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0-5 years |
5-10 years |
10-20 years |
| Fuel Cells |
Adopt DoE targets e.g. >300 mile range Whole vehicle design for fuel cell system
Efficient low cost blowers for FC 5% of new car fleet |
Efficiency of FC system (DoE) >60%LHV at 25% load, >50%LHV at 100% load Achieve “Powering future vehicles” low carbon targets for uptake
1 month 50% leakage gaseous H2 storage Adopt US DoE target sets for automotive applications
25% of new car fleet |
50% of new car fleet |
| Hybrid Powertrains |
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Reduction in waste heat by 50%
On-cost of hybrid systems justified by fuel savings in first 3 years |
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| Advanced internal combusiton engines |
Reduction in parasitic engine load by 25%
>35% efficiency Gasoline engine CO2 equivalent to 2004 diesel car for same performance 20% of new vehicle fleet |
>35% efficiency
50% of new vehicle fleet |
>40% efficiency
90% of new vehicle fleet |
| Electrics and electronics |
Advanced motors to improve packaging |
Improvement in motor life, weight and efficiency by 20%, 15%, 5% |
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Conventional and alternative fuels |
Bi fuel gasoline alternative fuel engines optimised for alternative fuels
CNG/LPG engines run gasoline as back-up
Enough hydrogen for 15% of new vehicle fleet |
H2 storage retaining >75% fill over 2 weeks
Enough hydrogen for 50% of new vehicle fleet |
20% biofuel in (alternative) fuel chain by 2020
Highly boosted H2 fuelled IC engines
Enough hydrogen for 75% of new vehicle fleet |
| Systems integration / infrastructure |
Integration of fuel cell system to vehicle with focus on auxiliary components e.g. power electronics, motors, air conditioning |
Unpack vehicle targets into component and controller specs |
Fully integrated system of of wind turbines, PV’s, tidal power, electrolysers making renewable hydrogen |
| Design and manufacture |
Design manufacturing processes for economic production of batch volumes |
Major reduction in unladen weight of HGV’s |
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