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Fuel cycle CO2-e targets of renewable hydrogen as a realistic transportation fuel in Australia

journal contribution
posted on 2024-11-01, 13:19 authored by Albert Parker
The claim of catastrophic man made climate change or global warming through anthropogenic CO2 has presently focused the interest on the tailpipe emissions of CO2 per km, with recent legislations obsessively targeting these emissions of CO2 with defectively implemented procedures. With a variety of different propulsion solutions (electric, hybrid electric, hybrid mechanic, conventional) and different fuels (Diesel, Petrol, alternative fossil, alternative renewable) available in the near future, a more comprehensive approach based on the full fuel cycle, and eventually also the full life cycle of the vehicle appear to be necessary. The paper is a contribution to trigger further improvement to currently implemented procedures. The paper discusses the CO2 emission data in the present form, some simple but effective measures to improve the accuracy of the data collection procedure, and propose results of fuel cycle CO2-e analysis of vehicles with electric and thermal engines having different fuels. Vehicles with advanced internal combustion engines and power trains fuelled with Diesel may reach CO2-e values of 100 g/km in Australia. Use of bio-ethanol in these vehicles may deliver in Australia a significant reduction of CO2-e emissions to values below 36 g/km. Emission factors for Victoria are presently 1.23 kg CO2-e/kWh for the purchased electricity and vehicles powered by electric motors will need a significant reduction of this indirect CO2-e emission to become competitive. Values below 0.5 kg CO2-e/kWh are needed to make electric cars competitive with Diesel cars while values below 0.1 kg CO2-e/kWh are needed to make electric cars competitive with bio-ethanol cars.

History

Related Materials

  1. 1.
    DOI - Is published in 10.1016/j.ijhydene.2010.12.071
  2. 2.
    ISSN - Is published in 03603199

Journal

International Journal of Hydrogen Energy

Volume

36

Issue

5

Start page

3290

End page

3301

Total pages

12

Publisher

Elsevier

Place published

London, United Kingdom

Language

English

Copyright

© 2011, Hydrogen Energy Publications, LLC. Published by Elsevier Ltd. All rights reserved.

Former Identifier

2006039290

Esploro creation date

2020-06-22

Fedora creation date

2015-01-19

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