| At line 21 changed 14 lines. |
| 1. Heat transfer: Fourier law, heat equation |
| 2. Physical similarity theory, Fourier and Nusselt number |
| 3. Convective heat transfer coefficient at free, forces and transient convection |
| 4. Heat exchangers: equations, types, use |
| 5. Heat pumps: equations, types, use |
| 6. Mathematical models of thermal storage tanks, solar collectors, fluid mixing |
| 7. Humid air thermodynamic principles, Mollier enthalpy diagram |
| 8. Induction heating of materials: circuit access |
| 9. Induction heating of materials: alemag. field access |
| 10. FEM for thermal and elmag. Field, boundary and initial conditions |
| 11. Arc furnaces: types, construction, connection to the grid |
| 12. Arc models and its influence on the grid, higher harmonic frequencies and flicker compensation |
| 13. Supplementary systems for induction heating devices (sources, cooling systems) |
| 14. Reserve |
| 1. Heat transfer: Fourier law, heat equation\\ |
| 2. Physical similarity theory, Fourier and Nusselt number\\ |
| 3. Convective heat transfer coefficient at free, forces and transient convection\\ |
| 4. Heat exchangers: equations, types, use\\ |
| 5. Heat pumps: equations, types, use\\ |
| 6. Mathematical models of thermal storage tanks, solar collectors, fluid mixing\\ |
| 7. Humid air thermodynamic principles, Mollier enthalpy diagram\\ |
| 8. Induction heating of materials: circuit access\\ |
| 9. Induction heating of materials: alemag. field access\\ |
| 10. FEM for thermal and elmag. Field, boundary and initial conditions\\ |
| 11. Arc furnaces: types, construction, connection to the grid\\ |
| 12. Arc models and its influence on the grid, higher harmonic frequencies and flicker compensation\\ |
| 13. Supplementary systems for induction heating devices (sources, cooling systems)\\ |
| 14. Reserve\\ |