LAPSE:2023.31423
Published Article

LAPSE:2023.31423
Development and Verification of Novel Building Integrated Thermal Storage System Models
April 18, 2023
Abstract
In electrical grids with a high renewable percentage, weather conditions have a greater impact on power generation. This can lead to the overproduction of electricity during periods of substantial wind power generation, resulting in shutoffs of wind turbines. To reduce such shutoffs and to bridge periods of lower electricity production, three thermal energy storage systems (TESs) have been developed for space heating and domestic hot water. These include a water-based thermal system (WBTS), a thermally activated building system (TABS), and a high-temperature stone storage system (HTSS). The paper explains the development of computer models used to simulate the systems and their successful verification using field measurements. Target values to cover about 90% of building heating demand with excess electricity were found to be achievable, with performance ratios depending on storage size, particularly for WBTS and HTSS. The TABS’ storage capacity is limited by building geometry and the available inner ceilings and walls.
In electrical grids with a high renewable percentage, weather conditions have a greater impact on power generation. This can lead to the overproduction of electricity during periods of substantial wind power generation, resulting in shutoffs of wind turbines. To reduce such shutoffs and to bridge periods of lower electricity production, three thermal energy storage systems (TESs) have been developed for space heating and domestic hot water. These include a water-based thermal system (WBTS), a thermally activated building system (TABS), and a high-temperature stone storage system (HTSS). The paper explains the development of computer models used to simulate the systems and their successful verification using field measurements. Target values to cover about 90% of building heating demand with excess electricity were found to be achievable, with performance ratios depending on storage size, particularly for WBTS and HTSS. The TABS’ storage capacity is limited by building geometry and the available inner ceilings and walls.
Record ID
Keywords
building simulation, excess renewable energy, thermal energy storage
Subject
Suggested Citation
Pazold M, Radon J, Kersken M, Künzel H, Antretter F, Sinnesbichler H. Development and Verification of Novel Building Integrated Thermal Storage System Models. (2023). LAPSE:2023.31423
Author Affiliations
Pazold M: C3RROlutions GmbH, 83064 Raubling, Germany [ORCID]
Radon J: C3RROlutions GmbH, 83064 Raubling, Germany; Faculty of Environmental Engineering, University of Agriculture, 30-239 Kraków, Poland [ORCID]
Kersken M: Fraunhofer Institute for Building Physics, 83626 Valley, Germany
Künzel H: Fraunhofer Institute for Building Physics, 83626 Valley, Germany
Antretter F: C3RROlutions GmbH, 83064 Raubling, Germany
Sinnesbichler H: Fraunhofer Institute for Building Physics, 83626 Valley, Germany
Radon J: C3RROlutions GmbH, 83064 Raubling, Germany; Faculty of Environmental Engineering, University of Agriculture, 30-239 Kraków, Poland [ORCID]
Kersken M: Fraunhofer Institute for Building Physics, 83626 Valley, Germany
Künzel H: Fraunhofer Institute for Building Physics, 83626 Valley, Germany
Antretter F: C3RROlutions GmbH, 83064 Raubling, Germany
Sinnesbichler H: Fraunhofer Institute for Building Physics, 83626 Valley, Germany
Journal Name
Energies
Volume
16
Issue
6
First Page
2889
Year
2023
Publication Date
2023-03-21
ISSN
1996-1073
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Original Submission
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PII: en16062889, Publication Type: Journal Article
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LAPSE:2023.31423
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https://doi.org/10.3390/en16062889
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Apr 18, 2023
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