Oct 2026· Laser & Photonics Reviews· 0 citations· 31 references
TL;DR
This review outlines the core principles of neuromorphic computing and examines recent advances in its optical implementations, with a particular focus on optical artificial synapses, photonic layers integrated into hybrid photonic‐digital architectures, and optical neural networks.
Abstract
The rapid expansion of Big Data and Artificial Intelligence has exposed fundamental inefficiencies in conventional von Neumann computing architectures, thus necessitating a search for alternative solutions. Neuromorphic computing, inspired by biological neural systems, has emerged as a promising route toward faster and more energy‐efficient information processing approaches. Optical neuromorphic computing exploits light as a signal modality for stimulation, data delivery, information processing, and signal readout, offering intrinsic advantages in speed, parallelism, and power consumption. This review outlines the core principles of neuromorphic computing and examines recent advances in its optical implementations, with a particular focus on optical artificial synapses, photonic layers integrated into hybrid photonic‐digital architectures, and optical neural networks. These emerging approaches define a coherent framework for advancing computing systems that offer clear advantages over purely von Neumann systems.
Inspired by the key elements and principles in the brain, photonic neuromorphic computing shows great potential for building next-generation intelligent processing systems with high parallelism, low latency, low power consumption, and self-learning capabilities. While summarizing significant advances in this field, thi...
Dun Lan, Bo-Wen Ma, Yukun Ji et al.· PhotoniX· 1 citation
A comparative discussion is offered between integrated programmable architectures and physically adaptive, self-organized systems, identifying the key open challenges: scalability, stability, training efficiency, standardized benchmarking, and the integration of memory and computation, together with the opportunities t...
This review systematically reviews representative 2D material systems and typical neuromorphic device architectures, establishes the mapping relationship between device characteristics and artificial neural network computation, and clarifies the advantages of 2D neuromorphic electronic devices in terms of synaptic plas...
Yun-Shuo Zhang, Xu-Fu Wang, Tian-Yu Wang et al.· Advanced Functional Material...· 0 citations
The rapid expansion of artificial intelligence (AI) into edge devices, autonomous systems, intelligent sensors, robotics, healthcare platforms, and pervasive Internet-of-Things environments has exposed fundamental limitations in conventional computing architectures. Although contemporary deep neural networks achieve re...
Naveen Kumar, Achyutanand Mishra, Ravi Ranjan et al.· International Journal of Res...· 0 citations
The escalating energy demands of modern artificial intelligence have exposed fundamental limitations in conventional computing architectures. Neuromorphic computing, which seeks to emulate the brain’s massively parallel and energy-efficient information processing, offers a compelling alternative, but its realization re...
J. Ram'irez, Pedro Prieto, M. Gómez et al.· Revista de la Academia Colom...· 0 citations
The explosive growth of artificial intelligence (AI), edge computing, and brain-inspired algorithms has spurred the development of neuromorphic systems that mimic biological information processing. Achieving such functionality at the hardware level requires materials that exhibit neuron- and synapse-like behaviors in a...
Abdullah Marzouq Alharbi· International Journal of Mod...· 0 citations
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