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Main Authors: Areed, Wala Draidi, Nguyen, Thi Thanh Thao, Do, Kien Quoc, Nguyen, Thinh, Bui, Vinh, Nelson, Elisabeth, Warren, Joshua L., Doan, Quang-Van, Sinh, Nam Vu, Osborne, Nicholas, Richards, Russell, Tran, Nu Quy Linh, Le, Hong, Pham, Tuan, Hung, Trinh Manh, Nghiem, Son, Phung, Hai, Chu, Cordia, Dubrow, Robert, Weinberger, Daniel M., Phung, Dung
Format: Preprint
Published: 2024
Subjects:
Online Access:https://arxiv.org/abs/2412.15645
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author Areed, Wala Draidi
Nguyen, Thi Thanh Thao
Do, Kien Quoc
Nguyen, Thinh
Bui, Vinh
Nelson, Elisabeth
Warren, Joshua L.
Doan, Quang-Van
Sinh, Nam Vu
Osborne, Nicholas
Richards, Russell
Tran, Nu Quy Linh
Le, Hong
Pham, Tuan
Hung, Trinh Manh
Nghiem, Son
Phung, Hai
Chu, Cordia
Dubrow, Robert
Weinberger, Daniel M.
Phung, Dung
author_facet Areed, Wala Draidi
Nguyen, Thi Thanh Thao
Do, Kien Quoc
Nguyen, Thinh
Bui, Vinh
Nelson, Elisabeth
Warren, Joshua L.
Doan, Quang-Van
Sinh, Nam Vu
Osborne, Nicholas
Richards, Russell
Tran, Nu Quy Linh
Le, Hong
Pham, Tuan
Hung, Trinh Manh
Nghiem, Son
Phung, Hai
Chu, Cordia
Dubrow, Robert
Weinberger, Daniel M.
Phung, Dung
contents The Mekong Delta Region of Vietnam faces increasing dengue risks driven by urbanization, globalization, and climate change. This study introduces a probabilistic forecasting model for predicting dengue incidence and outbreaks with one to three month lead times, integrating meteorological, sociodemographic, preventive, and epidemiological data. Seventy-two models were evaluated, and an ensemble combining top-performing spatiotemporal, supervised PCA, and semi-mechanistic hhh4 frameworks was developed. Using data from 2004-2022 for training, validation, and evaluation, the ensemble model demonstrated 69% accuracy at a 3-month horizon, outperforming a baseline model. While effective, its performance declined in years with atypical seasonality, such as 2019 and 2022. The model provides critical lead time for targeted dengue prevention and control measures, addressing a growing public health need in the region.
format Preprint
id arxiv_https___arxiv_org_abs_2412_15645
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle A District-level Ensemble Model to Enhance Dengue Prediction and Control for the Mekong Delta Region of Vietnam
Areed, Wala Draidi
Nguyen, Thi Thanh Thao
Do, Kien Quoc
Nguyen, Thinh
Bui, Vinh
Nelson, Elisabeth
Warren, Joshua L.
Doan, Quang-Van
Sinh, Nam Vu
Osborne, Nicholas
Richards, Russell
Tran, Nu Quy Linh
Le, Hong
Pham, Tuan
Hung, Trinh Manh
Nghiem, Son
Phung, Hai
Chu, Cordia
Dubrow, Robert
Weinberger, Daniel M.
Phung, Dung
Applications
The Mekong Delta Region of Vietnam faces increasing dengue risks driven by urbanization, globalization, and climate change. This study introduces a probabilistic forecasting model for predicting dengue incidence and outbreaks with one to three month lead times, integrating meteorological, sociodemographic, preventive, and epidemiological data. Seventy-two models were evaluated, and an ensemble combining top-performing spatiotemporal, supervised PCA, and semi-mechanistic hhh4 frameworks was developed. Using data from 2004-2022 for training, validation, and evaluation, the ensemble model demonstrated 69% accuracy at a 3-month horizon, outperforming a baseline model. While effective, its performance declined in years with atypical seasonality, such as 2019 and 2022. The model provides critical lead time for targeted dengue prevention and control measures, addressing a growing public health need in the region.
title A District-level Ensemble Model to Enhance Dengue Prediction and Control for the Mekong Delta Region of Vietnam
topic Applications
url https://arxiv.org/abs/2412.15645