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Isotropic three-dimensional dual-color super-resolution microscopy with metal-induced energy transfer.


ABSTRACT: Over the past two decades, super-resolution microscopy has seen a tremendous development in speed and resolution, but for most of its methods, there exists a remarkable gap between lateral and axial resolution, which is by a factor of 2 to 3 worse. One recently developed method to close this gap is metal-induced energy transfer (MIET) imaging, which achieves an axial resolution down to nanometers. It exploits the distance-dependent quenching of fluorescence when a fluorescent molecule is brought close to a metal surface. In the present manuscript, we combine the extreme axial resolution of MIET imaging with the extraordinary lateral resolution of single-molecule localization microscopy, in particular with direct stochastic optical reconstruction microscopy (dSTORM). This combination allows us to achieve isotropic three-dimensional super-resolution imaging of subcellular structures. Moreover, we used spectral demixing for implementing dual-color MIET-dSTORM that allows us to image and colocalize, in three dimensions, two different cellular structures simultaneously.

SUBMITTER: Thiele JC 

PROVIDER: S-EPMC9176750 | biostudies-literature | 2022 Jun

REPOSITORIES: biostudies-literature

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Isotropic three-dimensional dual-color super-resolution microscopy with metal-induced energy transfer.

Thiele Jan Christoph JC   Jungblut Marvin M   Helmerich Dominic A DA   Tsukanov Roman R   Chizhik Anna A   Chizhik Alexey I AI   Schnermann Martin J MJ   Sauer Markus M   Nevskyi Oleksii O   Enderlein Jörg J  

Science advances 20220608 23


Over the past two decades, super-resolution microscopy has seen a tremendous development in speed and resolution, but for most of its methods, there exists a remarkable gap between lateral and axial resolution, which is by a factor of 2 to 3 worse. One recently developed method to close this gap is metal-induced energy transfer (MIET) imaging, which achieves an axial resolution down to nanometers. It exploits the distance-dependent quenching of fluorescence when a fluorescent molecule is brought  ...[more]

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