An Efficient Approach for Dengue Mitigation: A Computational Framework
Dengue mitigation is a major research area among scientist who are working towards an effective management of the dengue epidemic. An effective dengue mitigation requires several other important components. These components include an accurate epidemic modeling, an efficient epidemic prediction, and...
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ndltd-unt.edu-info-ark-67531-metadc15051772021-09-12T05:30:38Z An Efficient Approach for Dengue Mitigation: A Computational Framework Dinayadura, Nirosha Dengue Mitigation Computational Framework Regression Ensemble Resource Allocation Dengue Prediction Dengue -- Epidemiology. Dengue -- Prevention. Dengue mitigation is a major research area among scientist who are working towards an effective management of the dengue epidemic. An effective dengue mitigation requires several other important components. These components include an accurate epidemic modeling, an efficient epidemic prediction, and an efficient resource allocation for controlling of the spread of the dengue disease. Past studies assumed homogeneous response pattern of the dengue epidemic to climate conditions throughout the regions. The dengue epidemic is climate dependent and also it is geographically dependent. A global model is not sufficient to capture the local variations of the epidemic. We propose a novel method of epidemic modeling considering local variation and that uses micro ensemble of regressors for each region. There are three regressors that are used in the construction of the ensemble. These are support vector regression, ordinary least square regression, and a k-nearest neighbor regression. The best performing regressors get selected into the ensemble. The proposed ensemble determines the risk of dengue epidemic in each region in advance. The risk is then used in risk-based resource allocation. The proposing resource allocation is built based on the genetic algorithm. The algorithm exploits the genetic algorithm with major modifications to its main components, mutation and crossover. The proposed resource allocation converges faster than the standard genetic algorithm and also produces a better allocation compared to the standard algorithm. University of North Texas Bryce, Renee Tiwari, Chetan Fu, Song Mikler, Armin R. 2019-05 Thesis or Dissertation x, 98 pages Text local-cont-no: submission_1463 https://digital.library.unt.edu/ark:/67531/metadc1505177/ ark: ark:/67531/metadc1505177 English Public Dinayadura, Nirosha Copyright Copyright is held by the author, unless otherwise noted. All rights Reserved. |
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Dengue Mitigation Computational Framework Regression Ensemble Resource Allocation Dengue Prediction Dengue -- Epidemiology. Dengue -- Prevention. |
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Dengue Mitigation Computational Framework Regression Ensemble Resource Allocation Dengue Prediction Dengue -- Epidemiology. Dengue -- Prevention. Dinayadura, Nirosha An Efficient Approach for Dengue Mitigation: A Computational Framework |
description |
Dengue mitigation is a major research area among scientist who are working towards an effective management of the dengue epidemic. An effective dengue mitigation requires several other important components. These components include an accurate epidemic modeling, an efficient epidemic prediction, and an efficient resource allocation for controlling of the spread of the dengue disease. Past studies assumed homogeneous response pattern of the dengue epidemic to climate conditions throughout the regions. The dengue epidemic is climate dependent and also it is geographically dependent. A global model is not sufficient to capture the local variations of the epidemic. We propose a novel method of epidemic modeling considering local variation and that uses micro ensemble of regressors for each region. There are three regressors that are used in the construction of the ensemble. These are support vector regression, ordinary least square regression, and a k-nearest neighbor regression. The best performing regressors get selected into the ensemble. The proposed ensemble determines the risk of dengue epidemic in each region in advance. The risk is then used in risk-based resource allocation. The proposing resource allocation is built based on the genetic algorithm. The algorithm exploits the genetic algorithm with major modifications to its main components, mutation and crossover. The proposed resource allocation converges faster than the standard genetic algorithm and also produces a better allocation compared to the standard algorithm. |
author2 |
Bryce, Renee |
author_facet |
Bryce, Renee Dinayadura, Nirosha |
author |
Dinayadura, Nirosha |
author_sort |
Dinayadura, Nirosha |
title |
An Efficient Approach for Dengue Mitigation: A Computational Framework |
title_short |
An Efficient Approach for Dengue Mitigation: A Computational Framework |
title_full |
An Efficient Approach for Dengue Mitigation: A Computational Framework |
title_fullStr |
An Efficient Approach for Dengue Mitigation: A Computational Framework |
title_full_unstemmed |
An Efficient Approach for Dengue Mitigation: A Computational Framework |
title_sort |
efficient approach for dengue mitigation: a computational framework |
publisher |
University of North Texas |
publishDate |
2019 |
url |
https://digital.library.unt.edu/ark:/67531/metadc1505177/ |
work_keys_str_mv |
AT dinayaduranirosha anefficientapproachfordenguemitigationacomputationalframework AT dinayaduranirosha efficientapproachfordenguemitigationacomputationalframework |
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1719480688073244672 |