A SPHERE COOLER SCHEME FOR MUON COOLING
Yu Bao, A. Caldwell, D. Greenwald, Max Planck
Abstract
Yu Bao, A. Caldwell, D. Greenwald, Max Planck
Abstract
Muon cooling is the greatest obstacle for producing an intensive muon beam. The frictional cooling method holds promise for delivering low-energy muon beams with narrow energy spreads. We outline a sphere cooler scheme based on frictional cooling to effectively produce such a “cold” muon beam. As an example source, we take the parameters of a surface muon source available at the Paul Scherrer Institute. Simulation results show that the sphere cooler has an efficiency of 50% to produce a “cold” muon beam with an energy spread of 0. 9k eV. This high quality beam could potentially meet the requirement of a neutrino factory or a muon collider.
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Muon cooling is the greatest obstacle for producing an intensive muon beam. The frictional cooling method holds promise for delivering low-energy muon beams with narrow energy spreads. We outline a sphere cooler scheme based on frictional cooling to effectively produce such a “cold” muon beam. As an example source, we take the parameters of a surface muon source available at the Paul Scherrer Institute. Simulation results show that the sphere cooler has an efficiency of 50% to produce a “cold” muon beam with an energy spread of 0. 9k eV. This high quality beam could potentially meet the requirement of a neutrino factory or a muon collider.
Key concepts: Muon, Muon collider, Neutrino Factory, Physics, Beam (structure), Nuclear physics, Particle physics, Neutrino