BioMed Research International · 2014 · 42 citations · 14 references
Veterinary MedicineGeographyInfectious DiseasesInfectious Disease EpidemiologyVector-borne DiseasesZoonotic Disease EpidemiologyDisease GeographyDisease SpreadEmerging Zoonotic DiseasesGeographic DistributionSpatial Distribution Of DiseaseSpatial Risk AssessmentClimate Change Impacts On Vector-borne DiseaseClimate Change-related Disease EffectsDisease Risk Under Climate ChangeMosquito-borne Disease EpidemiologyMosquito-borne ZoonosesSpatial-temporal Transmission PatternsSpatiotemporal PredictionZoonotic Vector-borne Disease
We analyze through a climatic model the influence of regional warming on the geographical spreading and potential risk of infection of human dirofilariosis in Russia, Ukraine, and other post-Soviet states from 1981 to 2011 and estimate the situation by 2030. The model correctly predicts the spatiotemporal location of 97.10% of 2154 clinical cases reported in the area during the studied period, identified by a retrospective review of the literature. There exists also a significant correlation between annual predicted Dirofilaria generations and calculated morbidity. The model states the progressive increase of 14.8% in the potential transmission area, up to latitude 64 °N, and 14.7% in population exposure. By 2030 an increase of 18.5% in transmission area and 10.8% in population exposure is expected. These findings strongly suggest the influence of global warming in both geographical spreading and increase in the number of Dirofilaria generations. The results should alert about the epidemiological behavior of dirofilariosis and other mosquito-borne diseases in these and other countries with similar climatic characteristics.
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Climate change 2001: synthesis report
Choice Reviews Online · 2003 · 5.3K citations
Natural Sciences, Earth Sciences, Environmental Sciences +12
Climate change and vector-borne diseases: a regional analysis.
Andrew K. Githeko, Steve W. Lindsay, Ulisses Confalonieri et al. · PubMed · 2000 · 975 citations