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Title page 1
Contents 6
Disclaimers 3
Abstract 4
Acknowledgements 5
Main findings 9
1. Introduction 11
2. Baseline business-as-usual scenario (BAU1): slower global potential growth in a warming world 16
2.1. Global output growth continues to moderate and greenhouse gas emissions only fall slowly 16
2.2. Global output per capita growth also slows but less than headline growth 18
2.3. Labour efficiency is the main driver of future gains in output per capita 22
2.4. Convergence toward US living standards is modest in most areas 25
2.5. The thorny temperature-to-climate damage relationship 27
3. The impacts of an energy transition scenario are highly uncertain 29
3.1. Four energy transition scenarios to consider two key sources of uncertainty 30
3.2. Comparing energy transition scenarios 38
References 39
Further reading 44
Annex A. Additional methodological information 45
Annex B. Recent changes to the structure and coverage of the OECD Long-Term Model 48
Annex C. Adding a climate damage channel to the OECD Long-Term Model 72
Tables 7
Table 1. Assumptions for energy transition scenarios 30
Figures 6
Figure 1. Scenario matrix 12
Figure 2. The business-as-usual (BAU1) scenario in a snapshot 17
Figure 3. Global output and output per capita growth 19
Figure 4. Average annual potential output per capita growth from 2025 to 2050 20
Figure 5. Revisions to average annual potential output per capita growth from 2025 to 2050 21
Figure 6. Average annual trend labour efficiency growth from 2025 to 2050 22
Figure 7. Cross-country variation in convergence speeds associated with framework conditions 24
Figure 8. Revisions to average annual trend labour efficiency growth from 2025 to 2050 25
Figure 9. Convergence in living standards out to 2100 is generally modest 26
Figure 10. A selection of climate damage estimates from various studies 27
Figure 11. Cumulative loss of potential output due to climate change 28
Figure 12. Global climate damage curves in scenarios BAU1 and BAU2 29
Figure 13. Global outcomes in energy transition scenario ET1 with comparison to BAU1 33
Figure 14. Impact of energy transition on global potential output per capita in ET1 scenario 34
Figure 15. Impact of energy transition on global potential output per capita in ET2 scenario 35
Figure 16. Impact of energy transition on global potential output per capita in ET3 scenario 36
Figure 17. Impact of energy transition on global potential output per capita in ET4 scenario 36
Figure 18. Impact of transition on potential output per capita by 2050 in ET4 scenario 37
Figure 19. Number of countries with higher output per capita in energy transition scenario than in the relevant business-as-usual scenario 38
Figure 20. Projected level of global potential output per capita 38
Boxes 7
Box 1. The framework for potential output projections and decompositions 13
Box 2. The impact on output of carbon mitigation policies taken in isolation 30
Annex Tables 7
Table A A.1. Main aggregates in the LTM 45
Table A B.1. Countries in the OECD Long-Term Model 49
Table A B.2. Individual countries with no cohort model for which the simplified approach is used 52
Table A B.3. Summary of structural indicators affecting the speed of convergence 56
Table A B.4. Composition of the KOF Swiss Economic Institute economic globalisation index 57
Table A B.5. Estimated equation for mixed convergence in trend labour efficiency 58
Table A B.6. Summary of methodological changes to potential output projections 69
Table A C.1. Global social cost of carbon in the LTM 78
Annex Figures 7
Figure A B.1. Most of the world's population will eventually be in the newly added countries 50
Figure A B.2. The projected evolution of the trend employment rate in a representative low-income African country, from 2025 53
Figure A B.3. Projected trend employment rates 54
Figure A B.4. Frequency distributions for selected framework conditions 56
Figure A B.5. Frequency distribution of implied convergence speeds in 2023 (δ, 2023) 60
Figure A B.6. Some stylised examples of trend labour efficiency growth patterns 61
Figure A B.7. Projected trend labour efficiency growth rates 63
Figure A B.8. Projected trend labour efficiency levels relative to the United States 64
Figure A B.9. Relationship between estimated capital stock per capita and electricity demand in advanced economies in 2019 65
Figure A B.10. Capital stock scrapping rate 66
Figure A B.11. Projected gross fixed capital formation by region 68
Figure A B.12. Projected capital-to-output ratios by region 68
Figure A B.13. Projected trend real GDP per capita relative to the United States by region 69
Figure A B.14. Real GDP per capita relative to the United States 71
Figure A C.1. Schematic view of the approach to climate damages in the LTM 73
Figure A C.2. Global climate damage as a function of the global surface temperature anomaly 77
Figure A C.3. Index of relative sensitivity to climate damage (θ) 81
Figure A C.4. Global environmental damages for 2℃ of warming due to changing country weights 84
Figure A C.5. Temperature anomaly and economic damages in baseline scenario 84
Figure A C.6. Economic damages in 2100 in BAU1 scenario 85
Annex Boxes 7
Box A C.1. Measuring the macroeconomic costs of climate change: top-down and bottom-up approaches 82
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