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| Main Authors: | , , , , , , , , , , , , |
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| Format: | Preprint |
| Published: |
2025
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| Subjects: | |
| Online Access: | https://arxiv.org/abs/2506.20434 |
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| _version_ | 1866914388973191168 |
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| author | Margueron, Jérôme Drischler, Christian Dutra, Mariana Gandolfi, Stefano Gezerlis, Alexandros Grams, Guilherme Guillot, Sébastien Kumar, Rohit Lalit, Sudhanva Lourenço, Odilon Somasundaram, Rahul Tews, Ingo Vidaña, Isaac |
| author_facet | Margueron, Jérôme Drischler, Christian Dutra, Mariana Gandolfi, Stefano Gezerlis, Alexandros Grams, Guilherme Guillot, Sébastien Kumar, Rohit Lalit, Sudhanva Lourenço, Odilon Somasundaram, Rahul Tews, Ingo Vidaña, Isaac |
| contents | Systematic comparisons across theoretical predictions for the properties of dense matter, nuclear physics data, and astrophysical observations (also called meta-analyses) are performed. Existing predictions for symmetric nuclear and neutron matter properties are considered, and they are shown in this paper as an illustration of the present knowledge. Asymmetric matter is constructed assuming the isospin asymmetry quadratic approximation. It is employed to predict the pressure at twice saturation energy-density based only on nuclear-physics constraints, and we find it compatible with the one from the gravitational-wave community. To make our meta-analysis transparent, updated in the future, and to publicly share our results, the Python toolkit \texttt{nucleardatapy} is described and released here. Hence, this paper accompanies \texttt{nucleardatapy}, which simplifies access to nuclear-physics data, including theoretical calculations, experimental measurements, and astrophysical observations. This Python toolkit is designed to easily provide data for: i) predictions for uniform matter (from microscopic or phenomenological approaches); ii) correlation among nuclear properties induced by experimental and theoretical constraints; iii) measurements for finite nuclei (nuclear chart, charge radii, neutron skins or nuclear incompressibilities, etc.) and hypernuclei (single particle energies); and iv) astrophysical observations. This toolkit provides data in a unified format for easy comparison and provides new meta-analysis tools. It will be continuously developed, and we expect contributions from the community in our endeavor. |
| format | Preprint |
| id |
arxiv_https___arxiv_org_abs_2506_20434 |
| institution | arXiv |
| publishDate | 2025 |
| record_format | arxiv |
| spellingShingle | The nucleardatapy toolkit for simple access to experimental nuclear data, astrophysical observations, and theoretical predictions Margueron, Jérôme Drischler, Christian Dutra, Mariana Gandolfi, Stefano Gezerlis, Alexandros Grams, Guilherme Guillot, Sébastien Kumar, Rohit Lalit, Sudhanva Lourenço, Odilon Somasundaram, Rahul Tews, Ingo Vidaña, Isaac Nuclear Theory Systematic comparisons across theoretical predictions for the properties of dense matter, nuclear physics data, and astrophysical observations (also called meta-analyses) are performed. Existing predictions for symmetric nuclear and neutron matter properties are considered, and they are shown in this paper as an illustration of the present knowledge. Asymmetric matter is constructed assuming the isospin asymmetry quadratic approximation. It is employed to predict the pressure at twice saturation energy-density based only on nuclear-physics constraints, and we find it compatible with the one from the gravitational-wave community. To make our meta-analysis transparent, updated in the future, and to publicly share our results, the Python toolkit \texttt{nucleardatapy} is described and released here. Hence, this paper accompanies \texttt{nucleardatapy}, which simplifies access to nuclear-physics data, including theoretical calculations, experimental measurements, and astrophysical observations. This Python toolkit is designed to easily provide data for: i) predictions for uniform matter (from microscopic or phenomenological approaches); ii) correlation among nuclear properties induced by experimental and theoretical constraints; iii) measurements for finite nuclei (nuclear chart, charge radii, neutron skins or nuclear incompressibilities, etc.) and hypernuclei (single particle energies); and iv) astrophysical observations. This toolkit provides data in a unified format for easy comparison and provides new meta-analysis tools. It will be continuously developed, and we expect contributions from the community in our endeavor. |
| title | The nucleardatapy toolkit for simple access to experimental nuclear data, astrophysical observations, and theoretical predictions |
| topic | Nuclear Theory |
| url | https://arxiv.org/abs/2506.20434 |