Response to the geothermal aspects of the BEIS Call for Evidence Contracts for Difference

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Response to the geothermal aspects of the BEIS Call for Evidence Contracts for Difference Cornwall Council and the C&IoS Local Enterprise Partnership Date 19/12/2016

Question 2: What are the expected heat vs power outputs for geothermal projects in the UK? In 2015 Arup undertook an Investment Options Appraisal for C&IoS LEP to inform an ERDF call for proposals and investment decisions. 1 The assumptions used in Arup s economic modelling for outputs were sought from industry experts, and for each CHP system the heat output was 2.5x the electrical output. Will geothermal projects be developed on a power-led basis? Renewable electricity generation in Cornwall currently relates to approximately a third of electricity demand. Although some is curtailed or exported, Cornwall has ambitions of increasing the utilisation of distributed generation on site and across sectors. C&IoS LEP and Cornwall Council support the increase of renewable energy generation, and specifically the geothermal sector. Due to the underlying geology of the region, Cornwall is best placed to exploit the UK s deep-geothermal resource. The 2013 Deep Geothermal Review Study Final Report undertaken by Atkins 2 commissioned by DECC, suggests the current potential, approximately 100MW of electricity, where colocated with adequate demand for heat. The 2012 Deep Geothermal Potential in Great Britain and Northern Ireland undertaken by SKM 3 concluded that Cornwall s generating capacity could be as much as 4GW of electricity and as a bi-product 13GW of heat that can be used in local homes, businesses and public buildings. This resource could provide a number of economic, social and environmental benefits to communities enabled by Cornwall s wider ambitions for its energy future: The 100MW of potential geothermal resource suggested by Atkins (2013) could provide electricity for more than half of Cornish homes and the 4GW suggested by SKM (2012) would exceed Cornwall s total energy demand. 1 Cornwall and the Isles of Scilly Local Enterprise Partnership Deep Geothermal Investment Options Appraisal, Arup 2015, available at http://www.erdfconvergence.org.uk/_userfiles/files/report- Investment_Strategy_Issue4_2015-09-17.pdf 2 Deep Geothermal Review Study Final Report, Department of Energy & Climate Change (DECC) October 2013 3 REA Deep Geothermal Potential in Great Britain and Northern Ireland, SKM 2012 available at http://www.r-ea.net/upload/skm_report_on_the_potential_for_geothermal_energy_in_gb ni_may_2012.pdf Cornwall Council and the C&IoS Local Enterprise Partnership 2

Geothermal has a small footprint on the landscape. Cornwall s installed capacity is circa 700MW (mostly wind and solar). There is a limit to the number of sites suitable for each technology. The GHG savings on the energy generation of 100MW electrical and 200MW heat from geothermal is equivalent to c.18% of Cornwall s emissions. Based on a study by the Geothermal Energy Association 100MW will involve 1,400-1,700 jobs: high quality, long term, full time jobs. In Cornwall there are two CHP projects (power-led) with planning permission both of which are currently in the ERDF application process. If successful, they hope to commence next year, demonstrate the technology and prove the resource. The ERDF has been made available following recommendations from a number of reports: Cornwall Council could establish a drilling fund to enable at least two deep wells to be drilled and tested in Cornwall. Arup 2012 4 Support measures should be focused on two primary objectives, firstly reducing the risks involved to get to the first successful production well and secondly allowing projects that have proven the resource to develop commercial power and heat projects. SKM 2012 If Government determine that they wish to provide further support to the industry, a full scale power generation demonstrator project is considered currently to be a sensible future step if investment needs to be attracted. Atkins 2013 These projects are power-led due to low or no heat loads in locations suitable for the first demonstration sites. Heat users would come in later to take advantage of the available heat. What difference do these factors make to project capital, operating and financing costs and technical parameters? Initial focus on power generation keeps the capital costs down and provides a guaranteed revenue stream from day one of completion. Density of heat demand is low in Cornwall, and specifically around the geothermal sites with planning permission and hoping to commence next year. The facilitation of a year round heat demand and/or the required heat network infrastructure will likely take several years to build out and complete. Therefore the delivery of heat will significantly impact on costs. 4 Cornwall Council Cornwall Geothermal Options Report, Arup 2012 available at http://www.erdfconvergence.org.uk/_userfiles/files/growthprogramme/arup_cornwall_geothermal_ Options_Report_ISSUE_2_ALL.pdf Cornwall Council and the C&IoS Local Enterprise Partnership 3

Question 5: What factors do you think Government should take into account in considering the interaction between the CFD scheme and support for decarbonisation of heat? 1. Realistic and achievable utilisation of the available heat In locations such as Cornwall a high level of heat utilisation is unrealistic and not likely to be a cost effective solution. In 2016, Buro Happold undertook a Strategic Heat Opportunities Study 5 for Cornwall Council, funded and overseen by the BEIS Heat Network Delivery Unit, which concluded that Geothermal CHP has a significant amount of available heat after electricity production. Stating that for example a two well deep geothermal CHP system would be expected to generate approximately 120GWh of heat per year. This is over twice the total heat demand of Cornwall s largest town of Truro. A very significant amount of district heating pipework would need to be installed to make use of the generated heat, which in turn will affect the overall cost of heat. (Buro Happold 2015) 2. Scale and timing of facilitating a significant level of heat demand The HNDU funded study undertaking by Buro Happold for Cornwall states: Only one combined cluster of three towns is considered of sufficient scale for deep geothermal CHP heat supply (close to one of the sites with planning permission). The clusters could be joined over time to create one large district heating network of approximately 40,000 MWh/year heat demand along a 15km network. 40,000 MWh/year is still only a third of the heat expected from a two well system. 3. Cost of heat networks and retrofitting homes The HNDU funded study undertaking by Buro Happold for Cornwall references: Weighing against the development of rural heat networks are the costs associated with network development. These costs are higher than typical urban schemes as the property density, and therefore heat density, is typically less. Therefore, pipe lengths and costs are greater, despite some savings in remedial works associated with laying pipes in congested urban areas. The building stock is also typically older than in urban areas, requiring typically higher temperature heating supply than new build developments. 5 Cornwall Strategic Heat Opportunities Study Urban and Rural Heat Demand Mapping and Heat Distribution Infrastructure Opportunity Mapping, Buro Happold 2016. Available from Cornwall Council Cornwall Council and the C&IoS Local Enterprise Partnership 4

Though not a direct constraint, many low carbon heat sources are most efficient at low supply temperatures, which could require significant retrofit of old building stock to retain current levels of comfort. Additional retrofit is also required if buildings are not currently on wet central heating systems (e.g. radiators), a more prevalent characteristic in rural areas as a result of the reduced gas network. 4. Other ways of promoting the use of low carbon heat Dis-incentivising electricity generation will not necessarily encourage heat production (notably in rural locations where networks are currently very challenging and costly). BEIS HNDU team have for a number of years now been supporting the utilisation of low carbon heat and delivery via networks. The complexity is evidenced in the lack of progress and ongoing need for support and funding. Many of the local economic, social and environmental benefits of geothermal CHP come from heat utilisation so local authorities have a role to play in supporting this. Cornwall Council is encouraging the use of low carbon heat: The Council has accessed HNDU funding three times and is currently working with the Coal Authority on another application. The Council will likely undertake further studies to develop the findings from the 2016 Strategic Heat Opportunities Study funded and overseen by the BEIS Heat Network Delivery Unit and undertaken by Buro Happold. Following the approval of the Cornwall Devolution Deal and commitment to: - The Government will continue to work with Cornwall Council to assess the potential support mechanisms for deep geothermal, should the resource be proven via locally driven investment. This would include the potential role that deep geothermal could play in supplying renewable heat to low carbon heat Enterprise Zones, subject to further zones being announced. - Government and Cornwall Council agree to work together to develop a series of pilot projects that could support the roll out of community energy and be replicable nationally. Areas of focus will include investigating how local and neighbourhood plans can support local ownership models, looking into off-gas grid community energy solutions and also assessing the possibilities for a community heat pilot. The Council are now developing a proposal for a community heat pilot and a site specific study of the opportunities for heat use around the geothermal site(s). Cornwall Council and the C&IoS Local Enterprise Partnership 5

Buro Happold considered opportunities for low carbon heat enterprise zones linked to geothermal: Opportunities for a new low carbon heat enterprise zone exist outside of the four clusters considered in this study and were considered in terms of scale, land use and value chains. One area identified of particular interest is the area to the north of St Austell for its high geothermal potential with nearby Eden Project considering the construction of a geothermal CHP plant. It also has good rail and road links, no major environmental constraints and includes a proposed eco-community at West Carclaze, which could provide a heat demand in excess of 10,000MWh/year, aiding the viability of a prospective geothermal plant. Arup s 2015 study concluded: A number of potential industries have suitable energy demands, but ones that should be targeted in the development of low carbon enterprise zones were laundries, data centres, breweries, and green-house agriculture. It may be necessary for C&IoS, and or the Council, to invest in additional infrastructure related to heat zones because private investors in the deep geothermal CHP will be deterred by the risk of not securing heat sales. 5. Utilisation of electricity across heat and transport sectors Grid constraints in Cornwall mean a proportion of renewable energy generation is curtailed or exported out of Cornwall. To facilitate an increase in renewables, smart solutions need to be found. A number of projects funded with ERDF will commence early next year looking to assist with a more controllable local energy market. Cornwall has a growing EV infrastructure and market. It has a low density heat demand and almost half of homes in Cornwall do not have access to mains gas. Demand for electricity across the heat and transport sectors in Cornwall will likely increase, due to electrification or Hydrogen production. Encraft and the Birmingham Centre for Energy Storage have just been commissioned by Cornwall Council to undertake an Energy System and Storage Masterplan. This will identify opportune sites to demonstrate smart energy storage solutions and greater utilisation of renewable electricity generation on site and across the transport and heat sectors. 6. Grid constraints and the cost of connection and/or energy storage Grid constraints in Cornwall currently mean connection costs are significant and alternative connection offers could result in projects not being able to export power to the grid 24/7 but store the power or use on site via a private wire / micro grid arrangement. Cornwall Council and the C&IoS Local Enterprise Partnership 6

7. Valuing the characteristics of geothermal electricity (baseload and flexible) Unlike most other renewable energy, geothermal provides an efficient constant base load power; it is permanently available, independent of seasonal and weather related conditions. However, they can be designed to be dispatchable, capable of responding quickly to system operators needs. With growing concerns around balancing supply with demand and grid capacity, geothermal will form part Cornwall vision for a fully integrated smart energy system. 8. The CfD bidding process With a long lead in time (3-5 years) and unknown outputs, the timing of the CfD process makes it very difficult for geothermal developers to confidently bid. Given the evidence and rationale that CHP projects will be developed on a power led basis alongside the unlikely success of bidding against offshore wind, a technology much further developed than geothermal, Cornwall Council would suggest the following options for further consideration by BEIS: I. Consider a geothermal minima for a limited time period. The facilitation of a realistically achievable heat demand will take a number of years even with continued HNDU assistance and significant support from the local authority. A geothermal minima would mean that once a cost effective use for the heat has been enabled CfD s could be reduced and supported with the RHI. This is supported by the Atkins 2013 commissioned by DECC. In addition, the strike price for geothermal energy should be fixed at a rate for sufficient time to make such schemes attractive to investors, particularly large financial institutions looking to make long term investments. II. Consider a minima for the first demonstration site(s) Evidence suggests demonstration sites are required to prove the resource, unlock the industry and for costs to come down (Atkins 2013, Arup 2012, SKM 2012). If Government is to actively pursue a deep geothermal energy programme, efforts should concentrate on proving reserves and developing a power generation demonstrator project. This will need to be supported by an appropriate level of financial support certainty to encourage investment over the long term to develop projects. Atkins 2013. State aid regulations are clearly in line with supporting demonstration projects. Cornwall Council and the C&IoS Local Enterprise Partnership 7

Aid may be granted without a competitive bidding process as described in paragraph (126) to installations with an installed electricity capacity of less than 1 MW, or demonstration projects, except for electricity from wind energy, for installations with an installed electricity capacity of up to 6 MW or 6 generation units. III. Consider removing offshore wind from Pot 2. If understood correctly the DECC Electricity Generation Costs 2016 report suggest the LCOE of offshore wind in Round 2, commissioning in 2016, is very close to that of large scale solar and less than onshore wind < 1.5MW. The estimated LCOE of offshore wind in Round 2 is also less than the strike prices secured in Round 1 for large scale onshore wind and some large scale solar. Although the LCOE is not the strike price it does evidence a suggestion that offshore wind is now in a position to compete within Pot 1. Analysis from Norton Rose Fulbright suggests that the AR2 auction is likely to be dominated by offshore wind, with over 9,000MW of projects already consented but without contracts. Prices, thought to be under 100/MWh are unachievable for geothermal power. IV. Create an additional pot for innovative technologies at demonstration stage (marine and geothermal) to maintain an element of competition. They are a number of reasons for this in line with state aid legislation. The bidding process can be limited to specific technologies where a process open to all generators would lead to a suboptimal result which cannot be addressed in the process design in view of, in particular: a) the longer-term potential of a given new and innovative technology; or b) the need to achieve diversification; or c) network constraints and grid stability; or d) system (integration) costs; In the Atkins report for DECC it was suggested there is a longer-term potential for geothermal: If uncertainties can be reduced, resources become proven reserves, capital costs reduce with scale, and experience and/or subsidy levels are altered such that expected rates of return based upon power generation alone become acceptable to investors, then more of the potential resource can be exploited and realised. Cornwall Council and the C&IoS Local Enterprise Partnership 8

9. Cumulation of State aid Geothermal projects are still at an early stage and require grant funding. They are high risk and evidence supports the need for demonstration projects to unlock the potential of the technology in the UK. Unless CfD s and RHI provide a subsidy reflective of the levelised cost of realistically deliverable heat and electricity, that encourages heat facilitation, projects will be unable to refinance and repay the grant, access operational subsidies and grow the project. Clarity around methods of repaying state aid is necessary to avoid cumulation of aid whilst encouraging the use of heat and the move to commerciality. Prepared by: Caroline Carroll Geothermal Policy Officer and C&IoS LEP Energy Lead Economic Growth and Development 29 December 2016 If you would like this information in another format please contact: Cornwall Council County Hall Treyew Road Truro TR1 3AY Telephone: 0300 1234 100 Email: enquiries@cornwall.gov.uk www.cornwall.gov.uk Cornwall Council and the C&IoS Local Enterprise Partnership 9