¹³C and ¹⁹F nucleus–electron correlation and self-energies

We present a theoretical and numerical study of the correlation between electrons and the fermionic 13 C and 19 F nuclei. We use the randomphase approximation (RPA) as a valuable tool in obtaining these correlation energies. A special connection between the RPA and second-order perturbation theory for the inter-fermionic interaction is outlined. Subsequently, Green’s function-based GW self-energies are evaluated for the nuclear densities. The strong influence of self-interaction errors is demonstrated, and vertex corrections are shown to be strictly necessary to obtain reasonable results. The theoretical and technical requirements for a quantum mechanical treatment of 13 C and 19 F nuclei are also addressed in this study, thereby facilitating further research in this area

Authors

Publication Details

Journal
KITopen
Published
2026-09-28
DOI
https://doi.org/10.5445/ir/1000197323
Primary Topic
Nuclear physics research studies
Type
article
Field-Weighted Citation Impact
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article

¹³C and ¹⁹F nucleus–electron correlation and self-energies

Christof Holzer, Janina Vohdin
KITopen
Nuclear physics research studies
article

¹³C and ¹⁹F nucleus–electron correlation and self-energies

Christof Holzer, Janina Vohdin
article en

Abstract

We present a theoretical and numerical study of the correlation between electrons and the fermionic 13 C and 19 F nuclei. We use the randomphase approximation (RPA) as a valuable tool in obtaining these correlation energies. A special connection between the RPA and second-order perturbation theory for the inter-fermionic interaction is outlined. Subsequently, Green’s function-based GW self-energies are evaluated for the nuclear densities. The strong influence of self-interaction errors is demonstrated, and vertex corrections are shown to be strictly necessary to obtain reasonable results. The theoretical and technical requirements for a quantum mechanical treatment of 13 C and 19 F nuclei are also addressed in this study, thereby facilitating further research in this area

KITopen
Openalex Percentile: Top 13%
Nuclear physics research studies
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