The relativistic hydrogen-like atom in a finite magnetic field

Abstract This work focuses on developing an efficient numerical method to solve the relativistic hydrogen-like atom in a finite magnetic field. To this end, we derive and implement an algorithm based on Gaussian-type orbitals that exploits fermionic symmetry to accelerate the calculations and to distinguish states of different character. This is then used to investigate a novel type of mixing regime between internal and external magnetic interactions. Finally, we assess the implications for the core region of heavy elements, where spin-orbit coupling is much stronger than the effects of external magnetic fields, and the consequences for quantum chemical calculations on heavy atoms in the vicinity of white dwarfs.

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Publication Details

Journal
Theoretical Chemistry Accounts
Published
2026-04-20
DOI
https://doi.org/10.1007/s00214-026-03288-8
Primary Topic
Nuclear physics research studies
Type
article
Field-Weighted Citation Impact
0.00

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article

The relativistic hydrogen-like atom in a finite magnetic field

Bang C. Huynh, Ansgar Pausch, Benedikt Menges, Lucas Visscher
Theoretical Chemistry Accounts
Nuclear physics research studies
article

The relativistic hydrogen-like atom in a finite magnetic field

Bang C. Huynh, Ansgar Pausch, Benedikt Menges, Lucas Visscher
article en

Abstract

Abstract This work focuses on developing an efficient numerical method to solve the relativistic hydrogen-like atom in a finite magnetic field. To this end, we derive and implement an algorithm based on Gaussian-type orbitals that exploits fermionic symmetry to accelerate the calculations and to distinguish states of different character. This is then used to investigate a novel type of mixing regime between internal and external magnetic interactions. Finally, we assess the implications for the core region of heavy elements, where spin-orbit coupling is much stronger than the effects of external magnetic fields, and the consequences for quantum chemical calculations on heavy atoms in the vicinity of white dwarfs.

Theoretical Chemistry AccountsVol. 145(5)
University of Oxford (GB), Vrije Universiteit Amsterdam (NL)
Deutsche Forschungsgemeinschaft
Openalex Percentile: Top 19%
Nuclear physics research studies
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