Abstract
In this paper, we analyse the impact of carbon taxes on emission levels, when niche markets exist for new carbon-free technologies, and when these technologies experience ``learning-by-doing'' effects. For this purpose, a general equilibrium model has been developed, DEMETER, that specifies two energy technologies: one based on fossil fuels and one on a composite of carbon-free technologies. Initially, the carbon-free technology has relatively high production costs, but niche markets ensure positive demand. Learning-by-doing decreases production costs, which increases the market share, which in turn accelerates learning-by-doing, and so forth. This mechanism allows a relatively modest carbon tax, of about 50 US$/tC, to almost stabilise carbon emissions at their 2000 levels throughout the entire 21st century. Sensitivity analysis shows that the required carbon tax for emission stabilisation crucially depends on the elasticity of substitution between the fossil-fuel and carbon-free technology.
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References
Boyd, R. and N.D. Uri (1991), ‘An Assessment of the Impacts of Energy Taxes’, Resources and Energy 13, 349–379.
Beltratti, A. (1997), ‘Growth with Natural and Environmental Resources’, in C. Carraro and D. Siniscalco, eds., New Directions in the Economic Theory of the Environment. Cambridge: Cambridge University Press.
Bovenberg A.L. and S.A. Smulders (1995), ‘Environmental Quality and Pollution-augmenting Technological Change in a Two-sector Endogenous Growth Model’, Journal of Public Economics 57, 369–391.
Bovenberg, A.L. and S.A. Smulders (1996), ‘Transitional Impacts of Environmental Policy in an Endogenous Growth Model’, International Economic Review 37, 861–893.
Buonanno, P., C. Carraro, E. Castelnuovo and M. Galeotti (2001), ‘Emission Trading Restrictions with Endogenous Technological Change’, International Environmental Agreements; Law, Politics, Economics.
Buonanno, P., C. Carraro and M. Galeotti (2003), ‘Endogenous Induced Technical Change and the Costs of Kyoto’, Resource and Energy Economics 25, 11–34.
Carraro C. and M. Galeotti (1997), ‘Economic Growth, International Competitiveness and Environmental Protection: R&D Innovation Strategies with the WARM Model’, Energy Economics 19, 2–28.
Chakravorty U., J. Roumasset and K. Tse (1997), ‘Endogenous Substitution among Energy Resources and Global Warming’, Journal of Political Economy 105, 1201–1234.
Dasgupta, P. and G. Heal (1979), Economic Theory and Exhaustible Resources. Cambridge: Cambridge University Press.
Den Butter F.A.G. and M.W. Hofkes (1995), ‘Sustainable Development with Extractive and Nonextractive Use of the Environment in Production’, Environmental and Resource Economics 6, 341–358.
Gerlagh, R. and B.C.C. van der Zwaan (2003), ‘Gross World Product and Consumption in a Global Warming Model with Endogenous Technological Change’, Resource and Energy Economics 25, 35–57.
Gradus R.H.J.M. and S.A. Smulders (1993), ‘The Trade-off between Environmental Care and Longterm Growth; Pollution in Three Prototype Growth Models’, Journal of Economics 58, 25–51.
Goulder L.H. and K. Mathai (2000), ‘Optimal CO2 Abatement in the Presence of Induced Technological Change’, Journal of Environmental Economics and Management 39, 1–38.
Goulder L.H. and S.H. Schneider (1999), ‘Induced Technological Change and the Attractiveness of CO2 Abatement Policies’, Resource and Energy Economics 21, 211–253.
Grübler A. and S. Messner (1998), ‘Technological Change and the Timing of Mitigation Measures’, Energy Economics 20, 495–512.
Grübler A., N. Nakicenovic and D.G. Victor (1999a), ‘Dynamics of Energy Technology and Global Change’, Energy Policy 27, 247–280.
Grübler A., N. Nakicenovic and D.G. Victor (1999b), ‘Modeling Technological Change, Implications for the Global Environment’, Annual Review of Energy and the Environment 24, 545–569.
Hofkes M.W. (1996), ‘Modelling Sustainable Development: An Economy-ecology Integrated Model’, Economic Modelling 13, 333–353.
IEA/OECD (1999), Key World Energy Statistics. Paris: IEA/OECD.
IEA/OECD (2000), Experience Curves for Energy Technology Policy. Paris: IEA/OECD.
Jorgenson, D.W. and P.J. Wilcoxen (1993a), ‘Reducing U.S. Carbon Dioxide Emissions, an Assessment of Different Instruments’, Journal of Policy Modeling 15, 491–520.
Jorgenson, D.W. and P.J. Wilcoxen (1993b), ‘Reducing U.S. Carbon Dioxide Emissions: An Econometric General Equilibrium Assessment’, Resource and Energy Economics 15, 7–25.
Knapp, K. (1999), ‘Exploring Energy Technology Substitution for Reducing Atmospheric Carbon Emissions’, The Energy Journal 20, 121–143.
Manne, A. (1999), http://www.stanford.edu/group/MERGE/REF.GMS. Listing of the MERGE-3 code.
Manne, A.S. and R. Richels (1992), Buying Greenhouse Insurance. Cambridge, MA: MIT Press.
McDonald, A. and L. Schrattenholzer (2001), ‘Learning Rates for Energy Technologies’, Energy Policy 29, 255–261.
Messner, S. (1995), Endogenized Technological Learning in an Energy Systems Model. Mimeo WP–95–114, Laxenburg Austria: IIASA.
Messner, S. (1997), ‘Endogenized Technological Learning in an Energy Systems Model’, Journal of Evolutionary Economics 7, 291–313.
Nakicenovic, N. A. Grübler and A. McDonald, eds. (1998), Global Energy Perspectives. IIASAWEC. Cambridge, UK: Cambridge University Press.
Nakicenovic, N. et al., eds. (2001), Special Report on Emission Scenarios. Published for the Intergovernmental Panel on Climate Change (IPCC). Cambridge, UK: Cambridge University Press.
Newell R.G., A.B. Jaffe and R.N. Stavins (1999), ‘The Induced Innovation Hypothesis and Energysaving Technological Change’, Quarterly Journal of Economics 114, 941–975.
Nordhaus W.D. (1994), Managing the Global Commons. Cambridge, MA: MIT Press.
Nordhaus, W.D. (2002), ‘Modeling Induced Innovation in Climate Change Policy’, Ch. 9 in A. Grubler, N. Nakícenovíc and W.D. Nordhaus, eds., Modeling Induced Innovation in Climate Change Policy. Washington DC: Resources for the Future Press.
Odell P.R. (1999), ‘Dynamics of Energy Technologies and Global Change’, Energy Policy 27, 737–742.
Paper for workshop Induced Technological Change and the Environment, June 21–22, 1999, IIASA.Laxenburg, Austria.
Peck S.C. and T.J. Teisberg (1992), ‘CETA: A Model for Carbon Emissions Trajectory Assessment’, Energy Journal 13, 55–77.
Riahi, K. and A. Roehrl (2000), ‘Greenhouse Gas Emissions in a Dynamics-as-usual Scenario of Economic and Energy Development’, Technological Forecasting and Social Change 63, 175–205.
Schönhart, W. (1999), Assessment of Future Energy Technology Characteristics. Diplomarbeit, Austria: Technical University Graz.
Smulders S.A. (1999), ‘Endogenous Growth Theory and the Environment’, in J.C.J.M. v.d.Bergh, ed., Handbook of Environmenal and Resource Economics, Ch. 42. Edward Elgar.
Stephan G., G. Müller-Fürstenberger and P. Previdoli (1997), ‘Overlapping Generations or Infinitelylived Agents: Intergenerational Altruism and the Economics of GlobalWarming’, Environmental and Resource Economics 10, 27–40.
van der Zwaan B.C.C., R. Gerlagh, G. Klaassen and L. Schrattenholzer (2002), ‘Endogenous Technological Change in Climate Change Modelling’, Energy Economics 24, 1–19.
Varian, H. (1992), Microeconomic Analysis, 3rd edition. New York: Norton & Company.
Verdier, T. (1995), ‘Environmental Pollution and Endogenous Growth’, in C. Carraro and J. Filar, eds., Control and Game-Theoretic Models of the Environment. Boston: Birckauser.
World Bank (1999), 1999 World Development Indicators. Washington, DC: World Bank.
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(part of the research was performed when the author was Science Fellow at CISAC, Center for International Security and Cooperation, Stanford University, Stanford, California, USA)
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Gerlagh, R., van der Zwaan, B., Hofkes, M.W. et al. Impacts of CO2-Taxes in an Economy with Niche Markets and Learning-by-Doing. Environmental and Resource Economics 28, 367–394 (2004). https://doi.org/10.1023/B:EARE.0000031059.83168.fb
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DOI: https://doi.org/10.1023/B:EARE.0000031059.83168.fb