Reducing Cooling Loads in Hot-Humid Climates: A Best Practice Research Building in China
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In this chapter we discuss a project that epitomises the research required to find sustainable solutions and create comfortable environments at the micro scale of individual buildings, the IBR centre in Shenzhen, China, which was a research project in itself and continues to be a focus of ongoing research, experimentation and monitoring. The knowledge base ranges from the sciences of climatology, human comfort and behaviour to those of building physics, energy systems and advanced engineering; the challenge lies in integrating these diverse fields. Whether at micro, meso or macro level, the common cause is the application of advanced design and science to solutions in practice of our overarching challenge: warming environments, both at the local level of cities and that of the planet.
KeywordsGreen building Sustainable features Natural ventilation China
We are particularly grateful to the project team at Shenzhen Institute of Building Research (IBR) for giving us access to the building and to some useful documents on the building’s performance and design.
The IBR building has achieved the following awards and honours:
First Grade Distinction (highest score) First place in the National top 100 Green Building demonstration Projects (China 2010), 2010 Hong Kong Building Award (Merit Level), 2011 China Human Settlement Pattern Project Award (2011), highest National Green Building Award (3 Star, China 2010), First place in the National Demonstration Project of Renewable Energy Application (China 2010), 2011 National Excellent Engineering Design Award (First prize, China), FutureArc Green Leadership Award 2011 (by BCI Asia), 2013 World Green Design Project Product Award (Golden Prize by International Design Federation), DNA Energy Efficiency Award 2013 Nomination, Asia-Pacific Award by World Green Building Council (WGBC), as well as, the third Biannual top Architecture in the Public Building Category, Green and Ecological Design Award, the third Biannual China Award for ‘Good Design is Good Business’, and Best Green Design Award (by Business Week and McGraw-Hill Construction) (Diamond et al., ASHRAE Report 2014).
- Burdick, A. (2011). Strategy guideline: Accurate heating and cooling load calculations. Washington, DC: IBACOS, US Department of Energy.Google Scholar
- Cao, B., Li, M., Liu, G. & Zhu, Y. (2014). Thermal comfort in an open space of an office building: A field study in subtropical region. In proceedings of the 13th international conference on indoor air quality and climate, at Hong Kong, topic A7: Thermal comfort.Google Scholar
- Deng, S., & Li, J. (2016). Natural ventilation strategy of traditional dwellings in hot-humid area. Architecture & Culture, 8, 108–110.Google Scholar
- Diamond, R. C. & Feng, W. (2014). Sustainability by design: How one building in China could change the world. Published by the regents of the University of California, through the Lawrence Berkeley National Laboratory.Google Scholar
- Diamond, R. C., Feng, W., & Qing, Y. (2014). Model for China’s future, ASHRAE report document. High Performing Buildings, 7(3), Summer 2014, ASHRAE Publications.Google Scholar
- Fang, L., & Cheng, Y. (2016). Passive design for heat proof and energy efficiency of building in hot and humid area: Analysis on buildings in Guangzhou. Building Energy Efficiency, 10(44), 65–67.Google Scholar
- Givoni, B. (1998). Climate considerations in building and urban design. New York: Van Nostrand Reinhold.Google Scholar
- Hui, S. C. M. (2007). Sustainable building technologies for hot and humid climates. Invited paper for the Joint Hong Kong and Hangzhou seminar for sustainable building. Hangzhou, China.Google Scholar
- Hyde, R. (2000). Climate responsive design: A study of buildings in moderate and hot humid climates. London: E & FN Spon.Google Scholar
- Kamal, M. A. (2012). An overview of passive cooling techniques in buildings: Design concepts and architectural interventions. Civil Engineering & Architecture, 55, 84–97.Google Scholar
- Liang, X., & Huang, L. (2005). Optimum HVAC design suitable for the middle and small-scaled office buildings in South China with Sizzard climate. Contamination Control & Air-Conditioning Technology, 4, 61–63.Google Scholar
- Liu, Y., Xing, Y., Zheng, W., & Li, N. (2015). Thermal performance optimizing combination of residential peripheral structure in moist heat zone. Architecture Technology, 46(5), 433–436.Google Scholar
- Malone, A. (2010). Best green project. New York: McGraw Hill Construction.Google Scholar
- Parker, D. S., Fairey, P. W., & McIlvaine, J. E. R. (1997). Energy efficient office building design for Florida’s hot and humid climate. ASHRAE Journal, 4, 49–57.Google Scholar
- Shui, B., & Li, J. (2012). (eds.). Building EE policies in China, global building performance network, Status Report. American Council for an Energy-Efficient Economy (ACEEE), Washington, D.C.Google Scholar
- Sun, Y., Zhang, W., & Zhang, C., (2014). Preliminary study on natural ventilation for hospital building in hot and humid regions. 30th international plea conference, 16–18 December 2014, CEPT University, Ahmedabad.Google Scholar
- USEIA. (2010). International energy outlook 2010. Washington, DC: U.S. Energy Information Administration, Office of Integrated Analysis and Forecasting.Google Scholar
- Wang, S. K. (2000). Handbook of air conditioning and refrigeration. New York: McGraw-Hill Education.Google Scholar
- Wang, J. (2011). Several problems in the research of green building design: Focused on hot and humid area. 绿色建筑设计研究中的几个问题——以湿热地区为例. Huazhong Architecture, 73–74. Available at: http://www.xueshu.com/hzjz/201104/12738453.html. Accessed on 21-Jan-2017.
- WBCSD. (2007). Energy efficiency in buildings, business realities and opportunities. The world business council for sustainable development.Google Scholar
- Xie, H. & Liu, X. (2006). Building thermal environment control of housing in tropical areas. 湿热地区的住宅建筑热环境控制. Housing Science, 9(10), 42–44.Google Scholar