A new microscopic method concerning the probe with the flexible terminal atom/molecule enables for the first time direct observation of the chemical structure of individual molecules.
The three-year ASCIMAT project is aimed at improving scientific excellence and innovation capacity in the field of scintillation materials through targeted and coordinated cooperation with highly qualified partner facilities.
An antiferromagnetic advantage is a speed by which information can be written in their memories. Plus the information stored by antiferromagnetic materials cannot be accidentally wiped even by large magnetic fields.
The research proved that fully crystalline nanodiamonds can be stable down to ~ 1 nm despite some theoretical predictions. This opens a range of possibilities for studying quantum phenomena in the diamond.
The Pierre Auger Observatory is the world’s leading science project for the exploration of cosmic rays. The Observatory has achieved excellent results helping scientists to better understand particles with energies more than a million times larger than the beam energy at the current world largest accelerator.
The research community is intensively searching for new materials, hopefully showing superconductivity under ambient conditions, which would solve many of the most pressing problems of the current era of information technology. For a target-oriented search of such materials, the electron properties of the basic constituents of Hund’s metals need to be understood in detail, and this requirement was lacking so far.
Neutrinos, the most common particles in the Universe, we still know a little about them. They are the subject of research of NOvA experiment.
New measuring method overcomes the insufficiency of previous Kelvin Probe Force Microscopy (KPFM). Thus it significantly advances our current possibilities to study the charge transfer at the atomic level.
Recent developments in scanning microscopy enable us to resolve the chemical structure of individual molecules deposited on surfaces.
