课题基金 / 基金详情

MRI: Acquisition of an Ultrasonic Atomization and Alloying Platform for Additive Manufacturing Research and Education

MRI: Acquisition of an Ultrasonic Atomization and Alloying Platform for Additive Manufacturing Research and Education
MRI:收购用于增材制造研究和教育的超声波雾化和合金化平台
批准号:
2216352
负责人:
Thomas Berfield
金额:
$16.87万
依托单位国家:
美国
项目类别:
Standard Grant
财政年份:
2022
资助国家:
美国
项目状态:
已结题
起止时间:
2022-09-01 至 2023-08-31

项目摘要

项目成果

Thomas Berfield的其他基金

相似基金

相关文献

中文摘要
翻译
这项主要研究仪器(MRI)奖支持购买一台金属粉末生产和合金化仪器,该仪器将设在路易斯维尔大学添加剂制造科学与技术研究所内。该仪器将能够生产与各种添加剂制造技术兼容的定制金属粉末。该仪器使用独特的超声波方法,可以从传统的原材料形式制备金属粉末。即使含有极高熔点温度的耐火元素的原材料也可以用来制造粉末。这一仪器的增加将通过解决与先进制造研究的材料可用性有关的关键国家供应链问题,促进新的耐火材料基合金成分的开发。通过该项目进行的教育推广包括整合与该工具相关的模块,用于行业培训、本科教育和商业推广。行业劳动力培训将通过金属粉末生产和安全材料处理的短期课程进行。本科生的实践培训将通过成立已久的斯皮德工程学院合作项目进行。这一工具还将有利于新的校园倡议,支持针对少数族裔企业的先进制造指导。仪器的使用将通过肯塔基州多尺度制造和纳米集成节点进行协调,该节点是国家纳米技术协调基础设施(NNCI)网络的一部分。该设备支持的复杂几何结构的添加剂制造和非传统高温弹性材料与从高超声速到高能效工业热交换器的应用直接相关。要充分实现这些技术,需要对这些先进材料系统的发现、加工和随后的附加制造进行基础研究。这是超声雾化和合金化系统实现的主要研究重点领域,将重点放在目前难以添加制造耐火高熵合金的障碍上。具体地说,该系统将用于(I)研究耐火材料沉积的添加剂制造过程中的应力演变,(Ii)发现和快速筛选粉末基添加剂制造的合金,(Iii)设计晶格基超材料系统,(Iv)探索耐火合金的高温性能行为,以及(V)研究难熔金属粉末颗粒形成的物理学。一个跨学科的研究团队,包括几个外部合作者,已承诺参与这一努力,预计将通过会议参与、期刊出版物和公开可访问的材料属性数据库广泛传播研究成果,为更大的科学知识体系做出重大贡献。该奖项反映了NSF的法定使命,并通过使用基金会的智力价值和更广泛的影响审查标准进行评估,被认为值得支持。
英文摘要
This Major Research Instrumentation (MRI) award supports the acquisition of a metal powder production and alloying instrument to be located within the Additive Manufacturing Institute of Science and Technology at the University of Louisville. This instrument will enable production of custom metal powders compatible for use in a variety of additive manufacturing technologies. The unique ultrasonic method used by this instrument allows fabrication of metal powders from traditional raw material forms. Even raw materials containing extremely high melting point temperature refractory elements can be used to make powders. This instrumentation addition will facilitate the development of new refractory-based alloy compositions by addressing critical national supply chain issues related to the availability of these materials for advanced manufacturing research. Educational outreach through this project includes integration of modules related to this instrument for industry training, undergraduate education, and business outreach. Industry workforce training will be conducted through short courses on metal powder production and safe material handling. Hands-on training of undergraduate student will occur through the long-established Speed School of Engineering co-op program. This instrument will also benefit new campus initiatives supporting advanced manufacturing guidance for minority-owned businesses. Instrument use will be coordinated through the Kentucky Multi-Scale Manufacturing and NanoIntegration Node, part of the National Nanotechnology Coordinated Infrastructure (NNCI) network.The complex geometries of additive manufacturing coupled with unconventional high-temperature resilient materials enabled by this equipment has direct relevance to applications from hypersonics to energy efficient industrial heat exchangers. Full realization of such technologies requires fundamental studies into the discovery, processing, and subsequent additive manufacturing of these advanced material systems. This, primary research thrust areas enabled by this ultrasonic atomization and alloying system will focus on current barriers to additive manufacturing of refractory high entropy alloys. Specifically, this system will be used to (i) investigate stress evolution during additive manufacturing deposition of refractory materials, (ii) discover and rapidly screen powder-based additive manufactured alloys, (iii) design lattice-based metamaterial systems, (iv) probe the high-temperature performance behavior of refractory alloys, and (v) study the physics of refractory metal powder particulate formation. An interdisciplinary team of researchers, including several external collaborators, have committed to participating in this effort, which is expected to contribute significantly to the greater scientific body of knowledge via widespread dissemination of research findings through conference participation, journal publications, and publicly accessible material properties databases.This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.
期刊论文(0)
专著(0)
科研奖励(0)
会议论文
Low Resonant Frequency Energy Scavenging Based on Bi-Stability Structure Dynamics
Micro-Patterning Through Mechanics and Cracking of Drying Thin Films
海外基金