The National Institute of Standards and Technology (NIST) announced today the selection of the Nanoelectronics Research Initiative (NRI), a collaboration of several key firms in the semiconductor industry, to support university-centered research for the development of after-the-next-generation nanoelectronics technology.
A team of researchers at the National Institute of Standards and Technology (NIST) likely would likely prevail in such a hypothetical wager. On the basis of its surprising findings in an exacting study of the motions of an experimental microelectromechanical system (MEMS), the team might even offer better-then-even odds.
A team of researchers at the National Institute of Standards and Technology has discovered that if graphite is sticky enough, as measured by a nanoscale probe, it actually becomes harder to slide a tip across the material's surface as you decrease pressure - the exact opposite of our everyday experience.
EU funding enabled European scientists to develop solid-state semiconductor components with magnetic properties, a prerequisite for a new generation of electronic devices exploiting both the charge and the spin of electrons.
Though not often considered beyond the plasma television, small-scale microplasmas have great utility in a wide variety of applications. Recently, new developments have begun to capitalize on how these microplasmas interact with liquids in applications ranging from killing bacteria for sterilizing a surface to rapidly synthesizing nanoparticles.
The United States may lose its leadership role in space to other countries unless it makes research and development funding and processes - especially in nanotechnology - a renewed and urgent priority, according to a new paper from Rice University's Baker Institute for Public Policy.
When it comes to physics, glass lacks transparency. No one has been able to see what's happening at the molecular level as a super-cooled liquid approaches the glass state - until now. Emory University physicists have made a movie of particle motion during this mysterious transition.
Using clusters of magnetic nanoparticles researchers from the UCLA Henry Samueli School of Engineering and Applied Science have shown that they can manipulate how thousands of cells divide, morph and develop finger-like extensions.
In partnership with researchers from four Midwestern universities and a national laboratory, Robert Hamers hopes to scale the outer walls of living things - their cell membranes - and watch nanoparticles of various compositions, sizes and shapes knock on the door.
This short course covers the most important transistor fundamentals presented in a semester-long course that has attracted 10,000+ viewers since it was posted on nanoHUB.org, a nanoscience and nanotechnology resource created by the Network for Computational Nanotechnology.