ItoK. Toward the development of an in silico human model for indoor environmental design. Proc Jpn Acad B2016; 92: 185–203.
2.
Ito K, Mitsumune K, Kuga K, Phuong NL, Tani K and Inthavong K. Prediction of convective heat transfer coefficients for the upper respiratory tracts of rat, dog, monkey and humans. Indoor Built Environ (in press). OnlineFirst e-publication ahead of print; DOI: 0.1177/1420326X16662111.
3.
MurakamiSKatoSZengJ. Flow and temperature fields around human body with various room air distributions, part 1 – CFD study on computational thermal manikin. AHSRAE Trans1997; 103: 3–15.
4.
MurakamiSKatoSZengJ. Numerical simulation of contaminant distribution around a modeled human body, CFD study on computational thermal manikin – part 2. ASHRAE Trans1998; 104: 226–233.
5.
MurakamiSKatoSZengJ. Combined simulation of airflow, radiation and moisture transport for heat release from human body. Build Environ2000; 35: 489–500.
6.
TanabeSKobayashiKNakanoJOzekiYKonishiM. Evaluation of thermal comfort using combined multi-node thermoregulation (65MN) and radiation models and computational fluid dynamics (CFD). Energy Build2002; 34: 637–646.
7.
KobayashiYTanabeS. Development of JOS-2 human thermoregulation model with detailed vascular system. Build Environ2013; 66: 1–10.
8.
GaoNPNiuJ. CFD study on micro-environment around human body and personalized ventilation. Build Environ2004; 39: 795–805.
9.
GaoNPNiuJZhangH. Coupling CFD and human body thermoregulation model for the assessment of personalized ventilation. HVAC&R Res2006; 12: 497–518.
10.
GaoNPZhangHNiuJ. Investigating indoor air quality and thermal comfort using a numerical thermal manikin. Indoor Built Environ2007; 16: 7–17.
11.
ZhuSKatoSOokaRSakoiT. Development of a computational thermal manikin applicable in a nonuniform thermal environment – part 1: coupled simulation of convection, radiation, and smith's human thermal physiological model for sensible heat transfer from a seated human body in radiant environment. HVAC&R Res2007; 13: 661–679.
12.
FangerPO. Thermal comfort, New York: McGraw-Hill Inc., 1973.
13.
GaggeAPFobeletsAPBerglundLG. A standard predictive index of human response to the thermal environment. ASHRAE Trans1986; 92: 709–731.
14.
Smith CE. A transient, three-dimensional model of the human thermal system. PhD Thesis, Kansas State University, Manhattan, Kansas, 1991.
15.
Stolwijk JAJ. A mathematical model of physiological temperature regulation in man. NASA Contractor Report-1855. NASA, Washington, USA, August 1971.
16.
FialaDLomasKJStohrerM. Computer prediction of human thermoregulatory and temperature responses to a wide range of environmental conditions. Int J Biometeorol2001; 45: 143–159.
17.
ToppCNielsenPVSorensenDN. Application of computer simulated persons in indoor environmental modeling. ASHRAE Trans2002; 108: 1084–1089.
18.
SorensenDNVoigtLK. Modeling flow and heat transfer around a seated human body by computational fluid dynamics. Build Environ2003; 38: 753–762.
19.
MartinhoNLopesAGameiro da SilvaM. Evaluation of errors on the CFD computation of air flow and heat transfer around the human body. Build Environ2012; 58: 58–69.
20.
ZhaoBZhangZLiX. Numerical study of the transport of droplets or particles generated by respiratory system indoors. Build Environ2005; 40: 1032–1039.
21.
HayashiTIshizuYKatoSMurakamiS. CFD analysis on characteristics of contaminated indoor air ventilation and its application in the evaluation of the effects of contaminant inhalation by a human occupant. Build Environ2002; 37: 219–230.
22.
LiXInthavongKTuJ. Particle inhalation and deposition in a human nasal cavity from the external surrounding environment. Build Environ2012; 47: 32–39.
23.
InthavongKGeQLiXTuJ. Detailed predictions of particle aspiration affected by respiratory inhalation and airflow. Atmosp Environ2012; 62: 107–117.
24.
TuJInthavongKAhmadiG. Computational fluid and particle dynamics in the human respiratory system, New York: Springer, 2013.
25.
Yoo SJ and Ito K. Numerical prediction of tissue dosimetry in respiratory tract using computer simulated person integrated with PBPK-CFD hybrid analysis. Indoor Built Environ, (in print): Online First e-publication ahead of print; DOI: 10.1177/1420326X17694475.
26.
Kuga K, Ito K, Yoo SJ, Matsuo T, Chen W, Wang P, Liao J, Fowles J, Shusterman D and Kumagai K. First- and second-hand smoke exposure assessment from e-cigarettes using integrated numerical analysis of CFD and a computer-simulated person with a respiratory tract model. Indoor Built Environ, (in print): Online First e-publication ahead of print; DOI: 10.1177/1420326X17694476.