1 SFPUC Tidal / Wave Power Feasibility Studies PANC Presentation July 08, 2007 A bit of history... SFPUC In-Stream Tidal Power Feasibility Study at Golden.

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Presentation transcript:

1 SFPUC Tidal / Wave Power Feasibility Studies PANC Presentation July 08, 2007 A bit of history... SFPUC In-Stream Tidal Power Feasibility Study at Golden Gate SFPUC Wave Power Feasibility Study Ian Austin, PhD, PE Vice President, Marine Services Outline:

2 Wave power has arrived? “The possibilities of utilizing the forces of the sea’s waves will soon be manifest” Adolph Sutro, 1887

3 Wave power has arrived? A number of wave-power schemes near Cliff House: 1887 Sutro’s catch-basin, a wave overtopping scheme; said that extra head could drive water wheels 1887 Sterns’ wave motor on rocks near Cliff House – possibly a pump storage scheme – ended dramatically with the explosion of a grounded schooner 1891 Henry Holland’s wave motor; pump driven by an iron buoy - another pump storage scheme

4 Wave power has arrived? Sutro Aquarium Wave Motor

: San Francisco PUC Studies San Francisco has goal of generating at least 10% of annual average power demand from renewables - about 60 MW In-stream tidal power through the Golden Gate appeared to be a major resource Wave power outside the Golden Gate is likely to be a much larger resource

6 What is In-Stream Tidal Power? A new technology intended to reduce costs and impacts associated with old barrage projects Emerging technology, only 1 unit installed world- wide rated at more than 1 MW (MCT Strangford Narrows, Ireland) UK has been technology leader; government subsidies and tidal/wave power test sites in Scotland, Cornwall and Ireland In-stream tidal energy proportional to velocity cubed: E = 1/2  V 3

7

8 Clean Current Power Ducted Turbine

9

10

11 SFPUC In-Stream Tidal Power Study: URS Scope of Work Technology assessment  stage of development, impacts, costs Computer modeling of tidal power resource  how much power in the Golden Gate?  how much can be extracted without impacts? Stakeholder assessment  agencies, owners, interest groups, permits Develop recommendations for a Pilot Study

12 Total Tidal Energy Resource: Modeling 2-dimensional and 3-dimensional computer modeling using measured velocities to calibrate and verify models Models validated by independent expert panel (NOAA, USGS, academics) Model bathymetry updated to include latest USGS measurements

13 Computer Model Domain

14 Velocity Structure, Golden Gate Velocity Structure, Golden Gate ( : Mark Stacey data set) Early FloodPeak FloodEarly EbbPeak Ebb

15 Station Locations

16 Golden Gate Tide

17 Speed at C1, 21m below MLLW

18 Current Speed and Direction During a Spring Tide Max Flood Max Ebb

19 Mean Power Density Mean Power Density 2-D output over 11 days (6/2/90 to 6/13/80)

20 3D Model/Flythrough Animation Creation (separate file) Collected base data from various sources (including USGS, California Spatial Information Library, NOAA, Furgo, USACE, SFEI) Draped aerial imagery over elevation data for a realistic representation Obtained 3D model of the Golden Gate bridge and wind turbines, then scaled and converted to useable format for import to model Exported animation to an.avi media file

21 Total Tidal Energy Resource – URS Estimate Average energy density in range 0.4 to 0.6 kW/m 2 Very localized sites with greater than 1.0 kW/m 2 Total average resource in range of 12 to 15 MW Extractable power in range of 1.0 to 1.5 MW Cost of Power: $0.80 to $1.40 / kwh

22 Wave power has arrived? SFPUC feasibility study addressing wave energy resource, extraction technologies, permitting Plan to deploy an ADCP to confirm wave resource later this year Goal is to identify 1 or more technologies for pilot studies

23 Exclusion Zone in Marine Sanctuary

24 bioWave Device

25 CETO Device

26 Wave power has arrived? To be feasible: Costs need to be similar to those for solar power - order of 25 to 30 cents/kwh Potential environmental impacts  mooring lines can snag whales  submerged to minimize aesthetic concerns  recreational boating / fishing / ship traffic  reduced shoreline waves – less shoreline erosion and reduced surf Permitting – FERC / MMS, State & Local