Course Details

Applied physics

Academic Year 2025/26

DBB012 course is part of 3 study plans

DKA-V Summer Semester 1st year

DKC-V Summer Semester 1st year

DPA-V Summer Semester 1st year

Selected problems from heat conduction. Hydrodynamic a thermokinetic similarity. Heat transfer from a moving heat-carrying medium. Selected problems from heat radiation. Combined transfer of heat.

Credits

8 credits

Language of instruction

Czech

Semester

summer

Course Guarantor

Institute

Forms and criteria of assessment

examination

Entry Knowledge

Basic knowledge from physical and mathematical courses of bachelor and master studies.

Aims

Mastering advanced knowledge from building thermodynamics. Accent is put on the current research results. Illustrations will have the form of excerpts from journal papers which enables students to acquire basic formal skills necessary for presentation of research results in scientific journals.
Mastering advanced knowledge from building thermodynamics. Accent is put on the current research results. Illustrations will have the form of excerpts from journal papers which enables students to acquire basic formal skills necessary for presentation of research results in scientific journals.

Basic Literature

T. Ficker, Příručka stavební tepelné techniky, akustiky a denního osvětlení, CERM, Brno, 2004 (cs)
T. Ficker, Aplikovaná fyzika, modul1, Vedení tepla ve stavebních konstrukcích, FAST VUT, 2008 - skriptum. (cs)
T. Ficker, Aplikovaná fyzika, modul 2, Kondenzace ve stavebních konstrukcích, FAST VUT, Brno, 2008 - skriptum. (cs)
T. Ficker, Aplikovaná fyzika, modul 3, Tepelné záření ve stavebních konstrukcích, FAST VUT, Brno, 2004 - skriptum. (cs)
T. Ficker, Aplikovaná fyzika, modul 4, Akustika vnitřních prostor, FAST VUT, Brno, 2004 - skriptum (cs)

Recommended Reading

Literatura doporučená studentům je totožná s literaturou základní k tomuto předmětu. (cs)

Offered to foreign students

Not to offer

Course on BUT site

Lecture

13 weeks, 3 hours/week, elective

Syllabus

1. Overview of basic notions of heat conduction. 2. Steady state heat conduction through a sandwich cylinder structure. 3. Heat transfer through heterogeneous interphases. 4. Estimation of surface coefficients of heat transfer using the principle of physical similarity. 5. Overview of basic notions of heat convection. 6. Hydrodynamic and thermokinetic similarity. 7. Heat transfer from a moving heat-carrying medium. 8. Overview of basic notions of heat radiation. 9. Kirchhoff laws of radiating field. 10. Radiation of absolute black bodies and gray bodies. 11. Heat exchange between two planes. 12. Radiation within closed air cavities inside building structures. 13. Combined heat transfer.