Deep Learning Enhanced Quantum Holography with Undetected Photons

Fuente: arXiv
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Autori principali: Fan, Weiru, Qian, Gewei, Wang, Yutong, Xu, Chen-Ran, Chen, Ziyang, Liu, Xun, Li, Wei, Liu, Xu, Liu, Feng, Xu, Xingqi, Wang, Da-Wei, Yakovlev, Vladislav V.
Natura: Preprint
Pubblicazione: 2024
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author Fan, Weiru
Qian, Gewei
Wang, Yutong
Xu, Chen-Ran
Chen, Ziyang
Liu, Xun
Li, Wei
Liu, Xu
Liu, Feng
Xu, Xingqi
Wang, Da-Wei
Yakovlev, Vladislav V.
author_facet Fan, Weiru
Qian, Gewei
Wang, Yutong
Xu, Chen-Ran
Chen, Ziyang
Liu, Xun
Li, Wei
Liu, Xu
Liu, Feng
Xu, Xingqi
Wang, Da-Wei
Yakovlev, Vladislav V.
contents Holography is an essential technique of generating three-dimensional images. Recently, quantum holography with undetected photons (QHUP) has emerged as a groundbreaking method capable of capturing complex amplitude images. Despite its potential, the practical application of QHUP has been limited by susceptibility to phase disturbances, low interference visibility, and limited spatial resolution. Deep learning, recognized for its ability in processing complex data, holds significant promise in addressing these challenges. In this report, we present an ample advancement in QHUP achieved by harnessing the power of deep learning to extract images from single-shot holograms, resulting in vastly reduced noise and distortion, alongside a notable enhancement in spatial resolution. The proposed and demonstrated deep learning QHUP (DL-QHUP) methodology offers a transformative solution by delivering high-speed imaging, improved spatial resolution, and superior noise resilience, making it suitable for diverse applications across an array of research fields stretching from biomedical imaging to remote sensing. DL-QHUP signifies a crucial leap forward in the realm of holography, demonstrating its immense potential to revolutionize imaging capabilities and pave the way for advancements in various scientific disciplines. The integration of DL-QHUP promises to unlock new possibilities in imaging applications, transcending existing limitations and offering unparalleled performance in challenging environments.
format Preprint
id arxiv_https___arxiv_org_abs_2409_18887
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Deep Learning Enhanced Quantum Holography with Undetected Photons
Fan, Weiru
Qian, Gewei
Wang, Yutong
Xu, Chen-Ran
Chen, Ziyang
Liu, Xun
Li, Wei
Liu, Xu
Liu, Feng
Xu, Xingqi
Wang, Da-Wei
Yakovlev, Vladislav V.
Optics
Holography is an essential technique of generating three-dimensional images. Recently, quantum holography with undetected photons (QHUP) has emerged as a groundbreaking method capable of capturing complex amplitude images. Despite its potential, the practical application of QHUP has been limited by susceptibility to phase disturbances, low interference visibility, and limited spatial resolution. Deep learning, recognized for its ability in processing complex data, holds significant promise in addressing these challenges. In this report, we present an ample advancement in QHUP achieved by harnessing the power of deep learning to extract images from single-shot holograms, resulting in vastly reduced noise and distortion, alongside a notable enhancement in spatial resolution. The proposed and demonstrated deep learning QHUP (DL-QHUP) methodology offers a transformative solution by delivering high-speed imaging, improved spatial resolution, and superior noise resilience, making it suitable for diverse applications across an array of research fields stretching from biomedical imaging to remote sensing. DL-QHUP signifies a crucial leap forward in the realm of holography, demonstrating its immense potential to revolutionize imaging capabilities and pave the way for advancements in various scientific disciplines. The integration of DL-QHUP promises to unlock new possibilities in imaging applications, transcending existing limitations and offering unparalleled performance in challenging environments.
title Deep Learning Enhanced Quantum Holography with Undetected Photons
topic Optics
url https://arxiv.org/abs/2409.18887