A new imaging technique developed by researchers at the University of Illinois overcomes the limit of diffraction and can reveal the atomic structure of a single nanocrystal with a resolution of less than one angstrom (less than one hundredth-millionth of a centimeter).
Author:
James E. Kloeppel, Physical Sciences Editor
Published Date:
February 18, 2009
Graphene, a single-atom-thick sheet of carbon, holds remarkable promise for future nanoelectronics applications. Whether graphene actually cuts it in industry, however, depends upon how graphene is cut, say researchers at the University of Illinois.
Author:
James E. Kloeppel, Physical Sciences Editor
Published Date:
February 16, 2009
A new ink, developed by researchers at Illinois, is composed of silver nanoparticles and can be used in electronic and optoelectronic applications to create flexible, stretchable and spanning microelectrodes that carry signals from one circuit element to another.
Author:
James E. Kloeppel, Physical Sciences Editor
Published Date:
February 12, 2009
By pushing carbon nanotubes close to their breaking point, researchers at the University of Illinois have demonstrated a remarkable increase in the current-carrying capacity of the nanotubes, well beyond what was previously thought possible.
Author:
James E. Kloeppel, Physical Sciences Editor
Published Date:
February 9, 2009
By integrating a solid-state electron emitter and a microcavity plasma device, researchers at the University of Illinois have created a plasma transistor that could be used to make lighter, less expensive and higher resolution flat-panel displays.
Author:
James E. Kloeppel, Physical Sciences Editor
Published Date:
February 4, 2009