Add to ORKGThe E164/E164X plasma wakefield experiment studies beam-plasma interactions at the Stanford Linear Acceleration Center (SLAC). Due to SLAC's recent ability to variably compress bunches longitudinally from 650 {micro}m down to 20 {micro}m, the incoming beam is sufficiently dense to field ionize the neutral lithium (Li) vapor. The field ionization effects are characterized by the beams energy loss through the Li vapor column. Experiment results are presented
Laser wakefield acceleration of electrons holds great promise for producing ultra-compact stages of ...
When considering intense particle or laser beams propagating in dense plasma or gas, ionization play...
Similarly to laser or x-ray beams, the interaction of sufficiently intense particle beams with neutr...
The E164/E164X plasma wakefield experiment studies beam-plasma interactions at the Stanford Linear A...
Plasma production via field ionization occurs when an incoming particle beam is sufficiently dense t...
In the E-167 plasma wakefield acceleration experiment, electrons with an initial energy of 42GeV are...
FACET, the Facility for Advanced Accelerator and Experimental Tests, is a new facility being constru...
We present 2-D cylindrical particle-in-cell simulations of the E-157 beam wakefield experiment at SL...
Recent electron beam driven plasma wakefield accelerator experiments carried out at SLAC showed trap...
Recent experiments at SLAC have shown that high gradient acceleration of electrons is achievable in ...
Recent electron beam driven plasma wakefield accelerator experiments carried out at SLAC indicate tr...
A plasma wakefield accelerator (PWFA) uses a plasma wave (a wake) to accelerate electrons at a gradi...
The onset of trapping of electrons born inside a highly relativistic, 3D beam-driven plasma wake is ...
Abstract — A photo-ionized lithium source is developed for plasma acceleration applications. A homog...
We have recently demonstrating the doubling of the energy of particles of the ultra-short, ultra-rel...
Laser wakefield acceleration of electrons holds great promise for producing ultra-compact stages of ...
When considering intense particle or laser beams propagating in dense plasma or gas, ionization play...
Similarly to laser or x-ray beams, the interaction of sufficiently intense particle beams with neutr...
The E164/E164X plasma wakefield experiment studies beam-plasma interactions at the Stanford Linear A...
Plasma production via field ionization occurs when an incoming particle beam is sufficiently dense t...
In the E-167 plasma wakefield acceleration experiment, electrons with an initial energy of 42GeV are...
FACET, the Facility for Advanced Accelerator and Experimental Tests, is a new facility being constru...
We present 2-D cylindrical particle-in-cell simulations of the E-157 beam wakefield experiment at SL...
Recent electron beam driven plasma wakefield accelerator experiments carried out at SLAC showed trap...
Recent experiments at SLAC have shown that high gradient acceleration of electrons is achievable in ...
Recent electron beam driven plasma wakefield accelerator experiments carried out at SLAC indicate tr...
A plasma wakefield accelerator (PWFA) uses a plasma wave (a wake) to accelerate electrons at a gradi...
The onset of trapping of electrons born inside a highly relativistic, 3D beam-driven plasma wake is ...
Abstract — A photo-ionized lithium source is developed for plasma acceleration applications. A homog...
We have recently demonstrating the doubling of the energy of particles of the ultra-short, ultra-rel...
Laser wakefield acceleration of electrons holds great promise for producing ultra-compact stages of ...
When considering intense particle or laser beams propagating in dense plasma or gas, ionization play...
Similarly to laser or x-ray beams, the interaction of sufficiently intense particle beams with neutr...