The Order of Merit was instituted in 1951 by the Federal President Theodor Heuss and is given "for achievements in the political, economic, social or intellectual realm and for all kinds of outstanding services to the nation in the field of social, charitable or philanthropic work". In particular it is awarded to Professor Krausz for his leading role in the field of attosecond physics and his pioneering work in the development of new laser technologies which will not only serve fundamental research but shall also be applied in medical diagnosis and therapy.
Professor Dr. Ferenc Krausz, born in Mór (Hungary) in 1962, studied electrical engineering at the Budapest University of Technology and theoretical physics at the Eötvös-Loránd University in Budapest. In 1991 he received his doctoral degree in Quantum Electronics at the Vienna University of Technology, where only two years later he received his habilitation. In 1999 he was appointed full professor at the Vienna University of Technology and in 2000 he became director at the centre for "Advanced Light Sources". In 2003 he was offered the position of director at the Max Planck Institute for Quantum Optics, where he leads the "Attosecond Physics" Division. In 2004, he took over a Chair of Experimental Physics at the Ludwig Maximilians Universität München.
Professor Ferenc Krausz is recognized as the founder of the field of attosecond physics. In 2002 he succeeded in generating light pulses in the attosecond domain (an attosecond is a billionth of a billionth of a second) for the first time – a progress which was celebrated by the scientific journals Nature und Science as one of the 10 most important achievements in science of this year. In 2003, he developed a laser which, using a new style of mirrors, generated light pulses consisting of only a few wave cycles with controlled waveforms for the first time. The perfectly controlled high-intensity fields of theses femtosecond pulses exert forces on electrically charged elementary particles (electrons or protons) that are comparable to intra-atomic forces.
The main topic in the field of attosecond physics is the development of new laser techniques that make it possible to observe the motion of electrons in atoms, molecules and solids with sub-atomic resolution in space and attosecond resolution in time. These measurements have already brought amazing new insights into atomic and solid state physics.
However, from the very beginning it was a deep wish of Professor Krausz to use the new technologies for medical applications. As a consequence, he initiated the Centre for Advanced Laser Applications (CALA) which is going to be constructed on the research site Garching in the next years. Here, the development of lasers generating extremely short intense light pulses is pursued. These lasers will be the basis for new and very brilliant X-ray facilities which will achieve imaging with an extremely high resolution and therefore make it possible to discover cancer tissue at a very early stage. The new laser technologies will also lead to new compact sources for particle rays – protons and carbon ions –, which have proved to be very efficient for the treatment of a certain kind of tumors.
Professor Krausz has been the recipient of numerous scientific awards and prizes, e.g. the Gottfried Wilhelm Leibniz Prize of the Deutsche Forschungsgemeinschaft in 2005. In 2006 he was presented with the Quantum Electronics Award of the IEEE Laser and Electro-Optics Society as well as with the British "Progress Medal" of the Royal Photographic Society. He is also a member of many scientific societies and academies such as the Austrian and Hungarian Academy of Sciences and the European Academy of Sciences and Arts in Salzburg (Austria). [Olivia Meyer-Streng]
Dr. Olivia Meyer-Streng | idw
Reconstructing the richness of pristine oceans funded by the ERC
28.10.2019 | Johannes Gutenberg-Universität Mainz
AI for Understanding and Modelling the Earth System – International Research Team wins ERC Synergy Grant
14.10.2019 | Max-Planck-Institut für Biogeochemie
Conventional light microscopes cannot distinguish structures when they are separated by a distance smaller than, roughly, the wavelength of light. Superresolution microscopy, developed since the 1980s, lifts this limitation, using fluorescent moieties. Scientists at the Max Planck Institute for Polymer Research have now discovered that graphene nano-molecules can be used to improve this microscopy technique. These graphene nano-molecules offer a number of substantial advantages over the materials previously used, making superresolution microscopy even more versatile.
Microscopy is an important investigation method, in physics, biology, medicine, and many other sciences. However, it has one disadvantage: its resolution is...
Nanooptical traps are a promising building block for quantum technologies. Austrian and German scientists have now removed an important obstacle to their practical use. They were able to show that a special form of mechanical vibration heats trapped particles in a very short time and knocks them out of the trap.
By controlling individual atoms, quantum properties can be investigated and made usable for technological applications. For about ten years, physicists have...
An international team of scientists, including three researchers from New Jersey Institute of Technology (NJIT), has shed new light on one of the central mysteries of solar physics: how energy from the Sun is transferred to the star's upper atmosphere, heating it to 1 million degrees Fahrenheit and higher in some regions, temperatures that are vastly hotter than the Sun's surface.
With new images from NJIT's Big Bear Solar Observatory (BBSO), the researchers have revealed in groundbreaking, granular detail what appears to be a likely...
The Fraunhofer Institute for Manufacturing Technology and Advanced Materials IFAM in Dresden has succeeded in using Selective Electron Beam Melting (SEBM) to...
15.11.2019 | Event News
15.11.2019 | Event News
05.11.2019 | Event News
21.11.2019 | Life Sciences
21.11.2019 | Physics and Astronomy
21.11.2019 | Physics and Astronomy