Unsustainable transport

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Unsustainable transport Cambridge Energy Forum 8 February 2007 Roger Kemp, Lancaster University "When I turn on the TV, I see wall-to-wall Humvees, and I'm proud," said Sam Bernstein from Marin County, who drives a Hummer H2. "They're not out there in Audi A4's," he said of the troops. "I'm proud of my country, and I'm proud to be driving a product that is making a significant contribution. Website: Education for Peace in Iraq Center The H2 is a gas guzzler. So while our brothers and sisters are off in the Middle East risking their lives to secure America's fossil fuel future, H2 drivers are pissing away our "spoils of victory" during each trip to the grocery store. Website: Fuck you and your H2 1

Economic significance of transport UK business invests 85bn p.a. in supply chains. 3,400 people die on the roads p.a. Road congestion costs 20bn p.a.* (1.5% GDP) Transport industry a major source of wealth/employment ¾ of households own at least one car largest single investment after the house Travel can take ~30% of someone s s active hours * CBI estimate Trends in energy use (excluding international travel) transport UK energy use up 6% in last decade Transport use, excluding international air routes, up 15% Transport s share up 33% 35% Transport s share of petroleum up 54% 65% 2

Oil reserves (billion barrels) Country OGJ WO Country OGJ WO Saudi Arabia 262 262 Libya 30 30 Canada 180* 5 Nigeria 24 32 Iraq 113 115 USA 23 23 UAE 98 63 China 18 24 Kuwait 97 99 Qatar 15 20 Iran 90 100 Mexico 13 17 Venezuela 78 53 Norway 10 9 Russia 60 59 Algeria 9 13 OGJ = Oil & Gas Journal, WO = World Oil estimates * primarily oil shale Oil exhaustion scenarios Colin Campbell, 1996 http://www.oilcrisis.com/midpoint.htm Jean Leherrère http://www.oilcrisis.com/midpoint.htm 3

Climate change Reduction in fuel use 200 Assumes principle of equal pain Fuel consumption MtC 150 100 50 0 2000 actual 2050 550 ppm 2050 450 ppm To achieve 550 ppm CO 2 requires 55% reduction To achieve 450 ppm CO 2 requires 79% reduction Source: Leeds ITS 4

Global options for reducing CO 2 Equal reductions all round? Maintaining present 1st / 3rd world imbalance Contraction and convergence? Equal pain between sectors? Transport gets all the oil and ESI goes renewable? Photos: European Commission Reducing CO 2 in the transport sector Increasing efficiency of transport systems to use significantly less fuel per passenger-km or tonne-km Reducing the overall amount of personal travel and movement of goods Transferring passengers and freight from high-consumption modes (roads & air?) to low-consumption modes (rail?) Obtaining energy from non-carbon sources 5

Modal transfer Effect of TGV-PSE on domestic air services 400 Relative to 1972 300 200 100 Nice Marseilles Lyon Other routes 0 1972 1976 1980 1984 It can be argued that TGV cut CO 2 in France, due to nuclear generation Would the same be true in Britain? Source: Berlioz & Leboeuf (1986) An alternative view Norway cannot treat electricity as carbon-free. There is only a certain amount of hydro-power and, if it is not used for a high-speed line, it could be exported to Germany to replace the burning of lignite in conventional power stations. Are Wormnes, Norwegian Centre for Transport Research 6

Non-carbon electricity Renewables 3% Other 2% Nuclear 26% Coal 34% Gas 35% Does it matter where energy comes from? Energy use of UK electric trains Class 373 Eurostar Class 390 Pendolino 9-car Class 90 + 9 + DVT Class 390 Pendolino 11-car Class 458 SWT Class 460 Gatwick Express Class 91 IC225 Class 357 Electrostar 0.00 0.01 0.02 0.03 0.04 0.05 0.06 Energy kwh/seat-km 7

Fuel consumption of UK diesel trains Class 221 Voyager Class 222 Meridian Class 180 Adelante Class 43 HST Class 170 Turbostar 0 0.2 0.4 0.6 0.8 1 1.2 1.4 Fuel consumption litres/100 seat-km CO 2 emissions of electric and diesel trains Class 221 Voyager Class 222 Meridian Class 180 Adelante Class 373 Eurostar Class 43 HST Class 170 Turbostar Class 390 Pendolino 9-car Class 90 + 9 + DVT Class 390 Pendolino 11-car Class 458 SWT Class 460 Gatwick Express Class 91 IC225 Class 357 Electrostar 0 5 10 15 20 25 30 35 40 CO2 g/seat-km 8

Load factor Most vehicles (trains, cars, planes, ships) use much the same amount of fuel however many people are travelling Average load factor on trains 30% varies between 20% and 50% depending on TOC full leaving London, empty north of Lancaster Average number of people in a car 1.8 What is the load factor when a parent is taking a child to school by car? Load factors Train load factor 2005-06 0.5 0.4 Load factor 0.3 0.2 0.1 0.0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 TOC NB: TOCs 11 and 17 are misrepresented due to other sources of passengers 9

On average buses carry 9 passengers and achieve 5.6 miles/gallon Carbon emissions of transport Plane Lon - Mcr Plane Lon - Edi Plane Cardiff - N'cstle Private car Class 221 Single deck bus Class 222 Class 180 Class 373 Eurostar Double deck bus Class 170 Class 43 HST Class 458 Class 357 Electrostar Class 390 Pendolino Class 91 IC225 Megabus Full bar = 2007 Blue bar = 2017 0 50 100 150 200 250 300 grams CO2 per passenger km 10

Car fuel consumption Average of new cars, excluding SUVs Toyota Land Cruiser Fuel consumption l/100km 10 8 6 4 2 Year VW Passat TDI Toyota Prius Hybrid? 0 1975 1980 1985 1990 1995 2000 2005 Source: DfT Non-carbon fuel Requires widespread planting of biomass crops competing with food destruction of amenity Environmental impact High water demand Possible fertiliser use Voluminous by-product disposal 11

Hydrogen fuel cells Are hydrogen vehicles a way of reducing global warming... or insulating the USA from the reality of the Middle East? Where will the hydrogen come from? Hydrocarbons? Electrolysis? Flying at 0.01 metres and 500 km/h 12

Power demand of 10-car maglev Power drawn from grid when accelerating 70 60 50 Power MW 40 30 20 10 0 0 20 40 60 80 100 120 140 Speed m/s Airbus consumption vs. sector length A321-100 single class seating Consumption litres / seat 50 40 30 20 10 0 0 500 1000 1500 2000 Sector distance km Source: Airbus 13

A high-speed line? For Rail uses less energy per seat Rail uses electricity not liquid fuel Rail emissions are at ground level Against Present traffic levels could not fill a high-speed line Planes in UK operate at higher load factors Diversity of destinations 14

Modal split of available seats Edinburgh English airports 1500 Seats/h 1000 500 35000 0 Air Rail 30000 25000 Seats/h 20000 15000 10000 5000 NB: Figures are approximate and refer to 07:00 17:00 Estimated roads figure refers to available infrastructure capacity 0 Air Rail Road TGV-PSE Tokaido Shinkansen Commuting by bus 15

Commuting by car Commuting by HS train & car 16

Air rail modal shift Scotland - London HS rail is always less environmentally damaging than air Particularly if it uses non-carbon electricity Measured on CO 2 emissions per seat Air rail substitution by itself would not provide sufficient passengers for a HS line It would be almost impossible to prevent a new HS line creating environmentally damaging travel growth (e.g. commuting) Transfer of passengers from conventional rail to HS rail is environmentally damaging, unless using non-carbon energy A privately financed HS line is only likely to be viable if operators have a free hand to maximise travel growth Net effect of a new HS line or Maglev could be to increase overall CO 2 emissions, despite transfer from air to rail Ferry 2000 passengers (with cars) 50,000 kw, 50 km/h Train 500 passengers 4,000 kw, 200 km/h Plane 200 passengers 20,000 kw, 800 km/h 17

London Hyderabad : options Plane (A380, B747) The Orient Express with sleeping/dining cars Ocean liner Overland bus/train (with hotel stops) Conclusions Travel, other than on foot or by bike, is environmentally undesirable Operating full vehicles is generally more important than the vehicle type Air travel will always be bad for the environment But the alternatives can be worse! 18