Nature offers a vast array of biological building blocks that can be combined with synthetic materials to generate a variety of hierarchical architectures. Viruses are particularly interesting in this respect because of their structure and the possibility of them functioning as scaffolds for the preparation of new biohybrid materials. We report here that cowpea chlorotic mottle virus particles can be assembled into well-defined micrometre-sized objects and then reconverted into individual viruses by application of a short optical stimulus. Assembly is achieved using photosensitive dendrons that bind on the virus surface through multivalent interactions and then act as a molecular glue between the virus particles. Optical triggering induces ...
In this article, we show the great potential of dendrimers for driving the self-assembly of biohybri...
Self-assembly of regular protein surfaces around nanoparticle templates provides a new class of hybr...
Exquisite control over positioning nanoscale components on a protein scaffold allows bottom-up self-...
There has been tremendous progress towards the development of responsive polymers that are programme...
Viruses provide a whole new set of building blocks for the development of new materials and as such ...
Here we report on the covalent attachment of photoresponsive azobenzene moieties to cowpea chlorotic...
The design and engineering of biological building blocks that self-assemble into highly ordered, wel...
Insight into the assembly and disassembly of viruses can play a crucial role in developing cures for...
Cowpea chlorotic mottle virus is a single-stranded RNA plant virus with a diameter of 28 nm. The pro...
The inside surfaces of the protein shells of many viruses are positively charged, thereby enhancing ...
Colloidal nanobubbles occur in gas-saturated aqueous solutions following high power water electrolys...
Here a method is presented for the temperature-switchable assembly of viral particles into large hie...
A study of the in vitro nanoparticle-templated assembly of a mutant of cowpea chlorotic mottle virus...
The first half of this dissertation (Chapters 1-3) deals with the in vitro self-assembly of Cowpea C...
Phthalocyanines (Pc) are dyes in widespread use in materials science and nanotechnology, with numero...
In this article, we show the great potential of dendrimers for driving the self-assembly of biohybri...
Self-assembly of regular protein surfaces around nanoparticle templates provides a new class of hybr...
Exquisite control over positioning nanoscale components on a protein scaffold allows bottom-up self-...
There has been tremendous progress towards the development of responsive polymers that are programme...
Viruses provide a whole new set of building blocks for the development of new materials and as such ...
Here we report on the covalent attachment of photoresponsive azobenzene moieties to cowpea chlorotic...
The design and engineering of biological building blocks that self-assemble into highly ordered, wel...
Insight into the assembly and disassembly of viruses can play a crucial role in developing cures for...
Cowpea chlorotic mottle virus is a single-stranded RNA plant virus with a diameter of 28 nm. The pro...
The inside surfaces of the protein shells of many viruses are positively charged, thereby enhancing ...
Colloidal nanobubbles occur in gas-saturated aqueous solutions following high power water electrolys...
Here a method is presented for the temperature-switchable assembly of viral particles into large hie...
A study of the in vitro nanoparticle-templated assembly of a mutant of cowpea chlorotic mottle virus...
The first half of this dissertation (Chapters 1-3) deals with the in vitro self-assembly of Cowpea C...
Phthalocyanines (Pc) are dyes in widespread use in materials science and nanotechnology, with numero...
In this article, we show the great potential of dendrimers for driving the self-assembly of biohybri...
Self-assembly of regular protein surfaces around nanoparticle templates provides a new class of hybr...
Exquisite control over positioning nanoscale components on a protein scaffold allows bottom-up self-...