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Physics-informed deep generative learning for quantitative assessment of the retina

Medicine and Health

Physics-informed deep generative learning for quantitative assessment of the retina

E. E. Brown, A. A. Guy, et al.

Discover a groundbreaking algorithmic approach that revolutionizes the generation of realistic digital models of human retinal blood vessels. This innovative method, developed by Emmeline E. Brown and colleagues, surpasses traditional labeling performance through physics-informed generative adversarial networks, paving the way for enhanced early detection and monitoring of retinal diseases.

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Playback language: English
Abstract
This paper introduces a novel algorithmic approach using physics-informed generative adversarial networks (PI-GAN) to generate realistic digital models of human retinal blood vessels. The PI-GAN approach, based on biophysical principles like Murray's Law and fluid dynamics, enables accurate segmentation and reconstruction of blood vessel networks without human input, surpassing human labelling performance. Evaluated on DRIVE and STARE datasets, it achieved near state-of-the-art vessel segmentation with training on a small simulated dataset. This method holds significant potential for improving early disease detection and monitoring in retinal diseases.
Publisher
Nature Communications
Published On
Aug 10, 2024
Authors
Emmeline E. Brown, Andrew A. Guy, Natalie A. Holroyd, Paul W. Sweeney, Lucie Gourmet, Hannah Coleman, Claire Walsh, Athina E. Markaki, Rebecca Shipley, Ranjan Rajendram, Simon Walker-Samuel
Tags
generative adversarial networks
retinal blood vessels
segmentation
Murray's Law
fluid dynamics
disease detection
cambridge
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