Laser Wake Field Acceleration of relativistic electron bunches is a promising method to produce a large amount of energetic particles with table top equipment. One of the possible methods to inject particles in the appropriate acceleration phase of the wake behind the pulse takes advantage of the partial longitudinal breaking of the wake crests across a density downramp. In this paper results of 2.5D PIC simulations, showing the production of an electron bunch with reduced energy spread, are reported. Also, a possible method to produce the required plasma density transition by laser explosion of a suitable couple of thin foils is discussed
Plasma-based charged particle accelerators have been intensively investigated in the past three deca...
We demonstrate a sharp density transition for electron injection in laser wakefield acceleration thr...
This thesis describes experimental studies that aim to stabilise and optimise laser-based particle a...
Abstract. The effect of self-injection originated from the relativistic acceleration of plasma elect...
Laser Wake Field Acceleration (LWFA) of relativistic electron bunches is a promising method to produ...
We consider the interaction of high-intensity laser pulses with underdense plasmas and address the p...
Laser wake field acceleration is a technique that can be used to accelerate electrons using electric...
We use three-dimensional particle-in-cell simulations to study laser wake field acceleration (LWFA) ...
Density transition (or shock-front) injection is a technique to obtain high quality electron beams i...
The dynamics of electron acceleration driven by laser wakefield is studied in detail using the parti...
We study numerically through a 2D and 3D particle-in-cell simulation various mechanisms of generatio...
We suggest a novel method for the injection of electrons into the acceleration phase of particle acc...
Laser-driven particle acceleration makes use of sub-picosecond, pulsed, high-power laser systems, ca...
A short intense laser beam or an electron beam generates a wake wave when it propagates in a plasma,...
Laser-driven plasma wakefield accelerators provide accelerating electric fields orders of magnitude ...
Plasma-based charged particle accelerators have been intensively investigated in the past three deca...
We demonstrate a sharp density transition for electron injection in laser wakefield acceleration thr...
This thesis describes experimental studies that aim to stabilise and optimise laser-based particle a...
Abstract. The effect of self-injection originated from the relativistic acceleration of plasma elect...
Laser Wake Field Acceleration (LWFA) of relativistic electron bunches is a promising method to produ...
We consider the interaction of high-intensity laser pulses with underdense plasmas and address the p...
Laser wake field acceleration is a technique that can be used to accelerate electrons using electric...
We use three-dimensional particle-in-cell simulations to study laser wake field acceleration (LWFA) ...
Density transition (or shock-front) injection is a technique to obtain high quality electron beams i...
The dynamics of electron acceleration driven by laser wakefield is studied in detail using the parti...
We study numerically through a 2D and 3D particle-in-cell simulation various mechanisms of generatio...
We suggest a novel method for the injection of electrons into the acceleration phase of particle acc...
Laser-driven particle acceleration makes use of sub-picosecond, pulsed, high-power laser systems, ca...
A short intense laser beam or an electron beam generates a wake wave when it propagates in a plasma,...
Laser-driven plasma wakefield accelerators provide accelerating electric fields orders of magnitude ...
Plasma-based charged particle accelerators have been intensively investigated in the past three deca...
We demonstrate a sharp density transition for electron injection in laser wakefield acceleration thr...
This thesis describes experimental studies that aim to stabilise and optimise laser-based particle a...