Energies and quantum defects of 1s2ng states for lithium-like ions from scandium to zinc

The non-relativistic energy and wave function of high angular momentum 1s2ng (5 = n = 8) states of lithium-like isoelectronic sequence from ScXIX to ZnXXVIII are calculated using the full-core-plus-correlation (FCPC) method. Relativistic effects and mass polarization effects are considered as pertur...

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Main Authors: Xin Liu, Jingchao Zhang
Format: Article
Language:English
Published: AIDIC Servizi S.r.l. 2018-12-01
Series:Chemical Engineering Transactions
Online Access:https://www.cetjournal.it/index.php/cet/article/view/9393
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spelling doaj-706377e489574d8ea6ec28b3e431dd312021-02-16T21:13:30ZengAIDIC Servizi S.r.l.Chemical Engineering Transactions2283-92162018-12-017110.3303/CET1871110Energies and quantum defects of 1s2ng states for lithium-like ions from scandium to zincXin LiuJingchao ZhangThe non-relativistic energy and wave function of high angular momentum 1s2ng (5 = n = 8) states of lithium-like isoelectronic sequence from ScXIX to ZnXXVIII are calculated using the full-core-plus-correlation (FCPC) method. Relativistic effects and mass polarization effects are considered as perturbations, and their corrections to system energy are estimated. In order to get hold of high-precision theoretical results, it is also necessary to consider the contribution of quantum electrodynamics (QED). Based on the single-channel quantum defect theory, the quantum defects of 1s2ng Rydberg series are determined, and the results are in full compliance with its physical laws. Comparing the ionization potential obtained by the semi-empirical method with the FCPC method, it can be seen that the results are in good agreement. Consequently, the ionization potential can be extrapolated to the energy territory with larger principal quantum numbers to forecast the approximate value of unknown energy levels, which provides theoretical instruction for relevant studies.https://www.cetjournal.it/index.php/cet/article/view/9393
collection DOAJ
language English
format Article
sources DOAJ
author Xin Liu
Jingchao Zhang
spellingShingle Xin Liu
Jingchao Zhang
Energies and quantum defects of 1s2ng states for lithium-like ions from scandium to zinc
Chemical Engineering Transactions
author_facet Xin Liu
Jingchao Zhang
author_sort Xin Liu
title Energies and quantum defects of 1s2ng states for lithium-like ions from scandium to zinc
title_short Energies and quantum defects of 1s2ng states for lithium-like ions from scandium to zinc
title_full Energies and quantum defects of 1s2ng states for lithium-like ions from scandium to zinc
title_fullStr Energies and quantum defects of 1s2ng states for lithium-like ions from scandium to zinc
title_full_unstemmed Energies and quantum defects of 1s2ng states for lithium-like ions from scandium to zinc
title_sort energies and quantum defects of 1s2ng states for lithium-like ions from scandium to zinc
publisher AIDIC Servizi S.r.l.
series Chemical Engineering Transactions
issn 2283-9216
publishDate 2018-12-01
description The non-relativistic energy and wave function of high angular momentum 1s2ng (5 = n = 8) states of lithium-like isoelectronic sequence from ScXIX to ZnXXVIII are calculated using the full-core-plus-correlation (FCPC) method. Relativistic effects and mass polarization effects are considered as perturbations, and their corrections to system energy are estimated. In order to get hold of high-precision theoretical results, it is also necessary to consider the contribution of quantum electrodynamics (QED). Based on the single-channel quantum defect theory, the quantum defects of 1s2ng Rydberg series are determined, and the results are in full compliance with its physical laws. Comparing the ionization potential obtained by the semi-empirical method with the FCPC method, it can be seen that the results are in good agreement. Consequently, the ionization potential can be extrapolated to the energy territory with larger principal quantum numbers to forecast the approximate value of unknown energy levels, which provides theoretical instruction for relevant studies.
url https://www.cetjournal.it/index.php/cet/article/view/9393
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AT jingchaozhang energiesandquantumdefectsof1s2ngstatesforlithiumlikeionsfromscandiumtozinc
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