Comparative Analysis of Resource and Climate Footprints for Different Heating Systems in Building Information Modeling

Buildings play an important role to meet Sustainable Development Goals, especially regarding the use of resources and greenhouse gas emissions. They are increasingly designed with energy-efficient solutions regarding their operations, while the related use of natural resources is still insufficientl...

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Main Authors: Husam Sameer, Guillaume Behem, Clemens Mostert, Stefan Bringezu
Format: Article
Language:English
Published: MDPI AG 2022-10-01
Series:Buildings
Subjects:
Online Access:https://www.mdpi.com/2075-5309/12/11/1824
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author Husam Sameer
Guillaume Behem
Clemens Mostert
Stefan Bringezu
author_facet Husam Sameer
Guillaume Behem
Clemens Mostert
Stefan Bringezu
author_sort Husam Sameer
collection DOAJ
description Buildings play an important role to meet Sustainable Development Goals, especially regarding the use of resources and greenhouse gas emissions. They are increasingly designed with energy-efficient solutions regarding their operations, while the related use of natural resources is still insufficiently considered. In this article, a methodology in Building Information Modeling is proposed to measure the resource and climate footprints of buildings’ heating systems. The methodology is applied to a case study building in Germany. The studied heating systems include a gas condensing boiler, ground-source heat pump, ground-source heat pump with a photo-voltaic system and air-source heat pump backed up with a gas boiler. Next to the operational energy, the production and transport of the heating systems were also studied. Results show that heating system operations have the largest impact and that the variant of ground-source heat pump combined with photovoltaics (GSHP + PV) has the lowest impact. In comparison with the gas boiler (GB), savings of 75%, 47%, 80%, and 84% are addressed to climate, material, energy, and land footprints, respectively, while the water footprint of GSHP + PV is 73% higher than that of GB.
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spelling doaj.art-270af60f35bc4508a084bdba4ae6141e2023-11-24T03:58:15ZengMDPI AGBuildings2075-53092022-10-011211182410.3390/buildings12111824Comparative Analysis of Resource and Climate Footprints for Different Heating Systems in Building Information ModelingHusam Sameer0Guillaume Behem1Clemens Mostert2Stefan Bringezu3Center for Environmental Systems Research (CESR), Kassel Institute for Sustainability, University of Kassel, 34109 Kassel, GermanyInstitute for Housing and Environment (IWU), Rheinstraße 65, 64295 Darmstadt, GermanyCenter for Environmental Systems Research (CESR), Kassel Institute for Sustainability, University of Kassel, 34109 Kassel, GermanyCenter for Environmental Systems Research (CESR), Kassel Institute for Sustainability, University of Kassel, 34109 Kassel, GermanyBuildings play an important role to meet Sustainable Development Goals, especially regarding the use of resources and greenhouse gas emissions. They are increasingly designed with energy-efficient solutions regarding their operations, while the related use of natural resources is still insufficiently considered. In this article, a methodology in Building Information Modeling is proposed to measure the resource and climate footprints of buildings’ heating systems. The methodology is applied to a case study building in Germany. The studied heating systems include a gas condensing boiler, ground-source heat pump, ground-source heat pump with a photo-voltaic system and air-source heat pump backed up with a gas boiler. Next to the operational energy, the production and transport of the heating systems were also studied. Results show that heating system operations have the largest impact and that the variant of ground-source heat pump combined with photovoltaics (GSHP + PV) has the lowest impact. In comparison with the gas boiler (GB), savings of 75%, 47%, 80%, and 84% are addressed to climate, material, energy, and land footprints, respectively, while the water footprint of GSHP + PV is 73% higher than that of GB.https://www.mdpi.com/2075-5309/12/11/1824life cycle assessmentbuilding information modelingdesign phaseresource efficiencyenergy efficiency
spellingShingle Husam Sameer
Guillaume Behem
Clemens Mostert
Stefan Bringezu
Comparative Analysis of Resource and Climate Footprints for Different Heating Systems in Building Information Modeling
Buildings
life cycle assessment
building information modeling
design phase
resource efficiency
energy efficiency
title Comparative Analysis of Resource and Climate Footprints for Different Heating Systems in Building Information Modeling
title_full Comparative Analysis of Resource and Climate Footprints for Different Heating Systems in Building Information Modeling
title_fullStr Comparative Analysis of Resource and Climate Footprints for Different Heating Systems in Building Information Modeling
title_full_unstemmed Comparative Analysis of Resource and Climate Footprints for Different Heating Systems in Building Information Modeling
title_short Comparative Analysis of Resource and Climate Footprints for Different Heating Systems in Building Information Modeling
title_sort comparative analysis of resource and climate footprints for different heating systems in building information modeling
topic life cycle assessment
building information modeling
design phase
resource efficiency
energy efficiency
url https://www.mdpi.com/2075-5309/12/11/1824
work_keys_str_mv AT husamsameer comparativeanalysisofresourceandclimatefootprintsfordifferentheatingsystemsinbuildinginformationmodeling
AT guillaumebehem comparativeanalysisofresourceandclimatefootprintsfordifferentheatingsystemsinbuildinginformationmodeling
AT clemensmostert comparativeanalysisofresourceandclimatefootprintsfordifferentheatingsystemsinbuildinginformationmodeling
AT stefanbringezu comparativeanalysisofresourceandclimatefootprintsfordifferentheatingsystemsinbuildinginformationmodeling