Two methods of fast cooling of intensive beams are described. The first one, coherent electron cooling, is based on enhancement of friction effect in the electron cooling method using a microwave instability of electron beam specially arranged in the cooling section. This method is effective for cooling of high‐temperature circulating beams. The second one, self‐cooling, is based on use of the intrabeam Coulomb scattering of particles during the adiabatic processes of beam acceleration and transverse compression. This method allows frequent decrease emittance of an intensive beam issued by a low‐temperature source.Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/87364/2/103_1.pd
This research was sponsored by the National Science Foundation Grant NSF PHY-931478
The Electron cooling beam has both coherent and incoherent effects to the circulating ion beam. The ...
At low relative velocities the transverse cooling rates of fast stored ions by cold electrons are us...
Two methods of fast cooling of intensive beams are described. The first one, coherent electron cooli...
Beam cooling is the technique of reducing the momentum spread and increasing the phase-space density...
Cooling methods are discussed in reference to the electron-positron, ion and muon beams
Diverse methods which are available for particle beam cooling are reviewed. They consist of some hig...
Cooling of hadron beams (including heavy-ions) is a powerful technique by which accelerator faciliti...
For heavy-particle beams in storage rings where there is no significant synchrotron radiation dampin...
Cooling intense high-energy hadron beams remains a major challenge in modern accelerator physics. Sy...
The development in recent years of methods for reducing the phase volume of colliding particle beams...
The electron cooling is used for accumulation and shrink-ing emittance of ions: from p up to uranium...
An electron cooler designed at the Budker Institute of Nuclear Physics for the Cooler Synchrotron CO...
All electron cooling systems which were in operation so far employed electron beam generated with an...
Because of their high density together with extremely small spreads in betatron frequency and moment...
This research was sponsored by the National Science Foundation Grant NSF PHY-931478
The Electron cooling beam has both coherent and incoherent effects to the circulating ion beam. The ...
At low relative velocities the transverse cooling rates of fast stored ions by cold electrons are us...
Two methods of fast cooling of intensive beams are described. The first one, coherent electron cooli...
Beam cooling is the technique of reducing the momentum spread and increasing the phase-space density...
Cooling methods are discussed in reference to the electron-positron, ion and muon beams
Diverse methods which are available for particle beam cooling are reviewed. They consist of some hig...
Cooling of hadron beams (including heavy-ions) is a powerful technique by which accelerator faciliti...
For heavy-particle beams in storage rings where there is no significant synchrotron radiation dampin...
Cooling intense high-energy hadron beams remains a major challenge in modern accelerator physics. Sy...
The development in recent years of methods for reducing the phase volume of colliding particle beams...
The electron cooling is used for accumulation and shrink-ing emittance of ions: from p up to uranium...
An electron cooler designed at the Budker Institute of Nuclear Physics for the Cooler Synchrotron CO...
All electron cooling systems which were in operation so far employed electron beam generated with an...
Because of their high density together with extremely small spreads in betatron frequency and moment...
This research was sponsored by the National Science Foundation Grant NSF PHY-931478
The Electron cooling beam has both coherent and incoherent effects to the circulating ion beam. The ...
At low relative velocities the transverse cooling rates of fast stored ions by cold electrons are us...