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Copyright Canadian Hydrogen Energy Company 2006 All rights reserved Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

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Page 1: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

Copyright Canadian Hydrogen Energy Company 2006 All rights reservedCopyright Canadian Hydrogen Energy Company 2006 All rights reserved

The Bridge to the Hydrogen Future

May, 2006

Page 2: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

The HFI UnitThe HFI Unit

Fully Patented

ETV Certified

Hydrogen Market Leader

Installed on 150 fleets

6th Generation Product

Only hydrogen product with fuel saving guarantee

Works with any fuel type – gasoline, diesel, NG, propane

Page 3: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

The ProductThe Product

A high-performance, on-board hydrogen generator, the Hydrogen Fuel A high-performance, on-board hydrogen generator, the Hydrogen Fuel Injection (HFI) systems have been marketed for over eight years, with over Injection (HFI) systems have been marketed for over eight years, with over 60 60 millionmillion miles of applied use in the long-haul trucking market. The product miles of applied use in the long-haul trucking market. The product has undergone continuous innovation and development since the first has undergone continuous innovation and development since the first prototype was developed in 1983. The current model is the 5prototype was developed in 1983. The current model is the 5thth generation of generation of the product and incorporated a variety of improvements and innovations, the product and incorporated a variety of improvements and innovations, including moving to an all-digital format. including moving to an all-digital format.

Developed to meet two objectives – reduce fuel consumption and reduce Developed to meet two objectives – reduce fuel consumption and reduce emissions.emissions.

We believe that this is the only emissions reduction technology that also We believe that this is the only emissions reduction technology that also offers significant cost savings, in stark contrast to the price premium offers significant cost savings, in stark contrast to the price premium demanded of bio-fuels, hydrogen ICE or hydrogen fuel cell technologies.demanded of bio-fuels, hydrogen ICE or hydrogen fuel cell technologies.

With commercialization of fuel cells not likely in heavy duty transport With commercialization of fuel cells not likely in heavy duty transport applications for 10-20 years, HFI represents the most commercially viable applications for 10-20 years, HFI represents the most commercially viable application of hydrogen in that market today.application of hydrogen in that market today.

Two models are currently offered, one for engines <8 litres (LT model) and Two models are currently offered, one for engines <8 litres (LT model) and one for engines up to 15 litres (HT)one for engines up to 15 litres (HT)

Page 4: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

HOW IT WORKSHOW IT WORKS

• The unit draws power from the vehicle’s electrical system and splits distilled water into hydrogen and oxygen, The unit draws power from the vehicle’s electrical system and splits distilled water into hydrogen and oxygen, then vents those gases directly into the engine air intakethen vents those gases directly into the engine air intake

• Designed to work on any internal combustion engine using hydrocarbon fuelsDesigned to work on any internal combustion engine using hydrocarbon fuels

• Hydrogen burns 9 times faster than gasoline and 14 times faster than dieselHydrogen burns 9 times faster than gasoline and 14 times faster than diesel

• The high flame speed of the hydrogen causes the crank angle duration of combustion to be reduced by The high flame speed of the hydrogen causes the crank angle duration of combustion to be reduced by several degrees, resulting in a 3% increase in horsepower and torque and a more complete combustion of the several degrees, resulting in a 3% increase in horsepower and torque and a more complete combustion of the fuel.fuel.

• Only maintenance required is the addition of distilled water (2.5 litres every 75 hours of operation which equals Only maintenance required is the addition of distilled water (2.5 litres every 75 hours of operation which equals approximately 4,000 kms of driving.)approximately 4,000 kms of driving.)

• Operates in any climatic condition – tested and proven in all weather conditionsOperates in any climatic condition – tested and proven in all weather conditions

• Gases are not produced until the engine is running Gases are not produced until the engine is running

• Hydrogen is not stored under significant pressure, at any time, eliminating any safety concernsHydrogen is not stored under significant pressure, at any time, eliminating any safety concerns

• Use of the HFI will not void any engine warranty, plus each installation carries a $5 Million (Cdn) product liability insurance Use of the HFI will not void any engine warranty, plus each installation carries a $5 Million (Cdn) product liability insurance coveragecoverage

Page 5: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

VERIFICATIONVERIFICATION

The product has been subjected to numerous third party tests, including a The product has been subjected to numerous third party tests, including a variety of state/provincial emissions vehicle testing programs. In March variety of state/provincial emissions vehicle testing programs. In March 2004, a comprehensive 8-mode test was performed by California 2004, a comprehensive 8-mode test was performed by California Environmental Engineering (CEE) (a CARB certified and US EPA Environmental Engineering (CEE) (a CARB certified and US EPA recognized testing laboratory in Santa Ana, California). recognized testing laboratory in Santa Ana, California).

That test was the basis for HFI becoming one of the first emission control That test was the basis for HFI becoming one of the first emission control technologies (and the first hydrogen product) to receive Environmental technologies (and the first hydrogen product) to receive Environmental Technology Verification (ETV) – the highest environmental accreditation Technology Verification (ETV) – the highest environmental accreditation program approved by Environment Canadaprogram approved by Environment Canada

In addition, over 60 In addition, over 60 millionmillion miles of applied use has been recorded, using the miles of applied use has been recorded, using the electronic control modules (on-board computers) of the transport trucks on electronic control modules (on-board computers) of the transport trucks on which the HFI units have been installed. which the HFI units have been installed.

Recent Ontario Drive Clean tests* showed decreases in opacity ranging Recent Ontario Drive Clean tests* showed decreases in opacity ranging

from 38% to 92% from 38% to 92% immediatelyimmediately after the HFI system was installed on an after the HFI system was installed on an ambulance in the City of Hamilton, Ontario ambulance in the City of Hamilton, Ontario

Testing of a London taxi cab by the UK’s largest emissions testing facility, Testing of a London taxi cab by the UK’s largest emissions testing facility, the Millbrook Emissions Testing Laboratory, showed reductions in all the Millbrook Emissions Testing Laboratory, showed reductions in all noxious emissions (HC 53%, CO 47%, PM 47% and a 14% reduction in noxious emissions (HC 53%, CO 47%, PM 47% and a 14% reduction in NOx) within the first 30 days of installation. NOx) within the first 30 days of installation.

Page 6: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

THE BENEFITSTHE BENEFITSImproved fuel economyImproved fuel economy

• MinimumMinimum 10% improvement is guaranteed 10% improvement is guaranteed• Typical savings are much greater, and, depending on the age of the Typical savings are much greater, and, depending on the age of the

engine, with many engines showing 15 -20% improvement, or moreengine, with many engines showing 15 -20% improvement, or more

Increased horsepower and torqueIncreased horsepower and torque• Acting as an initiator, the heat given off from the combustion of the Acting as an initiator, the heat given off from the combustion of the

hydrogen ensures that a far greater percentage of the diesel combusts hydrogen ensures that a far greater percentage of the diesel combusts all at once, increasing the efficiency of the burn and the percentage of all at once, increasing the efficiency of the burn and the percentage of chemical energy converted to kinetic energy Typically, torque and chemical energy converted to kinetic energy Typically, torque and horsepower increase by 3% (5-15 HP)horsepower increase by 3% (5-15 HP)

Decreased maintenance expensesDecreased maintenance expenses• The more complete burn means less soot and ash, meaning longer oil The more complete burn means less soot and ash, meaning longer oil

change intervals, lower incidence of sticking valves, clogged injectors or change intervals, lower incidence of sticking valves, clogged injectors or other internal engine wearother internal engine wear

Reduced emissionsReduced emissions• Higher initial heat, and better distribution of that heat as a result of the Higher initial heat, and better distribution of that heat as a result of the

homogenous mixture of hydrogen in the fuel/air mix means significant homogenous mixture of hydrogen in the fuel/air mix means significant NOx reduction NOx reduction

• More complete combustion means fewer unburned gases, particularly More complete combustion means fewer unburned gases, particularly CO, PM and all HydrocarbonsCO, PM and all Hydrocarbons

• Reduction in SO2 and CO2 will be equivalent to % reduction in fuel useReduction in SO2 and CO2 will be equivalent to % reduction in fuel use

Page 7: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

THE MARKETTHE MARKET• Original market was long haul trucking – 800,000 trucks in Canada, 8 million Original market was long haul trucking – 800,000 trucks in Canada, 8 million

in the U.S. and literally millions more around the world. A national in the U.S. and literally millions more around the world. A national dealership network is in place across Canada and similar networks are dealership network is in place across Canada and similar networks are currently being developed in the U.S. and the U.K. currently being developed in the U.S. and the U.K.

• Due to increasing fuel prices and government demands to improve engine Due to increasing fuel prices and government demands to improve engine efficiency to reduce emissions, the profitability of the trucking industry and efficiency to reduce emissions, the profitability of the trucking industry and private and public transit systems have been seriously compromised over private and public transit systems have been seriously compromised over the past few years. With fuel representing 7 – 15% of total operating costs, the past few years. With fuel representing 7 – 15% of total operating costs, a 10% reduction in fuel costs means a 50 to 100% increase in trucking a 10% reduction in fuel costs means a 50 to 100% increase in trucking industry profits!industry profits!

• The HFI has an incredibly short payback period. In most transport The HFI has an incredibly short payback period. In most transport applications, it takes from nine to fifteen months to pay for the system. applications, it takes from nine to fifteen months to pay for the system.

• In the last few months, CHEC expanded the application of the HFI In the last few months, CHEC expanded the application of the HFI technology to include cars, light duty trucks, SUV’s, boats, motorhomes, technology to include cars, light duty trucks, SUV’s, boats, motorhomes, ambulances, municipal buses, diesel generators and natural gas boilersambulances, municipal buses, diesel generators and natural gas boilers

• Later this year, plans include further expansion to include locomotives and Later this year, plans include further expansion to include locomotives and steamships and, potentially, piston-powered aircraftsteamships and, potentially, piston-powered aircraft

• Recent studies have shown that ships and locomotives pose even greater Recent studies have shown that ships and locomotives pose even greater health threats than cars or trucks, making an even stronger case for health threats than cars or trucks, making an even stronger case for government emission reduction strategies for those sources.government emission reduction strategies for those sources.

Page 8: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

Examples of HFI InstallationsExamples of HFI Installations

Page 9: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

Future ExpansionFuture Expansion• Having inspired various competition in the long-haul transportation market, CHEC Having inspired various competition in the long-haul transportation market, CHEC

has formed a number of strategic alliances and filed patent applications to cover has formed a number of strategic alliances and filed patent applications to cover adaptations of the original technology to suit a broad range of engine applicationsadaptations of the original technology to suit a broad range of engine applications

• A recently announced distribution agreement with Royal Laser Corp., a large A recently announced distribution agreement with Royal Laser Corp., a large steel-fabrication company with strong ties into the OEM car and bus markets, will steel-fabrication company with strong ties into the OEM car and bus markets, will target the development of a smaller, car-oriented HFI model as well as further target the development of a smaller, car-oriented HFI model as well as further development on the HFI LT unit for engines up to 8L in size.development on the HFI LT unit for engines up to 8L in size.

• Working with engineers from BOC gases, CHEC has completed the first Working with engineers from BOC gases, CHEC has completed the first installation of units adapted to natural gas boilersinstallation of units adapted to natural gas boilers

• Working with Cummins Inc. at a project to reconfigure HFI units to supply Working with Cummins Inc. at a project to reconfigure HFI units to supply hydrogen to large stationary generators at a major hospital complex in Ontariohydrogen to large stationary generators at a major hospital complex in Ontario

• Developing a partnership with Campbell-Parnell, manufacturers of propane and Developing a partnership with Campbell-Parnell, manufacturers of propane and LNG injection products with existing relationships in RV and small bus marketsLNG injection products with existing relationships in RV and small bus markets

• Currently negotiating with one of the largest railroads in North America on the Currently negotiating with one of the largest railroads in North America on the initial installation of HFI on locomotivesinitial installation of HFI on locomotives

• Currently negotiating with the one of the largest cruise ship lines on the initial Currently negotiating with the one of the largest cruise ship lines on the initial installation of HFI on auxiliary power units on their shipsinstallation of HFI on auxiliary power units on their ships

Page 10: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

ABOUT CANADIAN HYDROGEN ENERGY COMPANYABOUT CANADIAN HYDROGEN ENERGY COMPANY

With an R&D facility and its main manufacturing centre in Bowmanville, With an R&D facility and its main manufacturing centre in Bowmanville, Ontario, CHEC is a world leader in the development of on-board hydrogen Ontario, CHEC is a world leader in the development of on-board hydrogen electrolysers. The company and its predecessors have been active in the electrolysers. The company and its predecessors have been active in the field since 1983 and the current family of HFI units was first introduced into field since 1983 and the current family of HFI units was first introduced into the long-haul trucking market over 8 years ago. The HFI units are currently the long-haul trucking market over 8 years ago. The HFI units are currently operating on over 150 fleets, in Canada and the U.S., and the applications operating on over 150 fleets, in Canada and the U.S., and the applications have expanded to include cars, light-duty trucks, SUV’s, motorhomes, have expanded to include cars, light-duty trucks, SUV’s, motorhomes, boats, ambulances, municipal buses and natural gas boilers. In the near boats, ambulances, municipal buses and natural gas boilers. In the near future, the company expects to have units installed on steamships and future, the company expects to have units installed on steamships and locomotives – two of the worst emission sources. The company has a locomotives – two of the worst emission sources. The company has a network of certified installation centers across Canada, the United States network of certified installation centers across Canada, the United States and Mexico. In late 2005, marketing commenced in Europe, Australia/NZ and Mexico. In late 2005, marketing commenced in Europe, Australia/NZ and the Caribbean. and the Caribbean.

For more information, please visit our website at For more information, please visit our website at www.chechfi.comwww.chechfi.com or or contact Steve Gilchrist at contact Steve Gilchrist at [email protected]@chechfi.com..

Canadian Hydrogen Energy CompanyCanadian Hydrogen Energy Company182 Wellington St. W., Suite 1,182 Wellington St. W., Suite 1,Bowmanville, ON, L1C 1W3 Bowmanville, ON, L1C 1W3 800-550-4066/905-697-7011 (ph)800-550-4066/905-697-7011 (ph)905-697-7018 (fax)905-697-7018 (fax) All rights reserved 2006All rights reserved 2006

Canadian Hydrogen Energy CompanyCanadian Hydrogen Energy Company

Page 11: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

Hydrogen Injection Technical Reference ListHydrogen Injection Technical Reference List Update Heavy-Duty Engine Emission Conversion Factors for Mobile6: Analysis of BSFCs and Calculation of Heavy-Duty Engine Update Heavy-Duty Engine Emission Conversion Factors for Mobile6: Analysis of BSFCs and Calculation of Heavy-Duty Engine

Emission Conversion Factors, United States Environmental Protection Agency, EPA420-P-98-015, May 1998Emission Conversion Factors, United States Environmental Protection Agency, EPA420-P-98-015, May 1998 Lax and Rucker, Medium and Heavy Duty Truck Fuel Economy and Consumption Trends, Society of Automotive Engineers, SAE Lax and Rucker, Medium and Heavy Duty Truck Fuel Economy and Consumption Trends, Society of Automotive Engineers, SAE

Technical Paper Series, Paper # 810023, February, 1981Technical Paper Series, Paper # 810023, February, 1981 Houseman and Cerini, Jet Propulsion Lab., California Institute of Technology, On-Board Hydrogen Generator for a Partial Houseman and Cerini, Jet Propulsion Lab., California Institute of Technology, On-Board Hydrogen Generator for a Partial

Hydrogen Injection Internal Combustion Engine, August 1974, SAE Paper # 740600Hydrogen Injection Internal Combustion Engine, August 1974, SAE Paper # 740600 Kong, Crane, Patel and Taylor, NOx Trap Regeneration with an On-Board Hydrogen Generation Device, March 2004, SAE Kong, Crane, Patel and Taylor, NOx Trap Regeneration with an On-Board Hydrogen Generation Device, March 2004, SAE

Technical Paper Series, Paper # 2004-01-0582Technical Paper Series, Paper # 2004-01-0582 Welch and Wallace, Ortech International and University of Toronto, Performance Characteristics of a Hydrogen-Fueled Diesel Welch and Wallace, Ortech International and University of Toronto, Performance Characteristics of a Hydrogen-Fueled Diesel

Engine with Ignition Assist , October 1990, SAE Technical Paper Series, Paper # 902070Engine with Ignition Assist , October 1990, SAE Technical Paper Series, Paper # 902070 Hoekstra, Van Blarigan and Mulligan, University of Central Florida, Sandia National Labs and Florida Solar Energy Center, NOx Hoekstra, Van Blarigan and Mulligan, University of Central Florida, Sandia National Labs and Florida Solar Energy Center, NOx

Emissions and Efficiency of Hydrogen, Natural Gas, and Hydrogen/Natural Gas Blended Fuels, , May 1996, SAE Technical Paper Emissions and Efficiency of Hydrogen, Natural Gas, and Hydrogen/Natural Gas Blended Fuels, , May 1996, SAE Technical Paper Series Paper # 961103Series Paper # 961103

Tunestal et al., Lund Institute of Technology and Swedish Gas Center, Hydrogen Addition For Improved Lean Burn Capability of Tunestal et al., Lund Institute of Technology and Swedish Gas Center, Hydrogen Addition For Improved Lean Burn Capability of Slow and Fast Burning Natural Gas Combustion Chambers, October 2002, SAE Technical Paper Series Paper # 2002-01-2686 Slow and Fast Burning Natural Gas Combustion Chambers, October 2002, SAE Technical Paper Series Paper # 2002-01-2686

Ochoa, Dwyer, Wallace and Brodrick, University of California at Davis, Emissions from Hydrogen Enriched CHG Production Ochoa, Dwyer, Wallace and Brodrick, University of California at Davis, Emissions from Hydrogen Enriched CHG Production Engines, October 2002, SAE Technical Paper Series Paper # 2002-01-2687 Engines, October 2002, SAE Technical Paper Series Paper # 2002-01-2687

Fontana, Galloni, Jannelli, and Minutillo, Department of Industrial Engineering, University of Cassino, Performance and Fuel Fontana, Galloni, Jannelli, and Minutillo, Department of Industrial Engineering, University of Cassino, Performance and Fuel Consumption Estimation of a Hydrogen Enriched Gasoline Engine at Part-Load Operation, July 2002, SAE Technical Paper Series Consumption Estimation of a Hydrogen Enriched Gasoline Engine at Part-Load Operation, July 2002, SAE Technical Paper Series Paper # 2002-01-2196 Paper # 2002-01-2196

Tully and Heywood, General Motors and Massachusetts Institute of Technology, Lean-Burn Characteristics of a Gasoline Engine Tully and Heywood, General Motors and Massachusetts Institute of Technology, Lean-Burn Characteristics of a Gasoline Engine Enriched with Hydrogen from a Plasmatron Fuel Reformer, , March 2003, SAE Technical Paper Series Paper # 2003-01-0630Enriched with Hydrogen from a Plasmatron Fuel Reformer, , March 2003, SAE Technical Paper Series Paper # 2003-01-0630

Natkin et al., Ford Motor Company and University of California-Riverside, Hydrogen IC Engine Boosting Performance and NOx Natkin et al., Ford Motor Company and University of California-Riverside, Hydrogen IC Engine Boosting Performance and NOx Study, SAE Technical Paper Series Paper # 2003-01-0631Study, SAE Technical Paper Series Paper # 2003-01-0631

Conte and Boulouchos, Swiss Federal Institute of Technology, Influence of Hydrogen-Rich-Gas Addition on Combustion, Pollutant Conte and Boulouchos, Swiss Federal Institute of Technology, Influence of Hydrogen-Rich-Gas Addition on Combustion, Pollutant Formation and Efficiency of an IC-SI Engine, March 2004 SAE Technical Paper Series, Paper # 2004-01-0972Formation and Efficiency of an IC-SI Engine, March 2004 SAE Technical Paper Series, Paper # 2004-01-0972

Allgeier et al., Robert Bosch Gmbh, Swiss Federal Institute of Technology and HTI Biel, Advanced Emission and Fuel Economy Allgeier et al., Robert Bosch Gmbh, Swiss Federal Institute of Technology and HTI Biel, Advanced Emission and Fuel Economy Concept Using Combined Injection of Gasoline and Hydrogen in SI-Engines, March 2004, SAE Technical Paper Series, Paper # Concept Using Combined Injection of Gasoline and Hydrogen in SI-Engines, March 2004, SAE Technical Paper Series, Paper # 2004-01-12702004-01-1270

Tomita, Kawahara, Piao, Fujita, and Hamamato; Hydrogen Combustion and Exhaust Emissions Ignited with Diesel Oil in a Dual Tomita, Kawahara, Piao, Fujita, and Hamamato; Hydrogen Combustion and Exhaust Emissions Ignited with Diesel Oil in a Dual Fuel Engine, September 2001, SAE Technical Paper Series Paper # 2001-01-3503Fuel Engine, September 2001, SAE Technical Paper Series Paper # 2001-01-3503

User’s Guide to Mobile6.1 and Mobile6.2, Mobile Source Emission Factor Model, United States Environmental Protection Agency, User’s Guide to Mobile6.1 and Mobile6.2, Mobile Source Emission Factor Model, United States Environmental Protection Agency, Air and Radiation Section, August 2003, EPA420-R-03-010Air and Radiation Section, August 2003, EPA420-R-03-010

Frequently Asked Questions to MOBILE6, United States Environmental Protection Agency, Assessment and Standards Division, Office of Frequently Asked Questions to MOBILE6, United States Environmental Protection Agency, Assessment and Standards Division, Office of Transportation and Air Quality, EPA420-B-013, November 2003Transportation and Air Quality, EPA420-B-013, November 2003

Page 12: Copyright Canadian Hydrogen Energy Company 2006 All rights reserved The Bridge to the Hydrogen Future May, 2006

Hydrogen Injection Technical List (cont’d)Hydrogen Injection Technical List (cont’d)

Kihara, Tsukamato, Matsumoto, Kon and Murase; Real-Time On-Board Measurement of Mass Emission of NOx, Fuel Kihara, Tsukamato, Matsumoto, Kon and Murase; Real-Time On-Board Measurement of Mass Emission of NOx, Fuel Consumption, Road Load, and Engine Output for Diesel Engines, March 2000, SAE Technical Paper Series Paper # 2000-01-Consumption, Road Load, and Engine Output for Diesel Engines, March 2000, SAE Technical Paper Series Paper # 2000-01-11411141

Lenz and Cozzarini; Emissions and Air Quality, Society of Automotive Engineers, 1999, ISBN 0-7680-0248-6, pages 32-33Lenz and Cozzarini; Emissions and Air Quality, Society of Automotive Engineers, 1999, ISBN 0-7680-0248-6, pages 32-33 Taylor and Gagnon, Environment Canada’s Proposed Plan for the Canadian Conversion of MOBILE6.2, Environment Canada, Taylor and Gagnon, Environment Canada’s Proposed Plan for the Canadian Conversion of MOBILE6.2, Environment Canada,

Pollution Data Branch and Transportation Systems Branch, July, 2003Pollution Data Branch and Transportation Systems Branch, July, 2003 Kreucher, Ford Motor Co., Economic, Environmental and Energy Life-Cycle Inventory of Automotive Fuels, SAE Technical Paper Kreucher, Ford Motor Co., Economic, Environmental and Energy Life-Cycle Inventory of Automotive Fuels, SAE Technical Paper

Series, December, 1998, Paper # 982218Series, December, 1998, Paper # 982218 He and Wang, Argonne National Laboratory, Contribution Feedstock and Fuel Transportation to Total Fuel-Cycle Energy Use and He and Wang, Argonne National Laboratory, Contribution Feedstock and Fuel Transportation to Total Fuel-Cycle Energy Use and

Emissions, October 2000, SAE Technical Paper Series, Paper # 2000-01-2976Emissions, October 2000, SAE Technical Paper Series, Paper # 2000-01-2976 Camobreco, Sheehan, Duffield and Graboski, Ecobalance, Inc., DOE National Renewable Energy Lab, USDA and Colorado Camobreco, Sheehan, Duffield and Graboski, Ecobalance, Inc., DOE National Renewable Energy Lab, USDA and Colorado

School of Mines, Understanding the Life-Cycle Costs and Envrionmental Porfile of Biodiesel and Petroleum Diesel Fuel, April School of Mines, Understanding the Life-Cycle Costs and Envrionmental Porfile of Biodiesel and Petroleum Diesel Fuel, April 2000, SAE Technical Paper Series, Paper # 2000-01-14872000, SAE Technical Paper Series, Paper # 2000-01-1487

Joshi, Lave, McLean and Lankey, Michigan State University, Carnegie Mellon University and US EPA, A Life Cycle Comparison Joshi, Lave, McLean and Lankey, Michigan State University, Carnegie Mellon University and US EPA, A Life Cycle Comparison of Alternative Transportation Fuels, April 2000, SAE Technical Paper Series, Paper # 2000-01-1516of Alternative Transportation Fuels, April 2000, SAE Technical Paper Series, Paper # 2000-01-1516

J.J.J. Louis, Shell Global Solutions, Well-to Wheel Energy Use and Greenhouse Gas Emissions for Various Vehicle J.J.J. Louis, Shell Global Solutions, Well-to Wheel Energy Use and Greenhouse Gas Emissions for Various Vehicle Technologies, March 2001, SAE Technical Paper Series, Paper # 2001-01-1343Technologies, March 2001, SAE Technical Paper Series, Paper # 2001-01-1343

Mobile Source Emission Reduction Credits, Air Resources Board, California Environmental Protection Agency, State of Mobile Source Emission Reduction Credits, Air Resources Board, California Environmental Protection Agency, State of California, Guidelines for the Generation and Use of Mobile Source Emission Reduction Credits, February, 1996 p.71California, Guidelines for the Generation and Use of Mobile Source Emission Reduction Credits, February, 1996 p.71

Mobile Source Emission Reduction Credits, Air Resources Board, California Environmental Protection Agency, State of Mobile Source Emission Reduction Credits, Air Resources Board, California Environmental Protection Agency, State of California, Guidelines for the Generation and Use of Mobile Source Emission Reduction Credits, February, 1996 p.77California, Guidelines for the Generation and Use of Mobile Source Emission Reduction Credits, February, 1996 p.77

Hsu, Practical Diesel-Engine Combustion Analysis, 2002 SAE International, SAE #R-327 ISBN: 0-7860-0914-6Hsu, Practical Diesel-Engine Combustion Analysis, 2002 SAE International, SAE #R-327 ISBN: 0-7860-0914-6 Fitch, Motor Truck Engineering Handbook, 4th edition, 1994 Society of Automotive Engineers, ISBN: 1-56091-378-9Fitch, Motor Truck Engineering Handbook, 4th edition, 1994 Society of Automotive Engineers, ISBN: 1-56091-378-9 Holt, Alternative Diesel Fuels, 2004 SAE International, ISBN: 0-7680-1331-3Holt, Alternative Diesel Fuels, 2004 SAE International, ISBN: 0-7680-1331-3 Ross, Internal Combustion Engine Kit with Electrolysis Cell, United States Patent and Trademark Office, Patent # 6,209,493 , Ross, Internal Combustion Engine Kit with Electrolysis Cell, United States Patent and Trademark Office, Patent # 6,209,493 ,

April 3, 2001April 3, 2001 Ross, Electrolysis Cell and Internal Combustion Engine Kit, , Canadian Intellectual Property Office, Patents # 2278917 & Ross, Electrolysis Cell and Internal Combustion Engine Kit, , Canadian Intellectual Property Office, Patents # 2278917 &

2349508, July 27, 1998 & June 4, 20012349508, July 27, 1998 & June 4, 2001 Schlapbach and Zuttel, Swiss Federal Laboratories for Materials Research and Testing, University of Fribourg, Transformation of Schlapbach and Zuttel, Swiss Federal Laboratories for Materials Research and Testing, University of Fribourg, Transformation of

Hydrogen into Clean Mobility Fuel Using Fuel Cells: the Storage Problem, submitted to Nature, May 29, 2001Hydrogen into Clean Mobility Fuel Using Fuel Cells: the Storage Problem, submitted to Nature, May 29, 2001 Holt, Alternative Diesel Fuels, 2004 SAE International, January 2004, ISBN: 0-7680-1331-3, page 180Holt, Alternative Diesel Fuels, 2004 SAE International, January 2004, ISBN: 0-7680-1331-3, page 180