The design of future materials for biotechnological applications via deposition of molecules on surfaces will require not only exquisite control of the deposition procedure, but of equal importance will be our ability to predict the shapes and stability of individual molecules on various surfaces. Furthermore, one will need to be able to predict the structure patterns generated during the self-organization of whole layers of (bio)molecules on the surface. In this review, we present an overview over the current state of the art regarding the prediction and clarification of structures of biomolecules on surfaces using theoretical and computational methods
Biological surface science is a broad, interdisciplinary subfield of surface science, where properti...
Biological surface science is a broad, interdisciplinary subfield of surface science, where properti...
Many organisms produce inorganic materials via protein-influenced crystal growth—a process known as ...
The design of future materials for biotechnological applications via deposition of molecules on surf...
International audienceThe design of future materials for biotechnological applications via depositio...
Surface models of biomolecules have become crucially important for the study and understanding of in...
Materials employed in biomedical technology are increasingly being designed to have specific, desira...
ABSTRACT: The molecular recognition properties of DNA gave rise to many novel materials and applicat...
Many areas of biochemistry and molecular biology, both fundamental and applications-orientated, requ...
The properties of bio-molecules are explicitly influenced by their organization in bulk and vicinity...
The structure/function relationship between bacteria and biocidal molecules in the vapor or solution...
As the molecular shape determines the functions of a molecule, understanding molecular shapes is imp...
The determination of molecular structure is one of the principal aims in many areas of chemistry bec...
Surface layers (S-layers) from Bacteria and Archaea are built from protein molecules arrayed in a tw...
The interaction between nano-objects and extended solid surface's is of paramount importance in the ...
Biological surface science is a broad, interdisciplinary subfield of surface science, where properti...
Biological surface science is a broad, interdisciplinary subfield of surface science, where properti...
Many organisms produce inorganic materials via protein-influenced crystal growth—a process known as ...
The design of future materials for biotechnological applications via deposition of molecules on surf...
International audienceThe design of future materials for biotechnological applications via depositio...
Surface models of biomolecules have become crucially important for the study and understanding of in...
Materials employed in biomedical technology are increasingly being designed to have specific, desira...
ABSTRACT: The molecular recognition properties of DNA gave rise to many novel materials and applicat...
Many areas of biochemistry and molecular biology, both fundamental and applications-orientated, requ...
The properties of bio-molecules are explicitly influenced by their organization in bulk and vicinity...
The structure/function relationship between bacteria and biocidal molecules in the vapor or solution...
As the molecular shape determines the functions of a molecule, understanding molecular shapes is imp...
The determination of molecular structure is one of the principal aims in many areas of chemistry bec...
Surface layers (S-layers) from Bacteria and Archaea are built from protein molecules arrayed in a tw...
The interaction between nano-objects and extended solid surface's is of paramount importance in the ...
Biological surface science is a broad, interdisciplinary subfield of surface science, where properti...
Biological surface science is a broad, interdisciplinary subfield of surface science, where properti...
Many organisms produce inorganic materials via protein-influenced crystal growth—a process known as ...