In conventional low energy electron coolers, the electron beam is immersed in a continuous solenoid, which provides a calm and tightly focused beam in a cooling section. While suitable for low energies, the continuity of the accompanying magnetic field is hardly realizable at relativistic energies. We consider the possibility of using an extended solenoid in the gun and the cooling section only, applying lumped focusing for the rest of the electron transport line
Two methods of fast cooling of intensive beams are described. The first one, coherent electron cooli...
Antiprotons in Fermilab’s Recycler ring are cooled by a 4.3 MeV, 0.1 – 0.5 A DC electron beam (as we...
Antiprotons in Fermilab's Recycler ring are cooled by a 4.3 MeV, 0.1-0.5 A DC electron beam (as well...
To improve cooling capability of electron coolers mag-netized beams in strong solenoid fields are us...
A method of reducing the energy spread of an electron beam in a free-electron laser is suggested. Th...
The trajectory differential equation governing the motion of relativistic electrons is derived in te...
All electron cooling systems which were in operation so far employed electron beam generated with an...
We report on an experimental demonstration of electron cooling of high-energy antiprotons circulatin...
As part of a future upgrade to the Relativistic Heavy Ion Collider (RHIC), electron cooling is fores...
A novel method of electron beam cooling is considered which can be used for linear colliders. The el...
With the emergence in the next few years of a new breed of high power laser facilities, it is becomi...
We attract attention that the well known law of radiation during motion in solenoid, allowing transv...
Recent years’ studies of possibilities to build the efficient relativistic electron cooling devices ...
Recent years ’ studies of possibilities to build the efficient relativistic electron cooling devices...
This poster discusses the cooling of relativistic electron beams in intense laser pulses
Two methods of fast cooling of intensive beams are described. The first one, coherent electron cooli...
Antiprotons in Fermilab’s Recycler ring are cooled by a 4.3 MeV, 0.1 – 0.5 A DC electron beam (as we...
Antiprotons in Fermilab's Recycler ring are cooled by a 4.3 MeV, 0.1-0.5 A DC electron beam (as well...
To improve cooling capability of electron coolers mag-netized beams in strong solenoid fields are us...
A method of reducing the energy spread of an electron beam in a free-electron laser is suggested. Th...
The trajectory differential equation governing the motion of relativistic electrons is derived in te...
All electron cooling systems which were in operation so far employed electron beam generated with an...
We report on an experimental demonstration of electron cooling of high-energy antiprotons circulatin...
As part of a future upgrade to the Relativistic Heavy Ion Collider (RHIC), electron cooling is fores...
A novel method of electron beam cooling is considered which can be used for linear colliders. The el...
With the emergence in the next few years of a new breed of high power laser facilities, it is becomi...
We attract attention that the well known law of radiation during motion in solenoid, allowing transv...
Recent years’ studies of possibilities to build the efficient relativistic electron cooling devices ...
Recent years ’ studies of possibilities to build the efficient relativistic electron cooling devices...
This poster discusses the cooling of relativistic electron beams in intense laser pulses
Two methods of fast cooling of intensive beams are described. The first one, coherent electron cooli...
Antiprotons in Fermilab’s Recycler ring are cooled by a 4.3 MeV, 0.1 – 0.5 A DC electron beam (as we...
Antiprotons in Fermilab's Recycler ring are cooled by a 4.3 MeV, 0.1-0.5 A DC electron beam (as well...