Is the Kβ/Kα x-ray intensity ratio dependent upon the energy of an inducing proton?
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Cited by (8)
Updated database, semi-empirical and theoretical calculation of Kβ/Kα intensity ratios for elements ranging from <inf>11</inf>Na to <inf>96</inf>Cm
2023, Atomic Data and Nuclear Data TablesStudy of K<inf>α2</inf>/K<inf>α1</inf> RYIED in closed and open shell Rare Earth Elements
2016, Nuclear Instruments and Methods in Physics Research, Section B: Beam Interactions with Materials and AtomsCitation Excerpt :Proton-induced X-ray Emission (PIXE) analysis using Kα and/or Lα transition is presently a common task in which it is usually assumed that the ratio between two X-ray lines to the same subshell (before considering the matrix effects) is an atomic parameter independent of the ionisation process and of the chemical environment surrounding the emitting ion. However this is not true and, furthermore it was already pointed out by several authors that a proper account of the relative intensity of X-ray lines becomes essential to assure a correct quantification of all elements present in a sample (complex or not) [2–8]. In 2003 studies to explore matrix effects upon the relative intensity of X-ray transitions were started and Relative Yield Ion Energy Dependence (RYIED) was observed, named and reported as phenomenological evidence in 2005 [1].
Determination of I(K β ) I(K α ) in elements with 21 ⪕ Z ⪕ 35 by deuteron impact
1985, Nuclear Inst. and Methods in Physics Research, BCesium attenuates conditioned avoidance response in rats and mice
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2017, Applied Spectroscopy Reviews