Magnetized bunched-beam electron cooling is a critical part of the Jefferson Lab Electron Ion Collider (JLEIC). Strong cooling of ion beams will be accomplished inside a cooling solenoid where the ions co-propagate with an electron beam generated from a source immersed in magnetic field. This contribution describes the production and characterization of magnetized electron beam using a compact 300 kV DC high voltage photogun and bialkali-antimonide photocathodes. Beam magnetization was studied using a diagnostic beamline that includes viewer screens for measuring the shearing angle of the electron beamlet passing through a narrow upstream slit. Correlated beam emittance with magnetic field at the photocathode was measured for various laser ...
Polarized electrons from GaAs photocathodes have been key to some of the highest-impact results of t...
An electron beam with high bunch charge and high repetition rate is required for electron cooling of...
The characteristics of a beam generated by a "hollow cathode" gun, intended for electron cooling pur...
Magnetized bunched-beam electron cooling is a critical part of the Jefferson Lab Electron Ion Collid...
Bunched-beam electron cooling is a key feature of all proposed designs of the future electron-ion co...
One of the most challenging requirements for the proposed Electron–Ion Collider is the strong coolin...
A high current, high charge magnetized electron beamline that has been under development for fast an...
Magnetized electron cooling could result in high luminosity at the proposed Jefferson Lab Electron-I...
Electron cooling of the ion beam is key to obtaining the required high luminosity of proposed electr...
Magnetized electron cooling of the ion beam is one of the major approaches towards obtaining the req...
Electron cooling of the ion beam plays an important role in electron ion colliders to obtain the req...
To advance magnetized gun research in the United States, a compact DC high voltage photogun with inv...
Substantially more than half of the electromagnetic nuclear physics experiments conducted at the Con...
Electron beams produced by photoinjectors have a wide range of applications including colliders for ...
Polarized electrons from GaAs photocathodes have been key to some of the highest-impact results of t...
An electron beam with high bunch charge and high repetition rate is required for electron cooling of...
The characteristics of a beam generated by a "hollow cathode" gun, intended for electron cooling pur...
Magnetized bunched-beam electron cooling is a critical part of the Jefferson Lab Electron Ion Collid...
Bunched-beam electron cooling is a key feature of all proposed designs of the future electron-ion co...
One of the most challenging requirements for the proposed Electron–Ion Collider is the strong coolin...
A high current, high charge magnetized electron beamline that has been under development for fast an...
Magnetized electron cooling could result in high luminosity at the proposed Jefferson Lab Electron-I...
Electron cooling of the ion beam is key to obtaining the required high luminosity of proposed electr...
Magnetized electron cooling of the ion beam is one of the major approaches towards obtaining the req...
Electron cooling of the ion beam plays an important role in electron ion colliders to obtain the req...
To advance magnetized gun research in the United States, a compact DC high voltage photogun with inv...
Substantially more than half of the electromagnetic nuclear physics experiments conducted at the Con...
Electron beams produced by photoinjectors have a wide range of applications including colliders for ...
Polarized electrons from GaAs photocathodes have been key to some of the highest-impact results of t...
An electron beam with high bunch charge and high repetition rate is required for electron cooling of...
The characteristics of a beam generated by a "hollow cathode" gun, intended for electron cooling pur...