Femtosecond electron bunches with ultrarelativistic energies were recently generated by laser wakefield accelerators. Here we predict that laser wakefield acceleration can generate even attosecond bunches, due to a strong chirp of the betatron frequency. We show how the bunch duration scales with the acceleration parameters and that, after acceleration, the bunches can propagate over many tens of centimeters without a significant increase in duration
Laser wakefield acceleration is paving the way for the next generation of electron accelerators, for...
An intense laser pulse focused onto a plasma can excite nonlinear plasma waves. Under appropriate co...
International audienceLaser-plasma acceleration(1,2) is an emerging technique for accelerating elect...
Femtosecond electron bunches with ultrarelativistic energies were recently generated by laser wakefi...
In recent experiments ultra-relativistic femtosecond electron bunches were generated by a Laser Wake...
Laser-plasma electron accelerators can be used to produce high-intensity x-rays, as electrons accele...
In the laser wakefield accelerator (LWFA) a short intense laser pulse, with a duration of the order ...
Laser-wakefield acceleration has been demonstrated to be a promising technique for compact electron ...
Attosecond electron bunches and attosecond radiation pulses enable the study of ultrafast dynamics o...
Laser-wakefield acceleration has been demonstrated to be a promising technique for compact electron ...
Ultrahigh-intensity laser-plasma physics provides unique light and particle beams as well as novel p...
International audienceWe show that electron bunches in the 50-100 keV range can be produced from a l...
Based on two-dimensional particle-in-cell simulations, we investigated the electron beam's transvers...
Accelerator-based light sources are extremely useful machines for investigating matter on a microsco...
Attosecond electron bunches and attosecond radiation pulses enable the study of ultrafast dynamics o...
Laser wakefield acceleration is paving the way for the next generation of electron accelerators, for...
An intense laser pulse focused onto a plasma can excite nonlinear plasma waves. Under appropriate co...
International audienceLaser-plasma acceleration(1,2) is an emerging technique for accelerating elect...
Femtosecond electron bunches with ultrarelativistic energies were recently generated by laser wakefi...
In recent experiments ultra-relativistic femtosecond electron bunches were generated by a Laser Wake...
Laser-plasma electron accelerators can be used to produce high-intensity x-rays, as electrons accele...
In the laser wakefield accelerator (LWFA) a short intense laser pulse, with a duration of the order ...
Laser-wakefield acceleration has been demonstrated to be a promising technique for compact electron ...
Attosecond electron bunches and attosecond radiation pulses enable the study of ultrafast dynamics o...
Laser-wakefield acceleration has been demonstrated to be a promising technique for compact electron ...
Ultrahigh-intensity laser-plasma physics provides unique light and particle beams as well as novel p...
International audienceWe show that electron bunches in the 50-100 keV range can be produced from a l...
Based on two-dimensional particle-in-cell simulations, we investigated the electron beam's transvers...
Accelerator-based light sources are extremely useful machines for investigating matter on a microsco...
Attosecond electron bunches and attosecond radiation pulses enable the study of ultrafast dynamics o...
Laser wakefield acceleration is paving the way for the next generation of electron accelerators, for...
An intense laser pulse focused onto a plasma can excite nonlinear plasma waves. Under appropriate co...
International audienceLaser-plasma acceleration(1,2) is an emerging technique for accelerating elect...