Post thumbnail of New nanomaterial maintains conductivity in three dimensions: International team seamlessly bonds CNTs and graphene
14 October 2015
Continue reading New nanomaterial maintains conductivity in three dimensions: International team seamlessly bonds CNTs and graphene

New nanomaterial maintains conductivity in three dimensions: International team seamlessly bonds CNTs and graphene

An international team of scientists has developed a one-step process for making seamless carbon-based nanomaterials that possess superior thermal, electrical and mechanical properties in three dimensions.

Post thumbnail of Short wavelength plasmons observed in nanotubes: Berkeley Lab researchers create Ludinger liquid plasmons in metallic SWNTs
13 October 2015
Continue reading Short wavelength plasmons observed in nanotubes: Berkeley Lab researchers create Ludinger liquid plasmons in metallic SWNTs

Short wavelength plasmons observed in nanotubes: Berkeley Lab researchers create Ludinger liquid plasmons in metallic SWNTs

Researchers have observed ‘Luttinger-liquid’ plasmons in metallic single-walled nanotubes. This holds great promise for novel plasmonic and nanophotonic devices over a broad frequency range, including telecom wavelengths.

Post thumbnail of Quantum computers counting on carbon nanotubes
12 October 2015
Continue reading Quantum computers counting on carbon nanotubes

Quantum computers counting on carbon nanotubes

Carbon nanotubes can be used as quantum bits for quantum computers. A study by physicists has shown how nanotubes can store information in the form of vibrations. Up to now, researchers have experimented primarily with electrically charged particles. Because nanomechanical devices are not charged, they are much less sensitive to electrical interference.

Post thumbnail of Smallest vibration sensor in the quantum world
12 October 2015
Continue reading Smallest vibration sensor in the quantum world

Smallest vibration sensor in the quantum world

Carbon nanotubes and magnetic molecules are considered building blocks of future nanoelectronic systems. Their electric and mechanical properties play an important role. Researchers have now found a way to combine both components on the atomic level and to build a quantum mechanical system with novel properties.