[1] TADASHI, Tanuma. Advances in Steam Turbines for Modern Power Plants. 2nd Edition. Tokyo, Japan: Woodhead Publishing, 2022, 680 s. ISBN 9780323915519 .
[2] PEREZ, X. Robert, and David W. LAWHON. Operator's Guide to General Purpose Steam Turbines: An Overview of Operating Principles, Construction, Best Practices, and Troubleshooting. 1. Salem, Massachusetts: Scrivener Publishing LLC., 2016, 336 s. ISBN 978-1-119-29446-7 . Dostupné z: doi:10.1002/9781119294474
[3] LEYZEROVICH, Alexander S. Steam Turbines for Modern Fossil Fuel Power Plants. The Fairmont Press, Inc., 700 Indian Trail, Lilburn, GA 30047. 2007. ISBN 0-88173-548-5 (print edition: alk. paper), ISBN 0-88173-549-3 (electronic edition), ISBN 1-4200-6102-X (Taylor & Francis (distributor): alk. paper)
Steam Turbines 1
| Language of instruction | angličtina, čeština |
|---|---|
| Code | 361-5303 |
| Abbreviation | PT1 |
| Course title | Steam Turbines 1 |
| Coordinating department | Department of Power Engineering |
| Course coordinator | Ing. Zdeněk Šmída, Ph.D. |
Anotace
The course builds upon prior knowledge in thermomechanics, physics, and fluid mechanics and further develops it in application to steam turbines as key components of thermal power cycles. Students gain a comprehensive understanding of the principles of the Rankine–Clausius cycle, methods for improving its efficiency, and the physical nature of converting the working fluid enthalpy into mechanical work within individual turbine stages. They become familiar with the structural arrangement of steam turbines, their classification, control elements, and their function within various power plant configurations.
After completing the course, students explain the thermodynamic principles of the steam cycle and the energy processes occurring within the turbine and are able to describe them using fundamental calculation models. They are capable of performing calculations of the steam cycle both without and with selected efficiency-enhancing methods, assessing the degree of energy dissipation in real steam expansion processes, and interpreting the influence of design solutions on operational parameters. They can also explain the principles of power control, the function of valves and sealing systems, and place their significance within a broader technical, economic, and environmental context.
The acquired knowledge and skills provide a solid foundation for further study of thermal energy systems and enable students to competently orient themselves in the design, operation, and optimization of steam turbines in conventional and nuclear power engineering.
After completing the course, students explain the thermodynamic principles of the steam cycle and the energy processes occurring within the turbine and are able to describe them using fundamental calculation models. They are capable of performing calculations of the steam cycle both without and with selected efficiency-enhancing methods, assessing the degree of energy dissipation in real steam expansion processes, and interpreting the influence of design solutions on operational parameters. They can also explain the principles of power control, the function of valves and sealing systems, and place their significance within a broader technical, economic, and environmental context.
The acquired knowledge and skills provide a solid foundation for further study of thermal energy systems and enable students to competently orient themselves in the design, operation, and optimization of steam turbines in conventional and nuclear power engineering.
Povinná literatura
Doporučená literatura
[1] LOGAN, E.Jr.: Handbook of Turbomachinery (Mechanical Engineering, No. 158) (2 ed.). New York: Marcel Dekker, 2003. ISBN 0-8247-0995-0 .
[2] KHAN, A., A.; GORLA, R.,S.R.: Turbomachinery: Design and Theory. New York: Marcel Dekker, 2003. ISBN 0-8247-0980-2 .
[3] DONALD, K. M. B. Marine steam turbines. London: Marine Media Management, 1977, 141 p. ISBN: 0900976 58 6 .
[4] DIXON, S. Larry; HALL, Cesare. Fluid mechanics and thermodynamics of turbomachinery – Fourth Edition. Oxford: Butterworth-Heinemann, 2013, 321 p. ISBN: 0 7506 7059 2 .
[5] SCHOBEIRI, M. T. Turbomachinery Flow Physics and Dynamic Performance. Berlin, Heidelberg: Springer, 2005, 522 p. ISBN: 3-540-22368-1 .
[2] KHAN, A., A.; GORLA, R.,S.R.: Turbomachinery: Design and Theory. New York: Marcel Dekker, 2003. ISBN 0-8247-0980-2 .
[3] DONALD, K. M. B. Marine steam turbines. London: Marine Media Management, 1977, 141 p. ISBN: 0900976 58 6 .
[4] DIXON, S. Larry; HALL, Cesare. Fluid mechanics and thermodynamics of turbomachinery – Fourth Edition. Oxford: Butterworth-Heinemann, 2013, 321 p. ISBN: 0 7506 7059 2 .
[5] SCHOBEIRI, M. T. Turbomachinery Flow Physics and Dynamic Performance. Berlin, Heidelberg: Springer, 2005, 522 p. ISBN: 3-540-22368-1 .