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spelling todo:paper_0001706X_v136_n1_p129_Estallo2023-10-03T13:51:39Z Spatio-temporal dynamics of dengue 2009 outbreak in Córdoba City, Argentina Estallo, E.L. Carbajo, A.E. Grech, M.G. Frías-Céspedes, M. López, L. Lanfri, M.A. Ludueña-Almeida, F.F. Almirón, W.R. Aedes aegypti Argentina Córdoba Dengue outbreak Geographic information system (GIS) dengue fever disease prevalence disease transmission disease vector GIS mosquito neighborhood spatial variation temporal variation adolescent adult Aedes aegypti age distribution Argentina article dengue disease carrier disease surveillance environmental temperature epidemic geographic distribution human infection control mathematical model nonhuman prevalence survival virus transmission Aedes animal dengue physiology time urban population Argentina Cordoba [Argentina] Aedes Animals Argentina Dengue Disease Outbreaks Humans Insect Vectors Time Factors Urban Population During 2009 the biggest dengue epidemic to date occurred in Argentina, affecting almost half the country. We studied the spatio-temporal dynamics of the outbreak in the second most populated city of the country, Córdoba city. Confirmed cases and the results of an Aedes aegypti monitoring during the outbreak were geolocated. The imported cases began in January, and the autochthonous in March. Thirty-three percent of the 130 confirmed cases were imported, and occurred mainly at the center of the city. The autochthonous cases were more frequent in the outskirts, specially in the NE and SE. Aedes aegypti infestation showed no difference between neighborhoods with or without autochthonous cases, neither between neighborhoods with autochthonous vs. imported cases. The neighborhoods with imported cases presented higher population densities. The majority of autochthonous cases occurred at ages between 25 and 44 years old. Cases formed a spatio-temporal cluster of up to 20 days and 12. km. According to a mathematical model that estimates the required number of days needed for transmission according to daily temperature, the number of cases begun to fall when more than 15.5 days were needed. This may be a coarse estimation of mean mosquito survival in the area, provided that the study area is close to the global distribution limit of the vector, and that cases prevalence was very low. © 2014 Elsevier B.V. Fil:Carbajo, A.E. Universidad de Buenos Aires. Facultad de Ciencias Exactas y Naturales; Argentina. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_0001706X_v136_n1_p129_Estallo
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Aedes aegypti
Argentina
Córdoba
Dengue outbreak
Geographic information system (GIS)
dengue fever
disease prevalence
disease transmission
disease vector
GIS
mosquito
neighborhood
spatial variation
temporal variation
adolescent
adult
Aedes aegypti
age distribution
Argentina
article
dengue
disease carrier
disease surveillance
environmental temperature
epidemic
geographic distribution
human
infection control
mathematical model
nonhuman
prevalence
survival
virus transmission
Aedes
animal
dengue
physiology
time
urban population
Argentina
Cordoba [Argentina]
Aedes
Animals
Argentina
Dengue
Disease Outbreaks
Humans
Insect Vectors
Time Factors
Urban Population
spellingShingle Aedes aegypti
Argentina
Córdoba
Dengue outbreak
Geographic information system (GIS)
dengue fever
disease prevalence
disease transmission
disease vector
GIS
mosquito
neighborhood
spatial variation
temporal variation
adolescent
adult
Aedes aegypti
age distribution
Argentina
article
dengue
disease carrier
disease surveillance
environmental temperature
epidemic
geographic distribution
human
infection control
mathematical model
nonhuman
prevalence
survival
virus transmission
Aedes
animal
dengue
physiology
time
urban population
Argentina
Cordoba [Argentina]
Aedes
Animals
Argentina
Dengue
Disease Outbreaks
Humans
Insect Vectors
Time Factors
Urban Population
Estallo, E.L.
Carbajo, A.E.
Grech, M.G.
Frías-Céspedes, M.
López, L.
Lanfri, M.A.
Ludueña-Almeida, F.F.
Almirón, W.R.
Spatio-temporal dynamics of dengue 2009 outbreak in Córdoba City, Argentina
topic_facet Aedes aegypti
Argentina
Córdoba
Dengue outbreak
Geographic information system (GIS)
dengue fever
disease prevalence
disease transmission
disease vector
GIS
mosquito
neighborhood
spatial variation
temporal variation
adolescent
adult
Aedes aegypti
age distribution
Argentina
article
dengue
disease carrier
disease surveillance
environmental temperature
epidemic
geographic distribution
human
infection control
mathematical model
nonhuman
prevalence
survival
virus transmission
Aedes
animal
dengue
physiology
time
urban population
Argentina
Cordoba [Argentina]
Aedes
Animals
Argentina
Dengue
Disease Outbreaks
Humans
Insect Vectors
Time Factors
Urban Population
description During 2009 the biggest dengue epidemic to date occurred in Argentina, affecting almost half the country. We studied the spatio-temporal dynamics of the outbreak in the second most populated city of the country, Córdoba city. Confirmed cases and the results of an Aedes aegypti monitoring during the outbreak were geolocated. The imported cases began in January, and the autochthonous in March. Thirty-three percent of the 130 confirmed cases were imported, and occurred mainly at the center of the city. The autochthonous cases were more frequent in the outskirts, specially in the NE and SE. Aedes aegypti infestation showed no difference between neighborhoods with or without autochthonous cases, neither between neighborhoods with autochthonous vs. imported cases. The neighborhoods with imported cases presented higher population densities. The majority of autochthonous cases occurred at ages between 25 and 44 years old. Cases formed a spatio-temporal cluster of up to 20 days and 12. km. According to a mathematical model that estimates the required number of days needed for transmission according to daily temperature, the number of cases begun to fall when more than 15.5 days were needed. This may be a coarse estimation of mean mosquito survival in the area, provided that the study area is close to the global distribution limit of the vector, and that cases prevalence was very low. © 2014 Elsevier B.V.
format JOUR
author Estallo, E.L.
Carbajo, A.E.
Grech, M.G.
Frías-Céspedes, M.
López, L.
Lanfri, M.A.
Ludueña-Almeida, F.F.
Almirón, W.R.
author_facet Estallo, E.L.
Carbajo, A.E.
Grech, M.G.
Frías-Céspedes, M.
López, L.
Lanfri, M.A.
Ludueña-Almeida, F.F.
Almirón, W.R.
author_sort Estallo, E.L.
title Spatio-temporal dynamics of dengue 2009 outbreak in Córdoba City, Argentina
title_short Spatio-temporal dynamics of dengue 2009 outbreak in Córdoba City, Argentina
title_full Spatio-temporal dynamics of dengue 2009 outbreak in Córdoba City, Argentina
title_fullStr Spatio-temporal dynamics of dengue 2009 outbreak in Córdoba City, Argentina
title_full_unstemmed Spatio-temporal dynamics of dengue 2009 outbreak in Córdoba City, Argentina
title_sort spatio-temporal dynamics of dengue 2009 outbreak in córdoba city, argentina
url http://hdl.handle.net/20.500.12110/paper_0001706X_v136_n1_p129_Estallo
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