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Using numerical methods from nonlocal optics to simulate the dynamics of N-body systems in alternative theories of gravity

Title
Using numerical methods from nonlocal optics to simulate the dynamics of N-body systems in alternative theories of gravity
Type
Article in International Scientific Journal
Year
2020
Authors
Ferreira, TD
(Author)
Other
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Silva, NA
(Author)
Other
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Bertolami, O
(Author)
FCUP
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Gomes, C
(Author)
FCUP
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Guerreiro, A
(Author)
FCUP
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Journal
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Title: PHYSICAL REVIEW EImported from Authenticus Search for Journal Publications
Vol. 101
ISSN: 2470-0045
Other information
Authenticus ID: P-00R-MZS
Abstract (EN): The generalized Schrodinger-Newton system of equations with both local and nonlocal nonlinearities is widely used to describe light propagating in nonlinear media under the paraxial approximation. However, its use is not limited to optical systems and can be found to describe a plethora of different physical phenomena, for example, dark matter or alternative theories for gravity. Thus, the numerical solvers developed for studying light propagating under this model can be adapted to address these other phenomena. Indeed, in this work we report the development of a solver for the HiLight simulations platform based on GPGPU supercomputing and the required adaptations for this solver to be used to test the impact of new extensions of the Theory of General Relativity in the dynamics of the systems. In this work we shall analyze theories with nonminimal coupling between curvature and matter. This approach in the study of these new models offers a quick way to validate them since their analytical analysis is difficult. The simulation module, its performance, and some preliminary tests are presented in this paper.
Language: English
Type (Professor's evaluation): Scientific
No. of pages: 5
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