Fractional dynamics and optical soliton propagation in mono-mode fibers via the Fokas system

The research investigates pulse propagation through mono-mode optical fibers using the fractional Fokas system by integrating the conformable fractional calculus with the generalized Riccati-Bernoulli sub-ODE method along with Bäcklund transformation. The figures demonstrate perturb kink soliton profiles using 2D plots for fractional-order parameter ($$\alpha$$) together with 3D plots for integer-order conditions to depict the solutions dynamic nature. The model demonstrates its physical operation range through different initial condition analyses which increases its potential for widespread application. The derived solutions demonstrate the ability of the combined approach to be an effective mathematical methodology that addresses various types of nonlinear wave phenomena. The optical solitons enable researchers to study energy transport and diffusion mechanisms in fractional-order systems specifically regarding pulse propagation in optical communication networks.

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Publication Details

Journal
Scientific Reports
Published
2026-02-16
DOI
https://doi.org/10.1038/s41598-026-39656-4
Primary Topic
Fractional Differential Equations Solutions
Type
article
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article

Fractional dynamics and optical soliton propagation in mono-mode fibers via the Fokas system

Noor Alam, Naveed Iqbal, Ahmed A. Hamoud, Musaad S. Aldhabani et al.
Scientific Reports
Fractional Differential Equations Solutions
article

Fractional dynamics and optical soliton propagation in mono-mode fibers via the Fokas system

Noor Alam, Naveed Iqbal, Ahmed A. Hamoud, Musaad S. Aldhabani, Wael W. Mohammed, Amjad E. Hamza
article en

Abstract

The research investigates pulse propagation through mono-mode optical fibers using the fractional Fokas system by integrating the conformable fractional calculus with the generalized Riccati-Bernoulli sub-ODE method along with Bäcklund transformation. The figures demonstrate perturb kink soliton profiles using 2D plots for fractional-order parameter ($$\alpha$$) together with 3D plots for integer-order conditions to depict the solutions dynamic nature. The model demonstrates its physical operation range through different initial condition analyses which increases its potential for widespread application. The derived solutions demonstrate the ability of the combined approach to be an effective mathematical methodology that addresses various types of nonlinear wave phenomena. The optical solitons enable researchers to study energy transport and diffusion mechanisms in fractional-order systems specifically regarding pulse propagation in optical communication networks.

Scientific ReportsVol. 16(1)
Taiz University (YE), University of Ha'il (SA), University of Tabuk (SA)
Affordable and clean energy
Openalex Percentile: Top 57%
Fractional Differential Equations Solutions
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