with their fabrication fabrication (fab´rikā´sh n the construction or making of a restoration. technology because of the complexities associated with their fabrication process," said Alain Beauregard, StockerYale's president & chief technology officer. "KLOE has developed a unique and efficient sol-gel technology allowing the fabrication of optical integrated circuits Integrated circuits Miniature electronic circuits produced within and upon a single semiconductor crystal, usually silicon. Integrated circuits range in complexity from simple logic circuits and amplifiers, about 1/20 in. (1. at very low costs compared to existing methods," added Beauregard. "The acquisition of KLOE compliments our continuing R&D initiatives to design best-in-class specialty optical fiber and related components," Beauregard continued. The company expects to file numerous patents to protect its advancements in this cutting-edge technology. "The addition of KLOE's leading-edge technologies and processes coupled with the existing R&D team at StockerYale, will position the company as a market leader in the development of cutting-edge integrated optical devices and related components," said Mark Blodgett, StockerYale's chairman & chief executive officer. "The various technologies currently being developed by the company, whether internally or through our joint ventures and subsidiaries, is representative of the types of technologies that will build the foundation for the low-cost fabrication of optical sub-components in the future," Blodgett added. About StockerYale StockerYale, Inc. headquartered in Salem, NH, in an independent designer and manufacturer of optical components used in the building of the all-optical network A communications network that works completely in the optical domain. It uses optical switches connected by optical fibers. See optical switch and optical computer. as well as structured light lasers, specialized fiber optic, fluorescent, and LED illumination products for the machine vision and industrial inspection industries. StockerYale serves a widely varied, international customer base from its corporate offices in Salem, NH and reinvests a significant percentage of its revenues in R&D to meet the future requirements of its customers. StockerYale has offices and subsidiaries in the U.S., Canada, Europe, and the Pacific Rim Pacific Rim, term used to describe the nations bordering the Pacific Ocean and the island countries situated in it. In the post–World War II era, the Pacific Rim has become an increasingly important and interconnected economic region. . For more information about StockerYale and their innovative products, contact StockerYale, Inc., 32 Hampshire Rd., Salem, NH, 03079. Call 800-843-8011; Fax 603-893-5604; or e-mail info@stockeryale.com. Information is also available on the company's web site at www.stockeryale.com Notice to Investors: This press release contains forward-looking statements that do not give full weight to all the potential risks, but relate to StockerYale's plans, objectives, and expectations, which are dependent upon a number of factors outside of StockerYale's control including, but not limited to: uncertainty that StockerYale's new optical communications Optical communications The transmission of speech, data, video, and other information by means of the visible and the infrared portion of the electromagnetic spectrum. sub-components will gain market acceptance; the risk that one of our competitors could develop and bring to market a technology that is superior to those products that we are currently developing; and StockerYale's ability to capitalize on Cap´i`tal`ize on` v. t. 1. To turn (an opportunity) to one's advantage; to take advantage of (a situation); to profit from; as, to capitalize on an opponent's mistakes s>. its significant research and development efforts by bringing to market successful products in the optical communications sub-components markets. Thus, actual results may differ materially. StockerYale undertakes no duty to update any of these forward-looking statements. |
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