Road transport vehicles in South Africa towards 2050: Factors influencing technology choice and implications for fuel supply

Authors

DOI:

https://doi.org/10.17159/2413-3051/2018/v29i3a5596

Keywords:

energy; electric vehicles; hydrogen; modelling; GHG emissions

Abstract

The South African transport sector is estimated to emit 60 MtCO2eq and require 800 PJ of energy, similar in scale to industrial energy demand and emissions. The sector is forecast to potentially eclipse industry in this regard if conventional vehicle choices and travel modes persist. This paper explores scenarios of transport technology choices and demand in a future of uncertain fuel and technology costs, and the consequences for energy supply and greenhouse gas emissions. It explores the extent of electric vehicle (EV) adoption and the implication of fuel migration from petroleum products. The preference for alternative fuels such as hydrogen, liquid biofuels and natural gas is also investigated. The evolution of road transport in South Africa towards 2050 is investigated utilising the South African TIMES model, a full energy sector least-cost optimisation model that relies on a rich technological database of the entire energy supply and demand system. Hydrogen fuel cell vehicles are shown to be a viable option in freight and public transport, potentially meeting 70% of travel demand by 2045. The private passenger and light commercial sectors emerge as the main market for electric vehicles, potentially accounting for 80% of new vehicle sales by 2045. Electricity as a transport fuel could account for 30% of fuel supply and reduce transport emissions to half of present day estimates. However, the key uncertainty driving EV adoption is future vehicle costs and crude oil prices, which could dampen EV uptake. Another main finding is that petroleum-dependent vehicles remain an important vehicle class, and that re-investment in existing crude oil refineries to conform to Euro5 standards is a likely requirement. There seems to be little indication, however, that additional refining capacity would be economically viable within the planning horizon.

Downloads

Download data is not yet available.

References

Alton, T., Arndt, C., Davies, R., Hartley, F., Makrelov, K., Thurlow, J. and Ubogu, D. 2014. Introducing carbon taxes in South Africa. Applied Energy 116, 344-354.

https://doi.org/10.1016/j.apenergy.2013.11.034

Bevis, K., Smyth, A. and Walsh, S. 2013. Plugging the gap – can planned infrastructure address resistance to adoption of electric vehicles? Paper delivered at the European Transport Conference 2013. Conference theme: Low emission vehicles - providing infrastructure and achieving higher levels of usage. University of Hertfordshire, England.

Burton, J., Caetano, T., Hughes, A., Merven, B., Ahjum, F. and McCall, B. 2016. The impact of stranding power sector assets in South Africa: Using a linked model to understand economy-wide implications. Online: http://www.erc.uct.ac.za/sites/default/files/image_tool/images/119/Papers-2016/2016-Burtonetal-Impact_stranding_power_sector_assets.pdf

Caetano, T., Merven, B., Hartley, F. and Ahjum, F. 2017. Decarbonisation and the transport sector: A socio-economic analysis of transport sector futures in South Africa. Journal of Energy in Southern Africa 28(4): 9–18.

https://doi.org/10.17159/2413-3051/2017/v28i4a2945

Carrington, D. 2016. Electric cars ‘will be cheaper than conventional vehicles by 2022’. Online at: https://www.theguardian.com/environment/2016/feb/25/electric-cars-will-be-cheaper-than-conventional-vehicles-by-2022

City of Cape Town. 2016. Transport for Cape Town: Strategies, policies and plans. Online at http://www.tct.gov.za/en/strategies/

Cuenot, F. and Fulton, L. 2011. International comparison of light-duty vehicle fuel economy and related characteristics. Paris: International Energy Agency.

Deloitte. 2014. Global automotive consumer study. Exploring consumers’ mobility choices and transportation decisions. Deloitte LLC, United Kingdom.

Department of Energy. 2011. Discussion document on the review of fuel specifications and standards for South Africa. Government Gazette No. 33974. Government Printer: Pretoria.

Department of Energy. 2014. Draft position on the South African biofuels regulatory framework. Government Gazette No. 37232. Government Printer: Pretoria.

Department of Energy. 2016. Draft Integrated energy plan (IEP) report. Department of Energy, South Africa. Pretoria. 25th November 2016.

Department of Energy. 2017. Presentation to the portfolio committee on energy updates on IEP. Department of Energy, South Africa. 14 February 2017.

Department of Transport. 2016. National Transport Master Plan 2050 Synopsis report. Online: http://www.transport.gov.za/web/department-of-transport/natmap-2050

E-Mobility NSR (North Sea Region Electric Mobility Network). 2013. Comparative analysis of European examples of schemes for freight electric vehicles. Online at http://e-mobility-nsr.eu/fileadmin/user_upload/downloads/info-pool/E-Mobility_-_Final_report_7.3.pdf

Energy Supply Association of Australia. 2013. Sparking an electric vehicle debate in Australia. Discussion paper, November 2013. ESAA. Melbourne, Australia.

Energy Supply Association of Australia (ESAA). 2014. Developing a market for natural gas vehicles in Australia. Discussion paper, June 2014. ESAA. Melbourne, Australia.

Forward, E., Glitman, K. and Roberts, D. 2013. An assessment of level 1 and level 2 electric vehicle charging efficiency. To investigate potential applications of efficiency measures to various electric vehicles and their supply equipment. Vermont Energy Investment Corporation. Canada.

Gajjar, H. and Mondol, J.D. 2015. Techno-economic comparison of alternative vehicle technologies for South Africa’s road transport system. International Journal of Sustainable Transportation 10(7): 579–589. http://dx.doi.org/10.1080/15568318.2015.1026007

International Council on Clean Transportation (ICCT). (2011). Global comparison of light-duty vehicle fuel economy/GHG emissions standards August 2011 update. International Council on Clean Transportation.

International Energy Agency (IEA). 2016. World Energy Outlook 2016. IEA, Paris.

Jechura J. 2015. Hydrogen from natural gas via steam methane reforming. Colorado School of Mines. USA. Online at: http://inside.mines.edu/~jjechura/EnergyTech/07_Hydrogen_from_SMR.pdf

Lozynsky, Y., Neelis, M., Blinde, P., Lewis, Y., Cohen, B., van der Merwe, A.B. and Patel, I. 2014. Emissions intensity benchmarks for the South African carbon tax. Technical support study. Ecofys. Utrecht.

Merven, B., Stone, A., Hughes, A. and Cohen, B. 2012. Quantifying the energy needs of the transport sector for South Africa: A bottom-up model. Energy Research Centre, University of Cape Town. Online: http://www.erc.uct.ac.za/sites/default/files/image_tool/images/119/Papers-2012/12-Merven-etal_Quantifying_energy_needs_transport%20sector.pdf

Naughton, N. 2014. Millennials drawn to car-sharing services, but eventually, they buy. Online at http:// www.autonews.com/article/20140726/RETAIL/307289990/millennials-drawn-to-car-sharing-services-but-eventually-they-buy (Accessed: 03 April 2017)

Nicholas, M., Tal, G., and Turretine, T. 2016. Advanced plug-in electric vehicle travel and charging behavior. University of California, Davis. Online: https://itspubs.ucdavis.edu/wp-content/themes/ucdavis/pubs/download_pdf.php?id=2712

Nijhout, P. Wood, R. and Moodley, L. 2001. An example of public transport modelling with Emme/2. 20th South African Transport Conference: Meeting the Transport Challenges in Southern Africa. South Africa, 16 – 20 July 2001. Document Transformation Technologies, South Africa.

Ortmann, G.F. 1985. The economic feasibility of producing ethanol from sugar-cane in South Africa. PhD dissertation, University of Natal, Pietermaritzburg, South Africa.

Pellettier, S., Jabali, O. and Laporte, G. 2014. Battery electric vehicles for goods distribution: A survey of technology, market penetration, incentives and practices. Interuniversity Research Centre on Enterprise Networks, Logistics and Transportation, Canada.

Pellettier, S., Jabali, O. Laporte, G. and Veneroni, M. 2015. Goods distribution with electric vehicles: Battery degradation and behaviour modeling. Interuniversity Research Centre on Enterprise Networks, Logistics and Transportation. Canada.

Perold, A.D. and Andersen, S.J. 2000. An appropriate strategic modelling approach for South Africa. Presented at: South African Transport Conference: Action in Transport for the New Millennium. South Africa, 17–20 July 2000. Document Transformation Technologies, South Africa.

Ricardo-AEA. 2012. Road vehicle cost and efficiency calculation framework 2010-2050. Report #ED57444. United Kingdom.

South African Petroleum Industry Association. 2008. Petrol and diesel in South Africa and the impact on air quality. SAPIA, South Africa.

South African Petroleum Industry Association. 2017. Cleaner fuels II. Online at http://www.sapia.org.za/Key-Issues/Cleaner-fuels-II (Accessed 30 March 2017)

Smith, M. and Castellano J. 2015. Costs associated with non-residential electric vehicle supply equipment. Factors to consider in the implementation of electric vehicle charging stations. Department of Energy, USA.

Stone, A. 2017. Personal communication: Estimating relative maintenance costs for electric vehicles.

Stone, A., Merven, B., Maseela, T. and Moonsamy, R. 2018. Providing a foundation for road transport energy demand analysis: The development of a vehicle parc model for South Africa. Journal of Energy in Southern Africa 29(2): 29-42.

https://doi.org/10.17159/2413-3051/2018/v29i2a2774

Snyder, J. 2012. Financial viability of non-residential electric vehicle charging stations. Luskin Center for Innovation. University of California, Los Angeles.

Trading Economics. 2017. South Africa GDP growth rate. Available online: https://tradingeconomics.com/south-africa/gdp-growth

United States of America Department of Energy. 2017. Vehicle cost calculator. Alternative fuels data center. Online: http://www.afdc.energy.gov/calc/ (Accessed: 04 April 2017)

Van den Bulk, J. 2009. The development of the costs and benefits of cars powered by gasoline, electricity and hydrogen in the Netherlands in the period 2008–2030. Wageningen University. Netherlands.

Venter, C.J. and Mohammed, S.O. 2013. Estimating car ownership and transport energy consumption: a disaggregate study in Nelson Mandela Bay. Journal of the South African Institution of Civil Engineering 55(1): 2–10. Online:

http://www.scielo.org.za/scielo.php?script=sci_arttext&pid=S1021-20192013000100001&lng=en&tlng=en

Wakeford, J.J. 2013. Preparing for peak oil in South Africa. An integrated case study. Chapter 2: Energy. Springer. DOI 10.1007/978-1-4614-9518-5.

Wietschel M., Plotz P., Kuhn A., and Gann T. 2013. Market evolution scenarios for electric vehicles. Fraunhofer Institute, Karlsruhe, Germany.

Williams, G. 2016. The disruption in car ownership. Online at http://www.fin24.com/Finweek/Opinion/the-disruption-in-car-ownership-20160517 (Accessed: 03 April 2017).

Wolfram, P. and Lutsey, N. 2016. Electric vehicles: Literature review of technology costs and carbon emissions. Working paper 2016-14. The International Council on Clean Transportation. Online: http://www.theicct.org/lit-review-ev-tech-costs-co2-emissions-2016.

Technology choice and implications  for fuel supply

Downloads

Published

2018-09-21

How to Cite

Road transport vehicles in South Africa towards 2050: Factors influencing technology choice and implications for fuel supply. (2018). Journal of Energy in Southern Africa, 29(3), 33-50. https://doi.org/10.17159/2413-3051/2018/v29i3a5596