Exquisite control over positioning nanoscale components on a protein scaffold allows bottom-up self-assembly of nanodevices. Using cowpea mosaic virus, modified to express cysteine residues on the capsid exterior, gold nanoparticles were attached to the viral scaffold to produce specific interparticle distances (see picture). The nanoparticles were then interconnected using thiol-terminated conjugated organic molecules that act as "molecular wires", resulting in a 3D spherical conductive network, which is only 30 nm in diameter
This feature article describes recent progress in synthetic strategies to construct viral capsid-lik...
Plant viruses and virus-like protein cages (VLPs) have shown significant promise for a wide ...
AbstractBottom-up self-assembly methods in which individual molecular components self-organize to fo...
Self-assembly of regular protein surfaces around nanoparticle templates provides a new class of hybr...
Advances in nanotechnology offer significant improvements in a wide range of applications that inclu...
Self-assembly of polystyrene sulfonate and modified cowpea chlorotic mottle virus protein yields mon...
One of the major research directions of tissue engineering is to develop artificial scaffolds that c...
In biology, there are an abundant number of self-assembled structures organized according to hierarc...
Various protein-based organelles exist in nature that are involved in a wide variety of different me...
Viruses are widely used to fabricate nanomaterials in the field of nanotechnology. Plant viruses are...
textGenetically engineered M13 bacteriphage (viruses) were used to self-assemble various nanomateri...
Abundant and highly diverse, viruses offer new scaffolds in nanotechnology for the encapsulation, or...
Viruses provide a whole new set of building blocks for the development of new materials and as such ...
ABSTRACT: A new pathway for the assembly of viral capsid protein around inorganic nanoparticle cores...
<div class="para"> <p> Assembling nanoparticles (NPs) into ordered architectures remains a challe...
This feature article describes recent progress in synthetic strategies to construct viral capsid-lik...
Plant viruses and virus-like protein cages (VLPs) have shown significant promise for a wide ...
AbstractBottom-up self-assembly methods in which individual molecular components self-organize to fo...
Self-assembly of regular protein surfaces around nanoparticle templates provides a new class of hybr...
Advances in nanotechnology offer significant improvements in a wide range of applications that inclu...
Self-assembly of polystyrene sulfonate and modified cowpea chlorotic mottle virus protein yields mon...
One of the major research directions of tissue engineering is to develop artificial scaffolds that c...
In biology, there are an abundant number of self-assembled structures organized according to hierarc...
Various protein-based organelles exist in nature that are involved in a wide variety of different me...
Viruses are widely used to fabricate nanomaterials in the field of nanotechnology. Plant viruses are...
textGenetically engineered M13 bacteriphage (viruses) were used to self-assemble various nanomateri...
Abundant and highly diverse, viruses offer new scaffolds in nanotechnology for the encapsulation, or...
Viruses provide a whole new set of building blocks for the development of new materials and as such ...
ABSTRACT: A new pathway for the assembly of viral capsid protein around inorganic nanoparticle cores...
<div class="para"> <p> Assembling nanoparticles (NPs) into ordered architectures remains a challe...
This feature article describes recent progress in synthetic strategies to construct viral capsid-lik...
Plant viruses and virus-like protein cages (VLPs) have shown significant promise for a wide ...
AbstractBottom-up self-assembly methods in which individual molecular components self-organize to fo...