Fluorescence imaging techniques are extremely powerful tools in cell biology, providing valuable insights into the structure and function of biomolecules in their native environments. In particular, the use of Förster resonance energy transfer (FRET) has become increasingly important to obtain information on interactions on the nanoscale, in turn providing insights into molecular behaviour inside living cells. This review describes the basic principles of FRET and fluorescence lifetime imaging microscopy (FLIM) and their application in analyses of protein interactions inside living fungal cells
Protein interactions are critical for many processes in mammalian cells. Such interactions include t...
Forster resonance energy transfer (FRET) microscopy is a powerful fluorescence microscopy method to ...
Determining protein-protein interactions is vital for gaining knowledge on cellular and metabolic pr...
International audienceNew imaging methodologies in quantitative fluorescence microscopy, such as För...
International audienceNew imaging methodologies in quantitative fluorescence microscopy, such as För...
International audienceNew imaging methodologies in quantitative fluorescence microscopy, such as För...
International audienceNew imaging methodologies in quantitative fluorescence microscopy, such as För...
New imaging methodologies in quantitative fluorescence microscopy, such as Förster resonance energy ...
A hallmark of cellular processes is the spatio-temporally regulated interplay of biochemical compone...
New imaging methodologies in quantitative fluorescence microscopy and nanoscopy have been developed ...
New imaging methodologies in quantitative fluorescence microscopy and nanoscopy have been developed ...
This image acquisition protocol is a basic plan for taking a fluorescence lifetime imaging (FLIM) se...
Protein interactions are critical for many processes in mammalian cells. Such interactions include t...
Interactions between proteins can be demonstrated by fluorescence resonance energy transfer (FRET) [...
Protein interactions are critical for many processes in mammalian cells. Such interactions include t...
Protein interactions are critical for many processes in mammalian cells. Such interactions include t...
Forster resonance energy transfer (FRET) microscopy is a powerful fluorescence microscopy method to ...
Determining protein-protein interactions is vital for gaining knowledge on cellular and metabolic pr...
International audienceNew imaging methodologies in quantitative fluorescence microscopy, such as För...
International audienceNew imaging methodologies in quantitative fluorescence microscopy, such as För...
International audienceNew imaging methodologies in quantitative fluorescence microscopy, such as För...
International audienceNew imaging methodologies in quantitative fluorescence microscopy, such as För...
New imaging methodologies in quantitative fluorescence microscopy, such as Förster resonance energy ...
A hallmark of cellular processes is the spatio-temporally regulated interplay of biochemical compone...
New imaging methodologies in quantitative fluorescence microscopy and nanoscopy have been developed ...
New imaging methodologies in quantitative fluorescence microscopy and nanoscopy have been developed ...
This image acquisition protocol is a basic plan for taking a fluorescence lifetime imaging (FLIM) se...
Protein interactions are critical for many processes in mammalian cells. Such interactions include t...
Interactions between proteins can be demonstrated by fluorescence resonance energy transfer (FRET) [...
Protein interactions are critical for many processes in mammalian cells. Such interactions include t...
Protein interactions are critical for many processes in mammalian cells. Such interactions include t...
Forster resonance energy transfer (FRET) microscopy is a powerful fluorescence microscopy method to ...
Determining protein-protein interactions is vital for gaining knowledge on cellular and metabolic pr...