Comparison of EV, Hybrid and Diesel Vehicles Dalhousie University Mechanical Engineering MECH 4810 Energy Conversion Systems Winter 2013

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Comparison of EV, Hybrid and Diesel Vehicles Dalhousie University Mechanical Engineering MECH 4810 Energy Conversion Systems Winter 2013 Team #1 Project #7a Comparison of EV, Hybrid and Diesel vehicles; examining energy losses from the point of purchase to traction Daniel MacDonald Malte Marko Stephen Thomas Matt Gleddie Outline Motivation Technology Economic Feasibility Environmental Impact and Sustainability Conclusion 1

Motivation Education/demystification of energy constraints Overall efficiency Considerations of fuel types used Technology: Electric Vehicles 2013 Nissan Leaf 2

Technology: Electric Vehicles Energy stored as electricity in on-board rechargeable battery Motor/battery controller Electric motor to drive train Possibility of Electrical Regenerative Braking Technology: Electric Vehicles Battery Type Energy Density [Wh / L] Amp-hour Efficiency (varies with rate of discharge) Approximate Number of Cycles Lead-Acid 54-95 80% Up to 800 Nickel-cadmium 70-90 Good Up to 1200 Nickel metal hydride Approximately 150 Quite good Up to 1000 Sodium Sulphur 150 Very good Up to 1000 Sodium metal chloride 150 Very good >1000 Lithium 153 Very good >1000 polymer Aluminum air 195 N/A >1000 Zinc air 270 N/A >2000 3

Technology: Hybrid Vehicles 2013 Honda Civic Hybrid Technology: Hybrid Vehicles 4

Technology: Hybrid Vehicles Usually done with gasoline IC engine and electric motor system Can be series, parallel or both with IC engine running traction or a generator Technology: Hybrid Vehicles Regenerative braking capabilities Electric motor drive/assist Auto Stat/Shutoff Compress intake air with Regen braking 5

Technology: Diesel Vehicles 2013 Jetta TDI Technology: Diesel Vehicles Compression combustion cycle Ideal cycle never occurs Friction, pressure drop, environmental factors Fuel-dependant efficiency 6

Technology: Diesel Vehicles Economic Feasibility Vehicle Type MSRP [$] Annual Fuel Cost Total Fuel Cost (5 years) 5 Year Maintenance Cost *3) Residual Value in 2018 *2) Total 5-Year Cost of Ownership Nissan Leaf Electric $38395 $491 $2455 $1349 $7600 $34 599 Honda Civic Hybrid $24990 $903 $4515 $1849 $6450 $24 904 Volkswagen Jetta Diesel $23990 $1334 $6670 $1867 $6400 $26 127 7

Environmental Impact and Sustainability: Electric Vehicles Estimated 130 to 145 g CO 2 e/km NSPI CO2e/kWh Environmental Impact and Sustainability: Electric Vehicles Fuel Type Average Distance (km/year) Average Fuel Economy (kwh/km) CO 2 e Intensity (g/kwh) Total Annual CO 2 e (kg/year) Electric Vehicle 17,427 0.178 804.7 2,496.2 8

Environmental Impact and Sustainability: Hybrid Vehicles Fuel CO 2 (g/l) CH 4 (g/l) N 2 O (g/l) Total CO 2 e (g/l) Gasoline 2289 0.14 0.022 2,304.22 Fuel Type Average Distance (km/year) Average Fuel Economy (L/km) CO 2 e Intensity (g/l) Total Annual CO 2 e (kg/year) Gasoline 17,427 0.0430 2,304.22 1,726.7 Environmental Impact and Sustainability: Diesel Vehicles Fuel CO 2 (g/l) CH 4 (g/l) N 2 O (g/l) Total CO 2 e (g/l) Diesel 2663 0.133 0.400 2,789.79 Fuel Type Average Distance (km/year) [1] Average Fuel Economy (L/km) [1][2] CO 2 e Intensity (g/l) [3] Diesel 17,427 0.0688 2,789.79 3344.9 Total Annual CO 2 e (kg/year) 9

Environmental Impact Comparison Fuel Type Total Annual Carbon Dioxide Emissions Gasoline 1,726.7 Electric Vehicle 2,496.2 Diesel 3,344.9 Conclusion Each vehicle has pros and cons in terms of energy efficiency and total direct emissions. Hybrid emits least emissions per km driven In terms of energy used in traction vs. primary energy potential 10

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