Abstract
Detailed calculations of the power system in Scandinavia and Germany in 2020 are made, including the countries' known and specific plans for CO{sub 2} reduction and increased use of renewable energy. The calculations analyzed three scenarios for how increased electric power consumption pulls investments in the power sector by 2020. It is shown that only if the countries through grants schemes and other incentives directly link increased consumption of electricity for electric vehicles with greater demands for investments in renewable energy, the CO{sub 2} emissions from electric vehicles will decrease significantly. Such a direct linkage is assessed not to become the case with the existing frame-work and objectives of the EU countries and Norway. The average of the more detailed calculations show a CO{sub 2} emission from electric cars in 2020 of just 650 g CO{sub 2}/kWh (excluding upstream emissions), which is about 10% lower than previously estimated. Towards 2020 increased efficiency of conventional cars (diesel) will probably be a cheaper way to achieve CO{sub 2} reductions in the transport sector than through an expansion with a larger number of electric cars. If oil prices rise to around $ 150/barrel or more, while the price of batteries for electric vehicles
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Citation Formats
None.
CO{sub 2} emissions from future cars in the Nordic countries - including analysis of the effect on the power system of 500.000 electric cars in the Nordic countries; CO{sub 2} udledning fra fremtidens personbiler i Norden - med delanalyse af betydningen for el-systemet af 500.000 el-biler i Norden.
Denmark: N. p.,
2011.
Web.
None.
CO{sub 2} emissions from future cars in the Nordic countries - including analysis of the effect on the power system of 500.000 electric cars in the Nordic countries; CO{sub 2} udledning fra fremtidens personbiler i Norden - med delanalyse af betydningen for el-systemet af 500.000 el-biler i Norden.
Denmark.
None.
2011.
"CO{sub 2} emissions from future cars in the Nordic countries - including analysis of the effect on the power system of 500.000 electric cars in the Nordic countries; CO{sub 2} udledning fra fremtidens personbiler i Norden - med delanalyse af betydningen for el-systemet af 500.000 el-biler i Norden."
Denmark.
@misc{etde_1011556,
title = {CO{sub 2} emissions from future cars in the Nordic countries - including analysis of the effect on the power system of 500.000 electric cars in the Nordic countries; CO{sub 2} udledning fra fremtidens personbiler i Norden - med delanalyse af betydningen for el-systemet af 500.000 el-biler i Norden}
author = {None}
abstractNote = {Detailed calculations of the power system in Scandinavia and Germany in 2020 are made, including the countries' known and specific plans for CO{sub 2} reduction and increased use of renewable energy. The calculations analyzed three scenarios for how increased electric power consumption pulls investments in the power sector by 2020. It is shown that only if the countries through grants schemes and other incentives directly link increased consumption of electricity for electric vehicles with greater demands for investments in renewable energy, the CO{sub 2} emissions from electric vehicles will decrease significantly. Such a direct linkage is assessed not to become the case with the existing frame-work and objectives of the EU countries and Norway. The average of the more detailed calculations show a CO{sub 2} emission from electric cars in 2020 of just 650 g CO{sub 2}/kWh (excluding upstream emissions), which is about 10% lower than previously estimated. Towards 2020 increased efficiency of conventional cars (diesel) will probably be a cheaper way to achieve CO{sub 2} reductions in the transport sector than through an expansion with a larger number of electric cars. If oil prices rise to around $ 150/barrel or more, while the price of batteries for electric vehicles drops significantly in the period, this will result, however, is challenged. The same costs are assumed for development and production of diesel and electric cars. For electric cars there will be additional costs for batteries and charging infrastructure. The on manufacturers' pricing strategies for different types of cars have not been considered. The report demonstrates that it will very likely be more expensive to reduce CO{sub 2} emissions from transport compared with, for example the costs in electric power and heat producing sectors that are subject to EU quota system. It can therefore be considered whether a larger part of the EU's reduction goals in the next 10-20 years should be transferred to the quota sector, if the goal is cost-effective CO{sub 2} reductions. Ambitious CO{sub 2} reduction targets for passenger cars in the long term appear to be achieved either by using different types of electric vehicles or through substantial increase in the use of biofuels. (ln)}
place = {Denmark}
year = {2011}
month = {Jan}
}
title = {CO{sub 2} emissions from future cars in the Nordic countries - including analysis of the effect on the power system of 500.000 electric cars in the Nordic countries; CO{sub 2} udledning fra fremtidens personbiler i Norden - med delanalyse af betydningen for el-systemet af 500.000 el-biler i Norden}
author = {None}
abstractNote = {Detailed calculations of the power system in Scandinavia and Germany in 2020 are made, including the countries' known and specific plans for CO{sub 2} reduction and increased use of renewable energy. The calculations analyzed three scenarios for how increased electric power consumption pulls investments in the power sector by 2020. It is shown that only if the countries through grants schemes and other incentives directly link increased consumption of electricity for electric vehicles with greater demands for investments in renewable energy, the CO{sub 2} emissions from electric vehicles will decrease significantly. Such a direct linkage is assessed not to become the case with the existing frame-work and objectives of the EU countries and Norway. The average of the more detailed calculations show a CO{sub 2} emission from electric cars in 2020 of just 650 g CO{sub 2}/kWh (excluding upstream emissions), which is about 10% lower than previously estimated. Towards 2020 increased efficiency of conventional cars (diesel) will probably be a cheaper way to achieve CO{sub 2} reductions in the transport sector than through an expansion with a larger number of electric cars. If oil prices rise to around $ 150/barrel or more, while the price of batteries for electric vehicles drops significantly in the period, this will result, however, is challenged. The same costs are assumed for development and production of diesel and electric cars. For electric cars there will be additional costs for batteries and charging infrastructure. The on manufacturers' pricing strategies for different types of cars have not been considered. The report demonstrates that it will very likely be more expensive to reduce CO{sub 2} emissions from transport compared with, for example the costs in electric power and heat producing sectors that are subject to EU quota system. It can therefore be considered whether a larger part of the EU's reduction goals in the next 10-20 years should be transferred to the quota sector, if the goal is cost-effective CO{sub 2} reductions. Ambitious CO{sub 2} reduction targets for passenger cars in the long term appear to be achieved either by using different types of electric vehicles or through substantial increase in the use of biofuels. (ln)}
place = {Denmark}
year = {2011}
month = {Jan}
}