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SURFACE MODIFICATION AND MODULATION IN MICROSTRUCTURES: CONTROLLING PROTEIN ADSORPTION, MONOLAYER DESORPTION, AND MICRO-SELF-ASSEMBLY Karl F. Böhringer University of Washington, Department of Electrical Engineering Seat
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Document Date: 2002-08-14 12:30:00


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File Size: 1,41 MB

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City

Orlando / San Francisco / Nara / Interlaken / Minneapolis / New York / Stockholm / Yokohama / Tokyo / Pittsburg / Munich / Pittsburgh / Norwell / Seoul / Graham / San Diego / Chicago / Oiso / /

Company

Kluwer Academic Publishers Group / IgG / M.M. D.D. / MEMS Laboratory / Active Microsystems / Agilent Technologies / B.D. Ratner D.D. / Intel Corporation / Technic Inc. / Microsoft Research / R. Luginbuhl D.D. / Ford / UW Electrical Engineering Microfabrication Laboratory / Micro Electro Mechanical Systems / Biochemical Analysis Systems / Micromachine Technologies / Tanner Research Inc. / /

Country

Germany / Switzerland / Sweden / Japan / South Korea / /

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Facility

UW Electrical Engineering Microfabrication Laboratory / Stanford Nanofabrication Facility / University of Washington / AND MICRO-SELF-ASSEMBLY Karl F. Böhringer University of Washington / Cornell Nanofabrication Facility / /

IndustryTerm

bioMEMS applications / interfacial energy / square silicon chips / substrate binding site / ppNIPAM devices / motion systems / actual devices / programmable surface chemistry devices / mechanical devices / software simulation tool / silicon chips / surface energy / microelectromechanical systems / binding site / robotics assembly systems / microfluidic devices / silicon test chips / aqueous solution / manufacturing process / hybrid complex systems / energy minimum / microheater chip / interfacial energy coefficient / feasible solution / simulation tool / protein solution / protein chips / Temperature sensitive paint / ethanolic dodecanethiol solution / manufacturing techniques / distributed robotic conveyor systems / surface energy model / biomedical devices / /

Organization

University of Washington / Department of Electrical Engineering Seattle / National Institute of Health / National Science Foundation / Cornell / UW Bioengineered Materials Center / Congress / Packard Foundation / Assembly of Micro Devices / /

Person

Bruce Darling / Yael Hanein / John Suh / Michael B. Cohn / Xiaorong Xiong / Noel MacDonald / Daniel Schwartz / Uthara Srinivasan / K.F. Böhringer / Bruce R. Donald / Denice Denton / Roger T. Howe / Mike Sinclair / Greg Kovacs / Rob Mihailovich / Jiandong Fang / Weihua Wang / /

Position

Hilton Head / SC / integrated controller / /

ProvinceOrState

New Brunswick / Illinois / New York / Pennsylvania / Florida / New Hampshire / /

Technology

protein chips / Programmable Surface Chemistry Chips / photolithography / same chip / ADXL50 chip / microelectromechanical systems / square silicon chips / enabling technology / silicon chips / microheater chip / silicon test chips / simulation / micropumps / /

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