ArticleParasites & vectors2018
Ecological niche modeling of Aedes mosquito vectors of chikungunya virus in southeastern Senegal.
Article in Parasites & vectors, 2018. The graph could read no effect estimate from its abstract, so it casts no vote on the map. Cited by 32 papers, 1 of them a synthesis that pooled it.
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Who cites it
32 citing papers in PubMed, 1 synthesis or guideline pooled it.
- Trends in mosquito species distribution modeling: insights for vector surveillance and disease control.Parasites & vectors · 2023Pooled it
- Potential of machine learning for prevention and control of neglected tropical diseases: a scoping review.Communications medicine · 2026Article
- Contrasting shifts in potential climatic suitability of two Thelazia callipaeda vectors (Phortica okadai and Phortica variegata) across China and Europe under climate change.Parasites & vectors · 2026Article
- Global and regional burden of chikungunya from 2004 to 2024: a worldwide observational study.Journal of global health · 2026Observational
- Mining corridors as emergence interfaces: an evidence-informed one health operational framework for prevention of infectious disease outbreaks in Kédougou, Senegal.Frontiers in public health · 2026Review
- Modelling vector and host distributions to inform potential disease risk: A case study of West Nile virus in the United Kingdom.Medical and veterinary entomology · 2025Article
- Spatial Modeling of the Potential Distribution of Dengue in the City of Manta, Ecuador.International journal of environmental research and public health · 2025Article
- Mosquito and global dengue cases in a warming world.BMJ global health · 2025Article
- Identifying mosquito plant hosts from ingested nectar secondary metabolites.Scientific reports · 2025Article
- Temperature dependence of mosquitoes: Comparing mechanistic and machine learning approaches.PLoS neglected tropical diseases · 2024Article
- Understanding the Transmission Dynamics of the Chikungunya Virus in Africa.Pathogens (Basel, Switzerland) · 2024Review
- Ecological Niche Modeling ofViruses · 2023Article
- Where boundaries become bridges: Mosquito community composition, key vectors, and environmental associations at forest edges in the central Brazilian Amazon.PLoS neglected tropical diseases · 2023Article
- PredictingFrontiers in microbiology · 2023Article
- Predicting Transmission Suitability of Mosquito-Borne Diseases under Climate Change to Underpin Decision Making.International journal of environmental research and public health · 2022Article
- The current and future distribution of the yellow fever mosquito (Aedes aegypti) on Madeira Island.PLoS neglected tropical diseases · 2022Article
- Recent Progress in the Discovery and Development of Monoclonal Antibodies against Viral Infections.Biomedicines · 2022Review
- An ecological niche model to predict the geographic distribution of Haemagogus janthinomys, Dyar, 1921 a yellow fever and Mayaro virus vector, in South America.PLoS neglected tropical diseases · 2022Article
- Risk-Based Mapping Tools for Surveillance and Control of the Invasive MosquitoInternational journal of environmental research and public health · 2022Article
- Ecological niche modeling for predicting the potential geographical distribution ofParasite epidemiology and control · 2021Article
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Authors and funding
10 authors.
Funding
Abstract
backgroundChikungunya virus (CHIKV) originated in a sylvatic cycle of transmission between non-human animal hosts and vector mosquitoes in the forests of Africa. Subsequently the virus jumped out of this ancestral cycle into a human-endemic transmission cycle vectored by anthropophilic mosquitoes. Sylvatic CHIKV cycles persist in Africa and continue to spill over into humans, creating the potential for new CHIKV strains to enter human-endemic transmission. To mitigate such spillover, it is first necessary to delineate the distributions of the sylvatic mosquito vectors of CHIKV, to identify the environmental factors that shape these distributions, and to determine the association of mosquito presence with key drivers of virus spillover, including mosquito and CHIKV abundance. We therefore modeled the distribution of seven CHIKV mosquito vectors over two sequential rainy seasons in Kédougou, Senegal using Maxent.
methodsMosquito data were collected in fifty sites distributed in five land cover classes across the study area. Environmental data representing land cover, topographic, and climatic factors were included in the models. Models were compared and evaluated using area under the receiver operating characteristic curve (AUROC) statistics. The correlation of model outputs with abundance of individual mosquito species as well as CHIKV-positive mosquito pools was tested.
resultsFourteen models were produced and evaluated; the environmental variables most strongly associated with mosquito distributions were distance to large patches of forest, landscape patch size, rainfall, and the normalized difference vegetation index (NDVI). Seven models were positively correlated with mosquito abundance and one (Aedes taylori) was consistently, positively correlated with CHIKV-positive mosquito pools. Eight models predicted high relative occurrence rates of mosquitoes near the villages of Tenkoto and Ngary, the areas with the highest frequency of CHIKV-positive mosquito pools.
conclusionsOf the environmental factors considered here, landscape fragmentation and configuration had the strongest influence on mosquito distributions. Of the mosquito species modeled, the distribution of Ae. taylori correlated most strongly with abundance of CHIKV, suggesting that presence of this species will be a useful predictor of sylvatic CHIKV presence.
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