A comprehensive experimental study of focusing of relativistic electron beams with overdense and underdense plasma lenses is being conducted at the Beam Test Facility at LBNL [1]. Short (15ps rms) electron bunches, from the 50 MeV LBNL Advanced Light Source injector are transported through laser produced plasmas. The electron beam spot size and divergence at the plasma lens is adjusted using quadrupoles. The plasmas are 1-5 cm long with densities of 1013-1014 cm-3. By changing the laser intensity and shape, the plasma density and profile can be controlled. This allows for exploration of both the charge and current compensation regimes, by changing the ratio of the plasma wavenumber, kp, to the electron beam size, s r. Experimental results o...
Ultra-high intensity lasers are important tools to study the micro structures of our physical world,...
We intend to carry out a series of plasma lens experiments at the Final Focus Test Beam facility at ...
The authors intend to carry out a series of plasma lens experiments at the Final Focus Test Beam fac...
A comprehensive study of focusing of relativistic electron beams with overdense and underdense plasm...
Focusing of a 15 MeV, 19 nC electron bunch by an underdense plasma lens operated just beyond the thr...
A gaussian underdense plasma lens with peak density 5 x 10{sup 12} cm{sup -3} and a full width half ...
Focusing of a 15 MeV, 19 nC electron bunch by an un-derdense plasma lens operated just beyond the th...
The focusing of particles by a thin plasma lens is analyzed with physical, linearized fluid and part...
This work assesses the potential of active plasma lenses to deliver stable, quality-preservingfocusi...
Focusing of a 15 MeV, 16 nC electron bunch by a gaussian underdense plasma lens operated just beyond...
We report on the first demonstration of passive all-optical plasma lensing using a two-stage setup. ...
Beam injection and extraction from a plasma module is still one of the crucial aspects to solve in o...
The active plasma lens represents a compact and affordable tool with radially symmetric focusing an...
The magnetic self-focusing of a relativistic electron beam propagating through a plasma is demonstra...
Ultra-high intensity lasers are important tools to study the micro structures of our physical world,...
We intend to carry out a series of plasma lens experiments at the Final Focus Test Beam facility at ...
The authors intend to carry out a series of plasma lens experiments at the Final Focus Test Beam fac...
A comprehensive study of focusing of relativistic electron beams with overdense and underdense plasm...
Focusing of a 15 MeV, 19 nC electron bunch by an underdense plasma lens operated just beyond the thr...
A gaussian underdense plasma lens with peak density 5 x 10{sup 12} cm{sup -3} and a full width half ...
Focusing of a 15 MeV, 19 nC electron bunch by an un-derdense plasma lens operated just beyond the th...
The focusing of particles by a thin plasma lens is analyzed with physical, linearized fluid and part...
This work assesses the potential of active plasma lenses to deliver stable, quality-preservingfocusi...
Focusing of a 15 MeV, 16 nC electron bunch by a gaussian underdense plasma lens operated just beyond...
We report on the first demonstration of passive all-optical plasma lensing using a two-stage setup. ...
Beam injection and extraction from a plasma module is still one of the crucial aspects to solve in o...
The active plasma lens represents a compact and affordable tool with radially symmetric focusing an...
The magnetic self-focusing of a relativistic electron beam propagating through a plasma is demonstra...
Ultra-high intensity lasers are important tools to study the micro structures of our physical world,...
We intend to carry out a series of plasma lens experiments at the Final Focus Test Beam facility at ...
The authors intend to carry out a series of plasma lens experiments at the Final Focus Test Beam fac...