The project team includes 12 institutes from 5 countries and is led by the University of Geneva. A telescope is proposed to cover the high end of CTA's observatory energy range.
Polycrystalic diamond layers significantly reduce corrosion of standard and accident conditions of a nuclear reactor.
Single-molecule circuits have remarkable electron transport properties and represent the frontier of miniaturization of electronics.
A successful project concerning the development of direction towards ultrafast and energy-efficient memories was selected in a fierce competition within the Future and Emerging Technologies.
State-of-the-art scanning-probe microscopes already enable scientists to resolve individual atoms on solid-state surfaces. The new method also allows measuring the electronegativity of these atoms. Such new findings could allow control of chemical reactions in catalysis or biochemistry.
In just three years, HAPLS went from concept to a fully integrated and record-breaking product. HAPLS represents a new generation of application-enabling diode-pumped, high-energy and high-peak-power laser systems with innovative technologies.
The method of analysis is so accurate that it can be used to detect the positions of even the lightest of all atoms – the hydrogens.
This result is a vital milestone that moves the performance of high peak power lasers beyond the limits of conventional flashlamp pumping, opening up important new applications in materials processing, advanced imaging and fundamental science.
A laboratory creates a basic infrastructure for interdisciplinary biophysical workplace allowing to do comprehensive research in physics, chemistry, biology and medicine fields.
