Computer Simulation of Integrated Optics for the Analysis and Design of Advanced Devices

用于先进器件分析和设计的集成光学计算机仿真

• 批准号: 9460452
• 负责人: Gregory Wojcik
• 金额: $ 6.5万
• 依托单位: Weidlinger Associates Inc
• 依托单位国家: 美国
• 项目类别: Standard Grant
• 财政年份: 1995
• 资助国家: 美国
• 起止时间: 1995-06-01 至 1996-03-31
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=9460452&HistoricalAwards=false
• 关键词: Computer; Simulation; Integrated; Optics; Analysis

Since the advent of lasers in the early 1960s and their integration into semiconductor substrates Weidlinger Associates, Inc., has seen traditional electronic technologies augmented by optical devices; the future will see many of them supplanted. These new optoelectronic devices are made possible by a variety of innovative concepts, materials, and designs requiring unprecedented technical sophistication. Monolithic integration has simplified the process considerably, by including waveguide routing, grating couplers, 3-D resonators, and diffractive optics on an IC-like substrate. Digital processor technology is a natural target for optical augmentation. However, as these devices mature, conventional experiments and analyses are approaching practical limits of effectiveness. Comprehensive 2-D and 3-D computer modeling using finite element/finite difference methods is a viable alternative. Such modeling will confer a competitive advantage to users and act as a catalyst for new classes of innovative devices. In Phase I Weidlinger Associates, Inc., will develop a comprehensive finite element/finite difference simulation system to solve Maxwell's equations in integrated optoelectronic devices. This will be based on their existing electromagnetic solver, EMFlex. The immediate need in Phase I appears to be propagation models for routed waveguides, grating couplers, tapers, mirrors, and diffractive optics, rather than active devices or nonlinear models. Their objective is to put this code in the hands of designers and experimentalists immediately.

自20世纪60年代初激光器出现并将其集成到半导体衬底以来，Weidlinger Associates, Inc.已经看到传统的电子技术被光学器件所增强；未来，他们中的许多人将被取代。这些新的光电器件是通过各种创新的概念、材料和设计实现的，需要前所未有的技术复杂性。单片集成通过在类似ic的衬底上包括波导路由、光栅耦合器、3-D谐振器和衍射光学元件，大大简化了这一过程。数字处理器技术是光学增强的一个自然目标。然而，随着这些设备的成熟，传统的实验和分析正在接近实际有效性的极限。综合二维和三维计算机建模采用有限元/有限差分方法是可行的替代方案。这样的模型将赋予用户竞争优势，并作为新型创新设备的催化剂。在第一阶段，Weidlinger Associates, Inc.将开发一个全面的有限元/有限差分模拟系统，以解决集成光电器件中的麦克斯韦方程组。这将基于他们现有的电磁求解器EMFlex。第一阶段的迫切需要似乎是路由波导、光栅耦合器、圆锥、反射镜和衍射光学器件的传播模型，而不是有源器件或非线性模型。他们的目标是立即将这些代码交到设计师和实验人员手中。