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Multispectral Quantitative Phase Imaging Using a Diffractive Optical Network

delete2023-08-25
delete21
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OA
AI
C
Che‐Yung Shen
J
Jingxi Li
D
Deniz Mengü
A
Aydogan Özcan *
DOI:10.1002/aisy.202300300delete
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Abstract

Abstract

En 中文
As a label-free imaging technique, quantitative phase imaging (QPI) provides optical path length information of transparent specimens for various applications in biology, materials science, and engineering. Multispectral QPI measures quantitative phase information across multiple spectral bands, permitting the examination of wavelength-specific phase and dispersion characteristics of samples. Herein, the design of a diffractive processor is presented that can all-optically perform multispectral quantitative phase imaging of transparent phase-only objects within a snapshot. The design utilizes spatially engineered diffractive layers, optimized through deep learning, to encode the phase profile of the input object at a predetermined set of wavelengths into spatial intensity variations at the output plane, allowing multispectral QPI using a monochrome focal plane array. Through numerical simulations, diffractive multispectral processors are demonstrated to simultaneously perform quantitative phase imaging at 9 and 16 target spectral bands in the visible spectrum. The generalization of these diffractive processor designs is validated through numerical tests on unseen objects, including thin Pap smear images. Due to its all-optical processing capability using passive dielectric diffractive materials, this diffractive multispectral QPI processor offers a compact and power-efficient solution for high-throughput quantitative phase microscopy and spectroscopy.
Keywords:
diffractive computing
diffractive networks
label-free imaging
multispectral imaging
optical processors
quantitative phase imaging

Journal

Advanced Intelligent Systems cover
Advanced Intelligent Systems
IF:
6.1
Papers:
2.0K
Citations:
8.4K

Organization

University of California System cover
University of California System
Scholars:
37.7W
Papers: 33.8W
Citations: 6.6K
Cited Papers

Cited Papers

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