About: Internal conversion coefficient is a research topic. Over the lifetime, 177 publications have been published within this topic receiving 3549 citations. The topic is also known as: internal conversion factor.
TL;DR: In this article, the internal conversion coefficient, number of electrons per photon emitted in a nuclear transition, is presented from a new relativistic selfconsistent field calculation which takes into account finite nuclear size, hole and exchange effects, experimental electron binding energies, and vacuum polarization.
TL;DR: In this article, a new internal conversion coefficient database, BrIcc, is developed which integrates a number of tabulations on internal conversion electron (ICC) and electron-positron pair conversion coefficients (IPC), as well as Ω (E 0 ) electronic factors.
Abstract: A new internal conversion coefficient database, BrIcc has been developed which integrates a number of tabulations on internal conversion electron (ICC) and electron–positron pair conversion coefficients (IPC), as well as Ω ( E 0 ) electronic factors. A critical review of general formulae and procedures to evaluate theoretical ICC and IPC values are presented, including the treatment of uncertainties in transition energy and mixing ratio in accordance with the Evaluated Nuclear Structure Data File. The default ICC table, based on the Dirac–Fock calculations using the so called “Frozen Orbital” approximation, takes into account the effect of atomic vacancies created in the conversion process. The table has been calculated for all atomic shells and to cover transition energies of 1–6000 keV and atomic numbers of Z = 5 –110. The software tools presented here are well suited for basic nuclear structure research and for a range of applications.
TL;DR: The 2002 version of the Nuclear Data Sheets for A = 198 (2002Zh04) has been updated and revised on the basis of the experimental results from various decay and reaction studies before June 2008 as mentioned in this paper.
TL;DR: In this article, the parities and multipolarities of γ rays in these nuclei have been assigned from triple angular correlation, directional linear-polarisation correlation and internal conversion coefficient measurements.