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Competitiveness, role, and impact of microalgal biodiesel in the global energy future

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  • Takeshita, Takayuki

Abstract

This paper examines the competitiveness, role, and impact of microalgal biodiesel in the 21st century using a global energy system model with a detailed technological representation. The major conclusions are the following. First, the competitiveness of microalgal biodiesel decreases as CO2 stabilization constraints become more stringent. The share of microalgal biodiesel and renewable jet fuel produced from it in total global final energy consumption over the time horizon 2010–2100 is 5.1% in the case without CO2 constraints compared with 3.9% and 0.7% in the case of CO2 stabilization at 550ppmv and 400ppmv, respectively. This is because production and combustion of microalgal biodiesel release as much CO2 as is captured from anthropogenic sources and assimilated by microalgae and because CO2 prices raised by stringent CO2 stabilization constraints make the economics of microalgal biodiesel unattractive. Second, the competitiveness of microalgal biodiesel is also greatly affected by microalgal production cost and microalgal lipid yield. Under a 400ppmv CO2 stabilization constraint, a 50% microalgal production cost decrease leads to increase in total global microalgal biodiesel production over the time horizon by a factor of 6.5, while a 50% microalgal lipid yield increase leads to increase in it by a factor of 4.5. Third, microalgal biodiesel plays an important role in satisfying the energy demand in the transport sector, thereby replacing petroleum products and Fischer–Tropsch synfuels. An increasing proportion of microalgal biodiesel is converted into renewable jet fuel over time to be used as a fuel for aircraft. Fourth, either without CO2 constraints or under the 550ppmv CO2 stabilization constraint, the participation of microalgal biodiesel in the global energy market would have a large impact on the global energy supply and consumption structure. This is not only because of its substitution for other forms of final energy, but also because of the need to satisfy the demand for CO2 for microalgal production.

Suggested Citation

  • Takeshita, Takayuki, 2011. "Competitiveness, role, and impact of microalgal biodiesel in the global energy future," Applied Energy, Elsevier, pages 3481-3491.
  • Handle: RePEc:eee:appene:v:88:y:2011:i:10:p:3481-3491 DOI: 10.1016/j.apenergy.2011.02.009
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    Cited by:

    1. Adenle, Ademola A. & Haslam, Gareth E. & Lee, Lisa, 2013. "Global assessment of research and development for algae biofuel production and its potential role for sustainable development in developing countries," Energy Policy, Elsevier, vol. 61(C), pages 182-195.
    2. Dasgupta, Chitralekha Nag & Suseela, M.R. & Mandotra, S.K. & Kumar, Pankaj & Pandey, Manish K. & Toppo, Kiran & Lone, J.A., 2015. "Dual uses of microalgal biomass: An integrative approach for biohydrogen and biodiesel production," Applied Energy, Elsevier, vol. 146(C), pages 202-208.
    3. Pérez-Fortes, Mar & Schöneberger, Jan C. & Boulamanti, Aikaterini & Tzimas, Evangelos, 2016. "Methanol synthesis using captured CO2 as raw material: Techno-economic and environmental assessment," Applied Energy, Elsevier, vol. 161(C), pages 718-732.
    4. Mercure, Jean-François & Salas, Pablo, 2013. "On the global economic potentials and marginal costs of non-renewable resources and the price of energy commodities," Energy Policy, Elsevier, vol. 63(C), pages 469-483.
    5. Taylor, Benjamin & Xiao, Ning & Sikorski, Janusz & Yong, Minloon & Harris, Tom & Helme, Tim & Smallbone, Andrew & Bhave, Amit & Kraft, Markus, 2013. "Techno-economic assessment of carbon-negative algal biodiesel for transport solutions," Applied Energy, Elsevier, vol. 106(C), pages 262-274.
    6. Weiszer, Michal & Chen, Jun & Locatelli, Giorgio, 2015. "An integrated optimisation approach to airport ground operations to foster sustainability in the aviation sector," Applied Energy, Elsevier, vol. 157(C), pages 567-582.
    7. Giostri, A. & Binotti, M. & Macchi, E., 2016. "Microalgae cofiring in coal power plants: Innovative system layout and energy analysis," Renewable Energy, Elsevier, pages 449-464.
    8. Jean-Francois Mercure & Hector Pollitt & Unnada Chewpreecha & Pablo Salas & Aideen M. Foley & Philip B. Holden & Neil R. Edwards, 2013. "The dynamics of technology diffusion and the impacts of climate policy instruments in the decarbonisation of the global electricity sector," 4CMR Working Paper Series 006, University of Cambridge, Department of Land Economy, Cambridge Centre for Climate Change Mitigation Research.
    9. Mercure, J.-F. & Pollitt, H. & Chewpreecha, U. & Salas, P. & Foley, A.M. & Holden, P.B. & Edwards, N.R., 2014. "The dynamics of technology diffusion and the impacts of climate policy instruments in the decarbonisation of the global electricity sector," Energy Policy, Elsevier, vol. 73(C), pages 686-700.
    10. Li, Huajiao & An, Haizhong & Fang, Wei & Wang, Yue & Zhong, Weiqiong & Yan, Lili, 2017. "Global energy investment structure from the energy stock market perspective based on a Heterogeneous Complex Network Model," Applied Energy, Elsevier, vol. 194(C), pages 648-657.

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