Experiments have shown that the ion energy obtained by laser–ion acceleration can be optimized by choosing either the appropriate pulse duration or the appropriate target thickness. We demonstrate that this behavior can be described either by the target normal sheath acceleration model of Schreiber et al. or by the radiation pressure acceleration model of Bulanov and coworkers. The starting point of our considerations is that the essential property of a laser system for ion acceleration is its pulse energy and not its intensity. Maybe surprisingly we show that higher ion energies can be reached with reduced intensities
Laser-driven ion sources are a rapidly developing technology producing high energy, high peak curren...
This thesis presents results on the theoretical description of ion acceleration using ultra-short ul...
Laser-driven ion sources are a rapidly developing technology producing high energy, high peak curren...
Experiments have shown that the ion energy obtained by laser–ion acceleration can be optimized by ch...
Experiments have shown that the ion energy obtained by laser–ion acceleration can be optimized by ch...
Experiments have shown that the ion energy obtained by laser–ion acceleration can be optimized by ch...
Experiments have shown that the ion energy obtained by laser–ion acceleration can be optimized by ch...
Ion beams generated with ultra-intense laser-plasma accelerators hold promises to provide compact an...
The radiation pressure acceleration regime of laser ion acceleration requires high intensity laser p...
The radiation pressure acceleration regime of laser ion acceleration requires high intensity laser p...
The ability of relativistic laser pulses to accelerate ions from foil targets has long been establis...
The ability of relativistic laser pulses to accelerate ions from foil targets has long been establis...
AbstractIon acceleration driven by high intensity laser pulses is attracting an impressive and stead...
This thesis presents results on the theoretical description of ion acceleration using ultra-short ul...
Radiation pressure acceleration (RPA) is a highly efficient mechanism of laser-driven ion accelerati...
Laser-driven ion sources are a rapidly developing technology producing high energy, high peak curren...
This thesis presents results on the theoretical description of ion acceleration using ultra-short ul...
Laser-driven ion sources are a rapidly developing technology producing high energy, high peak curren...
Experiments have shown that the ion energy obtained by laser–ion acceleration can be optimized by ch...
Experiments have shown that the ion energy obtained by laser–ion acceleration can be optimized by ch...
Experiments have shown that the ion energy obtained by laser–ion acceleration can be optimized by ch...
Experiments have shown that the ion energy obtained by laser–ion acceleration can be optimized by ch...
Ion beams generated with ultra-intense laser-plasma accelerators hold promises to provide compact an...
The radiation pressure acceleration regime of laser ion acceleration requires high intensity laser p...
The radiation pressure acceleration regime of laser ion acceleration requires high intensity laser p...
The ability of relativistic laser pulses to accelerate ions from foil targets has long been establis...
The ability of relativistic laser pulses to accelerate ions from foil targets has long been establis...
AbstractIon acceleration driven by high intensity laser pulses is attracting an impressive and stead...
This thesis presents results on the theoretical description of ion acceleration using ultra-short ul...
Radiation pressure acceleration (RPA) is a highly efficient mechanism of laser-driven ion accelerati...
Laser-driven ion sources are a rapidly developing technology producing high energy, high peak curren...
This thesis presents results on the theoretical description of ion acceleration using ultra-short ul...
Laser-driven ion sources are a rapidly developing technology producing high energy, high peak curren...