Evaluation of future design rainfall extremes and characteristics using multiple-model and multiple-scenario climate change models

Climate models are common tools for developing design standards in the hydrologic field; however, these models contain uncertainties in multi-model and scenario selections. Along with these uncertainties, biases can be attached to the models. Such biases and uncertainties can present difficulties...

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Other Authors: Dezmain, Celyn (author)
Format: Others
Language:English
Published: Florida Atlantic University
Subjects:
Online Access:http://purl.flvc.org/fau/fd/FA0004016
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spelling ndltd-fau.edu-oai-fau.digital.flvc.org-fau_130602019-07-04T03:52:17Z Evaluation of future design rainfall extremes and characteristics using multiple-model and multiple-scenario climate change models FA0004016 Dezmain, Celyn (author) Teegavarapu, Ramesh (Thesis advisor) College of Engineering and Computer Science (Degree grantor) 190 p. Online Resource Electronic Thesis or Dissertation Text English Climate models are common tools for developing design standards in the hydrologic field; however, these models contain uncertainties in multi-model and scenario selections. Along with these uncertainties, biases can be attached to the models. Such biases and uncertainties can present difficulties in predicting future extremes. These hydrologic extremes are believed to be non-stationary in character. Only in the recent past have model users come to terms that the current hydrologic designs are no longer relevant due to their assumption of stationarity. This study describes a systematic method of selecting a best fit model in relationship to location and time, along with the use of that best fit model for evaluation of future extremes. Rain gage stations throughout Florida are used to collect daily precipitation data used in extreme precipitation and quantitative indices. Through these indices conclusions are made on model selection and future extremes, as they relate to hydrologic designs. Florida Atlantic University Includes bibliography. Thesis (M.S.)--Florida Atlantic University, 2013. All rights reserved by the source institution http://purl.flvc.org/fau/fd/FA0004016 Climatic changes -- Environmental aspects Climatic extremes Hydrologic models Percipitation (Meteorology) -- Measurement Department of Civil, Environmental and Geomatics Engineering http://rightsstatements.org/vocab/InC/1.0/ https://fau.digital.flvc.org/islandora/object/fau%3A13060/datastream/TN/view/Evaluation%20of%20future%20design%20rainfall%20extremes%20and%20characteristics%20using%20multiple-model%20and%20multiple-scenario%20climate%20change%20models.jpg
collection NDLTD
language English
format Others
sources NDLTD
topic Climatic changes -- Environmental aspects
Climatic extremes
Hydrologic models
Percipitation (Meteorology) -- Measurement
spellingShingle Climatic changes -- Environmental aspects
Climatic extremes
Hydrologic models
Percipitation (Meteorology) -- Measurement
Evaluation of future design rainfall extremes and characteristics using multiple-model and multiple-scenario climate change models
description Climate models are common tools for developing design standards in the hydrologic field; however, these models contain uncertainties in multi-model and scenario selections. Along with these uncertainties, biases can be attached to the models. Such biases and uncertainties can present difficulties in predicting future extremes. These hydrologic extremes are believed to be non-stationary in character. Only in the recent past have model users come to terms that the current hydrologic designs are no longer relevant due to their assumption of stationarity. This study describes a systematic method of selecting a best fit model in relationship to location and time, along with the use of that best fit model for evaluation of future extremes. Rain gage stations throughout Florida are used to collect daily precipitation data used in extreme precipitation and quantitative indices. Through these indices conclusions are made on model selection and future extremes, as they relate to hydrologic designs. === Includes bibliography. === Thesis (M.S.)--Florida Atlantic University, 2013.
author2 Dezmain, Celyn (author)
author_facet Dezmain, Celyn (author)
title Evaluation of future design rainfall extremes and characteristics using multiple-model and multiple-scenario climate change models
title_short Evaluation of future design rainfall extremes and characteristics using multiple-model and multiple-scenario climate change models
title_full Evaluation of future design rainfall extremes and characteristics using multiple-model and multiple-scenario climate change models
title_fullStr Evaluation of future design rainfall extremes and characteristics using multiple-model and multiple-scenario climate change models
title_full_unstemmed Evaluation of future design rainfall extremes and characteristics using multiple-model and multiple-scenario climate change models
title_sort evaluation of future design rainfall extremes and characteristics using multiple-model and multiple-scenario climate change models
publisher Florida Atlantic University
url http://purl.flvc.org/fau/fd/FA0004016
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