High density relativistic beams propagating in a plasma are affected by fields induced by plasma motion. We consider the possible use of a plasma cell very close to the interaction point of a linear collider where the self-pinch induced in the relativistic beams can be used to increase the luminosity of colliding beams. We describe the benefits of this self-pinch, as well as some engineering details on the production of the required plasma. 18 refs., 5 figs., 1 tab
We discuss various nonlinear optical processes that occur as an intense laser propagates through a r...
International audienceThanks to their compactness and unique properties, laser-wakefield accelerator...
We present a laser-ionized, beam-driven, passive thin plasma lens that operates in the nonlinear blo...
Dense particle beams traveling in plasmas can produce very high electric and magnetic fields, and th...
The focusing of particles by a thin plasma lens is analyzed with physical, linearized fluid and part...
International audienceLaser-plasma technology promises a drastic reduction of the size of high-energ...
Beam injection and extraction from a plasma module is still one of the crucial aspects to solve in o...
In this paper we analyze the optics of a high energy beam which is focused by its own wakefields in ...
The magnetic self-focusing of a relativistic electron beam propagating through a plasma is demonstra...
We report on the first demonstration of passive all-optical plasma lensing using a two-stage setup. ...
Abstract Passive plasma lenses in the underdense regime have been shown to give extremely strong lin...
As the need for scale-up in the provision of radiotherapy (RT) is clear, developing cost-effective a...
Ultra-high intensity lasers are important tools to study the micro structures of our physical world,...
Plasma-based technology promises a tremendous reduction in size of accelerators used for research, m...
We intend to carry out a series of plasma lens experiments at the Final Focus Test Beam facility at ...
We discuss various nonlinear optical processes that occur as an intense laser propagates through a r...
International audienceThanks to their compactness and unique properties, laser-wakefield accelerator...
We present a laser-ionized, beam-driven, passive thin plasma lens that operates in the nonlinear blo...
Dense particle beams traveling in plasmas can produce very high electric and magnetic fields, and th...
The focusing of particles by a thin plasma lens is analyzed with physical, linearized fluid and part...
International audienceLaser-plasma technology promises a drastic reduction of the size of high-energ...
Beam injection and extraction from a plasma module is still one of the crucial aspects to solve in o...
In this paper we analyze the optics of a high energy beam which is focused by its own wakefields in ...
The magnetic self-focusing of a relativistic electron beam propagating through a plasma is demonstra...
We report on the first demonstration of passive all-optical plasma lensing using a two-stage setup. ...
Abstract Passive plasma lenses in the underdense regime have been shown to give extremely strong lin...
As the need for scale-up in the provision of radiotherapy (RT) is clear, developing cost-effective a...
Ultra-high intensity lasers are important tools to study the micro structures of our physical world,...
Plasma-based technology promises a tremendous reduction in size of accelerators used for research, m...
We intend to carry out a series of plasma lens experiments at the Final Focus Test Beam facility at ...
We discuss various nonlinear optical processes that occur as an intense laser propagates through a r...
International audienceThanks to their compactness and unique properties, laser-wakefield accelerator...
We present a laser-ionized, beam-driven, passive thin plasma lens that operates in the nonlinear blo...