Biomass Fuel Project. sustainability.uiowa.edu/biomass

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Transcription:

Biomass Fuel Project

Topics Pop quiz Project background Industrial byproducts Wood Perennial energy crops Miscanthus plan

Pop Quiz 1. What is Iowa s most valuable natural resource? 2. What role should we play in preserving/enhancing that resource? 3. What is the sustainable cost of our purchased energy (coal, natural gas, electric power, biomass)? 4. What has been the biggest barrier to developing dedicated energy crop production in Iowa? 5. What is the value of avoiding CO 2 emissions from UI coal burning, on a $ per ton basis?

Project Background

Triple Bottom Line Social Bearable Equitable Environment Sustainable Viable Economic

2020 Vision - The University of Iowa's 2. Green Our Energy Portfolio Sustainability Targets The UI will pursue a renewable energy supply strategy that optimizes long-term supply and fuel price stability while preserving an ability to test and take advantage of other potential fuels. As we transition from our dependency on fossil fuels, we will increase the use of biomass, geothermal, solar, wind, landfill gas, gasification and other emerging energy alternatives to achieve the goal of 40% renewable energy consumption on the campus by 2020.

2010 Baseline Energy Use Energy Form Quantity (MMBtu) Percent Cost Unit Cost $/MMBtu CO2 US tons Coal 2,005,000 50% $8,878,000 $4.43 241,000 Natural Gas 742,000 18% $3,690,000 $4.97 45,000 Purchased Electric 968,000 24% $12,480,000 $12.89 258,000 Biomass 331,000 8% $573,000 $1.73 0 Total 4,046,000 100% $25,621,000 544,000

Biomass Fuel Portfolio 1. Industrial byproducts (oat hulls, cardboard recycling sludge, scrap from furniture making) 2. Wood chips from timber (forest) stand improvement and opportunity wood (storms, EAB) 3. Dedicated perennial energy crops (miscanthus grass, short rotation woody)

Leopold Center for Sustainable Agriculture Biomass Partnership planning grant UI Fuel Sustainability Index development grant

Our Challenge Transition from burning black rocks (weighing 55 pounds per cubic foot with an energy density of 11,500 Btu per pound) to burning organic material with vastly different physical and chemical properties, without major capital investment.

Two Main Campus Solid Fuel Boilers Circulating Fluidized Bed Stoker 170,000 lbs. per hour @ 750 o F 500 psig

Densification

University of Iowa - Quaker Oats Biomass Fuel Project Partnership Calendar Year Tons of Coal Displaced Avoided Coal CO2 Emissions Metric Tons Avoided Fuel Cost 2003 11,511 25,632 $ 391,299 2004 16,636 37,045 $ 415,273 2005 24,290 54,088 $ 765,471 2006 27,424 61,068 $ 1,017,780 2007 23,324 51,939 $ 872,136 2008 17,929 39,924 $ 712,672 2009 15,666 34,886 $ 844,617 2010 15,206 33,862 $ 844,225 2011 16,929 37,698 $ 950,880 2012 14,309 31,864 $ 812,034 10-Yr Total 183,225 408,005 $ 7,626,387 Note: CY08 and CY09 adversely affected by 2008 flood at both UI Power Plant and Quaker Oats The oat hull fuel project has given us a foundation on which to expand our use of biomass.

University Research Park Campus 600 HP 120 psig saturated steam

The University of Iowa Biomass Fuel Project Fuel Portfolio: Industrial Byproducts

Industrial Byproducts Is using this material as boiler fuel (energy production) a higher use, compared to alternative uses? Expired and off-spec corn and soybean seeds Oat hulls Paper sludge Wood furniture manufacturing Lignin from cellulosic processes Sawdust

Seed corn Cardboard recycling plant sludge Proctor and Gamble production sludge Corn stover pellets Wood pellets Wood chips Completed Test Burns Manufactured energy pellets, produced from nonrecyclable paper with plastic content (e.g. dipers)

Industrial Byproducts Opportunity for institution and industry partnerships Significant amount of plant based products in the local area Steady, predictable quantity Consistent physical and chemical properties Do not behave like coal in material handling and combustion, e.g. much higher volatile content and oxygen content

The University of Iowa Biomass Fuel Project Fuel Portfolio: Wood

Timber Stand Improvement Jesse Jesse Randall Randall Qualified forester Landowner desires Management Plan

Kent Park conifer harvest Learning and partnership opportunity 20+ acres of dead, dying, diseased trees Planted in 1970 s for wildlife habitat Johnson County Conservation Board desires to restore to native prairie. No market for distressed timber Final delivered fuel cost: $4.89 / MMBtu to RTC Muscatine $1.47 / MMBtu RTC blend and deliver

Kent Park conifer locations Map

Timber Cruise Did not estimate amount of wood from tops and limbs. Resulted in 30% over plan harvested material.

Clearcutting into timber stand

Cut trees ready to be skidded to chipper

Whole tree chipper blowing chips into chip van

Chips in Muscatine facility ready to blend

Blending operations at Muscatine facility

Loading coal/wood mix for delivery to Main Power Plant

Unloading at Main Power Plant

Unloading at Main Power Plant

Emerald Ash Borer All Iowa ash trees dead within 20 years: State forester CR Gazette Dec. 27, 2013 55 million ash trees in Iowa 3.1 million urban ash trees, $1,000 per tree removal cost Entire State of Iowa quarantined

Wood chip sizing is critical. Long, stringy spears and branches bind up drag chain conveyors and force shutdowns and unplanned maintenance.

Perennial Energy Crops

Iowa Farmland 2013 average = $8,716 per acre

Use Acres Percent of Total Acres Corn 13,417,418 37% Soybeans 8,882,633 25% Grassland 5,462,789 15% D Forest 3,063,818 9% Develop/open 1,938,346 5% 32,765,004 91% Total Acres 36,014,211

Marginal Land Corn Suitability Rating between 25 and 75 Slope less than 12% Now in corn or bean production 380,000 acres

Perennial Dedicated Energy Crops Positive impact on non-point source nutrient runoff Deep root system facilitates growth in low moisture years Increases soil quality and adds quantity Sequesters more carbon, compared to annuals Appropriate use of marginal cropland Revenue stream for farmer independent of corn and bean prices

A year in the life of Miscanthus x giganteus (Mxg) April May August/ September November December February Emergence Canopy Closure Maximum biomass Senescence Dry Down Over winter Heaton, et al., 2010 http://www.sciencedirect.com/science/article/pii/b9780123815187000030

Muscatine County 2013 Pilot Planting

Pilot Project Knowledge Discovery NPK in boiler slagging, fouling, NO x emissions increase Logistics farm field to fuel yard to plant, densification Harvest bale (round or square) or silage chop Storage distributed or central, covered or not

Sep 24, 2013 NAAS

Two Foot Elevations 678ft. min to 700 ft. max

Corn Suitability Rating

April 1, 2013 - Lifting rhizomes in southern Georgia.

Rhizomes delivered May 15, 2013. Intended to plant May 22/23. Rain delayed planting until June 21.

Unloading super sacks of rhizomes from refrigerated trailer.

Rhizomes were kept wet by frequent watering. When unpacked from super sacks, they were cool, moist, and supple. Some had sprouted additional growth.

Rhizomes after six weeks storage in refrigerated trailer; they were watered frequently during storage.

Rhizomes after six weeks storage in refrigerated trailer; they were watered frequently.

Equipment used on planting day.

US modifications surrounded in red.

Planter hopper Planter hopper

Loading rhizomes into planter hopper.

Planting, note tractor driver looking backwards. Field was rolled within 24- hours of planting.

July 16, 2013 Field Inspection

July 16, 2013 Field Inspection

July 16, 2013 Field Inspection

July 16, 2013 Field Inspection

July 16, 2013 Field Inspection

October 20, 2013 Field Inspection

Oct 20, 2013 Field Inspection 2013 establishment year cost was $1,847 per acre.

Feb 25, 2014

Feb 25, 2014

Ag Services Provider Work-scope

2015 & 2016 Dedicated Energy Crop Planting 2,500 acres total Provide 25% of 2020 goal, or 10% of total energy 10-year financial analysis

IRR Sensitivity with $15.00 per ton CO2, base case IRR = 3.4% Base Case High Low IRR High IRR Low Land rent per acre per year $200 $300 $175-12.2% 6.6% Grower Services (e.g. N) $50. $75. $25. 0.1% 6.6% Ag Services Per ton variable $0.00 $0.00 $0.00 3.4% 3.4% Miscanthus heating value (Btu/lb) 7,700 8,500 7,000 13.2% -8.7% Semi Tons per Load 22 25 20 4.2% 2.8% Tons per acre @ full production 9.0 10.0 7.0 8.3% -13.1% Semi cost ($ per loaded mile) $4.00 $5.00 $3.00 1.8% 5.0% Average transportation distance (miles) 35 50 15 0.6% 6.9% Fossil fuel cost $ per MMBtu $5.00 $6.00 $4.75 16.4% -0.7% Bale Weight (lbs) 1,200 1,400 1,100 6.7% 1.3%

Note: this 10- year analysis includes field establishment cost at $900 per acre.

Miscanthus Production Costs (establishment cost NOT included) $5.60 per MMBtu total Land rent $200/acre Harvest $234/acre Fuel Yard $13/ton Nutrients $50/acre Ag Services $100,000/year Transport $4.00/mile 9 tons per acre dry matter yield 7,700 Btu/lb Higher Heating Value

Miscanthus Production Costs (establishment cost NOT included) $86.30 per ton total Land rent $200/acre Harvest $234/acre Fuel Yard $13/ton Nutrients $50/acre Ag Services $100,000/year Transport $4.00/mile 9 tons per acre dry matter yield 7,700 Btu/lb Higher Heating Value

Miscanthus and Coal Cost Comparison (establishment cost NOT included)