Ministry of Housing and Urban-Rural Development of the People’s Republic of China. Announcement of technical Standards for near-zero energy buildings, http://www.mohurd.gov.cn/wjfb/201905/t20190530_240712.html (accessed 22 July 2020).
2.
FanDYWangQQZhaoLLiuML.Status, standards, technologies and existing problems of residential ventilation in China. Indoor Built Environ2020;
29: 485–495.
3.
XuWSunDLiuZ.Performance criteria system for passive nearly zero energy buildings in China. Indoor Built Environ2016;
25: 1181–1184.
4.
National Standard of the People’s Republic of China.GB/T 50668-2011: standard for energy efficient building assessment. Beijing: Architecture & Building Press, 2011.
5.
LiGZWangQQWangJL.Chinese standard requirements on indoor environmental quality for assessment of energy-efficient buildings. Indoor Built Environ2014;
23: 194–200.
6.
TianSCSuXShaoXLWangL.Optimization and evaluation of a solar energy, heat pump and desiccant wheel hybrid system in a nearly zero energy building. Build Simul. Epub ahead of print 20 May 2020. DOI: 10.1007/s12273-020-0627-0.
7.
RenCCaoSJ.Development and application of linear ventilation and temperature models for indoor environmental prediction and HVAC systems control. Sustain Cities Soc2019;
51: 101673.
8.
RenCCaoSJ.Implementation and visualization of artificial intelligent ventilation control system using fast prediction models and limited monitoring data. Sustain Cities Soc2019;
52: 101860.
9.
WuCLZhangHLFuSCChanKCQinDDChaoCYH.Ultrafine particle emissions from a smouldering cigarette in a residence and its associated lung cancer risk. Indoor Built Environ2019;
28: 1396–1405.
10.
Yu CWFKimJT.Long-term impact of formaldehyde and VOC emissions from wood-based products on indoor environments; and issues with recycled products. Indoor Built Environ2011;
21: 137–149.
11.
CrumpDRSquireRWYuCWF.Sources and concentrations of formaldehyde and other volatile organic compounds in the indoor air of four newly built unoccupied test houses. Indoor Built Environ1997;
6: 45–55.
12.
YuCWFKimJT.Building pathology, investigation of sick buildings – VOC emissions. Indoor Built Environ2010;
19: 30–39.
13.
SinghJYuCWFKimJT.Building pathology, investigation of sick buildings – toxic moulds. Indoor Built Environ2010;
19: 40–47.
14.
KarakitsiosSAsikainenAGardenCSempleSDe BrouwereKGaleaKSSánchez-JiménezAGottiAJantunenMSarigiannisD.Integrated exposure for risk assessment in indoor environments based on a review of concentration data on airborne chemical pollutants in domestic environments in Europe. Indoor Built Environ2015;
24: 1110–1146.
15.
LiuSChengYYanLYuCW.Characteristic and sources of atmospheric ozone in Xi’an. Indoor Built Environ2019;
28: 1254–1262.
16.
WangHQZhuHYuC.Diffusion and transportation of the radioactive airborne pollutants: challenges and progresses. Indoor Built Environ2020;
29: 3–6.
17.
KimJTYuCWF.Hazardous materials in buildings. Indoor Built Environ2014;
23: 44–61.
18.
FanYItoK.Integrated building energy computational fluid dynamics simulation for estimating the energy-saving effect of energy recovery ventilator with CO2 demand-controlled ventilation system in office space. Indoor Built Environ2014;
23: 785–803.
19.
LauJ.CO2-based demand controlled ventilation for variable air volume systems serving multiple zones. Indoor Built Environ2013;
22: 721–723.
20.
AmoueiAAghalariZZareiAAfsharniaMGerailiZQasemiM.Evaluating the relationships between air pollution and environmental parameters with sick building syndrome in schools of Northern Iran. Indoor Built Environ2019;
28: 1422–1430.
21.
YinHGLiuCXZhangLMLiAGMaZJ.Measurement and evaluation of indoor air quality in naturally ventilated residential buildings. Indoor Built Environ2019;
28: 1307–1323.
22.
WuYPLuYMCaoGQ.Preparation of a polyacrylonitrile/polyurethane nanofibrous membrane with antibacterial function and measurement of its air filtration performance. Indoor Built Environ2019;
28: 1038–1048.
23.
ShenCShaoXLiX.Potential of an air curtain system orientated to create non-uniform indoor thermal environment and save energy. Indoor Built Environ2017;
26: 152–165.
24.
LuoXGuZYuCMaTKaseK.Efficacy of an air curtain system for local pit environmental control for relic preservation in archaeology museums. Indoor Built Environ2016;
25: 29–40.
25.
ParkDYChangS.Numerical investigation of thermal comfort and transport of expiratory contaminants in a ventilated office with an air curtain system. Indoor Built Environ2019;
28: 401–421.
26.
XieDWangCYuCWWangYWangH.Performance of capillary ceiling cooling panel on ceiling surface temperature and indoor thermal environment. Indoor Built Environ2020;
29: 881–894.
27.
XieDTianLYuCWLiaoMWangH.Indoor thermal environment due to non-steady-state radiation heat transfer of a capillary ceiling radiation cooling system. Indoor Built Environ2019;
28: 443–453.
28.
BaiGGongGYuCWZhenO.A combined, large, multi-faceted bulbous façade glazed curtain with open atrium as a natural ventilation solution for an energy efficient sustainable office building in Southern China. Indoor Built Environ2015;
24: 813–832.
29.
ZhouYYuCW.The year-round thermal performance of a new ventilated Trombe wall integrated with phase change materials in the hot summer and cold winter region of China. Indoor Built Environ2019;
28: 195–216.
30.
MengXGaoYNHouCPYuanF.Questionnaire survey on the summer air-conditioning use behaviour of occupants in residences and office buildings of China. Indoor Built Environ2019;
28: 711–724.
31.
ShipmanMUcciM.People and energy use in the indoor and built environment. Indoor Built Environ2015;
24: 863–866.
32.
DengTXShenXChengXJLiuJJ. Investigation of window-opening behaviour and indoor air quality in dwellings situated in the temperate zone in China. Indoor Built Environ. Epub ahead of print 14 May 2020. DOI: 10.1177/1420326X20924746.
33.
LeeTKChoSHKimJT.Residents’ adjusting behaviour to enhance indoor environmental comfort in apartments. Indoor Built Environ2012;
21: 28–40.
34.
ShinHYKimGKimJT.Effect of occupants’ behaviour of daylight controls on residential visual environment. Indoor Built Environ2013;
22: 191–202.
35.
BunkerABärnighausenTWoodwardABullenC. Housing structure and occupant behaviour to increase the environmental and health co-benefits of housing: insights from expert interviews in New Zealand. Indoor Built Environ. Epub ahead of print 8 January 2020. DOI: 10.1177/1420326X19897965.
36.
WangHWangGJLiXT.Implementation of demand-oriented ventilation with adjustable fan network. Indoor Built Environ2020;
29: 621–635.
37.
KongKHChongWTKohVL.Human behaviour-dependent and variable-flow-reversible mechanical ventilation system design in an underground parking facility. Indoor Built Environ2019;
28: 1324–1340.
38.
WangXSunXYuCWF.Building envelope with variable thermal performance: opportunities and challenges. Indoor Built Environ2018;
27: 729–733.
39.
MaWXiangCLiLLiuG.Impact of cool roof on energy consumption for a railway station. Indoor Built Environ2015;
24: 1095–1109.