Electron crystallography is a powerful technique for studying the structure and function of membrane proteins, not only in the ground state, but also in active conformations. When combined with high-resolution structures obtained by X-ray crystallography, electron crystallography can provide insights into the mechanism of the protein. In this chapter we discuss obtaining a three-dimensional map of membrane proteins by electron crystallography and how to combine these maps with atomic resolution models in order to study the function of membrane proteins. We argue that this approach is particularly powerful as it combines the high resolution attainable by X-ray crystallography with the visualization of the subject in the near-native environme...
From the earliest work on regular arrays in negative stain, electron crystallography has contributed...
SummaryIn electron crystallography, membrane protein structure is determined from two-dimensional cr...
Many biological processes take place in or near cell membranes. In order to understand such processe...
Electron crystallography is a powerful technique for studying the structure and function of membrane...
Electron crystallography of two-dimensional (2D) crystals determines the structure of membrane prote...
For the foreseeable future, progress in determining high-resolution structures of membrane proteins ...
Electron crystallography is used to study membrane proteins in the form of planar, two-dimensional (...
Electron crystallography is used to study membrane proteins in the form of planar, two-dimensional (...
Electron crystallography of two-dimensional (2D) crystals determines the structure of membrane prote...
Electron crystallography is used to study membrane proteins in the form of planar, two-dimensional (...
Electron crystallography and atomic force microscopy allow the study of two-dimensional membrane pro...
Electron crystallography is a powerful technique for the study of membrane protein structure and fun...
Electron crystallography studies the structure of two-dimensional crystals of membrane proteins or o...
Electron crystallography is a powerful technique for the structure determination of membrane protein...
AbstractElectron crystallography and atomic force microscopy allow the study of two-dimensional memb...
From the earliest work on regular arrays in negative stain, electron crystallography has contributed...
SummaryIn electron crystallography, membrane protein structure is determined from two-dimensional cr...
Many biological processes take place in or near cell membranes. In order to understand such processe...
Electron crystallography is a powerful technique for studying the structure and function of membrane...
Electron crystallography of two-dimensional (2D) crystals determines the structure of membrane prote...
For the foreseeable future, progress in determining high-resolution structures of membrane proteins ...
Electron crystallography is used to study membrane proteins in the form of planar, two-dimensional (...
Electron crystallography is used to study membrane proteins in the form of planar, two-dimensional (...
Electron crystallography of two-dimensional (2D) crystals determines the structure of membrane prote...
Electron crystallography is used to study membrane proteins in the form of planar, two-dimensional (...
Electron crystallography and atomic force microscopy allow the study of two-dimensional membrane pro...
Electron crystallography is a powerful technique for the study of membrane protein structure and fun...
Electron crystallography studies the structure of two-dimensional crystals of membrane proteins or o...
Electron crystallography is a powerful technique for the structure determination of membrane protein...
AbstractElectron crystallography and atomic force microscopy allow the study of two-dimensional memb...
From the earliest work on regular arrays in negative stain, electron crystallography has contributed...
SummaryIn electron crystallography, membrane protein structure is determined from two-dimensional cr...
Many biological processes take place in or near cell membranes. In order to understand such processe...