The Impact of the Thermal Comfort Models on the Prediction of Building Energy Consumption

被引:46
作者
Albatayneh, Aiman [1 ]
Alterman, Dariusz [2 ]
Page, Adrian [2 ]
Moghtaderi, Behdad [2 ]
机构
[1] German Jordanian Univ, Sch Nat Resources Engn & Management, POB 35247, Amman 11180, Jordan
[2] Univ Newcastle, Prior Res Ctr Frontier Energy Technol & Utilisat, Callaghan, NSW 2308, Australia
关键词
thermal comfort; building energy consumption; building simulation; PMV; adaptive comfort; expectancy factor; ENVIRONMENTAL-QUALITY; PMV INDEX; TEMPERATURE; SUMMER; PERFORMANCE; CLASSROOMS; AUSTRALIA; CLIMATE;
D O I
10.3390/su10103609
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Building energy assessment software/programs use various assumptions and types of thermal comfort models to forecast energy consumption. This paper compares the results of using two major thermal comfort models (adaptive thermal comfort and the predicted mean vote (PMV) adjusted by the expectancy factor) to examine their influence on the prediction of the energy consumption for several full-scale housing experimental modules constructed on the campus of the University of Newcastle, Australia. Four test modules integrating a variety of walling types (insulated cavity brick (InsCB), cavity brick (CB), insulated reverse brick veneer (InsRBV), and insulated brick veneer (InsBV)) were used for comparing the time necessary for cooling and heating to maintain internal thermal comfort for both models. This research paper exhibits the benefits of adopting the adaptive thermal model for building structures. It shows the effectiveness of this model in helping to reduce energy consumption, increasing the thermal comfort level for the buildings, and therefore reducing greenhouse emissions.
引用
收藏
页数:17
相关论文
共 50 条
[41]   Environmental quality of university classrooms: Subjective and objective evaluation of the thermal, acoustic, and lighting comfort conditions [J].
Ricciardi, Paola ;
Buratti, Cinzia .
BUILDING AND ENVIRONMENT, 2018, 127 :23-36
[42]   Thermal comfort and occupant responses during summer in a low to middle income housing development in South Australia [J].
Soebarto, Veronica ;
Bennetts, Helen .
BUILDING AND ENVIRONMENT, 2014, 75 :19-29
[43]  
Tyler Hoyt, 2019, CBE Thermal Comfort Tool
[44]   Forty years of Fanger's model of thermal comfort: comfort for all? [J].
van Hoof, J. .
INDOOR AIR, 2008, 18 (03) :182-201
[45]   The difference between the mean radiant temperature and the air temperature within indoor environments: A case study during summer conditions [J].
Walikewitz, Nadine ;
Jaenicke, Britta ;
Langner, Marcel ;
Meier, Fred ;
Endlicher, Wilfried .
BUILDING AND ENVIRONMENT, 2015, 84 :151-161
[46]   A field study on thermal comfort and air-conditioning energy use in an office building in Guangzhou [J].
Wu, Tongling ;
Cao, Bin ;
Zhu, Yingxin .
ENERGY AND BUILDINGS, 2018, 168 :428-437
[47]   Cross-modal effects of noise and thermal conditions on indoor environmental perception and speech recognition [J].
Yang, Wonyoung ;
Moon, Hyeun Jun .
APPLIED ACOUSTICS, 2018, 141 :1-8
[48]   The effect of passive measures on thermal comfort and energy conservation. A case study of the hot summer and cold winter climate in the Yangtze River region [J].
Yao, Runming ;
Costanzo, Vincenzo ;
Li, Xinyi ;
Zhang, Qiulei ;
Li, Baizhan .
JOURNAL OF BUILDING ENGINEERING, 2018, 15 :298-310
[49]   Influences of perceived control on thermal comfort and energy use in buildings [J].
Yun, Geun Young .
ENERGY AND BUILDINGS, 2018, 158 :822-830
[50]   An Indoor Environmental Quality (IEQ) assessment of a partially-retrofitted university building [J].
Zuhaib, Sheikh ;
Manton, Richard ;
Griffin, Corey ;
Hajdukiewicz, Magdalena ;
Keane, Marcus M. ;
Goggins, Jamie .
BUILDING AND ENVIRONMENT, 2018, 139 :69-85