Computational Modeling of Astrophysical Systems

This research project focuses on the computational modeling of astrophysical systems using Femap with NX Nastran. The goal was to simulate and analyze the vibrational behavior and structural deformation of celestial bodies under different material compositions and collision conditions. Materials such as iron, granite, titanium, and models for white dwarf stars were used to investigate how varying physical properties affect the systems' dynamic responses. Both isotropic and anisotropic models were created to represent realistic astrophysical materials. Through static and modal analyses, the study explored how internal structure and material stiffness influence the reaction of celestial objects to applied forces and collisions. The findings provide insight into the fundamental physics governing star-like systems, offering a deeper understanding of how material properties impact deformation and vibrational modes during astrophysical events.

Publication Details

Journal
Digital Commons - Longwood (Longwood University)
Published
2025-04-01
Primary Topic
Astronomy and Astrophysical Research
Type
article
Field-Weighted Citation Impact
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article

Computational Modeling of Astrophysical Systems

Digital Commons - Longwood (Longwood University)
Astronomy and Astrophysical Research
article

Computational Modeling of Astrophysical Systems

article en

Abstract

This research project focuses on the computational modeling of astrophysical systems using Femap with NX Nastran. The goal was to simulate and analyze the vibrational behavior and structural deformation of celestial bodies under different material compositions and collision conditions. Materials such as iron, granite, titanium, and models for white dwarf stars were used to investigate how varying physical properties affect the systems' dynamic responses. Both isotropic and anisotropic models were created to represent realistic astrophysical materials. Through static and modal analyses, the study explored how internal structure and material stiffness influence the reaction of celestial objects to applied forces and collisions. The findings provide insight into the fundamental physics governing star-like systems, offering a deeper understanding of how material properties impact deformation and vibrational modes during astrophysical events.

Digital Commons - Longwood (Longwood University)
Openalex Percentile: Top 50%
Astronomy and Astrophysical Research
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