A theory of tapered cooling for fast circulating ion beams in a storage ring is constructed. We describe the fundamentals of this cooling scheme, a scheme that effectively yields both transverse and longitudinal cooling through radial-position-dependent longitudinal momentum cooling, emphasizing that it might be the most promising way to beam crystallization. The cooling rates are analytically evaluated to study the ideal operating condition. We discuss the physical implication of the tapering factor of the cooling force, and show how to determine its optimum value. Molecular dynamics is employed to demonstrate the validity of the present theory
Cooling methods are discussed in reference to the electron-positron, ion and muon beams
Two methods of fast cooling of intensive beams are described. The first one, coherent electron cooli...
We apply novel bunch forms for efficient laser cooling of fast stored ion beams at the Heidelberg Te...
A theory of tapered cooling for fast circulating ion beams in a storage ring is constructed. We desc...
A theory of tapered laser cooling for fast circulating ion beams in a storage ring is constructed. T...
We review recent progress in laser cooling of fast stored ion beams at the Heidelberg Test Storage R...
Molecular dynamics (MD) approach is employed to study laser cooling of fast circulating beams in a s...
Molecular dynamics (MD) approach is employed to study laser cooling of fast circulating beams in a s...
A three-dimensional (3D) laser cooling method of fast stored ion beams based on a linear coupling me...
Beam cooling methods developed for the accumulation of antiprotons are being employed to assist in t...
Transverse laser cooling of a fast stored Be-9(+) ion beam based on a single-particle force independ...
It has been known theoretically that a charged-particle beam circulating in a storage ring exhibits ...
Beam cooling is the technique of reducing the momentum spread and increasing the phase-space density...
During the past several decades, beam crystallization has been studied both theoretically and experi...
Three methods to cool stored ion beams have been achieved experimentally. These are electron, stocha...
Cooling methods are discussed in reference to the electron-positron, ion and muon beams
Two methods of fast cooling of intensive beams are described. The first one, coherent electron cooli...
We apply novel bunch forms for efficient laser cooling of fast stored ion beams at the Heidelberg Te...
A theory of tapered cooling for fast circulating ion beams in a storage ring is constructed. We desc...
A theory of tapered laser cooling for fast circulating ion beams in a storage ring is constructed. T...
We review recent progress in laser cooling of fast stored ion beams at the Heidelberg Test Storage R...
Molecular dynamics (MD) approach is employed to study laser cooling of fast circulating beams in a s...
Molecular dynamics (MD) approach is employed to study laser cooling of fast circulating beams in a s...
A three-dimensional (3D) laser cooling method of fast stored ion beams based on a linear coupling me...
Beam cooling methods developed for the accumulation of antiprotons are being employed to assist in t...
Transverse laser cooling of a fast stored Be-9(+) ion beam based on a single-particle force independ...
It has been known theoretically that a charged-particle beam circulating in a storage ring exhibits ...
Beam cooling is the technique of reducing the momentum spread and increasing the phase-space density...
During the past several decades, beam crystallization has been studied both theoretically and experi...
Three methods to cool stored ion beams have been achieved experimentally. These are electron, stocha...
Cooling methods are discussed in reference to the electron-positron, ion and muon beams
Two methods of fast cooling of intensive beams are described. The first one, coherent electron cooli...
We apply novel bunch forms for efficient laser cooling of fast stored ion beams at the Heidelberg Te...