One year of operation at the Heidelberg TSR☆
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Cited by (26)
Heavy-ion storage rings and their use in precision experiments with highly charged ions
2020, Progress in Particle and Nuclear PhysicsCitation Excerpt :The interaction of the ion beam with internal targets, with the free electrons of the electron cooler or with laser light are favored methods for studying predominantly atomic physics aspects. One of the examples of the low-energy storage rings is the Test Storage Ring (TSR) [8] which was in operation in Heidelberg from 1988 until 2012. The medium-energy rings extended the range of experimental conditions to higher energy and to beams of ions with very high atomic charge states for precision atomic physics studies.
Nuclear physics experiments with ion storage rings
2013, Nuclear Instruments and Methods in Physics Research, Section B: Beam Interactions with Materials and AtomsCitation Excerpt :Moreover, the existing and planned post-acceleration schemes can deliver high-quality ISOL beams right at the required energies, which circumvents the long slowing down times required for the relativistic ion beams. The test storage ring (TSR) [133], which operation was stopped at the Max-Planck Institute for Nuclear Physics in Heidelberg [134] in 2012, is perfectly suited for this purpose. The physics scope of this instrument includes nuclear physics, nuclear astrophysics and atomic physics, with several experiments that can only be done there.
Recombination in electron coolers
2000, Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated EquipmentCitation Excerpt :Such recombination rates during electron cooling would lead to beam lifetimes of only a few seconds for U28+ ions in a storage ring. On the other hand, at about the same time electron cooling of heavy ions (first on C6+) was realized in ion storage rings [24,25], yielding beam lifetimes as long as predicted and thus confirming the RR theory within a factor of ∼2. Moreover, in measurements [13,26] at the Aarhus single-pass electron target, radiative recombination rates for ions such as C6+ were measured with ∼20% accuracy at energies up to 1 eV, yielding agreement with the RR theory.
Dissociative recombination in ion storage rings
1995, International Journal of Mass Spectrometry and Ion ProcessesThe FILTEX/HERMES polarized hydrogen atomic beam source
1994, Nuclear Inst. and Methods in Physics Research, ATest of a polarized hydrogen gas target based on the storage cell technique
1992, Nuclear Inst. and Methods in Physics Research, A
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