Special Issue "Ultraintense Ultrashort Pulse Lasers"
Deadline for manuscript submissions: closed (30 November 2012)
Prof. Dr. Reinhard Kienberger
1 Fakultaet fuer Physik, Technische Universitaet Muenchen, E11 James Franck Strasse, 85748 Garching, Germany
2 Max Planck Institut fuer Quantenoptik,Hans-Kopfermann-Str. 1, D-85748 Garching, Germany
Fax: +49 89 289 12838
Understanding nature in ever faster and smaller timescales, be it in atoms, molecules or solids, is a prerequisite for many new developments in physics, chemistry, biology, and technology—reaching from medical applications to energy-transforming and energy-storing devices. This goal calls for new tools and techniques. Basically all of them are based on the development of ultraintense ultrashort laser pulses. Coherent light at the extremes—in intensity and pulse duration—will offer completely new possibilities in research. It is obvious that the advent of ultrashort pulse free electron lasers (FELs), e.g., the Linac Coherent Light source (LCLS) with pulses on the fs-level having 1013 photons in the keV range per pulse, has opened the way for a plethora of experiments, e.g., in 4D imaging, inner-shell spectroscopy and many more. In order to achieve comparable features on a table-top scale, the development of “conventional” ultraintense ultrashort pulse lasers is pushed forward strongly. Laser driven electron acceleration—again being suitable for the injection into an FEL—laser driven ion acceleration, which can be directly used in medical applications, and non-linear processes like sum-frequency generation, difference-frequency generation or high-order hamronic generation make these lasers extremely powerfull for the generation of sources with photon energies ranging from the infrared to the x-ray and at a pulse duration down to attoseconds. While chirped-pulse-amplifiers have become standard and have been more and more improved over the last years, optical parametric amplification gets more and more promising since broad bandwidth—necessary for the generation of ultrashort pulses—can be preserved during the amplification process. In any case, the development over the laser years has been very successful: Near-single-cycle-pulses, control and stabilization of the carrier-envelope-phase, attosecond pulse generation, high energy laser-driven electrons are only a few examples, and—not to forget—charachterization methods like FROG, SPIDER etc.
The special issue of the journal Applied Sciences “Ultraintense Ultrashort Pulse Lasers” aims to cover recent advances in the development of lasers of any type (OPAs to FELS) and any wavelength range (IR to x-ray) which provide ultraintense ultrashort pulses.
Prof. Dr. Reinhard Kienberger
- ultrafast lasers
- ultrashort pulses
- optical parametric amplification
- chirped pulse amplification
- carrier-enverlope phase
- few-cycle pulses
- attosecond pulses
- laser driven electron-acceleration
- laser driven ion-acceleration