Presentation + Paper
20 February 2017 Micro mirrors based coupling of light to multi-core fiber realizing in-fiber photonic neural network processor
Eyal Cohen, Dror Malka, Amir Shemer, Asaf Shahmoon, Michael London, Zeev Zalevsky
Author Affiliations +
Abstract
Hardware implementation of artificial neural networks facilitates real-time parallel processing of massive data sets. Optical neural networks offer low-volume 3D connectivity together with large bandwidth and minimal heat production in contrast to electronic implementation. Here, we present a DMD based approaches to realize energetically efficient light coupling into a multi-core fiber realizing a unique design for in-fiber optical neural networks. Neurons and synapses are realized as individual cores in a multi-core fiber. Optical signals are transferred transversely between cores by means of optical coupling. Pump driven amplification in Erbium-doped cores mimics synaptic interactions. In order to dynamically and efficiently couple light into the multi-core fiber a DMD based micro mirror device is used to perform proper beam shaping operation. The beam shaping reshapes the light into a large set of points in space matching the positions of the required cores in the entrance plane to the multi-core fiber.
Conference Presentation
© (2017) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
Eyal Cohen, Dror Malka, Amir Shemer, Asaf Shahmoon, Michael London, and Zeev Zalevsky "Micro mirrors based coupling of light to multi-core fiber realizing in-fiber photonic neural network processor", Proc. SPIE 10117, Emerging Digital Micromirror Device Based Systems and Applications IX, 1011703 (20 February 2017); https://doi.org/10.1117/12.2253426
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KEYWORDS
Neural networks

Digital micromirror devices

Fractal analysis

Binary data

Geometrical optics

Micromirrors

Beam shaping

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