![]() | The Global Greenhouse Regime. Who Pays? (UNU, 1993, 382 p.) |
![]() | ![]() | List of contributors |
![]() | ![]() | Preface |
![]() | ![]() | Acknowledgements |
![]() | ![]() | Part I Measuring responsibility |
![]() | ![]() | 1 Introduction |
![]() | ![]() | (introduction...) |
![]() | ![]() | The greenhouse effect |
![]() | ![]() | What was decided at Rio? |
![]() | ![]() | Protocol negotiating difficulties |
![]() | ![]() | Key issues for climate change negotiations |
![]() | ![]() | References |
![]() | ![]() | 2 The basics of greenhouse gas indices |
![]() | ![]() | (introduction...) |
![]() | ![]() | Apples and oranges |
![]() | ![]() | Implications |
![]() | ![]() | Conclusion: indices do matter |
![]() | ![]() | References |
![]() | ![]() | 3 Assessing emissions: five approaches compared |
![]() | ![]() | (introduction...) |
![]() | ![]() | Introduction |
![]() | ![]() | Comprehensiveness compared |
![]() | ![]() | Accuracy by category |
![]() | ![]() | Regional and national emissions by source |
![]() | ![]() | Conclusions |
![]() | ![]() | References |
![]() | ![]() | Appendix A: Estimates of greenhouse gas emissions |
![]() | ![]() | Appendix B: Calculating cumulative and current emissions |
![]() | ![]() | 4 Who pays (to solve the problem and how much)? |
![]() | ![]() | (introduction...) |
![]() | ![]() | Indices of allocation: a brief review |
![]() | ![]() | Accountability |
![]() | ![]() | Equity and efficiency |
![]() | ![]() | Conclusion |
![]() | ![]() | References |
![]() | ![]() | Part II Resource transfers |
![]() | ![]() | 5 North-South carbon abatement costs |
![]() | ![]() | (introduction...) |
![]() | ![]() | Climate change convention |
![]() | ![]() | Method overview |
![]() | ![]() | Implications for the South |
![]() | ![]() | Notes and references |
![]() | ![]() | 6 North-South transfer |
![]() | ![]() | (introduction...) |
![]() | ![]() | Obligation to pay indices |
![]() | ![]() | Redistribution of incremental cost |
![]() | ![]() | Benchmarks |
![]() | ![]() | UN scale of payments |
![]() | ![]() | Financing mechanisms |
![]() | ![]() | Conclusion |
![]() | ![]() | Notes and references |
![]() | ![]() | 7 Insuring against sea level rise |
![]() | ![]() | (introduction...) |
![]() | ![]() | Insurability of losses |
![]() | ![]() | Oil pollution |
![]() | ![]() | Nuclear damage |
![]() | ![]() | Implications |
![]() | ![]() | The insurance scheme proposed by AOSIS |
![]() | ![]() | The Climate Change Convention |
![]() | ![]() | Notes and references |
![]() | ![]() | Appendix: Scheme proposed by AOSIS for inclusion in the Climate Change Convention |
![]() | ![]() | Part III National greenhouse gas reduction cost curves |
![]() | ![]() | 8 Integrating ecology and economy in India |
![]() | ![]() | (introduction...) |
![]() | ![]() | Introduction |
![]() | ![]() | Emissions inventory |
![]() | ![]() | Energy efficiency and fuel substitution |
![]() | ![]() | Emissions and sequestration from forest biomass |
![]() | ![]() | Conclusions |
![]() | ![]() | References |
![]() | ![]() | 9 Carbon abatement potential in West Africa |
![]() | ![]() | (introduction...) |
![]() | ![]() | Introduction |
![]() | ![]() | Long-term energy and carbon emissions scenarios |
![]() | ![]() | Options for rational energy use and carbon conservation |
![]() | ![]() | Economic opportunities for implementation |
![]() | ![]() | Policy issues for the region |
![]() | ![]() | Conclusions |
![]() | ![]() | References |
![]() | ![]() | 10 Abatement of carbon dioxide emissions in Brazil |
![]() | ![]() | (introduction...) |
![]() | ![]() | Brazil energy economy |
![]() | ![]() | Energy subsector analyses |
![]() | ![]() | Changing land-use trends |
![]() | ![]() | Conclusion |
![]() | ![]() | References |
![]() | ![]() | 11 Thailand's demand side management initiative: a practical response to global warming |
![]() | ![]() | (introduction...) |
![]() | ![]() | Introduction |
![]() | ![]() | End-use energy efficiency policies |
![]() | ![]() | Costs and benefits of the DSM master plan |
![]() | ![]() | CO2 reductions from the DSM Plan |
![]() | ![]() | Why should other developing countries adopt DSM? |
![]() | ![]() | The role of the multilateral development banks |
![]() | ![]() | Conclusions |
![]() | ![]() | References |
![]() | ![]() | 12 Carbon abatement in Central and Eastern Europe and the Commonwealth of Independent States |
![]() | ![]() | (introduction...) |
![]() | ![]() | Energy-environment nexus |
![]() | ![]() | Scenarios for the future |
![]() | ![]() | Country results |
![]() | ![]() | Policy implications |
![]() | ![]() | Conclusion |
![]() | ![]() | References |
![]() | ![]() | 13 Greenhouse gas emission abatement in Australia |
![]() | ![]() | (introduction...) |
![]() | ![]() | Abatement of energy sector emissions |
![]() | ![]() | Economic impact of abatement strategies |
![]() | ![]() | Non-energy emission abatement |
![]() | ![]() | Australia's international role |
![]() | ![]() | Carbon taxes, externalities and other policy instruments |
![]() | ![]() | References |
![]() | ![]() | Part IV Conclusion |
![]() | ![]() | 14 Constructing a global greenhouse regime |
![]() | ![]() | (introduction...) |
![]() | ![]() | Conditionality and additionality |
![]() | ![]() | Technology transfer |
![]() | ![]() | Multi-pronged approach |
![]() | ![]() | Implementation procedures |
![]() | ![]() | Regional building blocks |
![]() | ![]() | North-'South' conflicts |
![]() | ![]() | Conclusion |
![]() | ![]() | Notes and references |
![]() | ![]() | Appendix: The Climate change convention |
![]() | ![]() | Introduction |
![]() | ![]() | Background |
![]() | ![]() | Climate change convention |
![]() | ![]() | Article 1. Definitions |
![]() | ![]() | Article 2. Objective |
![]() | ![]() | Article 3. Principles |
![]() | ![]() | Article 4 Commitments |
![]() | ![]() | Article 5. Research and systematic observation |
![]() | ![]() | Article 6. Education, training and public awareness |
![]() | ![]() | Article 7. Conference of the Parties |
![]() | ![]() | Article 8. Secretariat |
![]() | ![]() | Article 9. Subsidiary body for scientific and technological advice |
![]() | ![]() | Article 10. Subsidiary Body for implementation |
![]() | ![]() | Article 11. Financial mechanism |
![]() | ![]() | Article 12. Communication of information related to implementation |
![]() | ![]() | Article 13. Resolution of questions regarding implementation |
![]() | ![]() | Article 14. Settlement of disputes |
![]() | ![]() | Article 15. Amendments to the Convention |
![]() | ![]() | Article 16. Adoption and amendment of annexes to the Convention |
![]() | ![]() | Article 17. Protocols |
![]() | ![]() | Article 18. Right to vote |
![]() | ![]() | Article 19. Depositary |
![]() | ![]() | Article 20. Signature |
![]() | ![]() | Article 21. Interim arrangements |
![]() | ![]() | Article 22. Ratification, acceptance, approval or accession |
![]() | ![]() | Article 23. Entry into force |
![]() | ![]() | Article 24. Reservations |
![]() | ![]() | Article 25. Withdrawal |
![]() | ![]() | Article 26. Authentic texts |
Cumulative CO2, energy only
As it takes many decades for CO2 to be removed from the atmosphere, the increase in concentration of CO2 from pre-industrial levels is largely due to CO2 emitted in past decades. In this respect, historical CO2 emissions are much more relevant to the level of committed atmospheric warming than are current emissions. Emissions from past energy use, however, make up a smaller portion of total CO2 release than today's fossil fuel emissions because CO2 from land clearing may have been roughly comparable with fossil fuel related CO2 until the middle of this century (see Figure 3.1). Emissions from fossil fuel combustion since the start of the industrial revolution are estimated to be 175 to 215 gigatonnes (GT) of carbon (C), representing between about 55 and 70 per cent of total anthropogenic CO2 release (IPCC 1990). Contributions to warming, however, are considerably lower because CO2 is but one of the gases contributing to the heating effect. Considering both the change in fossil fuel emissions over time (Keeling 1973; Marland et al. 1990) and the estimated contribution of CO2 to total warming (IPCC 1990), it is calculated that cumulative CO2 emissions from energy may contribute about 40 per cent of the warming effect of the trace gases now in the atmosphere.
Figure 3.1 Historic
CO2 emissions compared
Cumulative CO2, energy and biota
About 60 per cent of the warming effect of anthropogenic greenhouse gas emissions in the atmosphere is thought to be from CO2 or cumulative CO2 emissions from energy and biota (IPCC 1990).
CO2, energy only (current)
Although current CO2 emissions from energy is the least comprehensive of the five categories considered here, CO2 from energy alone is the major warming source from current emissions. Emissions from energy consumption contribute about 65 per cent of the expected warming effect of the trace gases now being emitted, if halocarbons are excluded from the total. This CO2 share of warming reflects the use of the IPCC's GWP for a 100 year period, published in 1992 (IPCC 1992). The estimated warming is only 60 per cent of the total if the IPCC's 1990 GWPs are employed and no doubt will change as the IPCC revises in the future.
Partial CH4 and CO2
This category, as defined above, covers about 80 per cent of the warming effect of current greenhouse gas emissions excluding halocarbons. Halocarbons have been omitted from the current emissions total because they are already being phased out under the Montreal Protocol.
Comprehensive emissions
The comprehensive approach to emission measurement theoretically represents 100 per cent of current greenhouse gas emissions.
The influence of time horizon
The relative comprehensiveness of the energy and modified comprehensive approaches varies considerably depending on how much of the heating effect of the different gases is taken into account. In Figure 3.2, current emissions are compared using three CO2 equivalence indices including the potential heating effect of the gases over a 20, 100, and 500 year time horizon. In the 20 year time horizon, CO2 from energy contributes only about 45 per cent of the total heating effect because the index based on the shorter time horizon does not capture the ultimate heating effect of CO2, which continues many decades beyond the atmospheric residence time of CH4, the next most important greenhouse gas. Accordingly, the proportion of the total heating contribution due to CO2 from energy is much higher about 70 per cent - over the longer time horizon.
Figure 3.2 Contributions to total emissions by
source