Virus capsids and other structurally related cage-like proteins such as ferritins, dps, and heat shock proteins have three distinct surfaces (inside, outside, interface) that can be exploited to generate nanomaterials with multiple functionality by design. Protein cages are biological in origin and each cage exhibits extremely homogeneous size distribution. This homogeneity can be used to attain a high degree of homogeneity of the templated material and its associated property. A series of protein cages exhibiting diversity in size, functionality, and chemical and thermal stabilities can be utilized for materials synthesis under a variety of conditions. Since synthetic approaches to materials science often use harsh temperature and pH, it i...
Cage proteins, which assemble into often highly symmetric hollow nanoscale capsules, have great pote...
Protein nanocages have been explored as potential carriers in biomedicine. Formed by the self-assemb...
Confinement of a protein in a small inert space and microviscosity are known to increase its thermod...
Nanotechnology has the potential to revolutionise every facet of human life. One particularly exciti...
Proteins that self-assemble into polyhedral shell-like structures are useful molecular containers bo...
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...
Protein cages are nanocompartments with a well-defined structure and monodisperse size. They are com...
Protein cages, such as viruses, are well-defined biological nanostructures which are highly symmetri...
In nature, it is extremely common to find proteins that assemble into homo-oligomeric complexes from...
Well-defined containers constructed from multiple protein subunits are a unique class of nanomateria...
BACKGROUND Naturally occurring protein cages, both viral and non-viral assemblies, have been deve...
Artificial protein cages have great potential in a number of areas including cargo capture and deliv...
Self-assembling proteins that form diverse architectures are widely used in material science and nan...
Cage proteins, which assemble into often highly symmetric hollow nanoscale capsules, have great pote...
Protein nanocages have been explored as potential carriers in biomedicine. Formed by the self-assemb...
Confinement of a protein in a small inert space and microviscosity are known to increase its thermod...
Nanotechnology has the potential to revolutionise every facet of human life. One particularly exciti...
Proteins that self-assemble into polyhedral shell-like structures are useful molecular containers bo...
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...
Protein cages are nanocompartments with a well-defined structure and monodisperse size. They are com...
Protein cages, such as viruses, are well-defined biological nanostructures which are highly symmetri...
In nature, it is extremely common to find proteins that assemble into homo-oligomeric complexes from...
Well-defined containers constructed from multiple protein subunits are a unique class of nanomateria...
BACKGROUND Naturally occurring protein cages, both viral and non-viral assemblies, have been deve...
Artificial protein cages have great potential in a number of areas including cargo capture and deliv...
Self-assembling proteins that form diverse architectures are widely used in material science and nan...
Cage proteins, which assemble into often highly symmetric hollow nanoscale capsules, have great pote...
Protein nanocages have been explored as potential carriers in biomedicine. Formed by the self-assemb...
Confinement of a protein in a small inert space and microviscosity are known to increase its thermod...