Integrated photonic neural networks promise to relieve the bandwidth, latency and energy limits of electronic artificial-intelligence hardware by computing directly with light. In a recent review, Han, Shen, Gu and Zhang organize the field around photonic synapses, neurons and memristors, and map these devices onto coherent, wavelength-parallel, diffractive and reservoir-computing architectures. This News & Views argues that the review is most valuable when read as both a device classification and a reminder that practical neuromorphic photonics must be judged at full-system scale.
Photonic neuromorphic computing: from device classification to system reality / Pavesi, L.. - In: OPTO-ELECTRONIC ADVANCES. - ISSN 2096-4579. - 9:8(2026), pp. 260199-260199. [10.29026/oea.2026.260199]
Photonic neuromorphic computing: from device classification to system reality
Pavesi, Lorenzo
2026-01-01
Abstract
Integrated photonic neural networks promise to relieve the bandwidth, latency and energy limits of electronic artificial-intelligence hardware by computing directly with light. In a recent review, Han, Shen, Gu and Zhang organize the field around photonic synapses, neurons and memristors, and map these devices onto coherent, wavelength-parallel, diffractive and reservoir-computing architectures. This News & Views argues that the review is most valuable when read as both a device classification and a reminder that practical neuromorphic photonics must be judged at full-system scale.| File | Dimensione | Formato | |
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