Distr.
GENERAL
FCCC/NC/8
25 July 1995
Original: ENGLISH
In accordance with decision 9/2 of the Intergovernmental
Negotiating Committee of the Framework Convention on Climate Change
(INC/FCCC), the interim secretariat is to make available, in the
official languages of the United Nations, the executive summaries of
the national communications submitted by Annex I
Parties.
Note: Executive summaries of national communications issued
prior to the first session of the Conference of the Parties bear the
symbol A/AC.237/NC/___.
GE.95-
P.O Box 399 00121 Helsinki Fax No. (358 0) 1991-9716 |
Finland and the greenhouse effect
1. Finland is an industrialized country with a great deal of forest. Because of the structure of industry and the country's geophysical conditions, large amounts of energy are consumed. In 1990, C02 emissions from fossil fuels and peat and from industry totalled 54 million tonnes. Wood burning released another 17 million tonnes of C02, but this is not counted in total emissions because even more carbon was bound up in growing stock in the forests. Methane (CH4) emissions totalled 252,000 tonnes, nitrous oxide (N20) 23,000 tonnes, nitrogen oxides 295,000 tonnes of nitrogen dioxide, carbon monoxide (CO) 487,000
tonnes and volatile organic compounds from human activities (NMVOC) 219,000 tonnes.
Emissions other than carbon dioxide were jointly equivalent to some 29 million tonnes of
C02 in terms of their greenhouse effect.
Finland's climate strategy
2. The main focus in Finland's climate strategy is to intensify
those programmes to reduce greenhouse gas emissions that are already
under way, such as efficiency improvements in the energy production
and utilization system, and use of energy and carbon taxes. As well
as limiting emissions of C02 and other greenhouse gases,
the Finnish action programme also includes measures to enhance carbon
reservoirs and sinks. In its energy report to Parliament in autumn
1993, the Government adopted the goals of halting growth in
C02 emissions from energy production and use at the end of
the '90s. Finland has been practising sustainable forestry for
decades now, and consequently the forests are expected to sequester
increasing amounts of atmospheric carbon for at least the next 15-20
years. In 1994, the Government ratified a forestry environment
programme concentrating on protecting the biodiversity of the forest
ecosystem. This means that even more carbon will be bound in the
forests.
3. In line with the Convention on Climate Change, Finland is taking action to mitigate
climate change by limiting emissions of greenhouse gases and enhancing sinks and
reservoirs. The country's potential for doing this is limited by its special geographical and
economic conditions, which should be taken into account according to the Convention.
Also instrumental here is how extensively other industrialized countries are willing to take
action to mitigate climate change. Finland will work with other countries to promote the
widespread adoption of measures to this end, with the maintenance of sustainable and
balanced economic development as the goal.
Carbon dioxide emissions from energy production and consumption,
and industry in 1990
4. In 1990, C02 emissions from Finnish energy
production and consumption and industry, estimated according to the
Intergovernmental Panel on Climate Change (IPCC) reporting
instructions, totalled some 54 million tonnes. Most of these
emissions derived in various ways from energy production and
consumption. Emissions from industrial processes, mainly from the
cement and lime industry, totalled 1.2 million tonnes.
5. Other activities connected with energy production, but whose
emissions are not counted in the C02 total, are bunkers,
use of wood-based fuels, and emissions equivalent to imported
electricity. Finland has so far imported over 10 per cent of the
electricity it needs from neighbouring countries. The C02
emissions of bunkers totalled 2.8 million tonnes. Some 17 million
tonnes derived from the use of wood-based fuels. In 1990, net imports
of electricity accounted for 17 per cent of total consumption of
electricity, which would have caused some 11 million tonnes of
C02 emissions if it had been generated by Finnish
condensing power.
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Fossil fuels and peat Industrial processes Bunkers Wood-based fuels Emissions equivalent to imported electricity |
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6. Finnish industrial output rose by a third between 1980 and
1990. During the same period, however, fuel consumption only
increased about 10 per cent. In terms of C02 emissions, it
was beneficial that the increase in fuel consumption stemmed mainly
from wider use of natural gas and wood-based fuels. Today's nuclear
power capacity came fully on stream in the '80s, and by 1990
accounted for a third of total electricity production. Oil
consumption by industry halved during the '80s, and emissions from
industry and energy production at the end of the decade were nearly
the same as ten years earlier, though the economy and energy
consumption had grown.
7. C02 emissions from domestic traffic rose from 8.4
million tonnes to 11.5 million between 1980 and 1990, largely as a
result of the increase in passenger and goods traffic consequent to
fast economic growth (nearly 40 per cent in 1980-1990). Judged in
passenger kilometres, traffic increased 30 per cent in the '80s.
During the same period, distances travelled by lorries rose 16 per
cent.
Biospheric carbon reservoirs and
sinks
8. The forests are Finland's most important natural resource. Of the total land area,
76 per cent is classified as forested. The forests have been
managed according to sustainable principles for several decades now,
so felling has never exceeded forest growth. As a result, growing
stocks in the forest have been rising ever since the '60s. The
forests and the timber resources in them are still increasing
substantially, thanks to their age structure and efficient
silviculture. At the moment, the volume of growing stock in Finland
is 1,880 million cubic metres, and the amount of carbon bound up in
the forests continues to grow, since the overall amount harvested
each year is very much lower than the increment.
9. According to the current forestry environmental programme, an
annual increment of some 5-10 million cubic metres is estimated to be
untouched by commercial exploitation, as a result of environmental
protection goals such as the conservation of biodiversity. In 1990,
the Finnish forest ecosystem had stored 2,700 million tonnes of
carbon, with trees -- including branches and roots -- accounting for
660 million tonnes. The forest carbon dioxide sink in 1990 is put at
around 31 million tonnes of C02.
10. Finland also has huge areas of peatland and mire. The carbon
stored in the peat is put at 6,300 million tonnes. Virgin mires are
estimated to accumulate 0.4-2.0 million further tonnes of carbon
every year. Of the country's original ten million hectares of
peatland, some six million have been drained for forestry and
farming. The result of drainage is that the peat starts to
disintegrate, causing carbon dioxide to be released into the
atmosphere. In most of the areas drained, tree growth has improved
and carbon absorption has increased, a fact partly reflected in
rising forest resource figures. Over about 10 per cent of the drained
areas, drainage has not yielded the desired increase in forest
growth, however, and because of peat disintegration they have become
sources of carbon dioxide. The net emission from these non-viable
forest drainage areas is put at 1-5 million tonnes of
C02.
11. Peatlands drained for agricultural use have also started to
witness peat disintegration not counterbalanced by carbon binding in
growing plants; this, too, is a C02 source. The annual
C02 emission from cultivated peatlands is put at 3-10
million tonnes. The above estimates concerning the carbon balance of
the peatlands are still rather unreliable, however.
Structure of Finnish energy
production
12. Finland's energy production system is diversified and utilizes several energy sources. This reduces the economy's tolerance to problems caused by sudden fluctuations in the price or availability of individual fuels. The most important domestic energy sources are hydro power and biomass, that is, pulp and paper industry wood waste. This latter accounts for
13 per cent of all use of primary energy.
13. Over 30 per cent of Finland's electricity is produced in
combined heat and power (CHP) systems, that is, either district
heating plants or industrial back pressure utilities. At such
installations, 80-90 per cent of fuel energy is exploited, compared
with about 40 per cent at condensing power plants. The potential for
district heat production combined with electricity and the coverage
of the district heating network is already fully utilized. Specific
releases of C02 from the energy system are therefore
already low, at around 42 g C02/MJ. About half of the
electricity need is met by hydro and nuclear power. Only 11 per cent
of the electricity consumed in 1990 was generated at coal-fired
condensing power plants.
Energy policy
14. Finland has a long history of measures to save energy and make use of energy more
efficient, and several energy reports and programmes have been drawn up since 1973. This
action was largely motivated by purely economic
reasons.
15. Because of the cold climate, buildings have always been
designed and constructed partly with energy economy in mind. Really
effective forms of insulation were introduced in the '60s and triple
glazing, for instance, was made compulsory in all new buildings as
early as the 70s. Official regulations, energy counselling and
financial incentives have succeeded in reducing building-specific
heat consumption to the level found in many countries that are very
much warmer than Finland. This past action has thus reduced the
number of cost-effective options open in the future.
16. The autumn 1993 Council to State Report to Parliament on Energy Policy aimed to ensure social and economic development and achieve a reduction in harmful environmental
effects, while also reconciling energy targets and economic and
environmental goals.
17. As early as 1990, Finland became the first country in the world to introduce a C02 tax. Since the beginning of 1994 fuel has been taxed partly on environmental grounds in that a tax on energy content was levied on all primary energy sources. A tax on carbon content is also levied on fossil fuels. This change in the tax structure favours low-emission energy sources, promotes energy conservation and encourages the use of renewable fuels such as biomass to replace fossil fuels. Over the short term the impact is relatively slight, but because the new tax system is meant to be permanent, it already influences decisions on investments and will thus gradually affect the structure of production and consumption. According to the 1995 budget bill, revenues from the tax based on carbon and energy
content will contribute 0.5 per cent to gross domestic product
(GDP). Any chance of raising the tax rate will also depend on
international progress in introducing the tax.
18. In autumn 1992, the Government approved a separate energy conservation programme
aimed at rationalizing end uses of energy in individual sectors by
cutting 1990 level specific consumption 10-15 per cent by the year
2005, that is, space heating 10 per cent, household use 15 per cent,
services 15 per cent and industry 10 per cent. The Government has
launched work to revise the energy conservation programme in
1995.
19. Research on energy conservation has continued. Improved energy
surveys and investment in economy measures have been supported. A
special service centre to promote energy conservation, called MOTIVA,
has been set up for information purposes. A separate energy
conservation programme has been drawn up for the public sector.
Voluntary energy conservation agreements have been concluded between
the government and industry. In spring 1994, as one element in the
programmes called for by its energy report, the Government decided on
measures to encourage the use of biofuels. The aim is for use of
bioenergy to increase at least 25 per cent by the year 2005. The goal
set by the Government means expanding use of biofuels by 1.5 million
tonnes of oil equivalent (Mtoe) by that date. Half of this target
will be achieved by further use of peat and half by using wood from
the forests.
20. To ensure that the structure of energy production remains diversified and based on both new technologies and renewable energy sources, the Government has been putting more money into the development of Finnish energy technology, and launching, financing and directing research programmes and development and demonstration projects for the home market and for export. This has been going on for several years now, and in 1993 the
Ministry of Trade and Industry launched new energy technology development programmes
ranging up to 1998.
Transport and communications
21. Greenhouse gas emissions from transport and communications are
relatively high, because the population is scattered and distances
are great. Since 1990, a rapid decline in emissions of nitrogen
oxide, hydrocarbons and carbon monoxide from traffic has been
achieved through technical improvements and granting a tax relief on
cars with catalytic converters. Exhaust gas emissions from lorries
and buses have been reduced, for example, by cutting the maximum
level of nitrogen oxides by half compared with the end of the '80s,
and by ordering heavy vehicles to carry a speed limitation device
that prevents excessively high speeds.
22. The tax on car purchases has always been rather high by
international standards, a fact that has curbed growth in the car
stock and especially discouraged the purchase of powerful cars. The
tax on traffic fuels has also been raised sharply, and this, combined
with the recession in the early '90s, has caused a halt in traffic
growth. There has been a change over to unleaded reformulated
gasoline because of the steeply graded fuel tax, and this has reduced
emissions of carbon monoxide and hydrocarbons by 10-15 per
cent.
23. Other measures adopted include subsidies for public transport
(though these subsidies have had to be cut substantially in recent
years), investments in the rail network and in electrification, a cut
in the right to tax-deduct business travel costs, and a reduction in
the transport subsidy to industry in developing areas. Use of gas
fuels, bioalcohols and rapeseed methyl esters as traffic fuels has
been studied and vehicles developed as far as the production
stage.
24. The Ministry of Transport and Communications has drawn up an
action programme of long-range targets and action proposals for
reducing the environmental hazards of traffic. The bodies responsible
for the programme are the Ministry and the administrative units and
public enterprises subordinate to it, the other ministries, the local
authorities, companies and organizations. Implementation of the
programme is largely voluntary. The Government decision-in-principle
in 1993 on measures to promote traffic safety includes steps in line
with the action programme, aimed, for instance, at restraining
further traffic growth.
25. Plans for future action are largely targeted at road traffic and a reduction in volumes.
Emissions from new working machinery and rail diesels are also
being reduced, as are nitrogen oxide emissions from ship engines,
through international cooperation. The possible introduction of
landing charges for aircraft, graded according to their environmental
impact, is also being investigated.
Agriculture
26. Methane emissions from agriculture derive from the digestive processes and manure of domestic animals, and totalled 94,000 tonnes in 1990. The use of chemical fertilizers and manure spreading and, to a lesser degree, the spreading of treatment plant sludge on fields also cause nitrous oxide emissions, totalling 12,000 tonnes in 1990. Reducing these emissions is a key element in action to cut the load on the water system caused by farming. Improvements to cowsheds and manure containers and better manure handling procedures
have succeeded in reducing methane emissions
somewhat.
27. The Rural Environment Programme approved in 1992 and the agri-environmental support programme which is an element in Finnish accession to the European Union both include action to reduce greenhouse gas emissions from farming and greenhouse cultivation. It is difficult to predict the changes that will take place in farming and in the number of
livestock, but emission estimates assume that there will be no major changes in the next
few years.
28. Closer checks on and reduction in the use of chemical fertilizers and checks on the use of manure will help stabilize nitrous oxide emissions. The clear increase in grass cultivation will act in the same direction. More effective water pollution controls in animal
husbandry, combined with the agri-environmental support programme,
will also bring a decline in overall emissions of
methane.
Waste management
29. In Finland, as in most other industrial countries, waste water
is mainly treated aerobically, resulting in low methane emissions.
The annual estimate is about 7,000 tonnes. Emissions from industrial
effluent in 1990 are put at about 27,000 tonnes.
30. In 1990, Finland had 680 landfills, and some 1,000 have been closed. The waste management development programme calls for a substantial decrease in the number of landfills; the aim is for only 200 by the year 2000. Reducing the number will make for
more efficient management and supervision, and also reduce their harmful environmental
effects.
31. Methane emissions from landfills will decrease substantially
in the near future. In the year 2000, emissions are expected to be
about 60,000 tonnes, compared with 105,000 in 1990. A few landfills
already recover the methane released and use it as a fuel for
small-scale energy production.
International cooperation
32. Finland took an active part in the United Nations Conference
on Environment and Development and provides financial support for
programmes contributing to sustainable development. Finland assists
developing countries in furthering the goals of the Framework
Convention on Climate Change through bilateral and multilateral aid
programmes that support countries in adopting advanced environmental
technology, in increasing general know-how and capacity concerning
environmental protection, and in the maintenance of greenhouse gas
reservoirs and sinks, especially forests. In 1994-1996 Finland is
contributing FIM 105 million to the Global Environment Facility in
compliance with the agreed burden-sharing. Environmental cooperation
with countries in economic transition also began
recently.
Research on climate change
33. In 1990-1995, the Finnish government will be contributing
altogether FIM 90 million or so to the research programme on climate
change (SILMU), which includes some 60 research projects and two
hundred research workers. The main areas being studied are climate
changes expected in Finland, assessment of the effects of climate
change on the ecosystem, and strategies for adapting to and combating
these effects. The programme focuses on special issues of importance
to Finland, such as the carbon balance of the peatlands and
adjustment of the forest ecosystem to changes in climate. Basic
research on climate change connected with international programmes
such as the World Climate Research Programme (WCRP) and the
International Geosphere-Biosphere Programme (IGBP) is also
included.
Trends in emissions and sinks,
1990-2010
34. Carbon dioxide emissions from energy production and consumption can be limited in
future through the measures outlined above. Even so, emissions will probably rise between 1990 and 2000, partly because it is assumed that all the electricity used in Finland in future will also be produced here. In 1990, C02 emission equivalent to electricity imports was
11 million tonnes. C02 emissions from industrial processes are not expected to change very
radically in future.
35. Estimates of emissions from the biosphere are still very unreliable, but the C02 emissions produced as a result of peat disintegration in cultivated peatlands and non-viable drainage areas will presumably decrease in future. There are no grounds at present for maintaining non-viable drainage areas in a condition fit for forest cultivation, and it would be more practicable to let them run wild. Similarly, the area covered by cultivated peatlands is
declining rapidly as a result of reforestation or return to the natural state, and consequently
their C02 emissions are decreasing.
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Fossil fuels and peat Industrial processes Cultivated peatlands Non-viable drainage areas |
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Total |
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Emissions equivalent to electricity imports |
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Total |
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36. Emissions of methane, nitrogen oxides, carbon monoxide and
NMVOCs will decline in future in all probability. Methane emissions
from landfills, energy production and traffic will decrease in these
sectors merely because of qualitative and technical changes already
implemented. Emissions of nitrogen oxides will decline substantially,
particularly because of action to limit emissions in energy
production and in transport and communications. Carbon monoxide
emissions and emissions of NMVOCs will mainly decrease because of
lower emissions from road transport. In contrast, emissions of
nitrous oxide are likely to increase, primarily because of higher
emissions from energy production and traffic, unless radical advances
are made in technical means of cutting emissions in these
sectors.
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Global Warming Potential integrated over 100 years |
Emissions in 1990 CO2 Equivalent Mt |
Emission estimates in 2000 CO2 Equivalent MT |
Emission estimates in 2010 CO2 Equivalent Mt |
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37. Over the decades, increasing amounts of carbon from the atmosphere have been absorbed in the Finnish forests. The net forest sink in 1990 is put at 31 million tonnes of C02. In future, developments will depend on how much wood is used. It is assumed that forest industry wood utilization will continue to increase (from 50 million cubic metres in 1990 to about 56 million in 2000), giving an annual C02 sink of about 23 million tonnes in
2000. However, the amount of carbon bound up in stemwood, branches
and roots in 2000 and 2010 in the scenario based on increasing wood
utilization has also grown appreciably on the 1990
level.
Carbon balance and reservoir in total wood biomass in managed forests in 1970,
1980 and 1990, and estimates for 2000 and 2010.
The estimates are based on the scenario of increasing wood
utilization.
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Carbon sequestration Carbon emission Annual sink Carbon reservoir |
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38. Economic growth will increase Finnish energy consumption in
the 1990s despite the Governments energy conservation programme,
because most of the production plants and processes, buildings,
vehicles, machinery and equipment in use and under construction today
will still be in use in the year 2000. The rate of replacement is
insufficient for the reduction in specific consumption achieved
thereby to counteract the effects of overall expansion on energy
consumption.
39. In 2000, most C02 emissions will be from installations already in use or under construction. Parliament has rejected the application to build a fifth nuclear power plant and has also passed a Rapids Protection Act, so there win be no chance to achieve appreciable structural changes in the energy production system by 2000. Instead, today's substantial imports of electricity will have to be replaced by conventional domestic electricity production. Any fast increase in the amount of natural gas used and the creation of a new pipeline link from the west also depend on decisions in countries other than Finland. In practice, getting new energy production methods operational, thereby substantially improving the efficiency of electricity production and at the same time also making effective use of renewable biofuels using these methods, will only be possible on any major scale after the year 2000. Achieving a reduction in emissions larger or faster than outlined above, and continuing to reduce emissions in the long term call for several simultaneous additional
measures and a consistent strategy. The Government has already
launched a reassessment of the energy conservation programme in which
even finer action, including official regulation, non-statutory norms
and standards, will be pondered. The new programme should be approved
in 1995.
40. Developments in industry and communities, faster-than-expected
advances in technology and changes in attitudes to energy use,
together with progress internationally, may all create the future
potential for new ways of reducing emissions. Better knowledge about
the effects of human activities on biospheric greenhouse gas balances
may also yield new approaches, for example, in agriculture and
forestry and in land use. Effective combating of climate change calls
for decades of work and successful measures to implement the
strategy. The need for new action must thus be constantly
reassessed.