A Methodology for Design of Metamaterials and Their Integration in Advanced RF Systems

摘要提案# 08000388A超材料设计方法及其在先进射频系统中的集成[j]。该奖项的研究目标是开发一种新的方法来设计超材料，以及设计使用超材料的系统。所提出的方法旨在使设计人员能够严格和系统地探索新颖，复杂的超材料设计，解决复杂，多功能性能规范，并将结果集成到RF（射频）系统的设计中。基于拓扑优化方法的优化算法和材料设计中的逆均质问题将用于支持本研究中开发的方法。电小型射频系统的设计将被用作使用超材料设计的模型。制作/测试/验证程序将用于验证方法并调整计算程序，以考虑尺寸和边缘效应等因素。如果成功，这项研究的结果将为设备的设计提供严谨和实用的基础，这些设备可能会在许多高科技行业产生新的增长：个人通信、医疗诊断、传感器。当应用于电小型天线的设计时，这项研究将有助于满足个人通信设备和无线传感器日益增长的小型化需求。在展示射频系统中集成超材料的过程的同时，该研究还将促进对如何将超材料插入其他重要技术领域中使用的组件和设备的理解。该实验项目将为如何评估超材料的性能提供指导。更广泛地说，通过引入电气和机械工程中的多学科设计-建造-测试项目，以及通过开发基于网络的工具，将研究成果以适合探索和学习的形式呈现给广大受众，将这项研究与教育和推广活动相结合，将提高本科学生的课程。

ABSTRACTProposal # 08000388A Methodology for Design of Metamaterials andTheir Integration in Advanced RF SystemsA. Diaz and E. Rothwell Michigan State University The research objective of this award is to develop a new methodology for the design of metamaterials, and the design of systems that use metamaterials. The proposed methodology is intended to enable designers to rigorously and methodically explore novel, complex metamaterial designs, address complex, multifunctional performance specifications and to integrate results in design of RF (radiofrequency) systems. Optimization algorithms based on topology optimization methods and inverse homogenization problems in material design will be used to support the methodologies developed in this research. Design of electrically small RF systems will be used as a model for design using metamaterials. A fabrication/testing/validation program will be used to validate the methodology and to adjust the computational procedures to account for factors such as size and edge effects. If successful, the results of this research will provide a rigorous and practical foundation for the design of devices that are likely to generate new growth in a number of high-technology industries: personal communications, medical diagnostics, sensors. When applied to the design of electrically small antennas, this research will help meet increasing demands for miniaturization in personal communication devices and wireless sensors. While demonstrating the process of integration of metamaterials in RF systems, the research will also facilitate understanding of how to insert metamaterials in components and devices used in other areas of technological importance. The experimental program will provide guidance to the community on how to evaluate the performance of metamaterials. More broadly, the integration of this research in education and outreach activities will enhance programs for undergraduate students through the introduction of multi-disciplinary design-build-test projects in electrical and mechanical engineering and through the development of web-based tools that expose discoveries to a broad audience in a format suitable for exploration and learning.