The high-energy electron cooling system for RHIC-II is unique compared to standard coolers. It requires bunched electron beam. Electron bunches are produced by an Energy Recovery Linac (ERL), and cooling is planned without longitudinal magnetic field. To address unique features of the RHIC cooler, a generalized treatment of cooling force was introduced in BETACOOE code which allows us to calculate friction force for an arbitrary distribution of electrons. Simulations for RHIC cooler based on electron distribution from ERL are presented
Fundamental advances in experimental nuclear physics will require ion beams with orders of magnitude...
Electron cooling was proposed to increase the luminosity of the Relativistic Heavy Ion Collider (RHI...
The physics interest in a luminosity upgrade of RHIC requires the development of a cooling-frontier ...
The physics interest in a luminosity upgrade of RHIC requires the development of a cooling-frontier ...
The design of the higher-energy cooler for Relativistic Heavy Ion Collider (RHIC) recently adopted a...
An electron cooler, based on an Energy Recovery Linac (ERL) is under development for the Relativisti...
The Department of Energy has plans, during the next two or three years, to design an electron coolin...
Electron cooling at RHIC-I1 upgrade imposes strict requirements on the quality of the electron beam ...
All electron cooling systems which were in operation so far employed electron beam generated with an...
Recently, a strong interest emerged in running the Relativistic Heavy Ion Collider (RHIC) at low bea...
The fundamental questions about QCD which can be directly answered at Relativistic Heavy Ion Collide...
Electron cooling [1] entered a new era with the July 2005 cooling of the Tevatron recycler ring [2] ...
The Accelerator Collider Department (CAD) at Brookhaven National Laboratory is operating the Relativ...
A 0.1-0.5 A, 4.3 MeV DC electron beam provides cooling of 8 GeV antiprotons in Fermilab's Recycler s...
The physics interest in a luminosity upgrade of RHIC requires the development of a cooling-frontier ...
Fundamental advances in experimental nuclear physics will require ion beams with orders of magnitude...
Electron cooling was proposed to increase the luminosity of the Relativistic Heavy Ion Collider (RHI...
The physics interest in a luminosity upgrade of RHIC requires the development of a cooling-frontier ...
The physics interest in a luminosity upgrade of RHIC requires the development of a cooling-frontier ...
The design of the higher-energy cooler for Relativistic Heavy Ion Collider (RHIC) recently adopted a...
An electron cooler, based on an Energy Recovery Linac (ERL) is under development for the Relativisti...
The Department of Energy has plans, during the next two or three years, to design an electron coolin...
Electron cooling at RHIC-I1 upgrade imposes strict requirements on the quality of the electron beam ...
All electron cooling systems which were in operation so far employed electron beam generated with an...
Recently, a strong interest emerged in running the Relativistic Heavy Ion Collider (RHIC) at low bea...
The fundamental questions about QCD which can be directly answered at Relativistic Heavy Ion Collide...
Electron cooling [1] entered a new era with the July 2005 cooling of the Tevatron recycler ring [2] ...
The Accelerator Collider Department (CAD) at Brookhaven National Laboratory is operating the Relativ...
A 0.1-0.5 A, 4.3 MeV DC electron beam provides cooling of 8 GeV antiprotons in Fermilab's Recycler s...
The physics interest in a luminosity upgrade of RHIC requires the development of a cooling-frontier ...
Fundamental advances in experimental nuclear physics will require ion beams with orders of magnitude...
Electron cooling was proposed to increase the luminosity of the Relativistic Heavy Ion Collider (RHI...
The physics interest in a luminosity upgrade of RHIC requires the development of a cooling-frontier ...