High Fidelity Additive Manufacturing at the Micro-scale

微观尺度的高保真增材制造

• 批准号: 1334204
• 负责人: Kira Barton
• 金额: $ 30万
• 依托单位: Regents of the University of Michigan - Ann Arbor
• 依托单位国家: 美国
• 项目类别: Standard Grant
• 财政年份: 2013
• 资助国家: 美国
• 起止时间: 2013-09-01 至 2017-08-31
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=1334204&HistoricalAwards=false
• 关键词: Fidelity; Additive; Manufacturing; Micro; scale

This research award supports fundamental research on additive manufacturing at the micro-scale that will improve the flexibility, cost and performance of high-resolution electronic device fabrication. Specifically, the research will exploit the unique drop-on-demand capabilities of jet-based micro-additive manufacturing processes to reduce fabrication costs and improve part fidelity of printed electronics. The research will develop a unique sensing strategy for monitoring critical process parameters in jet-based printing; establish a fundamental scientific understanding of the impact of environmental conditions on the physics that governs jet-based processes; derive systematic methodologies for modeling complex micro-additive manufacturing processes; and evaluate a new paradigm in process control that utilizes robust learning schemes. A globally competitive manufacturing industry will contribute to the nation's economy, sustainability, and position within a global market. To this end, additive manufacturing, in particular micro-additive manufacturing, has the potential to revolutionize the way the US manufactures goods. The research results from this award will provide an improved fundamental scientific understanding of the physics that govern jet-based micro-additive manufacturing processes and new tools at the intersection of process modeling, additive manufacturing, and learning control. This research will lead to the ability to fabricate smaller, faster, and cheaper devices with less material waste while encouraging the consumer market and driving product demand; leading to additional technological breakthroughs in engineering, computer science, and material science. A key enabler for advanced manufacturing is public awareness. To achieve awareness and inspire the next generation of engineers, this research project will work with local science and technology museums to reach thousands of students and parents each year. It will also positively influence engineering education for undergraduate and graduate students through hands-on research projects, and broaden participation of underrepresented groups in engineering through university-based programs.

该研究奖支持微尺度增材制造的基础研究，这将提高高分辨率电子器件制造的灵活性，成本和性能。具体而言，该研究将利用基于喷射的微增材制造工艺独特的按需滴料能力，以降低制造成本并提高印刷电子产品的零件保真度。该研究将开发一种独特的传感策略，用于监测喷射打印中的关键工艺参数;建立对环境条件对控制喷射工艺的物理学影响的基本科学认识;推导出复杂微增材制造过程建模的系统方法;并评估利用鲁棒学习方案的过程控制新范式。 一个具有全球竞争力的制造业将有助于国家的经济，可持续发展和在全球市场中的地位。为此，增材制造，特别是微增材制造，有可能彻底改变美国制造商品的方式。该奖项的研究成果将为管理基于喷气的微增材制造过程和过程建模，增材制造和学习控制交叉点的新工具的物理学提供更好的基础科学理解。这项研究将导致制造更小，更快，更便宜的设备，减少材料浪费，同时鼓励消费者市场和推动产品需求;导致工程，计算机科学和材料科学的额外技术突破。先进制造业的一个关键推动因素是公众意识。为了提高认识并激励下一代工程师，该研究项目将与当地科技博物馆合作，每年接触数千名学生和家长。它还将通过实践研究项目对本科生和研究生的工程教育产生积极影响，并通过大学课程扩大代表性不足的群体对工程的参与。