Results 11 to 20 of about 16,694 (193)

Förster resonance energy transfer (FRET)-based small-molecule sensors and imaging agents. [PDF]

Chem Soc Rev, 2020
Wu L, Huang C, Emery BP, Sedgwick AC, Bull SD, He XP, Tian H, Yoon J, Sessler JL, James TD.   +9 more
europepmc   +2 more sources

Research Techniques Made Simple: Methodology and Applications of Förster Resonance Energy Transfer (FRET) Microscopy. [PDF]

J Invest Dermatol, 2017
Broussard JA, Green KJ.
europepmc   +2 more sources

Engineering Genetically Encoded FRET Sensors

Sensors, 2014
Förster Resonance Energy Transfer (FRET) between two fluorescent proteins can be exploited to create fully genetically encoded and thus subcellularly targetable sensors.
Laurens Lindenburg, Maarten Merkx
doaj   +1 more source

Energy transfer in complexes of water-soluble quantum dots and chlorin e6 molecules in different environments

Beilstein Journal of Nanotechnology, 2013
The photoexcitation energy transfer is found and investigated in complexes of CdSe/ZnS cationic quantum dots and chlorin e6 molecules formed by covalent bonding and electrostatic interaction in aqueous solution and in porous track membranes.
Irina V. Martynenko, Anna O. Orlova, Vladimir G. Maslov, Alexander V. Baranov, Anatoly V. Fedorov, Mikhail Artemyev   +5 more
doaj   +1 more source

FRET Ratiometric Nanoprobes for Nanoparticle Monitoring

Biosensors, 2021
Fluorescence labelling is often used for tracking nanoparticles, providing a convenient assay for monitoring nanoparticle drug delivery. However, it is difficult to be quantitative, as many factors affect the fluorescence intensity.
Guangze Yang, Yun Liu, Jisi Teng, Chun-Xia Zhao   +3 more
doaj   +1 more source

A Guide to Fluorescent Protein FRET Pairs

Sensors, 2016
Förster or fluorescence resonance energy transfer (FRET) technology and genetically encoded FRET biosensors provide a powerful tool for visualizing signaling molecules in live cells with high spatiotemporal resolution. Fluorescent proteins (FPs) are most
Bryce T. Bajar, Emily S. Wang, Shu Zhang, Michael Z. Lin, Jun Chu   +4 more
doaj   +1 more source

Two-dimensional nanomaterials for Förster resonance energy transfer–based sensing applications

Nanophotonics, 2020
Förster resonance energy transfer (FRET)–based sensing has been steadily gaining popularity in the areas of biochemical analysis, environmental monitoring, and disease diagnosis in the past 20 years.
Zhou Jie, Chen Jiajie, Ge Yanqi, Shao Yonghong   +3 more
doaj   +1 more source

Monitoring Real-time Temperature Dynamics of a Short RNA Hairpin Using Förster Resonance Energy Transfer and Circular Dichroism

Bio-Protocol, 2021
RNA secondary structures are highly dynamic and subject to prompt changes in response to the environment. Temperature in particular has a strong impact on RNA structural conformation, and temperature-sensitive RNA hairpin structures have been exploited ...
Martin Balcerowicz, Marco Di Antonio, Betty Chung   +2 more
doaj   +1 more source

Reversible, Chemically Gated FRET via Ligand-Activated Acceptors. [PDF]

Adv Sci (Weinh)
Fluorogen binding turns the compact FAST tag into a tunable FRET acceptor, with ligand chemistry programming spectral overlap and excited‐state lifetimes. Fluorescence‐lifetime imaging reads out energy transfer through the shortened donor lifetime, while simply adding or washing out the dye switches FRET on and off, reversibly mapping the supramodular ...
Singh N, Nayak SR, Mohanty SK, Hanumantharaju A, Shaju A, Jose M, Penmatsa A, Nair D.   +7 more
europepmc   +2 more sources

Harnessing photoinduced electron transfer to optically determine protein sub-nanoscale atomic distances

Nature Communications, 2018
Current Förster resonance energy transfer (FRET)-based fluorescence spectroscopy methods are suffering from some limitations in the field of structural biology.
Antonios Pantazis, Karin Westerberg, Thorsten Althoff, Jeff Abramson, Riccardo Olcese   +4 more
doaj   +1 more source