AbstractOne challenge in studying the function of membrane-embedded proteins is determining the orientation of key domains in the context of the changing and dynamic membrane environment. We describe a confocal microscopy setup that utilizes external electric field pulses to direct dipicrylamine (DPA) to a membrane leaflet. The detection of FRET between DPA and a fluorescent probe attributes it to the inner or outer leaflet of a membrane. By utilizing short acquisition times and confocal imaging, this attribution could be made even in changing membrane environments. Our setup adds versatility to the study of the biological activity of membrane-embedded proteins
AbstractThe dynamics of protein distribution in endocytic membranes are relevant for many cellular p...
International audienceSteady-state polarization-resolved fluorescence imaging is used to analyze the...
AbstractFörster resonance energy transfer (FRET) experiments are often used to study interactions be...
AbstractOne challenge in studying the function of membrane-embedded proteins is determining the orie...
International audienceFluorescence anisotropy and linear dichroism imaging have been widely used for...
AbstractThe plasma membrane of cells is an ordered environment, giving rise to anisotropic orientati...
AbstractOrientational fluorophores have been a useful tool in physical chemistry, biochemistry, and ...
FRET is an indispensable tool for the study of membrane proteins, however the theory to describe the...
AbstractWe demonstrate that fluorescence resonance energy transfer spectroscopy is a powerful tool f...
AbstractFluorescence anisotropy and linear dichroism imaging have been widely used for imaging biomo...
AbstractTIRF microscopy can be used in conjunction with CFP/YFP FRET to detect movements of the cyto...
The cell membrane acts as a barrier that controls the passage of substances from the outside to the ...
AbstractA new formalism for the simultaneous determination of the membrane embedment and aggregation...
AbstractSteady-state polarization-resolved fluorescence imaging is used to analyze the molecular ori...
AbstractDetermining the local structure, dynamics, and conformational requirements for protein-prote...
AbstractThe dynamics of protein distribution in endocytic membranes are relevant for many cellular p...
International audienceSteady-state polarization-resolved fluorescence imaging is used to analyze the...
AbstractFörster resonance energy transfer (FRET) experiments are often used to study interactions be...
AbstractOne challenge in studying the function of membrane-embedded proteins is determining the orie...
International audienceFluorescence anisotropy and linear dichroism imaging have been widely used for...
AbstractThe plasma membrane of cells is an ordered environment, giving rise to anisotropic orientati...
AbstractOrientational fluorophores have been a useful tool in physical chemistry, biochemistry, and ...
FRET is an indispensable tool for the study of membrane proteins, however the theory to describe the...
AbstractWe demonstrate that fluorescence resonance energy transfer spectroscopy is a powerful tool f...
AbstractFluorescence anisotropy and linear dichroism imaging have been widely used for imaging biomo...
AbstractTIRF microscopy can be used in conjunction with CFP/YFP FRET to detect movements of the cyto...
The cell membrane acts as a barrier that controls the passage of substances from the outside to the ...
AbstractA new formalism for the simultaneous determination of the membrane embedment and aggregation...
AbstractSteady-state polarization-resolved fluorescence imaging is used to analyze the molecular ori...
AbstractDetermining the local structure, dynamics, and conformational requirements for protein-prote...
AbstractThe dynamics of protein distribution in endocytic membranes are relevant for many cellular p...
International audienceSteady-state polarization-resolved fluorescence imaging is used to analyze the...
AbstractFörster resonance energy transfer (FRET) experiments are often used to study interactions be...