Extending channel attention to kernel space for fluorescence microscopy image denoising

Deep learning has demonstrated significant potential in fluorescence microscopy imaging. However, most existing methods primarily enhance channel or spatial features, overlooking the capabilities of kernel space. This limitation restricts the network's ability to recover fine structures and details, especially under noisy or degraded imaging conditions. In this work, the iKUNet-RCAN model, an architecture that integrates kernel and channel attention mechanisms, is proposed. By explicitly capturing kernel space dependencies, the proposed model enhances feature representation with minimal additional computational cost. Experimental results across multiple microscopy modes (confocal, widefield, and two-photon) reveal superior image quality and reconstruction robustness compared with existing methods.

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Publication Details

Journal
Applied Physics Letters
Published
2026-01-26
DOI
https://doi.org/10.1063/5.0311220
Primary Topic
Advanced Fluorescence Microscopy Techniques
Type
article
Field-Weighted Citation Impact
0.00
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article

Extending channel attention to kernel space for fluorescence microscopy image denoising

Zixiong Fan, Wenlong Chen, Xiangyu Zhou, Wei Yan et al.
Applied Physics Letters
Advanced Fluorescence Microscopy Techniques
article

Extending channel attention to kernel space for fluorescence microscopy image denoising

Zixiong Fan, Wenlong Chen, Xiangyu Zhou, Wei Yan, Xinwei Gao, Junle Qu
article en

Abstract

Deep learning has demonstrated significant potential in fluorescence microscopy imaging. However, most existing methods primarily enhance channel or spatial features, overlooking the capabilities of kernel space. This limitation restricts the network's ability to recover fine structures and details, especially under noisy or degraded imaging conditions. In this work, the iKUNet-RCAN model, an architecture that integrates kernel and channel attention mechanisms, is proposed. By explicitly capturing kernel space dependencies, the proposed model enhances feature representation with minimal additional computational cost. Experimental results across multiple microscopy modes (confocal, widefield, and two-photon) reveal superior image quality and reconstruction robustness compared with existing methods.

Applied Physics LettersVol. 128(4)
Shenzhen University (CN)
Openalex Percentile: Top 77%
Advanced Fluorescence Microscopy Techniques
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