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Historical build-up of the |
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Norway is the world’s third largest exporter of oil and number four in natural gas exports, which corresponds to roughly 15 times its total energy demand. However, from enjoying a plentiful hydro-electric paradigm throughout the last century, Norway all of a sudden became a net importer of electricity in the mid 1990-ies, much owing to a preservation act endorsed by three consecutive governments. Hence, a further harnessing of hydrometric areas in Norway has come to a still-stand. Over the latest years (2004-2006) the situation has worsen. And there are strong warnings of a severe supply crisis in the event of a dry year – especially in Mid-Norway. Although the power deficiency can be covered via import, there is a growing concern for:
In contrast to any comparable country fuel switching offers no relief to Norway in its commitment of limiting its GHG emissions at 1% above base case (1990). This owes to the high portion of hydroelectricity (99.4%), and because hydroelectricity is among the cleanest of all primary energies. Hence, in the stricter sense Norway is forced to generate additional electricity in systems that obviate GHG emissions, or alternatively to make use of the flexible Kyoto mechanisms (JI and CDM). This explains the profound call for CCS technologies in
Norway, which eventually has led Norwegian science and industry to the
forefront of this area: And, in 2005 - according to Tjernshaugen
(CICERO) Figure 1 – Norway accounted for as much as 18% of the
North-American and the pan-European governmental research expenditures
in CCS - next to the US (45%) and EU including its member states (25%),
and ahead of Canada (12%). |
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North American and European Governmental CCS R&D |
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