Demonstrating completeness in optical neural computing
Krzysztof Tyszka

TL;DR
This paper demonstrates a complete optical neural network using silicon photonics for fast and energy-efficient computing.
Contribution
The novel contribution is an integrated optical neural network with on-chip nonlinear activations for end-to-end inference.
Findings
The optical neural network uses partially coherent light for high-speed inference.
The system integrates convolutional and fully connected layers with optoelectronic nonlinear activations.
It provides a scalable platform for evaluating optical neural processing beyond traditional electronics.
Abstract
A silicon photonic deep optical neural network integrating convolutional and fully connected layers with on-chip optoelectronic nonlinear activations operates with partially coherent light to achieve high-speed, energy-efficient, end-to-end inference. This demonstration establishes a functional and scalable platform for evaluating complete optical neural processing, representing another step toward specialised, ultrafast photonic architectures beyond electronics.
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Taxonomy
TopicsNeural Networks and Reservoir Computing · Photonic and Optical Devices · Advanced Memory and Neural Computing
