A theory describing the growth of a nanotube proposed by Boris Yakobson from Rice University has been corroborated experimentally by the Air Force Research Laboratory located in Dayton, Ohio.
A research team comprising Mohamed Saafi and David McGahon from the University of Strathclyde is developing an economical, eco-friendly smart paint capable of detecting tiny faults in bridges, mines and wind turbines well before the occurrence of structural damage using nanotechnology.
Scientists from the Savannah River National Laboratory (SRNL) of the U.S. Department of Energy have demonstrated novel ways to substitute monosodium titanate (MST)’s micron-sized particles with nano-sized particles, thus improving the efficacy of the ion exchange material.
A research team led by Paul Alivisatos from the Lawrence Berkeley National Laboratory (Berkeley Lab) of the U.S. Department of Energy has developed a novel solution-based synthesis method to produce nanocrystals with superior optoelectronic properties.
A research team led by Junichiro Kono from Rice University has developed a powerful terahertz polarizer utilizing carbon nanotubes as the crucial component, paving the way to develop advanced non-invasive medical imaging solutions, communication and security devices, and sensors.
The European Powder Metallurgy Association (EPMA) is proud to announce the launch of the 2012 Powder Metallurgy (PM) Competition for theses in both Diploma (Masters) and Doctorate (PhD) levels.
A research team of Dr. James Tour’s lab at Rice University has developed a novel method to bond different organic molecules to graphene sheets, making the wonder material suitable for numerous organic chemistry applications.
North Carolina State University researchers have devised a novel technique for fabricating elastic conductors using carbon nanotubes, paving the way for commercial production of stretchable conductors for applications in a new generation of stretchable electronic devices.
A research team headed by scientists at the University of California, Riverside has discovered that a bilayer graphene sheet becomes an insulating material when its electron count comes down to zero, paving the way to use the wonder material as an electronic material in the electronics and semiconductor applications.
Composite materials can withstand tremendous stress, which makes them useful in everything from pipes to speedboats to pedestrian bridges. But exactly how much can these materials actually tolerate? A project with fundin...
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