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Hauptverfasser: Zheng, Pengcheng, Zhang, Songqian, Ma, Zhu, Niu, Haipo, Wu, Jiatao, Huang, Zerui, Han, Chengyin, Lu, Bo, Liu, Peiliang, Lee, Chaohong
Format: Preprint
Veröffentlicht: 2024
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Online-Zugang:https://arxiv.org/abs/2403.04240
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author Zheng, Pengcheng
Zhang, Songqian
Ma, Zhu
Niu, Haipo
Wu, Jiatao
Huang, Zerui
Han, Chengyin
Lu, Bo
Liu, Peiliang
Lee, Chaohong
author_facet Zheng, Pengcheng
Zhang, Songqian
Ma, Zhu
Niu, Haipo
Wu, Jiatao
Huang, Zerui
Han, Chengyin
Lu, Bo
Liu, Peiliang
Lee, Chaohong
contents The noise in absorption imaging of cold atoms significantly impacts measurement accuracy across a range of applications with ultracold atoms. It is crucial to adopt an approach that offers effective denoising capabilities without compromising the unique structure of the atoms. Here we introduce a novel image enhancement algorithm for cold atomic absorption imaging. The algorithm successfully suppresses background noise, enhancing image contrast significantly. Experimental results showcase that this approach can enhance the accuracy of cold atom particle number measurements by approximately tenfold, all while preserving essential information. Moreover, the method exhibits exceptional performance and robustness when confronted with fringe noise and multi-component imaging scenarios, offering high stability. Importantly, the optimization process is entirely automated, eliminating the need for manual parameter selection. The method is both compatible and practical, making it applicable across various absorption imaging fields.
format Preprint
id arxiv_https___arxiv_org_abs_2403_04240
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Image enhancement algorithm for absorption imaging
Zheng, Pengcheng
Zhang, Songqian
Ma, Zhu
Niu, Haipo
Wu, Jiatao
Huang, Zerui
Han, Chengyin
Lu, Bo
Liu, Peiliang
Lee, Chaohong
Quantum Physics
The noise in absorption imaging of cold atoms significantly impacts measurement accuracy across a range of applications with ultracold atoms. It is crucial to adopt an approach that offers effective denoising capabilities without compromising the unique structure of the atoms. Here we introduce a novel image enhancement algorithm for cold atomic absorption imaging. The algorithm successfully suppresses background noise, enhancing image contrast significantly. Experimental results showcase that this approach can enhance the accuracy of cold atom particle number measurements by approximately tenfold, all while preserving essential information. Moreover, the method exhibits exceptional performance and robustness when confronted with fringe noise and multi-component imaging scenarios, offering high stability. Importantly, the optimization process is entirely automated, eliminating the need for manual parameter selection. The method is both compatible and practical, making it applicable across various absorption imaging fields.
title Image enhancement algorithm for absorption imaging
topic Quantum Physics
url https://arxiv.org/abs/2403.04240