Optical electromagnetic radiation density spherical geometric electric and magnetic phase by spherical antiferromagnetic model with fractional system

Authors

  • E. M. Khalil Taif University
  • T. Körpinar Mus Alparslan University
  • Z. Körpinar Mus Alparslan University
  • Mustafa Inc Firat University

DOI:

https://doi.org/10.31349/RevMexFis.67.050703

Abstract

In this article, we firstly consider a new theory of spherical electromagnetic radiation density with antiferromagnetic spin of timelike spherical t -magnetic flows by the spherical Sitter frame in de Sitter space. Thus, we construct the new relationship between the new type electric and magnetic phases and spherical timelike magnetic flows de Sitter space 2.
1 S Also, we give the applied geometric characterization for spherical electromagnetic radiation density. This concept also boosts to discover some physical and geometrical characterizations belonging to the particle. Moreover, the solution of the fractional-order systems are considered for the submitted mathematical designs. Graphical demonstrations for fractional solutions are presented to expression of the approach. The collected results illustrate that mechanism is relevant and decisive approach to recover numerical solutions of our new fractional equations. Components of performed equations are demonstrated by using approximately explicit values of physical assertions on received solutions. Finally, we construct
that electromagnetic fluid propagation along fractional optical fiber indicates an fascinating family of fractional evolution equation with diverse physical and applied geometric modelling in de Sitter space 2 1 S .

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Published

2021-09-01

How to Cite

[1]
E. M. Khalil, T. Körpinar, Z. Körpinar, and M. Inc, “Optical electromagnetic radiation density spherical geometric electric and magnetic phase by spherical antiferromagnetic model with fractional system”, Rev. Mex. Fís., vol. 67, no. 5 Sep-Oct, pp. 050703 1–15, Sep. 2021.

Issue

Section

07 Gravitation, Mathematical Physics and Field Theory