Engineering Research Equipment Grant: Integrated Semiconductor Waveguide/Etalon Optical Based Logic Networks

工程研究设备补助金：集成半导体波导/标准具光学逻辑网络

• 批准号: 8806414
• 负责人: Gregory Sonek
• 金额: $ 2.8万
• 依托单位: University of California-Irvine
• 依托单位国家: 美国
• 项目类别: Standard Grant
• 财政年份: 1988
• 资助国家: 美国
• 起止时间: 1988-08-15 至 1990-01-31
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=8806414&HistoricalAwards=false
• 关键词: Engineering; Research; Equipment; Grant; Integrated

Novel methods for integrating optical interconnect elements such as waveguides, etalons, and photorefractive media, are key elements to the development of new algorithms, architectures, and compact processors for optical computing and neural network applications. Proposed, for the first time, is the experimental implementation of new GaAs-based integrated optical logic networks that corporate orthogonally intersecting rib waveguides and selectively defined nonlinear aluminum gallium arsenide and indium gallium arsenide superlattice etalon regions. Continuous wave and pulsed tunable infrared dye laser techniques will be used to demonstrate data encoding and arithmetic logic in coupled waveguide/etalon arrays which transmit optical data in both a pipelined and parallel fashion, simultaneously. The operation of the network is based upon the local interaction of three optical beams, two of which propagate in the sample plane and overlap in a region of saturable absorption, while a third control beam is used to set the output optical logic state. It is shown that crossbar networks can be used as logic gates or passive intensity and polarization modulators, depending upon the wavelengths and intensities of the data streams within the optical waveguides. Possible techniques for nonlinearity enhancement and the integration of volume storage elements will also be explored.

用于集成光学互连元件的新颖方法， 作为波导、标准具和光折射介质， 开发新算法、架构和 用于光学计算和神经网络的紧凑型处理器 应用. 第一次提出的是实验性的 新型GaAs基集成光逻辑实现 将正交相交的脊形波导合并的网络 和选择性限定的非线性砷化铝镓， 砷化铟镓超晶格标准具区。 连续 波和脉冲可调谐红外染料激光技术将是 用于演示耦合的数据编码和算术逻辑 波导/标准具阵列在两个方向上传输光学数据， 流水线和并行方式，同时。 的操作 该网络基于三个光学元件的局部相互作用， 光束，其中两个光束在样品平面中传播，并在样品平面中重叠。 可饱和吸收的区域，而第三控制光束， 用于设置输出光逻辑状态。 它示出 交叉开关网络可用作逻辑门或无源强度 和偏振调制器，这取决于波长和 光波导内的数据流的强度。 用于非线性增强的可能技术和 还将探讨卷存储元件的集成。