World Health Organization (WHO). Annex C: respiratory droplets. In: JAtkinsonYChartierCLPessoa-Silva (eds) Natural ventilation for infection control in health-care settings.
Geneva:
WHO, 2009.
14.
XuCNielsenPVLiuLJensenRLGongG.Human exhalation characterization with the aid of Schlieren imaging technique. Build Environ2017;
112: 190–199.
LiaoWJMuiKWChengCLWongLTHeKC.Air pressure fluctuations of drainage stacks at a high-rise office building. Indoor Built Environ2011;
20: 412–419.
19.
CowlingBJIpDKMFangVJSuntarattiwongPOlsenSJLevyJUyekiTMLeungGMPeirisJSMChotpitayasunonghTNishiuraHSimmermanJM.Aerosol transmission is an important mode of influenza: a virus spread. Nature Commun2013;
4: 1935.
20.
WangJHNiuJLLiuXPYuC.Assessment of pollutant dispersion in the re-entrance space of a high-rise residential building, using wind tunnel simulations. Indoor Built Environ2010;
19: 638–647.
21.
DaiYWMakCMAiZT.Computational fluid dynamics simulation of wind-driven inter-unit dispersion around multi-storey buildings: upstream building effect. Indoor Built Environ2017;
28: 217–234.
22.
ItoK.Integrated numerical approach of computational fluid dynamics and epidemiological model for multi-scale transmission analysis in indoor spaces. Indoor Built Environ2014;
23: 1029–1049.
23.
LiuWYouXY.Transportation and risk analysis of influenza indoor and outdoor transportation and exposure risk analysis of influenza aerosol. Indoor Built Environ2012;
21: 614–621.
TangJWNoakesCJNielsenPVEamesINicolleALiYSettlesGS.Observing and quantifying airflows in the infection control of aerosol- and airborne-transmitted diseases: an overview of approaches. J Hosp Infect2011;
77: 213–222.
26.
LiYChingWHQianHYuenPLSetoWHKwanJKLeungJKCLeungMYuS.An evaluation of the ventilation performance of new SARS isolation wards in nine hospitals in Hong Kong. Indoor Built Environ2007;
16: 400–410.
27.
GaoXLiYLeungGM.Ventilation control of indoor transmission of airborne diseases in an urban community. Indoor Built Environ2009;
18: 205–218.
28.
YuHCMuiKWWongLTChuHS.Ventilation of general hospital wards for mitigating infection risks of three kinds of viruses including Middle East respiratory syndrome coronavirus. Indoor Built Environ2017;
26: 514–527.
29.
AliabadiAARogakSNBartlettKHGreenSI.Preventing airborne disease transmission: review of methods for ventilation design in health care facilities. Adv Prev Med2014;
2011: 124064.
30.
XuCLiuL.Personalized ventilation: one possible solution for airborne infection control in highly occupied space?Indoor Built Environ2018;
27: 873–876.
31.
XuCNielsenPVLiuLJensenRLGongG.Impacts of airflow interactions with thermal boundary layer on performance of personalized ventilation. Build Environ2018;
135: 31–41.
32.
BolashikovZDMelikovAK.Methods for air cleaning and protection of building occupants from airborne pathogens. Build Environ2009;
44: 1378–1385.
33.
GilkesonCANoakesCJKhanM.Computational fluid dynamics modelling and optimisation of an upper-room ultraviolet germicidal irradiation system in a naturally ventilated hospital ward. Indoor Built Environ2014;
23: 449–466.
34.
HvelplundMHLiuLFrandsenKMQianHNielsenPVDaiYWenLZhangY.Numerical investigation of the lower airway exposure to indoor particulate contaminants. Indoor Built Environ, https://doi.org/10.1177/1420326X19874856 (accessed 19 February 2020).
35.
ZhuHCYuCWCaoSJ. Ventilation online monitoring and control system from the perspectives of technology application. Indoor Built Environ, https://doi.org/10.1177/1420326X19878586 (accessed 19 February 2020).
36.
CaoSJ.Challenges of using CFD simulation for the design and online control of ventilation systems. Indoor Built Environ2019;
28: 3–6.
37.
RenCCaoSJ.Implementation and visualization of artificial intelligent ventilation control system using fast prediction models and limited monitoring data. Sustain Cities Soc2020;
52: 101860.
YangJShiYYuCCaoSJ.Challenges of using mobile phone signalling data to estimate urban population density: towards smart cities and sustainable urban development. Indoor Built Environ2020;
29: 3–6.
