Fluorescence Polarization Control for On-Off Switching of Single Molecules at Cryogenic Temperatures

Journal Article (2018)
Author(s)

Christiaan Hulleman (TU Delft - ImPhys/Computational Imaging)

Maximiliaan Huisman (University of Massachusetts Medical School)

Robert J. Moerland (TU Delft - ImPhys/Quantitative Imaging)

David Gruenwald (University of Massachusetts Medical School)

Sjoerd Stallinga (TU Delft - ImPhys/Imaging Physics)

B. Rieger (TU Delft - ImPhys/Quantitative Imaging)

Research Group
ImPhys/Quantitative Imaging
Copyright
© 2018 C.N. Hulleman, Maximiliaan Huisman, R.J. Moerland, David Gruenwald, S. Stallinga, B. Rieger
DOI related publication
https://doi.org/10.1002/smtd.201700323
More Info
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Publication Year
2018
Language
English
Copyright
© 2018 C.N. Hulleman, Maximiliaan Huisman, R.J. Moerland, David Gruenwald, S. Stallinga, B. Rieger
Research Group
ImPhys/Quantitative Imaging
Issue number
9
Volume number
2
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Abstract

Light microscopy, allowing sub-diffraction-limited resolution, has been among the fastest developing techniques at the interface of biology, chemistry, and physics. Intriguingly no theoretical limit exists on how far the underlying measurement uncertainty can be lowered. In particular data fusion of large amounts of images can reduce the measurement error to match the reso-lution of structural methods like cryo-electron microscopy. Fluorescence, although reliant on a reporter molecule and therefore not the first choice to obtain ultraresolution structures, brings highly specific labeling of molecules in a large assembly to the table and inherently allows the detection of multiple colors, which enables the interrogation of multiple molecular species at the same time in the same sample. Here, the problems to be solved in the coming years, with the aim of higher resolution, are discussed, and what polarization depletion of fluorescence at cryogenic temperatures can contribute for fluorescence imaging of biological samples, like whole cells, is described.

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