The biotin-binding protein streptavidin was crystallized as two-dimensional periodic arrays on biotinylated phospholipid monolayers. Electron diffraction patterns and images of the arrays embedded in vitreous ice were recorded to near-atomic resolution. Amplitudes and phases of structure factors were computed and combined to produce a 3 A projection density map. The reliability of the map was verified by comparing it to the available x-ray atomic model of the molecule. Projection densities from beta-strands and some amino acid side chains were identified from the electron cryomicroscopy map. These results demonstrate the first near-atomic image of this type of protein periodic array by electron crystallography, which has a great potential t...
Crystals of heavy riboflavin synthase from Bacillus subtilis were freeze-etched and vacuum-coated at...
From the earliest work on regular arrays in negative stain, electron crystallography has contributed...
Many biological processes take place in or near cell membranes. In order to understand such processe...
The biotin-binding protein streptavidin was crystallized as two-dimensional periodic arrays on bioti...
A two-dimensional (2D) crystal of streptavidin has been obtained by a nonspecific binding method. Th...
Streptavidin forms two-dimensional crystals when specifically bound to layers of biotinylated lipids...
Protein structure determination by classical x-ray crystallography requires three-dimensional crysta...
Protein structures at moderate to high resolution can now be readily solved using an electron micros...
Protein structure determination by classical x-ray crystallography requires three-dimensional crysta...
AbstractProtein structure determination by classical x-ray crystallography requires three-dimensiona...
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 is used to study membrane proteins in the form of planar, two-dimensional (...
We describe a rapid and convenient method of growing streptavidin (SA) monolayer crystals directly o...
Three-dimensional nanometre-sized crystals of macromolecules currently resist structure elucidation ...
Crystals of heavy riboflavin synthase from Bacillus subtilis were freeze-etched and vacuum-coated at...
From the earliest work on regular arrays in negative stain, electron crystallography has contributed...
Many biological processes take place in or near cell membranes. In order to understand such processe...
The biotin-binding protein streptavidin was crystallized as two-dimensional periodic arrays on bioti...
A two-dimensional (2D) crystal of streptavidin has been obtained by a nonspecific binding method. Th...
Streptavidin forms two-dimensional crystals when specifically bound to layers of biotinylated lipids...
Protein structure determination by classical x-ray crystallography requires three-dimensional crysta...
Protein structures at moderate to high resolution can now be readily solved using an electron micros...
Protein structure determination by classical x-ray crystallography requires three-dimensional crysta...
AbstractProtein structure determination by classical x-ray crystallography requires three-dimensiona...
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 is used to study membrane proteins in the form of planar, two-dimensional (...
We describe a rapid and convenient method of growing streptavidin (SA) monolayer crystals directly o...
Three-dimensional nanometre-sized crystals of macromolecules currently resist structure elucidation ...
Crystals of heavy riboflavin synthase from Bacillus subtilis were freeze-etched and vacuum-coated at...
From the earliest work on regular arrays in negative stain, electron crystallography has contributed...
Many biological processes take place in or near cell membranes. In order to understand such processe...