GreatPoint Energy International Advanced Coal Technologies Conference June 2010

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GreatPoint Energy International Advanced Coal Technologies Conference June 2010

GreatPoint Energy is commercializing its proprietary bluegas TM process to convert coal and petroleum residues into low cost natural gas and CO 2 for enhanced oil recovery 2

GreatPoint Company Overview Technology is a step change in the science of gasification and fuels production Substantially cleaner alternative to coal combustion Integrated capture and sequestration of CO 2 to dramatically reduce emissions Converts criteria pollutants into saleable by-products Process flexibility yields a range of low-cost clean energy products Natural gas Pipeline-grade product allows for flexibility in plant siting Reliable, long term, fixed price contracts tied to abundant low-cost feedstock Refinery Hydrogen and Near-Zero Emissions Power reliable, long term, fixed price contracts for oil refiners to use in upgrading and desulfurization Hydrogen ( H 2 )-based power generation offers an opportunity for carbon and clean energy credits CO 2 for use in Enhanced Oil Recovery Hundreds of billions of barrels of proven but currently stranded oil globally Uniquely positioned for rapid and scalable commercialization Significant IP portfolio and competitive technology advantage Strategy is to build, own and operate production facilities Partnering with energy and resource companies in China, N.A. and the Middle East 3

Prominent Existing Investors Industry Development partner & feedstock supplier Collaborated on pilot plant testing & strategic gas partner Development partner & investor in projects Development partner & preferred feedstock supplier Venture Capital & Private Equity 4

Key GPE Innovations Background Catalytic gasification first discovered in 1970 s by Exxon GPE has many of the key scientists and engineers from the early discovery as exclusive advisors DoE sponsored development to pilot scale until 1982; technology abandoned due to low gas prices GPE Rediscovered technology in 2003 Key innovations vs. Exxon Increased catalyst system activity and improved catalyst recovery Application to petcoke and biomass Near-zero CO 2 footprint; reduced capex and increased efficiency Extension to hydrogen and power production Next generation design with even lower capex, higher efficiency and increased catalyst recovery 5

The bluegas Advantage GreatPoint Energy Process Feedstock, oxygen and steam mix in the presence of the hydromethanation catalyst and react to form a methanerich gas stream Sulfur, nitrogen, mineral matter and trace metals are all safely removed using commercial processes CO 2 capture for EOR is innate to the process 62 patents issued or pending strong intellectual property position CH 4 & H 2 Key Advantages vs. Conventional Gasification Better product: Produces large quantities of valuable CH 4 in the reactor vs CO More high quality gas produced: Thermally balanced and ~25-40% more Btu s of gas per Btu of feed Higher reliability and lower maintenance costs: Lower temperature (600 700 C), milder operating conditions, and far higher reliability Lower capital costs: Smaller equipment and less expensive materials Lower cost of products including H 2, SNG, and CO 2 (for EOR): 25-40% lower cost production One Catalyst Three Reactions Steam/Carbon : C + H 2 O CO + H 2 Water Gas Shift: CO + H 2 O H 2 + CO 2 Methanation: CO + 3 H 2 CH 4 (Methane) + H 2 O Overall: 2C + 2H 2 O CH 4 + CO 2 6

Laboratory Confirmation: the Chemistry Works! Test Data for Petroleum Coke and Coal Conversion High carbon conversions on PRB and petroleum coke with blu-100 Series Catalyst 100 80 90% Carbon Conversion Catalyzed Petroleum Coke Catalyzed PRB CARBON CONVERSION, % 60 40 20 no catalyst Raw Petroleum Coke 0 0 60 120 180 240 300 360 420 TIME, min 7

bluegas Significantly Reduces CO 2 Emissions GreatPoint Energy combines the minimal carbon footprint of coal production with the lower carbon emissions of natural gas combustion to produce the cleanest commercial fuel Pre-Combustion Emissions Post-Combustion Emissions lb/mwh 450 400 350 300 250 200 150 Liquefaction, Transportation, and Regasification CO2 from Production and Distribution Methane from Production and Distribution Coal Surface Mining lb/mwh 2,000 1,800 1,600 1,400 1,200 1,000 800 600 100 400 50 200 0 Liquefied Natural Gas Natural gas Coal 0 Coal Natural Gas Source: NREL, NETL, DOE Pre-Combustion Advantage: CO 2 -equivalent emissions from natural gas supply chain are ~25% of total emissions, Des compared Plaines, to IL 6% for coal Methane leakage has a global warming potential 21x that of CO 2, creating significant impact from natural gas production and transportation The global incremental supply of natural gas via LNG has added emissions for liquefaction, tanker transport and regasification Post-Combustion Advantage: CO 2 -equivalent emissions from natural gas combustion are 60% less than those from coal-fired emissions 8

Technology Validated at Pilot Scale Leased facility at Gas Technology Institute Stable, reliable operation meeting all performance objectives 1,200 hours of online operations 17 stable, steady state yield periods Start-up and shutdown managed successfully Gasification reactor performed as predicted with both PRB coal and petcoke Des Plaines, IL Catalyst added, removed and recovered successfully, as predicted; pilot plant at SGS processed more than 250 tons of coal & petcoke Validation by investors and partners 9

Technology Validation at Mayflower Clean Energy Center Mayflower Clean Energy Center Somerset, MA Demonstration plant for feedstock optimization Successful runs on Alberta petcoke, Gulf Coast petcoke, and PRB coal ~1,000 hrs of online operations Up to 150 lb/hr Capable of processing coal, biomass, petcoke, asphaltenes, etc. Mayflower Clean Energy Center 10

Core Technology Process Facilities Gasification: Steam, O 2, CO & H 2 Supply & Preheat Solids Feed Solids Discharge Gas Discharge Flare Coal/Coke Preparation Receive, Store & Reclaim Crush/Grind/Size Catalyst Load, Dry, Store Catalyst Recovery and Re-use Water Management 11

Evolution of Technology Bluegas Original Version Bluegas Current Version Bluegas Version 3 Description HMR with syngas recycle through cryo unit HMR with syngas recycle through gas POX HMR with in-situ syngas generation through DO-IT Per SNG Produced Lower Capex Self sufficient in steam Lower Capex Lower catalyst loading Lower catalyst OPEX Simplified operation Thermal Efficiency 60%-70% 70%-80% CO 2 Status CO 2 Footprint unacceptable Initial testing complete >90% CO 2 capture >90% CO 2 capture Conceptual design; moving to Version 3.0 PRB Coal testing at EERC 12

University of Wyoming Clean Coal Technologies Research Program GreatPoint is currently performing research and development of its next generation Direct Oxygen Injection Technology ( DO-IT ) based hydromethanation process DO-IT has been designed based on improving operability and economics for the PRB based hydromethanation process Research will include catalyst performance, pilot scale continuous fluidized bed and pilot scale testing, commercial performance modeling and economic assessment Project status to date: A bench scale fluidized bed test was developed to simulate the hydromethanation reactor (HMR) after the injection of oxygen Several bench scale fluidized bed and fixed bed tests were conducted with catalyzed PRB coal to study the impact of CO and CO 2 generated from oxygen injection at the bottom of the reactor in the DO-IT process Preliminary test runs were completed at EERC in the 3 diameter continuous fluidized bed reactor to confirm that we can run the DO-IT tests in the test facility. A test plan is being developed to conduct continuous fluidized bed tests at EERC with catalyzed PRB to validate the mathematical model developed GreatPoint Energy Differential Bed and Mini Bench Unit 13

Strong IP Position and Strategy Intellectual Property GPE owns its bluegas TM technology. External relationships require GPE ownership/rights of use to improvements and other modifications of the bluegas TM technology. Active invention disclosure and patent filing program. Strong IP protection with 62 patent application families filed to date (60 active), and 42 published to date (40 active). Global filing as appropriate: U.S., China, India, Canada, S. Korea, Japan, Australia and others considered. Active Freedom to Operate screening program. Trademark applications filed for several marks. IP Subject Matter Areas ( 60 Active) Patent Activity Number of Filings Integrated Process (31) 2005 2 Byproduct Use (2) 2006 1 Feedstock and Catalyst (17) 2007 15 Gas Processing (4) 2008 27 Other (6) 2009 13 2010 4 As of 6/11/10 Total Patent Families 62 Active Patent Families 60 14

Development Plan for Commercialization Full Commercial Scale 2 or 4 x 22 ft diameter First Commercial Plant 22 ft diameter Demonstration Plant 7-10 ft diam Pilot Plant GTI Commercial Height Fuel Test Facility Mayflower 15

Key Market Opportunities Substitute Natural Gas Low-Cost Feedstocks NATURAL GAS PIPELINE >$1 Trillion global; $250 billion U.S. market Long term price expectation $6-8/MMBtu in U.S.; $10-12/MMBtu (oil-parity) in int l markets LOW EMISSIONS POWER Bluegas independently verified as the lowest cost new source of U.S. natural gas by Nexant COAL Hydrogen $40B global market PETCOKE & REFINERY RESIDUES HYDROMETHANATION REACTOR LOW EMISSIONS POWER REFINING USE / AMMONIA PRODUCTION 10% annual growth, reaching 20% by 2020 Sells for 1.2 1.8x natural gas Refinery use to upgrade heavy/sour crudes Key input to ammonia/fertilizer production Feed to combined cycle turbine for clean power Source: EIA BIOMASS ENHANCED OIL PRODUCTION CO 2 for EOR Global EOR potential ~750 billion bbls Growing domestically (2.2MM bbls/d) High attractive economics Supply of CO 2 is limiting factor 16

Enormous Coal-to-Gas Conversion Market 571 492 238 14 85 58 Canada 134 115 80 China US 129 57 38 India Potential Bluegas Opportunity (TCF) Total Projected Gas Consumption 2010-2030 (TCF) Conventional Gas Reserves (TCF) 82 33 30 Australia Notes: Assumes 15% of coal reserves are converted to natural gas using GPE technology Source for consumption and reserve data: EIA 17

Attractive Global Opportunities in Development ALBERTA Alberta petcoke is negative value byproduct Substantial CO 2 EOR requirements High natural gas demand in oil sands CALIFORNIA Existing EOR Low carbon power market Petcoke feed available POWDER RIVER / ILLINOIS BASINS Power or pipeline gas markets Underutilized low-cost coal resources EOR opportunities for multiple field tie-ins U.S. GULF COAST Substantial EOR opportunities Blugas site opportunities for CH 4, H 2 and CO 2 production Petcoke feedstock available MIDDLE EAST Burgeoning EOR market with vast potential Strong power demand, gas constraints and need to displace oil in the power sector Surplus residue feedstocks / petcoke available CHINA Strong natural gas demand growth Enormous coal resources Environmental imperative Emerging EOR opportunity 18

Summary Proven Technology: Efficient, reliable process ready for commercial deployment Lowest Cost of Production: Superior economics to conventional hydrogen and natural gas production with a solid feedstock that mitigates pricing volatility Substantial Market Opportunity: Feedstock flexibility and location independence allow for feedstock and end-use market optimization Enormous EOR Potential: >700 billion barrels of stranded oil globally Superior Environmental Profile: Integrated CO 2 capture produces near zero emissions Clear Commercialization Path: Developing first commercial project with planned production in 2013; site opportunities in China, North America, and Middle East Substantial Valuation Upside: Exploits the Btu valuation gap between coal and gas Superior Executive Management, Technical Team and Investors: Attracted top tier talent from energy industry and leading financial/strategic investors 19

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