Lesson 17.2: T-s diagrams for Compressors and Turbines

Course Lessons

1. 1- Lesson 1: Introduction to Thermodynamics (with Mountain Dew)
2. 2- Lesson 1: Intro to Thermodynamics
3. 3- Lesson 2: Thermodynamic Properties
4. 4- Lesson 3: Units
5. 5- Lesson 3: Units!
6. 6- Thermodynamics Lesson: Units and Dimensions
7. 7- Lesson 4: Properties of Pure Substances
8. 8- Lesson 5: Hydrostatic Pressure
9. 9- Lesson 6: Manometer Example Problem
10. 10- Lesson 7: Property Tables and Quality
11. 11- Lesson 8: Ideal Gas Explanation and Example Problem
12. 12- Lesson 9: Closed Systems
13. 13- Lesson 9.1: Clarification for Closed Systems
14. 14- Lesson 9.1: Piston-Cylinder Example Problem
15. 15- Lesson 12.1: Turbine Example Problem
16. 16- Lesson 11: Nozzles and Diffusers
17. 17- Lesson 12: Compressors and Turbines
18. 18- Lesson 13: Mixing Chambers
19. 19- Lesson 14: Heat Exchangers
20. 20- Lesson 14.1: Heat Exchanger Example Problem
21. 21- Lesson 15: Heat Engines
22. 22- Lesson 16: Intro to Entropy
23. 23- Lesson 16.1: P-v and T-s Diagrams for Entropy
24. 24- Lesson 17: Isentropic Efficiencies
25. 25- Lesson 17: Isentropic Efficiencies of Turbines and Compressors
26. 26- Lesson 17.1: Example Turbine Problem Dealing with Isentropic Efficiencies
27. 27- Lesson 17.2: T-s diagrams for Compressors and Turbines
28. 28- Lesson 18: Gas Power Cycles
29. 29- Lesson 19: Otto Cycle
30. 30- Lesson 20: Diesel Cycle
31. 31- Lesson 14.5: Refrigerators
32. 32- Brayton Cycle
33. 33- Rankine Cycle
34. 34- Lesson: Ideal Rankine Cycle Example Problem
35. 35- Air-Fuel Mass Ratio Example Problem
36. 36- Otto Cycle Example Problem
37. 37- Thermodynamics Course Lesson 9.2: How To Use First Law
38. 38- Thermodynamics Lesson: Diesel Cycle Help
39. 39- Lesson 10: Mass and Energy (Open Systems)
40. 40- Lesson 21: Brayton Cycle
41. 41- Ideal Rankine Example Problem
42. 42- Diesel Cycle Example Problem
43. 43- Lesson 22: Rankine Cycle