Swedish environmental debt
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SWEDISH
ENVIRONMENTAL DEBT
A report from The Swedish Advisory Council
SMU]
Statens offentliga utredningar
my 1992126
@ Miljö- och naturresursdepartementet
Swedish Environmental Debt
A report from the Swedish Advisory Council Stockholm 1992
SOU och Ds kan köpasfrån Allmänna Förlagetsomingår i C E Fritzes AB. Allmänna Förlagetombesörjerochså,på uppdragavRegeringskanslietsförvaltningskontor, rernissutsändningar avSOU och Ds.
Beställningsadress Fritzes kundtjänst
10647 Stockholm
Fax 08-20 50 21
Telefon 08-690 90 90
REGERINGSKANSLIETS OFFSETCENTRAL ISBN 91-38-13230-3
1992 ISSN 0375-25ox Stockholm
THE ENVIRONMENTAL DEBT
A report on how the environmental debt develops we do nothing
Arne Jgmelöv Translatedby Ulla Edenmark,IVL
The Environmental Debt
TABLE OF CONTENTS
FOREWORD 4
SUMMARY 5
International comparison 6
Who guilty 7
INTRODUCTION 8
How are restoration costs estimated 10
GLOBAL ENVIRONMENTAL PROBLEMS 12
Stratospheric ozone 12
Climate 12
TERRITORIAL ENVIRONMENTAL PROBLEMS 16
Acidification soil, surface and ground water 16
—
The situation in 1990 16
| Trends | 17 | |
| The cadmium and humic content of agricultural land | Cadmium Humus | 19 19 20 |
| Marine eutrophication | The situation in 1990 Trends | 22 22 24 |
| Chlorinated organic compounds | Situation 1990 and trends up to now Waste Hazardous waste Domestic waste Industrial and other waste Radioactive waste | 26 26 30 30 32 33 35 |
| Biological diversity | 35 | |
| FINAL REFLECTIONS | 37 |
The Environmental Debt
FOREWORD
For too long the environment has remained a given condition, noticed only when enviromnental damage has become a fact, as when the acidification struck our forests or when a nuclear disaster transformed a humane environment into a poisoned ghost town.
Everything valuable has a price. The question not we will have to pay when the environment damaged, but when, how and who will be forced to P33’-
The connection between economy and ecology must be made clear through an.increased use of effective economical incentives. By putting a price on the environment, the costs are made visible, and then future environmental debts can be avoided.
In this report, Arne Jemelov has given a valuable assessment for a continued discussion around the connection between economy and ecology. He asks, How does the environmental debt develop we do nothing. The truth that already late to do something about the environmental situation. We must now seethe problem in its entirety.
Olof Johansson
Minister of the Environment and Natural Resources and chairman of the Enviromnental Advisory Council
The Environmental Debt
SUMMARY
Swedens environmental debt estimated to be approximately 260 billion SEK. The corresponding figure in 1980 approximated to be less than half this in fixed monetary value. The heaviest items in the environmental debt of 1990 are within agriculture, waste and acidification areas. Based on the scenarios briefly dealt with this report, Swedens environmental debt expected to increase with almost 7 billion SEK per year. The items causing’ increasing concern we do not act are clirnatevariability, agriculture, waste and acidification. The table below summarises the estimates.
Swedens environmental debt billion SEK, monetary value of 1990
Area 1990 A year
Global
Ozone the stratosphere
- - Climate 85 2,5
Territorial
Acidification
| Ground | 36 | 0,4 |
| Surface water | 10 | 0,1 |
| Ground water | 1 | 0,3 |
Agricultural land
Cadmium 6 0,1
Humus 25 1,3 Marine eutrophication
Sea 10 iO
Coastal wetlands 0,2 O
Chlorinated organic substances
PCB etc. 0,1
Seal sanctuaries 0,2
The Environmental Debt Waste
| Enviromnentally hazardous 15 | 1 | |
| Domestic | 15 | 0,1 |
| Industry + other | 18 | 0,3 |
| Radioactive | 35 | 0,5 |
Biological diversity
| Noahs ark | 2,6 | i0 |
| Wetlands | 2 | i0 |
| Total | 261 | 6,6 |
| INTERNATIONAL | COMPARISON |
The figure for Sweden 300 billion SEK can be compared to estimates
— — made for the former DDR 1 500 billion SEK, for Poland 2 000 billion SEK
and the outflow area of the Baltic Sea 3 000 billion SEK.
These estimates only concern landfills and highly contaminated ground where decontamination costs are estimated to 10 000 DM per m2.
The environmental debt for 3 000 dumping sites for hazardous waste in the USA estimated to be 600 billion SEK and for the radioactive waste from the American military and nuclear power plants, 1 000 billion SEK. In addition, the required protection measures for the low-lying coastal areas of the USA, in the event of a rise in sea level related to a change the climate,
estimated to 3 000 billion SEK. EPAs estirnate of the costs for taking care of super-fund sites takes into consideration the type and degree of pollution as well its volume. The Cleaning costs per ton vary between $500 and $10
as 000. In completely different comparison can be said that the estimated
a environmental debt in all cases, regardless of separate definitions and calculating methods, considerably larger than the countrys foreign debt.
The Environmental Debt WHO IS GUILTY
Of the continually increasing Swedish environmental debt, approximately half caused by activities outside of Sweden.
The Environmental Debt
INTRODUCTION
A key concept in this report environmental debt. This defined as the cost required to restore environmental damage which economically and technically restorable, as well as the size of the capital required for recurring restoration measures.
The report aims at showing how this enviromnental debt develops actions already decided upon are carried out, but no additional measures or actions follow. The time perspective approximately 30 years.
Naturally, this kind of study meets with a number of difficult limitation problems. The first and maybe the most important question what we consider as restorable. The fewer items included, the smaller the environmental debt becomes. Do we mean restorable with todays technology or tomorrows Are we technical optimists or pessimists easy to point out practical examples where these fundamental questions are brought to a head. Can an extinct species be restored Do we count on the identification of mammoths genes from preserved tissue, gene synthesis, implantation in an elephant egg instead of the original, and the subsequent development in the elephant mother resulting in a new—bom mammoth In which case what the cost
In this report, this type of restoration considered as science-fiction and not considered asenvironmental debt.
The principal question and the limitation problems remain. New technical achievements can increase the technical and economical possibilities for restoration but these can increase the environmental debt accounted for, since certain environmental damage, which earlier was excluded from the debt as
was considered impracticable, now can be included. In principle, this not
The Environmental Debt unlike a situation where new mining and prospecting techniques result in new mineral findings Suddenly being accounted for and listed as assets in the balance books of companies and in the accounts for national natural resources. Of the same type, but more trivial, where a technical development can result in a restoration, included in the environmental debt, becomes less expensive and that the debt thereby reduced. Investments on research and development within the field of environmental clean-up operations would probably reduce the environmental debt with more than the costs for the research and development.
Questions where the formal answer could differ from the real are When has a decision been made an international agreement a decision a government agreement of an all-embracing character, for example lirnits on carbon dioxide emissions, a decision Does the introduction of a new technique at a plant imply a decision to introduce everywhere on the basis that the technically possible and economically reasonable a superior policy In this report, a pragmatic point of view adapted. This means that the future based on the authors assessment of what happens the politicians do not change the rules of the game, e. decisions already made, and the administrators do not change the application of the rules. Consequently, for different cases in the future, an assessment of what a decision necessary.
Another key question carrying difficult consideration problems Restoring to what situation. Examples from forestry and agriculture can illustrate this problem. Todays forestry and agriculture lead to a culture landscape with much fewer species than that during the early twentieth century. Do we want to restore the situation to that fifty, a hundred or three hundred years ago, or the vast oak forests from the time of the Roman Empire that the dream of Germany and southern Scandinavia The answer, which again refers to the practical handling in this report, that no time limit has been identified, but instead the need for restoration quantified with regard to sustainable yield for cultivated areas and the diversity of species. In addition, the concept of sustainability has been given the criteria that built-up deposits of nutrientsenvironmental toxins are to be rendered harmless by immobilisation or destruction.
The Environmental Debt
The degree of restoration also of decisive importance for the clean-up operation costs. In Sweden, the restoration target more demanding for radioactivity than for chemicals. Consequently, the industrial hygiene limits for radiation-induced cancer are regarded as ten times the importance as cancer caused by chemicals. In this report, the clean-up costs for nuclear waste in the year 2020 estimated to be 50 billion SEK while the costs for all other toxic wastes estimated to be 95 billion. the demands for restoration relation to toxicity or mutagenic effects were as severe as for the nuclear waste, the costs would be at least five times greater.
On the other hand, the degree of restoration for nuclear waste was as low as for chemical waste, 10 billion SEK would be sufficient.
HOW ARE RESTORATION COSTS ESTIMATED
The cost estimates presented are of very different precision. In some cases, treatment costs of a specific clean-up operation and the number of operations carried out are reasonably well known. In other cases, restoration cost per object as well as the number of objects are roughly estimated. The level of precision thus limited and can be loosely expressed as The right amount of zeros and one significant digit.
A more principal question pertains to how restoration measures of limited durability are compared to the final treatment. Examples can be found in the acidification area where the liming of lakes can be characterised as only a temporary defence. The cost calculation technique applied here based on an estimate of the restoration cost per year, whereafter the environmental debt stated as the capital generating the interest covering the yearly restoration cost. In the report, an interest rate of 5% used.
In the calculation of Swedens environmental debt, a separation has been made between global and territorial environmental problems. In the first category, the debt assumed as being the debt of the rich and for Swedens share to correspond to our share of the worlds rich population 8,5 million
The Environmental Debt out of 1 billion without consideration of the fact that our net contribution considerably smaller.
In the second category the territorial the environmental debt
— considered as belonging to Sweden in spite of which country responsible for the emissions causing the damage.
The Environmental Debt
GLOBAL ENVIRONMENTAL
PROBLEMS
Global environmental problems include ozone depletion in the stratosphere and UV~radiation together with greenhouse gases and climate effects. These global environmental problems are in this context regarded as the responsibility of the rich world. The environmental debt therefore calculated as that distributed among one billion people of which 8,5 million live in Sweden.
STRATOSPHERIC OZONE
No technique available for replacing the ozone layer and therefore no environmental debt calculated.
CLlMATE
An indisputable fact that the concentrations of certain gases such as CO2, CH4 and N20 and CFC the atmosphere increasing, and that these gases inhibit the heat radiation from the earth.
The best calculations of today, which although lack potentially important physical and biological feedback-mechanisms of positive and negative character, indicate that the global average temperature might increase with 3- 4 °C the concentration increases continue during the next few decades. In which case, the polar temperature will probably increase twice as much 6—8° C.
Todays knowledge insufficient to make regional and national prognoses, but the primary economical effects in Sweden, for example to the energy balance, forestry and agriculture, from a rise in the yearly average temperature of about 5 °C, would not necessarily be negative.
The Environmental Debt
On global scale, a change in the climate could result in negative effects
a
the water balance in the interior areas of the continents todays surplus on -
for com and maize and large costs for relocation. Estimates areas - -
of the number of environmental refugees point toward bordering on guesses — half a billion. How this could affect Sweden not possible to predict, but the costs would probably be very high.
Swedens contribution to the increase in greenhouse gases small. There currently of the most important gas carbon dioxide fixated within
more - - Swedish territory than emitted. The following illustrates the cunent situation.
The Environmental Debt Carbon dioxide from
| Sweden to the atmosphere | Mtons Cyear |
| Combustion of imported fossil fuel | 16 15-17,5 |
| Limestone calcination | 0,8 |
| Loss from agricultural land | 1,6 1,0—2,2 |
| Loss from forest land | 0 -4—4 |
| Total | 18,4 |
Carbon dioxide from the atmosphere to Sweden Mtons CYear Net increase forest biomass 9 7-11
| Export forestry products | 5 | |
| Net increase peat | 1,2 0,4 2,6 | - |
| Net sedimentation lakes | 1,5 0,4 2,9 |
- Carbon sedimentation from run-off water at coastal areas 1,3 0,9 1,7
- Net sedimentation of primary products in Swedish territorial waters 7 5-10 Accumulation technosphere for example building 0,3 0,1 0,5
- Accumulation waste deposits 0,4 gO,3 0,5
-
Total 25
Net fixation in Sweden 7,3 Mtons Cyear
The global anthropogenic CO2-emissions amount to approximately 6 billion tons as C per year. The increase in the atmosphere approximately 3 billion tons. Carbon dioxide responsible for about half of the anthropogenic greenhouse effect.
The increase to the atmosphere is, up to now, equal to approximately 100 billion ton CO2 as C.
There are technical solutions for separating CO2 from air and thereby
principle restoring the CO2 concentration and natural greenhouse abilities of
-
The Environmental Debt the atmosphere. In all respects, these technical gas separation methods are much more expensive 10-100 times than fixating the corresponding amount of carbon in biomassground carbon. Different calculations have shown that considerable amounts of carbon can be bound in biomass and as ground carbon at a cost of $5-10 per ton. The bindable amount certainly increases a higher price accepted. In the following example, a cost of 100 SEK per ton carbon assumed.
Todays environmental debt 100 billion ton x 100 SEK 10 000 billion SEK.
Yearly increase 3 billion ton x 100 SEK 300 billion SEK.
Swedens share 0,85% of the current environmental debt up to the present then becomes 85 billion SEK with a yearly increase of 2.5 billion.
The Environmental Debt
TERRITORIAL ENVIRONMENTAL
PROBLEMS
ACIDIFICATION SOIL, SURFACE AND GROUND WATER
-
The situation in 1990
Today more than 10 000 of Swedens 80 000 lakes are heavily acidified due to acid rain, and an additional 10 000 are loosing their ability to buffer, risking the same fate. Moreover, there obvious acidification damage in approximately 100 000 km of running water.
The ongoing lake liming program a continuing defence, allowing species sensitive to acidification to survive in lakes and streams from which they otherwise would have disappeared. So far, more than 5 500 lakes have been limed. The yearly cost for the public treasury amounts to 100 million SEK, but work and other voluntary efforts were counted at market value, the total cost would amount to more than twice as much. The current extent of the liming program for lakes and streams estimated as equalling almost half of what needed to counteract all the water acidification problems e., the
cost for full scale liming of surface waters currently estimated to 500 million SEK per year. The environmental debt here in the form of the capital
needed for an interest of 5% to cover the yearly cost would be 10 billion
- SEK.
The ground water is, as yet, only acidified in a limited number of sensitive areas, but decreasing buffering ability in soil and ground layers may lead to a rapid increase in the extent of the affected areas no counter-measures are initiated.
The Environmental Debt
Direct liming measures to counteract acidification of ground water are technically difficult to cany out. Water from individual wells can certainly be limed, and also limestone linings around wells in areas with acidified ground water can be used. The current need for ground water liming estimated to be a tenth of the need for surface water liming, e. to 50 million per year corresponding to an environmental debt of 1 billion SEK.
The pH value of forest land has declined alarmingly in large parts of southern Sweden and certain central parts, for example Dalsland Värmland.
— Current estimates seem to indicate that 650 000 hectares of forest land need of limingvitality fertilizing for the production ability of the forest to be maintained and the continuing ground acidification countered. The cost for such a program estimated to between 3 and 4 billion SEK over a period of ten to fifteen years.
Forest limingvitality fertilizing, according to this model, supplies the forest soil with a buffering layer on the surface, which counteracts further acidification of the ground following acid rain. However, does not restore, except possibly over a long time period, the pH and ion balance of the soil. Direct measures to do this would be ten times as expensive than the suggested surface ground liming program, e. perhaps as much as 30 billion SEK, at all possible.
The current environmental debt based on the costs for restoring the pH and ion balance in forest land can be estimated to amount to 30 billion SEK. The cost for a continuing defence estimated to 3-4 billion SEK with a duration of ten to fifteen years, that a yearly cost of approximately 300 million SEK. The environmental debt in form of the allocated capital needed to make this possible 6 billion SEK and the total consequently 36 billion SEK.
Trends
In spite of heavy reductions of sulphur emissions in Sweden and significant reductions in other countries in western Europe, the deposition in southern Sweden up to 1989 has only marginally been reduced. The development eastern Europe up to the big political changes a couple of years ago, counteracted the positive contributions from the west.
The Environmental Debt
The estimates of what nature can take seem to suggest that the deposition of acidifying substances should be reduced by 80% in the most exposed parts of the country for the acidifying process to cease. Current international agreements in the environment field will not even come close to achieving this result. The acidification therefore will continue and, with a gradual exhaustion of the buffering capacity of the soil, future decreasing deposition could even give increased acidiñcation problems in the form of a lowered pH in ground water.
The development in eastern Europe above all in the Baltic states plays a
— key role in the continuing acidification in Sweden with regard to emissions of S02 and NOX. Preliminary estimates based on the development of industrial production indicate that sulphur emissions 1990 and 1991 have been reduced with as much as 40%. However, this has nothing to do with environmental commitments but an effect of the fact that the strongly polluting, lignite—using heavy industry in eastern Germany, Poland and Czechoslovakia has been forced to reduce or close down production due to international market competition.
What going to happen in the next few decades almost impossible to predict. A guess that the sulphur emissions from the industry succeeding the present can be contained at a level of 50% of the sulphur emission level of 1989, while the emissions of nitrogen oxides from an increasing use of private cars will increase.
In this scenario, the number of lakes heavily acidiñed or in need of continued protective liming increases from todays 10 000 to maybe 15 000 thirty years time. The cost for surface water liming in the monetary value of 1990 would then amount to 700 million SEK per year. The corresponding cost to buffer acidified ground water would increase a lot faster; a cautious estimate suggests an increase of ten times todays level to 500 million SEK per year. The environmental debt for acidiñed surface water has thus grown to 14 billion SEK and that of acidified ground water to 10 billion SEK. The area of acidified andor nitrogen-supersaturated forest land can have increased to almost one million hectares, and the yearly cost for the continuing defence in the form of surface liming of the forest land to 400
The Environmental Debt million SEK. The capital needed to suppon this cuntinuous defence would be 8 billion SEK. The environmental debt for restoring the pH and ion balance of the soil estimated to increase to 40 billion SEK in todays monetary value because of the increase in actual area. The total capital for continuous defence and restoration of the pH—value and ion balance of the soil thus becomes 48 billion SEK.
THE CADMIUM AND HUMIC CONTENT OF AGRICULTURAL LAND
Cadmium
The content of cadmium in agricultural land increasing continuously due to cadmium—contaminated phosphate in artificial fertilizers as well as cadmium—contaminated sludge from communal sewage treatment plants. Air deposition also a contributor. The increase rate estimated to be 0,5% per year.
The mobility of cadmium in soil to a high degree dependent on the pHvalue of the soil. If liming of agricultural land becomes insufficient to preserve high pH—values in the future, the cadmium uptake of plants could increase drastically, increasing the consumers intake with it. As the normal exposure for a greater part of Swedens population today lies within a factor 2 or 3 of effect levels, an increase in the cadmium content of basic foods represents a threat to human health. The development observed in forests already shows clear warning signals. In many parts of the country where the acidification advancedffor example Småland and Värmland, the cadmium content of the mooses liver and kidneys such that those organs should not be eaten. might also be possible that the surprisingly high cadmium emissions from the forest industry which have been observed lately are the result of a higher concentration of cadmium in the wood. A technique for reducing the content of cadmium in the soil cunently not available.
The preservation of a high pH-value in agricultural land therefore a condition for acceptable contents of cadmium in food.
The Environmental Debt
The use of lime in agriculture and horticulture has decreased from ~350 thousand tons per year in the beginning the 1980s to 184 thousand tons in 1990. A reversal to lime dosages of 2300 thousand tons per year will probably be necessary to, among other things, retain a low cadmium content in crops.
Approximately 500 million SEK per year can provide a continuing defence and this corresponds to an environmental debt of 10 billion SEK. The current yearly cost and environmental debt however, estimated to be 300 million and 6 billion SEK respectively.
Humus
Since the late 1940s, the content of humus in Swedish agricultural land has decreased continuously as a result of the agricultural technology currently used in Sweden and other western countries. A lower humus content in soil implies a reduced ability to bind water and nutrients which results in an increased sensitivity of the crops to, for instance, variations in weather. In the long perspective, the humus content of agricultural land could be restored through transition to other kinds of technology for instance reverting to traditional methods. To do this within the frame of a direct restoration program technically possible but expensive. The following example illustrates this.
Estimated total loss of organic substances from agricultural land since 1950 20 Mtons as carbon.
Amount agricultural land 2,8 million hectare
Humus loss as carbon per hectare 7 tons
m3 0,7 kg
per
The restoration of humus content could be carried out by, for instance, adding peat, which in one calculation example would cost approximately 90 billion SEK.
The Environmental Debt
However, the required magnitude of peat cutting would in itself give rise to environmental damage and a new environmental debt.
An alternative calculation example based on the producing crop being used to increase the humus content of the soil, for instance, through plowing in or in situ composting.
The average crop production of one hectare of agricultural land corresponds to 1-3 tons of carbon in humified form.
Consequently, 3-4 years of production would have to be directly returned to the soil in order to compensate for the estimated humus loss of the last forty years.
Of the 30 billion SEK production value of agriculture, half supposed to originate directly or indirectly from crops. The rest assumed to be animal production from feeding grain. The environmental debt would then amount to approximately 50 billion SEK.
However, the explicit purpose of the production was to restore the content of ground carbon, should be possible to significantly reduce the cost to reach this specific goal. A cut in half seems entirely possible. A revised environmental debt consequently 25 billion SEK.
Since current agriculture technology several decades old, the majority of cultivated soils have reached a kind of balance regarding the content of organic carbon. Significant exceptions are the cultivated areas obtained by drainage of wetlands. The carbon loss in these areas are estimated to be 1,6 million tons per year, but this expected to decline during the following decades.
the average yearly loss up to the year 2020 approximated to 1 million ton carbon per year, the restoration cost as above would increase with 1,3 million SEK per year.
The Environmental Debt
MARINE EUTROPHICATION
The situation in 1990
In a marine environment, nitrogen in the form of nitrate or ammonium the foremost factor for limiting production and therefore the most important reason for eutrophication. The following tables show the nitrogen emissions stated by the respective authorities of the countries bordering the Baltic Sea and the Skagerrak and Kattegat seas as well as estimates of deposition and nitrogen fixation over and in the respective sea area. The amount for Germany
the total of the former DDR and BRD. The stated values from the eastern coastal states of the Baltic Sea are probably too low and other independent estimates put the total 30-60% higher.
Nitrogen load to the Baltic Sea
| Country | thousand tons Nyear |
| Sweden | 100 |
| Finland | 70 |
| Poland | 1 10 |
| Russia | 130 |
| Germany | 20 |
| Denmark | 50 |
| Atmospheric deposition | 370 |
| N-ñxation | 1 30 |
| Total | 980 |
Nitrogen load to the SkagerrakKattegat seas
| Country | thousand tons Nyear |
| Sweden | 40 |
| Denmark | 20 |
| Norway | 45 |
| Atmospheric deposition | 60 |
| Total | 165 |
The Environmental Debt
In addition, the load from sea currents, for example, the currents flowing on the eastern coast of Jutland Denmark from the North Sea and the Baltic Sea needs to be included.
The load of nitrogen approximately five times as high as the
preindustrial era, and the load of phosphorous almost ten times high. The
as primary production has greatly increased. The larger amount of phytoplankton results in increased turbidity and reduced visibility depth, forming a basis for a larger population of zoo plankton and benthic organisms to establish. Considerably larger quantities of organic material, to a large extent consisting of dead algae, falls through the thermocline and down into the stagnant bottom water. The oxygen depletion has increased and lack of oxygen currently appealing over large bottom areas in the Baltic Sea, 2,5 3 years
— after an intrusion of salt-water.
Reduced light from turbidity caused by phytoplankton and increasing competition from periphyton have decreased the litteral zone dominated by kelp. As a consequence, organisms like shrimp have decreased in numbers, while periphyton and stickleback have increased.
The total fishing activities has also greatly increased from couple of
a hundred thousand tonsyear to about amillion.
From a users point of view, there are above all two aspects of marine eutrophication that are particularly interesting recreation and fishing. From
a recreational point of view, a sea with clear water, a thriving sea bed and rocks with kelp instead of slimy green algae of course to prefer and worth more. From a fishing point of view, the ideal would be good and regular
a access to valuable fish. Although the supply of fish increasing with eutrophication, the variation in catch, especially of cod, between good and bad years also increasing. As a resulting effect of the larger food supply available for fish, the salmons flesh tums grey-white instead of pink and the market value goes down. Most often the change in species in the wake of eutrophication means that less appreciated and therefore cheaper consumption fish constitute a larger share of the increased catch.
The Environmental Debt
Trends
The nitrogen mainly supplied in via the atmosphere and via
two ways run-off from agriculture and forestry.
The deposited atmospheric nitrogen compounds arise from combustion NOX from traffic and energy production and the use of organic fertilizers ammonia.
The trend so far in the areas affecting the Baltic Sea, the Skagerrak and the Kattegat that run—off water from land has stagnated at a high level while the load nitrogen from the atmosphere has continued to increase.
Decisions on the limited use of catalytic exhaust systems on gasolir1e— fuelled in Western Europe will lead to a decrease of the NO, emissions
cars from traffic despite increases in the car population. Increased use of private
in Eastern Europe will lead however, to increased traffic emissions. cars Government decisions and technical development are expected to lead to the introduction of low-N02 bumers on large and medium fossil fuel boilers all over Europe.
of organic fertilizers in countries like Denmark and the
A better use Netherlands could lead to lower ammonia emissions from agriculture in Western Europe, while the introduction of modern intensive livestock management could lead to increased emissions of agricultural ammonia in for example Poland and the former DDR.
An evaluation of the trends up to now and an assessment of the technicaleconomical development seems to suggest that a certain continued increase of the nitrogen load expected.
The effect of this will be a continuing eutrophication, faster oxygen depletion at the sea bed following an intrusion of salt-water and an even
spreading of the oxygen-free bottoms. In addition, increased larger average turbidity caused by algae, regular episodes of algae blooms, the disappearance of kelp as the dominating plant of coastal areas and sporadically good cod fishing can be forecasted.
The Environmental Debt
An increased nm-off of nitrogen from acidified and nitrogen—saturated forest land also a contributing factor.
.
Although the phosphorous load expected to continue to decrease slowly, this believed to be of small consequence for marine eutrophication.
The slow exchange rate of the Baltic Sea ~30 years contributes by making the system sluggish.
A rise the sea level following a change in climate could possibly contribute to more frequent salt-water intrusions in the Baltic Sea and thereby improving oxygen conditions at the sea bed. This would then entail a decreased recirculation internal fertilizing with phosphorous.
The changes at the Swedish west coast should be less extensive than those to the east bordering the Baltic Sea. The effect of action against nitrogen emissions from primarily Lraffic and agriculture Sweden, Denmark and Germany will give a reduced nitrogen load while nitrogen saturation in Swedish and Norwegian forests leads to an increased nin-off via forest streams.
A restoration of the Baltic sea has never been directly discussed and would be of doubtful value as long as the eutrophicating emissions continue. In a hypothetical situation where the emissions are reduced considerably, the long residence times and the internal self-fertilizing processes would delay the recovery for maybe centuries, and only then can the question become interesting. From small lakes we have restoration experience from bottom dredging, oxygen addition techniques and dispersion of nutritive salts which in principle could become possible techniques for the Baltic Sea as well.
Under the waste heading, estimated costs are accounted for regarding restoration of approximately 500 eutrophicated lakes and streams extending over a total area of almost 10 000 hectares. The average cost then 200 000 SEKhectare with from 5 000 to 1 million hectare depending
a range per on the degree of clean-up and the method for restoration. In one example from the Baltic Sea, 3 million hectares could benefit from restoration measures due to eutrophication. only the least expensive methods per surface area are
The Environmental Debt possible and an average cost of 10 000 SEK per hectare set aside, the total cost would be 30 billion SEK of which Swedens share roughly calculated would be 10 billion SEK.
In connection with the mechanisation and rationalisation of agriculture, wetlands have been ditched and biotopes with high diversity have been destroyed. These wetlands and especially the ones close to the coast were effective nitrogen traps and provided protection for the marine environment against both eutrophication and pollution by persistent substances such as metals. In many cases, the wetlands also were important nesting habitats for birds. Strong environmental reasons speak for restoring some of these
together maybe 20 00 hectares at a cost of 10 0O SEK per hectare, that
in total 200 million SEK.
should be noted here that Swedens declaration together with ll other countries to reduce nitrogen oxide emissions with 30% not regarded as a decision. Moreover, the declarations from Sweden and other countries within the frame of the so-called North Sea conference regarding a reduction of nitrogen of 50% are not considered as decisions.
The future scenario discussed here has been proposed based on other nitrogen load assumptions, which made clear in the text.
The uncertainty of the cost estimate so great that until further notice,
valid also for the hypothetical situation in the year 2020.
CHLORINATED ORGANIC COMPOUNDS
Situation 1990 and trends up to now
The chlorinated organic compound group includes classical environmental toxins such as DDT and PCB, new like CFC and a large group of substances whose effects are poorly understood or substances that are not individually identified. In fats from aquatic organisms, 90% often consists of the organically bound chlorine of unidentified substances. Certain indications point towards the fats which are chlorinated that the organisms themselves
in the fat synthesis build in low-molecular chlorinated compounds.
The Environmental Debt
In the Swedish perspective, the classical environmental toxins are of most concern regarding the Baltic Sea. The contents of DDT and their metabolites in fish and sea birds have decreased to approximately 10% of that in the beginning of the 1970s. By the end of the 1980s, however, the decrease had altered and DDT contents started to increase. The reason long-distance transport from the south, from among other things the cotton plantations of Egypt
In connection with decreasing DDT or rather DDE contents, the thickness of egg shells of fish-eating birds increased and the reproduction disturbances ceased. There a certain but not impending risk that the
- — contents of DDT and their metabolites are again increasing in organisms the Baltic Sea to levels where thin eggshells again will be a threat to bird population. This risk of course much larger closer to the area of using DDT based pesticides.
PCB-contents are fairly well correlated with disturbances in the immune defence and reproduction of Baltic Sea seal. The contents of PCB in organisms from the Baltic Sea have decreased by approximately 50% during the last two decades. This partly due to terminated industrial activities and reduced emissions, but a contributing reason for the decrease can also be eutrophication and increased biomass. A certain amount of PCB distributed to a larger amount of organisms and results in lower overall content in the biomass.
The situation for the seals has, unlike the situation for fish-eating birds, not improved as a result of the reduced PCB content in fish and other organisms of the Baltic Sea. During the last two years there has been a positive indication however, and the National Museums investigations show that the decrease in the Swedish grey seal population in the Baltic Sea and the Gulf of Bothnia being halted. Finnish investigations of the fertility of ringed seal females in the Gulf of Bothnia also point toward a certain improvement since the middle of the 1970s. this a turning point or just a notch the catastrophe curve remains to be seen. Two factors contribute to the possible increase in the actuality of the PCB issue.
The Environmental Debt
Dioxins represent a group of environmental toxins that have received a lot of attention during the 1980s. The total effect of the dioxins are evaluated through conversion to so called TCDD—equivalents. has been suggested that the seals problems could be caused by dioxins and not PCB. Some evidence however, does not entirely support this theory, for example, seals from the Swedish west coast and Spitsbergen have approximately as high dioxin contents as the seals in the Baltic Sea, without experiencing the corresponding effects.
However, estimates that have been made recently show that certain PCB
the so called planar compounds contribute to more TCDD—equivalents than
the dioxins as a result of much higher concentrations.
In connection with the Soviet disarmament, a large number of tanks and other military tracked vehicles will be dismantled several 10 000. These contain a relatively large amount of hydraulic oil which in order to avoid ignition under fire or leakage often contains PCB compounds. A careless handling of the hydraulic oil could entail a PCB catastrophe for the Baltic Sea and others.
Analyses of collective parameters suchas AOX or EOCl, which represent the amount of organically bound chlorine, have not been used long enough for any trends to be determined.
The emissions of chlorinated organic compounds are mainly in the form of by—products from pulp bleaching and waste water from the pulp and paper industry and also emissions of organic solvents to air.
The emissions of chlorinated organic substances as AOX from the Swedish pulp and paper industry in 1988 amounted to 13 000 tons, which would have constituted approximately 40% of the load to the Baltic Sea.
The Swedish emissions of chlorinated organic solvents in the same year amounted to 20 000 tons, and the emissions from OECD Europe are estimated to 600 000 tons. Uncertain estimates of usage within industries in Eastern Europe indicate a consumption of 200 000 tons chlorinated solvents, here also measured as chlorine.
The Environmental Debt
The Baltic Sea receives 5 000 tons chlorinated organic compounds measured AOX mainly from deposition via Swedish rivers. A
as per year, rough estimate gives total indirect deposition load via rivers of 20 000 tons
a and a direct deposition of 10 000 tons per year.
The deposition that expected to reach the Baltic Sea, 30 000 tons, therefore only 4% of that which in Europe emitted to the atmosphere in the form of evaporating solvents.
The emissions from the pulp and paper industry have so far tended to decrease, and this trend expected to continue. In addition, the Swedish emissions of chlorinated solvents are also expected to decrease due to programs involving the introduction of suitable non-chlorinated replacement solvents.
A corresponding, but maybe not quite as quick, decrease can be expected
OECD—Europe. In Eastern Europe, the modernisation of the economy could entail an initially increased use of chlorinated solvents. The load on the Baltic Sea expected to decrease however, but based on the decisions made, only with 10-20%. The changes in Eastern Europes industrial structure can easily initiate considerably larger changes.
Restoration measures regarding chlorinated compounds are possible only in a few cases where the spill of chlorinated organic substances such as PCB in the bottom sediment of lakes and streams can be prevented. The cost for identified measures of this kind in Sweden could be estimated to 100 million SEK.
One type of continuing defence could be seal sanctuaries where a reasonably large number maybe 50-100 of individuals of the threatened Baltic Sea seals could be saved until the living conditions in the Baltic Sea have been restored. Such seal sanctuaries could be maintained at a yearly cost of 10 million SEK at a few places along the Swedish east coast. The estimated capital to cover the operation cost; 200 million SEK.
At present, the seal population slightly increasing and so hopefully the need for seal sanctuaries will disappear in 30 years.
The Environmental Debt
Waste
The term waste in this context pertains to products or by-products that have no positive value for the owner, who therefore eager to get rid of them at the lowest possible price. The total quantity of waste generated Sweden on a yearly basis amounts with this definition to almost 60 million tons. The figure includes an estimate of the quantity of soil, sediment etc. that through contamination by environmental toxins over or under the often vague limit where officially regarded as hazardous waste becomes waste itself.
In this report, waste divided into four main groups waste hazardous to the environment, domestic waste, industrial waste and nuclear waste.
Hazardous waste
A calculated composition of the waste classed as hazardous to the environment shown in the table below
| Type of waste | Generated amount tonsyear |
| Oil waste | 180 000 |
| Metal waste | 120 000 |
| Acid and alkali waste | 70 000 |
| Other | 130 m |
| Total | 500 000 |
According to available statistics, the amount of hazardous waste increasing, but unlikely that the amount produced increasing. Instead,
increasing number of waste accounted for hazardous an types are as waste and join the statistics.
The treatment capacity of today clearly insufficient and for certain wastes treatment resources are lacking completely. The following table shows a summary of todays situation.
The Environmental Debt
| Waste recipient | Yearly amount tons |
| Industry | 150 000 |
| SAKAB | 40 000 |
| Export | 60 000 |
Storing and temporary deposition 150 000 Total 400 000 Unaccountable 100 000
Technical process improvements and innovations are expected to lead to a gradual decrease of the generated quantity of hazardous waste, but the rate of this trend hard to estimate todays conditions prevail. For a long time, can be expected that the reduced quantity of produced hazardous waste will be more than compensated by a reduced unaccountable fraction from improvements in statistics.
Important statistical changes and modifications of demands on treatment resources can also come into focus following new definitions and limitations.
for example sludge from communal sewage treatment plants would be classed as hazardous waste, which has been suggested, the generated quantity per year would increase with 1,5 million tons to a total of 2 million tons.
The current enviromnental debt in the form of untreated, stored or temporarily deposited waste can be estimated to be 15 billion SEK, corresponding to 3 million tons and a cost for environmentally correct treatment and final storage of 5 000 SEK per ton.
SAKABs average fee for treatment of hazardous waste currently amounts to 3 500 SEK per ton with a maximum for the most difficult to treat waste of 75 000 SEK per ton. The price estimate for treatment of Swedens hazardous waste based on the assumption that the untreated mountain of hazardous waste somewhat more difficult to treat than the average of that which treated by SAKAB today. The quantity estimate based on an accumulated quantity of 20 years of storing and temporary deposition at todays level. The quantity of hazardous waste that unaccountable by statistics as in the table above not included. This unaccountable fraction presently constitutes 20%
The Environmental Debt of the total and previously was larger. Thus in total, this unaccountable quantity could also amount to at least 3 million tons.
Another to illustrate the environmental debt in the form of hazardous
way waste to base the number of landfills that have been classed as risk
on landfills by the Swedish Environmental Protection Agency. The number 500. A treatment cost of 15 billion SEK would correspond to an average cost of 30 million per risk landfill for digging and treatment of the waste and contaminated soil. This does not seem to be an unreasonable price tag.
The yearly increase in the environmental debt estimated to be 150 000 tons for stored and temporarily deposited waste, and 100 000 tons for unaccountable hazardous waste, with an average cost of 5 000 SEK per ton, which makes a total of just over one billion SEK per year.
Domestic waste
The generated quantity of domestic waste in Sweden each year 2,5 million tens. The volume increasing and a lack of deposition locations and capacity for treatment gives rise to a removal problem. The waste composition also becoming increasingly complicated see below under the chemical society and thus technical and environmental problems during incineration or composting treatment are encountered. This leads to increased costs per treated unit of volume.
Waste sorting and the responsibility of manufacturers for the entire life cycle of the product necessary for future waste handling. Deposit systems
are
mainly experimental and have no effect on the total volumes. The fact that are the public has discovered that sorted waste subsequently brought together again and that the main of the operation was to study the inclination
purpose to accept sorting could make difficult to regain confidence for a full-scale operation. The following table shows the types of recipients of domestic waste used during the past 20 years
Form of recipient mLmmm
I 970 1980 1987 Landñlling 76 58 35
The Environmental Debt Composting 1 8 10 Incineration 23 34 55
If assumed that the amount of domestic waste has increased with 3%
between 1970 and 1980, and with 2% per year thereafter, found per year that the deposited amount during the twenty—year period amounts to approximately 20 million tons.
Several thousand landfills around the country, including many closed, are emitting leachates and contaminating surface and ground water. The emission of methane gas, which contributes to the greenhouse effect, also significant.
The cost for a total treatment of all old landfills, which can include digging
and moving, installation of bentonite walls, and leachate pumping, control up of methane fermentation and gas collection, roughly estimated to be 15 billion SEK.
This corresponds to an average of 5 million SEK in costs per landñll or 750 SEK per ton deposited domestic waste.
Todays deposition technique undoubtedly better than yesterdays, but on the average far from perfect. Consequently, the continuing deposition of domestic waste also expected to contribute to the environmental debt with a cost of 200 SEK per ton deposited, which currently comes to almost 200 million SEK per year.
Industrial and other waste
The total quantity of industrial waste produced each year in Sweden amounts to approximately 50 million tons. The largest posts are mining waste 28 million tons, forestry waste 8 million tons, construction and demolition waste 5 million tons, contaminated soil and sediment 6 million tons, food industry 3 million tons and iron and steel industry just over 1 million tons.
The accumulated amount of industry waste produced since 1950 approximated to be 1 000 million tons.
Old industrial waste landñlls almost never meet modern demands on environmentally correct deposition. The total volume of unsuitably
The Environmental Debt deposited waste of this kind can be estimated to around 100 million tons. Treatment of these large volumes of unsuitably deposited waste can include covering, protective walls for ground water, leachate pumping and in certain cases excavating. The environmental debt for treating these landfills estimated to be 8 billion SEK or an average of 80 SEK per ton.
In addition, todays deposition of industrial waste partly made on locations that are not environmentally suitable for final storage. The environmental debt taking care of this kind of waste consequently growing
with approximately 300 million SEK per year, corresponding to 6 SEK per ton waste.
Apart from these assigned landfills there are even unintentional landfills or in other words locally limited areas heavily contaminated, but where treatment efforts are environmentally motivated and technically feasible. Some of these historical environmental problems have gained a great deal of attention. Through appropriate actions these sites are not getting worse, and virtually no leaking problems occur, but existing damages still remain.
The list below shows seven such examples with an approximated number of cases in Sweden and an estimated cost for restoration.
Fibre banks with mercury approx. 50 1000 Million SEK
—
Pentachlorine contaminated ground at sawmills
-
approx. 100 areas 300 Million SEK
Creosote-contaminated streams at wood-
impregnation plants approx. 15 300 Million SEK
- 4. Bark-littered former timber storehouses
at log-driving sites approx. 100 100 Million SEK
— Former grounds for gas works, chemical industry etc. approx. 30 l 000 Million SEK
- Waste dumps and slag heaps at former mining industries approx. 30 300 Million SEK
—
The Environmental Debt
Eutrophicatedovergrown
lakes and streams -
approx. 500 2 000 Million SEK
Total 5 000 Million SEK
The listed examples constitute only a minor fraction of the remaining environmental problems, but all the same, the most talked-about, and investigated and maybe even the most expensive to treat. The cost for restoring these amounts to 5 billion SEK. The total that the environmental
debt for this kind of problem assumed to amount to l0 billion SEK. The
self healing slow an average of l% per year. The environmental debt
therefore assumed to increase along with the inflation.
The environmental debt in the form of treatment needs within waste areas
illustrated by estimates made by the Environment Protection Agency where 5 000 locations with contaminated industrial land and landfills requiring treatment were assigned. This cost estimate totals at 18 billion SEK for the group industrial and other waste conesponding to an average of 3,6 million SEK per site.
Radioactive waste
The radioactive wastes from nuclear plants have been the subject of a great deal of interest during the last 12-15 years.
The latest calculations indicate that the proposed disposal of nuclear wastes in connection with the planned phase—out of nuclear power in Sweden will cost 50 billion SEK. Since this includes contaminated parts of the plants themselves as well as other types of waste that do not increase in a linear fashion with operation time or power production, todays debt estimated to 70%, that 35 billion SEK.
BIOLOGICAL DIVERSITY
In a report for the Environmental Advisory Council, Jemelov and Kågeson systematise preservation and restoration motives for biological diversity Sweden, account for cost estimates and recommend actions. The largest
The Environmental Debt threats against species in Sweden come from alterations in land use and new techniques within forests and agricultural areas.
Certain parts of the efforts to conserve and restore biological diversity are relevant for the calculation of the environmental debt.
The costs for conserving threatened species in the form of Noahs ark zoological and botanical gardens can be seen as continuing defence. An estimated yearly cost for 130 million SEK corresponds to an environmental debt of 2,6 billion SEK.
Ditching of wetlands probably the most serious interference with the Swedish enviromnent regarding biochemical cycles. The restoration of 200 000 hectares of wetlands at a cost of 10 O00hectare corresponds to an environmental debt of 2 billion SEK.
The effects of recent years politics concerning agriculture and forestry on the cost for biological diversity and the environmental debt are unclear. The environmental debt regarding biological diversity therefore assumed to remain at the present level.
The Environmental Debt
FINAL REFLECTIONS
There are three purposes to this report. First, to introduce the concept of environmental debt to stress the fact that pollution and interference with the environment lead to reduced future possibilities for a high production and material standard of living. In this respect, the environmental debt similar to
financial debt that will require interest payments and subsequently be paid a off in the future.
The second purpose to illustrate how the environmental debt can be calculated. In many cases, the numerical data has been taken from other sources a list of references can be obtained from the author. In more uncertain cases, estimates and calculations are based on the authors opinions. The reader can however, follow these procedures and make hisher own assumptions and calculations based thereupon. The uncertainty many cases considerable, and the accounted numbers can in several cases seem provocative. Even for my own pan I must admit that I have been surprised over some relative or absolute part of the environmental debt. A possible debate as well as other persons calculations would undoubtedly lead to a more certain base and a better understanding for the future economical effects of todays different activities on the environment field.
The third purpose to discuss the development of the environmental debt. Are we paying or borrowing That question unilaterally answered by the report even in Sweden we are still borrowing from future generations, in spite of all that has been done already.
Respect for future generations precisely carrying the moral argument for taking care of the enviromnent. This appears in the report from the World Commission on Environment and Development; without jeopardising the possibilities of future generations to satisfy their needs, and also the words of wisdom that are said to originate from an old Sioux chief; nature not something we inherited from our ancestors, something we borrowed from our children.
The Environmental Debt
we look at nature as something we borrowed from our children, becomes natural to think that we will leave what we borrowed in its original condition or together with resources for restoring the borrowed in its original condition. This can be said to be the fundamental philosophy behind the concept of environmental debt.
Within certain limited parts of our economy, we utilise a kind of environmental debt concept. In the costs for nuclear power, we include waste disposal and costs for demolition of nuclear plants. During certain mining enterprises, the exploiter forced to visually restore the area, which means that the cost included the price of the merchandise. When industrial properties and enterprises are transferred in the USA today, the question of a possible environmental debt of great consequence to the price. Several Swedish companies have encountered problems when they have neglected to rightly valuate this environmental debt.
The restoration cost has also been discussed, for example extended hydroelectric power. Valfrid Paulsson has said that for the same amount of money that takes to build one kilometre of motor way, should be possible to restore a built—out river to nearly its original state. The power industry has later taken this into consideration and suggested that one could borrow a river for exploitation during a certain time and then restore it.
Based on this cost estimate, the environmental debt in the form of restoration cost for Swedish hydro—electric power could be calculated and compared to the phase-out cost and environmental debt for other sources of energy.
Many persons with whom I have discussed the concept of environmental debt have spontaneously wanted to include neglected maintenance and thereby, future large repairs and new investments in communal cable networks. As this concerns restoration of a part of the technosphere therefore not included in the concept of environmental debt as defined this report.
with some hesitation that I now part with this report. Several revisions and recalculations are behind this version and there surely a lot more that
The Environmental Debt can and should be done to specify the environmental debt. However, I hope that the report will inspire more people to take apart in this work.
Statens 1992
offentliga utredningar
Kronologisk förteckning
kompetens.Grundutbildningens 37.Psykiatrinochdesspatienter-levnadsförhållanden, 1.Frihet ansvar--
villkori högskolan.U. vårdensinnehållochutveckling. Reglerför risker.Ettseminarium varförviom 38.Friståendeskolor.Bidragochelevavgifter.U.
tillåtermerföroreningarinneänute.M. 39.Begreppetarbetsskada.
Psykisktstördassituationkommunernai 40.Risk-ochskadehanteringistatligverksamhet.Fi.
-enprobleminvcntcringsocialtjänstensur 41.Angåendevattenskotrar.M.
perspektiv. 42.Kretslopp BasenförhållbarStadsutveckling.M.
- 4.PsykiatriniNorden-ettjämförandeperspektiv.S. 43.EcocyclesTheBasisofSustainableUrban
-
Koncessionförförsäkringssammanslutningar.Fi. Development.M.
Nymervärdesskattelag. 44.Resurserförhögskolansgrundutbildning.U.
Motiv.Del 45.Miljöfarligtavfall ansvarochriktlinjer.M.
- -
Författningstextochbilagor.Del Fi. 46.Livskvalitetförpsykisktlångtidssjukaforskning
-- - Kompetensutvecklingennationellstrategi.A. kringservice,stödochvård.
- Fastighetstaxering Bostadsrätter.Fi. 47.Avregleradbostadsmarknad,DelII. Fi.
m.m.- Ekonomiochrätti kyrkan.C. 48.EffektivarestatistikstymingDenstatliga
-
l0.Ettnyttbolagförrundradiosändningar.Ku. statistikensfinansieringochsamordning.Fi. ll. Fastighetsskatt.Fi. 49.EES-anpassningavmarknadstöringslagstiftningeu.
12.Konstnärlighögskoleutbildning.U. C 13.Bundnaaktier.Ju. 50.Avgifterochhögkostnadsskyddinomäldte-och 14.Mindrekadmiumihandelsgödsel.Jo. handikappomsorgen.S 15.Ledningochledarskapi högskolannågra 51.Översyn sjöpolisen.av Ju.
-
perspektivochmöjligheter.U. 52.Ettsamhälleföralla. 16.Kroppenefterdöden. 53.Skatt dieselolja.Fi. 17.Densistaundersökningenobduktioneni ett 54.Merför mindre nyastyrformerförbam-och
- -
psykologisktperspektiv. ungdomspolitiken.C. 18.Tvångsvårdisocialtjänstenansvarochinnehåll. 55.Rådför forskningomtransporteroch
- 19.Långtidsutredningen Fi.1992. kommunikation.K. 20.Statenshundskola.Ombildningfrånmyndighettill Rådförforskningomtransporteroch
aktiebolag.S. kommunikation.Bilagor.K. 21.Bostadsstödtill pensionärer. 56.Färjorochfarleder.K. 22.EES-anpassningavkreditupplysningslagen.Ju. 57.Beskattningavvissanaturaförmånerm.m.Fi. 23.Kontrollfrågori tulldatoriseringen Fi.m.m. 58.Miljöskulden.Enrapportomhurmiljöskulden 24.Avregleradbostadsmarknad.Fi. utvecklasom ingentinggör.M. 25.Utvärderingavförsöksverksamhetenmed3-årig 59.Läraruppdraget.U.
yrkesinriktadutbildningigymnasieskolan.U. 60.Enklarereglerförstatsanställda.Fi. 26.Rättentill folkpensionkvaliñkationsregleri 61.Ettreformeratåklagarväsende.Del.Aoch Ju.B.
-
internationellaförhållanden. 62.Forskningochutvecklingförtotalförsvaretförslag
—- 27.Årsarbetstid.A. till åtgärder.Fö.
28.Kartläggningavkasinospelenligtinternationella 63.Regionalaroller enperspektivstudie.C.
- -
regler.Fi. 64.Utsiktmotframtidensregionersjudebattinlägg.C.
- 29.SmittskyddsinstitutetnyorganisationförSveriges 65.Kartboken.C.
-
nationellasmittskyddsfunktioner. 66.Västsverigeregioni utveckling.C.
—- 30.KreditförsältringNågraaktuellaproblem.Fi. 67.Fonsattreformeringavföretagsbeskattningen.Del
- 31.Lagstiftningomsatellitsändningarav Fi.
TV-program.Ku. 68.Långsiktigmiljöforskning.M. 32.NyaInlandsbanan.K. 69.Meningsfullvistelse asylförläggning.Ku.
33.Kasinospelsverksamheti folkrörelsemastjänst C. 70.Telelag.K. 34.Fastighetsdatasystemetsdatorstruktur.M. 71.Bostadsförmedlinginyaformer.Fi. 35.Kart-ochmätningsutbildningari nyaskolformer.M. 72.Detkommunalamedlemskapet.C.
36.RadioochTV ett.i Ku.
Statens 1992
offentliga utredningar
Kronologisk förteckning
73.Välfärdochvalfrihet-service,stödochvårdför 105.Administrativtstödtill Försvarsmakten.Fö.
psykisktstörda. 106.Civilbetälhavama.Fö. 74.Provaprivat ProvningochmätteknikinomSP l07.Kulturstödvid ombyggnad.Ku.
-
ochSMPieuropaperspektiv.N. 108.VAL,OrganisationTeknikEkonomi.Ju. 75.Ekonomiskpolitikunderkriserochi krig.Fi. 109.Investeringariarrendejordbruketochandra 76.Skogspolitikeninför2000-talet.l-luvudbetän- arrenderättsligafragor.Ju.
kande.Skogspolitikeninför2000-talet.Bilagor 110.InformationochdennyalnfomiationsTeknologin
Skogspolitikeninför2000-talet.Bilagorll. Jo. straff-ochprocessrättsligafrågormm.Ju.
— 77.Psykisktstördaisocialförsäkringenett l11.Denframtidaskogsvärdsorganisationen.Jo.
-
kunskapsunderlag. 112.Administrationeni kartslihuset. 78.Utredningenomvissainternationellainsolvens- KlaraadministrationenBilaga.Fi.
-
fragor.Ju. 113.Lagomföretagsrekonstruktion.Ju. 79.Statensfastigheterochlokaler nyorganisation. 114.Malmöregionenstrafiksystem.Överenskommelse
-
Fi. omåtgärderi trafikensinfrastruktur.K. 80.Kriminologiskochkriminalpolitiskforskning.Ju. 115.Kontrolli konkurrensavvecklingavABSvensk
- 81.Trafikpolisenmerändubbeltbättre.Ju. Bilprovningsmonopolpåkontrollbesiktning.K. 82.Genteknikenutmaning.Ju. 116.Privatförmedlingochuthyrningavarbetskraft.A.
- 83.AktiebolagslagenochEG.Ju. 117.Konsumenternaochlägprisbutiken.Enstudieav 84.Ersättningförkränkninggenombrott.Ju. ändradeköpvanori dagligvanrhandeln..lo 85.Förvaltningavförsvarsfastigheter.Fö. 118.Arvodenför värdhosprivatpraktiserandeiäkare. 86.Ettnyttbetygssystem.U. 119.Svenskträdgårdsnäringnulägeochutvecklings-
— 37.ÅtgärderförattförberedaSverigesjordbrukoch möjligheter.Jo.
livsmedelsindustriförEG förslagomvegeta- 120.Allmännaarvsfonden.
biliesektom,livsmedelsexportenochdenekolo l2l. Vissamervärdeskattefrägor.Fi. giskaproduktionen.Jo. 122.Socialbakgrundstudiestödochövergångtill
-
88.Veterinärverksamhetbehov,organisationoch högrestudier.U.
-
finansiering.Jo. 123.EtthavavmöjligheterAMU-Gruppenpåvägmot
- 89.Bostadsbidragenklare rättvisare billigare. 2000-taletsutbildningsmarknad.A.
- - - 90.Biobränslenförframtiden.Jo. 124.Biståndunderomprövning.Översyn-avdetsvenska
91.Biobränslenför framtiden.Bilagedel.Jo. utvecklingssamarbetetmedMoçambique.UD. 92.Pliktleverans.U. 125.ÅtgärderförattförberedaSverigesjordbrukoch
93.Svenskskolai världen.U. livsmedelsindustriförEG förslagomanimalie-
- 94.Skolaförbildning.U. sektorn.Jo. 95.Densvenskamarknadenförprojektkapital 126.SwedishEnvironmentalDebLM.
statensnuvarandeochframtidaroll.N.
-— 96.Förbudmotetniskdiskrimineringi arbetslivet.
Ku. 97.Spararvi förlite l-lushällssparandeti samhälls-
ekonomin.Fi. 98.Kommunernassocialbidragenkartläggningav
-
normer,kostnaderm.m. 99.Rådgivningeninomjordbruketochträdgårds-
näringen.Jo. 100.Statenocharbetsgivarorganisationerna.Fi. 101.Försvarsmaktensltälso-ochsjukvård.Fö. 102.Myndigheternasförvaltningskostnader
budgetering pris-ochav löneförändringar.Fi.
- 103.FHU92.A. 104.VaruppgiftefterRio svenskhandlingsplan
-
inför2000-talet.M.
Statens 1992
offentliga utredningar
Systematisk förteckning
Utrikesdepartementet Livskvalitetförpsykisktlångtidssjuka
forskningkringservice.stödochvård.[46] Biståndunderomprövning.Översynavdetsvenska -
Avgifterochhögkostnadsskyddinomåldre-och utvecklingssamarbetemedMoçambique.[124]
handikappomsorgen.[50]
Justitiedepartementet Ettsamhälleför alla.[52]
Välfärdochvalfrihet- service,stödochvårdför Bundnaaktier.
psykisktstörda.[73] EES-anpassningavkreditupplysningslagen.[22]
Psykisktstördai socialförsäkringenettkunskaps- Översyn sjöpoliscn.[51] -
av underlag.[77] Ettreformeratåklagarväsende.DelAochB. [61]
Bostadsbidragenklare rättvisarebilligare.[89] Utredningen vissainternationellainsolvens- - - —
om Kommunernassocialbidrag kartläggning
- en av frågor.[78]
nomter,kostnaderm.m.[98] Kriminologiskochkriminalpolitiskforskning.[80]
Arvoden vårdför hosprivatpraktiserandeläkare.[118] Trafikpolisenmerändubbeltbättre.[81]
Allmännaarvsfonden.[120] Genteknik enutmaning.[82]
- AktiebolagslagenochEG.[83] Kommitnikationsdepartementet
Ersättningförkränkninggenombrott.[84]
NyaInlandsbanan.[32] VAL.OrganisationTeknikEkonomi.[108]
Rådförforskningomtransporterochkommunikation. Investeringariarrendejordbruketochandraarrende-
Rådförforskningomtransporterochkommunikation. rättsligafrågor.[109]
Bilagor.[55] InformationochdennyalnformationsTeknologin
Färjorochfarleder.[56]
straff-ochprocessrättsligafrågorm.m.[110] - Telelag.[70] Lagomföretagsrekonstruktion.[113]
Malmöregionenstrafiksystem.Överenskommelse
Försvarsdepartementet omåtgärderi trafikensinfrastruktur.[114]
Kontrolli konkurrensavvecklingavABSvensk Forskningochutvecklingförtotalförsvaretförslag -
- Bilprovningsmonopolpåkontrollbesiktning.15] till åtgärder.[62]
Förvaltningavförsvarsfastigheter.[85] Finansdepartementet
Försvarsmaktenshålso-ochsjukvård.[101]
Koncessionförförsäkringssammanslutningar.[5] Administrativtstödtill Försvarsmakten.[105]
Nymervärdesskattelag. Civilbefälhavama.[106]
Motiv.Del
- Socialdepartementet Författningstextochbilagor.Del [6]
-
Fastighetstaxering Bostadsrätter.[8] Psykisktstördassituationikommunerna m.m.-
Fastighetsskatt. -enprobleminventeringsocialtjänstensur perspektiv.[3]
Långtidsutredningen1992.[19] PsykiatriniNorden ettjämförandeperspektiv.[4]
- Kontrollfrågori tulldatoriseringenm.m.[23] Kroppenefterdöden.[16]
Avregleradbostadsmarknad.[24] Densistaundersökningenobduktioneniett
- Kartläggningavkasinospelenligtintentationella psykologisktperspektiv.[17] -
regler.[28] Tvångsvårdi socialtjänstenansvarochinnehåll.[18]
- KreditförsäkringNågraaktuellaproblem.[30] Statenshundskola.ombildningfrånmyndighettill -
Risk-ochskadehanteringi statligverksamhet.[40] aktiebolag.[20]
Avregleradbostadsmarknad,DelIl. [47] Bostadsstödtill pensionärer.[21]
EffektivarestatistikstymingDenstatligastatistikens Rättentill folkpensionkvaliñkationsregleri -
- finansiering samordning.och [48] internationella [26]
Skattpådieselolja.[53] Smittskyddsinstitutetnyorganisation Sverigesför
- Beskattning vissaav naturaförmåner [57]m.m. nationellasmittskyddsfunktioner.[29]
Enklarereglerförstatsanstållda.[60] Psykiatrinochdesspatienter levnadsförhållanden,
- Fortsattreformeringavföretagsbeskattningen.Del vårdensinnehållochutveckling.[37]
[67] Begreppetarbetsskada.[39]
Bostadsförmedlingi nyafonner.[71]
Statens 1992
offentliga utredningar
Systematisk förteckning
Ekonomiskpolitik underkriserochi krig.[75] ÅtgärderförattförberedaSverigesjordbrukoch
Statensfastigheterochlokaler nyorganisation.[79] livsmedelsindustnför EG förslagomanimalie-
- - Spararvi forlite Hushallssparandeti samhälls- sektorn.[125]
ekonomin.[97]
ocharbetsgivarorganisationema.[100] Arbetsmarknadsdepartementet Staten Myndigheternasförvaltningskostnader Kompetensutveckling nationellen strategi.[7]
-
budgetering pris-av ochlöneiörändringar.[102] Årsarbetstid.[27] - Administrationeni kanslihuset. FHU92[103]
KlaraadministrationenBilaga.[112] Privatförmedlingochuthyrningavarbetskraft.[116]
- Vissamervärdeskattefrágor.[121] Etthavavmöjligheter AMU-Gruppenpåvägmot
-
2000-taletsutbildningsmarknad.[123] Utbildningsdepartementet
Gnrndutbildningens Kulturdepartementet Frihet ansvar- kompetens.
villkor Ettnyttbolagför rundradiosändningar.[10] i högskolan.[l] LagstiftningomsatellitsändningarTV-program.av Konstnärlighögskoleutbildning.[12] [31] Ledningochledarskapi högskolan nâgraperspektiv RadioochTV i ett.[36]
ochmöjligheter.[15] Meningsfullvistelsepáasylförläggning.[69] Utvärderingavtörsöksverksamhetenmed3-årig Förbudmotetniskdiskrimineringiarbetslivet.[96]
yrkesinriktadutbildningi gymnasieskolan.[25] Kulturstödvidombyggnad.[107]
Friståendeskolor.Bidragochelevavgifter.[38] Resurserförhögskolansgrundutbildning.[44] Näringsdepartementet
Läraruppdraget.[59] Provaprivat ProvningochmätteknikinomSPoch
- Ettnyttbetygssystem.[86] SMPi europaperspektiv.[74]
Pliktleverans.[92] Densvenskamarknadenförprojektkapitalstatens
- Svenskskolai världen.[93] nuvarandeochframtidaroll. [95] Skolaför bildning.[94]
studiestödochövergångtill Civildepartementet Socialbakgrund—— högrestudier.[122] Ekonomiochrätti kyrkan.[9]
Kasinospelsverksamheti folkrörelsemastjänst [33] Jordbruksdepartementet
EES-anpassningavmarknadsföringslagstiftrtingen.[49] Mindrekadmiumi handelsgödsel.[14] Merför mindre nyastyrforrnerförbarn-och
- Skogspolitikeninför2000-talet.Huvudbetänkande. ungdomspolitiken.[54]
[76] Regionalaroller enperspektivstudie.[63]
- Skogspolitikeninför2000-talet.Bilagor [76] Utsiktmotframtidensregioner sjudebattinlägg.[64]
- Skogspolitikeninför2000-talet.BilagorII. [76] Kartboken.[65] Åtgärderför attförberedaSverigesjordbrukoch Västsverigeregioni utveckling.[66]
livsmedelsindustriförEG förslagomvegetabilie- kommunalamedlemskapet.[72]
- Det sektorn.livsmedelsexportenochdenekologiska
produktionen.[87] Veterinärverksamhetbehov.organisationoch
finansiering.[88]
Biobränslenför framtiden.[90] Biobränslenförframtiden.Bilagedel.[91]
Rådgivningeninomjordbruketoch
uädgårdsnäringen.[99] Denframtidaskogsvårdsorganisationen.[111]
Konsumenternaochlagprisbutiken.Enstudieav
ändradeköpvanori dagligvaruhandeln.17] Svensklrädgárdsnäringnulägeochutvecklings
möjligheter.[119]
1992 Statens offentliga utredningar
Systematisk förteckning
Miljö- och naturresursdepartementet Reglerförrisker.Ettseminariumomvarförvitillåter merföroreningarinneänute.[2] FastighetsdatasystemeLsdalorstruktur.[34] Kart-ochmämingsutbildningarinyaskolformer.[35] Angåendevatwnskouar.[41] Kretslopp BasenförhållbarStadsutveckling.[42]
- EcocyclesTheBasisofSustainableUrbanDevelop-
— ment.[43] Miljöfarligtavfall ansvarochriktlinjer.[45]
- Miljöskulden. rapportomEn hurmiljöskulcienutvecklasomviingentinggör.[58] Långsiktigmiijöforskning.[68] VåruppgiftefterRio svenskhandlingsplaninför
—— 2000-talet.[104] SwedishEnvironmentalDebt.[126]
n., usa-a...
fi. 3153..
1993-01-13
STC-C .LiOLv
Al. .I x . A l‘1<1..<;1c‘I‘
BsrK1.LNmcAxF|u1z£s KUNDTJÄNST, 47xo6 STOCKHOLM FAX08-2050 TELEFON08-690 fg 21, 9090
ISBN91-38--13230-3 ISSN0375-250X