Analysis and application of building heating and thermal energy management system

Objective: Through the analysis and application of building heating and thermal energy management system, this paper proposes a new thermal energy control strategy to improve the automation level of building heating optimization. Method: This study analyzes the principle of indoor heat balance in bu...

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Main Author: Liao Zhinong
Format: Article
Language:English
Published: VINCA Institute of Nuclear Sciences 2020-01-01
Series:Thermal Science
Subjects:
Online Access:http://www.doiserbia.nb.rs/img/doi/0354-9836/2020/0354-98362000125L.pdf
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spelling doaj-bc478ba740bb4548afde1b98ae045daa2021-01-02T13:26:51ZengVINCA Institute of Nuclear SciencesThermal Science0354-98362020-01-01245 Part B3337334510.2298/TSCI191212125L0354-98362000125LAnalysis and application of building heating and thermal energy management systemLiao Zhinong0School of Economics and Management,Jiangxi University of Science and Technology, Jiangxi, Ganzhou, ChinaObjective: Through the analysis and application of building heating and thermal energy management system, this paper proposes a new thermal energy control strategy to improve the automation level of building heating optimization. Method: This study analyzes the principle of indoor heat balance in buildings. Aiming at the different heating needs of different buildings, a new control strategy is proposed by combining neural network models and fuzzy control theory. Finally, this strategy is applied to the actual building heating, and the practical application value of the strategy proposed by this study is verified through experiments. Result: In the heating stage, after applying the control strategy, the maximum relative error of the temperature is 0.047, and the average error is 0.013. In the antifreeze stage, the maximum error is 0.143 and the average error is 0.09. After the implementation of the control strategy, the temperature fluctuations in the room change little and remain almost between 19 °C and 21 °C. Buildings consume less heat with the highest energy saving rate of 14.37% and the average energy saving rate of 9.23%. Conclusion: The control strategy proposed in this study can adjust the indoor temperature according to the actual situation and achieve the purpose of reasonable heat use. Moreover, it has certain energy-saving effects and can be applied to building heating.http://www.doiserbia.nb.rs/img/doi/0354-9836/2020/0354-98362000125L.pdfheatingthermal energybuildingneural networkfuzzy control
collection DOAJ
language English
format Article
sources DOAJ
author Liao Zhinong
spellingShingle Liao Zhinong
Analysis and application of building heating and thermal energy management system
Thermal Science
heating
thermal energy
building
neural network
fuzzy control
author_facet Liao Zhinong
author_sort Liao Zhinong
title Analysis and application of building heating and thermal energy management system
title_short Analysis and application of building heating and thermal energy management system
title_full Analysis and application of building heating and thermal energy management system
title_fullStr Analysis and application of building heating and thermal energy management system
title_full_unstemmed Analysis and application of building heating and thermal energy management system
title_sort analysis and application of building heating and thermal energy management system
publisher VINCA Institute of Nuclear Sciences
series Thermal Science
issn 0354-9836
publishDate 2020-01-01
description Objective: Through the analysis and application of building heating and thermal energy management system, this paper proposes a new thermal energy control strategy to improve the automation level of building heating optimization. Method: This study analyzes the principle of indoor heat balance in buildings. Aiming at the different heating needs of different buildings, a new control strategy is proposed by combining neural network models and fuzzy control theory. Finally, this strategy is applied to the actual building heating, and the practical application value of the strategy proposed by this study is verified through experiments. Result: In the heating stage, after applying the control strategy, the maximum relative error of the temperature is 0.047, and the average error is 0.013. In the antifreeze stage, the maximum error is 0.143 and the average error is 0.09. After the implementation of the control strategy, the temperature fluctuations in the room change little and remain almost between 19 °C and 21 °C. Buildings consume less heat with the highest energy saving rate of 14.37% and the average energy saving rate of 9.23%. Conclusion: The control strategy proposed in this study can adjust the indoor temperature according to the actual situation and achieve the purpose of reasonable heat use. Moreover, it has certain energy-saving effects and can be applied to building heating.
topic heating
thermal energy
building
neural network
fuzzy control
url http://www.doiserbia.nb.rs/img/doi/0354-9836/2020/0354-98362000125L.pdf
work_keys_str_mv AT liaozhinong analysisandapplicationofbuildingheatingandthermalenergymanagementsystem
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