光学增强3-D计算机:技术与架构

P. Marchand, A. Krishnamoorthy, S. Esener, U. Efron
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引用次数: 7

摘要

为了在带宽、功耗和体积方面实现高性能并行计算,需要实现更密集、更快的互连方式,同时最大限度地减少功耗和串扰。全球互连可以使用自由空间互连技术实现,并且可以与休斯研究实验室开发的晶圆到晶圆连接系统耦合,从而获得具有更高吞吐量的光电3-D计算机,用于路由或分选操作。为此,需要设计具有最佳性能的三维光电计算架构,需要将光发射器和接收器与三维VLSI晶圆堆栈集成以实现光输入和输出,并且需要将自由空间光互连元件与改进的三维晶圆堆栈组装在一起。本文对光学增强三维计算机技术的基本概念和结构进行了评价。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Optically augmented 3-D computer: technology and architecture
In order to achieve high performance parallel computing in terms of bandwidth versus power consumption and volume, denser and faster means of implementing interconnections while minimizing power and crosstalk are required. Global interconnections can be implemented using free-space interconnect technology and can be coupled to the wafer to wafer connection system developed at Hughes Research laboratories to obtain an optoelectronic 3-D computer with increased throughputs for routing or sorting operations. To this end, the 3-D optoelectronic computing architecture needs to be designed for optimal performance, light transmitters and receivers need to be integrated with the 3-D VLSI wafer stacks to allow optical inputs and outputs, and free-space optical interconnect elements need to be assembled with the modified 3-D wafer stacks. In the paper, the underlying concepts of the technology and architecture of the optically augmented 3-D computer are evaluated.<>
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