Predicting pathogen introduction: West Nile virus spread to Galáipagos

Emerging infectious diseases are a key threat to conservation and public health, yet predicting and preventing their emergence is notoriously difficult. We devised a predictive model for the introduction of a zoonotic vector-borne pathogen by considering each of the pathways by which it may be intro...

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Veröffentlicht in:Conservation biology 2006-08, Vol.20 (4), p.1224-1231
Hauptverfasser: Kilpatrick, A Marm, Daszak, Peter, Goodman, Simon J, Rogg, Helmuth, Kramer, Laura D, Cedeño, Virna, Cunningham, Andrew A
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container_end_page 1231
container_issue 4
container_start_page 1224
container_title Conservation biology
container_volume 20
creator Kilpatrick, A Marm
Daszak, Peter
Goodman, Simon J
Rogg, Helmuth
Kramer, Laura D
Cedeño, Virna
Cunningham, Andrew A
description Emerging infectious diseases are a key threat to conservation and public health, yet predicting and preventing their emergence is notoriously difficult. We devised a predictive model for the introduction of a zoonotic vector-borne pathogen by considering each of the pathways by which it may be introduced to a new area and comparing the relative risk of each pathway. This framework is an adaptation of pest introduction models and estimates the number of infectious individuals arriving in a location and the duration of their infectivity. We used it to determine the most likely route for the introduction of West Nile virus to Galápagos and measures that can be taken to reduce the risk of introduction. The introduction of this highly pathogenic virus to this unique World Heritage Site could have devastating consequences, similar to those seen following introductions of pathogens into other endemic island faunas. Our model identified the transport of mosquitoes on airplanes as the highest risk for West Nile virus introduction. Pathogen dissemination through avian migration and the transportation of day-old chickens appeared to be less important pathways. Infected humans and mosquitoes transported in sea containers, in tires, or by wind all represented much lower risk. Our risk-assessment framework has broad applicability to other pathogens and other regions and depends only on the availability of data on the transport of goods and animals and the epidemiology of the pathogen.
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Pathogen dissemination through avian migration and the transportation of day-old chickens appeared to be less important pathways. Infected humans and mosquitoes transported in sea containers, in tires, or by wind all represented much lower risk. 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source MEDLINE; Access via Wiley Online Library; JSTOR Archive Collection A-Z Listing
subjects Animals
Birds - virology
Communicable Diseases, Emerging - prevention & control
Communicable Diseases, Emerging - transmission
Communicable Diseases, Emerging - veterinary
Conservation of Natural Resources
Culicidae - virology
Ecuador
Forecasting
Humans
Insect Vectors - virology
Models, Statistical
Risk Assessment
West Nile Fever - prevention & control
West Nile Fever - transmission
West Nile Fever - veterinary
West Nile virus - physiology
title Predicting pathogen introduction: West Nile virus spread to Galáipagos
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