Scientists in GE's Global Research Center have demonstrated an advanced thermal material system that could pave the way to faster computing and higher performing electronic systems. Leveraging technologies developed under GE's Nanotechnology Advanced Technology Program, they have fabricated a prototype substrate that can cool electronic devices such as a laptop computer twice as well as copper.
Expanding eligibility to college students from across the state, while offering additional categories and enhanced cash prizes, the College of Nanoscale Science and Engineering (CNSE) of the University at Albany, in partnership with UAlbany's School of Business, the Lally School of Management and Technology at Rensselaer, and Union Graduate College School of Management today announced plans for the second annual New York State Business Plan Competition, to be held Thursday, April 28 at the UAlbany NanoCollege.
Scientists in the Center for Nanoscale Materials and Argonne's Biosciences Division have demonstrated a remarkably simple, elegant, and cost-effective way of assembling nanoparticles into larger structures of any desired shape and form at will via a process called "optically directed assembly".
Engineering researchers at the University of Michigan have found a way to improve the performance of ferroelectric materials, which have the potential to make memory devices with more storage capacity than magnetic hard drives and faster write speed and longer lifetimes than flash memory.
University of Utah researchers built "spintronic" transistors and used them to align the magnetic "spins" of electrons for a record period of time in silicon chips at room temperature. The study is a step toward computers, phones and other spintronic devices that are faster and use less energy than their electronic counterparts.
A team of electrical engineers and chemists at Lehigh University have experimentally verified the "rainbow" trapping effect, demonstrating that plasmonic structures can slow down light waves over a broad range of wavelengths.
A faster, better and cheaper desalination process enhanced by carbon nanotubes has been developed by NJIT Professor Somenath Mitra. The process creates a unique new architecture for the membrane distillation process by immobilizing carbon nanotubes in the membrane pores. Conventional approaches to desalination are thermal distillation and reverse osmosis.
Chemists at the University of California, Riverside have developed tiny, nanoscale-size rods of iron oxide particles in the lab that respond to an external magnetic field in a way that could dramatically improve how visual information is displayed in the future.
Processes at the atomic level are not only miniscule; they are often extremely fast and therefore, difficult to capture in action. But now, German scientists together with U.S. colleagues present techniques that take us a good step closer to producing an 'atomic movie'.
There have been gloves and shavers for one-off use for a long time. In future, there will also be disposable endoscopes for minimally invasive operations on the human body. A new microcamera is what makes it possible. It is as large as a grain of salt, supplies razor-sharp pictures and can be manufactured very inexpensively.
Magnetic vortices show promise as data storage structures, however the vortex formation process imposes a lower limit on the element's size. Here, a technique is presented, which application increases the probability of nucleating of magnetic vortices in sub-micrometer sized soft magnetic thin film elements.
A two-year-old Air Force Office of Scientific Research Multidisciplinary University Research Initiative effort involving the University of Michigan, Stanford University, Brown University, and the University of California at Santa Cruz is making great strides in achieving a fundamental understanding of heat transfer at interfaces.
Physicists of the Laboratory of Attosecond Physics at the Max Planck Institute of Quantum Optics succeeded in the first real-time observation of laser produced electron plasma waves and electron bunches accelerated by them.
From childhood sweetheart to quantum electrodynamics, the life and scientific contributions of the legendary Richard Feynman, a physicist of mythic hero status, are given a new and stimulating perspective in a book by Arizona State University professor Lawrence M. Krauss.