Low-depth optical neural networks

Chip Pub Date : 2022-03-01 DOI:10.1016/j.chip.2021.100002
Xiao-Ming Zhang , Man-Hong Yung
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引用次数: 1

Abstract

Optical neural network (ONNs) are emerging as attractive proposals for machine-learning applications. However, the stability of ONNs decreases with the circuit depth, limiting the scalability of ONNs for practical uses. Here we demonstrate how to compress the circuit depth to scale only logarithmically in terms of the dimension of the data, leading to an exponential gain in terms of noise robustness. Our low-depth (LD)-ONN is based on an architecture, called Optical CompuTing Of dot-Product UnitS (OCTOPUS), which can also be applied individually as a linear perceptron for solving classification problems. We present both numerical and theoretical evidence showing that LD-ONN can exhibit a significant improvement on robustness, compared with previous ONN proposals based on singular-value decomposition.

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低深度光神经网络
光神经网络(ONNs)正在成为机器学习应用的有吸引力的提议。然而,随着电路深度的增加,网络的稳定性降低,限制了网络在实际应用中的可扩展性。在这里,我们演示了如何压缩电路深度,使其在数据维数方面仅按对数缩放,从而在噪声鲁棒性方面获得指数级增益。我们的低深度(LD)-ONN基于一种称为点积单位光学计算(OCTOPUS)的架构,它也可以单独应用于线性感知器来解决分类问题。我们提出的数值和理论证据表明,与以前基于奇异值分解的ONN方案相比,LD-ONN在鲁棒性方面有显著提高。
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