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Development of an Integrated Multizone Model for Indoor Air Environment Prediction
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 Title & Authors
Development of an Integrated Multizone Model for Indoor Air Environment Prediction
Cho, Seok-Ho;
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 Abstract
Interior space in most buildings is divided into several zones. The most important factors relating to the indoor air environment are temperature, airflow, humidity, and contaminant concentration. An integrated multizone model to predict these environmental factors simultaneously was developed. Also, a computer program for this model was written by the language of VISUAL BASIC. The proposed model was applied to a apartment with five rooms that had been tested by Chung. Comparison of predicted results by this study with measured results by Chung showed that their variations were within 14% for airflow rates, 1% for temperatures, 12% for humidities, and 5% for concentrations. It was seen that the opening operation schedule of building has a significant effect on the air moisture md contaminant removal. Thus, this model may be available for predicting the indoor air environment and may be contributed to design the ventilation plan for controling of indoor air quality.
 Keywords
Indoor air environment;Multizone model;Thermal model;Airflow model;Humidity model;Concentration model;
 Language
Korean
 Cited by
1.
외기상태의 변화에 따른 실내 환경인자의 민감도 분석,조석호;

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2.
다구획 작업환경에서의 오염농도 예측을 위한 이론적 모델의 개발,조석호;

한국산업보건학회지, 2011. vol.21. 4, pp.185-192
3.
빌딩 내의 공기유동량 예측을 위한 누입 및 환기모델의 개발,조석호;

Journal of Environmental Science International, 2014. vol.23. 2, pp.207-218 crossref(new window)
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