Title: International Hydrogen Day Berlin, February 24th 2005
1International Hydrogen DayBerlin, February 24th
2005
- Sustainable Mobility and Hydrogen
- Hans Larsen, Head of Department
- Chairman, Management and Policy Committee
- UNEP Risoe Centre on Energy, Climate and
Sustainable Development
2International Hydrogen DayBerlin, February 24th
2005
- Sustainable Mobility and Hydrogen
- In a world facing growing environmental problems
and diminishing oil reserves, hydrogen is one of
the most likely long-term options, especially for
transportation - Klaus Toepfer
3Why Hydrogen?
- Opportunity for a sustainable energy system
- Security of supply
- Climate change
- Alternative fuel for the transport sector
- New link between transport and other parts of the
energy sector
4Hydrogen is valuable today
- Energy carrier not energy source
- Manufactured on the basis of natural gas
- Utilized in refineries and chemical industry
- The hydrogen economy is technically feasible
the decisive factor is cost
5BMW H2 ICE car in the Munich Airport
Spacecraft have long been fuelled by hydrogen
The demonstration project ECTOS/CUTE Clean
Urban Transport for Europe
The Utsira Hydrogen-Wind demonstration project
Hydrogen FC bus in Reykjavik
6Rapidly growing interest in the hydrogen economy
- Full speed ahead in EU, USA and Japan
- Need for cooperation between research
institutions and business - Need for political support
- What about Developing Countries?
7Significant growth in number of projects
- Bushs Freedom car initiative announced in
February 2002 - The European hydrogen vision report presented in
Brussels in June 2003 - The International Partnership for the Hydrogen
Economy founded in November 2003
- The Quick-start hydrogen programmes of the EU
Growth Initiative announced in November 2003 - The European Platform for Hydrogen and Fuel Cell
Technologies launched in January 2004
8Hydrogen could be the missing link
- Hydrogen could link the power system to the
transport sector, increasing the flexibility and
robustness of the total energy system - The choice of hydrogen production technology and
energy source determines the sustainability of
the hydrogen economy
9Driving forces
- Increased use of renewable energy in the
transport sector - Use in the transport sector can reduce local and
global pollution - The robustness and flexibility of the energy
system will be increased
10Driving forces
- The development of fuel cells and a hydrogen
economy will provide new market opportunities - Fuel cells for battery replacement and backup
power systems are niche markets in which price
and efficiency are relatively unimportant
11Barriers
- Technological breakthroughs are necessary
- Not yet a competitive and cost-effective
technology
12Barriers
- Need for
- Competitive and economic production of hydrogen
- Better storage methods
- Lower prices for fuel cells
- Infrastructure for the transport sector
13Environment
- Present knowledge indicates that hydrogen as an
energy carrier will involve little environmental
risk - Atmospheric hydrogen concentrations should be
carefully monitored
14Environment
- Research should be carried out to obtain a better
understanding of hydrogen sources and sinks ... - and to provide an early warning system in case we
have overlooked something
15Safety
- Hydrogen is no more hazardous than conventional
fuels, as long as the proper technical standards
and safety rules are used - The international discussions now taking place
will help to ensure adequate safety in the new
hydrogen technologies
16Safety
- Safety should be an integral part of hydrogen
technology common standards will help the growth
of the hydrogen economy - If these recommendations are followed there is no
reason to believe that hydrogen will be riskier
than conventional fuels
17Conclusions
- Long-term challenges such as climate change and
security of energy supply require long-term
solutions - A combination of fuel cells, which will reach
commercial maturity in 10-20 years, and a
hydrogen infrastructure could be a way forward if
the technological barriers can be overcome
18Conclusions
- The most pressing technical issue is to develop
better storage systems for hydrogen, especially
in the transport sector - In the long term, hydrogen could be a key element
in highly diversified, robust, environmentally-ben
ign and affordable energy systems
19Recommendations triple helix
Society
Research programmes Lighthouse projects Regulation
Market incentives
Research on selected techno-logy
platforms Demonstration projects Europe-wide
projects Development of international standards
and regulations
Hydrogen Technology Platform
Focused RD push Development projects Prototypes C
ommercial introduction
Business
Research
20Recommendations
- Involvement of developing countries to ensure
adequate system design and reduce time lag for
technological penetration and market development - Involve policy makers in developing countries in
decisions concerning hydrogen economy - Providing high quality information
21Recommendations
- More research in
- Hydrogen production by environment-friendly
technologies - Fuel cells and electrolysers as key technologies
for balancing electricity grids in conjunction
with hydrogen storage and distribution systems - The environmental effects of hydrogen
22Recommendations
- Storage of hydrogen for use in vehicles, power
plants and electronics, including portable
applications - Infrastructure development, especially in the
transport sector - International standards and regulations
23Hydrogen a challenge and an opportunity for the
future
- The aims of the conference
- to highlight international government commitment
to hydrogen RD to ensure energy diversity and
environmental improvements in road transport
use - to highlight and stimulate public-private
partnership in the field of hydrogen technology
RD - to provide new figures on the economic realities
of building a hydrogen infrastructure - benchmarking current state of play regarding
feasibility of hydrogen commercialisation