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Directed technical change and the adoption of CO2 abatement technology: The case of CO2 capture and storage

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  • Otto, Vincent M.
  • Reilly, John

Abstract

This paper studies the cost-effectiveness of combining traditional environmental policy, such as CO2-trading schemes, and technology policy that has aims of reducing the cost and speeding the adoption of CO2 abatement technology. For this purpose, we develop a dynamic general equilibrium model that captures empirical links between CO2 emissions associated with energy use, directed technical change and the economy. We specify CO2 capture and storage (CCS) as a discrete CO2 abatement technology. We find that combining CO2-trading schemes with an adoption subsidy is the most effective instrument to induce adoption of the CCS technology. Such a subsidy directly improves the competitiveness of the CCS technology by compensating for its markup over the cost of conventional electricity. Yet, introducing R&D subsidies throughout the entire economy leads to faster adoption of the CCS technology as well and in addition can be cost-effective in achieving the abatement target.

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  • Otto, Vincent M. & Reilly, John, 2008. "Directed technical change and the adoption of CO2 abatement technology: The case of CO2 capture and storage," Energy Economics, Elsevier, vol. 30(6), pages 2879-2898, November.
    • Handle: RePEc:eee:eneeco:v:30:y:2008:i:6:p:2879-2898
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    Cited by:

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    2. Wei Jin, 2012. "Can Technological Innovation Help China Take on Its Climate Responsibility? A Computable General Equilibrium Analysis," CAMA Working Papers 2012-51, Centre for Applied Macroeconomic Analysis, Crawford School of Public Policy, The Australian National University.
    3. Jin, Wei, 2012. "Can technological innovation help China take on its climate responsibility? An intertemporal general equilibrium analysis," Energy Policy, Elsevier, vol. 49(C), pages 629-641.
    4. Olivia Ricci, 2012. "Politiques de soutien à la capture et au stockage du carbone en France : un modèle d’équilibre général calculable," Working Papers 1209, Chaire Economie du climat.
    5. Lamperti, Francesco & Napoletano, Mauro & Roventini, Andrea, 2020. "Green Transitions And The Prevention Of Environmental Disasters: Market-Based Vs. Command-And-Control Policies," Macroeconomic Dynamics, Cambridge University Press, vol. 24(7), pages 1861-1880, October.
    6. Arbex, Marcelo & Perobelli, Fernando S., 2010. "Solow meets Leontief: Economic growth and energy consumption," Energy Economics, Elsevier, vol. 32(1), pages 43-53, January.
    7. Löschel, Andreas & Otto, Vincent M., 2009. "Technological uncertainty and cost effectiveness of CO2 emission reduction," Energy Economics, Elsevier, vol. 31(Supplemen), pages 4-17.
    8. Jonathon M. Becker & Jared C. Carbone & Andreas Loeschel, 2022. "Induced Innovation and Carbon Leakage," Working Papers 2022-04, Colorado School of Mines, Division of Economics and Business.
    9. Kern, Florian & Gaede, James & Meadowcroft, James & Watson, Jim, 2016. "The political economy of carbon capture and storage: An analysis of two demonstration projects," Technological Forecasting and Social Change, Elsevier, vol. 102(C), pages 250-260.
    10. Heggedal, Tom-Reiel & Jacobsen, Karl, 2011. "Timing of innovation policies when carbon emissions are restricted: An applied general equilibrium analysis," Resource and Energy Economics, Elsevier, vol. 33(4), pages 913-937.
    11. Hallegatte, Stephane & Heal, Geoffrey & Fay, Marianne & Treguer, David, 2011. "From growth to green growth -- a framework," Policy Research Working Paper Series 5872, The World Bank.
    12. repec:hal:spmain:info:hdl:2441/14g286e42n8bl9is6h16b18kes is not listed on IDEAS
    13. Klaus Rennings & Peter Markewitz & Stefan Vögele, 2013. "How clean is clean? Incremental versus radical technological change in coal-fired power plants," Journal of Evolutionary Economics, Springer, vol. 23(2), pages 331-355, April.
    14. Ricci, Olivia, 2012. "Providing adequate economic incentives for bioenergies with CO2 capture and geological storage," Energy Policy, Elsevier, vol. 44(C), pages 362-373.
    15. Stephan Spiecker & Volker Eickholt, 2013. "The Impact Of Carbon Capture And Storage On A Decarbonized German Power Market," EWL Working Papers 1304, University of Duisburg-Essen, Chair for Management Science and Energy Economics, revised Oct 2013.
    16. Otto, Vincent M. & Löschel, Andreas, 2008. "Technological Uncertainty and Cost-effectiveness of CO2 Emission Trading Schemes," ZEW Discussion Papers 08-050, ZEW - Leibniz Centre for European Economic Research.
    17. Bye, Brita & Jacobsen, Karl, 2011. "Restricted carbon emissions and directed R&D support; an applied general equilibrium analysis," Energy Economics, Elsevier, vol. 33(3), pages 543-555, May.
    18. Zhao, Tian & Liu, Zhixin, 2019. "A novel analysis of carbon capture and storage (CCS) technology adoption: An evolutionary game model between stakeholders," Energy, Elsevier, vol. 189(C).
    19. Lohwasser, Richard & Madlener, Reinhard, 2013. "Relating R&D and investment policies to CCS market diffusion through two-factor learning," Energy Policy, Elsevier, vol. 52(C), pages 439-452.
    20. Brita Bye & Karl Jacobsen, 2009. "On general versus emission saving R&D support," Discussion Papers 584, Statistics Norway, Research Department.
    21. Abadie, Luis M. & Chamorro, José M., 2008. "European CO2 prices and carbon capture investments," Energy Economics, Elsevier, vol. 30(6), pages 2992-3015, November.
    22. Janne Kettunen, Derek W. Bunn and William Blyth & Derek W. Bunn & William Blyth, 2011. "Investment Propensities under Carbon Policy Uncertainty," The Energy Journal, International Association for Energy Economics, vol. 0(Number 1), pages 77-118.
    23. Joshua S. Gans, 2012. "Innovation and Climate Change Policy," American Economic Journal: Economic Policy, American Economic Association, vol. 4(4), pages 125-145, November.

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