Orbital electron capture by the nucleus

Bambynek, W.; Behrens, H.; Chen, M. H.; Crasemann, Bernd; Fitzpatrick, M.L.; Ledingham, K.W.D.; Genz, H.; Mutterer, M.; Intemann, Robert L.

doi:10.1103/revmodphys.49.77

Cited by 425 publications

(307 citation statements)

References 667 publications

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“…Thus, only 3/8 of all H-like 7 Be ions are in F i = 1 state which can decay to the first excited state in 7 Li. According to [19,20], the rate of the transition F i = F f = 1 can also be accelerated compared to conventional calculations [15].…”

Section: Half-lives Of 7 Be In Different Atomic Charge Statesmentioning

confidence: 99%

“…The EC-decay rate is proportional to the electron density at the nucleus [15]. In a simple picture the density of s-electrons in L, M and higher atomic shells scales as 1/n 3 (n is the principal quantum number).…”

Section: Half-lives Of 7 Be In Different Atomic Charge Statesmentioning

confidence: 99%

“…For instance, by preparing the parent ion in a simple, well-defined quantum state, as a bare, hydrogen-or helium-like atom, the effects due to bound electrons not directly involved in the decay itself (electron screening, re-arrangement of atomic shells after the decay, shake-off effects, etc. [15]) can be disentangled.…”

Section: Atomic Effects On Nuclear Half-livesmentioning

confidence: 99%

“…For example, the 18 F(d, p) 19 F reaction can be used to study analogues of key states in the mirror nucleus, 19 Ne, corresponding to resonances in the 18 F(p, α) 15 O reaction. This reaction occurs in the hot CNO cycles in novae, and is thought to be primarily responsible for the destruction of the currently unobserved cosmic gamma-ray emitter, 18 F.…”

Section: Nuclear Astrophysics Through Transfer Reactionsmentioning

confidence: 99%

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Storage ring at HIE-ISOLDE

Grieser

Litvinov

Raabe

et al. 2012

Eur. Phys. J. Spec. Top.

113

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We propose to install a storage ring at an ISOL-type radioactive beam facility for the first time. Specifically, we intend to install the heavy-ion, low-energy ring TSR at the HIE-ISOLDE facility in CERN, Geneva. Such a facility will provide a capability for experiments with stored secondary beams that is unique in the world. The envisaged physics programme is rich and varied, spanning from investigations of nuclear groundstate properties and reaction studies of astrophysical relevance, to investigations with highly-charged ions and pure isomeric beams. The TSR can also be used to remove isobaric contaminants from stored ion beams and for systematic studies within the neutrino beam programme. In addition to experiments performed using beams recirculating within the ring, cooled beams can also be extracted and exploited by external spectrometers for high-precision measurements. The existing TSR, which is presently in operation at the Max-Planck Institute for Nuclear Physics in Heidelberg, is well-suited and can be employed for this purpose. The physics cases, technical details of the existing ring facility and of the beam requirements at HIE-ISOLDE, together with the cost, time and manpower estimates for the transfer, installation and commissioning of the TSR at ISOLDE are discussed in the present technical design report.

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Section: Half-lives Of 7 Be In Different Atomic Charge Statesmentioning

confidence: 99%

Section: Half-lives Of 7 Be In Different Atomic Charge Statesmentioning

confidence: 99%

Section: Atomic Effects On Nuclear Half-livesmentioning

confidence: 99%

Section: Nuclear Astrophysics Through Transfer Reactionsmentioning

confidence: 99%

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Storage ring at HIE-ISOLDE

Grieser

Litvinov

Raabe

et al. 2012

Eur. Phys. J. Spec. Top.

113

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“…The calculations are described by Gove and Martin [GOV71]. Internal bremsstrahlung is also calculated for {3-and {3+ as in [KNI36], and for E decay as described in Bambynek et al [BAM77] and binned in standard intervals. The total average energy per decay is given for each mode at the top of the table and for each standard bin.…”

Section: Continuous Radiationsmentioning

confidence: 99%

Table of Radioactive Isotopes

2003

Handbook of Radioactivity Analysis

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Penning‐trap mass spectrometry and neutrino physics

2013

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Rapidly developing neutrino physics has found in Penning-trap mass spectrometry a staunch ally in investigating a variety of fundamental problems. The most familiar are the absolute neutrino mass, possible existence of resonant neutrinoless double-electron capture and of keV-sterile neutrinos, and investigation of neutrino oscillations. This article is a brief review of the latest achievements and future perspectives of Penning-trap mass spectrometry in the exploration of these problems with a focus on electron capture and double electron capture processes

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Orbital electron capture by the nucleus

Cited by 425 publications

References 667 publications

Storage ring at HIE-ISOLDE

Storage ring at HIE-ISOLDE

Table of Radioactive Isotopes

Penning‐trap mass spectrometry and neutrino physics

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