On-chip Parallel Photonic Reservoir Computing using Multiple Delay Lines

S. Hasnain, R. Mahapatra
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引用次数: 2

Abstract

Silicon-Photonics architectures have enabled high speed hardware implementations of Reservoir Computing (RC). With a delayed feedback reservoir (DFR) model, only one non-linear node can be used to perform RC. However, the delay is often provided by using off-chip fiber optics which is not only space inconvenient but it also becomes architectural bottleneck and hinders to scalability. In this paper, we propose a completely on-chip photonic RC architecture for high performance computing, employing multiple electronically tunable delay lines and micro-ring resonator (MRR) switch for multi-tasking. Proposed architecture provides 84% less error compared to the state-of-the-art standalone architecture in [8] for executing NARMA task. For multi-tasking, the proposed architecture shows 80% better performance than [8]. The architecture outperforms all other proposed architectures as well. The on-chip area and power overhead of proposed architecture due to delay lines and MRR switch are 0.0184mm^2 and 26mW respectively.
基于多延迟线的片上并行光子库计算
硅光子学架构使水库计算(RC)的高速硬件实现成为可能。对于延迟反馈水库(DFR)模型,只有一个非线性节点可以进行RC。然而,通常使用片外光纤提供延迟,不仅空间不便,而且成为架构瓶颈,阻碍了可扩展性。在本文中,我们提出了一个完整的片上光子RC架构,用于高性能计算,采用多条电子可调谐延迟线和微环谐振器(MRR)开关进行多任务处理。与[8]中最先进的独立体系结构相比,所提出的体系结构在执行NARMA任务时提供的错误减少了84%。对于多任务处理,该架构的性能比[8]提高了80%。该体系结构也优于所有其他提出的体系结构。由于延迟线和MRR开关造成的片上面积和功耗开销分别为0.0184mm^2和26mW。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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