Generating tailored high frequency features in core collapse supernova gravitational wave signals applicable in LIGO interferometric studies

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Main Authors: Tiznado, César, Casallas-Lagos, Alejandro, Antelis, Javier M., Moreno, Claudia
Format: Preprint
Published: 2024
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author Tiznado, César
Casallas-Lagos, Alejandro
Antelis, Javier M.
Moreno, Claudia
author_facet Tiznado, César
Casallas-Lagos, Alejandro
Antelis, Javier M.
Moreno, Claudia
contents In this article, we introduce a methodology based on an analytical model of a damped harmonic oscillator subject to random forcing to generate transient gravitational wave signals. Such a model incorporates a simulated linear high-frequency component that mirrors the growing characteristic frequency over time observed in numerical simulations of core-collapse supernova gravitational wave signals. Unlike traditional numerical simulations, the method proposed in this study requires minimal computational resources, which makes it particularly advantageous for tasks such as data analysis, detection, and reconstruction of gravitational wave transients. To verify the physical accuracy of the generated signals, they are compared against the amplitude spectral of current LIGO interferometers and a 3D numerical simulation of a core-collapse supernova gravitational wave signal from the Andresen et al. 2017 model s15.nr. The results indicate that this approach is effective in generating scalable signals that align with LIGO interferometric data, offering potential utility in various gravitational wave transient investigations.
format Preprint
id arxiv_https___arxiv_org_abs_2407_02696
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Generating tailored high frequency features in core collapse supernova gravitational wave signals applicable in LIGO interferometric studies
Tiznado, César
Casallas-Lagos, Alejandro
Antelis, Javier M.
Moreno, Claudia
General Relativity and Quantum Cosmology
In this article, we introduce a methodology based on an analytical model of a damped harmonic oscillator subject to random forcing to generate transient gravitational wave signals. Such a model incorporates a simulated linear high-frequency component that mirrors the growing characteristic frequency over time observed in numerical simulations of core-collapse supernova gravitational wave signals. Unlike traditional numerical simulations, the method proposed in this study requires minimal computational resources, which makes it particularly advantageous for tasks such as data analysis, detection, and reconstruction of gravitational wave transients. To verify the physical accuracy of the generated signals, they are compared against the amplitude spectral of current LIGO interferometers and a 3D numerical simulation of a core-collapse supernova gravitational wave signal from the Andresen et al. 2017 model s15.nr. The results indicate that this approach is effective in generating scalable signals that align with LIGO interferometric data, offering potential utility in various gravitational wave transient investigations.
title Generating tailored high frequency features in core collapse supernova gravitational wave signals applicable in LIGO interferometric studies
topic General Relativity and Quantum Cosmology
url https://arxiv.org/abs/2407.02696