Third-Order Pseudo-Hyperbolic Model Equation with Mixed Boundary Constraints: Solving the Inverse Problem

This research explores an inverse boundary value problem associated with a third-order pseudo-hyperbolic differential equation, in which the temporal component of the equation’s right-hand side remains unidentified. The problem is subject to both periodic and integral boundary conditions. To facilitate analysis, the original formulation is transformed into an equivalent auxiliary problem. The Fourier approach is employed to rigorously demonstrate both the existence and uniqueness of solutions to the associated auxiliary problem. Additionally, the third-order pseudo-hyperbolic equation undergoes discretization using the cubic B-spline (CB-spline) collocation procedure, and is subsequently transformed into a nonlinear least-squares optimization framework incorporating the Tikhonov regularization functional. The obtained system is numerically solved using MATLAB’s lsqnonlin subroutine. Numerical findings from a test case are provided and interpreted to validate the approach.

Authors

Publication Details

Journal
International Journal of Modern Physics C
Published
2026-04-17
DOI
https://doi.org/10.1142/s0129183127500884
Primary Topic
Numerical methods in inverse problems
Type
article
Field-Weighted Citation Impact
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article

Third-Order Pseudo-Hyperbolic Model Equation with Mixed Boundary Constraints: Solving the Inverse Problem

Y.T. Mehraliyev, M.J. Huntul, P. Sadikhzada, Mohammad Izadi et al.
International Journal of Modern Physics C
Numerical methods in inverse problems
article

Third-Order Pseudo-Hyperbolic Model Equation with Mixed Boundary Constraints: Solving the Inverse Problem

Y.T. Mehraliyev, M.J. Huntul, P. Sadikhzada, Mohammad Izadi, M. Tamsir
article en

Abstract

This research explores an inverse boundary value problem associated with a third-order pseudo-hyperbolic differential equation, in which the temporal component of the equation’s right-hand side remains unidentified. The problem is subject to both periodic and integral boundary conditions. To facilitate analysis, the original formulation is transformed into an equivalent auxiliary problem. The Fourier approach is employed to rigorously demonstrate both the existence and uniqueness of solutions to the associated auxiliary problem. Additionally, the third-order pseudo-hyperbolic equation undergoes discretization using the cubic B-spline (CB-spline) collocation procedure, and is subsequently transformed into a nonlinear least-squares optimization framework incorporating the Tikhonov regularization functional. The obtained system is numerically solved using MATLAB’s lsqnonlin subroutine. Numerical findings from a test case are provided and interpreted to validate the approach.

International Journal of Modern Physics C
Openalex Percentile: Top 4%
Numerical methods in inverse problems
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