Physical Review · 1964 · 112 citations · 13 references
EngineeringChemistryRadiation MeasurementRadiation PhysicsSpectroscopyAtomic IonizationIonization ProcessesIonization TechniquesRadiation SpectroscopyCharge State DistributionsChargesElectron IonizationIonizing Radiation DetectionTime-of-flight Mass AnalyzersTime-of-flight Mass Spectrometry
The distribution of neon ions that result from ionization by x rays has been measured with a coincidence time-of-flight mass spectrometer. Radiation from an aluminum target, filtered through a beryllium foil, was used so that in more than 95% of the events a $K$ electron was removed. The observed charges, including $L$ ionization, are distributed as follows: ${\mathrm{Ne}}^{1+}$=3%; ${\mathrm{Ne}}^{2+}$=66%; ${\mathrm{Ne}}^{3+}$=24%; ${\mathrm{Ne}}^{4+}$=6%; ${\mathrm{Ne}}^{5+}$=0.8%. On the average 2.4 electrons are removed per interaction. The charge spectrum has also been computed using calculated $K\ensuremath{-}\mathrm{LL}$ Auger transition rates and electron shake-off probabilities as given by the ${\ensuremath{\beta}}^{\ensuremath{-}}$ decay of ${\mathrm{Ne}}^{23}$. The assumptions of the models used as well as the applicability to the present study have been examined. Comparison of the calculations with the experimental data indicates the presence of other modes of ionization.
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J. C. Slater · Physical Review · 1930 · 2.8K citations
Electronic and Ionic Impact Phenomena
H. S. W. Massey, E. H. S. Burhop, E. W. McDaniel · American Journal of Physics · 1970 · 866 citations
Natural Sciences, Chemistry, Physics +12
Effects of Radioactive Disintegrations on Inner Electrons of the Atom
J. S. Levinger · Physical Review · 1953 · 213 citations
Laith S. Alhiti R · Nuclear Physics · 1959 · 201 citations