Researchers at Chalmers University of Technology in Sweden have developed a new measurement technology that makes use of optical resonances in nanoparticles. The method, which opens new possibilities in the field of catalytics.
Forscher des Paul-Drude-Instituts haben eine Quelle entwickelt, mit der sie einzelne Photonen in hoher Wiederholrate und in geanau definierten zeitlichen Abstaenden versenden koennen. Sie nutzen dazu akustische Oberflaechenwellen.
The College of Nanoscale Science and Engineering of the University at Albany held its NanoCareer Day program on October 22 as part of its continuing effort to prepare students for a growing number of nanotechnology-related career opportunities in the Capital Region and New York State.
A team of engineers from the University of Pennsylvania has transformed simple nanowires into reconfigurable materials and circuits, demonstrating a novel, self-assembling method for chemically creating nanoscale structures that are not possible to grow or obtain otherwise.
The educational website for fluorescence microscopy www.zeiss.com/campus has been supplemented with sections on Spectral Imaging and Fluorescent Proteins and now also provides comprehensive information on these topics.
The pair laid the foundation for a modern approach to the chemistry and physics of materials. Their methodology was revolutionary, increasing the speed of simulations and propelling a major force in science. Such simulations are now used in physics, materials science, chemistry, semiconductors, surface science, catalysis, biological processes, mineralogy, and the new field of nano-sized structures, including industrial applications.
Scientists at the California Institute of Technology (Caltech) have uncovered the physical mechanism by which arrays of nanoscale pillars can be grown on polymer films with very high precision, in potentially limitless patterns.
HRL scientists announced today they have fabricated and demonstrated graphene-on-silicon field effect transistors (FETs) at full wafer scale - a revolutionary advancement in electronics that will enable unprecedented capabilities in high-bandwidth communications, imaging and radar systems.
Researchers from the MESA+ Institute for Nanotechnology at the University of Twente, working with American researchers, have succeeded in using an electrical signal to control both the elastic and the magnetic properties of a nanomaterial at a very localized level.
For his PhD at the Georgia Institute of Technology, University of Wisconsin-Madison Materials Science and Engineering Assistant Xudong Wang was part of a team that developed a piezoelectric nanogenerator and experimented with a variety of materials to power it.