Project Details
Laser-Plasma-Wechselwirkung mit ultraintensiver kurzwelliger Laserstrahlung
Applicant
Professor Dr. Roland Sauerbrey
Subject Area
Optics, Quantum Optics and Physics of Atoms, Molecules and Plasmas
Term
from 2002 to 2005
Project identifier
Deutsche Forschungsgemeinschaft (DFG) - Project number 5369097
The study of laser-matter interaction at high intensities has become a field at the forefront of modern physics. Numerous novel effects at high intensities have been discovered, as above threshold ionization and stabilization in high-field atomic physics, as high harmonic generation in non-pertubative non-linear optics or guiding and channeling processes and hot electron formation in relativistic laser-plasma interactions. Furthermore, the use of intense short laser pulses has opened new possibilities for the generation of coherent and incoherent x-rays with important applications in science and technology. In this common project it is planned to study high-intensity laser-matter interaction especially at short wavelengths in order to evaluate possible advantages of short-wavelength laser systems for nonlinear optical processes to generate powerful coherent vuv and xuv radiation and for the efficient conversion of laser radiation into incoherent x-rays. The investigations will also include the development of corresponding shortwavelength laser sources and the up-scaling to ultrahigh intensities. It detail, the IOQ will investigate the conversion of laser radiation at wavelengths of 400 nm and below into incoherent x-rays, the IQ will investigate low order nonlinear optical frequency conversion of short-pulse KrF laser radiation at 248 nm to generate powerful coherent radiation at specific wavelengths (150 nm, 82.8 nm and 49.7 nm) and the LLG will study the short-pulse amplification and energy extraction of discharge and e-beam pumped KrF amplifiers to realize, in cooperation with the CIAE, systems with intensities in the range of 1020 Wcm-2.
DFG Programme
Priority Programmes
Participating Person
Dr. Peter Simon