Energy and Comfort Efficient Adaptive Learning Model for Service Areas in an Outdoor Sports Facility

Purpose: This research investigates the development and performance of advanced supply air control strategies aimed at simultaneously enhancing energy efficiency and sustaining acceptable indoor thermal comfort within the service areas of a sports facility. The primary objective is to derive control methodologies that strategically balance these two critical factors while promoting the maximum utilization of the spaces. Method: The research employed computational simulations to evaluate two novel control strategies, such as an adaptive model and a learning model by an artificial neural network algorithm, against a conventional thermostat over a week-long period. Results: The simulation results demonstrated significant energy savings: the adaptive model achieved an approximate 12% decrease in average energy consumption, and the learning model, which utilizes an artificial neural network algorithm, delivered a more substantial 22% reduction, respectively. These savings stem from the models’ capability to minimize system overshooting and mitigate signal fluctuations during operation. Furthermore, both proposed models showed a very high level of effectiveness in maintaining thermal comfort homeostasis compared to the thermostat. The network-based learning model proved particularly advantageous, confirming its improved ability to reduce unnecessary energy consumption via adaptive control and produce robust, effective regression results under varying environmental and operational conditions.

Authors

Publication Details

Journal
KIEAE Journal
Published
2025-12-31
DOI
https://doi.org/10.12813/kieae.2025.25.6.025
Primary Topic
Building Energy and Comfort Optimization
Type
article
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article

Energy and Comfort Efficient Adaptive Learning Model for Service Areas in an Outdoor Sports Facility

Jonghoon Ahn
KIEAE Journal
Building Energy and Comfort Optimization
article

Energy and Comfort Efficient Adaptive Learning Model for Service Areas in an Outdoor Sports Facility

Jonghoon Ahn
article en

Abstract

Purpose: This research investigates the development and performance of advanced supply air control strategies aimed at simultaneously enhancing energy efficiency and sustaining acceptable indoor thermal comfort within the service areas of a sports facility. The primary objective is to derive control methodologies that strategically balance these two critical factors while promoting the maximum utilization of the spaces. Method: The research employed computational simulations to evaluate two novel control strategies, such as an adaptive model and a learning model by an artificial neural network algorithm, against a conventional thermostat over a week-long period. Results: The simulation results demonstrated significant energy savings: the adaptive model achieved an approximate 12% decrease in average energy consumption, and the learning model, which utilizes an artificial neural network algorithm, delivered a more substantial 22% reduction, respectively. These savings stem from the models’ capability to minimize system overshooting and mitigate signal fluctuations during operation. Furthermore, both proposed models showed a very high level of effectiveness in maintaining thermal comfort homeostasis compared to the thermostat. The network-based learning model proved particularly advantageous, confirming its improved ability to reduce unnecessary energy consumption via adaptive control and produce robust, effective regression results under varying environmental and operational conditions.

KIEAE JournalVol. 25(6)
Affordable and clean energy
Openalex Percentile: Top 36%
Building Energy and Comfort Optimization
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