Application of Modified Laplace Variational Iteration Hybrid Approach for Solving Time‐Fractional Fourth‐Order Parabolic PDEs

The current study is aimed at obtaining analytical solutions of fourth‐order parabolic partial differential equations of time‐fractional derivative with variable coefficients. The modified Laplace variational iteration approach and the homotopy perturbation method were used to treat nonlinear, fourth‐order, time‐fractional partial differential equations with time‐fractional derivatives. This approach is essential for specifying the Lagrange multiplier without applying integration or convolution methods via recurrence relations. Ultimately, we observed that the method employed for tackling fractional‐order partial differential equations is more precise, simple, and computationally efficient. Three significant illustrative instances are solved to validate the suggested approach. In summary, various fractional‐order partial differential equations can be solved using the current method, which is a simple and precise analytical approach.

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Publication Details

Journal
Journal of Applied Mathematics
Published
2025-01-01
DOI
https://doi.org/10.1155/jama/5566075
Primary Topic
Fractional Differential Equations Solutions
Type
article
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article

Application of Modified Laplace Variational Iteration Hybrid Approach for Solving Time‐Fractional Fourth‐Order Parabolic PDEs

Xiaoming Zhang, Mehari Fentahun Endalew
Journal of Applied Mathematics
Fractional Differential Equations Solutions
article

Application of Modified Laplace Variational Iteration Hybrid Approach for Solving Time‐Fractional Fourth‐Order Parabolic PDEs

Xiaoming Zhang, Mehari Fentahun Endalew
article en

Abstract

The current study is aimed at obtaining analytical solutions of fourth‐order parabolic partial differential equations of time‐fractional derivative with variable coefficients. The modified Laplace variational iteration approach and the homotopy perturbation method were used to treat nonlinear, fourth‐order, time‐fractional partial differential equations with time‐fractional derivatives. This approach is essential for specifying the Lagrange multiplier without applying integration or convolution methods via recurrence relations. Ultimately, we observed that the method employed for tackling fractional‐order partial differential equations is more precise, simple, and computationally efficient. Three significant illustrative instances are solved to validate the suggested approach. In summary, various fractional‐order partial differential equations can be solved using the current method, which is a simple and precise analytical approach.

Journal of Applied MathematicsVol. 2025(1)
Chinese Mathematical Society (CN), Debre Tabor University (ET), Institute of Mathematical Sciences (ES)
Openalex Percentile: Top 79%
Fractional Differential Equations Solutions
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