19 November 1997
ENGLISH ONLY
UNITED NATIONS FRAMEWORK CONVENTION ON CLIMATE CHANGE
AD HOC GROUP ON THE BERLIN MANDATE
Eighth session, second part
Kyoto, 30 November 1997
Agenda item 3
FCCC/AGBM/1997/MISC.3
GE.97-
Paper No. Page
1. Bulgaria 3
(Submission dated 6 November 1997)
2. Canada 4
(Submission dated 12 November 1997)
3. Czech Republic 10
(Submission dated 6 November 1997)
4. Estonia 11
(Submission dated 17 November 1997)
5. Finland 12
(Submission dated 13 November 1997)
6. France 14
(Submission dated 7 November 1997)
7. Germany 15
(Submission dated 10 November 1997)
8. Iceland 18
(Submission dated 11 November 1997)
9. Italy 20
(Submission dated 12 November 1997)
10. Japan 22
(Submission dated 12 November 1997)
11. Norway 23
(Submission dated 11 November 1997)
12. Slovak Republic 25
(Submission dated 11 November 1997)
13. Spain 26
(Submission dated 7 November 1997)
14. Sweden 27
(Submission dated 6 November 1997)
Year |
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1990 |
1994 |
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GDP, mln $ |
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16662 |
9688 |
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Export, mln $ |
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6113 |
3935 |
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Population, inhabitants |
8669300 |
8427400 |
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Fossil fuel, 103 toe |
24850 |
17399 |
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Renewable En.(Incl.Hydro), 103 toe |
523 |
583 |
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Emission (Gg CO2 eq.) |
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CO2 |
84908 |
60385 |
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N2O |
9472 |
5664 |
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CH4 |
34765 |
20239 |
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HFGs , PFCs and SF6 |
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(a) CO2 eq. emission per capita, kg CO2 eq./capita |
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CO2 |
9794.1 |
7165.3 |
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N2O |
1092.6 |
672.1 |
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CH4 |
4010.1 |
2401.6 |
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(b) CO2 eq. emission per GDP, kg CO2 eq./1000$ |
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CO2 |
5095.9 |
3624.1 |
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N2O |
568.5 |
339.9 |
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CH4 |
2086.5 |
1214.7 |
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(c)GDP per capita, $/capita |
1922.0 |
1149.6 |
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(d)Average anual growth of GDP per capita, $/(capita year) |
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-193.09 |
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(e) * |
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(f)Average anual population growth, inhabitant/year for the period |
1990 -2010 |
-17400 |
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(g)Emission intensity of GDP, $/kg CO2 eq |
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CO2 |
0.20 |
0.16 |
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N2O |
1.76 |
1.71 |
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CH4 |
0.48 |
0.48 |
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(h)Emission intensity of export, $/kg CO2 eq. |
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CO2 |
0.07 |
0.07 |
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N2O |
0.65 |
0.69 |
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CH4 |
0.18 |
0.19 |
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(i)Fossil fuel intensity of exports, $/toe |
246.0 |
226.2 |
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(j)Share of renewable energy in energy supply,% |
1.77 |
2.62 |
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* ) There are no data for point (e) and for gases HFGs , PFCs and SF6 |
We are writing in response to the request, at the recently
completed Bonn negotiations, for Annex I parties to provide, to the
AGBM Secretariat, information on relevant indicators of their
national circumstances as outlined in Annex C of the draft
negotiating text on QUELROs (FCCC/AGBM/1997/CRP.3, dated 31 October
1997). The attachment to this letter provides tables containing the
information, for Canada. We were able to compile the data for all
indicators except for that described under item (e).
Canada supports differentiation in principle as one means to take
into account countries' national circumstances. For Canada, these
national circumstances are best represented by four elements - our
expected population growth, the emissions intensity of our exports,
the contribution of fossil fuel to our exports, and the role of
renewables in our energy supply. The rationale for selecting these
indicators is discussed below.
Canada's population is expected to grow at double the rate for Annex I parties as a group. Our population growth is among the highest for the industrialized countries, outpaced only by
Australia. It is important to note that much of this growth stems
from immigration.
With respect to the emissions intensity of our exports, we
recognize the difficulty of measuring the carbon embodied in a
country's exports. As a proxy for this measure, we have used the
ratio of exports by energy intensive industries to total exports. The
high emissions intensity of Canada's exports clearly suggests that
the competitiveness of our economy will be more adversely affected
than that of parties whose exports are less carbon intensive. The
emissions intensity of exports is a particularly important criterion
in a world in which all parties are not subject to carbon
constraints.
By value, fossil fuels represent about 10 percent of Canada's
exports, compared to the average for industrialized countries of 3
percent. This implies a relatively higher burden for Canada as a
result of an Annex I wide carbon reduction scenario. A reduction in
fossil fuel use by Annex I countries may mean lower returns to
Canada's oil, natural gas and coal industries, with resulting
economic impacts on regions heavily dependent upon those
industries.
With its abundant hydropower resources and the use of biomass, the
proportion of renewables in Canada's total energy supply is far
higher than that for most Annex II parties. But this factor implies
that Canada has, relative to other countries, less potential to
expand its use of renewables.
You will note that we have not included emissions intensity,
defined in either per capita or per GDP terms, in the above list of
indicators defining Canada's national circumstances. Emissions
intensity is omitted for two reasons. First, the emissions intensity
of a country and the national circumstances which give rise to it,
are already included in the historical data and in the business as
usual projections. In developing policies to constrain emissions, the
issue is not so much the level of emissions intensity, but rather the
rate of reduction which can be achieved and the relative cost of
doing so.
Second, the interpretation of carbon intensity is ambiguous. Does
a high carbon intensity reflect the economic, structural and other
factors of a country and suggest a greater than average difficulty in
reducing emissions? Or, does it imply that the country is not using
energy as efficiently as possible? There is, to our knowledge, no
transparent, readily available data which distinguish between these
two interpretations. Under these circumstances, we would recommend
that national targets not be linked to carbon intensity.
We hope the above discussion of Canada's national circumstances as
well as the attached supporting material are of assistance to the
Secretariat in your analysis of the differentiation
issue.
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Source: Natural Resources Canada, Canada's Energy Outlook:
1996-2020, April 1997
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Sources: Natural Resources Canada, Canada's Energy Outlook: 1996-2020, April 1997
Environment Canada
* Includes CF4, C2F6,
SF6
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Source: Natural Resources Canada, Canada's Energy Outlook: 1996-2020, April 1997
* Excludes Mexico, Turkey, Italy, Norway, Spain, and
Sweden
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Source: Natural Resources Canada, Canada's Energy Outlook: 1996-2020, April 1997
* Excludes Mexico, Turkey, Italy, Norway, Spain, and
Sweden
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Source: Natural Resources Canada, Canada's Energy Outlook: 1996-2020, April 1997
* Excludes Mexico, Turkey, Italy, Norway, Spain, and
Sweden
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Sources: Natural Resources Canada, Canada's Energy Outlook: 1996-2020, April 1997
* Environment Canada
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Source: Natural Resources Canada, Canada's Energy Outlook: 1996-2020, April 1997
* Emissions intensity is defined as the ratio of the value of exports by energy intensive industries to total exports. Energy intensive industries include pulp and paper, chemicals, iron and steel, non-metalic, non-ferrous, and oil, natural gas and coal production.
** Excludes Mexico and Turkey
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Sources: Natural Resources Canada, Canada's Energy Outlook: 1996-2020, April 1997
Informetrica Limited
* The share of the value of exports of oil, natural and coal relative to the value of total exports
** Excludes Mexico and Turkey
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Source: Natural Resources Canada, Canada's Energy Outlook: 1996-2020, April 1997
* Includes hydro, biomass, solar, wind and other renewables
** Excludes Mexico and Turkey
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GDP is given in purchasing power parity according to the
calculation of the Czech Statistical Office.
Sources: Czech Hydrometeorological Institute (emission inventory),
Czech Statistical Office (other data)
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Carbon dioxide equiva-lent emissions per capita (Gg/per capita) CO2 |
0,025 |
0,014 |
|
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CH4 |
0,0026 |
0,0013 |
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N2O |
0,00039 |
0,000234 |
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Carbon dioxide equiva-lent emissions per unit of GDP (US$) CO2 |
0,0053 |
0,0045 |
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CH4 |
0,00056 |
0,0004 |
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N2O |
0,00008 |
0,00007 |
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GDP/per capita (US$) |
4750 |
3225 |
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projected population growth (thousands) |
1575 |
1484 |
1454 |
1447 |
1440 |
Share of renewable energy in energy supply (wood + renewables) |
|
6.0% |
6.7% |
7.2% |
7.2% |
At the October AGBM 8 Meeting it was proposed that Annex I Parties
should send detailed information of the differentiation criteria
stated in Annex C of the consolidated negotiating text by the
Chairman. As differentiation becomes an option in later stage the
choice of criteria for implementation is naturally of crucial
importance. Up to now no thoroughgoing discussion of the factors in
Annex C has taken place. Moreover, we question how those factors
would be balanced or taken into account in the differentiation
process. At this stage there is no basis for dressing the factors in
Annex C in quantitative format.
Cost-effectiveness of the mitigation measures should be the main
argument for differentiation. The costs may vary considerably between
Parties. Annex C of the consolidated negotiating text by the Chairman
also contains factors which are related to the concept of ability to
pay the costs of measures.
It is quite obvious that climate change abatement costs differ
from country to country and are too difficult to estimate in
practice. Therefore a set of factors reflecting abatement costs could
be selected. We consider that those factors should measure the
intensity of use of policies which are commonly regarded as important
ones in climate change policy. The higher the use of measures the
higher the abatement costs would be. These factors might
include:
o Energy efficiency indicators (non-energy factors eliminated,
e.g. degree-day corrections) which would describe specific energy
consumption in different sectors. Low value of indicator shows the
results of energy conservation policies. Indicators should be as
disaggregated as possible and practicable because aggregated
indicators mainly reflect climatic conditions and the structure of
economy which has evolved during decades as a result of international
division of labour.
o Share of renewable or bioenergy in energy supply.
o Share of cogeneration in electricity production.
However, if aggregative indicators are regarded as simple and
practical ones, we prefer item (b) in Annex C. An alternative to that
could be greenhouse gas emission per final energy use. These
indicators may give some information of abatement possibilities and
costs. We do not for example regard items (a), (d) and (e) in Annex C
as informative or relevant factors in this respect.
Furthermore Finland considers that factors which take into account
the structure of industrial and energy production in exports should
be included in the list of factors. We therefore support items (h)
and (i) presented in Annex C of the draft negotiating
text.
In order to measure the ability to pay the abatement costs Finland
proposes to add the following indicators:
o Gross domestic product per capita measured in PPP.
o Unemployment rate.
FRANCE |
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Emissions (*) per capita (t eqCO2/cap) |
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Emissions (*) per GDP (t eqCO2/million FF) |
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GDP per capita (FF/cap) |
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Share of renewables in primary energy consumption (%) |
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(*) net emissions of CO2, CH4 and N2O aggregated using GWP 100
IPCC, 1995
Evolution for the 1995/2010 period:
- French population: + 0.42% / year
- French GDP: 2.3 to 2.6% / year
Basic data for Germany |
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CO2 (w.m.) in Gg 1) |
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CH4 (w.m.) in Gg 1) |
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N2O (w.m.) in Gg 1) |
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SF6 in Gg 1) |
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CF4 in Gg 1) |
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C2F6 in Gg 1) |
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HFC in Gg 1)4) |
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S all GHG/ CO2- Equivalents |
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Population in Mill. 1)2) |
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GDP in Bill. (109) US$ 3) |
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w.m. = with measures scenario |
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1) Second National Communication ( 1997 ) |
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2) World Population Prospects 1950-2050, UN 1996 |
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3) Statistical Yearbook 1996 |
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4) HFC equival. from research procekt ( Öko-Recherche) |
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Data requested in Annex C |
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1a) |
CO2-Equiv / cap in t/cap |
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1b) |
CO2-Equiv / GDP in t/1000 US$ |
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1c) |
GDP / cap in 1000 US$/cap |
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1d) |
not available |
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1e) |
not available |
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1f) |
Population in Mill |
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1g) |
see 1b) |
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1h) |
not available |
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1i) |
not available |
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1j) |
Share of renewable En. in % |
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GHG emissions and CO2 equivalents in Germany |
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in Gg |
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CO2 (w.m.) |
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1014155 |
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894500 |
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894000 |
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CH4 (w.m.) |
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119322 |
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100548 |
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81732 |
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N2O (w.m.) |
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70060 |
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65100 |
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50220 |
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SF6 |
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3895.7 |
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5998.9 |
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4971.2 |
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CF4 |
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2307.5 |
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1417.0 |
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689.0 |
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C2F6 |
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386.4 |
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248.4 |
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110.4 |
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HFC* |
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2340.0 |
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3200.0 |
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6880.0 |
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FC ** |
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8930 |
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10864 |
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12651 |
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all GHG/ CO2-Equiv. |
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1212477 |
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1071034 |
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1038603 |
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CO2 |
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867000 |
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854000 |
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847000 |
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CH4 (m.M.) |
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63084 |
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57939 |
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52605 |
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N2O (m.M.) |
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49290 |
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48670 |
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48360 |
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SF6 |
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4445.4 |
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5401.4 |
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6978.8 |
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CF4 |
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682.5 |
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682.5 |
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682.5 |
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C2F6 |
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101.2 |
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101.2 |
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101.2 |
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HFC* |
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13900.0 |
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17790.0 |
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17540.0 |
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FC |
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19129.1 |
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23975.1 |
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25302.5 |
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all GHG/ CO2-Equiv. |
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998503.1 |
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984584.1 |
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973267.5 |
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GWP used: |
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CO2 |
1 |
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* = HFC equival. from research project, Öko-Recherche ** = FC = Fluorinated Compounds (HFC + PFC + SF6 ) | ||||||
CH4 |
21 |
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N2O |
310 |
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SF6 |
23900 |
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CF4 |
6500 |
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C2F6 |
9200 |
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Total emissions of GHGs (CO2, CH4, N2O, PFC, HFC, SF6)
CO2 equivalent in 1000 tons:
1990 1995 2000 2005 2010 2020
2729.8 2640.1 3161.1 3292.4 3445.4 3675.0
Source: The Second Status Report for Iceland to the
UNFCCC.
Emission intensity of Gross Domestic
Product
1990 1995
GHG emissions 2729.8 2640.1
GDP in millions of USD 6,249 6,972
Emission intensity of exports, CO2, equivalent in 1000
tons*:
1990 1995
GHG emissions 1,472 1,440
Export of goods in millions of USD 1,304.6 1,642.3
*Includes only GHG emissions from industrial processing (excluding cement= ) and
the fishing sector (including fishmeal plants). Production in these secto= rs is
for exports only.
Source: The Second Status Report for Iceland to the
UNFCCC.
Fossil fuel intensity of exports
Iceland does not export any fossil fuels
Gross Domestic Product in millions of US dollars
1990 1995
6,249 6,972
Source: National Economic Institute
The growth of Gross Domestic Product
1990 1995 Total growth through 1990-1995=3.5%
1.2% 1.0%
Source: National Economic Institute
Population growth
1990 1995
0.9% 0.4%
Source: National Economic Institute and Statistics
Iceland
Population
1990 1995 2000 2005 2010 2020
254,788 267,380 279,908 289,423 297,593 311,862
Source: Statistics Iceland
Share of renewable energy in total primary energy
supply
1990 1995
63.9% 66.7%
Source: National Energy Authority
Effective emissions in a given time period, defined as the
increase in global mean surface temperature
Not available.
Basic indicators |
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1990 |
1995 |
2000 |
2010 | |
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population |
millions |
56,95 |
57,33 |
57,5 |
56,5 |
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GDP |
T lit '90 |
1311 |
1386 |
1530 |
1865 |
export of goods and services |
T lit '90 |
243 |
344 |
450 |
n.a. | |
|
TPER |
Mtep |
163,5 |
172,6 |
180 |
192 |
Energy CO2 emissions |
Gg |
401964 |
411793 |
421272 |
470969 | |
Total CO2 emissions (gross) |
Gg |
442518 |
449159 |
459038 |
509696 | |
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CH4 emissions |
CO2 eq. |
51952 |
52950 |
51848 |
55759 |
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N20 emissions |
CO2 eq. |
53870 |
50146 |
51499 |
53080 |
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1990 |
1995 |
2000 |
2010 |
Carbon dioxide equivalent emissions per capita |
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gross emissions, CO2 from energy only |
t/capita |
7,06 |
7,18 |
7,33 |
8,34 | |
gross emissions, total CO2 |
t/capita |
7,77 |
7,83 |
7,98 |
9,02 | |
gross emissions,CO2+CH4+N20, weighted with 100 years GWPs |
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Carbon dioxide equivalent emissions per unit of GDP |
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gross emissions, CO2 from energy only |
kg/10^6 lit |
0,307 |
0,297 |
0,275 |
0,253 | |
gross emissions, total CO2 |
kg/10^6 lit |
0,338 |
0,324 |
0,300 |
0,273 | |
gross emissions, CO2+CH4+N20, weighted with 100 years GWPs |
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Gross Domestic product per capita |
10^6 lit/cap |
23,02 |
24,18 |
26,61 |
33,01 | |
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1990 |
1995 |
2000 |
2010 | ||
Projected population growth from 1990 |
- |
0,7% |
1,0% |
-0.8% | ||
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Emission intensity of gross domestic product (protocol to be defined, data available above) |
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Emission intensity of exports total emissions/export value |
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kg/10^6 lit |
2,255 |
1,607 |
1,251 |
n.a | ||
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Fossil fuel intensity of exports fossil TPER/export value |
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tep/10^9 lit |
0,603 |
0,448 |
0,356 |
n.a. | ||
(conversion factors from national energy balance) |
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Share of renewable energy in energy supply |
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fraction of renewable energy of TPER |
% |
5,0% |
5,5% |
5,6% |
5,2% | |
(conversion factors from national energy balance) |
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The following are available data related to the differentiation
factors in Annex C of FCCC/AGBM/1997/CRP.3, which were requested by
the chairman of AGBM at the last AGBM meeting on 31 October
1997.
(a) CO2 equivalent emissions per capita
(CO2-t/capita)
1990 1994 2010
- CO2, CH4, N20 9.63 10.22 11.17
- All Gases 10.13 10.90 -
(b) CO2 equivalent emissions per unit of GDP
1990 1994 2010
- CO2, CH4, N20 2.73 2.80 2.18 (CO2-t/ million yen)
- All Gases 2.87 2.99 -
- CO2, CH4, N20 0.40 0.29 - (CO2-t/ thousand US$)
- All Gases 0.42 0.31 -
* Calculated using the IMF foreign exchange rates.
(c) GDP per capita (thousand yen)
1990 1995 2010
3,527 3,719 5,117
(d) Annual GDP growth per capita (%)
1.06 (90-95) 2.15 (95-2010)
(f) Annual projected population growth (%)
0.31 (90-95) 0.11 (95-2010)
(g) Emission intensity of GDP: same with (b)
(j) Share of renewable energy (%) 5 (1995)
(a) Carbon dioxide equivalent emissions per capita of the
greenhouse gases listed in Annex B:
Table 1 Emissions of greenhouse gases. Tonnes CO2-equivalents per capita
|
CO2 |
CH4 |
N2O |
SUM3 |
HFCs |
PFCs |
SF6 |
Total |
1990 |
8,4 |
2,1 |
1,1 |
11,6 |
0,0 |
0,6 |
0,5 |
12,7 |
1995 |
8,7 |
2,3 |
1,0 |
12,0 |
0,0 |
0,3 |
0,1 |
12,5 |
Sources: Norway's second national communication under the
Framework Convention on Climate Change and UN World Population
Prospects (The 1994 Revision, Medium variant)
(b) Carbon dioxide equivalent emissions per unit of gross
domestic product of the greenhouse gases listed in Annex
B:
Table 2 Emissions of greenhouse gases. Tonnes CO2-equivalents per unit of GDP in million US$ at current prices and current PPPs.
|
CO2 |
CH4 |
N2O |
SUM3 |
HFCs |
PFCs |
SF6 |
Total |
1990 |
478 |
123 |
65 |
666 |
0 |
34 |
30 |
728 |
1995 |
383 |
100 |
45 |
528 |
2 |
14 |
6 |
550 |
Sources: Norway's second national communication under the
Framework Convention on Climate Change and OECD National Accounts
(Edition 1997)
(c) Gross domestic product per
capita:
Table 3 GDP per capita at current prices and current PPPs. 1000 US dollars
1990 |
17,5 |
1995 |
22,8 |
Sources: OECD National Accounts (Edition 1997) and UN World
Population Prospects (The 1994 Revision, Medium variant)
(d) Gross domestic product per capita
growth
Table 4 GDP per capita at 1990 price levels. 1000 NOK
1990 |
170 |
1995 |
198 |
Average percentage growth per year 1990-1995 |
3,1 |
Sources: OECD National Accounts (Edition 1997) and UN World
Population Prospects (The 1994 Revision, Medium variant)
(f) Projected population growth
Table 5 Population. 1000 persons
1990 |
4241 |
1995 |
4337 |
2010 |
4556 |
Percentage growth 1990-1995 |
2,3 |
Percentage growth 1995-2010 |
7,4 |
Source: UN World Population Prospects (The 1994 Revision, Medium
variant)
(g) Emmission intensity of gross domestic
product
Cf. (b).
(j) Share of renewable energy in energy
supply
Table 6 Share of renewable energy. Percent of total primary energy supply1)
1990 |
51 |
1995 |
50 |
Source: Energy Balances of OECD Countries 1989-1990 and 1994-1995. IEA Statistics.
1) Renewable energy as share of TPES minus net import of
electricity.
(a) Carbon dioxide equivalent emissions per capita of the GHG
listed in Annex B:
14t/cap in 1990
(b) Carbon dioxide equivalent emissions per unit of GDP of the GHG
listed in Annex B:
8 t/1000 USD (GDP in current prices of 1990)
(c) GDP per capita:
2044 USD (in 1990 current prices)
(d) GDP per capita growth:
1990/91 decrease 14.6% (constant prices)
1990/93 decrease 25%
(f) Projected population growth:
0.46% in 1990, 0.16% in 1995, 0.0% in 2000
(j) Share of renewable energy in energy supply:
approx. 2% in 1990
1990
Carbon dioxide equivalent emissions of CO2,
CH4 and N2O: 301.4 Mton
Population: 38.9 million
GDP: 50, 145.2 billion pesetas
Emissions per capita: 7.75 ton
Emissions per million pesetas of GDP: 6
ton
GDP per capita: 1.3 million pesetas
Regarding the future evolution of these factors, we may be able to
provide more precise information at COP 3.
It has to be understood that the estimated emissions for 2000 (336,9 Mton) and 2010
(362 Mton) that can be found in the second national communication
are not projections of present conditions, but they incorporate the
required additional action that the international strategy and legal
obligations on climate change will impose.
At the last AGBM meeting chairman Mr Raoul Estrada proposed that Parties could submit data according to "Annex C" in draft negotiating text.
Enclose please find data for selected indicators from Sweden. This
is not intended to prejudge whether we will have a differentiated
approach or a flat rate approach. As an EU country, Sweden favours a
flat rate target for the year 2005 and 2010. After 2010 more
sophisticated methods to allocate reduction targets should be
implemented, eventually leading to convergence of emissions levels
based on appropriate indicators.
Indicator |
1990 |
1995 |
CO2 equivalent/capita EU-proposal1 (ton/cap) |
7,83 |
7,66 |
CO2 equivalent/capita US-proposal2 (ton/cap) |
2,31 |
2,53 |
CO2 equivalent/GDP3 EU-proposal (kg/USD) |
0,46 |
0,41 |
CO2 equivalent/GDP US-proposal (kg/USD) |
0,14 |
0,14 |
GDP/cap (USD/cap) |
17004 |
18673 |
GDP/cap growth (%/year) |
4,7 |
6,2 |
Share of renewable energy4 in energy supply (%) |
25 |
26 |
Population growth |
|
1990-1995 (%/year) |
0,63 |
1995-2000 (%/year) |
0,35 |
2000-2005 (%/year) |
0,27 |
2005-2010 (%/year) |
0,21 |
1 Includes CO2, CH4 and N2O
2 Includes CO2, CH4, N2O, HFCs, PFCs, SF6 and all anthropogenic sinks; net/net approach
3 GDP expressed as purchasing power parities current prices
4 Includes waste heat from heat pumps; UN/ECE-methods
have been used to calculate energy supply from nuclear power
plants
Additional information
The total area of Sweden is 450,000 km2. Compared with
other OECD countries, population density is low, on average 19
inhabitants per km2 However, a large part of the
population is concentrated in three major urban areas. Sweden has a
long coastline and a very large number of lakes. Transport needs are
high due to the low population density and the long
distances.
Forest covers 62% of the total land area. The forest is one of
Sweden's most important natural resources. Historically, the forest
industry, together with the iron and steel industry, has been the
backbone of the Swedish economy.
Energy-intensive industries play a large role in the Swedish
economy. Sweden has large and growing surpluses in foreign trade and
barter.
Sweden's climate is temperate, influenced by the Gulf Stream in
the Atlantic Ocean. The annual average temperature is only
+1.8oC, ranging from +7oC in the south to
-2o in the north. The heating requirement for homes and
other premises is considerable during the winter season.
Swedish energy demand has been more or less unchanged at 450
TWh/year during the past 25 years, according to the traditional
Swedish way of calculating. The fossil fuel share of the total energy
supply has fallen from 80% in 1970 to about 50% in 1995. During a
normal year, nuclear and hydro power account for more than 90% of the
total electricity generated.
From a level of about 100 million tonnes CO2 per year
by in 1970, emission of CO2 have declined between 1980 and
1990 from about 82 to about 55 million tonnes per year.
A new energy agreement was launched in 1997. The deliberations
were concluded on the 4th of February 1997 with an
agreement between the Social Democrats, the Centre Party and the Left
Party on guidelines for a national energy policy.
The energy agreement calls for shutdown of the two nuclear power
reactors in Barsebäck, equivalent to 1200 MW. The Government
Bill "A Sustainable Energy Supply"5 states that
negotiation shall be commenced with the owner to close one reactor
prior to 1 July 1998 and the other reactor prior to 1 July 2001. The
Bill was passed in Parliament in June 1997 and in addition, the
Parliament will discuss in December this year a new law which specify
the conditions to close reactors.
5 Gov. Bill 1996/97:84