GOALI: University-Industry Collaborative Research on Fluidic Self Assembly

目标：流体自组装产学合作研究

• 批准号: 9520403
• 负责人: Sangtae Kim
• 金额: $ 26.73万
• 依托单位: University of Wisconsin-Madison
• 依托单位国家: 美国
• 项目类别: Continuing Grant
• 财政年份: 1995
• 资助国家: 美国
• 起止时间: 1995-07-15 至 1999-06-30
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=9520403&HistoricalAwards=false
• 关键词: GOALI; University; Industry; Collaborative; Research

ABSTRACT Sangtae Kim An industry-university collaborative project will be undertaken to improve basic understanding and develop numerical techniques for anew manufacturing method (fluidic self assembly) in microelectronics using slurry flow, The Beckman Display (company for large panel displays) and the University of Wisconsin at Madison will jointly contribute to this interdisciplinary project requiring expertise ion two-phase flow, computer intensive algorithms, and construction of microelectronic devices. An advanced Monte-Carlo approach using significantly reduced computational resources will developed for the three-dimensional viscous flow simulation of moving of a large number of devices such as electronics chips over a target substrate. The target substrate has a negative shape to the flowing devices to be mounted on it. The project will include a six month visit of Dr. S. Kim to the industrial partner, followed by fundamental research at the university. Fluidic self assembly aims to be used for manufacturing of microscopic assemblies, with extended technical capabilities and reduced cost as compared to one of a time approach in robotic assembly. Example of potential application include integration of gallium arsenide onto silicon in communication lasers and silicon onto plastic for active matrix flat panel liquid crystal displays. ***

中文摘要金相泰 将开展一项产学合作项目，以提高对新制造方法的基本认识并开发数值技术（流体自组装）在微电子使用浆料流，贝克曼显示器（大型平板显示器公司）和位于麦迪逊的威斯康星州大学将共同致力于这个跨学科项目，该项目需要专门知识离子两相流，计算机密集型算法，和微电子器件的构造。 一种先进的蒙特-卡罗方法，使用显着减少的计算资源，将开发用于三维粘性流动模拟的大量设备，如电子芯片在目标基板上的移动。 目标基板具有与安装在其上的流动装置相反的形状。该项目将包括为期六个月的访问， Dr. S.金正日首先是工业合作伙伴，其次是大学的基础研究。 流体自组装旨在用于制造微观组件，与机器人组装中的时间方法之一相比，具有扩展的技术能力和降低的成本。 潜在应用实例包括在通信激光器中将砷化镓集成到硅上以及在有源矩阵平板液晶显示器中将硅集成到塑料上。 ***