Prof. Reinhard Kienberger gets EPS Prize for Research in Laser Science and Applications
The Austrian scientist Professor Dr. Reinhard Kienberger, Chair of Laser and X-Ray Physics at the Technische Universität München and Max Planck Fellow at MPQ, will receive the “2016 Prize for Research in Laser Science and Applications” from the European Physical Society (EPS).
Professor Dr. Reinhard Kienberger comes from Saalfelden in Austria. In 2002 he got his doctoral degree in the group of Prof. Ferenc Krausz, then at the Technical University of Vienna, on the subject “Subfemtosecond XUV Pulse Generation and Measurement”. There he was the first ever to produce light pulses shorter than one femtosecond (a millionth of a billionth of a second). In 2004 he received the APART grant (Austrian Programme for Advanced Research and Technology) of the Austrian Academy of Sciences, which enabled him to spend 10 months at the Stanford Linear Accelerator Center (USA) in the same year. On his return from the USA in 2005 he became a research scientist in the “Attosecond Division” of Prof. Ferenc Krausz at the MPQ. In 2006 he received the Sofja Kowalevskaja Prize by the Alexander von Humboldt Foundation and set up the independent research group “Attosecond Dynamics”. In 2007 he received the “Starting Grant” of the European Research Council, and in September 2009 he became appointed professor at the Technische Universität München. In November 2010 he was presented with the prestigious ICO Prize of the International Commission for Optics. As a Max Planck Fellow of 2014 and part of the Laboratory for Attosecond Physics (leader Prof. Krausz) he maintains strong bonds with the MPQ.
By assuming the Chair of Laser and X-Ray Physics at the Technische Universität München in 2013 Prof. Kienberger added to the field of ultrafast spectroscopy the field of attosecond dynamics. One of the main goals of this research is to capture snapshots of the inner life of atoms. By this scientists expect to gain insights into the actual course of chemical reactions, the behaviour of electrons in solid materials, and the interaction between light and matter. “An attosecond is a billionth of a billionth of a second, an extremely short period of time,” Kienberger says. “This is the time scale on which the motion of electrons in an atom takes place. With extremely short light pulses, we can make this motion visible and investigate it.” New discoveries made through this approach could find application in chemistry, molecular biology, nanotechnology, and treatment of tumours. Olivia Meyer-Streng