Literature DB >> 23032284

Environmental and socio-economic risk modelling for Chagas disease in Bolivia.

Paula Mischler1, Michael Kearney, Jennifer C McCarroll, Ronaldo G C Scholte, Penelope Vounatsou, John B Malone.   

Abstract

Accurately defining disease distributions and calculating disease risk is an important step in the control and prevention of diseases. Geographical information systems (GIS) and remote sensing technologies, with maximum entropy (Maxent) ecological niche modelling computer software, were used to create predictive risk maps for Chagas disease in Bolivia. Prevalence rates were calculated from 2007 to 2009 household infection survey data for Bolivia, while environmental data were compiled from the Worldclim database and MODIS satellite imagery. Socio-economic data were obtained from the Bolivian National Institute of Statistics. Disease models identified altitudes at 500-3,500 m above the mean sea level (MSL), low annual precipitation (45-250 mm), and higher diurnal range of temperature (10-19 °C; peak 16 °C) as compatible with the biological requirements of the insect vectors. Socio-economic analyses demonstrated the importance of improved housing materials and water source. Home adobe wall materials and having to fetch drinking water from rivers or wells without pump were found to be highly related to distribution of the disease by the receiver operator characteristic (ROC) area under the curve (AUC) (0.69 AUC, 0.67 AUC and 0.62 AUC, respectively), while areas with hardwood floors demonstrated a direct negative relationship (-0.71 AUC). This study demonstrates that Maxent modelling can be used in disease prevalence and incidence studies to provide governmental agencies with an easily learned, understandable method to define areas as either high, moderate or low risk for the disease. This information may be used in resource planning, targeting and implementation. However, access to high-resolution, sub-municipality socio-economic data (e.g. census tracts) would facilitate elucidation of the relative influence of poverty-related factors on regional disease dynamics.

Entities:  

Mesh:

Year:  2012        PMID: 23032284     DOI: 10.4081/gh.2012.123

Source DB:  PubMed          Journal:  Geospat Health        ISSN: 1827-1987            Impact factor:   1.212


  11 in total

1.  Spatio-temporal modeling of the African swine fever epidemic in the Russian Federation, 2007-2012.

Authors:  F I Korennoy; V M Gulenkin; J B Malone; C N Mores; S A Dudnikov; M A Stevenson
Journal:  Spat Spatiotemporal Epidemiol       Date:  2014-04-26

2.  Modeling impacts of climate change on the potential distribution of the carcinogenic liver fluke, Opisthorchis viverrini, in Thailand.

Authors:  A Suwannatrai; K Pratumchart; K Suwannatrai; K Thinkhamrop; J Chaiyos; C S Kim; R Suwanweerakamtorn; T Boonmars; T Wongsaroj; B Sripa
Journal:  Parasitol Res       Date:  2016-10-24       Impact factor: 2.289

3.  Human brucellosis occurrences in inner mongolia, China: a spatio-temporal distribution and ecological niche modeling approach.

Authors:  Peng Jia; Andrew Joyner
Journal:  BMC Infect Dis       Date:  2015-02-03       Impact factor: 3.090

4.  Positive deviance study to inform a Chagas disease control program in southern Ecuador.

Authors:  Claudia Nieto-Sanchez; Esteban G Baus; Darwin Guerrero; Mario J Grijalva
Journal:  Mem Inst Oswaldo Cruz       Date:  2015-03-24       Impact factor: 2.743

5.  Potential Distribution of Chagas Disease Vectors (Hemiptera, Reduviidae, Triatominae) in Colombia, Based on Ecological Niche Modeling.

Authors:  Gabriel Parra-Henao; Laura C Suárez-Escudero; Sebastián González-Caro
Journal:  J Trop Med       Date:  2016-12-28

6.  Ecological Niche Modeling for Filoviruses: A Risk Map for Ebola and Marburg Virus Disease Outbreaks in Uganda.

Authors:  Luke Nyakarahuka; Samuel Ayebare; Gladys Mosomtai; Clovice Kankya; Julius Lutwama; Frank Norbert Mwiine; Eystein Skjerve
Journal:  PLoS Curr       Date:  2017-09-05

7.  The contemporary distribution of Trypanosoma cruzi infection in humans, alternative hosts and vectors.

Authors:  Annie J Browne; Carlos A Guerra; Renato Vieira Alves; Veruska Maia da Costa; Anne L Wilson; David M Pigott; Simon I Hay; Steve W Lindsay; Nick Golding; Catherine L Moyes
Journal:  Sci Data       Date:  2017-04-11       Impact factor: 6.444

8.  Throwing light on dark diversity of vascular plants in China: predicting the distribution of dark and threatened species under global climate change.

Authors:  Lili Tang; Runxi Wang; Kate S He; Cong Shi; Tong Yang; Yaping Huang; Pufan Zheng; Fuchen Shi
Journal:  PeerJ       Date:  2019-04-09       Impact factor: 2.984

9.  Strongyloides stercoralis and Trypanosoma cruzi coinfections in a highly endemic area in Argentina.

Authors:  Pedro E Fleitas; Noelia Floridia-Yapur; Elvia E Nieves; Adriana Echazu; Paola A Vargas; Nicolás R Caro; Ramiro Aveldaño; Walter Lopez; Mariana Fernandez; Favio Crudo; Rubén O Cimino; Alejandro J Krolewiecki
Journal:  PLoS Negl Trop Dis       Date:  2022-02-04

10.  Predicting potential ranges of primary malaria vectors and malaria in northern South America based on projected changes in climate, land cover and human population.

Authors:  Temitope O Alimi; Douglas O Fuller; Whitney A Qualls; Socrates V Herrera; Myriam Arevalo-Herrera; Martha L Quinones; Marcus V G Lacerda; John C Beier
Journal:  Parasit Vectors       Date:  2015-08-20       Impact factor: 3.876

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.