A multi-institutional team of scientists has used beamline 9.0.1 at the Advanced Light Source to perform high-resolution x?]ray diffraction imaging of an aerogel for the first time, revealing its nanoscale three-dimensional bulk lattice structure down to features measured in nanometers.
A Michigan State University researcher and his students have developed a nanomaterial that makes plastic stiffer, lighter and stronger and could result in more fuel-efficient airplanes and cars as well as more durable medical and sports equipment.
Physicists at the University of Pennsylvania have characterized an aspect of graphene film behavior by measuring the way it conducts electricity on a substrate. This milestone advances the potential application of graphene, the ultra-thin, single-atom thick carbon sheets that conduct electricity faster and more efficiently than silicon, the current material of choice for transistor fabrication.
Physicists at the University of Pennsylvania have demonstrated a new method by which few layer graphene can be etched along flawless, crystallographic axes by using thermally activated nanoparticles, a technique that results in atomically precise, macroscopic length ribbons of graphene.
Join the International Association of Nanotechnology at the NanoScale Materials Stewardship Seminar on August 13, to discuss new initiatives and collaborate with the U.S. Environmental Protection Agency (USEPA) and the California Environmental Protection Agency (CALEPA) to implement mutually beneficial standards for nanoparticles.
A paper in this week's nature Nanotechnology outlines a roadmap for harnessing nanomotors for a broad range of applications, ranging from nanoscale sensing, and transport to assembly. It focuses on two broad classes of nanomotors that burn chemical energy to move along linear tracks: assembly nanomotors and transport nanomotors.
Many of us have been fascinated by the concept of absolute zero, the temperature at which everything comes to a complete stop. But physics tells us otherwise: absolute zero cannot be reached but only approached, and the closer you get, the more interesting phenomena you find!
Scientists at the University of California, Berkeley, have devised a way to squeeze light into tighter spaces than ever thought possible, potentially opening doors to new technology in the fields of optical communications, miniature lasers and optical computers.
Aerogel, also known as liquid smoke or 'San Francisco fog', is an open-cell polymer with pores smaller than 50 nanometers in diameter. For the first time, Lawrence Livermore and Lawrence Berkeley scientists have peered into this material and created three-dimensional images to determine its strength and potential new applications.