Potential Emergence of Dengue in the Phoenix Metropolitan Area: A Micro-climatic and Demographic Analysis

abstract: The spread of dengue worldwide currently places half of the world’s population at risk. In the absence of a dengue vaccine, control of the disease requires control of the mosquito species that transmit the virus. The most important of these is. Advances in research detailing the responsive...

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Other Authors: Hughes, Tyler C. (Author)
Format: Dissertation
Language:English
Published: 2016
Subjects:
DTR
Online Access:http://hdl.handle.net/2286/R.I.41274
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record_format oai_dc
spelling ndltd-asu.edu-item-412742018-06-22T03:08:06Z Potential Emergence of Dengue in the Phoenix Metropolitan Area: A Micro-climatic and Demographic Analysis abstract: The spread of dengue worldwide currently places half of the world’s population at risk. In the absence of a dengue vaccine, control of the disease requires control of the mosquito species that transmit the virus. The most important of these is. Advances in research detailing the responsiveness of Aedes aegypti to small changes in climate enable the production of more sophisticated remote sensing and surveillance techniques for monitoring these populations. Close monitoring of global dengue activity and outbreaks likewise enables a greater specificity when determining to which human populations the virus is most likely to spread. There have been no locally acquired cases in Arizona to date, but the high abundance of Aedes aegypti in the Phoenix Metropolitan area raises concern within the Arizona Department of Health Services over the potential transmission of dengue in the city. This study develops a model that combines mosquito abundance, micro-climatic and demographic information to delineate regions in Phoenix that are most support transmission of dengue. The first chapter focuses on the impact that daytime high and low temperatures have on Aedes aegypti’s ability to become infectious with dengue. It argues that NDVI (normal difference vegetative index) imaging of the Phoenix area can be used to plot areas where mosquitoes are most likely to become competent vectors. The second chapter focuses on the areas in the city where mosquitoes are most likely to be exposed to the virus. Based on proximity to Phoenix and the high volume of traffic across the Arizona-Mexico border, I treat the Mexican state of Sonora as the source of infection. I combine these two analyses, micro-climatic and demographic, to produce maps of Phoenix that show the locations with the highest likelihood of transmission overall. Dissertation/Thesis Hughes, Tyler C. (Author) Perrings, Charles (Advisor) Kinzig, Ann (Committee member) Hall, Sharon J (Committee member) Arizona State University (Publisher) Biology Ecology Epidemiology dengue DTR micro-climate NDVI Phoenix Metropolitan Area eng 94 pages Masters Thesis Biology 2016 Masters Thesis http://hdl.handle.net/2286/R.I.41274 http://rightsstatements.org/vocab/InC/1.0/ All Rights Reserved 2016
collection NDLTD
language English
format Dissertation
sources NDLTD
topic Biology
Ecology
Epidemiology
dengue
DTR
micro-climate
NDVI
Phoenix Metropolitan Area
spellingShingle Biology
Ecology
Epidemiology
dengue
DTR
micro-climate
NDVI
Phoenix Metropolitan Area
Potential Emergence of Dengue in the Phoenix Metropolitan Area: A Micro-climatic and Demographic Analysis
description abstract: The spread of dengue worldwide currently places half of the world’s population at risk. In the absence of a dengue vaccine, control of the disease requires control of the mosquito species that transmit the virus. The most important of these is. Advances in research detailing the responsiveness of Aedes aegypti to small changes in climate enable the production of more sophisticated remote sensing and surveillance techniques for monitoring these populations. Close monitoring of global dengue activity and outbreaks likewise enables a greater specificity when determining to which human populations the virus is most likely to spread. There have been no locally acquired cases in Arizona to date, but the high abundance of Aedes aegypti in the Phoenix Metropolitan area raises concern within the Arizona Department of Health Services over the potential transmission of dengue in the city. This study develops a model that combines mosquito abundance, micro-climatic and demographic information to delineate regions in Phoenix that are most support transmission of dengue. The first chapter focuses on the impact that daytime high and low temperatures have on Aedes aegypti’s ability to become infectious with dengue. It argues that NDVI (normal difference vegetative index) imaging of the Phoenix area can be used to plot areas where mosquitoes are most likely to become competent vectors. The second chapter focuses on the areas in the city where mosquitoes are most likely to be exposed to the virus. Based on proximity to Phoenix and the high volume of traffic across the Arizona-Mexico border, I treat the Mexican state of Sonora as the source of infection. I combine these two analyses, micro-climatic and demographic, to produce maps of Phoenix that show the locations with the highest likelihood of transmission overall. === Dissertation/Thesis === Masters Thesis Biology 2016
author2 Hughes, Tyler C. (Author)
author_facet Hughes, Tyler C. (Author)
title Potential Emergence of Dengue in the Phoenix Metropolitan Area: A Micro-climatic and Demographic Analysis
title_short Potential Emergence of Dengue in the Phoenix Metropolitan Area: A Micro-climatic and Demographic Analysis
title_full Potential Emergence of Dengue in the Phoenix Metropolitan Area: A Micro-climatic and Demographic Analysis
title_fullStr Potential Emergence of Dengue in the Phoenix Metropolitan Area: A Micro-climatic and Demographic Analysis
title_full_unstemmed Potential Emergence of Dengue in the Phoenix Metropolitan Area: A Micro-climatic and Demographic Analysis
title_sort potential emergence of dengue in the phoenix metropolitan area: a micro-climatic and demographic analysis
publishDate 2016
url http://hdl.handle.net/2286/R.I.41274
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