Self-Supervised Low-Light Quantum RGB Image Demosaicing

Image acquisition in low-light environments is fundamentally challenging due to the photon-limited nature of the scene, which results in severe noise and incomplete color information. Imaging sensors operating under such conditions require robust post-processing to recover visually coherent, full-color images. In these conditions, the photon arrival process can be modeled as a Poisson distribution, which introduces noise that complicates image reconstruction. Furthermore, the use of a color filter array leads to missing color information at each pixel, which exacerbates the challenge. As a result, denoising and demosaicing become ill-posed and interdependent tasks. We propose a self-supervised method that jointly addresses denoising and demosaicing under low-light conditions without requiring clean reference images. Our approach achieves a PSNR higher by 2.0 dB compared to best state-of-the-art methods at gain of 20 and is close to the supervised method.

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Publication Details

Published
2025-08-27
DOI
https://doi.org/10.1109/stsiva66383.2025.11156246
Primary Topic
Optical Coherence Tomography Applications
Type
article
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article

Self-Supervised Low-Light Quantum RGB Image Demosaicing

Brayan Monroy, Jorge Bacca, Kebin Contreras, Diego Garcia-Barajas
Optical Coherence Tomography Applications
article

Self-Supervised Low-Light Quantum RGB Image Demosaicing

Brayan Monroy, Jorge Bacca, Kebin Contreras, Diego Garcia-Barajas
article en

Abstract

Image acquisition in low-light environments is fundamentally challenging due to the photon-limited nature of the scene, which results in severe noise and incomplete color information. Imaging sensors operating under such conditions require robust post-processing to recover visually coherent, full-color images. In these conditions, the photon arrival process can be modeled as a Poisson distribution, which introduces noise that complicates image reconstruction. Furthermore, the use of a color filter array leads to missing color information at each pixel, which exacerbates the challenge. As a result, denoising and demosaicing become ill-posed and interdependent tasks. We propose a self-supervised method that jointly addresses denoising and demosaicing under low-light conditions without requiring clean reference images. Our approach achieves a PSNR higher by 2.0 dB compared to best state-of-the-art methods at gain of 20 and is close to the supervised method.

Universidad Industrial de Santander (CO)
Openalex Percentile: Top 76%
Optical Coherence Tomography Applications
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Self-Supervised Low-Light Quantum RGB Image Demosaicing — Brayan Monroy, Jorge Bacca, et al. · (2025) | TGRS Research Map | TGRS