References
- Bánhidi, L. - Kajtár, L. (2000)Komfortelmélet. BME Technical Press, Budapest.
- Choi, J. - Yeom, D. (2017)Investigation of the relationship between thermal sensation of local body area and whole body in an indoor built environment. Energy and Buildings, No. 149, pp. 204-215.
- He, Y. - Li N. - Zhang, W. - Peng, J. (2016)Overall and local thermal sensation and comfort in air-conditioned dormitory with hot-humid climate. Building and Environment, No. 101, pp. 102-109.
- Lan, L. – Lian, Z. (2010)Application of statistical power analysis-How to determine the right sample size in human health, comfort and productivity research. Building and Environment, No. 45, pp. 1202-1213.
- Toftum, J. (2002)Human response to combined indoor environment exposures. Energy and Buildings, No. 34, pp. 601-606.
- Wang, J. - Wang, Z. - de Dear, R. - Luo, M. - Ghahramani, A. - Lin, B. (2018)The uncertainty of subjective thermal comfort measurement. Energy and Buildings, No. 181, pp. 38-49.
- Wargocki, P. – Wyon, P. D. (2003)Ten questions concerning thermal and indoor air quality effects on the performance of office work and schoolwork. Building and Environment, No. 51 2012, pp. 234-241.
- Wargocki, P. – Wyon, P. D. (2013)Providing better thermal and air quality conditions in school classrooms would be cost-effective. Building and Environment, No. 59 2013, pp. 581-589.
- Wu, X. - Liu, Y. - Liu, G. - Wang, F. - Wang, Z. (2017)Effect of Supply Air Temperature on Indoor Thermal Comfort in a Room with Radiant Heating and Mechanical Ventilation. Energy Procedia, No. 121, pp. 206-213.