Many biological processes are driven by the interaction of a host with a guest molecule. We show such interactions can be modulated by carefully defining the local molecular environment to give a specific chemical outcome. Particularly, the selectivity of a host toward two different ions (Ca2+ and Al3+) is defined by it being in solution or the physisorbed state. In solution, the host displays greater selectivity toward Ca2+. When physisorbed, the selectivity profile of the host is reversed with enhanced binding of Al3+. This demonstrates a single host molecule can be tailored to selectively bind multiple guests by altering its nanoenvironment
The encapsulation of a guest within a host molecule can open new pathways of guest reactivity or hal...
The interaction between a biological membrane and its environment is a complex process, as it involv...
Molecular recognition is a key process in non-covalent interactions, which determines, among others,...
Many biological processes are driven by the interaction of a host with a guest molecule. We show suc...
ªMolecular recognitionº describes the selective, and usu-ally noncovalent, binding of a molecule or ...
The reactive sites on the surface of a tetrairidium cluster can be controlled by using three calixar...
The reactive sites on the surface of a tetrairidium cluster can be controlled by using three calixar...
This Account is concerned with molecular recognition in bimolecular reactions1 that occur in restric...
This Account is concerned with molecular recognition in bimolecular reactions1 that occur in restric...
The present impact of supramolecular chemistry in biology is not as large as it could be. The affini...
International audienceMoieties that compete with multivalent interactions or act as cofactors are co...
Molecular recognition is arguably the most elementary physical process essential for life that arise...
Supramolecular chemistry, and in particular molecular recognition through non-covalent interactions ...
Moieties that compete with multivalent interactions or act as cofactors are common in living systems...
Abstract. Molecular recognition is a key process in non-covalent interactions, which determines, amo...
The encapsulation of a guest within a host molecule can open new pathways of guest reactivity or hal...
The interaction between a biological membrane and its environment is a complex process, as it involv...
Molecular recognition is a key process in non-covalent interactions, which determines, among others,...
Many biological processes are driven by the interaction of a host with a guest molecule. We show suc...
ªMolecular recognitionº describes the selective, and usu-ally noncovalent, binding of a molecule or ...
The reactive sites on the surface of a tetrairidium cluster can be controlled by using three calixar...
The reactive sites on the surface of a tetrairidium cluster can be controlled by using three calixar...
This Account is concerned with molecular recognition in bimolecular reactions1 that occur in restric...
This Account is concerned with molecular recognition in bimolecular reactions1 that occur in restric...
The present impact of supramolecular chemistry in biology is not as large as it could be. The affini...
International audienceMoieties that compete with multivalent interactions or act as cofactors are co...
Molecular recognition is arguably the most elementary physical process essential for life that arise...
Supramolecular chemistry, and in particular molecular recognition through non-covalent interactions ...
Moieties that compete with multivalent interactions or act as cofactors are common in living systems...
Abstract. Molecular recognition is a key process in non-covalent interactions, which determines, amo...
The encapsulation of a guest within a host molecule can open new pathways of guest reactivity or hal...
The interaction between a biological membrane and its environment is a complex process, as it involv...
Molecular recognition is a key process in non-covalent interactions, which determines, among others,...