Neuromorphic Computing with Signal-Mixing Cavities

Floris Laporte, J. Dambre, P. Bienstman
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Abstract

We propose a new approach for neuromorphic computing on a silicon photonic chip, based on the concept of reservoir computing. The proposed reservoir computer consists of a signal-mixing photonic crystal cavity acting as the reservoir connected to a linear readout layer. The signal mixing cavity has a quarter-stadium shape, which is known to introduce nontrivial mixing of an input wave. This mixing turns out to be very useful in the context of reservoir computing and has been used to tackle several benchmark telecom tasks. We show that the proposed reservoir computer can perform several digital tasks with a very wide region of operation in terms of bitrate, such as up to 6 bit header recognition and performing the XOR between two subsequent bits in a bitstream.
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信号混合腔的神经形态计算
基于储层计算的概念,提出了一种在硅光子芯片上实现神经形态计算的新方法。所提出的储层计算机由一个信号混合光子晶体腔作为与线性读出层连接的储层组成。信号混合腔具有四分之一体育场形状,已知其引入输入波的非平凡混合。这种混合在储存库计算环境中非常有用,并已用于处理几个基准电信任务。我们表明,所提出的储层计算机可以在比特率方面以非常宽的操作区域执行几个数字任务,例如高达6位报头识别和在比特流中执行两个后续比特之间的异或。
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