Resiliency comparison of radiant cooling systems and all- air systems

Radiant systems have been proven to be an energy-efficient and resource-effective heating and cooling solution for buildings. A key feature of a thermally active building system (TABS), one type of a radiant cooling system, is its ability to activate and control the thermal mass of the building stru...

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Main Authors: Shindo Kan, Shinoda Jun, Kazanci Ongun B., Bogatu Dragos-Ioan, Tanabe Shin-ichi, Olesen Bjarne W.
Format: Article
Language:English
Published: EDP Sciences 2023-01-01
Series:E3S Web of Conferences
Online Access:https://www.e3s-conferences.org/articles/e3sconf/pdf/2023/33/e3sconf_iaqvec2023_01089.pdf
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author Shindo Kan
Shinoda Jun
Kazanci Ongun B.
Bogatu Dragos-Ioan
Tanabe Shin-ichi
Olesen Bjarne W.
author_facet Shindo Kan
Shinoda Jun
Kazanci Ongun B.
Bogatu Dragos-Ioan
Tanabe Shin-ichi
Olesen Bjarne W.
author_sort Shindo Kan
collection DOAJ
description Radiant systems have been proven to be an energy-efficient and resource-effective heating and cooling solution for buildings. A key feature of a thermally active building system (TABS), one type of a radiant cooling system, is its ability to activate and control the thermal mass of the building structure. The advantage of this feature is the peak load shifting effect by the thermal mass, which leads to energy saving compared to a conventional system, e.g., an all-air system. This feature of the radiant cooling system could be particularly beneficial under a heat wave and power outage event. Dynamic building simulations were carried out to quantify the resilience of TABS to heat waves and power outages. An all-air system (i.e., airconditioning) was used as the reference cooling system. The simulations were carried out using EnergyPlus. Future weather files (typical meteorological years and years with heat waves) developed in IEA EBC Annex 80 were used for the simulations. In both HVAC systems. Simulation results for future weather data resulted in a decrease in heating demand and an increase in cooling demand.
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spelling doaj.art-dc087e252de0453aa7855e46857b22912023-06-20T09:04:03ZengEDP SciencesE3S Web of Conferences2267-12422023-01-013960108910.1051/e3sconf/202339601089e3sconf_iaqvec2023_01089Resiliency comparison of radiant cooling systems and all- air systemsShindo Kan0Shinoda Jun1Kazanci Ongun B.2Bogatu Dragos-Ioan3Tanabe Shin-ichi4Olesen Bjarne W.5Department of Architecture, Waseda UniversityInternational Centre for Indoor Environment and Energy – ICIEE, Department of Environmental and Resource Engineering, Technical University of Denmark, Nils Koppels AlléInternational Centre for Indoor Environment and Energy – ICIEE, Department of Environmental and Resource Engineering, Technical University of Denmark, Nils Koppels AlléInternational Centre for Indoor Environment and Energy – ICIEE, Department of Environmental and Resource Engineering, Technical University of Denmark, Nils Koppels AlléDepartment of Architecture, Waseda UniversityInternational Centre for Indoor Environment and Energy – ICIEE, Department of Environmental and Resource Engineering, Technical University of Denmark, Nils Koppels AlléRadiant systems have been proven to be an energy-efficient and resource-effective heating and cooling solution for buildings. A key feature of a thermally active building system (TABS), one type of a radiant cooling system, is its ability to activate and control the thermal mass of the building structure. The advantage of this feature is the peak load shifting effect by the thermal mass, which leads to energy saving compared to a conventional system, e.g., an all-air system. This feature of the radiant cooling system could be particularly beneficial under a heat wave and power outage event. Dynamic building simulations were carried out to quantify the resilience of TABS to heat waves and power outages. An all-air system (i.e., airconditioning) was used as the reference cooling system. The simulations were carried out using EnergyPlus. Future weather files (typical meteorological years and years with heat waves) developed in IEA EBC Annex 80 were used for the simulations. In both HVAC systems. Simulation results for future weather data resulted in a decrease in heating demand and an increase in cooling demand.https://www.e3s-conferences.org/articles/e3sconf/pdf/2023/33/e3sconf_iaqvec2023_01089.pdf
spellingShingle Shindo Kan
Shinoda Jun
Kazanci Ongun B.
Bogatu Dragos-Ioan
Tanabe Shin-ichi
Olesen Bjarne W.
Resiliency comparison of radiant cooling systems and all- air systems
E3S Web of Conferences
title Resiliency comparison of radiant cooling systems and all- air systems
title_full Resiliency comparison of radiant cooling systems and all- air systems
title_fullStr Resiliency comparison of radiant cooling systems and all- air systems
title_full_unstemmed Resiliency comparison of radiant cooling systems and all- air systems
title_short Resiliency comparison of radiant cooling systems and all- air systems
title_sort resiliency comparison of radiant cooling systems and all air systems
url https://www.e3s-conferences.org/articles/e3sconf/pdf/2023/33/e3sconf_iaqvec2023_01089.pdf
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