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Department of Physics and Chemistry
SMALL LAB(Single Molecule Approaches to ceLL Lab)
1. Journal Articles
Pushing the Resolution Limit of Stimulated Emission Depletion Optical Nanoscopy
Jeong, Sejoo
;
Koh, Dongbin
;
Gwak, Eunha
;
Srambickal, Chinmaya V.
;
Seo, Daeha
;
Widengren, Jerker
;
Lee, Jong-Chan
Department of Physics and Chemistry
SMALL LAB(Single Molecule Approaches to ceLL Lab)
1. Journal Articles
Department of New Biology
Single-molecule Biophysics and Advanced Bioimaging Laboratory
1. Journal Articles
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Title
Pushing the Resolution Limit of Stimulated Emission Depletion Optical Nanoscopy
Issued Date
2024-01
Citation
Jeong, Sejoo. (2024-01). Pushing the Resolution Limit of Stimulated Emission Depletion Optical Nanoscopy. International Journal of Molecular Sciences, 25(1). doi: 10.3390/ijms25010026
Type
Article
Author Keywords
super-resolution microscopy
;
STED
;
resolution
;
temporal resolution
;
fluorophore localization
;
adaptive illumination
;
fluorescence lifetime
;
nanobody
;
fluorescent protein
;
optical nanoscopy
Keywords
STED MICROSCOPY
;
FLUORESCENCE NANOSCOPY
;
SUPERRESOLUTION MICROSCOPY
;
LIVE-CELL
;
PROTEIN
;
MOLECULES
;
EXPRESSION
;
BREAKING
;
TRACKING
;
STORAGE
ISSN
1661-6596
Abstract
Optical nanoscopy, also known as super-resolution optical microscopy, has provided scientists with the means to surpass the diffraction limit of light microscopy and attain new insights into nanoscopic structures and processes that were previously inaccessible. In recent decades, numerous studies have endeavored to enhance super-resolution microscopy in terms of its spatial (lateral) resolution, axial resolution, and temporal resolution. In this review, we discuss recent efforts to push the resolution limit of stimulated emission depletion (STED) optical nanoscopy across multiple dimensions, including lateral resolution, axial resolution, temporal resolution, and labeling precision. We introduce promising techniques and methodologies building on the STED concept that have emerged in the field, such as MINSTED, isotropic STED, and event-triggered STED, and evaluate their respective strengths and limitations. Moreover, we discuss trade-off relationships that exist in far-field optical microscopy and how they come about in STED optical nanoscopy. By examining the latest developments addressing these aspects, we aim to provide an updated overview of the current state of STED nanoscopy and its potential for future research. © 2023 by the authors.
URI
http://hdl.handle.net/20.500.11750/47720
DOI
10.3390/ijms25010026
Publisher
MDPI
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001140512500001.pdf
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Lee, Jong-Chan
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Department of New Biology
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