Cells have a rich inner structure that is commonly explored by microscopy. Classical biochemical methods that break apart the cells and fractionate them along a gradient have now gotten a new lease on life through modern methods of mass spectrometry-based proteomics. Their common principle is to comprehensively measure all the proteins in each of the fractions. The resulting quantitative profile then associates thousands of proteins to their cellular homes. Here, the author recounts how protein correlation profiling, the first such technique, was conceived and how it was applied to answer intricate cell biological questions
The human cell is complex, with countless processes ongoing in parallel in specialized compartments,...
In biology, localisation is function. Cells display a complex sub-cellular structure with numerous d...
Characterizing the molecular components of the basic unit of life; the cell, is crucial for a comple...
SummaryProtein localization to membrane-enclosed organelles is a central feature of cellular organiz...
Publication in 1975 by Patrick O'Farrell of a procedure to separate the proteins of Escherichia col...
Protein subcellular localization is an essential and highly regulated determinant of protein functio...
During the past 15 years mass spectrometry (MS)-based analyses have become established as the method...
The proteome is a dynamic system in which each protein has interconnected properties — dimensions — ...
Cells alter the proteome to respond to environmental and developmental cues. Global analysis of prot...
Structural biology has paved the way for a ground-up description of biological systems, contributing...
Proteomes are highly dynamic and can respond rapidly to environmental and cellular signals. Within c...
Subcellular localization critically influences protein function, and cells control protein localizat...
International audienceThis unit describes strategies for studying the proteomes of organelles, which...
SummaryA single yeast cell contains a hundred million protein molecules. How these proteins are orga...
Protein complexes are critical to virtually every biological process performed by living organisms. ...
The human cell is complex, with countless processes ongoing in parallel in specialized compartments,...
In biology, localisation is function. Cells display a complex sub-cellular structure with numerous d...
Characterizing the molecular components of the basic unit of life; the cell, is crucial for a comple...
SummaryProtein localization to membrane-enclosed organelles is a central feature of cellular organiz...
Publication in 1975 by Patrick O'Farrell of a procedure to separate the proteins of Escherichia col...
Protein subcellular localization is an essential and highly regulated determinant of protein functio...
During the past 15 years mass spectrometry (MS)-based analyses have become established as the method...
The proteome is a dynamic system in which each protein has interconnected properties — dimensions — ...
Cells alter the proteome to respond to environmental and developmental cues. Global analysis of prot...
Structural biology has paved the way for a ground-up description of biological systems, contributing...
Proteomes are highly dynamic and can respond rapidly to environmental and cellular signals. Within c...
Subcellular localization critically influences protein function, and cells control protein localizat...
International audienceThis unit describes strategies for studying the proteomes of organelles, which...
SummaryA single yeast cell contains a hundred million protein molecules. How these proteins are orga...
Protein complexes are critical to virtually every biological process performed by living organisms. ...
The human cell is complex, with countless processes ongoing in parallel in specialized compartments,...
In biology, localisation is function. Cells display a complex sub-cellular structure with numerous d...
Characterizing the molecular components of the basic unit of life; the cell, is crucial for a comple...