An agent-based multi-level model to study the spread of gonorrhea in different and interacting risk groups

IF 1.3 Q3 MATHEMATICS, INTERDISCIPLINARY APPLICATIONS Frontiers in Applied Mathematics and Statistics Pub Date : 2023-10-13 DOI:10.3389/fams.2023.1241538
Paola Stolfi, Davide Vergni, Filippo Castiglione
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Abstract

Introduction Mathematical modeling has emerged as a crucial component in understanding the epidemiology of infectious diseases. In fact, contemporary surveillance efforts for epidemic or endemic infections heavily rely on mathematical and computational methods. This study presents a novel agent-based multi-level model that depicts the transmission dynamics of gonorrhea, a sexually transmitted infection (STI) caused by the bacterium Neisseria gonorrhoeae . This infection poses a significant public health challenge as it is endemic in numerous countries, and each year sees millions of new cases, including a concerning number of drug-resistant cases commonly referred to as gonorrhea superbugs or super gonorrhea. These drug-resistant strains exhibit a high level of resistance to recommended antibiotic treatments. Methods The proposed model incorporates a multi-layer network of agents' interaction representing the dynamics of sexual partnerships. It also encompasses a transmission model, which quantifies the probability of infection during sexual intercourse, and a within-host model, which captures the immune activation following gonorrhea infection in an individual. It is a combination of agent-based modeling, which effectively captures interactions among various risk groups, and probabilistic modeling, which enables a theoretical exploration of sexual network characteristics and contagion dynamics. Results Numerical simulations of the dynamics of gonorrhea infection using the complete agent-based model are carried out. In particular, some examples of possible epidemic evolution are presented together with an application to a real case study. The goal was to construct a virtual population that closely resembles the target population of interest. Discussion The uniqueness of this research lies in its objective to accurately depict the influence of distinct sexual risk groups and their interaction on the prevalence of gonorrhea. The proposed model, having interpretable and measurable parameters from epidemiological data, facilitates a more comprehensive understanding of the disease evolution.
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一个基于agent的多层模型,用于研究淋病在不同和相互作用的风险群体中的传播
数学建模已经成为理解传染病流行病学的一个重要组成部分。事实上,当代对流行病或地方性感染的监测工作严重依赖于数学和计算方法。本研究提出了一种新的基于agent的多层模型,描述了淋病的传播动力学,淋病是一种由淋病奈瑟菌引起的性传播感染(STI)。这种感染对公共卫生构成重大挑战,因为它在许多国家流行,每年出现数百万新病例,包括通常被称为淋病超级细菌或超级淋病的相当数量的耐药病例。这些耐药菌株对推荐的抗生素治疗表现出高度的耐药性。方法提出的模型结合了一个多层代理互动网络,代表了性伙伴关系的动态。它还包括一个传播模型,量化性交期间感染的可能性,以及一个宿主内模型,捕捉个体感染淋病后的免疫激活。它结合了基于agent的建模和概率建模,前者可以有效地捕捉各种风险群体之间的相互作用,后者可以从理论上探索性网络特征和传染动力学。结果采用基于完全主体的模型对淋病感染动力学进行了数值模拟。特别是,提出了一些可能的流行病演变的例子,并将其应用于实际案例研究。目标是构建一个与感兴趣的目标种群非常相似的虚拟种群。本研究的独特之处在于其目的是准确描述不同的性风险群体及其相互作用对淋病流行的影响。该模型具有可解释和可测量的流行病学数据参数,有助于更全面地了解疾病演变。
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来源期刊
Frontiers in Applied Mathematics and Statistics
Frontiers in Applied Mathematics and Statistics Mathematics-Statistics and Probability
CiteScore
1.90
自引率
7.10%
发文量
117
审稿时长
14 weeks
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