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Surface chemistry / Fluid mechanics / Nanotechnology / Self-organization / Condensed matter physics / Wetting / Hydrophobe / Self-assembled monolayer / Surface energy / Chemistry / Science / Physical chemistry


MODELING OF CAPILLARY FORCES AND BINDING SITES FOR FLUIDIC SELF-ASSEMBLY 1 2,3
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Document Date: 2000-11-19 22:54:00


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Santa Clara / Los Angeles / Sendai / /

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Diodes / Computer Sciences / Agilent Technologies / IEEE/LEOS Intl / Forming Electrical Networks / K. L. Michael L. C. / Microsoft / Intel Corporation / John Wiley & Sons / Tanner Research Inc. / /

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Japan / United States / /

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Facility

Applied Microtechnology University of Washington / Computer Sciences University of California / University of Washington / square Si / Berkeley Microfabrication Facility / University of California / American Institute of Chemical Engineers / /

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low energy gradient corresponding / high surface energy / energy minimum / interfacial energy / substrate binding site / free energy / interfacial free energy minimization / surface energy / contact printing / energy minima / part binding site / adhesive-coated substrate binding site / clear global energy minimum / computational tools / interfacial energy gain / minimum energy configurations / interfacial free energy / energy / /

Organization

University of California / American Institute / National Science Foundation / University of California / Berkeley / Berkeley Sensor & Actuator Center / University of Washington / Seattle / /

Person

Uthara Srinivasan / Roger T. Howe / /

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MATLAB / /

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M. B. / California / Washington / /

PublishedMedium

Analytical Chemistry / /

Technology

laser / Microelectromechanical Systems / MEMS / X-ray / Crystallization / lithography / simulation / html / /

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www.susqu.edu/facstaff/b / /

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