Policy instruments directed at renewable transportation fuels – An international comparison
Stefan Grönkvist1, Philip Peck2, Semida Silveira1, Jonas Åkerman1 and Mårten Larsson1.
1 KTH Royal Institute of Technology, 2 Lund University
The production of transportation fuels from renewable primary energy sources requires ongoing support if it is to reach commercial maturity. The most common types of support are politically derived ‘policy instruments’. A variety of such instruments are applied in differing contexts in different parts of the world – in this project we describe and dissect policy instruments that have been used in Brazil, the EU (with prime focus on Germany), and the US. This work highlights strengths and weaknesses of a range of relatively universal policy instruments in these different contexts. As the political economy of biofuels these jurisdictions has evolved over past decades, and policy interventions have also changed, the analysis focuses on key points of change or major market inflections. Emphasis was placed on the following aspects of enquiry in particular:
• underlying motivations for policy interventions, how were they formulated, and how outcomes align with the initial objectives;
• how instruments supported the biofuels sector(s) in the short and longer terms;
• lessons of relevance to the promotion of renewable biofuels in Sweden.
This work is to contribute to the formulation of more efficient policy instruments in Sweden that better account for dynamic issues tied to feedstock, climate, technological and industrial development, infrastructure, regulations, and long-term political intent. It departs with a view that although produc-tion, infrastructure, and markets for biofuels in Sweden are of significant scale, they are still in an early stage of their development potential – and that biofuels policy must reflect this.
During the study period, the Swedish government proposed a new ‘hybrid’ quota system for biofuels with pure and high-level blended biofuels outside the quota system and retaining tax exemptions (in contrast to low-level blends). This has affected the deductions drawn for the Swedish way forward regarding biofuel-related policy instruments. Further, two important Swedish policy goals affect biofuel futures: zero net 2050 greenhouse gas emissions, and a fossil independent 2030 transport sector. While transportation biofuels will be part of the toolbox to reach both these goals, lack of clarity regarding their application to biofuels (particularly for the latter) make many questions regarding future policy instruments difficult to answer definitively.
Analysis of the three cases provided a range of contrasting insights that fall within three thematic areas:
• Synergies by design, multi-sectoral or cross-sectoral benefits, and delivery of other social or economic ‘goods’.
• Policy support stability but ‘flexibility’ over relatively long market development periods, with support for both infrastructure investments as well as development of fuel markets, production logistics and technologies.
• Trade-offs between effective/efficient quota systems that mainly support low-level blends and the combination of policy instruments necessary for high-level blend chains.
Synergies by design and multi-sectoral benefits: Synergistic effects stimulate biofuels and increased overall benefit accrues if several sectors gain from the development. Cases highlight a number of areas where biofuels development can be utilised to strengthen and diversify incumbent sectors while delivering socio-economic benefits in other areas (e.g. fiscal deficit and fuel dependence reduction, agricultural and transport sector stimulation, energy-sector development).
Multifaceted policy support and longer-term stability: Cases highlight the benefits of policy mixes that provide relatively stable support. Key stability parameters observed included multiple and flexible support mechanisms, lengthy time horizons for change, and guaranteed market spaces. Ongoing support matched by steady sector growth was mapped for Brazil and the US over more than 30-years, Policy support in these countries helped develop industry confidence, legitimacy, and private sector investment. In contrast, German experiences with rapid policy shifts in systems with high subsidy dependence caused immediate solvency problems and flow-on effects such as marked increases in investor doubt and increased investment risk premiums.
Trade-offs between quota systems for low-level blends and policy instruments that support high-level blends: Contrasting experiences with policies supporting high or low level blends point to a number of policy trade-offs. In Brazil, mid-high level blends have been supported by other initiatives such as a flexi-fuel vehicle programme and have large market shares. In contrast, frameworks in the US have not been conducive to the development of markets and infrastructure for high-blend biofuels is marginal and the US already faces ‘blend wall’ challenges, where the absence of extensive infrastructure and vehicles for high level blends constrains biofuels to 10% of the fuel mix. While quota based systems dominating in the EU can apparently deliver low-share targets for biofuels in total fuel mix, evidence is found that this may not set up the system that is required to deliver much higher penetration of fossil free fuels. This is an endeavour requiring considerable time and massive investment to develop and be accepted by the market.
That targeted efforts to achieve multi-sectoral benefits has proved to be important for the development of biofuel-chains elsewhere is very relevant for Swedish ways forward. Although some synergies between sectors is inevitable – as at least production, transportation, and distribution must be involved for a full biofuel chain, there are many other opportunities for synergies in Sweden. One vital component is the well-developed infrastructure for district heating that offers systemic advantages for integrated 1st and 2nd generation biofuel production processes that release large amounts of waste heat. Currently, there may also be a relatively positive business climate for integration of 2nd generation biofuel production with the Nordic forest industry, as it offers diversification opportunities to ameliorate decreased profitability in core business areas.
Considering the design of the Swedish hybrid quota system, the Swedish government seems to have taken note of fallout to events such as the rapid change from tax exemptions to a quota-based system in Germany. Some of the promising 2nd generation pathways in Sweden, such as the DME and second generation biogas, are still granted full tax exemptions. This is instrumental for the continued development of these options and an example of stable policy support as well as a trade-off between a quota system that secures low-level blends and a continued support for the pursuit of the high-level blends necessary to achieve the high ambitions for biofuels in the Swedish transport sector.
However, these ambitions, together with the activities most likely required to fulfil the targets with 2nd generation fuels will lead to a situation where capital costs are expected to become a more significant part of the total production cost. As such, it seems logical that the hybrid quota system will be insufficient. There will be a need for increased support for both R&D and for capital investment programmes. Target-specific policy instruments are also more effective to fulfil goals such as energy self-sufficiency and rural development than quota systems and tax exemptions.
Project outcomes
Grönkvist, S., Peck, P., Silviera, S., Åkerman, J., & Larsson, M. (2013). Policy Instruments directed at renewable transportation fuels – An international comparison. Gothenburg, Sweden: The Swedish Knowledge Centre for Renewable Transportation Fuels (f3 – fossil free fuels) 131 pages. July 2013
Research conducted for Chapter 7has been the basis of a new policy/industry study proposal currently under consideration for f3 funding. Project Title: Examining systemic constraints and drivers for production of forest-derived transport biofuels.
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