Merging the ultra-strong nature of carbon nanotubes and mussel-inspired linker molecules renders high-strength fibres via a simple spinning process.

Merging the ultra-strong nature of carbon nanotubes and mussel-inspired linker molecules renders high-strength fibres via a simple spinning process.
Tetrahedral constructs of DNA are a new way to support proteins on functional nanostructures, according to work by U.S. scientists.
The self-assembly of block polymers raises this question, discussed in the latest Trend Article in Macromolecular Chemistry and Physics.
Very small organic thin-film transistors with high operating frequencies have been produced by Japanese and German scientists.
Polish scientists improved forging technology for crank shafts. Results revealed how to obtain the lowest loss of material and a proper shape.
Korean researchers make a tiny switch from carbon nanotubes.
So what is next for nanochemical and biochemical sensor research? Shouldn’t we be trying to find the next glass pH electrode, rather than trying to squeeze that extra fraction of a percent out of our tried and tested materials?
Carbon fiber-reinforced carbon has outstanding material properties and many applications but is extremely expensive – how to improve the processing of this useful material?
A new approach to the development of functional and biocompatible coatings for titanium metal implants aims to reduce their failure rates by altering the nano-morphology of the surface.
The addition of extremely small crystals to solid electrolyte material has potential to raise the efficiency of fuel cells. Researchers at TU Delft were the first to document this accurately.