Idaho’s Water Energy Resources and Hydroelectric Potential Douglas G. Hall, Program Manager INL Hydropower Program August 2006.

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Presentation transcript:

Idaho’s Water Energy Resources and Hydroelectric Potential Douglas G. Hall, Program Manager INL Hydropower Program August 2006

2 Topics Idaho electricity state of the state –Energy sources, production, and consumption –Hydroelectric plants and generation Basic natural stream resource assessment –Resource spatial distribution –Resource gross power potential Feasibility assessment –Feasible potential projects –Project realistic power potential Development opportunities & costs Virtual Hydropower Prospector – a GIS application –Water energy resource site & feasible project locator –Preliminary feasibility assessment tool

3 Idaho Electricity State of the State Idaho Electricity State of the State

4 Idaho Electricity State of the State Electricity consumption*: 21 billion kilowatthours Electricity production*: 10 billion kilowatthours Electricity Sources*: Trends by source*: ( ) Average 2004 retail price** of electricity: 5¢/kWh (2nd lowest in the nation) * EIA, State Energy Profiles 2002 ** EIA, Electric Power Annual 2004

5 Idaho Hydroelectric Plants Hydroelectric plants: 136 Total plant capacity:2,468 MW Total annual average power: 1,300 MWa Average annual generation: 11 billion kilowatthours Plant ownership: Capacity ownership: 136 Plants 2,468 MW

6 Idaho’s hydroelectric plants

7 61 hydroelectric plants within 50 mi. of Twin Falls, ID Milner: 59 MW Birch Ck: 30 kW

8 Idaho’s Natural Stream Water Energy Resources

9 Hydropower 101 Capacity – the maximum plant power rating (MW) Annual Average Power – average rate at which electricity is generated during a year (MWa) Power ≈ hydraulic head x water flow rate Generation (MWh) = capacity factor x capacity x 8760hrs OR Generation (MWh) = annual average power x 8760hrs Typical capacity factor = 0.5

10 State gross power potential to feasible hydropower potential Total Gross Power Potential 19,000 MWa Excluded power & Developed power subtracted Feasibility Criteria applied “Available” Gross Power Potential 10,000 MWa Feasible Gross Power Potential 7,000 MWa Development Criteria applied Feasible Hydropower Potential 2,000 MWa

11 Assessment methodology Power potential of every stream reach in the state estimated –Reach hydraulic heads (elevation difference start to finish) provided by digital elevation models –Reach annual mean flow rates estimated using regression equations based on stream gages –Combination of reach hydraulic head and flow rate yields gross power potential Zones where development unlikely identified using GIS –Federal exclusion zones –Environmental exclusion zones Developed reaches identified by matching existing plants and reaches using GIS

12 Gross power potential by state and power category 4th in the Nation Idaho 19,000 MWa

13 Power category distribution of Idaho water energy resources

14 Feasibility Assessment – Feasible Power Potential

15 Feasibility criteria Not previously developed Development not improbable –Not in federal exclusion zone –Not in environmental exclusion zone Site assessibility – within 1 mile of a road Load or tranmission proximity –Within 1 mile of either OR Power line Substation Power plant Within the 90th percentile of distances of hydro plants in the same power class to a city or populated area boundary in the hydrologic region

16 Site development configurations Tazimina Project Alaska Artist’s Conception of Canal Offtake Project

17 Environmental benefits & desirable features Emissions-free generation Power predicability New dam not required Reservoir is not created Main stream channel is not obstructed Small plant footprint Minimal visual impact Long plant life (30 to 50yrs or more)

18 Project development criteria Working stream flow – the lesser of: –Half the reach flow rate OR –Sufficient flow rate to produce 30 MW Working hydraulic head – penstock length –Upper limit set by existing projects –Search algorithm found optimal location for minimum length penstock to capture maximum hydraulic head

19 Feasible hydropower potential by state and power category 4 th in the Nation Idaho 2,122 MWa

20 Idaho potential projects by power & technology classes Feasible projects having hydropower potential ≥ 10 kW 6,700 potential projects Feasible hydropower potential: 2,000 MWa Small hydro: >1 MW &  30 MW Low power: < 1 MW

21 Idaho’s low power & small hydro potential projects

22 Idaho hydroelectric growth potential from new low power and small hydro plants Current Total Average Power 1,300 MWa Potential Small Hydro 1,515 MWa Potential Low Power 607 MWa Current Annual Hydroelectric Generation 11 x 10 9 kWh Annual Hydroelectric Generation w/ New Small Hydro 24 x 10 9 kWh Annual Hydroelectric Generation w/ New Low Power & Small Hydro 30 x 10 9 kWh Idaho Annual Consumption 21 x 10 9 kWh

23 Opportunities & Costs

24 Powerhouse additions to existing dams – possibly low hanging fruit Minimal additional environmental impact Less time and cost to license Lower unit development cost ($/kW) 396 Dams 136 Hydroeletric Plants = 260 Potential Powerhouse Additions –

25 Estimated development costs for three types of capacity increase opportunities INL developed cost estimating tools based on historical cost data Cost estimating tools applied to Idaho capacity increase opportunties > 1 MW assessed in 1990’s

26 More Idaho water energy resources Natural stream locations for hydrokinetic technologies Constructed waterways – canals & aquaducts Municipal water supply systems Effluent streams –Water treatment plants –Power plants –Industrial plants Unassessed

27 Virtual Hydropower Prospector

28 Geographic Information System (GIS) tool on the Internet Idaho National Laboratory developed and served ( No special software or licenses required to use Displays 500,000 water energy resource sites and 130,000 feasible project sites throughout the U.S. Displays context features needed to perform preliminary feasibility assessments Provides tools for locating and selecting features of interest Goes beyond geographic location and provides attribute information about selected features Virtual Hydropower Prospector

29 Region Selector

30 VHP Desktop

31 Features displayed Water energy features –Water energy resource sites (500,000 sites) –Feasible potential projects (130,000 sites) Hydrography (5 feature sets) Power system –Hydro plants –Other plants –Power lines –Substations Transporation – Roads –Railroads Areas & places –Cities –Populated areas –County boundaries –State boundaries –Hydrologic region boundaries Land Use –Excluded areas Federally designated Environmentally sensitive –Bureau of Indian Affairs (BIA) –Bureau of Land Management (BLM) –Bureau of Reclamation (BOR) –Department of Defense (DOD) –U.S. Forest Service (FS) –U.S. Fish & Wildlife Service (FWS) –U.S. National Park Service (NP)

32 Conclusions Idaho has a history of hydroelectric generation which now allows it to enjoy the among the lowest electricity rates in the country Over 50% of the Idaho’s water energy resources have not been developed and are not in development exclusion zones Idaho could significantly increase hydroelectric generation using undeveloped sites, existing dams, equipment upgrades, non-traditional resources, and new technology Costs of new hydroelectric plants are competitive considering environmental benefits, attractive features, and long life Virtual Hydropower Prospector provides all hydropower stakeholders with a tool to evaluate new hydropower development

33 Access to references and VHP Access: References: ( Resource Assessment link) –Feasibility Assessment of the Water Energy Resources of the United States for New Low Power and Small Hydro Classes of Hydroelectric Plants, DOE-ID-11263, January –Water Energy Resources of the United States with Emphasis on Low Head/Low Power Resources, DOE/ID , April –Estimation of Economic Parameters of U.S. Hydroelectric Resources, INEEL/EXT , June –U.S. Hydropower Resource Assessment Final Report, DOE/ID , December VHP: Virtual Hydropower Prospector link

34 Contact Douglas G. Hall, Program Manager INL Hydropower Program Idaho National Laboratory 2525 Fremont Ave. Idaho Falls, ID Telephone: