University of Florida engineers have achieved what they label in a new paper a 'nearly perfect hydrophobic interface' by reproducing, on small bits of flat plastic, the shape and patterns of the minute hairs that grow on the bodies of spiders.
Using large-scale supercomputer calculations, researchers have analyzed how the placement of metallic contacts on graphene changes the electron transport properties of the material as a factor of junction length, width and orientation.
A group of Biophysicists at LMU Munich hav developed a unique technology called 'microscale thermophoresis' that allows to measure intereactions under close-to-native conditions, thus improving the decision making process in drug development.
Chemists at the University of Helsinki have managed to manufacture new polymer-stabilised silver nanoparticles. The result is significant because the antimicrobial characteristics of silver are used in textiles, floor coatings and paints even though the impact on health of silver nanoparticles are not entirely known.
A symposium which will reveal new methods for making future low-power, lighter, smarter and more economical computers and mobile phones will take place at the University of Southampton next week and has attracted almost 100 delegates.
Elliot Scientific's YouTube channel presents video footage captured by scientists at the University of St. Andrews using M Squared Lasers' novel Firefly-IR laser to dramatically demonstrate the advanced capabilities of the Firefly-IR system in remote sensing, imaging and molecular spectroscopy.
Key materials providers of the semiconductor industry joined hands with IME and members of the Consortium in the development of a cost-effective TSV process integration and manufacturing capability on 300mm wafers.
Die Miniaturisierung von elektronischen Bauteilen verlangt nach immer sensibleren Messgeraeten. Wissenschaftler vom Departement Physik der Universitaet Basel haben nun die Messmethode der Rasterkraftmikroskopie weiterentwickelt, um atomare Wechselwirkungskraefte in einer bisher unerreichten Genauigkeit zu messen.
Johns Hopkins researchers have discovered that, under the right conditions, newly developed nanocrystalline materials exhibit surprising activity in the tiny spaces between the geometric clusters of atoms called nanocrystals from which they are made.
A class of molecules whose size, structure and chemical composition have been optimized for photonic use could provide the demanding combination of properties needed to serve as the foundation for low-power, high-speed all-optical signal processing.