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An epidemiological model for West Nile virus: invasion analysis and control applications.
Marjorie J Wonham, Tomás de-Camino-Beck, and Mark A Lewis Proceedings of the Royal Society B: Biological Sciences 271(1538):501--507 (March 2004)EFSA .
to methods Animals model CommunicableDiseaseControl InsectControl DiseaseOutbreaks WestNilevirus WestNileFever BirdDiseases transmission/virology TimeFactors epidemiology Culicidae PublicHealth Models NorthAmerica epidemiology/prevention/&/control/veterinary physiology Biological Reproduction Birds virology by uvesco on Jan 14, 2010, 5:52 PM
URL | DOI | BibTeX (0)
Enhanced spatial models for predicting the geographic distributions of tick-borne pathogens
Michael Wimberly, Adam Baer, and Michael Yabsley International Journal of Health Geographics 7(1):15 (2008)2review .
to model tickbornedisease review by uvesco on Jan 14, 2010, 5:52 PM
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Residence time and potential range: crucial considerations in modelling plant invasions
John R. U. Wilson, David M. Richardson, Mathieu Rouget, 015Eerban Proche015F, Mao A. Amis, Lesley Henderson, and Wilfried Thuiller Diversity and Distributions 13(1):11--22 (2007)
to model ratesofspread invadedrange residencetime rangesize plants SouthAfrica Biologicalinvasions invasivespecies by uvesco on Jan 14, 2010, 5:52 PM
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Locating pleistocene refugia: comparing phylogeographic and ecological niche model predictions.
Eric Waltari, Robert J Hijmans, A. Townsend Peterson, Arpád S Nyári, Susan L Perkins, and Robert P Guralnick PLoS One 2(6):e563 (2007)
to model predictive GARP MaxEnt by uvesco on Jan 14, 2010, 5:52 PM
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The continuing challenges of testing species distribution models
I. P. Vaughan, and S. J. Ormerod Journal of Applied Ecology 42(4):720--730 (2005)
to model discrimination validation presence-absencedata predictive generalizability calibration overfitting bootstrapping transportability by uvesco on Jan 14, 2010, 5:52 PM
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Fitness-related parameters improve presence-only distribution modelling for conservation practice: The case of the red-backed shrike
Nicolas Titeux, Marc Dufrene, Julien Radoux, Alexandre H. Hirzel, and Pierre Defourny Biological Conservation 138(1-2):207--223 (August 2007)
to model Predictivemodelling Ecologicalnichefactoranalysis Ecologicalresources Habitatsuitability Breedingsuccess ENFA Speciesdistributionmodels by uvesco on Jan 14, 2010, 5:51 PM
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Do we need land-cover data to model species distributions in Europe?
Wilfried Thuiller, Miguel B Araújo, and Sandra Lavorel Journal of Biogeography 31(3):353--361 (2004)
to methods model landcover predictive climate by uvesco on Jan 14, 2010, 5:51 PM
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A model describing the evolution of West Nile-like encephalitis in New York City
DM Thomas, and B. Urena Mathematical and Computer Modelling 34(7-8):771--782 (2001)EFSA .
to model WNV by uvesco on Jan 14, 2010, 5:51 PM
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Effects of sample size on accuracy of species distribution models
David R. B. Stockwell, and A. Townsend Peterson Ecological Modelling 148(1):1 - 13 (2002)2review .
to model samplesize AUC Ecologicalniche GARP DOMAIN MaxEnt accuracy by uvesco on Jan 14, 2010, 5:51 PM
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An Evaluation of a GARP Model as an Approach to Predicting the Spatial Distribution of Non-Vagile Invertebrate Species
Amy K. Stockman, David A. Beamer, and Jason E. Bond Diversity and Distributions 12(1):81--89 (Jan., 2006)
to model GARP by uvesco on Jan 14, 2010, 5:51 PM
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Interpretation of models of fundamental ecological niches and species' distributional areas
J. Soberón, and A.T. Peterson Biodiversity Informatics (2005)2review .
to model ecologicalniche fundamentalniche by uvesco on Jan 14, 2010, 5:51 PM
BibTeX (0)
Modeling the Effects of Reservoir Competence Decay and Demographic Turnover in Lyme Disease Ecology
Eric M. Schauber, and Richard S. Ostfeld Ecological Applications 12(4):1142--1162 (2002)EFSA .
to model borrelia by uvesco on Jan 14, 2010, 5:51 PM
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Predicting the emergence of human hantavirus disease using a combination of viral dynamics and rodent demographic patterns.
F. Sauvage, M. Langlais, and D. Pontier Epidemiology and Infection 135(1):46--56 (January 2007)EFSA .
to Animals model epidemiology/transmission/virology Arvicolinae pathogenicity/physiology Humans SoilMicrobiology RodentDiseases DiseaseReservoirs physiology/virology Models Ecosystem HantavirusInfections Zoonoses Biological virology Hantavirus by uvesco on Jan 14, 2010, 5:51 PM
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Thresholds for disease persistence in models for tick-borne infections including non-viraemic transmission, extended feeding and tick aggregation.
Roberto Rosà, Andrea Pugliese, Rachel Norman, and Peter J Hudson Journal of Theoretical Biology 224(3):359--376 (October 2003)EFSA .
to Animals model Tick-BorneDiseases Humans physiology Biological Host-ParasiteInteractions Ticks TBE transmission Models by uvesco on Jan 14, 2010, 5:50 PM
BibTeX (0)
Effects of tick population dynamics and host densities on the persistence of tick-borne infections.
Roberto Rosà, and Andrea Pugliese Mathematical Biosciences 208(1):216--240 (July 2007)EFSA .
to Animals model ComputerSimulation Tick-BorneDiseases Humans Algorithms PopulationDynamics transmission Models growth/&/development/physiology PopulationDensity Biological Borrelia Ticks by uvesco on Jan 14, 2010, 5:50 PM
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The Dynamics of Vector-Transmitted Diseases in Human Communities and Discussion
D. J. Rogers, D. W. Onstad, and R. Killick-Kendrick Philosophical Transactions of The Royal Society Of London. Series B: Biological Sciences 321(1207):513--539 (1988)
to model vectorbornedisease trasmission by uvesco on Jan 14, 2010, 5:50 PM
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Forest structure and roe deer abundance predict tick-borne encephalitis risk in Italy.
Annapaola Rizzoli, Heidi C Hauffe, Valentina Tagliapietra, Markus Neteler, and Roberto Rosà PLoS One 4(2):e4336 (2009)2review .
to Animals model Trees parasitology transmission/veterinary Humans Tick-Borne pathogenicity epidemiology RiskFactors tick-bornedisease Encephalitis Italy statistics EncephalitisViruses modelselection Incidence ecology TickInfestations Deer by uvesco on Jan 14, 2010, 5:50 PM
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A mathematical model of the ecology of Lyme disease.
T. C. Porco IMA Journal Of Mathematics Applied In Medicine And Biology 16(3):261--296 (September 1999)EFSA .
to ArachnidVectors Ixodes Animals model ComputerSimulation borrelia LymeDisease InfectiousDiseaseTransmission pathogenicity DiseaseReservoirs PopulationDynamics epidemiology/transmission Models growth/&/development/microbiology BorreliaburgdorferiGroup Vertical SensitivityandSpecificity veterinary physiology Biological Peromyscus Prevalence by uvesco on Jan 14, 2010, 5:49 PM
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Projected climate change effects on Rocky Mountain and Great Plains birds: generalities of biodiversity consequences
A. Townsend Peterson Global Change Biology 9(5):647--655 (2003)
to model topography biodiversityconsequences GARP distributions climatechange birds by uvesco on Jan 14, 2010, 5:48 PM
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Model-based uncertainty in species range prediction
Richard G. Pearson, Wilfried Thuiller, Miguel B. Araújo, Enrique Martinez-Meyer, Lluís Brotons, Colin McClean, Lera Miles, Pedro Segurado, Terence P. Dawson, and David C. Lees Journal of Biogeography 33(10):1704--1711 (2006)
to methods model Kappastatistics validation predictive AUC, by uvesco on Jan 14, 2010, 5:48 PM
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