Residential Solar-Based Seasonal Thermal Storage Systems in Cold Climates: Building Envelope and Thermal Storage

The reduction of electricity use for heating and domestic hot water in cold climates can be achieved by: (1) reducing the heating loads through the improvement of the thermal performance of house envelopes, and (2) using solar energy through a residential solar-based thermal storage system. First, t...

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Main Authors: Alexandre Hugo, Radu Zmeureanu
Format: Article
Language:English
Published: MDPI AG 2012-10-01
Series:Energies
Subjects:
Online Access:http://www.mdpi.com/1996-1073/5/10/3972
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spelling doaj-aa39fb77eaa642d7bebc1d5d402fcea42020-11-25T01:41:00ZengMDPI AGEnergies1996-10732012-10-015103972398510.3390/en5103972Residential Solar-Based Seasonal Thermal Storage Systems in Cold Climates: Building Envelope and Thermal StorageAlexandre HugoRadu ZmeureanuThe reduction of electricity use for heating and domestic hot water in cold climates can be achieved by: (1) reducing the heating loads through the improvement of the thermal performance of house envelopes, and (2) using solar energy through a residential solar-based thermal storage system. First, this paper presents the life cycle energy and cost analysis of a typical one-storey detached house, located in Montreal, Canada. Simulation of annual energy use is performed using the TRNSYS software. Second, several design alternatives with improved thermal resistance for walls, ceiling and windows, increased overall air tightness, and increased window-to-wall ratio of South facing windows are evaluated with respect to the life cycle energy use, life cycle emissions and life cycle cost. The solution that minimizes the energy demand is chosen as a reference house for the study of long-term thermal storage. Third, the computer simulation of a solar heating system with solar thermal collectors and long-term thermal storage capacity is presented. Finally, the life cycle cost and life cycle energy use of the solar combisystem are estimated for flat-plate solar collectors and evacuated tube solar collectors, respectively, for the economic and climatic conditions of this study.http://www.mdpi.com/1996-1073/5/10/3972combisystemheatingsolar energyhouseenvelopestorageenergycostlife cycle
collection DOAJ
language English
format Article
sources DOAJ
author Alexandre Hugo
Radu Zmeureanu
spellingShingle Alexandre Hugo
Radu Zmeureanu
Residential Solar-Based Seasonal Thermal Storage Systems in Cold Climates: Building Envelope and Thermal Storage
Energies
combisystem
heating
solar energy
house
envelope
storage
energy
cost
life cycle
author_facet Alexandre Hugo
Radu Zmeureanu
author_sort Alexandre Hugo
title Residential Solar-Based Seasonal Thermal Storage Systems in Cold Climates: Building Envelope and Thermal Storage
title_short Residential Solar-Based Seasonal Thermal Storage Systems in Cold Climates: Building Envelope and Thermal Storage
title_full Residential Solar-Based Seasonal Thermal Storage Systems in Cold Climates: Building Envelope and Thermal Storage
title_fullStr Residential Solar-Based Seasonal Thermal Storage Systems in Cold Climates: Building Envelope and Thermal Storage
title_full_unstemmed Residential Solar-Based Seasonal Thermal Storage Systems in Cold Climates: Building Envelope and Thermal Storage
title_sort residential solar-based seasonal thermal storage systems in cold climates: building envelope and thermal storage
publisher MDPI AG
series Energies
issn 1996-1073
publishDate 2012-10-01
description The reduction of electricity use for heating and domestic hot water in cold climates can be achieved by: (1) reducing the heating loads through the improvement of the thermal performance of house envelopes, and (2) using solar energy through a residential solar-based thermal storage system. First, this paper presents the life cycle energy and cost analysis of a typical one-storey detached house, located in Montreal, Canada. Simulation of annual energy use is performed using the TRNSYS software. Second, several design alternatives with improved thermal resistance for walls, ceiling and windows, increased overall air tightness, and increased window-to-wall ratio of South facing windows are evaluated with respect to the life cycle energy use, life cycle emissions and life cycle cost. The solution that minimizes the energy demand is chosen as a reference house for the study of long-term thermal storage. Third, the computer simulation of a solar heating system with solar thermal collectors and long-term thermal storage capacity is presented. Finally, the life cycle cost and life cycle energy use of the solar combisystem are estimated for flat-plate solar collectors and evacuated tube solar collectors, respectively, for the economic and climatic conditions of this study.
topic combisystem
heating
solar energy
house
envelope
storage
energy
cost
life cycle
url http://www.mdpi.com/1996-1073/5/10/3972
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