A novel numerical approach for solving delay differential equations arising in population dynamics

In this paper, the initial-value problem for a class of first order delay differential equations, which emerges as a model for population dynamics, is considered. To solve this problem numerically, using the finite difference method including interpolating quadrature rules with the basis functions,...

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Main Authors: Tugba Obut, Erkan Cimen, Musa Cakir
Format: Article
Language:English
Published: AIMS Press 2023-09-01
Series:Mathematical Modelling and Control
Subjects:
Online Access:https://www.aimspress.com/article/doi/10.3934/mmc.2023020?viewType=HTML
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author Tugba Obut
Erkan Cimen
Musa Cakir
author_facet Tugba Obut
Erkan Cimen
Musa Cakir
author_sort Tugba Obut
collection DOAJ
description In this paper, the initial-value problem for a class of first order delay differential equations, which emerges as a model for population dynamics, is considered. To solve this problem numerically, using the finite difference method including interpolating quadrature rules with the basis functions, we construct a fitted difference scheme on a uniform mesh. Although this scheme has the same rate of convergence, it has more efficiency and accuracy compared to the classical Euler scheme. The different models, Nicolson's blowfly and Mackey–Glass models, in population dynamics are solved by using the proposed method and the classical Euler method. The numerical results obtained from here show that the proposed method is reliable, efficient, and accurate.
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spelling doaj.art-727f5feb795f4005aeaaae483f2069242024-01-03T01:24:12ZengAIMS PressMathematical Modelling and Control2767-89462023-09-013323324310.3934/mmc.2023020A novel numerical approach for solving delay differential equations arising in population dynamicsTugba Obut0Erkan Cimen1Musa Cakir21. Department of Mathematics, Institute of Sciences, Van Yuzuncu Yil University, Van, 65080, Turkey2. Department of Mathematics, Faculty of Education, Van Yuzuncu Yil University, Van, 65080, Turkey3. Department of Mathematics, Faculty of Sciences, Van Yuzuncu Yil University, Van, 65080, TurkeyIn this paper, the initial-value problem for a class of first order delay differential equations, which emerges as a model for population dynamics, is considered. To solve this problem numerically, using the finite difference method including interpolating quadrature rules with the basis functions, we construct a fitted difference scheme on a uniform mesh. Although this scheme has the same rate of convergence, it has more efficiency and accuracy compared to the classical Euler scheme. The different models, Nicolson's blowfly and Mackey–Glass models, in population dynamics are solved by using the proposed method and the classical Euler method. The numerical results obtained from here show that the proposed method is reliable, efficient, and accurate.https://www.aimspress.com/article/doi/10.3934/mmc.2023020?viewType=HTMLdelay differential equationfinite difference methodconvergence
spellingShingle Tugba Obut
Erkan Cimen
Musa Cakir
A novel numerical approach for solving delay differential equations arising in population dynamics
Mathematical Modelling and Control
delay differential equation
finite difference method
convergence
title A novel numerical approach for solving delay differential equations arising in population dynamics
title_full A novel numerical approach for solving delay differential equations arising in population dynamics
title_fullStr A novel numerical approach for solving delay differential equations arising in population dynamics
title_full_unstemmed A novel numerical approach for solving delay differential equations arising in population dynamics
title_short A novel numerical approach for solving delay differential equations arising in population dynamics
title_sort novel numerical approach for solving delay differential equations arising in population dynamics
topic delay differential equation
finite difference method
convergence
url https://www.aimspress.com/article/doi/10.3934/mmc.2023020?viewType=HTML
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