Collaborative Research: Carbon-Nanotube-Coated Copper Wires for High Frequency Devices

这个合作研究项目的目标是解决高频应用中由皮肤和接近效应引起的巨大挑战。这个项目的目标是开发镀有铜装饰碳纳米管的铜线，以减少电气和电子设备的能量损失和过热。研究方法包括：在织构铜线上实现铜修饰碳纳米管以降低碳纳米管薄膜的管间阻抗；采用简单的机械擦拭法在铜线上均匀排列碳纳米管；了解碳纳米管包覆铜线的减肤效应和接近效应机理；如果成功，这项研究的结果将带来重大成果，包括在铜线上可控制的、排列的碳纳米管涂层，通过机械擦拭制造坚固的碳纳米管薄膜，以及用于高频应用的高导电性和热传导率的碳纳米管涂层铜线。这项研究将通过在广泛的应用中彻底改变铜线的性能来影响所有社会层面。实际上，所提出的方法有望提供一种新的方法来减少高频应用中的能量损失和热量产生。该研究成果还将对依赖高频电信号和电源的相关产业的生产率提高、节能和环境保护做出贡献。研究生和本科生将受益于参与研究和课堂教学。K-12学生和教师的参与也将在大学和K-12学校之间建立新的伙伴关系。

The goal of this collaborative research project is to address the grand challenge caused by the skin and proximity effects in high-frequency applications. The objective of this project is to develop copper wires coated with copper-decorated carbon nanotubes to achieve reduced energy loss and overheating in electrical and electronic devices. The research approaches include realization of copper-decorated carbon nanotubes on textured copper wires to reduce the inter-tube impedance of carbon-nanotube films, uniformly aligning carbon nanotubes on copper wires using a simple mechanical wiping method, understanding the mechanism of reduced skin and proximity effects in carbon-nanotube-coated copper wires, and reducing the energy loss and overheating using the carbon-nanotube-coated copper wires. If successful, the results of this research will lead to significant outcomes, including controllable, aligned coating of carbon nanotubes on copper wires, fabricating robust CNT films through mechanical wiping, and carbon-nanotube-coated copper wires of high electrical and thermal conductivities for high-frequency applications. This research will impact all societal levels by revolutionizing the performance of copper wires in a wide range of applications. Practically, the proposed method is expected to provide a novel approach to reduce energy loss and heat generation in high-frequency applications. The research results will also contribute to productivity improvement, energy savings, and environmental protection in related industries that rely on high-frequency electrical signals and powers. Graduate and undergraduate students will benefit through involvement in the research and classroom instruction. The engagement of K-12 students and teachers in this project will also establish new partnerships between the universities and K-12 schools.