秘鲁阿雷基帕El Pedregal犬媒狂犬病暴发的基因组特征

IF 3.4 2区 医学 Q1 PARASITOLOGY
Renzo Salazar, Kirstyn Brunker, Elvis W Díaz, Edith Zegarra, Ynes Monroy, Gorky N Baldarrago, Katty Borrini-Mayorí, Micaela De la Puente-León, Natasha Palmalux, Jenna Nichols, Sandeep Kasaragod, Michael Z Levy, Katie Hampson, Ricardo Castillo-Neyra
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引用次数: 0

摘要

背景:狂犬病是一种重新出现的人畜共患病,已知人间病死率最高。除了在玻利维亚边境的普诺地区出现地方性流行和2015年在阿雷基帕市再次出现并持续存在外,秘鲁基本上没有狂犬病。2021年,在阿雷基帕附近迅速扩张的埃尔佩德雷加尔市爆发了疫情,随后在近一年的流行病学沉默之后,2022年出现了更多病例。虽然目前已得到控制,但关于El Pedregal疫情的起源和对秘鲁维持狂犬病控制的影响的问题仍然存在。方法:利用纳米孔测序技术对秘鲁El Pedregal (n=11)和Arequipa City (n=14) 2021-2023年爆发的25只犬狂犬病毒(RABV)基因组进行测序。在英国使用Illumina方法对Puno (n=4, 2010-2012)和Arequipa (n=5, 2015-2019)的历史基因组进行测序。总共生成了34个RABV基因组,包括存档和新获得的样本。对这些基因组进行了系统发育分析,以了解疫情的背景和起源。结果:系统基因组分析确定了El Pedregal的两个遗传集群:2021例病例源于与Arequipa病例无关的单一引进,而2022序列表明来自Arequipa的新引进而不是持久性。在拉丁美洲犬RABV多样性方面,所有新序列都属于新的小分支Cosmopolitan Am5,在玻利维亚、阿根廷和巴西有共同的亲缘关系。结论:对El Pedregal爆发的基因组见解揭示了在2年的窗口中多次引入。包括移徙工人模式在内的生态流行病学条件表明,人类介导的迁徙推动了物种引进。尽管疫情得到遏制,但由于在阿雷基帕、普诺和玻利维亚持续传播,El Pedregal仍有犬媒狂犬病的风险。在秘鲁,人介导的犬类活动是狂犬病再次出现的主要风险,危及犬类介导的区域性狂犬病控制。需要额外的序列数据进行全面的系统发育分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Genomic characterization of a dog-mediated rabies outbreak in El Pedregal, Arequipa, Peru.

Background: Rabies, a re-emerging zoonosis with the highest known human case fatality rate, has been largely absent from Peru, except for endemic circulation in the Puno region on the Bolivian border and re-emergence in Arequipa City in 2015, where it has persisted. In 2021, an outbreak occurred in the rapidly expanding city of El Pedregal near Arequipa, followed by more cases in 2022 after nearly a year of epidemiological silence. While currently under control, questions persist regarding the origin of the El Pedregal outbreak and implications for maintaining rabies control in Peru.

Methods: We sequenced 25 dog rabies virus (RABV) genomes from the El Pedregal outbreak (n=11) and Arequipa City (n=14) from 2021-2023 using Nanopore sequencing in Peru. Historical genomes from Puno (n=4, 2010-2012) and Arequipa (n=5, 2015-2019), were sequenced using an Illumina approach in the UK. In total, 34 RABV genomes were generated, including archived and newly obtained samples. The genomes were analyzed phylogenetically to understand the outbreak's context and origins.

Results: Phylogenomic analysis identified two genetic clusters in El Pedregal: 2021 cases stemmed from a single introduction unrelated to Arequipa cases, while the 2022 sequence suggested a new introduction from Arequipa rather than persistence. In relation to canine RABV diversity in Latin America, all new sequences belonged to the new minor clade, Cosmopolitan Am5, sharing relatives from Bolivia, Argentina, and Brazil.

Conclusion: Genomic insights into the El Pedregal outbreak revealed multiple introductions over a 2-year window. Eco-epidemiological conditions, including migratory worker patterns, suggest human-mediated movement drove introductions. Despite outbreak containment, El Pedregal remains at risk of dog-mediated rabies due to ongoing circulation in Arequipa, Puno, and Bolivia. Human-mediated movement of dogs presents a major risk for rabies re-emergence in Peru, jeopardizing regional dog-mediated rabies control. Additional sequence data is needed for comprehensive phylogenetic analyses.

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来源期刊
PLoS Neglected Tropical Diseases
PLoS Neglected Tropical Diseases PARASITOLOGY-TROPICAL MEDICINE
自引率
10.50%
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723
期刊介绍: PLOS Neglected Tropical Diseases publishes research devoted to the pathology, epidemiology, prevention, treatment and control of the neglected tropical diseases (NTDs), as well as relevant public policy. The NTDs are defined as a group of poverty-promoting chronic infectious diseases, which primarily occur in rural areas and poor urban areas of low-income and middle-income countries. Their impact on child health and development, pregnancy, and worker productivity, as well as their stigmatizing features limit economic stability. All aspects of these diseases are considered, including: Pathogenesis Clinical features Pharmacology and treatment Diagnosis Epidemiology Vector biology Vaccinology and prevention Demographic, ecological and social determinants Public health and policy aspects (including cost-effectiveness analyses).
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