Cargando…

European Surveillance for West Nile Virus in Mosquito Populations

A wide range of arthropod-borne viruses threaten both human and animal health either through their presence in Europe or through risk of introduction. Prominent among these is West Nile virus (WNV), primarily an avian virus, which has caused multiple outbreaks associated with human and equine mortal...

Descripción completa

Detalles Bibliográficos
Autores principales: Engler, Olivier, Savini, Giovanni, Papa, Anna, Figuerola, Jordi, Groschup, Martin H., Kampen, Helge, Medlock, Jolyon, Vaux, Alexander, Wilson, Anthony J., Werner, Doreen, Jöst, Hanna, Goffredo, Maria, Capelli, Gioia, Federici, Valentina, Tonolla, Mauro, Patocchi, Nicola, Flacio, Eleonora, Portmann, Jasmine, Rossi-Pedruzzi, Anya, Mourelatos, Spiros, Ruiz, Santiago, Vázquez, Ana, Calzolari, Mattia, Bonilauri, Paolo, Dottori, Michele, Schaffner, Francis, Mathis, Alexander, Johnson, Nicholas
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2013
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3823308/
https://www.ncbi.nlm.nih.gov/pubmed/24157510
http://dx.doi.org/10.3390/ijerph10104869
_version_ 1782290549770813440
author Engler, Olivier
Savini, Giovanni
Papa, Anna
Figuerola, Jordi
Groschup, Martin H.
Kampen, Helge
Medlock, Jolyon
Vaux, Alexander
Wilson, Anthony J.
Werner, Doreen
Jöst, Hanna
Goffredo, Maria
Capelli, Gioia
Federici, Valentina
Tonolla, Mauro
Patocchi, Nicola
Flacio, Eleonora
Portmann, Jasmine
Rossi-Pedruzzi, Anya
Mourelatos, Spiros
Ruiz, Santiago
Vázquez, Ana
Calzolari, Mattia
Bonilauri, Paolo
Dottori, Michele
Schaffner, Francis
Mathis, Alexander
Johnson, Nicholas
author_facet Engler, Olivier
Savini, Giovanni
Papa, Anna
Figuerola, Jordi
Groschup, Martin H.
Kampen, Helge
Medlock, Jolyon
Vaux, Alexander
Wilson, Anthony J.
Werner, Doreen
Jöst, Hanna
Goffredo, Maria
Capelli, Gioia
Federici, Valentina
Tonolla, Mauro
Patocchi, Nicola
Flacio, Eleonora
Portmann, Jasmine
Rossi-Pedruzzi, Anya
Mourelatos, Spiros
Ruiz, Santiago
Vázquez, Ana
Calzolari, Mattia
Bonilauri, Paolo
Dottori, Michele
Schaffner, Francis
Mathis, Alexander
Johnson, Nicholas
author_sort Engler, Olivier
collection PubMed
description A wide range of arthropod-borne viruses threaten both human and animal health either through their presence in Europe or through risk of introduction. Prominent among these is West Nile virus (WNV), primarily an avian virus, which has caused multiple outbreaks associated with human and equine mortality. Endemic outbreaks of West Nile fever have been reported in Italy, Greece, France, Romania, Hungary, Russia and Spain, with further spread expected. Most outbreaks in Western Europe have been due to infection with WNV Lineage 1. In Eastern Europe WNV Lineage 2 has been responsible for human and bird mortality, particularly in Greece, which has experienced extensive outbreaks over three consecutive years. Italy has experienced co-circulation with both virus lineages. The ability to manage this threat in a cost-effective way is dependent on early detection. Targeted surveillance for pathogens within mosquito populations offers the ability to detect viruses prior to their emergence in livestock, equine species or human populations. In addition, it can establish a baseline of mosquito-borne virus activity and allow monitoring of change to this over time. Early detection offers the opportunity to raise disease awareness, initiate vector control and preventative vaccination, now available for horses, and encourage personal protection against mosquito bites. This would have major benefits through financial savings and reduction in equid morbidity/mortality. However, effective surveillance that predicts virus outbreaks is challenged by a range of factors including limited resources, variation in mosquito capture rates (too few or too many), difficulties in mosquito identification, often reliant on specialist entomologists, and the sensitive, rapid detection of viruses in mosquito pools. Surveillance for WNV and other arboviruses within mosquito populations varies between European countries in the extent and focus of the surveillance. This study reviews the current status of WNV in mosquito populations across Europe and how this is informing our understanding of virus epidemiology. Key findings such as detection of virus, presence of vector species and invasive mosquito species are summarized, and some of the difficulties encountered when applying a cost-effective surveillance programme are highlighted.
format Online
Article
Text
id pubmed-3823308
institution National Center for Biotechnology Information
language English
publishDate 2013
publisher MDPI
record_format MEDLINE/PubMed
spelling pubmed-38233082013-11-11 European Surveillance for West Nile Virus in Mosquito Populations Engler, Olivier Savini, Giovanni Papa, Anna Figuerola, Jordi Groschup, Martin H. Kampen, Helge Medlock, Jolyon Vaux, Alexander Wilson, Anthony J. Werner, Doreen Jöst, Hanna Goffredo, Maria Capelli, Gioia Federici, Valentina Tonolla, Mauro Patocchi, Nicola Flacio, Eleonora Portmann, Jasmine Rossi-Pedruzzi, Anya Mourelatos, Spiros Ruiz, Santiago Vázquez, Ana Calzolari, Mattia Bonilauri, Paolo Dottori, Michele Schaffner, Francis Mathis, Alexander Johnson, Nicholas Int J Environ Res Public Health Review A wide range of arthropod-borne viruses threaten both human and animal health either through their presence in Europe or through risk of introduction. Prominent among these is West Nile virus (WNV), primarily an avian virus, which has caused multiple outbreaks associated with human and equine mortality. Endemic outbreaks of West Nile fever have been reported in Italy, Greece, France, Romania, Hungary, Russia and Spain, with further spread expected. Most outbreaks in Western Europe have been due to infection with WNV Lineage 1. In Eastern Europe WNV Lineage 2 has been responsible for human and bird mortality, particularly in Greece, which has experienced extensive outbreaks over three consecutive years. Italy has experienced co-circulation with both virus lineages. The ability to manage this threat in a cost-effective way is dependent on early detection. Targeted surveillance for pathogens within mosquito populations offers the ability to detect viruses prior to their emergence in livestock, equine species or human populations. In addition, it can establish a baseline of mosquito-borne virus activity and allow monitoring of change to this over time. Early detection offers the opportunity to raise disease awareness, initiate vector control and preventative vaccination, now available for horses, and encourage personal protection against mosquito bites. This would have major benefits through financial savings and reduction in equid morbidity/mortality. However, effective surveillance that predicts virus outbreaks is challenged by a range of factors including limited resources, variation in mosquito capture rates (too few or too many), difficulties in mosquito identification, often reliant on specialist entomologists, and the sensitive, rapid detection of viruses in mosquito pools. Surveillance for WNV and other arboviruses within mosquito populations varies between European countries in the extent and focus of the surveillance. This study reviews the current status of WNV in mosquito populations across Europe and how this is informing our understanding of virus epidemiology. Key findings such as detection of virus, presence of vector species and invasive mosquito species are summarized, and some of the difficulties encountered when applying a cost-effective surveillance programme are highlighted. MDPI 2013-10-11 2013-10 /pmc/articles/PMC3823308/ /pubmed/24157510 http://dx.doi.org/10.3390/ijerph10104869 Text en © 2013 by the authors; licensee MDPI, Basel, Switzerland. http://creativecommons.org/licenses/by/3.0/ This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution license (http://creativecommons.org/licenses/by/3.0/).
spellingShingle Review
Engler, Olivier
Savini, Giovanni
Papa, Anna
Figuerola, Jordi
Groschup, Martin H.
Kampen, Helge
Medlock, Jolyon
Vaux, Alexander
Wilson, Anthony J.
Werner, Doreen
Jöst, Hanna
Goffredo, Maria
Capelli, Gioia
Federici, Valentina
Tonolla, Mauro
Patocchi, Nicola
Flacio, Eleonora
Portmann, Jasmine
Rossi-Pedruzzi, Anya
Mourelatos, Spiros
Ruiz, Santiago
Vázquez, Ana
Calzolari, Mattia
Bonilauri, Paolo
Dottori, Michele
Schaffner, Francis
Mathis, Alexander
Johnson, Nicholas
European Surveillance for West Nile Virus in Mosquito Populations
title European Surveillance for West Nile Virus in Mosquito Populations
title_full European Surveillance for West Nile Virus in Mosquito Populations
title_fullStr European Surveillance for West Nile Virus in Mosquito Populations
title_full_unstemmed European Surveillance for West Nile Virus in Mosquito Populations
title_short European Surveillance for West Nile Virus in Mosquito Populations
title_sort european surveillance for west nile virus in mosquito populations
topic Review
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3823308/
https://www.ncbi.nlm.nih.gov/pubmed/24157510
http://dx.doi.org/10.3390/ijerph10104869
work_keys_str_mv AT englerolivier europeansurveillanceforwestnilevirusinmosquitopopulations
AT savinigiovanni europeansurveillanceforwestnilevirusinmosquitopopulations
AT papaanna europeansurveillanceforwestnilevirusinmosquitopopulations
AT figuerolajordi europeansurveillanceforwestnilevirusinmosquitopopulations
AT groschupmartinh europeansurveillanceforwestnilevirusinmosquitopopulations
AT kampenhelge europeansurveillanceforwestnilevirusinmosquitopopulations
AT medlockjolyon europeansurveillanceforwestnilevirusinmosquitopopulations
AT vauxalexander europeansurveillanceforwestnilevirusinmosquitopopulations
AT wilsonanthonyj europeansurveillanceforwestnilevirusinmosquitopopulations
AT wernerdoreen europeansurveillanceforwestnilevirusinmosquitopopulations
AT josthanna europeansurveillanceforwestnilevirusinmosquitopopulations
AT goffredomaria europeansurveillanceforwestnilevirusinmosquitopopulations
AT capelligioia europeansurveillanceforwestnilevirusinmosquitopopulations
AT federicivalentina europeansurveillanceforwestnilevirusinmosquitopopulations
AT tonollamauro europeansurveillanceforwestnilevirusinmosquitopopulations
AT patocchinicola europeansurveillanceforwestnilevirusinmosquitopopulations
AT flacioeleonora europeansurveillanceforwestnilevirusinmosquitopopulations
AT portmannjasmine europeansurveillanceforwestnilevirusinmosquitopopulations
AT rossipedruzzianya europeansurveillanceforwestnilevirusinmosquitopopulations
AT mourelatosspiros europeansurveillanceforwestnilevirusinmosquitopopulations
AT ruizsantiago europeansurveillanceforwestnilevirusinmosquitopopulations
AT vazquezana europeansurveillanceforwestnilevirusinmosquitopopulations
AT calzolarimattia europeansurveillanceforwestnilevirusinmosquitopopulations
AT bonilauripaolo europeansurveillanceforwestnilevirusinmosquitopopulations
AT dottorimichele europeansurveillanceforwestnilevirusinmosquitopopulations
AT schaffnerfrancis europeansurveillanceforwestnilevirusinmosquitopopulations
AT mathisalexander europeansurveillanceforwestnilevirusinmosquitopopulations
AT johnsonnicholas europeansurveillanceforwestnilevirusinmosquitopopulations