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dc.contributor.authorPasetto, D*
dc.contributor.authorFinger, F*
dc.contributor.authorCamacho, A*
dc.contributor.authorGrandesso, F*
dc.contributor.authorCohuet, S*
dc.contributor.authorLemaitre, JC*
dc.contributor.authorAzman, AS*
dc.contributor.authorLuquero, FJ*
dc.contributor.authorBertuzzo, E*
dc.contributor.authorRinaldo, A*
dc.date.accessioned2018-06-12T14:51:07Z
dc.date.available2018-06-12T14:51:07Z
dc.date.issued2018-05-16
dc.date.submitted2018-06-04
dc.identifier.citationNear real-time forecasting for cholera decision making in Haiti after Hurricane Matthew. 2018, 14 (5):e1006127 PLoS Comput. Biol.en
dc.identifier.issn1553-7358
dc.identifier.pmid29768401
dc.identifier.doi10.1371/journal.pcbi.1006127
dc.identifier.urihttp://hdl.handle.net/10144/619170
dc.description.abstractComputational models of cholera transmission can provide objective insights into the course of an ongoing epidemic and aid decision making on allocation of health care resources. However, models are typically designed, calibrated and interpreted post-hoc. Here, we report the efforts of a team from academia, field research and humanitarian organizations to model in near real-time the Haitian cholera outbreak after Hurricane Matthew in October 2016, to assess risk and to quantitatively estimate the efficacy of a then ongoing vaccination campaign. A rainfall-driven, spatially-explicit meta-community model of cholera transmission was coupled to a data assimilation scheme for computing short-term projections of the epidemic in near real-time. The model was used to forecast cholera incidence for the months after the passage of the hurricane (October-December 2016) and to predict the impact of a planned oral cholera vaccination campaign. Our first projection, from October 29 to December 31, predicted the highest incidence in the departments of Grande Anse and Sud, accounting for about 45% of the total cases in Haiti. The projection included a second peak in cholera incidence in early December largely driven by heavy rainfall forecasts, confirming the urgency for rapid intervention. A second projection (from November 12 to December 31) used updated rainfall forecasts to estimate that 835 cases would be averted by vaccinations in Grande Anse (90% Prediction Interval [PI] 476-1284) and 995 in Sud (90% PI 508-2043). The experience gained by this modeling effort shows that state-of-the-art computational modeling and data-assimilation methods can produce informative near real-time projections of cholera incidence. Collaboration among modelers and field epidemiologists is indispensable to gain fast access to field data and to translate model results into operational recommendations for emergency management during an outbreak. Future efforts should thus draw together multi-disciplinary teams to ensure model outputs are appropriately based, interpreted and communicated.
dc.language.isoenen
dc.publisherPublic Library of Scienceen
dc.rightsArchived with thanks to PLoS Computational Biologyen
dc.titleNear real-time forecasting for cholera decision making in Haiti after Hurricane Matthewen
dc.identifier.journalPLoS Computational Biologyen
refterms.dateFOA2019-03-04T14:01:07Z
html.description.abstractComputational models of cholera transmission can provide objective insights into the course of an ongoing epidemic and aid decision making on allocation of health care resources. However, models are typically designed, calibrated and interpreted post-hoc. Here, we report the efforts of a team from academia, field research and humanitarian organizations to model in near real-time the Haitian cholera outbreak after Hurricane Matthew in October 2016, to assess risk and to quantitatively estimate the efficacy of a then ongoing vaccination campaign. A rainfall-driven, spatially-explicit meta-community model of cholera transmission was coupled to a data assimilation scheme for computing short-term projections of the epidemic in near real-time. The model was used to forecast cholera incidence for the months after the passage of the hurricane (October-December 2016) and to predict the impact of a planned oral cholera vaccination campaign. Our first projection, from October 29 to December 31, predicted the highest incidence in the departments of Grande Anse and Sud, accounting for about 45% of the total cases in Haiti. The projection included a second peak in cholera incidence in early December largely driven by heavy rainfall forecasts, confirming the urgency for rapid intervention. A second projection (from November 12 to December 31) used updated rainfall forecasts to estimate that 835 cases would be averted by vaccinations in Grande Anse (90% Prediction Interval [PI] 476-1284) and 995 in Sud (90% PI 508-2043). The experience gained by this modeling effort shows that state-of-the-art computational modeling and data-assimilation methods can produce informative near real-time projections of cholera incidence. Collaboration among modelers and field epidemiologists is indispensable to gain fast access to field data and to translate model results into operational recommendations for emergency management during an outbreak. Future efforts should thus draw together multi-disciplinary teams to ensure model outputs are appropriately based, interpreted and communicated.


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