Prepared by Katherine Dykes 12/04/2007 ESD 71 – Prof. de Neufville

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Presentation transcript:

Prepared by Katherine Dykes 12/04/2007 ESD 71 – Prof. de Neufville Prospects for Wind Farm Installation in Wapakoneta, Ohio: An Initial Study on Economic Feasibility Prepared by Katherine Dykes 12/04/2007 ESD 71 – Prof. de Neufville Bowling Green, Ohio Wind Farm

Content Problem Description Description of Uncertainty Potential for Incorporating Flexibility: two options Real Option 1: Small versus Large Wind Farm Using Decision Tree Analysis Real Option 2: Close Small wind farm if operation unprofitable Using Binomial Tree Analysis Discussion & Conclusions

Problem Description Why wind in Wapakoneta? Two Year DOE Tall Tower Wind Assessment Study shows that wind speeds at Wapakoneta, Ohio site outperform all other sites tested including Bowling Green, Ohio where the first Ohio commercial-scale wind farm was installed in 2001 Because Wapakoneta is a municipal utility, outside the jurisdiction of the large multi-state utility providers, pursuing a wind farm is more straightforward process In addition, the city owns a large body of land near the test site and the highway that would help enable wind farm installation, maintenance and visibility Finally, there is community interest from Wapakoneta officials for such a project and various local businesses would profit from investment in the project

Problem Description What are the next steps? Following on the wind assessment study, other information is necessary prior to going ahead with such a large-investment project for the city Key to this is an economic feasibility study that incorporates: project costs offsets in electricity costs to the community Regulatory incentives All of the above involve a large amount of uncertainty Any thorough economic feasibility study will accurately address these uncertainties This analysis will show a preliminary study of how to address such sources of uncertainty

Description of Uncertainty Three major sources of uncertainty beyond traditional economic factors: Wholesale electricity price Wholesale electricity sold to Wapakoneta sub-stations from AMP-Ohio; trend in electricity prices for past several years shown below1 Calculated price drift for 10 year period is 5.07% and volatility is 9.31% 1 http://www.amp-ohio.org/pdf/AMP_Ohio_2006_Annual_Report.pdf

Description of Uncertainty Regulatory Incentives Presently, there are a variety of incentives2: Grants up to $150,000 for a large commercial wind project Production incentives of $0.01/kWh $0.015/kWh production incentives as well as tax exemptions at the federal level However, presence of incentives and changes to incentives in future periods are unknown (incentive value could increase or decrease) Installation and Maintenance Costs Project Costs for Wind expected to fall slightly in coming years but not by a large amount3: 2 http://www.dsireusa.org/library/includes/map2.cfm?CurrentPageID=1&State=OH&RE=1&EE=1 3 http://www.eere.energy.gov/windandhydro/windpoweringamerica/ne_economics.asp

Description of Uncertainty Dominant source of uncertainty of the above three sources is wholesale electricity price Regulatory incentive value as compared to overall project costs likely to be small Costs of projects not likely to change substantially in the future and collaboration with developers likely to provide a large amount of information to clarify this source of uncertainty Wholesale electricity in recent years has been extremely volatile: Due to fossil fuel price volatility, especially natural gas In the future, potential for regulation on CO2 emissions could also cause significant increase in electricity prices Next step: analyze what effects the uncertainty in wholesale electricity projects could have on 1) project size and 2) continued wind farm operation after installation

Real Option Analysis 1: Big vs. Small Use a 2-stage decision tree analysis to look at the trade-off between upfront investment in large-scale (20 MW) versus small-scale (3 MW) wind farm Below are project costs ignoring regulatory incentives and using cost estimates as provided by the Windustry model (see reference below) Project Cost Information: http://www.awea.org/pubs/factsheets/10stwf_fs.PDF http://www.windustry.org/your-wind-project/community-wind/community-wind-toolbox/chapter-3-project-planning-and-management/wi

Real Option Analysis 1: Big vs. Small Decision Tree model: Wholesale electricity prices projected using Geometric Brownian Motion model with drift 5.07% and volatility 9.31% Includes two options: Upfront investment in small or large wind farm Option in stage two to upgrade small to large wind farm 750 simulations performed to get expected economic results for all scenarios under decision tree

Real Option Analysis 1: Big vs. Small Decision Tree Results, Graphical Form:

Real Option Analysis 1: Big vs. Small Decision Tree Results, VARG curves:

Real Option Analysis 1: Big vs. Small Results indicate that large economies of scale in project make small-wind farm project less attractive economically even after incorporating flexibility However, the small-scale wind farm is effective at eliminating some of the downside risk since it requires less up front investment

Real Option Analysis 2: Option to Close Attempt to remedy economic performance of small-wind farm by including another option: Close small wind farm and sell off turbines if wholesale electricity prices do not rise as expected Pursue analysis using Binomial Tree Model Using drift of 5.07% & volatility of 9.31%, Upside factor = 1.0976 Downside factor = 0.9111 Upside probability = 0.7723

Real Option Analysis 2: Option to Close Perform binomial tree analysis using above probability / price values and assuming: Plant can be closed at any time Turbines can be sold off to cover outstanding debt Potential life of project in this case shortened to 15 years

Real Option Analysis 2: Option to Close Value of Option = $710,807 However, even under unrealistic assumptions and using option to close, small wind-farm does not show positive NPV in 15 years But, if performance in first few years for electricity is high, project does become attractive; this again highlights the importance of the trend in wholesale electricity prices on overall economic viability of the wind project

Discussion and Conclusions Initial analysis for a Wapakoneta wind project indicate that economies of scale are significant and a large-scale wind farm fares better than a small-scale wind farm with option for later expansion but requires substantially more investment This analysis leaves out regulatory incentives which may favor a small-scale wind farm due to percentage of costs covered being greater for a small-scale wind farm versus a large-scale wind farm This analysis also relies on rudimentary estimates of project cost; collaboration with wind developers needed to validate assumptions here Overall, much more extensive analysis is needed in order to evaluate the economic feasibility of a wind farm in Wapakoneta; this analysis is meant only to show the importance of incorporating uncertainty and flexible design into any future analysis for such a project