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EFFECTIVE USE OF HYDROGEN IN TRANSPORTATION

EFFECTIVE USE OF HYDROGEN IN TRANSPORTATION. Presentation to: INDIA ENERGY CONFERENCE New Delhi, India October, 2008 Frank Lynch Eden Hydrogen Littleton, Colorado, USA. http://spiff.rit.edu/classes/phys240/lectures/elements/elements.html. Hydrogen is the most abundant

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EFFECTIVE USE OF HYDROGEN IN TRANSPORTATION

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  1. EFFECTIVE USE OFHYDROGEN IN TRANSPORTATION Presentation to: INDIA ENERGY CONFERENCE New Delhi, India October, 2008 Frank Lynch Eden Hydrogen Littleton, Colorado, USA

  2. http://spiff.rit.edu/classes/phys240/lectures/elements/elements.htmlhttp://spiff.rit.edu/classes/phys240/lectures/elements/elements.html Hydrogen is the most abundant element in the universe (~90%).

  3. The Earth is a water planet. • 70% of Earth is covered by water. • 2/3 of H2O is H2. • Energy must separate H2O to Make H2. Photo courtesy of NASA

  4. Hydrogen, like electricity, carries energy but neither is a source of energy.

  5. Hydrogen Energy System Goal: Make Energy Use Part Of Earth’s Water Cycle

  6. Most hydrogen is made by steam-methane reformers and used on-site to make fertilizers, methanol and other chemicals. • Some of the largest reformers are used at oil refineries for processing petroleum. • So-called “merchant hydrogen” is produced at one location and is transported to an end-user by truck, rail or barge. • Most merchant hydrogen is liquefied at the plant and stored for filling -253ºC “cryo” tank trucks. 1 million m3/day Martinez, California, USA Photo Courtesy of Air Products

  7. Reformers may be scaled down for onsite production of hydrogen. Photo courtesy of Hyradix

  8. 13,000 Gallons -253°C Inside Liquid Hydrogen Tankers Distribute Most Merchant Hydrogen Photo Courtesy of Air Products

  9. Space Shuttle Hydrogen & Oxygen Tanks Feed the Fuel Cells Photo Courtesy of Ball Aerospace

  10. Cryogenic storage “dewars”can be built at any scale. This 420-liter container was built for NASA by Eden Cryogenics. It is suitable for liquid nitrogen, liquid oxygen or liquid hydrogen. Photo courtesy of Eden Cryogenics

  11. One stage to orbit: It’s only conceivable with hydrogen. Photo Courtesy of US Air Force

  12. Hydrogen is special stuff! • Simple displacement of petroleum with H2 is not economically possible today. • Hydrogen must deliver a premium value to justify its premium price. • Fuel cells deliver premium value with zero emissions and high efficiency. • Hythane delivers premium value with low emissions and high efficiency.

  13. Hythane®* prototype 1990 Hythane is H2 in natural gas. *Hythane is a Registered Trademark of Eden Hydrogen

  14. Forms of “Leverage” (premium value) • Emissions Leverage: emissions reductions exceed the H2 energy in Hythane. • Efficiency Leverage: efficiency increases exceed the H2 energy in Hythane. • Economic Leverage: Co-product streams have high value (e.g., Cl2, C nanotubes).

  15. Transmission electron microscope images of carbon nanotubes H2 and C nanotubes are co-products of a process under development by U. Queensland for Eden Hydrogen. CO2 emissions are zero for this process. The high value of C nanotubes and C credits makes H2 cost-competitive. Structure of one type of nanotube Photos courtesy of U. Queensland and Wikipedia

  16. The 787 “is an airframe comprising nearly half carbon fiber reinforced plastic and other composites…weight savings on average of 20 percent…” Photo and quote from Boeing website

  17. This remains the long term goal. We must use H2 wisely to get started now.

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