Simulations using classical molecular dynamics are reported on the binding of the protein Ovocleidin-17 to calcite stepped surfaces. vicinal surfaces ({31.8} and {31.16}) are used to obtain acute and obtuse steps. The simulations demonstrate that binding is greater at the obtuse step. A range of analytical methods is used to show the importance of surface and local water structure for protein binding. We discuss the general features of molecular binding in the light of these results. Our analysis shows that it is unlikely that Ovocleidin-17 is important in controlling crystal morphology; its main role is likely to be in controlling calcite nucleation
The interaction between water and calcite surfaces is relevant to a broad range of technological pro...
We investigated the roles of three proteins associated with the formation of otoconia including fetu...
The recognition of atomically distinct surface features by adsorbed biomolecules is central to the f...
Ovocleidin-17 has been identified as a major eggshell-forming protein although the role and function...
Atomistic molecular dynamics simulations of dehydrated amorphous calcium carbonate interacting with ...
Atomistic molecular dynamics simulations of dehydrated amorphous calcium carbonate interacting with ...
A series of molecular dynamics (MD) simulations has been carried out to investigate the interaction ...
The crystallization mechanism for natural mineral, especially the role of biological molecules in bi...
Organic molecules control calcite growth by adsorbing preferentially onto particular surfaces of the...
The behavior of liquid water around obtuse and acute steps parallel to on the {101̅4} cleavage surf...
Molecular dynamics simulations, conventional and metadynamics, were performed to determine the inter...
Understanding the mechanisms that govern the crystallization of natural minerals such as calcium car...
The interaction of OH-containing compounds with calcite, CaCO3, such as is required for the processe...
Molecular dynamics simulations have been used to model the interaction between ethanol, water, and t...
Calcite–water interactions are important not only in carbon sequestration and the global carbon cyc...
The interaction between water and calcite surfaces is relevant to a broad range of technological pro...
We investigated the roles of three proteins associated with the formation of otoconia including fetu...
The recognition of atomically distinct surface features by adsorbed biomolecules is central to the f...
Ovocleidin-17 has been identified as a major eggshell-forming protein although the role and function...
Atomistic molecular dynamics simulations of dehydrated amorphous calcium carbonate interacting with ...
Atomistic molecular dynamics simulations of dehydrated amorphous calcium carbonate interacting with ...
A series of molecular dynamics (MD) simulations has been carried out to investigate the interaction ...
The crystallization mechanism for natural mineral, especially the role of biological molecules in bi...
Organic molecules control calcite growth by adsorbing preferentially onto particular surfaces of the...
The behavior of liquid water around obtuse and acute steps parallel to on the {101̅4} cleavage surf...
Molecular dynamics simulations, conventional and metadynamics, were performed to determine the inter...
Understanding the mechanisms that govern the crystallization of natural minerals such as calcium car...
The interaction of OH-containing compounds with calcite, CaCO3, such as is required for the processe...
Molecular dynamics simulations have been used to model the interaction between ethanol, water, and t...
Calcite–water interactions are important not only in carbon sequestration and the global carbon cyc...
The interaction between water and calcite surfaces is relevant to a broad range of technological pro...
We investigated the roles of three proteins associated with the formation of otoconia including fetu...
The recognition of atomically distinct surface features by adsorbed biomolecules is central to the f...