driving transport towards...
TRANSCRIPT
Battery technology is not advanced enough yet to drive longer
distances under electric power alone
Only limited range is possible
12 September,
2014 Driving Transport Towards Tomorrow| Truck Engineering
Calculation: consumption: 20 l/100 km /33 l/100 km, efficiency: diesel engine = 40%, electric motor = 80%, energy content: diesel = 11.8 kWh/kg, Li-Ion battery = 0.19 kWh/kg, weight: diesel = 0.845 kg/l, Li-Ion battery = 2 kg/l
Range Diesel
500 km 12-tonne distribution operations
3000 km 40-tonne long-distance operations
100% electric with best of class Li-Ion battery
990 litres 836 kg
100 litres
85kg
2.6 m3
5,200kg
Urban Delivery or Long Distance
12 September,
2014 Driving Transport Towards Tomorrow| Truck Engineering
Vehicle manufacturers and alternative fuels
Vehicle Manufacturers must meet legislative requirements to sell vehicles. Euro 6 & EuroVI
After market conversions still have to do this:
“It is an offence under the Road vehicles (Construction and Use) Regulations
(Regulation 61a(3)) to use a vehicle which has been modified in such a way that it no
longer complies with the air pollutant emissions standards it was designed to meet.
Vehicle manufacturers must have a reference fuel to test their engines therefore unless a fuel
has a recognised standard it cannot be approved
Chicken or Egg?
This is one of the reasons vehicle manufacturers are wary about approving the use of
alternative fuels.
12 September,
2014 Driving Transport Towards Tomorrow| Truck Engineering
Fuel
Diesel EN 590
BioDiesel EN 14214
FAME Not certified for Euro VI in greater quantities than 7%
Methane DIN 51624
BioMethane DIN ????? Limited supply (RTFO,
DME ASTM D 7901 Undergoing trials in Scandinavia
PPO EN ????? Not certified for Euro VI Diesel Engines
12 September,
2014 Driving Transport Towards Tomorrow| Truck Engineering
ASTM American Society for Testing and Materials
DIN German Institute for Standardisation
EN European Standard
Drop in Fuels
Issues with 1st generation produced with feedstocks from food crops
Potential technology pathways include:
Pyrolysis or liquefaction of biomass to bio-oil with hydroprocessing
HVO High blends will meet EN 590 Not readily available
Upgrading alcohols to hydrocarbons
Catalytic conversion of sugars to hydrocarbons
Fermentation of sugars to hydrocarbons
Hydrotreating algal oils
Upgrading of syngas (CO and H2) from gasification
12 September,
2014 Driving Transport Towards Tomorrow| Truck Engineering
Future Development
12 September,
2014 Driving Transport Towards Tomorrow| Truck Engineering
Aerodynamics
Practical?
No range issues
Cost effective
Semi Autonomous Convoys
12 September,
2014 Driving Transport Towards Tomorrow| Truck Engineering
Semi Autonomous Convoys
Realistic?
Safety issues?
Not all routes
Public acceptance
Cost effective
Future Development
12 September,
2014 Driving Transport Towards Tomorrow| Truck Engineering
Electric Trucks – Battery – Electric –
ICE – Fuel Cell
Realistic?
Range – Overhead cable network - but
Can run on Diesel when no overhead cables
Cost prohibitive cable infrastructure needed
Could be used in inner cities with bus or tram
systems?
Future Development
12 September,
2014 Driving Transport Towards Tomorrow| Truck Engineering
Driverless Trucks
Realistic?
Safety issues?
Not all routes
Public acceptance
Cost effective
Future Development
12 September,
2014 Driving Transport Towards Tomorrow| Truck Engineering
Fuel cell
Realistic?
200 mile range
Batteries need replacing at 10,000
hours
Cost prohibitive?
$2,700,000 each