Researchers create sub-10-nanometer graphene nanoribbon patterns
New research at Rice University shows how water makes it practical to form long graphene nanoribbons less than 10 nanometers wide.
New research at Rice University shows how water makes it practical to form long graphene nanoribbons less than 10 nanometers wide.
Nanophysics
Jul 30, 2013
1
0
Albert Einstein's assertion that there's an ultimate speed limit – the speed of light – has withstood countless tests over the past 100 years, but that didn't stop University of California, Berkeley, postdoc Michael Hohensee ...
General Physics
Jul 29, 2013
4
0
One of the biggest challenges in quantum science is to build a functioning quantum bit, the basic element for the quantum computer. An important theoretical candidate for such a quantum bit is using a bent carbon nanotube. ...
Quantum Physics
Jul 29, 2013
0
2
Stanford University scientists have created the thinnest, most efficient absorber of visible light on record. The nanosize structure, thousands of times thinner than an ordinary sheet of paper, could lower the cost and improve ...
Nanomaterials
Jul 18, 2013
2
0
Preparing semiconductor quantum dots is sometimes more of a black art than a science. That presents an obstacle to further progress in, for example, creating better solar cells or lighting devices, where quantum dots offer ...
Nanophysics
Jul 10, 2013
0
0
A Rice University laboratory pioneering memory devices that use cheap, plentiful silicon oxide to store data has pushed them a step further with chips that show the technology's practicality.
Nanophysics
Jul 9, 2013
2
0
Large flakes of graphene oxide are the essential ingredient in a new recipe for robust carbon fiber created at Rice University.
Nanomaterials
Jul 8, 2013
2
0
Researchers at the University of Stuttgart, Germany, achieved a new world record in the energy efficient integration in silicon. This is an important step to decrease the energy consumption of data transfer in internet and ...
Optics & Photonics
Jul 3, 2013
0
0
(Phys.org) —For decades, electronic devices have been getting smaller, and smaller, and smaller. It's now possible—even routine—to place millions of transistors on a single silicon chip.
Nanophysics
Jun 21, 2013
14
0
(Phys.org) —The smaller components become, the more difficult it is to create patterns in an economical and reproducible way, according to an interdisciplinary team of Penn State researchers who, using sound waves, can ...
Nanophysics
Jun 19, 2013
2
0