Optimum application of thermal factors to artificial neural network models for improvement of control performance in double skin-enveloped buildings

Jin Woo Moon, Kyung Il Chin, Sooyoung Kim

Research output: Contribution to journalArticle

7 Citations (Scopus)

Abstract

This study proposes an artificial neural network (ANN)-based thermal control method for buildings with double skin envelopes that has rational relationships between the ANN model input and output. The relationship between the indoor air temperature and surrounding environmental factors was investigated based on field measurement data from an actual building. The results imply that the indoor temperature was not significantly influenced by vertical solar irradiance, but by the outdoor and cavity temperature. Accordingly, a new ANN model developed in this study excluded solar irradiance as an input variable for predicting the future indoor temperature. The structure and learning method of this new ANN model was optimized, followed by the performance tests of a variety of internal and external envelope opening strategies for the heating and cooling seasons. The performance tests revealed that the optimized ANN-based logic yielded better temperature conditions than the non-ANN based logic. This ANN-based logic increased overall comfortable periods and decreased the frequency of overshoots and undershoots out of the thermal comfort range. The ANN model proved that it has the potential to be successfully applied in the temperature control logic for double skin-enveloped buildings. The ANN model, which was proposed in this study, effectively predicted future indoor temperatures for the diverse opening strategies. The ANN-based logic optimally determined the operation of heating and cooling systems as well as opening conditions for the double skin envelopes.

Original languageEnglish
Pages (from-to)4223-4245
Number of pages23
JournalEnergies
Volume6
Issue number8
DOIs
Publication statusPublished - 2013 Jan 1

Fingerprint

Neural Network Model
Skin
Artificial Neural Network
Neural networks
Logic
Envelope
Performance Test
Irradiance
Cooling
Heating
Temperature
Thermal Control
Buildings
Hot Temperature
Temperature Control
Overshoot
Environmental Factors
Thermal comfort
Cooling systems
Temperature control

All Science Journal Classification (ASJC) codes

  • Computer Science(all)

Cite this

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abstract = "This study proposes an artificial neural network (ANN)-based thermal control method for buildings with double skin envelopes that has rational relationships between the ANN model input and output. The relationship between the indoor air temperature and surrounding environmental factors was investigated based on field measurement data from an actual building. The results imply that the indoor temperature was not significantly influenced by vertical solar irradiance, but by the outdoor and cavity temperature. Accordingly, a new ANN model developed in this study excluded solar irradiance as an input variable for predicting the future indoor temperature. The structure and learning method of this new ANN model was optimized, followed by the performance tests of a variety of internal and external envelope opening strategies for the heating and cooling seasons. The performance tests revealed that the optimized ANN-based logic yielded better temperature conditions than the non-ANN based logic. This ANN-based logic increased overall comfortable periods and decreased the frequency of overshoots and undershoots out of the thermal comfort range. The ANN model proved that it has the potential to be successfully applied in the temperature control logic for double skin-enveloped buildings. The ANN model, which was proposed in this study, effectively predicted future indoor temperatures for the diverse opening strategies. The ANN-based logic optimally determined the operation of heating and cooling systems as well as opening conditions for the double skin envelopes.",
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Optimum application of thermal factors to artificial neural network models for improvement of control performance in double skin-enveloped buildings. / Moon, Jin Woo; Chin, Kyung Il; Kim, Sooyoung.

In: Energies, Vol. 6, No. 8, 01.01.2013, p. 4223-4245.

Research output: Contribution to journalArticle

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