Identifying suitable general circulation model for future building cooling energy analysis

These future building energy studies mainly stem from hourly based dynamic building simulation results with the future weather data. The reliability of the future building energy forecast heavily relies on the accuracy of these future weather data. The global circulation models (GCMs) provided by IP...

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Main Authors: Huang Kuo-Tsang, Weng Yu-Teng, Hwang Ruey-Lung
Format: Article
Language:English
Published: EDP Sciences 2019-01-01
Series:E3S Web of Conferences
Online Access:https://www.e3s-conferences.org/articles/e3sconf/pdf/2019/37/e3sconf_clima2019_06056.pdf
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spelling doaj-ecb382f6bcab441b904ae50634b634ac2021-02-02T01:47:04ZengEDP SciencesE3S Web of Conferences2267-12422019-01-011110605610.1051/e3sconf/201911106056e3sconf_clima2019_06056Identifying suitable general circulation model for future building cooling energy analysisHuang Kuo-Tsang0Weng Yu-Teng1Hwang Ruey-Lung2Department of Bioenvironmental Systems Engineering, National Taiwan UniversityDepartment of Bioenvironmental Systems Engineering, National Taiwan UniversityDepartment of Industrial Technology Education, National Kaohsiung Normal UniversityThese future building energy studies mainly stem from hourly based dynamic building simulation results with the future weather data. The reliability of the future building energy forecast heavily relies on the accuracy of these future weather data. The global circulation models (GCMs) provided by IPCC are the major sources for constructing future weather data. However, there are uncertainties existed among them even with the same climate change scenarios. There is a need to develop a method on how to select the suitable GCM for local application. This research firstly adopted principal component analysis (PCA) method in choosing the suitable GCM for application in Taiwan, and secondly the Taiwanese hourly future meteorological data sets were constructed based on the selected GCM by morphing method. Thirdly, the future cooling energy consumption of an actual office building in the near (2011-2040), the mid (2041-2070), and the far future (2071-2100), were analysed. The results show that NorESM1-M GCM has the lowest root mean square error (RMSE) as opposed to the other GCMs, and was identified as the suitable GCM for further future climate generation processing. The building simulation against the future weather datasets revealed that the average cooling energy use intensity (EUIc) in Taipei will be increased by 12%, 17%, and 34% in the 2020s, 2050s, and 2080s, respectively, as compared to the current climate.https://www.e3s-conferences.org/articles/e3sconf/pdf/2019/37/e3sconf_clima2019_06056.pdf
collection DOAJ
language English
format Article
sources DOAJ
author Huang Kuo-Tsang
Weng Yu-Teng
Hwang Ruey-Lung
spellingShingle Huang Kuo-Tsang
Weng Yu-Teng
Hwang Ruey-Lung
Identifying suitable general circulation model for future building cooling energy analysis
E3S Web of Conferences
author_facet Huang Kuo-Tsang
Weng Yu-Teng
Hwang Ruey-Lung
author_sort Huang Kuo-Tsang
title Identifying suitable general circulation model for future building cooling energy analysis
title_short Identifying suitable general circulation model for future building cooling energy analysis
title_full Identifying suitable general circulation model for future building cooling energy analysis
title_fullStr Identifying suitable general circulation model for future building cooling energy analysis
title_full_unstemmed Identifying suitable general circulation model for future building cooling energy analysis
title_sort identifying suitable general circulation model for future building cooling energy analysis
publisher EDP Sciences
series E3S Web of Conferences
issn 2267-1242
publishDate 2019-01-01
description These future building energy studies mainly stem from hourly based dynamic building simulation results with the future weather data. The reliability of the future building energy forecast heavily relies on the accuracy of these future weather data. The global circulation models (GCMs) provided by IPCC are the major sources for constructing future weather data. However, there are uncertainties existed among them even with the same climate change scenarios. There is a need to develop a method on how to select the suitable GCM for local application. This research firstly adopted principal component analysis (PCA) method in choosing the suitable GCM for application in Taiwan, and secondly the Taiwanese hourly future meteorological data sets were constructed based on the selected GCM by morphing method. Thirdly, the future cooling energy consumption of an actual office building in the near (2011-2040), the mid (2041-2070), and the far future (2071-2100), were analysed. The results show that NorESM1-M GCM has the lowest root mean square error (RMSE) as opposed to the other GCMs, and was identified as the suitable GCM for further future climate generation processing. The building simulation against the future weather datasets revealed that the average cooling energy use intensity (EUIc) in Taipei will be increased by 12%, 17%, and 34% in the 2020s, 2050s, and 2080s, respectively, as compared to the current climate.
url https://www.e3s-conferences.org/articles/e3sconf/pdf/2019/37/e3sconf_clima2019_06056.pdf
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AT wengyuteng identifyingsuitablegeneralcirculationmodelforfuturebuildingcoolingenergyanalysis
AT hwangrueylung identifyingsuitablegeneralcirculationmodelforfuturebuildingcoolingenergyanalysis
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