1 / 60

B2.2.4 Hydropower system design Turbines: Greek mill c. 100BC

brita
Download Presentation

B2.2.4 Hydropower system design Turbines: Greek mill c. 100BC

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript


    1. B2.2.4 Hydropower system design Turbines: Greek mill (c. 100BC)

    2. B2.2.4 Hydropower system design Turbines:Mesopotamian Saquia (c. 1200 AD)

    3. B2.2.4 Hydropower system design Turbines: Water wheels (c. 1800) 1-50kW

    4. B2.2.4 Hydropower system design Turbines: Fourneyron’s turbine (1832)

    5. B2. Hydropower Seminars A206a

    6. B2. Reservoirs Seminar groups

    7. B2.2.4 Hydropower system design Turbines: Power conversion

    8. B2.2.4 Hydropower system design Turbines: Power conversion

    9. B2.2.4 Hydropower system design Turbines: Power conversion:Velocity triangles

    10. B2.2.4 Hydropower system design Turbines: Impulse Pelton wheel Turgo Crossflow Reaction Radial (e.g. Francis) Axial (e.g. propeller, bulb, Kaplan)

    11. B2.2.4 Hydropower system design Turbines: Pelton wheel (1889)

    12. B2.2.4 Hydropower system design Turbines: Pelton wheel

    13. B2.2.4 Hydropower system design Turbines: Pelton wheel

    14. B2.2.4 Hydropower system design Turbines: Pelton wheel

    15. B2.2.4 Hydropower system design Turbines: Pelton wheel

    16. B2.2.4 Hydropower system design Turbines: Pelton wheel

    17. B2.2.4 Hydropower system design Turbines: Pelton wheel:Jet

    18. B2.2.4 Hydropower system design Turbines: Pelton wheel

    19. B2.2.4 Hydropower system design Turbines: Pelton wheel: Multi jet

    20. B2.2.4 Hydropower system design Turbines: Pelton wheel: Multi jet Higher rotational speed Smaller runner Simple flow control possible Redundancy Can cope with a large range of flows But Needs complex manifold May make control/governing complex

    21. B2.1.4 Fundamentals of Hydro power Yields and economics: Flow-duration curve

    22. B2.2.4 Hydropower system design Turbines: Pelton wheel: Sri Lankan

    23. B2.2.4 Hydropower system design Turbines: Turgo (1904)

    24. B2.2.4 Hydropower system design Turbines: Turgo

    25. B2.2.4 Hydropower system design Turbines: Turgo

    26. B2.2.4 Hydropower system design Turbines: Turgo

    27. B2.2.4 Hydropower system design Turbines: Turgo

    28. B2.2.4 Hydropower system design Turbines: Turgo: MPPU – based on Nepali Ghatta

    29. B2.2.4 Hydropower system design Turbines: Crossflow (1941)

    30. B2.2.4 Hydropower system design Turbines: Crossflow

    31. B2.2.4 Hydropower system design Turbines: Crossflow: Panama

    32. B2.2.4 Hydropower system design Turbines: Crossflow

    33. B2.2.4 Hydropower system design Turbines: Francis (1849)

    34. B2.2.4 Hydropower system design Turbines: Francis

    35. B2.2.4 Hydropower system design Turbines: Francis

    36. B2.2.4 Hydropower system design Turbines: Francis

    37. B2.2.4 Hydropower system design Turbines: Francis

    38. B2.2.4 Hydropower system design Turbines: Francis

    39. B2.2.4 Hydropower system design Turbines: Propeller

    40. B2.2.4 Hydropower system design Turbines: Propeller

    41. B2.2.4 Hydropower system design Turbines: Propeller

    42. B2.2.4 Hydropower system design Turbines: Kaplan (1913)

    43. B2.2.4 Hydropower system design Turbines: Kaplan

    44. B2.2.4 Hydropower system design Turbines: siting propellers

    45. B2.2.4 Hydropower system design Turbines: Water current (1980)

    46. B2.2.4 Hydropower system design Turbines: Water current

    47. B2.2.4 Hydropower system design Turbines: Characterising turbines

    48. B2.2.4 Hydropower system design Turbines: Characterising turbines

    49. B2.2.4 Hydropower system design Turbines: Characterising turbines

    50. B2.2.4 Hydropower system design Turbines: Characterising turbines: Dimensionless groups

    51. B2.2.4 Hydropower system design Turbines: Characterising turbines: Dimensionless groups:Specific speed

    52. B2.2.4 Hydropower system design Turbines: Characterising turbines: Specific speed: Dimensional specific speed

    53. B2.2.4 Hydropower system design Turbines: Characterising turbines

    54. B2.2.4 Hydropower system design Turbines: Characterising turbines

    55. B2.2.4 Hydropower system design Turbines: Cavitation

    56. B2.2.4 Hydropower system design Turbines: Cavitation

    57. B2.2.4 Hydropower system design Turbines: Cavitation

    58. B2.2.4 Hydropower system design Turbines: L-1 propeller turbine designed for minimal cavitation

    59. B2.2.4 Hydropower system design Turbines: L-1 propeller turbine designed for minimal cavitation after 25,000 hours

    60. B2.2.4 Hydropower system design Turbines: Cavitation: Thoma number

    61. B2.2.4 Hydropower system design Turbines: Cavitation: Critical Thoma number

More Related