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Transcription:

Transport infrastructure roadmap to Celine Cluzel Element Energy A study commissioned by the LowCVP

Providing a refuelling infrastructure for low emission vehicles will be key to meeting the UK s emission reduction targets Drivers for change in the transport system: GHG reduction targets: Climate Change Act, Renewable Energy and Fuel Quality Directives Air Quality targets: EU regulations on NO2 and Particulate Matters, EURO specifications The required changes in vehicle technologies and fuel have already been set out through published roadmaps (see right) The corresponding refuelling / recharging infrastructure needs have not yet been quantified and this is the main focus of this study The outputs will inform the national policy frameworks submitted by EU Member States by October 2016 in answer to the Clean Power for Transport EU Directive Vehicle roadmaps Source: Auto Council and LowCVP Transport fuel roadmaps Source: Auto Council and Element Energy for the LowCVP

Objectives Scope and approach Estimate the infrastructure needs and barriers for deployment of electric, hydrogen and gas refuelling stations to, including impact on upstream distribution Evaluate the change in refuelling infrastructure of conventional liquid fuels (gasoline and diesel blends, LPG) and possible future fuels (liquid air, methanol, E85) Make recommendations for delivery of infrastructure deployment, both at national and local government level Developed four reports: electricity, hydrogen, methane and liquid fuels Considered road vehicles Extensive industry consultation through: Steering Committee: 14 organisations Four workshops (38 attendees)

Final report summarising findings from each energy vectors

The majority of charging events will take place at home and workplaces, supported by a well managed and reliable public network A peak power demand (GW) challenge could emerge rather than a production (TWh) challenge: EVs could add 28 GW of demand by (c.70% of current peak) if charging time is not controlled Main demand will be from cars, requiring both residential charge points and a national public network Key topics for recommendations: End user experience of public chargers Economics of public chargers Charging in residential areas Charging at depots / workplaces Impact on electricity networks Improve the currently fragmented driver experience of public infrastructure by ensuring the network is well marketed, easy to operate and immediately accessible Business case for public charge points remains challenging due to low utilisation levels but could be improved with support mechanisms (financial and loading) New solutions, both technical and commercial, are needed for households without private off-street parking Fleet operators are likely to be faced with high local network reinforcement costs an investment in assets not owned by the fleet operator: an unfamiliar risk and procedure Without management, EVs could (when added to other technologies such as heat pumps) require large investment in new distribution infrastructure

Many opportunities exist for Heavy Duty Vehicles to use natural gas supported by mature refuelling technologies An extensive gas grid is already in place and can easily absorb the transport gas demand, although new Liquefied Natural Gas terminals might be required Main demand from heavy duty vehicles, which require bunkered refuelling (at depots) and public refuelling for long haul applications Key topics for recommendations: Planning guidance and safety issues Station economics and support End user experience Depot infrastructure sharing Well-to-Tank (WTT) emissions A guidance document could improve local interpretation of the relevant refuelling station technical standards available, and safety regulations could be updated Areas with low throughput are likely to require support, whilst infrastructure in areas of higher throughput will continue to be commercially operated Harmonising future infrastructure deployments could improve the currently fragmented driver experience (e.g. multiple nozzle types, irregular downtime) Consider including semi-private stations (offering third party access on a pre agreed commercial basis) as public facilities in response to Directive 2014/94/EU Measures to minimise the GHG emissions related to distribution and dispensing of gas should be adopted for future infrastructure siting and technology

Widespread use of hydrogen for mobility will require substantial growth in existing production and distribution infrastructure A successful rollout of hydrogen vehicles (i.e. reaching millions of vehicles after ) will require a quadrupling of existing production capacity, met by conventional and green sources A national refuelling network will be required to support passenger cars and private customers Innovation opportunities include production/distribution cost reduction, quality assurance, metering Key topics for recommendations: Deployment of early public H2 stations Maximising utilisation of early stations Coordination Siting and planning process H 2 production pathways Industry and government will need to work closely to secure deployment of the early public HRS network and hydrogen vehicles Ensuring infrastructure is compatible with all vehicle types and publically accessible will maximise station utilisation (key for economics of stations) H 2 stakeholders should identify an appropriate forum for coordination activities, and to present an aligned UK strategy in outreach to international vehicle manufacturers to maximise appetite for bringing vehicles to the UK Existing regulations should be amended to harmonise the planning approval process, thereby streamlining infrastructure installation New policy may be required in the medium term to ensure that the future hydrogen production mix delivers strong emissions savings

A fully functioning infrastructure for dominant liquid fuels exists to supply the UK vehicle parc but will be faced with decreasing demand Demand will significantly decrease post, to reach -50% to -80% by compared to today For LPG, a possible increase in demand mostly based on Air Quality policy drivers Liquid air is the most promising niche fuel, suited for refrigeration units but has potential skill shortages Key topics for recommendations: Station economics and support Planning permission guidance Innovation opportunities Multi-fuel infrastructure integration Communication of forecourt availability Identify future supply shortages and support full UK coverage as commercial forecourt operation becomes increasingly difficult with declining throughput To minimise forecourt closure rate, planning guideline could be improved to avoid delays for modifying existing infrastructure Upgrading existing infrastructure to accommodate higher biofuel blends is costly, opportunities to optimise costs through R&D could be pursued Forecourt utilisation could be improved with the co-location of multiple fuel infrastructure for which technical barriers should be identified and regulatory standards developed Forecourt availability could be dynamically communicated to drivers via a nationally consistent platform as total forecourt number decline

The deployment of public refuelling infrastructure for transport will require significant new investment and long term policy clarity Investment to deliver the future refuelling/recharging infrastructure will require: Strong confidence for private investors, i.e. clear and long term government position for different fuels and policy drivers, confidence in long term revenues to justify upfront investment Funding support in some cases in early years (when asset utilisation levels are low) Coordination across government, regulators and industry to remove certain barriers to installation of new infrastructure e.g. lack of/unclear planning guidance, harmonisation of safety procedures, integration of new fuels in existing forecourts Cumulative public infrastructure investment 1 Liquid fuels Electricity Hydrogen Methane 0.2bn 2020 Early investments needing support 2.1bn 10bn Private investments in profitable assets

Thank you for your attention Reports are available for download from the LowCVP: http://www.lowcvp.org.uk/news,lowcvp--transport-energy-infrastructureroadmaps-show-the-way-to-transport-decarbonisation_3263.htm

Millions of charge points (mostly residential) will be needed to support widespread EV deployment, with uncertainty over charging technologies Charge points Charging infrastructure network Legend Infrastructure roadmap Public network Residential Depot / workplaces Total sites Cost Technology Cars/vans Cars/vans Buses and HGVs Investment in electricity networks (transmission & distribution) cumulative from 2015 2015 2020 2025 Many sites but variable offer Visible and accessible network to all drivers Rollout of primarily conductive rapid (40+kW) charging points in short term Future type and rates will depend on technology developments 3 7 kw off street or shared on street 3/7/22 kw c. 500 >40 kw CP (plug and wireless) installed with concurrent trials of alternative power delivery systems EV related DSR commercial arrangements formalised 20 40m Solutions to provide certainty of 300 370k access to homes w/o off street parking 8 10k Full national coverage c.1,100 130 230m c. 10 chargers per site c.2,200 300 530m 4 7 million 100 200k Dependant on BEV/ PHEV split and charging rates 10 15 million 400 550k 4 5k 20 25k Potential rollout of alternative power delivery systems e.g. dynamic charging on highways, battery swap or overhead cables Introduce smart systems alongside conventional network upgrades Up to c. 20bn for transmission and 30 45bn for distribution* *To handle decarbonisation of the grid and uptake of EVs, heat pumps and distributed generation such as PV panels Plug in electric vehicles stock Thousand vehicles 2020 2025 Projections are based on policyled uptake scenarios in line with the UK s GHG reduction targets Data supported quantification of infrastructure requirements Cars Vans HDVs 300 60 <5 1,500 2,500 250 400 10 4,000 8,000 700 1,300 20 20,000 25,000 3,400 4,000 130 Dashed lines represent high uncertainty Major milestone /enabler Cost estimates are cumulative costs from 2015 CP = Charge point 12

Regulatory barriers will be the primary focus for enabling natural gas infrastructure, whilst a number of technical issues must also be resolved Charge points Infrastructure roadmap Network characteristics (relevant to both public and private infrastructure) Total stations Total cost CNG LNG Location Access Station capacity 2015 2020 2025 <50 c.130 c.370 800 1,000 Financial support mainly towards fleet operators c. 68m c. 340m c. 1bn Prioritise higher pressure grid connection (2 70 bar, Local Transmission System and Intermediate Pressure) where possible. L CNG station deployment where LNG logistics are more accessible than grid connection Optimise logistics for delivery of LNG to stations, improving overall WTW emissions Strategic deployment new LNG import terminals to minimise delivery distance to LNG refuelling stations Commercial deployment along key trucking routes Wider national network expansion expected to be Targeted support for lower throughput regions fully commercial EU Directive guidance met: CNG and LNG stations on TEN T Core Network, <150km and <400km inter station distance respectively Continued development of cooperative semi public Greater fleet uptake provides sufficient investment infrastructure shared between fleets confidence for large public stations deployment Communicate real time station availability and fuel price data to end users Station size range: 2, 5, 10, 15 tonnes/day Multiple safety standards may limit LNG storage to 15 20t Indicative fuel economy: dual fuel HGV = 60 kg/day, dedicated HGV = 75 kg/day Larger LNG and CNG stations LNG safety regulations modified Multi compressors stations for CNG Natural gas vehicle stock Thousand vehicles 2020 2025 Projections are based on policyled uptake scenarios in line with the UK s GHG reduction targets Data supported quantification of infrastructure requirements HGVs <18t HGVs >18t Buses 4.0 4.0 2.0 13 12 5.1 26 24 9.7 105 85 17 Dashed lines represent high uncertainty Major milestone /enabler Costs based industry input, future cost reductions not included 13

The H 2 infrastructure roadmap reflects the diverse refuelling needs of different vehicle types and the uncertainty about the speed of the rollout Infrastructure roadmap Public access HDV depots HRS # s Pressure Van/small truck depots Indoor forklifts H 2 supply and logistics Location 350 bar 350 bar Production capacity Transport demand Hydrogen vehicle stock 2015 2020 2025 First 65 small HRS Next c. 250 medium and large HRS 700 bar SAE compliant fuelling for cars. HRS investors encouraged to make 350 bar H 2 available to support other vehicle types and maximise utilisation Up to 5 additional c. 1t/day depot based HRS Gradual growth in indoor HRS as market develops, moving from small (<50kg/day) to large (>100kg/day) Production capacity largely for industry application Next c. 700 medium and large HRS Basic national coverage Increasing forecourt integration/decreasing stand alone HRS Provide base load to underutilised network in early years Limited use of depot based refuelling where cost effective/convenient Thousand vehicles c. 3 ktpa Emergence of multi tonne/day depots in major urban areas, covering multiple routes each Continued growth based on demand c. 40m c. 160m c. 700m c. 6,800m 2020 2025 Full national coverage Nationwide deployment of large bus depots Conversion of multiple large logistics centres from batteries to fuel cells with indoor large HRS Provision of new centralised capacity to support on site deployments 2015 c. 190 ktpa production c. 2.3 Mtpa capacity exceeded Projections are based on policyled uptake scenarios in line with the UK s GHG reduction targets Data supported quantification of infrastructure requirements Cars Vans HDVs 2 <1 <1 180 350 30 60 3 680 1,400 100 200 8 4,200 16,800 750 3,000 130 Dashed lines represent high uncertainty Major milestone /enabler HRS: hydrogen refuelling station 14

With a predicted demand decrease for liquid fuels, forecourts might have to integrate new fuels and possibly be supported in certain areas Charge points Infrastructure roadmap Public forecourts Coverage Integration 2015 2020 2025 Continued slow rate of closures from c.8,600 stations Support measures for some areas might be needed to maintain network Trial integration of multiple fuel infrastructures Increased coexistence of multi fuel infrastructure to maximise utilisation Dependant on feasibility of multi fuel integration and/or specific support mechanisms E20 forecourt investment Potential transition to E20 would require upgrades to existing forecourts c. 250m 600m investment required for upgrades and capacity installations Private depots Public selling points Diesel Niche fuels LPG Growing proportion of bunkered demand will shift to utilise forecourts with fuel cards Operators trial niche fuel with small numbers of fleet vehicles c.2,000 Key findings from trials inform future operator investment Depot infrastructure fully commercial growth to follow demand Infrastructure growth c.1,400 c. 2,000 entirely market driven c. 3,000 Liquid fuel vehicle stock Thousand vehicles 2020 2025 By cars are mostly RE EVs / PHEVs Projections are based on policyled uptake scenarios in line with the UK s GHG reduction targets Data supported quantification of infrastructure requirements Cars Vans HDVs 30,000 4,000 700 32,000 4,300 700 32,000 4,300 700 50 80% decrease in fuel demand on 2015 levels 6,000 31,000 1,000 5,000 360 Dashed lines represent high uncertainty Major milestone /enabler 15