Artificial protein cages have great potential in a number of areas including cargo capture and delivery and as artificial vaccines. Here, we investigate an artificial protein cage whose assembly is triggered by gold nanoparticles. Using biochemical and biophysical methods we were able to determine both the mechanical properties and the gross compositional features of the cage which, combined with mathematical models and biophysical data, allowed the structure of the cage to be predicted. The accuracy of the overall geometrical prediction was confirmed by the cryo-EM structure determined to sub-5 Å resolution. This showed the cage to be nonregular but similar to a dodecahedron, being constructed from 12 11-membered rings. Surprisingly, the s...
Symmetrical protein cages have evolved to fulfil diverse roles in nature, including compartmentaliza...
Protein cages are nanocompartments with a well-defined structure and monodisperse size. They are com...
In nature, it is extremely common to find proteins that assemble into homo-oligomeric complexes from...
Artificial protein cages have great potential in a number of areas including cargo capture and deliv...
Nanotechnology has the potential to revolutionise every facet of human life. One particularly exciti...
Artificial protein cages are constructed from multiple protein subunits. The interaction between the...
Self-assembling protein nanocontainers are promising candidates for an increasingly wide scope of pu...
Artificial protein cages are constructed from multiple protein subunits. The interaction between the...
Symmetrical protein cages have evolved to fulfil diverse roles in nature, including compartmentaliza...
Porous protein cages are supramolecular protein self-assemblies presenting pores that allow the acce...
Natural proteins can be versatile building blocks for multimeric, self-assembling structures. Yet, c...
Porous protein cages are supramolecular protein self-assemblies presenting pores that allow the acce...
Self-assembling protein nanocontainers are promising candidates for an increasingly wide scope of pu...
<div><p>Porous protein cages are supramolecular protein self-assemblies presenting pores that allow ...
Symmetrical protein cages have evolved to fulfil diverse roles in nature, including compartmentaliza...
Protein cages are nanocompartments with a well-defined structure and monodisperse size. They are com...
In nature, it is extremely common to find proteins that assemble into homo-oligomeric complexes from...
Artificial protein cages have great potential in a number of areas including cargo capture and deliv...
Nanotechnology has the potential to revolutionise every facet of human life. One particularly exciti...
Artificial protein cages are constructed from multiple protein subunits. The interaction between the...
Self-assembling protein nanocontainers are promising candidates for an increasingly wide scope of pu...
Artificial protein cages are constructed from multiple protein subunits. The interaction between the...
Symmetrical protein cages have evolved to fulfil diverse roles in nature, including compartmentaliza...
Porous protein cages are supramolecular protein self-assemblies presenting pores that allow the acce...
Natural proteins can be versatile building blocks for multimeric, self-assembling structures. Yet, c...
Porous protein cages are supramolecular protein self-assemblies presenting pores that allow the acce...
Self-assembling protein nanocontainers are promising candidates for an increasingly wide scope of pu...
<div><p>Porous protein cages are supramolecular protein self-assemblies presenting pores that allow ...
Symmetrical protein cages have evolved to fulfil diverse roles in nature, including compartmentaliza...
Protein cages are nanocompartments with a well-defined structure and monodisperse size. They are com...
In nature, it is extremely common to find proteins that assemble into homo-oligomeric complexes from...