Grid to Mobility Demonstrator

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Grid to Mobility Demonstrator Infrastructure energy demand for battery and hydrogen fuel cell vehicles Yorick Ligen, EPFL LCA of Mobility Solutions DF66 Zürich, 30.08.2017 Grid To Mobility Demonstrator - Martigny 2017 1

BEV/FCEV comparison Efficient use of renewable electricity Driving range Efficiency = Energy input Ratio BEV/FCEV efficiency? Up to 3.6 (comparing energy not distance, Bossel 2006) As low as 1.5 (400km range, Thomas 2009) 1.4, 1.6 (Well to Tank only, Li 2016, Campanari 2009) Sources: U. Bossel, Does a Hydrogen Economy Make Sense?, Proc. IEEE, vol. 94, no. 10, pp. 1826 1837, Oct. 2006. C. E. Thomas, Fuel cell and battery electric vehicles compared, Int. J. Hydrog. Energy, vol. 34, no. 15, pp. 6005 6020, Aug. 2009. M. Li, X. Zhang, and G. Li, A comparative assessment of battery and fuel cell electric vehicles using a well-to-wheel analysis, Energy, vol. 94, pp. 693 704, Jan. 2016. S. Campanari, G. Manzolini, and F. Garcia de la Iglesia, Energy analysis of electric vehicles using batteries or fuel cells through well-to-wheel driving cycle simulations, Journal of Power Sources, vol. 186, no. 2, pp. 464 477, Jan. 2009. BEV versus FCEV Grid To Mobility Demonstrator - Martigny 2017 2

Well to Tank and Tank to Wheel vs Grid to Mobility Storage? BEV Electrolyzer FCEV Grid electricity to Energy carrier Energy carrier to on-board Storage Focus on refilling events Tank to Wheel On-board Storage to Mobility Grid To Mobility Demonstrator - Martigny 2017 3

Grid To Mobility Assessment Vehicle type BEV FCEV ICEV Charging mode Home outlet Fast charger HRS Conventional refuelling station Energy carrier 2 to 6 kw 50 kw Up to 35 L min -1 flow rate up to 150 kw 2 kg min -1 Autonomy flow rate 0.2 0.6 km min -1 3-5 km min -1 (50 kw) 9-15 km min -1 (150 kw) 160-220 km min -1 370-430 km min -1 Holistic overview covering multiple charging modes and EV types within a consistent scope and methodology Systematic quantification of all conversion steps occuring from grid to onboard storage Grid To Mobility Grid To Mobility Demonstrator - Martigny 2017 4

Grid To Mobility Assessment - Infrastructure 78% 89% 88% 93% 93% 75% 98% 96% 66% 69% 48 kwh/kg 97.7% 0.8 kwh/kg 60% 95% 1.75 kwh/kg 97.1% 1 kwh/kg 57% Grid To Mobility 96% 1.4 kwh/kg Grid To Mobility Demonstrator - Martigny 2017 5

Grid To Mobility Assessment Step BEVs Slow BEVs Fast FCEVs 35MPa and 70MPa Grid to useful electricity No conversion required AC/DC conversion AC/DC conversion Useful electricity to energy carrier Storage in stationary battery AC coupled Storage in stationary battery DC coupled Variable load electrolysis Purification 20 MPa compression Energy carrier to onboard storage On-board storage to mobility % of energy transferred from grid electricity 100 90 80 70 60 50 40 30 20 10 100 89 78 On-board AC/DC conversion EPA combined cycle 18 kwh/100km 435 km 93 93 93 70 66 365 km Dispenser DC/DC conversion Battery Thermal Management EPA combined cycle 18 kwh/100km 61 60 61 191 km 57 50 MPa cascade compression 90 MPa cascade compression 40 C precooling Dispenser Vent EPA combined cycle 0.94 kg H 2 /100km 182 km Market data and test bench measurements (Idaho National Laboratory, Advanced Vehicle Testing, EPA, Linde, UC Irvine ) Ratio BEV/FCEV : 1.9 to 2.4 0 BEV Residential ESS BEV Fast DC FCEV 35 Mpa FCEV 70 Mpa Grid to useful electricity to energy carrier to on board storage to normalized mobility Grid To Mobility Grid To Mobility Demonstrator - Martigny 2017 6

Grid To Mobility Assessment - Sensitivity Other effects: Winter conditions: +5.3 kwh/100 km (0 C) and +15.3 kwh/100 km (-20 C) energy consumption compared to driving conditions at 20 C (Karlsson, 2017) Vehicle weight: Tesla Model S 2017 60D versus 100D : 17.1 versus 18.6 kwh/100km (www.fueleconomy.gov) Grid To Mobility Grid To Mobility Demonstrator - Martigny 2017 7

Technology Progress Vehicle side FCEV Hyundai (ix35 Fuel Cell 2013 // FE Concept 2018) 55.3% 60% fuel cell efficiency (+9% in 5 years) Toyota (FCHV-adv 2008 // Mirai 2015) 1.4 kw/l & 0.83 kw/kg 3.1 kw/l & 2.0 kw/kg Mercedes (B Class 2010 // GLC Fuel Cell 2017) BEV Tesla Model S AWD: 2014 // 2017 85 kwh & 21.8 kwh/100km // 100 kwh &18.6 kwh/100km (EPA) Nissan Leaf: 2011 // 2016 24kWh & 20.5 kwh/100km // 30kWh & 17.4 kwh/100km (EPA) Renault Zoé: 2010 (Q210) // 2017 (R240) 22 kwh & 14 kwh/100km // 41 kwh & 12.8 kwh/100km (NEDC) Infrastructure: 50 kw 150 kw 350 kw (water cooled cables) EV Progress Grid To Mobility Demonstrator - Martigny 2017 8

Thank you for your attention Yorick Ligen Ing., PhD student yorick.ligen@epfl.ch www.electromobilis.ch Grid To Mobility Demonstrator - Martigny 2017 9

Session: Renewable energy and electric mobility synergies and obstacles 11.10.2017, 11:30 11:50 Useful mobility service derived from renewable electricity: a comparison between battery electric and hydrogen fuel cell vehicles infrastructure Grid To Mobility Demonstrator - Martigny 2017 10