# Precise measurement of α K and α T for the 109.3-keV M 4 transition in Te 125 : Test of internal-conversion theory

@article{Nica2017PreciseMO,
title={Precise measurement of $\alpha$ K and $\alpha$ T for the 109.3-keV M 4 transition in Te 125 : Test of internal-conversion theory},
author={Ninel Nica and J. C. Hardy and V.E. Iacob and T. A. Werke and Charles M. Folden and K. Ofodile and M. B. Trzhaskovskaya},
journal={Physical Review C},
year={2017},
volume={95}
}
• Published 10 April 2017
• Physics
• Physical Review C
We have measured the K-shell and total internal conversion coefficients (ICCs), αK and αT , for the 109.3-keV M4 transition in Te to be 185.0(40) and 350.0(38), respectively. Previously this transition’s ICCs were considered anomalous, with α values lying below calculated values. When compared with Dirac-Fock calculations, our new results show good agreement. The αK result agrees well with the version of the theory that takes account of the K-shell atomic vacancy and disagrees with the one that…
4 Citations

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## References

SHOWING 1-10 OF 28 REFERENCES
APPL
• Computer Science
• 2001
A prototype probability package named APPL (A Probability Programming Language) is presented that can be used to manipulate random variables and examples illustrate its use.
Nucl
• Instrum. Methods Phys. Res. A 511, 360
• 2003
Phys
• Rev. C 75, 024308
• 2007
Phys
• Rev. C 89, 014303
• 2014
Nucl
• Instrum. Methods Phys. Res. A 369, 527
• 1996
C
• W. Nestor, Jr., A. Ichihara, and M. B. Trzhaskovskaya, Phys. Rev. C 66, 044312
• 2002
C
• W. Nestor, Jr., P. Tikkanen, and S. Raman, At. Data Nucl. Data Tables 81, 1
• 2002
Phys
• Rev. C 95, 034325
• 2017
C
• W. Nestor Jr., and M. B. Trzhaskovskaya, Phys. Rev. C 70, 054305
• 2004