Analisis Dinamik Model Respon Inflamasi Pada Paru-Paru

Muhammad Rosyid Arrofiqi, Usman Pagalay, Achmad Nasichuddin
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Abstract

This study discusses the dynamic analysis of the inflammatory response model in the lungs. Then proceed with performing numerical simulations. This study was conducted to present the inflammatory response in the lungs. In the mathematical model of the inflammatory response, there are three variables, namely (pathogen), (immune system) and (inflammation). Dynamic analysis is carried out by determining the equilibrium point, the basic reproduction number , stability analysis of the equilibrium point. The results of this study obtained a basic reproduction number . The disease-free equilibrium point is unstable and the endemic equilibrium point is unstable when the parameter values in table 4.1 are used. The results of numerical simulations show that the population of pathogens found in the body starts from the first day, which is 0.01, increases to 2.8 until the second week, decreasing constantly accompanied by the immune system in the human body so that it goes to 0 at infinity. While the immune defense population in the human body rises to 4.4 and decreases slowly and constantly following the development of pathogens in the human body accompanied by the immune system itself. And the pro-inflammatory inflammation population runs steadily at 0 to rises at 4.3 following human immune defense and falls at week 16 and continues to be consistent. The rate of inflammation follows a hyperbolic tan which is affected by when t is infinite towards . When the parameter values and are increased, the pro-inflammatory inflammation will decrease and vice versa.
肺炎症反应动态分析模型
本研究探讨了肺部炎症反应模型的动态分析。然后进行数值模拟。这项研究是为了呈现肺部的炎症反应。在炎症反应的数学模型中,有三个变量,即(病原体)、(免疫系统)和(炎症)。通过确定平衡点、基本再现数、平衡点的稳定性进行了动态分析。本研究的结果得到了一个基本的繁殖数。采用表4.1参数值时,无病平衡点不稳定,地方病平衡点不稳定。数值模拟结果表明,从第一天开始,人体中发现的病原体数量从0.01增加到2.8,直到第二周,随着人体免疫系统的不断减少,直到无限趋近于0。而人体内的免疫防御种群随着病原体在人体内的发展,伴随着免疫系统自身的发展,逐渐上升到4.4,并不断缓慢下降。促炎性炎症人群稳定地从0上升到4.3,在人体免疫防御之后,在第16周下降,并继续保持一致。炎症的速率遵循双曲曲线,当t趋于无穷大时,它受到影响。当参数值和增加时,促炎炎症减少,反之亦然。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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