Hydrogen vehicles for hydrogen infrastructure TODAY! Birmingham March 2017 “Hydrogen Vehicles TODAY” • Hydrogen dual fuel technology update • Practical examples of use in fleets • Utilising Infrastructure • Lead times and conversion process H2ICED® - A practical approach for reducing C02 emissions in commercial vehicles • Ultra- low emissions (C02 & Air Quality) • Displace diesel with H2 (very low carbon fuel) • Manage the bi-products of combustion in air using emission control systems/approaches available on existing vehicles • Efficient energy use: • H2 combustion in compression (diesel) engines ( approx. 40% thermal efficiency) • Dual Fuel allows for operating on diesel when hydrogen is not available Witnessed Vehicle Certification Agency test results on EURO 5 TRANSIT ® 100% discount Customers can achieve 66% lower CO2 emissions saves 2.9 tes for every 10,000 miles driven Well to wheel saving up to 62% depending on the source of the H2 Merc Econic DAF Road Sweeper EURO 6 Vans 100,00’s of miles of CO2 saved • Vehicles being used daily at all the H2 refuelling stations in the UK • • • • Nearly 30 vans on the road in the UK 2 Ford Rangers (4*4) 2 Refuse Truck HGVs completed & two on order 1 Arctic Truck in Canada & one on the way in the UK (for Heathrow Airport) • 2 Inland water way marine barges in Continental Europe • Plus – 11 more UK; China; Spain Approach Match to requirements (commercial operations) Issue for use (commercial operations) Diesel Euro 6/VI Meets air quality requirements !!! Easy access to refuelling infrastructure Range that matches all duties Lowest capital cost; Known reliability & maintenance regime; OEM supplied with good range of choice Increased Opex cost from “Adblue” Some operational inconvenience for refilling Adblue (particularly for large vans) Some operational issues with DPF Doesn’t improve on carbon emissions Well understood leasing options/value proposition Reduces opex (lower fuel price) Meets air quality requirements Needs Biogas (or carbon credits) to meet carbon reduction targets & the infrastructure has to ensure methane is not emitted from the station Limited OEM options to date & Limited public access infrastructure Higher capital cost Needs Biogas (or carbon credits) to meet carbon reduction targets & even then methane slip risks increase in GHG Increase in maintenance costs & Additional capital cost No available system that meets Euro VI emissions & No OEM options Limited public access infrastructure Additional capital cost No OEM option & some limitation on base vehicle options for conversion Limited CO2e emissions benefits Additional capital cost Not widely available (prototype or limited choice) Significant impact on payload due to battery weight Limited impact on CO2 emissions (depending on battery size) Methane Gas (100%) (LNG/CNG) Methane Gas (Dual Fuel) Reduces opex (lower fuel prices) Range that matches all duties Established conversion suppliers for EURO V LPG (Dual Fuel) Meets air quality requirements Range that matches all duties Easy access to refuelling infrastructure Established converters Moderate saving on opex (fuel cost) Meets air quality requirements Possible opex savings (electricity cost versus fuel savings) Range of duties possible Battery 100% 100% Hydrogen (Fuel Cell & ICE) Hydrogen combustion Dual fuel Significantly exceeds air quality requirements Opex savings from electricity price and lower maintenance costs Would be zero emission for air quality Will significantly reduce CO2e reduction Significant reduction of CO2e Will exceed Euro VI emissions standard Optimum performance on Urban duty cycles & range flexibility Retrofit technology available & Minimal impact on payload Battery Hybrid Not available yet Very Limited range/duty cycles & Localised charging infrastructure needed Charging time & Battery life concerns in heavy duty use Significant impact on payload due to battery weight Not available yet Very expensive capital cost for FCEV (electric drive train & fuel cell) High cost of H2 relative to diesel Will be limited range (depending on the infrastructure) No opex saving due to cost of H2 compared with diesel Additional capital cost Limited H2 public fuelling infrastructure (although growing) No OEM solution Utilisation of Infrastructure for Hydrogen projects & growth in deployment • Heavy use vehicles will use more H2 • More miles • More mpg equivalent • Reliable known technology with little maintenance requirement in itself • Back to base fleets can be planned and infrastructure requirements optimised • Diesel is available when hydrogen is not; allows for testing, maintenance and overall down time ULEMCo’s customer service for any large van or HGV • Determine options for amount of hydrogen on board storage • Assess duty cycle; identify key emission reduction requirement; determine weight and space limitations • Estimate on board hydrogen storage capacity • Determine budget versus results requirement • Design specific, safely engineered solution • One off design for vehicle type • One off engine calibration exercise • Install “optimised for use” hydrogen system • Full ECU controlled system or supervisory approach • Supply VSO registered vehicle for use • Match OEM Warrantee & provide ongoing technical support A business model that is global and has the flexibility to create jobs in local markets • Short Term: • One off proto-type conversions; corporate social responsibility demonstrations; H2 consultancy; maintenance and support • Focussed on localised H2 infrastructure & back to base fleets • Public fund support • Medium Term • • • • Supply of Kit to trained converters, globally Other transport applications Supply of H2 infrastructure On going development & demonstration • Long Term • whole system ultra low emission mileage “leasing” In summary • Hydrogen dual fuel: • Deliver SIGNFICANT carbon dioxide emission reduction • Meets or exceed Air Quality emissions • Proven technology • Diesel is always available if H2 is not • Ultra Low Emissions are feasible within the next 5 years for all types of vehicle
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