With the help of new radiation sources, especially the x-ray free-electron laser being built at the DESY in Hamburg, physicists and biologists at the Max Planck Institute for the Structure and Dynamics of Matter study the properties and behavior of matter.
Proteins Researchers from Hamburg, Potsdam and Toronto
With the help of new radiation sources, especially the x-ray free-electron laser being built at the DESY in Hamburg, physicists and biologists at the Max Planck Institute for the Structure and Dynamics of Matter study the properties and behavior of matter.
Proteins Researchers from Hamburg, Potsdam and Toronto
With the help of new radiation sources, especially the x-ray free-electron laser being built at the DESY in Hamburg, physicists and biologists at the Max Planck Institute for the Structure and Dynamics of Matter study the properties and behavior of matter.
Proteins Researchers from Hamburg, Potsdam and Toronto
Researchers investigate how the microstructure and nanostructure of metallic compounds affect their physical properties, for example how they behave as fibre optics or their magnetic characteristics.
Brain International The Max Planck – University of Toronto
Researchers investigate how the microstructure and nanostructure of metallic compounds affect their physical properties, for example how they behave as fibre optics or their magnetic characteristics.
Brain International The Max Planck – University of Toronto
Researchers investigate how the microstructure and nanostructure of metallic compounds affect their physical properties, for example how they behave as fibre optics or their magnetic characteristics.
Brain International The Max Planck – University of Toronto
Newly-sequenced genome sheds light on interactions between ancient hominins
years old”, says Bence Viola of the University of Toronto
Scientists at the Max Planck Institute of Quantum Optics (MPQ) have succeeded in testing quantum electrodynamics with unprecedented accuracy to 13 decimal places. The new measurement is almost twice as accurate as all previous hydrogen measurements combined and moves science one step closer to solving the proton size puzzle. This high accuracy was achieved by the Nobel Prize-winning frequency comb technique, which debuted here for the first time to excite atoms in high-resolution spectroscopy. The results are published today in Science.
However, while new measurements from Garching and Toronto
Researchers investigate how the microstructure and nanostructure of metallic compounds affect their physical properties, for example how they behave as fibre optics or their magnetic characteristics.
Brain International The Max Planck – University of Toronto
Researchers investigate how the microstructure and nanostructure of metallic compounds affect their physical properties, for example how they behave as fibre optics or their magnetic characteristics.
Brain International The Max Planck – University of Toronto
