具有 Mittag-Leffler 非星核定律的 COVID-19 流行病模型的稳定性和复杂动力学分析

IF 2.4 3区 数学 Q1 MATHEMATICS Journal of Applied Mathematics and Computing Pub Date : 2024-05-07 DOI:10.1007/s12190-024-02105-4
Saba Jamil, Parvaiz Ahmad Naik, Muhammad Farman, Muhammad Umer Saleem, Abdul Hamid Ganie
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摘要

COVID-19 是社会生活、经济和国际通信领域的全球性问题和一系列社会挑战之一。为了应对疾病对社会的影响,我们在本研究中创建了一个确定性 COVID-19 模型,利用真实数据评估疾病的影响、动态传播、检疫影响和住院治疗。该模型包括分形和分形算子的广义形式。本研究旨在建立一个分形-分形数学模型,该模型适用于面临 COVID-19 情况的泰国人口的生活方式。该模型将潜伏期分为检疫期和暴露期,之后又分为住院感染期和感染期。分形-分形导数用于分析这些等级的人口动态,从而更详细地了解疫情的发展和控制措施的有效性。此外,还利用 Lipschitz 条件和定点理论确定了解的存在性和唯一性。利用模拟和 Ulam-Hyers 等函数分析工具,我们研究了分形-分数模型对各参数影响的敏感性分析。我们开发了一种基于牛顿多项式的分形-分形模型数值方案,用于计算分析和对泰国 COVID-19 实际数据稳态点的收敛求解。泰国 COVID-19 的实际数据验证了所研究的分数阶模型,证明了所建议的范式在预测和理解疫情动态方面的潜力。此外,分形分阶导数产生了一系列混沌行为,显示了该物种如何随地点和时间发生变化。分形分阶流行病学模型可能有助于预测和理解 COVID-19 大流行病的进程,并提供相关的管理方法。
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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Stability and complex dynamical analysis of COVID-19 epidemic model with non-singular kernel of Mittag-Leffler law

One of the global problems and a number of societal challenges in the areas of social life, the economy, and international communications is COVID-19. In order to counteract the impact of sickness on society, we created a deterministic COVID-19 model in this study that uses real data to assess the impact of disease, dynamical transmission, quarantine impact, and hospitalized treatment. The model includes a generalized form of the fractal and fractional operator. This study aims to develop a fractal-fractional mathematical model suitable for the lifestyle of the Thai population facing the COVID-19 situation. The model divides the incubation period into the quarantine class and the exposed class, which later moved to the hospitalized infected class and the infected class. The fractal-fractional derivative is used to analyze the dynamics of the population in these classes, providing a more detailed understanding of the epidemic’s progression and the effectiveness of control measures. The existence and uniqueness of the solution were also determined with the Lipschitz condition and fixed point theory. With the use of simulations and functional analysis tools like Ulam-Hyers, we examine the sensitivity analysis of the fractal-fractional model with respect to each parameter effect. We develop a numerical scheme for the fractal-fractional model based on Newton polynomial for computational analysis and convergence solution to steady-state points of real data COVID-19 in Thailand. The verification of the examined fractional-order model with actual COVID-19 data for Thailand demonstrates the potential of the suggested paradigm in forecasting and comprehending the dynamics of the pandemic. Furthermore, the fractal fractional-order derivative gives rise to a range of chaotic behaviors that show how the species has changed over place and time. Fractional-order epidemiological models may help predict and understand the course of the COVID-19 pandemic and provide relevant management approaches.

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来源期刊
Journal of Applied Mathematics and Computing
Journal of Applied Mathematics and Computing Mathematics-Computational Mathematics
CiteScore
4.20
自引率
4.50%
发文量
131
期刊介绍: JAMC is a broad based journal covering all branches of computational or applied mathematics with special encouragement to researchers in theoretical computer science and mathematical computing. Major areas, such as numerical analysis, discrete optimization, linear and nonlinear programming, theory of computation, control theory, theory of algorithms, computational logic, applied combinatorics, coding theory, cryptograhics, fuzzy theory with applications, differential equations with applications are all included. A large variety of scientific problems also necessarily involve Algebra, Analysis, Geometry, Probability and Statistics and so on. The journal welcomes research papers in all branches of mathematics which have some bearing on the application to scientific problems, including papers in the areas of Actuarial Science, Mathematical Biology, Mathematical Economics and Finance.
期刊最新文献
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