Vector-borne diseases are a specific group of infections that present a (re-)emerging threat to Europe and require particular attention. The recent notifications of autochthonous transmission of dengue fever and chikungunya fever cases in Europe show its vulnerability to these diseases in areas where the vector, the invasive mosquito Aedes albopictus , is present. Strengthening surveillance of exotic mosquito species such as Ae. albopictus , Aedes aegypti , Aedes atropalpus , Aedes japonicus , Aedes koreicus and Aedes triseriatus , in areas at risk of importation or spread of mosquitoes and risk of virus transmission is therefore required. This is particularly important in the context of environmental and climate changes which might allow an increase of vector populations and virus amplification. The collection of information and data on vectors of public health (PH) significance are of crucial importance to understand the levels of risk that countries face, and to define the actions that need to be taken. All the occurrences are collected during a surveillance study in 2012. All info here: Deblauwe I., Sohier C., Coosemans M. 2012. ExoSurv: implementation of surveillance of exotic mosquitoes in Belgium. Report for the Federal and Regional governments of Belgium, 130p
The data in this sampling event resource has been published as a Darwin Core Archive (DwC-A), which is a standardized format for sharing biodiversity data as a set of one or more data tables. The core data table contains 242 records.
1 extension data tables also exist. An extension record supplies extra information about a core record. The number of records in each extension data table is illustrated below.
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Researchers should cite this work as follows:
Deblauwe I, Van Bortel W, Brosens D (2021): Surveillance exotic mosquitoes in Belgium. v1.17. Institute of Tropical Medicine Antwerp. Dataset/Samplingevent. https://ipt.biodiversity.be/resource?r=surveillance-exotic-mosquitoes-belgium&v=1.17
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The publisher and rights holder of this work is Institute of Tropical Medicine Antwerp. This work is licensed under a Creative Commons Attribution (CC-BY 4.0) License.
This resource has been registered with GBIF, and assigned the following GBIF UUID: b10b4c57-e186-4699-8e1c-0350c4993972. Institute of Tropical Medicine Antwerp publishes this resource, and is itself registered in GBIF as a data publisher endorsed by Belgian Biodiversity Platform.
Samplingevent; Vector disease; exotic; mosquitoes; survey
- Originator ●
- Point Of Contact
- Metadata Provider ●
- Originator ●
|Bounding Coordinates||South West [49.482, 2.472], North East [51.522, 6.405]|
In 2012, the new guidelines for the surveillance of IMS in Europe, produced by the European Centre for Disease Prevention and Control (ECDC), were tested in Belgium. This study aimed at (1) testing the usefulness and applicability in the field of the ECDC guidelines for the surveillance of IMS in Europe and (2) surveying IMS throughout Belgium. First, the scenarios, which Belgium is facing, were identified according to the ECDC guidelines. Second, the surveillance strategy and the methods were identified based on the guidelines and adjusted to the Belgium context. Two areas colonised by IMS and 20 potential points of entry (PoE) were selected. Mosquito Magnet Liberty Plus (CO2-baited) traps (23) and oviposition traps (147) were set-up, and larval sampling was performed monthly or bi-monthly from July till October 2012. Finally, the costs and workload of the surveillance activities were compared to the estimates provided by the ECDC guidelines. Surveillance at 20 potential PoE (complying with scenario 1) revealed that no new IMS were established in Belgium. Surveillance at two sites colonised by IMS (scenario 2) indicated that although control measures have drastically reduced the Ae. j. japonicus population this species is still present. Furthermore, Ae. koreicus is permanently established. For both scenarios, the problems encountered are discussed and recommendations are given. In addition, the actual workload was lower than the estimated workload, while the actual costs were higher than the estimated ones. The ECDC guidelines are helpful, applicable and efficient to implement surveillance of IMS in Belgium. Recommendations were customised to the local context (political demands, salary and investment costs, and existing expertise). The workload and costs related to the preparatory phase (i.e., planning, contacts with the PoE, writing a protocol) were found to be missing in the cost evaluation suggested in the guidelines. Updates on the occurrence of IMS in Belgium and the related risk for disease agents they can transmit will only be available once a structured and permanent surveillance system is implemented.
|Title||Implementation of surveillance of exotic mosquitoes in Belgium|
|Funding||Federal government and the governments of the Flemish, Walloon and Brussels-Capital region|
|Study Area Description||Belgium|
|Design Description||This study aimed at (1) testing the usefulness and applicability in the field of the ECDC guidelines for the surveillance of IMS in Europe and (2) surveying IMS throughout Belgium.|
The personnel involved in the project:
- Point Of Contact
First, the scenarios, which Belgium is facing, were identified according to the ECDC guidelines. Second, the surveillance strategy and the methods were identified based on the guidelines and adjusted to the Belgium context. Two areas colonised by IMS and 20 potential points of entry (PoE) were selected. Mosquito Magnet Liberty Plus (CO2-baited) traps (23) and oviposition traps (147) were set-up, and larval sampling was performed monthly or bi-monthly from July till October 2012. Finally, the costs and workload of the surveillance activities were compared to the estimates provided by the ECDC guidelines.
|Study Extent||Objective 1: to detect possible foci of introduction and establishment of EMS at early stage in Belgium (Scenario 1: no established EMS). Objective 2a: to quantify the establishment of Ae. j. japonicus at Natoye and asses the quality/efficacy of the control measures used (Scenario 2: locally established EMS - already controlled). Objective 2b: to quantify the establishment of Ae. koreicus at Maasmechelen and detect the possible spread of this EMS (Scenario 2: locally established EMS - not controlled yet) Objective 3: to evaluate the efficiency of the oviposition trap compared to the CO2- trap (MMLP) in low density areas of Aedes species. Objective 4: to support rapid implementation of control measures to eliminate the EMS population Objective 5: to disseminate project outputs to the scientific community, end users and the general public|
|Quality Control||All was checked|
Method step description:
- Collection in the field
- Deblauwe et al.; licensee BioMed Central Ltd. 2014. Implementation of surveillance of invasive mosquitoes in Belgium according to the ECDC guidelines https://doi.org/10.1186/1756-3305-7-201