Enhancing Image Quality Through Photon Based Generative Denoising with Hyper Parameter Tuning

Poisson shot noise is a problem in low-light imaging because photon detection is random, and it frequently arises when fluorescence microscopy aims to minimise light damage while maintaining image quality. Although deep learning techniques such as Content-Aware Image Restoration (CARE) have demonstrated potential for noise reduction, they necessitate paired noisy-clean images, which are challenging to acquire. We suggest using the Generative Accumulation of Photons (GAP) framework to address this, a self-supervised method reinterpreting image formation as photon accumulation over time. GAP predicts the distribution of future photon arrivals, enabling effective denoising and generating diverse clean images from a single noisy input. Additionally, GAP serves as a fully generative model capable of creating images from scratch via iterative photon prediction. To support benchmarking, we introduce the shot noise-corrupted conv pc dataset, providing a valuable resource for advancing noise reduction in microscopy.

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Publication Details

Published
2025-04-29
DOI
https://doi.org/10.1109/aimla63829.2025.11041549
Primary Topic
Image and Signal Denoising Methods
Type
article
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article

Enhancing Image Quality Through Photon Based Generative Denoising with Hyper Parameter Tuning

M. Harini, P. C. D. Kalaivaani
3 links
Image and Signal Denoising Methods
article

Enhancing Image Quality Through Photon Based Generative Denoising with Hyper Parameter Tuning

M. Harini, P. C. D. Kalaivaani
article en

Abstract

Poisson shot noise is a problem in low-light imaging because photon detection is random, and it frequently arises when fluorescence microscopy aims to minimise light damage while maintaining image quality. Although deep learning techniques such as Content-Aware Image Restoration (CARE) have demonstrated potential for noise reduction, they necessitate paired noisy-clean images, which are challenging to acquire. We suggest using the Generative Accumulation of Photons (GAP) framework to address this, a self-supervised method reinterpreting image formation as photon accumulation over time. GAP predicts the distribution of future photon arrivals, enabling effective denoising and generating diverse clean images from a single noisy input. Additionally, GAP serves as a fully generative model capable of creating images from scratch via iterative photon prediction. To support benchmarking, we introduce the shot noise-corrupted conv pc dataset, providing a valuable resource for advancing noise reduction in microscopy.

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Image and Signal Denoising Methods
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