Digital aberration correction for enhanced thick tissue imaging exploiting aberration matrix and tilt-tilt correlation from the optical memory effect

Optical aberrations significantly impair microscopic image quality across various domains, including cell biology and histopathology diagnostics. Traditional adaptive optics techniques, such as wavefront shaping and guide star utilization, face challenges, especially in imaging biological tissues. Here, we introduce a computational adaptive optics approach tailored for optically thick samples. Utilizing the tilt-tilt correlation from the optical memory effect, our method detects phase differences in aberrations caused by small tilts in the incident waves. Experimental validation demonstrates our technique's capacity to enhance imaging of thick human tissues under substantial aberration conditions using a transmission-mode holotomography setup. Remarkably, our approach works robustly against sample movement, which is essential for enhanced imaging accuracy in critical biomedical applications.

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Publication Details

Journal
Nature Communications
Published
2025-02-16
DOI
https://doi.org/10.1038/s41467-025-56865-z
Citations
4
Primary Topic
Random lasers and scattering media
Type
article
Field-Weighted Citation Impact
5.20
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article

Digital aberration correction for enhanced thick tissue imaging exploiting aberration matrix and tilt-tilt correlation from the optical memory effect

YongKeun Park, Hervé Hugonnet, ChulMin Oh, Moosung Lee
4 citations
Nature Communications
Random lasers and scattering media
5.20
article

Digital aberration correction for enhanced thick tissue imaging exploiting aberration matrix and tilt-tilt correlation from the optical memory effect

YongKeun Park, Hervé Hugonnet, ChulMin Oh, Moosung Lee
article en
4 citations

Abstract

Optical aberrations significantly impair microscopic image quality across various domains, including cell biology and histopathology diagnostics. Traditional adaptive optics techniques, such as wavefront shaping and guide star utilization, face challenges, especially in imaging biological tissues. Here, we introduce a computational adaptive optics approach tailored for optically thick samples. Utilizing the tilt-tilt correlation from the optical memory effect, our method detects phase differences in aberrations caused by small tilts in the incident waves. Experimental validation demonstrates our technique's capacity to enhance imaging of thick human tissues under substantial aberration conditions using a transmission-mode holotomography setup. Remarkably, our approach works robustly against sample movement, which is essential for enhanced imaging accuracy in critical biomedical applications.

Nature CommunicationsVol. 16(1)
University of Stuttgart (DE), Korea Advanced Institute of Science and Technology (KR), Center for Integrated Quantum Science and Technology (DE)
Openalex Percentile: Top 6%
Random lasers and scattering media
5.20
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