Dispersion engineering using leaky-mode resonant photonic lattices

项目目标：本项目的目标是对纳米结构共振元件的色散特性进行理论和实验研究。从根本上说，利用亚波长光子晶格中的漏模共振效应的新型色散器件将被设计、制造和测试。智能优势：该项目描绘了基于纳米结构亚波长元件的光子器件技术的新方向。所提出的设备在慢光工程中尚未被开发。这个项目将定义它们的适用性。计算表明，漏模谐振器件与该领域的领先概念相比具有很大的优势。虽然基于完全不同的基本原理，但在结构和器件密度上，所提出的概念类似于基于光子晶体的微谐振器芯片，后者的制造特别具有挑战性。似乎可以更直接地制作所提出的漏模谐振延迟线。此外，这些元素在有用的波段上显示出平坦的透射谱。详细的比较需要原型器件的制造和测试。由于目前对慢光背景下的这些影响知之甚少，该项目构成了基础研究。广泛影响：如果研究证实了这些概念的实用性，这项工作将对推动新设备技术产生重大影响。非常紧凑的光学延迟线、全光通信系统中的信号缓冲器和光存储元件将变得可行。此外，该项目与德克萨斯大学阿灵顿分校开展光子纳米结构研究和教育的广泛计划相一致。它将加强光子晶体和集成光子电路的研究，支持纳米制造方法和基础设施的建设。在首席研究员S最近被任命为德克萨斯仪器杰出大学纳米电子学教授的情况下，为设备和设施提供了主要资金。该项目主要寻求学生工资支持，因此将加强对新的现代化设施的使用。因此，建议的项目为研究生和本科生提供了极好的分析和实验经验。特别注重招收女学生以及理工科人数不足的学生，并将他们转变为新的研究生。此外，首席研究员是共振式传感器公司的首席技术官，这是一家开发新传感器技术的初创公司。作为他在德州仪器主席的职责的一部分，他将每年教授一门关于创业和商业的课程，向所有本科生和研究生开放，以刺激创新和技术转让。这项研究的结果将在期刊和会议上广泛传播。由于目前全世界都非常重视对周期层和晶格的研究，新的出版物和结果说明了在漏模机制中实现的有趣的效应和应用，可能会刺激更多的研究和技术进步。

Project objective: The objective of this project is to conduct theoretical and experimental research on the dispersion properties of nanostructured resonance elements. Fundamentally new types of dispersive devices using leaky-mode resonance effects in subwavelength photonic lattices will be designed, fabricated, and tested. Intellectual merit: This project charts new directions in photonic device technology based on nanostructured subwavelength elements. The proposed devices are unexploited in slow-light engineering. This project will define their applicability. Computations show that leaky-mode resonance devices compare favorably with leading concepts in the field. Although based on totally different fundamentals, in structure and device density, the proposed concept is similar to photonic-crystal based micro-resonator chips whose fabrication is particularly challenging. It appears that the proposed leaky-mode resonance delay lines can be fabricated more directly. Additionally, the elements show flat transmission spectra across useful bands. Detailed comparison requires fabrication and testing of prototype devices. As very little is currently known about these effects in the context of slow light, this project constitutes basic research.Broader impact: If the research verifies the practicality of these concepts, this work can have a major impact in promoting new device technology. Very compact optical delay lines, signal buffers in all-optical communication systems, and light-storage elements would become feasible. Moreover, this project is aligned with a broad plan to develop research and education in photonic nanostructures at the University of Texas at Arlington. It will strengthen research in photonic crystals and integrated photonic circuits and support efforts in building nanofabrication methods and infrastructure. With the principal investigator?s recent appointment to the Texas Instruments Distinguished University Chair in Nanoelectronics, major funding for equipment and facilities was provided. This project, which seeks mainly student salary support, would thus enhance the use of new, modern facilities. Therefore, the proposed project provides excellent analytical and experimental experience for both graduate and undergraduate students. There is special focus on recruiting female students as well as students belonging to populations that are underrepresented in science and engineering and converting them into new graduate students. In addition, the principal investigator is Chief Technical Officer of Resonant Sensors Incorporated, a start-up company developing new sensor technology. As part of his duties under the Texas Instruments Chair, he will teach a yearly course on entrepreneurship and business, open to all undergraduate and graduate students, to stimulate innovation and technology transfer. The results of this research will be widely disseminated in journals and conferences. As there is currently a heavy worldwide emphasis on the study of periodic layers and lattices, new publications and results, illustrating the interesting effects and applications realized in the leaky-mode regime, might stimulate additional research and technological progress.