Results 21 to 30 of about 206,440 (289)

Controlling the localization and migration of optical excitation [PDF]

, 2012
In the nanoscale structure of a wide variety of material systems, a close juxtaposition of optically responsive components can lead to the absorption of light by one species producing fluorescence that is clearly attributable to another.
Andrews, D. L., Bradshaw, D.S.
core   +1 more source

GPCRs Interaction Measurement by Fluorescence Resonance Energy Transfer (FRET)

Bio-Protocol, 2012
This is a protocol to determine the physical interaction of a G-protein coupled receptor (GPCR) with itself (homodimerization) or with other GPCR (heterodimerazation) using fluorescence resonance energy transfer (FRET).
Manuel Gahete, Raúl Luque, Justo Castaño   +2 more
doaj   +1 more source

Inorganic−Organic Hybrid Luminescent Binary Probe for DNA Detection Based on Spin-Forbidden Resonance Energy Transfer [PDF]

, 2007
We describe the design of new fluorescent binary probe sensors for DNA detection based on spin-forbidden resonance energy transfer (SF-RET). Binary probes consist of a donor and acceptor fluorophores that are attached to two different oligonucleotides ...
Barton, Jacqueline K., Dyer, Joanne, Jockusch, Steffen, Ju, Jingyue, Martí, Angel A., Puckett, Cindy A., Stevens, Nathan, Turro, Nicholas J.   +7 more
core   +4 more sources

Fluorescence Resonance Energy Transfer Systems in Supramolecular Macrocyclic Chemistry

Molecules, 2017
The fabrication of smart materials is gradually becoming a research focus in nanotechnology and materials science. An important criterion of smart materials is the capacity of stimuli-responsiveness, while another lies in selective recognition ...
Xin-Yue Lou, Nan Song, Ying-Wei Yang
doaj   +1 more source

Photon statistics and dynamics of Fluorescence Resonance Energy Transfer [PDF]

, 2002
We report high time-resolution measurements of photon statistics from pairs of dye molecules coupled by fluorescence resonance energy transfer (FRET).
Berglund, Andrew J., Doherty, Andrew C., Mabuchi, Hideo   +2 more
core   +3 more sources

Advanced Fluorescence Microscopy Techniques-FRAP, FLIP, FLAP, FRET and FLIM [PDF]

, 2012
Fluorescence microscopy provides an efficient and unique approach to study fixed and living cells because of its versatility, specificity, and high sensitivity.
Abbe, Abbe, Ai, Airy, Alivisatos, Alivisatos, Ando, Aoki, Auksorius, Auzel, Auzel, Axelrod, Axelrod, Bacskai, Bader, Bader, Balse, Barroso, Bastiaens, Bates, Beaudouin, Beaurepaire, Becker, Benninger, Berezin, Berney, Betzig, Bianchini, Biju, Binnemans, Borst, Brakemann, Bretschneider, Bunt, Campagnola, Campagnola, Campbell, Cantor, Carrero, Chalfie, Chalfie, Chatterjee, Chen, Chen, Clapp, Clapp, Clapp, Cole, Coons, Dahan, Dedecker, Del Pozo, Deng, Denk, Diaspro, Diaspro, Dickson, Digman, Drobizhev, Drummen, Dundr, Dundr, Dunn, Dunn, Dunn, Durr, Dyba, Ehrlicher, Einstein, Elangovan, Elder, Ellenberg, Elsner, Feige, Fereidouni, Festenstein, Frommer, Förster, Förster, Gamelin, Garcia-Mira, Garcia-Parajo, Gerlich, Giese, Giordano, Goodson, Gopich, Gordon, Gregor P. C. Drummen, Grotjohann, Gu, Gunnlaugsson, Gurskaya, Gustafsson, Göppert-Mayer, Ha, Haugland, Heimstädt, Hellen C. Ishikawa-Ankerhold, Hemmila, Hiller, Hitakomate, Hofkens, Hofmann, Houtsmuller, Houtsmuller, Howell, Hu, Hu, Huang, Ishihama, Jacobson, Jares-Erijman, Jiang, Johannes, Johnson, Jonkman, Jose, Jovin, Jovin, Kaiser, Kambara, Kapustina, Karasawa, Kardash, Kasha, Kawashima, Kenworthy, Kerppola, Kerppola, Kerppola, Kerppola, Kimura, Kinoshita, Klonis, Kner, Knoblauch, Konig, Koppel, Koster, Kota, Koushik, Kremers, Kremers, Kuningas, Kuningas, Kuningas, Laforge, Lakowicz, Lakowicz, Larson, Lee, Lichtman, Liebman, Lippincott-Schwartz, Liu, Llères, Loura, Lukyanov, Lundin, Mansfield, Mathew-Fenn, Mattheyses, Matz, Medintz, Mills, Mitchell, Miyawaki, Miyawaki, Moerner, Moneron, Monetta, Mueller, Mueller, Nagai, Nehls, Ormö, Paddock, Parsons, Patterson, Patterson, Patterson, Pawley, Pawley, Persechini, Peters, Phair, Phair, Phillips, Piston, Piston, Planck, Pockwinse, Politz, Poo, Puliti, Rajaram, Rantanen, Reinhard, Reits, Reymann, Richard Ankerhold, Richards, Riven, Rizzo, Rizzo, Robinson, Roduner, Rotblat, Roy, Rust, Sakon, Sbalzarini, Schawlow, Schönle, Seabrooke, Seah, Selvin, Shaner, Shav-Tal, Shaw, Shchyolkina, Shimomura, Shimomura, Shroff, Shu, Shyu, Smith, So, Solon, Soukka, Soumpasis, Sprague, Sprague, Stasevich, Stelzer, Stepanenko, Stokes, Stryer, Stryer, Subach, Sun, Suyver, Swaminathan, Swift, Sönnichsen, Tagawa, Taylor, Thaler, Tian, Tian, Tinnefeld, Tisler, Tocanne, Tomosugi, Tripathi, Tsien, Tsien, Uphoff, Valentin, van Driel, Van Munster, Van Munster, van Munster, van Rheenen, van Royen, van Royen, van Royen, Varghese, Venetta, Vogelsang, von Wichert, Vosch, Wallrabe, Wang, Wang, Wang, Wang, Wang, Wang, Welch, White, Williams, Willig, Wouters, Wouters, Wouters, Wouters, Wright, Xia, Yang, Youvan, Zhang, Zhang, Zimmer, Zipfel   +295 more
core   +2 more sources

ExiFRET: Flexible tool for understanding FRET in complex geometries [PDF]

, 2012
Fluorescence resonance energy transfer (FRET) can be utilized to gain low-resolution structural information by reporting on the proximity of molecules or measuring inter- and intramolecular distances.
Adair, Ben Corry, Börjesson, Corry, Dylan Jayatilaka, Evelyne Deplazes, Farinha, Gorbenko, Gryczynski, Kenworthy, Lakowicz, Li, Loura, Raicu, Varma, Wallrabe, Yang   +16 more
core   +2 more sources

Fluorescence Resonance Energy Transfer Using Spiropyran and Diarylethene Photochromic Acceptors

Molecules, 2000
We describe the preparation and photophysical characterization of two model compounds designed to test a new approach for the quantitative determination of Fluorescence Resonance Energy Transfer (FRET) in biological systems. The method enables modulation
E. A. Jares-Erijman, M. Irie, T. M. Jovin, L. Song, J. Macareno, L. Giordano   +5 more
doaj   +1 more source

Energy transfer in pendant perylene diimide copolymers [PDF]

, 2016
We report the synthesis, characterisation and polymerisation of two novel asymmetric perylene diimide acrylate monomers. The novel monomers form a sensitiser–acceptor pair capable of undergoing Förster resonance energy transfer, and were incorporated as ...
Danos, Andrew, Davis, Nathaniel J. L. K., Dehn, Sabrina, MacQueen, Rowan W., Perrier, Sébastien, Roberts, Derrick A., Schmidt, Timothy W.   +6 more
core   +1 more source

Highly-efficient quantitative fluorescence resonance energy transfer measurements based on deep learning

Journal of Innovative Optical Health Sciences, 2020
Intensity-based quantitative fluorescence resonance energy transfer (FRET) is a technique to measure the distance of molecules in scale of a few nanometers which is far beyond optical diffraction limit.
Lin Ge, Fei Liu, Jianwen Luo
doaj   +1 more source