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URN to cite this document: urn:nbn:de:bvb:703-epub-8691-4
Title data
Mbaoma, Oliver Chinonso ; Thomas, Stephanie ; Beierkuhnlein, Carl:
Spatiotemporally Explicit Epidemic Model for West Nile Virus Outbreak in Germany : An Inversely Calibrated Approach.
In: Journal of Epidemiology and Global Health.
Vol. 14
(2024)
Issue 3
.
- pp. 1052-1070.
ISSN 2210-6014
DOI der Verlagsversion: https://doi.org/10.1007/s44197-024-00254-0
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Project information
| Project title: |
Project's official title Project's id Klimawandel und Gesundheit AP-2411-PN 21-14-V3-D22827/2022 Open Access Publizieren No information |
|---|---|
| Project financing: |
Bayerisches Staatsministerium für Gesundheit, Pflege und Prävention (StMGP) Bayerisches Staatsministerium für Umwelt und Verbraucherschutz (StMUV) |
Abstract
Since the first autochthonous transmission of West Nile Virus was detected in Germany (WNV) in 2018, it has become endemic in several parts of the country and is continuing to spread due to the attainment of a suitable environment for vector occurrence and pathogen transmission. Increasing temperature associated with a changing climate has been identified as a potential driver of mosquito-borne disease in temperate regions. This scenario justifies the need for the development of a spatially and temporarily explicit model that describes the dynamics of WNV transmission in Germany. In this study, we developed a process-based mechanistic epidemic model driven by environmental and epidemiological data. Functional traits of mosquitoes and birds of interest were used to parameterize our compartmental model appropriately. Air temperature, precipitation, and relative humidity were the key climatic forcings used to replicate the fundamental niche responsible for supporting mosquito population and infection transmission risks in the study area. An inverse calibration method was used to optimize our parameter selection. Our model was able to generate spatially and temporally explicit basic reproductive number (R0) maps showing dynamics of the WNV occurrences across Germany, which was strongly associated with the deviation from daily means of climatic forcings, signaling the impact of a changing climate in vector-borne disease dynamics. Epidemiological data for human infections sourced from Robert Koch Institute and animal cases collected from the Animal Diseases Information System (TSIS) of the Friedrich-Loeffler-Institute were used to validate model-simulated transmission rates. From our results, it was evident that West Nile Virus is likely to spread towards the western parts of Germany with the rapid attainment of environmental suitability for vector mosquitoes and amplifying host birds, especially short-distance migratory birds. Locations with high risk of WNV outbreak (Baden-Württemberg, Bavaria, Berlin, Brandenburg, Hamburg, North Rhine-Westphalia, Rhineland-Palatinate, Saarland, Saxony-Anhalt and Saxony) were shown on R0 maps. This study presents a path for developing an early warning system for vector-borne diseases driven by climate change.
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