2007, Piran, Slovenia

Modelling
simulations the additional input data, characterising the MCS, include: ventilation,
temperature and humidity of inlet air, and microenvironment volume.
DISCUSSION
Results of our study demonstrate that our model can be applied in practice to predict human
thermophysiological behavior in a given environment, accounting for and level of physical
activity. Analyses of such modeling results can assist in preventing thermal injury in
designing appropriate exposure to a hot environment.
ACKNOWLEDGEMENT
This project was supported by the National Academy of Sciences, Ukraine and CNRS,
France.
REFERENCES
1. Yermakova I., Candas V., Tadejeva J.(2004), SOFTWARE for development of protective
clothing in extreme environments., Electronics and connection, 9(21): 117-120.
2. Yermakova I., Tadejeva J., Candas V. (2005) Computer simulator for prediction of human
thermal state. Environmental Ergonomics, ICEE, pp. 218-221, Ystad, Sweden.
3. Candas V., Yermakova I., Tadejeva J. (2005) Modeling a microclimate cooling system in
protective clothing. Environmental Ergonomics, ICEE, pp. 538-540, Ystad, Sweden.
4. Yermakova, K. Duchnovskaya, J, Tadejeva, V. Candas (2006) Effect of Partly
Impermeable Clothing on Thermoregulatory Responses in hot Environment: a Computer
simulation., Thermal and Modeling. Ed. Jintu Fan Hong Kong ,p.98-106
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