Optimizing Imaging Conditions for Demanding Multi-Color Super Resolution Localization Microscopy.

Single Molecule Localization super-resolution Microscopy (SMLM) has become a powerful tool to study cellular architecture at the nanometer scale. In SMLM, single fluorophore labels are made to repeatedly switch on and off ("blink"), and their exact locations are determined by mathematicall...

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Main Authors: Leila Nahidiazar, Alexandra V Agronskaia, Jorrit Broertjes, Bram van den Broek, Kees Jalink
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2016-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC4938622?pdf=render
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spelling doaj-b81a9c0f8e8e497bbb75f60fb10c99972020-11-25T02:47:03ZengPublic Library of Science (PLoS)PLoS ONE1932-62032016-01-01117e015888410.1371/journal.pone.0158884Optimizing Imaging Conditions for Demanding Multi-Color Super Resolution Localization Microscopy.Leila NahidiazarAlexandra V AgronskaiaJorrit BroertjesBram van den BroekKees JalinkSingle Molecule Localization super-resolution Microscopy (SMLM) has become a powerful tool to study cellular architecture at the nanometer scale. In SMLM, single fluorophore labels are made to repeatedly switch on and off ("blink"), and their exact locations are determined by mathematically finding the centers of individual blinks. The image quality obtainable by SMLM critically depends on efficacy of blinking (brightness, fraction of molecules in the on-state) and on preparation longevity and labeling density. Recent work has identified several combinations of bright dyes and imaging buffers that work well together. Unfortunately, different dyes blink optimally in different imaging buffers, and acquisition of good quality 2- and 3-color images has therefore remained challenging. In this study we describe a new imaging buffer, OxEA, that supports 3-color imaging of the popular Alexa dyes. We also describe incremental improvements in preparation technique that significantly decrease lateral- and axial drift, as well as increase preparation longevity. We show that these improvements allow us to collect very large series of images from the same cell, enabling image stitching, extended 3D imaging as well as multi-color recording.http://europepmc.org/articles/PMC4938622?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Leila Nahidiazar
Alexandra V Agronskaia
Jorrit Broertjes
Bram van den Broek
Kees Jalink
spellingShingle Leila Nahidiazar
Alexandra V Agronskaia
Jorrit Broertjes
Bram van den Broek
Kees Jalink
Optimizing Imaging Conditions for Demanding Multi-Color Super Resolution Localization Microscopy.
PLoS ONE
author_facet Leila Nahidiazar
Alexandra V Agronskaia
Jorrit Broertjes
Bram van den Broek
Kees Jalink
author_sort Leila Nahidiazar
title Optimizing Imaging Conditions for Demanding Multi-Color Super Resolution Localization Microscopy.
title_short Optimizing Imaging Conditions for Demanding Multi-Color Super Resolution Localization Microscopy.
title_full Optimizing Imaging Conditions for Demanding Multi-Color Super Resolution Localization Microscopy.
title_fullStr Optimizing Imaging Conditions for Demanding Multi-Color Super Resolution Localization Microscopy.
title_full_unstemmed Optimizing Imaging Conditions for Demanding Multi-Color Super Resolution Localization Microscopy.
title_sort optimizing imaging conditions for demanding multi-color super resolution localization microscopy.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2016-01-01
description Single Molecule Localization super-resolution Microscopy (SMLM) has become a powerful tool to study cellular architecture at the nanometer scale. In SMLM, single fluorophore labels are made to repeatedly switch on and off ("blink"), and their exact locations are determined by mathematically finding the centers of individual blinks. The image quality obtainable by SMLM critically depends on efficacy of blinking (brightness, fraction of molecules in the on-state) and on preparation longevity and labeling density. Recent work has identified several combinations of bright dyes and imaging buffers that work well together. Unfortunately, different dyes blink optimally in different imaging buffers, and acquisition of good quality 2- and 3-color images has therefore remained challenging. In this study we describe a new imaging buffer, OxEA, that supports 3-color imaging of the popular Alexa dyes. We also describe incremental improvements in preparation technique that significantly decrease lateral- and axial drift, as well as increase preparation longevity. We show that these improvements allow us to collect very large series of images from the same cell, enabling image stitching, extended 3D imaging as well as multi-color recording.
url http://europepmc.org/articles/PMC4938622?pdf=render
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AT jorritbroertjes optimizingimagingconditionsfordemandingmulticolorsuperresolutionlocalizationmicroscopy
AT bramvandenbroek optimizingimagingconditionsfordemandingmulticolorsuperresolutionlocalizationmicroscopy
AT keesjalink optimizingimagingconditionsfordemandingmulticolorsuperresolutionlocalizationmicroscopy
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