纳米光子器件物理学的新进展

R. Osgood, J. Dadap, Asif Ahmed, Xiang Meng
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引用次数: 1

摘要

先进的硅纳米光子学和等离子体纳米光子学由于其在高数据通信链路和其他成像和传感领域的应用而得到迅速发展。我们的团队一直处于新设备和设备物理的最前沿。在这次演讲中,我们将首先回顾我们小组在各种基础技术和物理方面的进展,这些技术和物理需要扩展纳米光子学的进步。然后,我们将用我们最近在哥伦比亚大学基于新的模拟模式展示的几种新设备类型来说明这些想法。我们的建模和仿真方法是使用完全精确的方法和技术,并实现基于大规模并行和高性能计算的新功能。我们的许多进步都是基于新的硬件优势和对分布式和并行系统的测试。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
New Advances in Nanophotonic Device Physics
Advanced silicon and plasmonic nanophotonics is undergoing rapid progress due to its manifold applications in high data communication links and other applications in imaging and sensing. Our group has been at the forefront of new devices and device physics. In this talk we will first review progress in our group in a wide variety of fundamental technologies and physics needed to extend the advances in nanophotonics. We will then illustrate these ideas with several new devices types that we have recently demonstrated at Columbia based on new simulation modalities. Our approach then to modeling and simulation is to use fully accurate methods and techniques and to achieve new capabilities based on massively parallel and high-performance computation. Much of our advances are based on new hardware strengths and testing with distributed and parallel systems.
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