Bistable all-optical devices based on nonlinear epsilon-near-zero (ENZ) materials
J. Gosciniak, Z. Hu, M. Thomaschewski, V. Sorger, and J.B. Khurgin

TL;DR
This paper introduces a novel all-optical bistable device using nonlinear epsilon-near-zero materials, offering high-speed, cost-effective operation compatible with silicon photonics for advanced optical computing.
Contribution
It presents a bistable resonator-free waveguide device based on indium tin oxide, enabling sub-picosecond speeds and integration with photonic neural networks.
Findings
Compatible with silicon photonics
Operates at sub-picosecond speeds
Requires moderate switching power
Abstract
Non-linear and bistable optical systems are a key enabling technology for the next generation optical networks and photonic neural systems with many potential applications in optical logic and information processing. Here, we propose a novel bistable resonator-free all-optical waveguide device based on indium tin oxide as nonlinear epsilon-near-zero material providing a cost-efficient and high-performance binarity photonic platform. The salient features of the proposed device are compatibility with silicon photonics, enabling sub-picosecond operation speeds with moderate switching power. The device can act as an optical analogue of memristor or thyristor and can become an enabling element of photonic neural networks not requiring OEO conversions.
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Taxonomy
TopicsPhotonic and Optical Devices · Neural Networks and Reservoir Computing · Advanced Fiber Laser Technologies
