TY - JOUR
T1 - Exploring an occupant-involved closed-loop wearable sensing system and online tuning for individualized thermal preference
AU - Feng, Yanxiao
AU - Wang, Julian
AU - Ghaeili, Neda
AU - Jao, Ying Ling
AU - Obonyo, Esther Adhiambo
AU - Pavlak, Gregory
N1 - Publisher Copyright:
© 2025
PY - 2025
Y1 - 2025
N2 - This study introduces a novel, human-in-the-loop multimodal sensing system and platform, designed for the data collection and modeling of individualized thermal comfort. We investigated whether incorporating alert-based wearable sensing and online threshold-tuning functions can enhance human interaction with the indoor environment, thereby improving the efficiency and effectiveness of data gathering for predictive modeling. The research findings indicate that the proposed method significantly reduces the number of sampling points needed to achieve equivalent overall accuracy in predictive models by monitoring the physiological and environmental inputs to the system. Likewise, for the same input data quantity, the cross-validation accuracy of the optimized models outperformed that of the baseline model. This system decreases the user's input requirements and boosts autonomous data collection and modeling on an individual basis for personal comfort modeling purposes, which can be also incorporated into long-term indoor environment monitoring and smart building paradigms.
AB - This study introduces a novel, human-in-the-loop multimodal sensing system and platform, designed for the data collection and modeling of individualized thermal comfort. We investigated whether incorporating alert-based wearable sensing and online threshold-tuning functions can enhance human interaction with the indoor environment, thereby improving the efficiency and effectiveness of data gathering for predictive modeling. The research findings indicate that the proposed method significantly reduces the number of sampling points needed to achieve equivalent overall accuracy in predictive models by monitoring the physiological and environmental inputs to the system. Likewise, for the same input data quantity, the cross-validation accuracy of the optimized models outperformed that of the baseline model. This system decreases the user's input requirements and boosts autonomous data collection and modeling on an individual basis for personal comfort modeling purposes, which can be also incorporated into long-term indoor environment monitoring and smart building paradigms.
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U2 - 10.1016/j.enbenv.2025.02.001
DO - 10.1016/j.enbenv.2025.02.001
M3 - Article
AN - SCOPUS:85217883790
SN - 2666-1233
JO - Energy and Built Environment
JF - Energy and Built Environment
ER -