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      Using a Dynamic Hydrology Model To Predict Mosquito Abundances in Flood and Swamp Water

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          Abstract

          We modeled surface wetness at high resolution, using a dynamic hydrology model, to predict flood and swamp water mosquito abundances. Historical meteorologic data, as well as topographic, soil, and vegetation data, were used to model surface wetness and identify potential fresh and swamp water breeding habitats in two northern New Jersey watersheds. Surface wetness was positively associated with the subsequent abundance of the dominant floodwater mosquito species, Aedes vexans, and the swamp water species, Anopheles walkeri. The subsequent abundance of Culex pipiens, a species that breeds in polluted, eutrophic waters, was negatively correlated with local modeled surface wetness. These associations permit real-time monitoring and forecasting of these floodwater and nonfloodwater species at high spatial and temporal resolution. These predictions will enable public health agencies to institute control measures before the mosquitoes emerge as adults, when their role as transmitters of disease comes into play.

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          Most cited references14

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          A catchment-based approach to modeling land surface processes in a general circulation model: 2. Parameter estimation and model demonstration

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            An Efficient Approach to Modeling the Topographic Control of Surface Hydrology for Regional and Global Climate Modeling

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              Remote sensing as a landscape epidemiologic tool to identify villages at high risk for malaria transmission.

              A landscape approach using remote sensing and geographic information system (GIS) technologies was developed to discriminate between villages at high and low risk for malaria transmission, as defined by adult Anopheles albimanus abundance. Satellite data for an area in southern Chiapas, Mexico were digitally processed to generate a map of landscape elements. The GIS processes were used to determine the proportion of mapped landscape elements surrounding 40 villages where An. albimanus abundance data had been collected. The relationships between vector abundance and landscape element proportions were investigated using stepwise discriminant analysis and stepwise linear regression. Both analyses indicated that the most important landscape elements in terms of explaining vector abundance were transitional swamp and unmanaged pasture. Discriminant functions generated for these two elements were able to correctly distinguish between villages with high and low vector abundance, with an overall accuracy of 90%. Regression results found both transitional swamp and unmanaged pasture proportions to be predictive of vector abundance during the mid-to-late wet season. This approach, which integrates remotely sensed data and GIS capabilities to identify villages with high vector-human contact risk, provides a promising tool for malaria surveillance programs that depend on labor-intensive field techniques. This is particularly relevant in areas where the lack of accurate surveillance capabilities may result in no malaria control action when, in fact, directed action is necessary. In general, this landscape approach could be applied to other vector-borne diseases in areas where 1) the landscape elements critical to vector survival are known and 2) these elements can be detected at remote sensing scales.
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                Author and article information

                Journal
                Emerg Infect Dis
                EID
                Emerging Infectious Diseases
                Centers for Disease Control and Prevention
                1080-6040
                1080-6059
                January 2002
                : 8
                : 1
                : 8-13
                Affiliations
                [1]Columbia University, Palisades, New York, USA
                Author notes
                Address for correspondence: Jeffrey Shaman, Lamont Doherty Earth Observatory, Columbia University, Oceanography, Room 106, Route 9W, Palisades, NY 10964, USA; fax: 845-365-8736; e-mail: jshaman@ 123456ldeo.columbia.edu
                Article
                01-0049
                10.3201/eid0801.010049
                2730265
                11749741
                7717a166-5b42-4f85-aeab-9607a444636a
                History
                Categories
                Perspective

                Infectious disease & Microbiology
                culicidae,west nile virus,vector control,culex,anopheles,aedes,st. louis encephalitis,hydrology,dynamic modeling,entomology

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