Michigan
Developing Michigan's wind energy industry could create 25,000 jobs in the state by 2025
With 10 million people, a cold climate to combat and heavy industry to power, Michigan needs energy. In 2007, Michigan spent $37 billion on petroleum, coal, natural gas and nuclear fuel. Out of that pot of money, $26 billion left the state entirely.[1] Developing homegrown renewable energy -- such as offshore wind -- can help keep energy dollars at home, and drive Michigan's economic transformation while providing clean, reliable, inexpensive power for consumers and businesses. Researchers estimate that the wind energy industry alone could create 25,000 jobs here by 2025.[2]
In October 2008, Michigan passed a Renewable Portfolio Standard (RPS), which will help the state make major strides in renewable energy development over the next decade. The RPS requires electric utilities to generate at least 10 percent of their energy from renewable sources, or to negotiate the equivalent using tradable renewable energy certificates, by 2015.[3]
The renewables map shows current and future facilities generating energy from wind, solar, biomass and biogas in Michigan.
Wind Energy
Courtesy of LM Wind Power
There's enough offshore wind energy in Michigan to power more than 6 million homes
Michigan vaulted from a capacity of 2.6 megawatts of wind power in 2007 to 164 megawatts in 2010, and has an additional 200 megawatts under construction.[4] Because Michigan's wind resources -- namely, the gales whipping off the shores of Lake Michigan -- are close to existing transmission lines and metropolitan areas, its potential for wind power matches those of far windier Western states.[5] A study by the Michigan State Land Policy Institute found that at least 22,000 megawatts of offshore wind resource power is economically achievable[6] -- that's more than 6 percent of the state's electricity consumption, enough to power more than 6 million homes.[7] Michigan also has moderate onshore wind resources.[8]
The rapid growth of the local wind industry could be Michigan's ticket out of its economic slump and into a clean energy future. In the past few years, 35 firms have either launched or retooled existing factories to supply parts to the wind industry, creating new jobs and hiring former auto industry workers.[9] For example, Astraeus Wind, founded in 2007, manufactures wind turbine components for domestic and international wind farms, and employs more than 30 highly-skilled technicians in some of the best-paid jobs in Eaton Rapids, MI.[10]
In 2009 alone, the wind industry supported, directly or indirectly, some 2,000 to 3,000 jobs in Michigan. If Michigan chooses to exploit its formidable wind energy potential, this industry alone could create more than 25,000 new jobs by 2025.[11]
Biomass Energy and Cellulosic Ethanol
Credit: Gretz, Warren - NREL Staff Photographer
Sustainably harvested wood waste from Michigan's towns and forest industry as well as animal and agricultural waste from farms is another untapped source of local renewable energy.
A 2003 report prepared for the U.S. Department of Agriculture, Department of Energy and the National Renewable Energy Laboratory estimated that Michigan could generate 666 megawatts of power from agricultural waste, 248 megawatts from forest and mill residues and 203 megawatts from urban wood waste for a total of 1,117 megawatts of energy per year. That's enough to supply electricity to more than 700,000 households.[12] Wood and wood waste is currently Michigan’s biggest source of renewable energy, producing 1.7 million megawatt hours of power in 2008.[13] Locating biomass power plants near mills, disposal sites and farms would allow convenient collection of fuel sources and reduce transportation costs.[14]
The best biofuels are those that protect the environment and food supplies while improving the economic welfare of workers and communities. Cellulosic ethanol, which is made from crop waste (such as corn stover, the stalks and other bits left over after harvest) and non-food crops, is the biofuel of the future.
Crops grown specifically to produce cellulosic ethanol, such as switchgrass, willow and hybrid poplar, all grow nicely in Michigan's climate and soils -- and make Michigan's biomass potential even greater. The state could be producing 4 million dry tons of sustainable feedstock annually for bioenergy, which means more than 50 million gallons of ethanol, or enough fuel to power more than 80,000 cars each year.[15] Developing the biomass energy industry in Michigan can yield significant economic opportunities as well. A study completed by the Renewable Energy Policy Project in 2006 showed that using biomass energy to produce steam and electric power can produce 10.5 jobs per megawatt of added capacity.[16]
Biogas Energy
Michigan ranks among the top 10 states for potential biogas production from dairy operations
Michigan's dairy operations produce more than 26 million tons of methane emissions each year from livestock waste. Turning some of that gas into electricity would reduce waste and be profitable for at least 107 of the state's dairies, according to the EPA's AgStar program.
The state's six current biodigesters are producing nearly 17,000 megawatt-hours of power. If the state were to maximize its biogas potential, Michigan’s big dairy operations could reduce waste and odor and produce 246,000 megawatt-hours of new power annually. Michigan ranks among the top 10 states for potential biogas production from dairy operations.[17]
Solar Energy
Michigan's reasonably ample sunlight, averaging 4 to 4.5 kilowatt-hours per square meter per day, is a largely untapped energy source.[18] As of the end of 2009, according to the Energy Systems Bureau of Michigan, the state had 1,041 kilowatts' worth of installed solar photovoltaic systems,[19] but its economically feasible solar potential is much greater -- estimated at more than 2,350 megawatts.[20]
Developing solar power will bring jobs as well as clean energy. Michigan is already home to a world leader in thin-film solar panel technology, United Solar, based in Auburn Hills.[21] The company has created more than 300 jobs at its manufacturing plants in Greenville, Michigan. Greenville plans to install solar panels on every school and municipal building in town.[22]
Renewable Energy Meets Wildland and Wildlife Conservation
Certain sensitive lands -- such as parks, monuments and wildlife conservation areas -- and ecologically sensitive marine areas are not appropriate for energy development. In some of these places, energy development is prohibited or limited by law or policy, and in others it would be highly controversial. NRDC does not endorse locating energy facilities or transmission lines in such areas. Siting decisions must always be made extremely carefully, with impacts mitigated and operations conducted in an environmentally responsible manner.
For more information on the intersection between clean energy development and wildland and wildlife conservation in the American West, including locations of parks, wildlife refuges and other conservation areas, see this Google Earth-based feature.
Toolkit
Economic Incentives for Renewable Energy Projects in Michigan
The Database of State Incentives for Renewables & Efficiency (DSIRE) lists federal, state and local government incentives for renewable energy projects in Michigan.
The Michigan Department of Energy, Labor and Economic Growth keeps up-to-date links of state and local funding, case studies and businesses specializing in renewable energy project development.
The Michigan Economic Development Corporation (MEDC) is creating incentive packages to attract alternative energy development in Michigan. MEDC has also created more than 150 distinct geographic regions for business and economic development, including zones specifically for renewable energy facilities, through its Renaissance Zones program, which essentially waive state and local taxes for businesses within their boundaries. For environmental improvements to business practices, the P2 Loan Program provides loans of up to $400,000 at an interest rate of 5 percent or less to independently owned businesses with 500 or fewer full-time employees.
The current Farm Bill provides a number of incentives for renewable energy. The Environmental Law and Policy Center maintains a helpful website called Farm Energy, which outlines current incentives and monitors the development of new ones.
Michigan homeowners and businesses can use this handy guide from the state government to navigate federal incentives available for renewable energy. The U.S. Department of Energy (DOE) helps you compare utilities' green energy purchasing programs in Michigan.
Wind Energy
The DOE's Wind Powering America site provides a helpful summary of wind power activities and resources in Michigan, including a wind working group, anemometer loan program, wind maps, a small wind consumer's guide and state workshops.
Small wind systems development information for Michigan is available from this detailed guide from the DOE's Office of Energy Efficiency and Renewable Energy (EERE).
The Michigan Energy Office has extensive resources for community wind energy development, including sample zoning guidelines.
Biomass Energy and Cellulosic Ethanol
Michigan has a number of incentives for the use of alternative fuels, the purchase of an alternative-fuel vehicle, and the construction or purchase of an alternative-fuel refueling station or equipment. See the Alternative Fuels and Advanced Vehicles Data Center at the EERE website for a list of state and federal incentives and laws.
The Michigan Biomass Energy Program (MBEP) provides information for biomass project developers looking to deploy new technologies throughout the state. The Workshop and Event Funding Program will provide up to $2,500 to support a workshop or event that promotes the production, commercialization and use of biomass in Michigan.
Biogas Energy
The Rural Energy for America Program, or REAP (formerly known as Section 9006 in the 2002 Farm Bill), is part of the 2008 Farm Bill. Among other things, REAP provides grants and loan guarantees to farmers, ranchers and rural small businesses to help purchase renewable energy systems or make energy efficiency improvements.
The EPA's AgSTAR program has a comprehensive handbook on developing biogas technology. The site includes FarmWare, a free decision-making software package that can help you assess the feasibility of biogas on your farm.
Solar Energy
Solar Power Rocks keeps an up-to-date and comprehensive page on solar energy rebates, tax credits and incentives available to Michigan residents.
The Michigan Public Service Commission offers net metering to customers who generate their own electricity. If you install a solar energy system on your property and connect it to the local electric grid, net metering allows you to send any excess power to the surrounding community -- causing your meter to run backward and your bill to shrink accordingly.
Notes:
- [1] http://www.dleg.state.mi.us/mpsc/reports/energy/energyoverview/
- [2] http://www.awea.org/_cs_upload/learnabout/publications/5088_1.pdf
- [3] Michigan Legislature, 2008. http://www.legislature.mi.gov/documents/2007-2008/publicact/pdf/2008-PA-0295.pdf
- [4] http://www.awea.org/learnabout/publications/upload/4Q10-Michigan.pdf
- [5] A load center is an area in which there is significant energy demand (load). Typically cities and metropolitan areas are considered load centers.
- [6] Adelaja, S. and C. McKeown. 2008. Michigan's Offshore Wind Potential. Michigan State Land Policy Institute. September 30, 2008; Flowers, L. 2008 Wind Energy Update. National Renewable Energy Laboratory. June, 2008. The LPI study calculated available power by multiplying mean wind speeds by expected power output of a 3.6 MW turbine. A more-traditional measure of capacity is in nameplate capacity (MW), which is presented in this study. Although it is unlikely that a wind resource would ever generate at full nameplate capacity (requiring all turbines to move at maximum output), the measure is a useful metric. Total power output (in MWh) is found by multiplying the capacity by the capacity factor, or average percent of capacity obtained in a year. Power available for peak load is found by multiplying by the effective load carrying capability (ELCC) rate, or percentage of capacity reasonably expected during peak periods.
- [7] http://apps1.eere.energy.gov/states/electricity.cfm/state=MI
- [8] Heimiller, D. 2005. National Renewable Energy Laboratory, March 2005. The total resource excludes parks, protected lands, steep slopes, airports, urban areas and associated 3 km buffers, and small resource areas. The study assumes that 5 MW of turbines could be installed per sq. km.
- [9] http://www.awea.org/_cs_upload/learnabout/publications/5088_1.pdf
- [10] http://www.onearth.org/blog/astraeus-wind
- [11] http://www.awea.org/learnabout/publications/upload/4Q10-Michigan.pdf
- [12] Antares Group, Inc. (2003, September). Assessment of Power Production at Rural Utilities Using Forest Thinnings and Commercially Available Biomass Power Technologies. Prepared for the U.S. Department of Agriculture, U.S. Department of Energy, and National Renewable Energy Laboratory.
- [13] EIA 2010. http://www.eia.doe.gov/cneaf/solar.renewables/page/state_profiles/michigan.html
- [14] Simpkins, D. 2006. Clean Energy from Wood Residues in Michigan. Michigan Biomass Energy Program. June, 2006. Combusting biomass is renewable in most aspects, if the entire lifecycle of an operation is considered. Growing plants pull CO2 from the atmosphere, which is released again during combustion. If the biomass needs to be transported or processed, any fossil fuels count against the renewable component of biomass use.
- [15] Froese, Robert. 2007. Michigan Department of Agriculture.
- [16] Sterzinger, George and Jerry Stevens. 2006. Component Manufacturing: Michigan's Future in the Renewable Energy Industry. Renewable Energy Policy Project (REPP) Technical Report. http://ref.michiganadvantage.org/cm/attach/D0DF8BC4-6672-4A46-8CF9-F273E0C630AF/Michigan_Manufacturing.pdf
- [17] US EPA 2010. http://www.epa.gov/agstar/documents/biogas_recovery_systems_screenres.pdf
- [18] http://apps1.eere.energy.gov/states/electricity.cfm/state=MI#contribution
- [19] http://www.michigan.gov/documents/dleg/Solar_Chart_309619_7.pdf
- [20] Chaudhari, M. L Frantzis, TE Hoff. 2004. PV Grid Connected Market Potential under a Cost Breakthrough Scenario. Navigant Consulting. http://www.ef.org/documents/EF-Final-Final2.pdf
- [21] http://www.uni-solar.com/contact-us/
- [22] http://www.rapidgrowthmedia.com/features/040810greenville.aspx




