journal article·2024-02-01Open access

On the feed-forward neural network for analyzing pantograph equations

Emad A. Az-Zo’bi, Rasool Shah, Haifa A. Alyousef, C. G. L. Tiofack, S. A. El-Tantawy

AIP Advances· Volume 14· Issue 2

Abstract

Ordinary differential equations (ODEs) are fundamental tools for modeling and understanding a wide range of chemistry, physics, and biological phenomena. However, solving complex ODEs often presents significant challenges, necessitating advanced numerical approaches beyond traditional analytical techniques. Thus, a novel machine learning (ML)-based method for solving and analyzing ODEs is proposed in the current investigation. In this study, we utilize a feed-forward neural network (FNN) with five fully connected layers trained on data samples generated from the exact solutions of specific ODEs. To show the efficacy of our suggested method, we will conduct a thorough evaluation by comparing the anticipated solutions of the FNN with the exact solutions for some ODEs. Furthermore, we analyze the absolute error and present the loss functions for some ODE examples, providing valuable insights into the model’s performance and potential areas for further development.
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Research context

OpenAlex topics: Electrical Contact Performance and Analysis · Railway Engineering and Dynamics · Brake Systems and Friction Analysis

SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.

Affiliations

Department of Mathematics and Statistics, Mutah University 1 , Al Karak 61710, Jordan

Department of Computer Science and Mathematics, Lebanese American University 2 , P.O. Box 13-5053, Beirut, Lebanon

Department of Physics, College of Science, Princess Nourah bint Abdulrahman University 3 , P.O. Box 84428, Riyadh 11671, Saudi Arabia

Faculty of Sciences, University of Maroua 4 , P.O. Box 814, Maroua, Cameroon

Department of Physics, Faculty of Science, Port Said University 5 , Port Said 42521, Egypt

Research Center for Physics (RCP), Department of Physics, Faculty of Science and Arts, Al-Mikhwah, Al-Baha University 6 , Al-Baha 1988, Saudi Arabia

References (60)

Show source-provided references
1. The dynamics of a current collection system for an electric locomotive10.1098/rspa.1971.0078 ↗
2. Stability of the discretized pantograph differential equation10.1090/s0025-5718-1993-1176707-2 ↗
3. Solution of delay differential equations via a homotopy perturbation method10.1016/j.mcm.2007.09.016 ↗
4. The use of the decomposition procedure of Adomian for solving a delay differential equation arising in electrodynamics10.1088/0031-8949/78/06/065004 ↗
5. On the asymptotics of solutions of a class of linear functional-differential equations10.1017/s0956792500002527 ↗
6. On neutral functional-differential equations with variable time delays10.1017/s0305004198002497 ↗
7. Approximate solution of multi-pantograph equation with variable coefficients10.1016/j.cam.2007.03.024 ↗
8. A Taylor method for numerical solution of generalized pantograph equations with linear functional argument10.1016/j.cam.2005.12.015 ↗
9. Properties of analytic solution and numerical solution of multi-pantograph equation10.1016/j.amc.2003.07.017 ↗
10. Runge-Kutta methods for the multi-pantograph delay equation10.1016/j.amc.2004.02.013 ↗
11. Approximate solutions of generalized pantograph equations by the differential transform method10.1515/ijnsns.2007.8.2.159 ↗
12. The pantograph equation in the complex plane10.1006/jmaa.1997.5483 ↗
13. Geometric proofs of numerical stability for delay equations10.1093/imanum/21.1.439 ↗
14. On the stability of adaptations of Runge-Kutta methods to systems of delay differential equations10.1016/s0168-9274(96)00035-9 ↗
15. Asymptotic stability properties of θ-methods for the pantograph equation10.1016/s0168-9274(97)00026-3 ↗
16. Numerical investigation of the pantograph equation10.1016/s0168-9274(97)00028-7 ↗
17. On those ordinary differential equations that are solved exactly by the improved Euler method10.5817/am2013-1-29 ↗
18. Generalized Runge-Kutta methods of order four with stepsize control for stiff ordinary differential equations10.1007/bf01396495 ↗
19. An accurate explicit finite diference technique for solving the one-dimensional wave equation10.1002/cnm.1630020603 ↗
20. A segmented Adomian algorithm for the boundary value problem of a second-order partial differential equation on a plane triangle area10.1186/s13662-019-2329-4 ↗
21. 1993
22. 1989
23. Neural-network-based approximations for solving partial differential equations10.1002/cnm.1640100303 ↗
24. Multilayer feedforward networks are universal approximators10.1016/0893-6080(89)90020-8 ↗
25. Artificial neural networks for solving ordinary and partial differential equations10.1109/72.712178 ↗
26. Artificial neural network approach for solving fuzzy differential equations10.1016/j.ins.2009.12.016 ↗
27. Multilayer neural networks for solving a class of partial differential equations10.1016/s0893-6080(00)00013-7 ↗
28. The algorithm of neural networks on the initial value problems in ordinary differential equations
29. Solving differential equations with constructed neural networks10.1016/j.neucom.2008.12.004 ↗
30. Solving initial-boundary value problems for systems of partial differential equations using neural networks and optimization techniques10.1016/j.jfranklin.2009.05.003 ↗
31. Regression-based weight generation algorithm in neural network for solution of initial and boundary value problems10.1007/s00521-013-1526-4 ↗
32. Application of Legendre neural network for solving ordinary differential equations10.1016/j.asoc.2015.10.069 ↗
33. T. Dockhorn , “A discussion on solving partial differential equations using neural networks,” arXiv:1904.07200 (2019).
34. Solving ordinary differential equations using an optimization technique based on training improved artificial neural networks10.1007/s00500-020-05401-w ↗
35. Deep learning-based numerical methods for high-dimensional parabolic partial differential equations and backward stochastic differential equations10.1007/s40304-017-0117-6 ↗
36. Data-driven peakon and periodic peakon solutions and parameter discovery of some nonlinear dispersive equations via deep learning10.1016/j.physd.2021.133037 ↗
37. M. Raissi , P.Perdikaris, and G. E.Karniadakis, “Physics informed deep learning (part I): Data-driven solutions of nonlinear partial differential equations,” arXiv:1711.10561 (2017).
38. Solving forward and inverse problems of the logarithmic nonlinear Schrodinger equation with PT-symmetric harmonic potential via deep learning10.1016/j.physleta.2020.127010 ↗
39. Variational iteration method for solving a generalized pantograph equation10.1016/j.camwa.2009.03.017 ↗
40. Resonance simulation of the coupled nonlinear Mathieu’s equation10.1063/5.0166730 ↗
41. The Krylov–Bogoliubov–Mitropolsky method for modeling a forced damped quadratic pendulum oscillator10.1063/5.0159852 ↗
42. Novel approximations to the damped parametric driven pendulum oscillators10.1155/2023/6294798 ↗
43. Ansatz and averaging methods for modeling the (Un)Conserved complex duffing oscillators10.3390/math11092007 ↗
44. On the oscillations in a nonextensive complex plasma by improved differential transformation method: An application to a damped Duffing equation10.1177/14613484231163947 ↗
45. On the Krýlov–Bogoliúbov-Mitropólsky and multiple scales methods for analyzing a time delay Duffing–Helmholtz oscillator10.3390/sym15030715 ↗
46. Analytical approximations to a generalized forced damped complex Duffing oscillator: Multiple scales method and KBM approach10.1088/1572-9494/aca9c0 ↗
47. Galerkin method, ansatz method, and He’s frequency formulation for modeling the forced damped parametric driven pendulum oscillators10.1177/14613484221101235 ↗
48. Analytical and numerical study on forced and damped complex duffing oscillators10.3390/math10234475 ↗
49. Analytical and numerical approximations to some coupled forced damped duffing oscillators10.3390/sym14112286 ↗
50. Closed-form solutions to a forced damped rotational pendulum oscillator10.3390/math10214000 ↗
51. Approximate solution to a generalized Van der Pol equation arising in plasma oscillations10.1063/5.0103138 ↗
52. Novel approximations to the (un)forced pendulum–cart system: Ansatz and KBM methods10.3390/math10162908 ↗
53. Some novel approaches for analyzing the unforced and forced Duffing–Van der Pol oscillators10.1155/2022/2174192 ↗
54. Novel analytical and numerical approximations to the forced damped parametric driven pendulum oscillator: Chebyshev collocation method10.1155/2022/5454685 ↗
55. Some novel solutions to a quadratically damped pendulum oscillator: Analytical and numerical approximations10.1155/2022/7803798 ↗
56. Some novel analytical approximations to the (un)damped Duffing–Mathieu oscillators10.1155/2022/2715767 ↗
57. On the multistage differential transformation method for analyzing damping Duffing oscillator and its applications to plasma physics10.3390/math9040432 ↗
58. On the approximate and analytical solutions to the fifth-order Duffing oscillator and its physical applications10.1080/17455030.2021.1949072 ↗
59. Approximate analytical and numerical solutions to the damped pendulum oscillator: Newton–Raphson and moving boundary methods10.1080/16583655.2021.1989739 ↗
60. Analysis of a model representing stage-structured population growth with state-dependent time delay10.1137/0152048 ↗