Soliton outcomes and dynamical properties of the fractional Phi-4 equation

This paper uses the unified solver process to acquire soliton outcomes for the fractional Phi-4 model. The dynamic characteristic of the governing model is investigated for its planar dynamical system by applying the bifurcation method. Under the given parameters, 2D and 3D phase portraits, time series, return map, Lyapunov exponent, recurrence plot, strange attractor, bifurcation diagram, and fractal dimension plot are provided. These plots show the periodic, quasi-periodic, and chaotic nature of the suggested nonlinear problem. Moreover, the sensitivity and multistability assessments of the stated model are studied for a clear understanding of chaotic behavior. To understand the system’s long-term behavior, we also test the stability of our results. Our results agree with previous results and may help researchers better understand the behavior of nonlinear systems. Furthermore, other fields such as biology, economics, and engineering can apply our results.

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Publication Details

Journal
AIP Advances
Published
2025-01-01
DOI
https://doi.org/10.1063/5.0245261
Citations
26
Primary Topic
Nonlinear Waves and Solitons
Type
article
Field-Weighted Citation Impact
34.41
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article

Soliton outcomes and dynamical properties of the fractional Phi-4 equation

Md Mostafa, Mohammad Safi Ullah
26 citations
AIP Advances
Nonlinear Waves and Solitons
34.41
article

Soliton outcomes and dynamical properties of the fractional Phi-4 equation

Md Mostafa, Mohammad Safi Ullah
article en
26 citations

Abstract

This paper uses the unified solver process to acquire soliton outcomes for the fractional Phi-4 model. The dynamic characteristic of the governing model is investigated for its planar dynamical system by applying the bifurcation method. Under the given parameters, 2D and 3D phase portraits, time series, return map, Lyapunov exponent, recurrence plot, strange attractor, bifurcation diagram, and fractal dimension plot are provided. These plots show the periodic, quasi-periodic, and chaotic nature of the suggested nonlinear problem. Moreover, the sensitivity and multistability assessments of the stated model are studied for a clear understanding of chaotic behavior. To understand the system’s long-term behavior, we also test the stability of our results. Our results agree with previous results and may help researchers better understand the behavior of nonlinear systems. Furthermore, other fields such as biology, economics, and engineering can apply our results.

AIP AdvancesVol. 15(1)
Comilla University (BD)
Openalex Percentile: Top 0%
Nonlinear Waves and Solitons
34.41
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