Theoretical fundamentals of heat and moisture transfer and their application in environmental engineering.
· Stationary and non-stationary heat conduction.
· Heat transfer by convection, classification of heat convection cases, natural convection currents in enclosed
spaces.
· Heat transfer modelling, similitude criteria, criterion equations.
· Heat transfer by radiation, spectral and directional properties of surfaces and heat radiation.
· Heat flow in an enclosed system of diffuse grey surfaces, mean radiant temperature in a room.
· Solar radiation, direct and diffuse irradiation of the building, radiation of the Earth and building towards the sky.
· Combined heat transfer – heat transfer through wall, heat loss from piping and heat storage tanks.
· Outdoor climatic conditions, design conditions, characteristic curves.
· Heat transfer through opaque building structures, sol-air temperature, heat accumulation effect.
· Heat transfer through translucent building structures, thermal and optical properties of glazing.
· Moisture transfer by diffusion and convection, similitude criteria, criterion equations.
· Moisture transfer in air and building structures.
· Combined heat and moisture transfer, analogy between heat and mass transfer by diffusion and convection, wetbulb
thermometer temperature.

Theoretical fundamentals of heat and moisture transfer and their application in environmental engineering.
· Stationary and non-stationary heat conduction.
· Heat transfer by convection, classification of heat convection cases, natural convection currents in enclosed
spaces.
· Heat transfer modelling, similitude criteria, criterion equations.
· Heat transfer by radiation, spectral and directional properties of surfaces and heat radiation.
· Heat flow in an enclosed system of diffuse grey surfaces, mean radiant temperature in a room.
· Solar radiation, direct and diffuse irradiation of the building, radiation of the Earth and building towards the sky.
· Combined heat transfer – heat transfer through wall, heat loss from piping and heat storage tanks.
· Outdoor climatic conditions, design conditions, characteristic curves.
· Heat transfer through opaque building structures, sol-air temperature, heat accumulation effect.
· Heat transfer through translucent building structures, thermal and optical properties of glazing.
· Moisture transfer by diffusion and convection, similitude criteria, criterion equations.
· Moisture transfer in air and building structures.
· Combined heat and moisture transfer, analogy between heat and mass transfer by diffusion and convection, wetbulb
thermometer temperature.

Heat transfer by conduction in plane and cylidrical wall; natural and forced convection; similarity and dimensionless correlations for convective heat transfer; heat radaition; solar radiation on opaque and transparent walls; combined heat transfer; heat exchangers.

Hens, H. Building Physics – Heat, Air and Moisture: Fundamentals and Engineering Methods with Examples and
Excersises. Berlin: Enrst & Sohn, 2012. 315 s. ISBN 978-3433030271.
Lienhard IV J.H. and Lienhard V J.H. A Heat Transfer Textbook, 4th ed. Cambridge, MA : Phlogiston Press,
2018. 755 pp. [e-book ver. 2.12].