ADVANCED & FUTURE FUELS IN MOTORSPORT

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ADVANCED & FUTURE FUELS IN MOTORSPORT RICHARD KARLSTETTER GLOBAL TECHNOLOGY MANAGER RACING FUELS Shell Global Solutions Deutschland GmbH Shell Global

1 ADVANCED & FUTURE FUELS IN MOTORSPORT RICHARD KARLSTETTER GLOBAL TECHNOLOGY MANAGER RACING FUELS Shell Global Solutions Deutschland GmbH Shell Global Solutions is a network of technology companies of the Shell Group PERFORMANCE AND ENGINEERING FORUM PROFESSIONAL MOTORSPORT WORLD EXPO 2007 COLOGNE, NOVEMBER 6, 2007

Forecast of automotive fuel demand Energy Demand (x10 18 J ) 300 Electricity 250

efficiency will be of prime importance Key selection criterion for alternative

non-fossil fuel option 150 100 50 0 Heavy Oil Diesel/Gasoline 2000 2020 2040 2060

will dominate the market for the next decades Existing logistics for liquid fuels

2 Forecast of automotive fuel demand Energy Demand (x10 18 J ) 300 Electricity Hydrogen Gas Synthetic Fuels And biofuels Gaseous Fuels Improved energy efficiency will be of prime importance Key selection criterion for alternative fuels ought to be cost effectiveness Bio Fuels are the only short term viable non-fossil fuel option Heavy Oil Diesel/Gasoline Liquid Fuels Wealth of potential vehicle-fuel solutions Fossil fuels will dominate the market for the next decades Existing logistics for liquid fuels will benefit non-gaseous fuels A future for new fuels - but fossil fuels still dominate 2 Source: WEC

3 Changes to automotive fuels are inevitable De-Carbonisation = CO 2 reduction to it s best 1) Improvements in conventional fuel technology 2) Replacements for conventional fuels 3) Hydrogen from various sources cleaner gasoline and diesel Coal C new fuels (GTL, CNG, ) 1 st gen. Oil C 1 H 4 C 1 H 2 Gas hydrogen from NG, biomass, wind, Bio-fuels: C 1 H 4 C 1 H 2 advanced Reduction in CO 2 emissions Hydrogen H Hydrogen H new vehicle concepts (HCCI, hybrids, ) hydrogen fuel cells, fossil carbon : hydrogen ratio biogenic carbon : hydrogen ratio improved vehicle efficiency and aftertreatment 3

4 GTL as an Option for More Oil Independency Cleaner-burning synthetic fuel made from natural gas Can be used in today s infrastructure and diesel vehicles Lower local emissions can help tackle air pollution in cities Lifecycle CO 2 from GTL system comparable with refinery system Identical products can be made from biomass (BTL) and coal (CTL) Natural Gas Shell Gasification Process Fischer-Tropsch process Existing engines Refinery diesel 100% Local emissions from GTL Fuel compared with conventional diesel Optimised engines 50% 0% NOx PM HC CO % reduction 5-45% 25-40% 45-60% 40-85% GTL Products Source: ASFE Emissions benefits vary depending on vehicle type and technology level Emissions reductions for light duty diesel engines 4

Gas to Liquid (GTL) Fuels will play an important role in the future (mid & long term) Simplified Process Natural gas Syngas manufacture Air separation O 2 CO+H 2 -(CH 2 ) n - Synthesis* Water

5 Gas to Liquid (GTL) Fuels will play an important role in the future (mid & long term) Simplified Process Natural gas Syngas manufacture Air separation O 2 CO+H 2 -(CH 2 ) n - Synthesis* Water Hydrocracking Fuels Chemicals GTL Fuels Clear, clean products Shell operates the worlds only commercial GTL plant of its type in Malaysia (operating since 1993) Use Natural Gas feedstock to produce high quality products: - Diesel, Kerosene, Base Oils & Chemicals 5 * Fischer-Tropsch Synthesis

Clear, clean products GTL Fuel is colourless, odourless, virtually free of sulphur and aromatics and has

6 Drivers for GTL Fuel - status GTL Fuels are marketed by Shell in V-Power Diesel In many markets a separate diesel distribution channel is required to accommodate specialised base fuel and additives Clear, clean products GTL Fuel is colourless, odourless, virtually free of sulphur and aromatics and has a high cetane number GTL offers reduced local emissions and can be used in existing vehicles and distribution system 6

7 Drivers for an advanced Racing Diesel Fuel Public Acceptance Diesel Race Fuel Specification Non-toxic Components Constant high quality Meeting at least state of the art local emissions High Cetane level Sulphurfree Technology Be ahead No visible exhaust emissions No-harm with emission aftertreatment devices Advanced protection injection systems Reduced rawemissions FAME free Top-tier Diesel Fuel basis Formulated for motorsport applications Reduced visible emissions vs standard Diesel (using novel base fuels) Be ahead of European Fuel Directives! 7

Fuel technology for performance diesel engines POWER High fuel energy content Good driveability & smooth acceleration FUEL EFFICIENCY Enhanced combustion Ideal balance power / fuel consumption

8 Fuel technology for performance diesel engines POWER High fuel energy content Good driveability & smooth acceleration FUEL EFFICIENCY Enhanced combustion Ideal balance power / fuel consumption EMISSIONS Reduced raw emissions 100 % control of engine out emissions Ideal conditions for after treatment devices Approval from after treatment suppliers RELIABILITY & DURABILITY Cleanliness of diesel injection system Advanced protection of diesel injection system Approval from injection system suppliers 8

9 24 Heures du Mans 18 th June 2006 Motorsport history was made! Shell V-Power Diesel fuel technology powered the Audi R10 TDI of Frank Biela, Marco Werner & Emanuele Pirro took a stunning victory by 4 laps. New distance record for the current circuit layout 380 laps record in the 24 hours Equivalent of 5,187 km; almost the entire distance of a Formula 1 season Winning car s average speed was over 215 kph 9

Introduction to biofuels Made from biomass plant matter or organic waste Generally produce less CO 2 over life-cycle

vehicles at low concentration blends with petrol/diesel Higher concentrations typically require modified vehicles Can

Typically more expensive Sustainability issues (first generation biofuels) First generation biofuels made from food

10 Introduction to biofuels Made from biomass plant matter or organic waste Generally produce less CO 2 over life-cycle compared to gasoline/diesel Vary by feedstock, manufacturing process, CO 2 production and cost Can be used in today s vehicles at low concentration blends with petrol/diesel Higher concentrations typically require modified vehicles Can contribute to increased energy security and economic development Challenges / limitations: Lower energy density Typically more expensive Sustainability issues (first generation biofuels) First generation biofuels made from food crops e.g. rapeseed, soyabeans Second generation biofuels made from agriculture /forestry residues e.g. straw, woodchips 10

11 Shell has invested in leading biotechnology companies to help commercialise second generation biofuels First generation biofuel Second generation biofuel 11

12 Second generation biofuels offer significant reductions in W2W CO 2 production g CO 2 /km 200 First generation 50% 100 Second generation 90% 0 Gasoline Diesel Ethanol Bio- Esters Cellulose Ethanol BTL Source: EUCAR/CONCAWE/ JRC Well to Wheels Study,

Biofuels First generation biofuel Potential benefits of second gen.

performance - Lower costs - More acceptable feedstocks (non food) however not available in large scale commercial

Generation Waste Bio Mass to Liquid (BTL) as 2nd Generation Shell is working with CHOREN to develop commercially

Ethanol 2nd Generation Iogen use non-food biomass to produce ethanol for blending into conventional gasoline to reduce

13 Biofuels First generation biofuel Potential benefits of second gen. biofuels: Bi Gasoline Second generation biofuel 2nd o- te es rs Diesel - Greater CO2 reductions (~90%) - Improved performance - Lower costs - More acceptable feedstocks (non food) however not available in large scale commercial quantities for 5-10 years. Generation Waste Bio Mass to Liquid (BTL) as 2nd Generation Shell is working with CHOREN to develop commercially available high quality bio-component for diesel using a Biomass to Liquid process. Ethanol 2nd Generation Iogen use non-food biomass to produce ethanol for blending into conventional gasoline to reduce CO2 emissions. Simplified Process Pre-treatment ww w.b iofuel s.d k - hemi-cellulose - cellulose - lignin The Carbo-V BTL Process Enzyme production Enzymes Hydrolysis Lignin Steam generation C5+C6 sugars Standard bio-ethanol production steps 3 phase gasification Gas Treatment F-T Synthesis hydrocracking 13

14 Alternative fuel current assessment of costs & benefits Total Costs: Drive train Fuel supply Vehicle Refuelling system Development Hydrogen BTL F.A.M.E Conventional Ethanol Conventional Fuels Cellulose Ethanol CTL GTL Customer benefits: Ease of Application Emissions Performance 14

15 Biofuels the solution? 15

16 Biofuels are expected to play an increasing role in the fuel mix Source: International Energy Agency,

17 Biofuels can offer environmental benefits without large-scale infrastructure change Gasoline & diesel Local emissions = CO2 = GTL in diesel Local emissions + CO2 = BTL in diesel Local emissions + CO2 + Ease of Implementation (supply & vehicle infrastructure) KEY: All comparisons are approximate and relative to gasoline / diesel: = Comparable + Better than -Worse than CO2 is lifecycle CO2 production Bio-esters in diesel Local emissions = CO2 + Ethanol in gasoline Local emissions +/- CO2 + LPG Local emissions =/+ CO2 + CNG Local emissions =/+ CO2 + Hydrogen Local emissions + CO2 (depends on source) =/+ Cellulose Ethanol in gasoline Local Emissions +/- CO2 + Environmental Performance (local emissions & CO2) 17

18 EU-25 Biofuel Targets and Implications Biofuel Share in Transport 35% 30% 25% 20% 15% 10% 5% 0% EU Directive 2003/30/EG 2% 5,75% EU Biofuels Vision Report 2030 EU summit March % 25% Strong growth required Need for high quality biofuels for easy implementation in existing fleets Need for use of wide range of bio feedstocks Source: European Commission 18

19 Summary Conventional fuels from crude oil will further dominate over the next 20 years CO2 reduction, emissions, sustainability and energy efficiency, are the core drivers for future fuels, also for racing fuels Diesel racing will further grow, as providing a significant contribution to energy efficient racing GTL has a major role to demonstrate synthetic fuel benefits and acts as a bridge to advanced bio components as BTL Advanced bio-components incorporated in racing fuels can demonstrate technical opportunities and trends Shell is investing in technologies and partnerships and is a leader in future fuel technology, backed up by our technical cooperation in Motorsport. What we learn on the track is used to improve and create new fuels for the road to the benefit of the 20 mln+ drivers every day who fill up at Shell 19

A Transportation Perspective on Biodiesel and Advanced Biomass Conversion Fuels. California Energy Commission Sacramento, CA March 1, 2005

A Transportation Perspective on Biodiesel and Advanced Biomass Conversion Fuels California Energy Commission Sacramento, CA March 1, 2005 1 Outline 1. Evolution of: Energy-Environmental-Fuel 2. Renewable