We have developed virus-based protein cage functional materials for catalysis and optical coatings. The unique properties of the viral particles, such as in vitro reversible self-assembly with functional nanoparticles or molecules incorporated, their capability of chemical or genetic modification and the ability to self-assembly into high-order structures, were employed to introduce new or different functions into these catalytic and/or optical materials. These studies help to gain further insight in the development of virus-based materials
The assembly of individual molecules into hierarchical structures is a promising strategy for develo...
Abstract Like natural viruses, manmade protein cages for drug delivery are to be ideally formed by r...
A perspective on abiotic material encapsulation inside virus capsids is provided. The emphasis is on...
Protein cages, such as viruses, are well-defined biological nanostructures which are highly symmetri...
Virus-based bionanotechnology holds the promise of control over the structure, properties and functi...
Proteins and protein-based assemblies represent the most structurally and functionally diverse molec...
Protein capsids are specialized and versatile natural macromolecules with exceptional properties. Th...
The design and engineering of biological building blocks that self-assemble into\ud highly ordered, ...
Protein capsids are specialized and versatile natural macromolecules with exceptional properties. Th...
Proteins that self-assemble into polyhedral shell-like structures are useful molecular containers bo...
The design and engineering of biological building blocks that self-assemble into highly ordered, wel...
From the viewpoint of a materials scientist, viruses can be regarded as organic nanoparticles. They ...
Self-assembly of regular protein surfaces around nanoparticle templates provides a new class of hybr...
Plant viruses and virus-like protein cages (VLPs) have shown significant promise for a wide ...
Plant viruses and virus-like protein cages (VLPs) have shown significant promise for a wide ...
The assembly of individual molecules into hierarchical structures is a promising strategy for develo...
Abstract Like natural viruses, manmade protein cages for drug delivery are to be ideally formed by r...
A perspective on abiotic material encapsulation inside virus capsids is provided. The emphasis is on...
Protein cages, such as viruses, are well-defined biological nanostructures which are highly symmetri...
Virus-based bionanotechnology holds the promise of control over the structure, properties and functi...
Proteins and protein-based assemblies represent the most structurally and functionally diverse molec...
Protein capsids are specialized and versatile natural macromolecules with exceptional properties. Th...
The design and engineering of biological building blocks that self-assemble into\ud highly ordered, ...
Protein capsids are specialized and versatile natural macromolecules with exceptional properties. Th...
Proteins that self-assemble into polyhedral shell-like structures are useful molecular containers bo...
The design and engineering of biological building blocks that self-assemble into highly ordered, wel...
From the viewpoint of a materials scientist, viruses can be regarded as organic nanoparticles. They ...
Self-assembly of regular protein surfaces around nanoparticle templates provides a new class of hybr...
Plant viruses and virus-like protein cages (VLPs) have shown significant promise for a wide ...
Plant viruses and virus-like protein cages (VLPs) have shown significant promise for a wide ...
The assembly of individual molecules into hierarchical structures is a promising strategy for develo...
Abstract Like natural viruses, manmade protein cages for drug delivery are to be ideally formed by r...
A perspective on abiotic material encapsulation inside virus capsids is provided. The emphasis is on...