The nanoporous graphene is constructed by a single layer graphene sheet that is continuously inter-connected to form a complex 3D network structure. This free-standing nanoporous graphene with an excellent crystallinity possesses high mobility, holding great promise for the applications in electronic devices.
Researchers have made the first direct measurements of a small and extremely rapid atomic rearrangement, associated with a class called martensitic transformations, that dramatically changes the properties of many important materials, such as doubling the hardness of steel and causing shape-memory alloys to revert to a previous shape.
The April 2014 issue of Nanotech Insights, a quarterly newsletter dedicated to the field of nanoscience and nanotechnology, is now available from CKMNT. This issue of the newsletter is again packed with information and articles on 52 pages.
How hard can it be to make a wheel rotate in a machine? Very hard actually, when the wheel sits in one of those nano-small molecular machines that are predicted to be running our future machines. But before the molecular machines become part of our daily lives, researchers must be able to control them. A Danish/American research team have now solved part of this problem.
Physicists have discovered how to change the crystal structure of graphene with an electric field, an important step toward the possible use of graphene in microprocessors that would be smaller and faster than current, silicon-based technology.
A newly developed pressure sensor could help car manufacturers design safer automobiles and even help Little League players hold their bats with a better grip, scientists report. The study describes a high-resolution sensor, which can be painted onto surfaces or built into gloves.
Topological insulators are destined to become the forerunners of a new generation of microprocessors with high performance and low energy consumption which will revolutionize the computer, mobile phone, telecommunication and car industries.