Intelligent nanophotonics: when machine learning sheds light
Интеллектуальная нанофотоника: когда машинное обучение проливает свет
2025-04-11
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computational imagingdeep learningmachine visionnanophotonicsoptical computing
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Abstract (AI)
Abstract The synergistic development of nanophotonics and machine learning has inspired tremendous innovations in both fields in the past decade. In diverse photonics research, deep-learning methods using artificial neural networks become the key game changer that greatly facilitates rapid nanophotonics design and the versatile processing of optical information. Moreover, optical computing platforms that perform calculations through light propagation are receiving tremendous interest as next-generation machine-learning hardware with advantages in computing speed, energy efficiency, and parallelism. This review summarizes the current state-of-the-art nanophotonic devices enabled by machine learning and analyzes the longstanding challenges that must be overcome to make an impact on technology. We also discuss the opportunities of intelligent photonics in applications such as computational imaging/sensing and machine vision. The intersection of nanophotonics with deep learning holds tremendous implications for transformative technologies ranging from internet of things to smart health. Lastly, we provide our perspective on the pressing challenges in intelligent photonics that must be tackled to advance this field to the next level and the vast opportunities for multidisciplinary collaboration.
Key Findings
1
Deep-learning methods using artificial neural networks have become a key enabler for rapid nanophotonics design and versatile optical information processing.
2
Intelligent photonics offers significant opportunities for applications such as computational imaging/sensing and machine vision, impacting IoT and smart health.
3
Machine learning has enabled state-of-the-art nanophotonic devices across diverse photonics research, summarized in this review.
4
Optical computing platforms that perform calculations via light propagation are promising next-generation machine-learning hardware with advantages in speed, energy efficiency, and parallelism.
5
There remain longstanding technical challenges in intelligent photonics that must be overcome, requiring multidisciplinary collaboration to advance the field.
Research Object
Nanophotonic devices and optical computing platforms enabled by machine learning
Research Subject
The use of deep learning/machine-learning methods to design, enable, and improve nanophotonic devices and optical computing hardware, including rapid design, optical-information processing, computing speed, energy efficiency, and application performance in computational imaging/sensing and machine vision
Publication Details
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2025-04-11
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