The influence of laser frequency on laser-driven ion acceleration is investigated by means of two-dimensional particle-in-cell simulations. When ultrashort intense laser pulse at higher harmonic frequency irradiates a thin solid foil, the target may become re lativistically transparent for significantly lower laser pulse intensity compared with irradiation at fundamental laser frequency. The relativistically induced transparency results in an enhanced heating of hot electrons as well as increased maximum energies of accelerated ions and their numbers. Our simulation results have shown the increase in maximum proton energy and increase in the number of high-energy protons by a factor of 2 after the interaction of an ultrashort laser pulse of...
The role of the radiation reaction force in ultraintense laser-driven ion acceleration is investigat...
Highly charged energetic ions generated by the high intensity short pulse laser interaction with the...
We report the experimental generation of highly energetic carbon ions up to 48 MeV per nucleon by sh...
This thesis describes experimental discoveries related to laser-based ion acceleration from thin foi...
We investigated ion acceleration by an electrostatic shock in an exploded target irradiated by an ul...
Laser-driven ion sources are a rapidly developing technology producing high energy, high peak curren...
The laser-ion acceleration with ultra-intense and ultra-short laser pulses has opened a new field of...
This thesis reports on experimental investigations into ion acceleration driven by high power laser ...
Laser-driven proton acceleration from ultrathin foils in the relativistic transparency regime is inv...
The range of potential applications of compact laser-plasma ion sources motivates the development of...
This thesis reports on experimental and numerical investigations of ion acceleration and the underly...
This thesis presents results on the theoretical description of ion acceleration using ultra-short ul...
This thesis was previously held under moratorium from 26th May 2021 until 26th May 2023.This thesis ...
Laser-driven proton acceleration from ultrathin foils is investigated experimentally using F/3 and F...
Ion acceleration driven by the interaction of an ultraintense (2x10^20 Wcm^-2) laser pulse with an u...
The role of the radiation reaction force in ultraintense laser-driven ion acceleration is investigat...
Highly charged energetic ions generated by the high intensity short pulse laser interaction with the...
We report the experimental generation of highly energetic carbon ions up to 48 MeV per nucleon by sh...
This thesis describes experimental discoveries related to laser-based ion acceleration from thin foi...
We investigated ion acceleration by an electrostatic shock in an exploded target irradiated by an ul...
Laser-driven ion sources are a rapidly developing technology producing high energy, high peak curren...
The laser-ion acceleration with ultra-intense and ultra-short laser pulses has opened a new field of...
This thesis reports on experimental investigations into ion acceleration driven by high power laser ...
Laser-driven proton acceleration from ultrathin foils in the relativistic transparency regime is inv...
The range of potential applications of compact laser-plasma ion sources motivates the development of...
This thesis reports on experimental and numerical investigations of ion acceleration and the underly...
This thesis presents results on the theoretical description of ion acceleration using ultra-short ul...
This thesis was previously held under moratorium from 26th May 2021 until 26th May 2023.This thesis ...
Laser-driven proton acceleration from ultrathin foils is investigated experimentally using F/3 and F...
Ion acceleration driven by the interaction of an ultraintense (2x10^20 Wcm^-2) laser pulse with an u...
The role of the radiation reaction force in ultraintense laser-driven ion acceleration is investigat...
Highly charged energetic ions generated by the high intensity short pulse laser interaction with the...
We report the experimental generation of highly energetic carbon ions up to 48 MeV per nucleon by sh...