Nanophotonics enhanced coverslip for phase imaging in biology

Abstract The ability to visualise transparent objects such as live cells is central to understanding biological processes. Here we experimentally demonstrate a novel nanostructured coverslip that converts phase information to high-contrast intensity images. This compact device enables real-time, all...

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Main Authors: Lukas Wesemann, Jon Rickett, Jingchao Song, Jieqiong Lou, Elizabeth Hinde, Timothy J. Davis, Ann Roberts
Format: Article
Language:English
Published: Nature Publishing Group 2021-05-01
Series:Light: Science & Applications
Online Access:https://doi.org/10.1038/s41377-021-00540-7
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spelling doaj-1c6c992733834e2a93cf2f722318c1e82021-05-09T11:14:53ZengNature Publishing GroupLight: Science & Applications2047-75382021-05-011011610.1038/s41377-021-00540-7Nanophotonics enhanced coverslip for phase imaging in biologyLukas Wesemann0Jon Rickett1Jingchao Song2Jieqiong Lou3Elizabeth Hinde4Timothy J. Davis5Ann Roberts6School of Physics, University of MelbourneSchool of Physics, University of MelbourneSchool of Physics, University of MelbourneSchool of Physics, University of MelbourneSchool of Physics, University of MelbourneSchool of Physics, University of MelbourneSchool of Physics, University of MelbourneAbstract The ability to visualise transparent objects such as live cells is central to understanding biological processes. Here we experimentally demonstrate a novel nanostructured coverslip that converts phase information to high-contrast intensity images. This compact device enables real-time, all-optical generation of pseudo three-dimensional images of phase objects on transmission. We show that by placing unstained human cancer cells on the device, the internal structure within the cells can be clearly seen. Our research demonstrates the significant potential of nanophotonic devices for integration into compact imaging and medical diagnostic devices. The nanophotonics enhanced coverslip (NEC) enables ultra-compact phase imaging of samples placed directly on top of the device. Visualisation of artificial phase objects and unstained biological cells is demonstrated.https://doi.org/10.1038/s41377-021-00540-7
collection DOAJ
language English
format Article
sources DOAJ
author Lukas Wesemann
Jon Rickett
Jingchao Song
Jieqiong Lou
Elizabeth Hinde
Timothy J. Davis
Ann Roberts
spellingShingle Lukas Wesemann
Jon Rickett
Jingchao Song
Jieqiong Lou
Elizabeth Hinde
Timothy J. Davis
Ann Roberts
Nanophotonics enhanced coverslip for phase imaging in biology
Light: Science & Applications
author_facet Lukas Wesemann
Jon Rickett
Jingchao Song
Jieqiong Lou
Elizabeth Hinde
Timothy J. Davis
Ann Roberts
author_sort Lukas Wesemann
title Nanophotonics enhanced coverslip for phase imaging in biology
title_short Nanophotonics enhanced coverslip for phase imaging in biology
title_full Nanophotonics enhanced coverslip for phase imaging in biology
title_fullStr Nanophotonics enhanced coverslip for phase imaging in biology
title_full_unstemmed Nanophotonics enhanced coverslip for phase imaging in biology
title_sort nanophotonics enhanced coverslip for phase imaging in biology
publisher Nature Publishing Group
series Light: Science & Applications
issn 2047-7538
publishDate 2021-05-01
description Abstract The ability to visualise transparent objects such as live cells is central to understanding biological processes. Here we experimentally demonstrate a novel nanostructured coverslip that converts phase information to high-contrast intensity images. This compact device enables real-time, all-optical generation of pseudo three-dimensional images of phase objects on transmission. We show that by placing unstained human cancer cells on the device, the internal structure within the cells can be clearly seen. Our research demonstrates the significant potential of nanophotonic devices for integration into compact imaging and medical diagnostic devices. The nanophotonics enhanced coverslip (NEC) enables ultra-compact phase imaging of samples placed directly on top of the device. Visualisation of artificial phase objects and unstained biological cells is demonstrated.
url https://doi.org/10.1038/s41377-021-00540-7
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