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Demonstrating a bright future [optoelectronic demonstrators]

机译:展示美好的未来[光电展示者]

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摘要

Reviewed the technologies behind two successful optoelectronic demonstrator systems. These demonstrators show that the optics-in-computing technologies are reaching a level of sophistication where their deployment in "real-world" computingetworking environments becomes increasingly likely. The primary requirements for the successful transfer of these technologies from the laboratory to the "real world" are larger, more uniform arrays of the optoelectronic devices and highly stable optical and optomechanical assemblies. The advent of high-efficiency, low-power consumption arrays of oxide-confined VCSELs has reduced the overall optical complexity of these demonstrators with subsequent gains in the mechanical stability of these optical systems. Although at present the maximum array size of VCSELs that is readily available is 8 × 8, there is, in principle, no reason why larger arrays cannot be developed. In tandem with these developments, the design and fabrication of micro-optical elements has reached the stage where they can be regarded as the standard optoelectronic interconnection method. Micro-optical optoelectronic system demonstrators show that optics-in-computing interconnection technologies are nearing real-world readiness.
机译:回顾了两个成功的光电演示器系统背后的技术。这些示威者表明,计算光学技术已经达到了成熟的水平,越来越有可能在“现实世界”的计算/网络环境中部署它们。成功地将这些技术从实验室转移到“现实世界”的主要要求是更大,更均匀的光电设备阵列以及高度稳定的光学和光机械组件。氧化物限制的VCSEL的高效率,低功耗阵列的出现降低了这些演示器的总体光学复杂性,并因此提高了这些光学系统的机械稳定性。尽管目前可用的VCSEL的最大阵列尺寸为8×8,但原则上没有理由无法开发更大的阵列。随着这些发展,微光学元件的设计和制造已经达到可以将其视为标准光电互连方法的阶段。微光学光电系统的演示者表明,光学计算互连技术已接近现实世界的准备状态。

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