Abstract Radiation Pressure Acceleration (RPA) by circularly polarized laser pulses is emerging as a promising way to obtain efficient acceleration of ions. We briefly review theoretical work on the topic, aiming at characterizing suitable experimental scenarios. We discuss the two reference cases of RPA, namely the thick target ("Hole Boring") and the (ultra)thin target ("Light Sail") regimes. The different scaling laws of the two regimes, the related experimental challenges and their suitability for foreseen applications are discussed
We report on the selective acceleration of carbon ions during the interaction of ultrashort, circula...
The radiation pressure acceleration (RPA) of charged particles has been a challenging task in laser-...
The process of radiation pressure acceleration (RPA) of ions is investigated with the aim of suppres...
Experiments investigating ion acceleration from laser-irradiated ultra-thin foils on the GEMINI lase...
A stable relativistic ion acceleration regime for thin foils irradiated by circularly polarized lase...
The acceleration of ions from ultrathin (10-100 nm) carbon foils has been investigated using intense...
The acceleration of ions from ultrathin (10-100 nm) carbon foils has been investigated using intense...
The acceleration of ions from ultrathin (10-100 nm) carbon foils has been investigated using intense...
Conditions for efficient and stable ion radiation pressure acceleration (RPA) from thin foils by cir...
Radiation pressure acceleration (RPA) is a highly efficient mechanism of laser-driven ion accelerati...
Radiation pressure acceleration (RPA) is a highly efficient mechanism of laser-driven ion accelerati...
Radiation pressure acceleration (RPA) is a highly efficient mechanism of laser-driven ion accelerati...
By contrast to the Target Normal Sheath acceleration (TNSA) mechanism [1], Radiation Pressure Accele...
Radiation pressure acceleration (RPA) is a highly efficient mechanism of laser-driven ion accelerati...
The measurements reported here provide scaling laws for the acceleration process in the ultra-short ...
We report on the selective acceleration of carbon ions during the interaction of ultrashort, circula...
The radiation pressure acceleration (RPA) of charged particles has been a challenging task in laser-...
The process of radiation pressure acceleration (RPA) of ions is investigated with the aim of suppres...
Experiments investigating ion acceleration from laser-irradiated ultra-thin foils on the GEMINI lase...
A stable relativistic ion acceleration regime for thin foils irradiated by circularly polarized lase...
The acceleration of ions from ultrathin (10-100 nm) carbon foils has been investigated using intense...
The acceleration of ions from ultrathin (10-100 nm) carbon foils has been investigated using intense...
The acceleration of ions from ultrathin (10-100 nm) carbon foils has been investigated using intense...
Conditions for efficient and stable ion radiation pressure acceleration (RPA) from thin foils by cir...
Radiation pressure acceleration (RPA) is a highly efficient mechanism of laser-driven ion accelerati...
Radiation pressure acceleration (RPA) is a highly efficient mechanism of laser-driven ion accelerati...
Radiation pressure acceleration (RPA) is a highly efficient mechanism of laser-driven ion accelerati...
By contrast to the Target Normal Sheath acceleration (TNSA) mechanism [1], Radiation Pressure Accele...
Radiation pressure acceleration (RPA) is a highly efficient mechanism of laser-driven ion accelerati...
The measurements reported here provide scaling laws for the acceleration process in the ultra-short ...
We report on the selective acceleration of carbon ions during the interaction of ultrashort, circula...
The radiation pressure acceleration (RPA) of charged particles has been a challenging task in laser-...
The process of radiation pressure acceleration (RPA) of ions is investigated with the aim of suppres...