Metasurface with deep learning for biomedical imaging applications

This talk explores the transformative power of deep learning (DL) in metasurface-based imaging systems. We will showcase how DL algorithms are pushing the boundaries of performance in different applications, including endo-microscopy, meta-miniscopy, and confocal microscopy. In endo-microscopy, we achieve high-resolution brain images with detailed vasculature within 0.1 seconds (50x faster) by combining DL networks with existing endoscopes. This significantly reduces image acquisition time and system complexity. For DL assisted meta-miniscope, the integration of DL models with a meta-miniscope facilitates the transformation of conventional bright-field images into edge-enhanced images with high contrast accuracy. This novel approach not only enhances image quality but also minimizes system complexity and processing times, thus opening new avenues for improved microscopy techniques. This talk will be of interest to researchers and developers in optics, bioimaging, and deep learning, to highlight significant advancements through metasurfaces with deep learning.

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Publication Details

Published
2024-10-02
DOI
https://doi.org/10.1117/12.3030915
Primary Topic
AI in cancer detection
Type
article
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article

Metasurface with deep learning for biomedical imaging applications

Yuan Luo
AI in cancer detection
article

Metasurface with deep learning for biomedical imaging applications

Yuan Luo
article en

Abstract

This talk explores the transformative power of deep learning (DL) in metasurface-based imaging systems. We will showcase how DL algorithms are pushing the boundaries of performance in different applications, including endo-microscopy, meta-miniscopy, and confocal microscopy. In endo-microscopy, we achieve high-resolution brain images with detailed vasculature within 0.1 seconds (50x faster) by combining DL networks with existing endoscopes. This significantly reduces image acquisition time and system complexity. For DL assisted meta-miniscope, the integration of DL models with a meta-miniscope facilitates the transformation of conventional bright-field images into edge-enhanced images with high contrast accuracy. This novel approach not only enhances image quality but also minimizes system complexity and processing times, thus opening new avenues for improved microscopy techniques. This talk will be of interest to researchers and developers in optics, bioimaging, and deep learning, to highlight significant advancements through metasurfaces with deep learning.

National Taiwan University (TW)
Openalex Percentile: Top 85%
AI in cancer detection
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Metasurface with deep learning for biomedical imaging applications — Yuan Luo · (2024) | TGRS Research Map | TGRS