Thermal comfort evaluation of the enclosed transitional space in tropical buildings: Subjective response and Computational Fluid Dynamics simulation

被引:9
作者
Kwong, Q.J. [1 ]
Tang, S.H. [1 ]
Adam, N.M. [1 ]
机构
[1] Alternative and Renewable Energy Laboratory, Institute of Advanced Technology, Universiti Putra Malaysia, 43400 UPM, Selangor
关键词
CFD; Educational institution; Lift lobby; Thermal comfort; Transitional space; Tropics;
D O I
10.3923/jas.2009.3480.3490
中图分类号
学科分类号
摘要
This study aims lo identify the thermal environment of an enclosed transitional space in a tropical educational institution and occupants' perceptions on thermal comfort. The methods applied were field survey. which covered objective measurement and subjective assessment, as well as Computational Fluid Dynamics <CFD) simulation. Comparisons were made between the empirical and predicted results. In this study, it was identified in the field assessment that most of the respondents were satisfied with the thermal environment in the enclosed lift lobby and preference was directed towards cooler environment. The predicted results showed fair agreement with the empirical results, with minor differences between the two results for the thermal and airflow conditions. Besides, a lower expectation factor in PMV index is required for thermal environment in transitional spaces. Analysis of thermal neutrality in this survey has demonstrated that the thermal conditions in the enclosed lift lobby were acceptable by 80% of the respondents. The methods applied in this study can be extended to other enclosed transitional spaces in the tropical buildings. © 2009 Asian Network for Scientific Information.
引用
收藏
页码:3480 / 3490
页数:10
相关论文
共 50 条
[41]   Enhancing Ventilation Systems in Landing Ship Tank Engine Room for Adaptive Thermal Comfort: A Computational Fluid Dynamic Simulation and Brief Review Approach [J].
Nugroho, Anton ;
Widodo, Wawan Aries ;
Suryo, Bunyamin .
INTERNATIONAL JOURNAL OF HEAT AND TECHNOLOGY, 2025, 43 (02) :656-670
[42]   Simulation of the Velocity and Temperature Distribution of Inhalation Thermal Injury in a Human Upper Airway Model by Application of Computational Fluid Dynamics [J].
Chang, Yang ;
Zhao, Xiao-zhuo ;
Wang, Cheng ;
Ning, Fang-gang ;
Zhang, Guo-an .
JOURNAL OF BURN CARE & RESEARCH, 2015, 36 (04) :500-508
[43]   Optimization of indoor environmental quality and ventilation load in office space by multilevel coupling of building energy simulation and computational fluid dynamics [J].
Fan, Yunqing ;
Ito, Kazuhide .
BUILDING SIMULATION, 2014, 7 (06) :649-659
[44]   Optimization of indoor environmental quality and ventilation load in office space by multilevel coupling of building energy simulation and computational fluid dynamics [J].
Yunqing Fan ;
Kazuhide Ito .
Building Simulation, 2014, 7 :649-659
[45]   The Thermal Stratification Evaluation of Phase-Change Materials in a Heat Storage Tank: Computational Fluid Dynamics and Experimental Study [J].
Wang, Zilong ;
Zhang, Hua ;
Dou, Binlin ;
Zhang, Guanhua ;
Huang, Huajie .
JOURNAL OF SOLAR ENERGY ENGINEERING-TRANSACTIONS OF THE ASME, 2020, 142 (02)
[46]   Locating Urban Area Heat Waves by Combining Thermal Comfort Index and Computational Fluid Dynamics Simulations: The Optimal Placement of Climate Change Infrastructure in a Korean City [J].
Cho, Sinhyung ;
Cho, Sinwon ;
Jung, Seungkwon ;
Kim, Jaekyoung .
CLIMATE, 2025, 13 (06)
[47]   Computational fluid dynamics simulation of gas dispersion in complex facilities using Kit Fox field experiments: Validation and statistical evaluation [J].
Alam, Narjes Hemati ;
Kashi, Eslam ;
Habibpour, Razieh .
CHINESE JOURNAL OF CHEMICAL ENGINEERING, 2022, 44 :412-423
[48]   Computational Fluid Dynamics Simulation of Indoor Air Quality and Thermal Stratification of an Underfloor Air Distribution System (UFAD) with Various Vent Layouts [J].
Stephen Lopez, Neil ;
Kay Galeos, Selena ;
Raphael Calderon, Brian ;
Roy Dominguez, David ;
Joseph Uy, Bryan ;
Iyengar, Rupesh .
FDMP-FLUID DYNAMICS & MATERIALS PROCESSING, 2021, 17 (02) :333-347
[49]   Advanced thermal environment and energy consumption calculation over time using combined energy simulation, computational fluid dynamics, and heat source model [J].
Yamamoto, Tatsuhiro ;
Ozaki, Akihito ;
Aratsu, Keigo .
JOURNAL OF BUILDING PERFORMANCE SIMULATION, 2021, 14 (06) :619-645
[50]   RETRACTED: Computational fluid dynamics, a building simulation tool for achieving sustainable buildings (Retracted article. See vol. 64, pg. 853, 2016) [J].
Anand, Y. ;
Gupta, A. ;
Tyagi, S. K. ;
Anand, S. .
RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2016, 57 :1174-1185