Experimental Evaluation of Phase Change Material Blister Panels for Building Application

Phase Change Materials (PCMs) are characterised by their capacity to absorb available thermal energy, store it, and passively release it by utilizing latent heat during phase change, thus reducing temperature peaks and improving thermal comfort. This paper experimentally investigates the feasibility...

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Main Authors: Mariana Velasco-Carrasco, Ziwei Chen, Jorge Luis Aguilar-Santana, Saffa Riffat
Format: Article
Language:English
Published: Ubiquity Press 2020-06-01
Series:Future Cities and Environment
Subjects:
Online Access:https://futurecitiesandenvironment.com/articles/84
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spelling doaj-b2da933d98aa445492260dd68aae4f262020-11-25T03:52:38ZengUbiquity PressFuture Cities and Environment2363-90752020-06-016110.5334/fce.8463Experimental Evaluation of Phase Change Material Blister Panels for Building ApplicationMariana Velasco-Carrasco0Ziwei Chen1Jorge Luis Aguilar-Santana2Saffa Riffat3Department of Architecture and Built Environment, Faculty of Engineering, University of NottinghamDepartment of Architecture and Built Environment, Faculty of Engineering, University of NottinghamDepartment of Architecture and Built Environment, Faculty of Engineering, University of NottinghamDepartment of Architecture and Built Environment, Faculty of Engineering, University of NottinghamPhase Change Materials (PCMs) are characterised by their capacity to absorb available thermal energy, store it, and passively release it by utilizing latent heat during phase change, thus reducing temperature peaks and improving thermal comfort. This paper experimentally investigates the feasibility of a novel blister PCM panel for ceiling tile applications. Experimental panels enhance the thermal conductivity of the PCM with the addition of steel and aluminium wool particles at 3.77 wt.% and 23 wt.%, respectively. During the experimental procedure, the blister panels where able to absorb the heat coming from the environmental chamber, proving that the encapsulation material was able to promote the heat exchange. Furthermore, the PCM enhancement indicates that both the aluminium and steel wool particles improved the blister panel thermal performance. These results were confirmed by thermal conductive, calculated at 0.733 W/(m K) for the base panel, 0.739 W/(m K) for the aluminium wool, and 0.784 W/W/(m K) for the steel wool. The experiment suggest that the application of PCM blister ceiling tiles can be considered as an innovative method for thermal performance control and energy saving.https://futurecitiesandenvironment.com/articles/84blister panelsenergy storagephase change materialsthermal performance
collection DOAJ
language English
format Article
sources DOAJ
author Mariana Velasco-Carrasco
Ziwei Chen
Jorge Luis Aguilar-Santana
Saffa Riffat
spellingShingle Mariana Velasco-Carrasco
Ziwei Chen
Jorge Luis Aguilar-Santana
Saffa Riffat
Experimental Evaluation of Phase Change Material Blister Panels for Building Application
Future Cities and Environment
blister panels
energy storage
phase change materials
thermal performance
author_facet Mariana Velasco-Carrasco
Ziwei Chen
Jorge Luis Aguilar-Santana
Saffa Riffat
author_sort Mariana Velasco-Carrasco
title Experimental Evaluation of Phase Change Material Blister Panels for Building Application
title_short Experimental Evaluation of Phase Change Material Blister Panels for Building Application
title_full Experimental Evaluation of Phase Change Material Blister Panels for Building Application
title_fullStr Experimental Evaluation of Phase Change Material Blister Panels for Building Application
title_full_unstemmed Experimental Evaluation of Phase Change Material Blister Panels for Building Application
title_sort experimental evaluation of phase change material blister panels for building application
publisher Ubiquity Press
series Future Cities and Environment
issn 2363-9075
publishDate 2020-06-01
description Phase Change Materials (PCMs) are characterised by their capacity to absorb available thermal energy, store it, and passively release it by utilizing latent heat during phase change, thus reducing temperature peaks and improving thermal comfort. This paper experimentally investigates the feasibility of a novel blister PCM panel for ceiling tile applications. Experimental panels enhance the thermal conductivity of the PCM with the addition of steel and aluminium wool particles at 3.77 wt.% and 23 wt.%, respectively. During the experimental procedure, the blister panels where able to absorb the heat coming from the environmental chamber, proving that the encapsulation material was able to promote the heat exchange. Furthermore, the PCM enhancement indicates that both the aluminium and steel wool particles improved the blister panel thermal performance. These results were confirmed by thermal conductive, calculated at 0.733 W/(m K) for the base panel, 0.739 W/(m K) for the aluminium wool, and 0.784 W/W/(m K) for the steel wool. The experiment suggest that the application of PCM blister ceiling tiles can be considered as an innovative method for thermal performance control and energy saving.
topic blister panels
energy storage
phase change materials
thermal performance
url https://futurecitiesandenvironment.com/articles/84
work_keys_str_mv AT marianavelascocarrasco experimentalevaluationofphasechangematerialblisterpanelsforbuildingapplication
AT ziweichen experimentalevaluationofphasechangematerialblisterpanelsforbuildingapplication
AT jorgeluisaguilarsantana experimentalevaluationofphasechangematerialblisterpanelsforbuildingapplication
AT saffariffat experimentalevaluationofphasechangematerialblisterpanelsforbuildingapplication
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