Case analysis Numerical solution of differential equations with uncertainty and applications

Main Article Content

Azorín Penalva Ainhoa
Jorge Luis Yaulema Castañeda

Abstract

Introduction: For the solution of problems that need to be solved exactly. whose solution must be treated by means of numerical methods Objective: The present investigation aims to carry out a study of the numerical methods of Euler and Runge Kutta in order to make an approximation to the solution of random differential equations which use the calculus stochastic referring to the mean square. Methodology: Within the development process, Euler's methodology is analyzed in the first instance within the scalar case and later it is dimensioned to matrix problems, Results: obtaining an analysis of the application of numerical methods to the study of an electrical circuit which is develops with random noise, in the specific case of characteristic and irregular white noises they lead to other types of differential equations with a certain degree of uncertainty called stochastic differential equations. Conclusion: The Euler scheme allows us to conclude that the slow convergence and the restriction aspect of its region of absolute stability allows us to consider other methods where the convergence is greater, thus proposing an additional study of the Runge-Kutta random scheme, being a method superior to that of Euler for which its global order of convergence is fourth.

Downloads

Download data is not yet available.

Article Details

How to Cite
Penalva Ainhoa, A., & Yaulema Castañeda, J. L. (2021). Case analysis Numerical solution of differential equations with uncertainty and applications. ConcienciaDigital, 4(3.1), 253-272. https://doi.org/10.33262/concienciadigital.v4i3.1.1828
Section
Artículos

References

Aldana, S., Vereda, F., Hidalgo-Alvarez, R., & de Vicente, J. (2016). Facile synthesis of magnetic microfibers by directed selfassembly. Polymer, 93, 61-64.
Azor, Ainhoa, Juan Carlos Cort, Dolores Rosell, Ster E. N. Investigaci, and Tica Septiembre. 2020. “Solución Numérica de Ecuaciones Diferenciales Con Incertidumbre y Aplicaciones.”
Azorín Penalva, A. (2020). Solución numérica de ecuaciones diferenciales con incertidumbre y aplicaciones.
Bossis, G., Marins, J., Kuzhir, P., Volkova, O., & Zubarev, A. (2015). Functionalized
Cortés, J., Jódar L., y Villafuerte L., (2007). Numerical solution of random differential equations: a mean square approach. Math Comput. Model. 45, 757-765.
Henrici, P., (1962). Discrete Variable Methods in Ordinary Differential Equations. John Wiley and Sons, New York.
Lecca, E. R., & Puente, M. M. (2006). Aplicaciones computacionales de las ecuaciones diferenciales estocásticas. Industrial Data, 9(1), 64-75.
Oksendal, B., (1998). Stochastic Differential Equations: An Introduction with Applications. Springer, New York, 5th edn.
Khodabin M y Rostami M., (2015). Mean square numerical solution of stochastic differential equations by fourth order Runge-Kutta method and its application in the electric circuits with noise. Advances in Difference Equations, 62, 1-19. [2] L.
Villafuerte A (2007). Numerical and Analytical Mean Square Solutions for Random Differential Models. Tesis Doctoral, Universidad Politécnica de Valencia
Seminario, Ricardo. 2012. “Metodos Númericos Para Ingenieria.” Libro 69.
Soong, T., (1973). Random Diferential Equations in Science and Engeneering. Academic Press, New York.

Most read articles by the same author(s)