IUCRC Planning Grant University of Pittsburgh: Center for Advanced Magnetics for Power and Energy Development (AMPED)

电气化的趋势推动了对改进的软磁材料的需求，这些材料可以在前所未有的开关频率和功率水平组合下工作，以及高功率密度但极高效的工程组件。 这些趋势也为美国国内创造了重大的新经济机遇，包括电动汽车、混合动力飞机和分布式可再生能源发电等。 拟议的电力和能源发展先进磁性中心（AMPED）的主要重点将是高功率磁性的关键领域，以及与该应用类别中已建立和新兴电机拓扑和设计的接口优化。 作为一个国家和经济体，成功应对挑战并利用这些机会需要跨学科的技能，包括材料科学，应用物理和电气工程，以及组件（电机，变压器，电感器等）最终用户之间的合作。以及材料和制造业。 拟议的AMPED中心旨在满足未来新一代跨学科劳动力的需求，这些劳动力准备并渴望接受电气化和电力转换技术增长所带来的新挑战。AMPED组合中的主要研究重点领域包括：（1）用于宽带隙和超宽带隙半导体的新的磁性材料和制造，（2）先进的电机设计概念，（3）用于磁性部件的新的设计和优化技术，（4）宽带隙电力电子转换器和磁性元件之间的相互作用，（5）由下一代磁性元件实现并利用下一代磁性元件的先进电力电子转换器拓扑，例如，多端口功率转换，以及（6）可调谐和可变磁性技术及其在先进功率转换方案中的应用。 计划在研究中心之间开展强有力的合作，每个机构都具有独特的能力：卡内基梅隆大学-非晶和纳米晶磁性材料与制造，北卡罗来纳州州立大学-基于宽带隙的半导体电力电子和高速电机控制与测试，匹兹堡大学-基于铁氧体的软磁材料和电磁场辅助的先进制造，组件设计策略，和磁性/电力电子接口。 匹兹堡大学将作为牵头单位，确保新兴磁性材料和制造技术与先进磁性元件设计的集成，并最终与电机集成。 更具体地说，匹兹堡大学将利用其研究能力和设施，包括：（1）新型软磁材料的设计，合成和表征;（2）先进的制造工艺，包括电磁场辅助加工和增材制造;（3）多个-先进磁性元件及其与电力电子变换器接口的基于目标优化和机器学习的设计方法和马达;（4）电力电子和电机硬件原型开发;以及（5）磁性元件、电力电子转换器、高速电机和控制器的测试和表征。 匹兹堡大学为中压电力转换研究和开发提供设施（高达15 kV，5 MVA）以及全尺寸磁性材料和组件制造，设计，该奖项反映了NSF的法定使命，并被认为值得通过使用基金会的知识价值和更广泛的影响审查进行评估来支持的搜索.

Trends towards electrification are driving the needs for improved soft magnetic materials that can operate at unprecedented combinations of switching frequencies and power levels, as well as engineered components which are highly power dense yet extremely efficient. These trends are also creating major new economic opportunities for the domestic US, through anticipated growth in electric vehicles, hybrid-electric aircraft, and distributed renewable generation amongst others. The primary emphasis of the proposed Center for Advanced Magnetics for Power and Energy Development (AMPED) will be the critically important area of high-power magnetics and the optimization of interfaces with both established and emerging electrical machine topologies and designs within this application class. Successfully tackling challenges and exploiting these opportunities as a nation and an economy requires interdisciplinary skills spanning materials science, applied physics, and electrical engineering, as well as collaborations between end-users of components (motors, transformers, inductors, etc.) and the materials and manufacturing community. The proposed AMPED center seeks to address this need for a new generation of an interdisciplinary workforce of the future that is prepared and eager to take on the new challenges presented by widespread adoption of electrification and growth in electric power conversion technologies.Primary research thrust areas included within the AMPED portfolio include: (1) new magnetic materials and manufacturing for wide bandgap and ultra-wide bandgap semiconductors, (2) advanced electric machine design concepts, (3) new design and optimization techniques for magnetic components, (4) interactions between wide bandgap power electronics converters and magnetics, (5) advanced power electronics converter topologies enabled by and leveraging next generation magnetics, e.g., multiport power conversion, and (6) tunable and variable magnetics technologies and their applications in advanced power conversion schemes. Strong collaborations between sites are planned, with unique capabilities residing at each institution: Carnegie Mellon University - amorphous and nanocrystalline magnetic materials and manufacturing, North Carolina State University – wide bandgap-based semiconductor power electronics and high-speed motor controls and testing, University of Pittsburgh – ferrite based soft magnetic materials and electromagnetic field assisted advanced manufacturing, component design strategies, and magnetics / power electronics interfaces. University of Pittsburgh will serve as lead site and will ensure integration of emerging magnetic materials and manufacturing technologies with advanced magnetic component designs and, ultimately, the integration within electrical machines. More specifically, University of Pittsburgh will leverage its capabilities and facilities for research spanning: (1) design, synthesis, and characterization of new soft magnetic materials; (2) advanced manufacturing processes including electromagnetic field assisted processing and additive manufacturing; (3) multi-objective optimization and machine learning based design methods for advanced magnetic components and their interface with power electronics converters and motors; (4) power electronics and motor hardware prototype development; and (5) testing and characterization of magnetic components, power electronics converters, high speed motors, and controllers. University of Pittsburgh offers facilities for medium voltage electric power conversion research and development (up to 15kV, 5MVA) as well as full-scale magnetic material and component manufacturing, design, and testing under conditions directly relevant for electric machine applications.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.