Diiron proteins represent a diverse class of structures involved in the binding and activation of oxygen. This review explores the simple structural features underlying the common metal-ion-binding and oxygen-binding properties of these proteins. The backbone geometries of their active sites are formed by four-helix bundles, which may be parameterized to within approximately 1 Å root mean square deviation. Such parametric models are excellent starting points for investigating how asymmetric deviations from an idealized geometry influence the functional properties of the metal ion centers. These idealized models also provide attractive frameworks for de novo protein design
The de novo protein DF1 is a minimal model for diiron and dimanganese metalloproteins, such as solub...
The de novo protein DF1 is a minimal model for diiron and dimanganese metalloproteins, such as solub...
Peptide-based models have an enormous impact for the development of metalloprotein models, as they s...
Diiron proteins represent a diverse class of structures involved in the binding and activation of ox...
De novo protein design provides an attractive approach for the construction of models to probe the f...
De novo protein design provides an attractive approach to critically test the features that are requ...
A single polypeptide chain may provide an astronomical number of conformers. Nature selected only a ...
De novo protein design provides an attractive approach for the construction of models to probe the f...
De novo protein design provides an attractive approach for the construction of models to probe the f...
Diiron proteins are found throughout nature and have a diverse range of functions; proteins in this ...
A major objective in protein science is the design of enzymes with novel catalytic activities that a...
De novo protein design represents an attractive approach for testing and extending our understanding...
The de novo protein DF1 is a minimal model for diiron and dimanganese metalloproteins, such as solub...
The de novo protein DF1 is a minimal model for diiron and dimanganese metalloproteins, such as solub...
Peptide-based models have an enormous impact for the development of metalloprotein models, as they s...
Diiron proteins represent a diverse class of structures involved in the binding and activation of ox...
De novo protein design provides an attractive approach for the construction of models to probe the f...
De novo protein design provides an attractive approach to critically test the features that are requ...
A single polypeptide chain may provide an astronomical number of conformers. Nature selected only a ...
De novo protein design provides an attractive approach for the construction of models to probe the f...
De novo protein design provides an attractive approach for the construction of models to probe the f...
Diiron proteins are found throughout nature and have a diverse range of functions; proteins in this ...
A major objective in protein science is the design of enzymes with novel catalytic activities that a...
De novo protein design represents an attractive approach for testing and extending our understanding...
The de novo protein DF1 is a minimal model for diiron and dimanganese metalloproteins, such as solub...
The de novo protein DF1 is a minimal model for diiron and dimanganese metalloproteins, such as solub...
Peptide-based models have an enormous impact for the development of metalloprotein models, as they s...