ROAD TRANSPORT PASSENGER CARS, LIGHT DUTY VEHICLES, HEAVY DUTY VEHICLES SYNOPSIS SHEET

Similar documents
The Introduction of Euro IV and Euro V Emissions Directive for Heavy Vehicles

EFFECTS &BENEFITS LOW SULPHUR DIESEL

Testing of particulate emissions from positive ignition vehicles with direct fuel injection system. Technical Report

Ingenieurskunst kontra Gesetzgebung: Sind die Emissionsvorgaben Innovationstreiber oder lähmendes Korsett?

Clean Up Your Fleet. Introducing a practical approach to cleaner, more efficient fleet operation

An overview of Euro VI for trucks over 3.5t. Brought to you by Mercedes-Benz

The Introduction of Euro 5 and Euro 6 Emissions Regulations for Light Passenger and Commercial Vehicles

Development of Current and Future Diesel After Treatment Systems

Exhaust emissions from vehicles with Euro 6/VI technology

Fuel Quality and Vehicle Emission Standards in GCC countries. Name, event, date

How To Reduce No 2 Emissions In Nordic Cities

4. The role of fleets and fleet managers Role of REC?

CLEAN VEHICLE Technologies

THE EFFECTS OF CETANE NUMBER AND FUEL SULPHUR CONTENT ON EXHAUST EMISSIONS FROM THE EURO III DIESEL VEHICLE

TYRE PRODUCTION SYNOPSIS SHEET

EURO VI. Technologies & Strategies. Relatore: M.Maritati Commercial training

4. The role of fleets and fleet managers

Emission standards for light and heavy road vehicles

INTERNAL COMBUSTION RECIPROCATING PISTON ENGINES

Understanding Tier 4 Interim and Tier 4 Final EPA regulations for generator set applications

Emissions and fuel consumption of natural gas powered city buses versus diesel buses in realcity

Selective Catalytic Reduction (SCR) and Diesel Exhaust Fluid (DEF) Training Module

WHY WOULD A NATURAL GAS ENGINE NEED A PARTICLE FILTER? Gordon McTaggart-Cowan

Emissions from Euro 3 to Euro 6 light-duty vehicles equipped with a range of emissions control technologies

AUTOMOTIVE GAS OIL. Robert Shisoka Hydrocarbon Management Consultancy

Better. Where It Counts. Cummins 2013 ISB6.7 For Truck Applications.

Alternative to Fossil Fuel

H- 3: Composition of the road motor vehicle fleet by fuel type. 2) Relevance for environmental policy... 2

Perfectly Adapted. ISB Euro 6 Diesel Engines PS. Cummins Ltd. Address Line One Address Line Two Address Line Three

Emissions pollutant from diesel, biodiesel and natural gas refuse collection vehicles in urban areas

Reducing Emissions from Diesel Vehicles An essential guide on how to switch to a clean and efficient diesel fleet

The AOPII Cost-effectiveness Study Part III: The Transport Base Case. Annex B.1 Finland

DRY CLEANING SYNOPSIS SHEET

Electronic Diesel Control EDC 16

Toyota commercialises its first diesel hybrid

EPA emission regulations: What they mean for diesel powered generating systems

The Road Map For Achieving Euro Standards in New Vehicles and Fuels To Improve Air Quality in Vietnam

In-service emissions performance of Euro 6/VI vehicles.

Reducing Particle Emissions: the Growing Demand for Alternative Fuels. Dr. Nils-Olof Nylund VTT Technical Research Centre of Finland

Scania s Euro 6 range: Proven technology and a solution for every need

Cleaner vehicle fleets in. Central and Eastern Europe

Fault codes DM1. Industrial engines DC09, DC13, DC16. Marine engines DI09, DI13, DI16 INSTALLATION MANUAL. 03:10 Issue 5.0 en-gb 1

US Heavy Duty Fleets - Fuel Economy

Application of Synthetic Diesel Fuels

Meet Clean Diesel. Improving Energy Security. Fueling Environmental Progress. Powering the Economy

Engineering Clean Air: The Continuous Improvement of Diesel Engine Emission Performance

Improvement and Simplification of Diesel Particulate Filter System Using a Ceria-Based Fuel-Borne Catalyst in Serial Applications

SYNTHETIC FUELS: Driving Towards Sustainable Mobility A PUBLICATION BY ASFE ALLIANCE FOR SYNTHETIC FUELS IN EUROPE

Measurement Systems for Diesel Exhaust Gas and Future Trends. Oxidation catalyst DPF Flow mete. Soft ionization mass spectrometer

Spark Ignited Natural Gas Engine Technology

Marine after-treatment from STT Emtec AB

Michael Bitter, Robert Bosch GmbH

Testing of various fuel and additive options in a compression-ignited heavy-duty alcohol engine

How To Test Aerify

Emissions from Euro 3 to Euro 6 light-duty vehicles equipped with a range of emissions control technologies

Marine after-treatment from STT Emtec AB

L ingegno è motore. Alfredo Altavilla CEO

Emission Facts. The amount of pollution that a vehicle emits and the rate at which

COMMISSION OF THE EUROPEAN COMMUNITIES COMMISSION STAFF WORKING DOCUMENT. Annex to the

Sales & Marketing Natural Gas Business Development & Product Unit CNG for cleaner cities and road transport

Emission report Honda accord/cu1

FPT FIAT POWERTRAIN TECHNOLOGIES PRESENTS ITS ENGINE RANGE FOR CONSTRUCTION APPLICATIONS AT INTERMAT 2009

Diesel and gas engine systems for EURO VI on-highway applications

REFINED ENGINE COMPONENTS

Commercial vehicles and CO 2

4000 Series 4008TAG2A Diesel Engine ElectropaK rpm

Dr. István ZÁDOR PhD: Rita MARKOVITS-SOMOGYI: Dr. Ádám TÖRÖK PhD: PhD, MSc in Transportation Engineering, KOGÁT Ltd.

Pollution by 2-Stroke Engines

Daimler s Super Truck Program; 50% Brake Thermal Efficiency

DNO x Taking the Diesel Engine into the Future

Reference scenario Transport

TABLE OF CONTENTS PART 1 SUMMARY REPORT OF THE REVIEW OF FUEL QUALITY REQUIREMENTS FOR AUSTRALIAN TRANSPORT... 3

STATE OF THE ART AND FUTURE DEVELOPMENTS IN NATURAL GAS ENGINE TECHNOLOGIES

The Use of Exhaust Gas Recirculation (EGR) Systems in Stationary Natural Gas Engines. The Engine Manufacturers Association August 2004

Economic and Social Council

Diesel-to-Natural Gas Engine Conversions. A cost-effective alternative to new natural gas vehicles

A smart move. AGL Smart CNG. Cleaner. Cost Effective. Proven.

How To Develop A More Sustainable Transport System In Europe

Why Some Fuel-Efficient Vehicles Are Not Sold Domestically

VEHICLE INSPECTION FOR REDUCING EMISSION

Automotive Air Quality Sensors: industrial innovations to protect people s health

EMISSION CONTROL TECHNOLOGY

E - THEORY/OPERATION

Fuel Changes Ultra Low Sulfur Diesel and Biodiesel

50ppm Target Date Since 1 January 2010, only 10 ppm sulfur imported fuels

CREATING POWER SOLUTIONS. 2L41C 3L41C 3L43C 4L41C 4L42C 4L43C. Hatz Diesel.

Clear Advantage. EveryTMEngine. QSB6.7 And QSL9 ( hp) Tier 4 Interim/Stage IIIB

EVERY ROUTE. ISB FOR SCHOOL BUS APPLICATIONS

HEAVY-DUTY, REDEFINED. REDEFINED.

Green Fleet Policy PURPOSE

ENVIRONMENT: WE LOOK AHEAD. PRESS INFO

Proposed Local Law No. 3 Of County Of Ulster

Future directions in natural gas injection: Is CNG an alternative to gasoline or Diesel for passenger cars?

CAT POWER for On-Highway Performance and Fuel Economy

GO GREEN AND SAVE GREEN

EveryTM. Coverage. North American Truck Coverages For 2013 ISL9 And ISB6.7 Engines.

PERFORMANCE & EMISSION OPTIMIZATION OF SINGLE CYLINDER DIESEL ENGINE TO MEET BS-IV NORMS

COMPARATIVE STUDY ON EXHAUST EMISSIONS FROM DIESEL- AND CNG-POWERED URBAN BUSES [ * ]

Specifications for Unleaded and Low Sulphur Fuels: Global and Africa Trends. Presented at Workshop on Leaded Gasoline Phase-Out in North Africa

Possible Technical Modifications on Pre-2000 Marine Diesel Engines for NOx Reductions

Transcription:

1 ROAD TRANSPORT PASSENGER CARS, LIGHT DUTY VEHICLES, HEAVY DUTY VEHICLES SYNOPSIS SHEET Prepared in the framework of EGTEI

2 1. ACTIVITY DESCRIPTION AND EGTEI CONTRIBUTION - SUMMARY... 3 2. EUROPEAN REGULATION (HTTP://EUROPA.EU.INT/COMM/ENVIRONMENT/AIR/TRANSPORT.HTM). 4 3. METHODOLOGY DEVELOPED WITHIN EGTEI TO REPRESENT THE SECTOR... 4 3.1 DEFINITION OF REFERENCE ENGINES...4 3.2 DEFINITION OF EMISSION ABATEMENT TECHNIQUES...5 4. COUNTRY SPECIFIC DATA TO BE COLLECTED... 7 5. DEFAULT EMISSION FACTORS AND COST DATA DEFINED WITH THE EGTEI METHODOLOGY... 7 5.1 DEFAULT EMISSION FACTORS...7 5.2 DEFAULT COSTS...7 5.3 FUEL CHARACTERISTICS...8 6. RELEVANCE OF EGTEI INFORMATION FOR INTEGRATED ASSESSMENT MODELLING (IAM)... 8 7. PERSPECTIVE FOR THE FUTURE... 8 8. BIBLIOGRAPHY... 8

3 1. Activity description and EGTEI contribution - summary A specific study has been carried out in the scope of EGTEI for improving the knowledge on costs of emission reduction techniques for on-road mobile sources. The study has been subcontracted to Ricardo Consulting Engineers Ltd (Ricardo Consulting Engineers Ltd was founded during the early 1900 s and is involved in the provision of services to the engine industry over the range of gasoline, gas, diesel and alternate fuelled engines) as vehicle manufacturers could not provide any cost data for competition reasons. A matrix of required information was developed by EGTEI and IIASA and provided to RICARDO. The report support for updating the RAINS model concerning provides a review of the technologies and associated costs for Euro 0 through Euro III emission limits and a vision of the technologies and associated costs required to meet Euro IV (2005) and Euro V (2008) on cars and trucks. It also provides a review of technologies beyond these proposed limits for Euro VI [1]. For the latest regulations not yet implemented (Euro V and VI), provisional emission limit values have been taken into account. The following vehicle categories have been considered: Gasoline passenger cars (engine sizes between 1200 and 2000 cc excluding performance vehicles (e.g. GTI s) considered for estimating costs)), Gasoline light duty vehicles ((LDT) up to 3500 kg Gross Vehicle Weight (GVW)), Diesel passenger cars (engine sizes between 1500 and 2000 cc considered for estimating costs) Diesel light duty trucks (LDT), Diesel medium duty trucks (MDT), Diesel heavy duty trucks (HDT). The review of the relative costs of technologies required to meet Euro I through Euro III has been prepared based on data provided by Ricardo OEM contacts. Due to the commercially sensitive nature for these data, most of sources remain anonymous. Cost estimation is also based on published data when available and experience combined with engineering judgment where otherwise necessary. The approach has consisted in determining mainstream technologies for each vehicle category and European emission legislation; in determining cost to manufacture and maintain the vehicles; in determining proportions within the fleet using each technology and amortising manufacturing and maintenance costs across the fleet for each vehicle category to produce an additional cost per vehicle; in estimating regulated emissions and fuel economy as unregulated emissions. Comments from ACEA were considered and the initial results for diesel cars and light duty vehicles were revised (addendum: updated statement to CITEPA on cost of European diesel emission regulation 30 April 2001- RD 04/140801.1). All details for cost and emission calculations are developed in the report [1]. SO 2 emission levels are proportional to the sulphur content of the fuel used. The only way to reduce SO 2 emissions is to reduce the gasoline sulphur content. In RAINS [2], four vehicle categories are considered separately: - Heavy duty trucks (HDT) and buses gasoline (TRA_RD_HD-GSL): emissions at a EU25 level (according to the RAINS model: version CP_CLE_Aug04(Nov04)) are about 0.2 kt for NOx and 0.2 kt for VOCs. - HDT and buses medium distillates (TRA_RD_HD-MD): emissions at a EU25 level (according to the RAINS model: version CP_CLE_Aug04(Nov04)) are about 2,600 kt for NOx and 273.3 kt for VOCs (representing respectively about 36.6 and 7.4% of transport emissions). - Light duty vehicles (LDV), 4-stroke (excl. GDI) gasoline (TRA_RD_LD4-GSL): emissions at a EU25 level (according to the RAINS model: version CP_CLE_Aug04(Nov04)) are about 1,880.5 kt for NOx and 1,648.8 kt for VOCs (representing respectively about 26.5 and 44.4% of transport emissions).

4 - LDV, 4-stroke (excl. GDI) medium distillates (TRA_RD_LD4-MD): emissions at a EU25 level (according to the RAINS model: version CP_CLE_Aug04(Nov04)) are about 761.4 kt for NOx and 110.4 kt for VOCs (representing respectively about 10.7 and 3.0% of transport emissions). These vehicles are addressed by the European Directives 91/441/EC [3], 94/12/EC [10], 93/59/EC [9], 96/69/EC [11], 98/69/EC [5] and 1999/96/EC [6] most known under EURO I to EURO IV. Fuels used are also regulated by the Directives 98/70/EC [7] and 2003/17/EC [8]. EGTEI economic parameters have been integrated into RAINS to update costs already existing. No country specific data are required from national experts for this sector. The Ricardo study mainly provides costs which can be directly used by RAINS. 2. European regulation (http://europa.eu.int/comm/environment/air/transport.htm) Motor vehicle emissions are regulated by Directives 70/220/EEC (light vehicles) and 88/77/EC (heavy vehicles) [4] and amendments to those directives. A whole series of amendments has been issued to stepwise tighten the limit values. Emissions are measurably falling because of this, even though traffic volumes continue to rise. The implementation of the Auto-Oil Programme will result in a notably improved air quality in our cities. The programme focused on the emissions of carbon monoxide (CO), Volatile Organic Compounds (VOC), nitrogen oxides (NOx) and particles. With the programme, stricter limit values have been defined. The table 2.1 presents the directives implemented. Table 2.1: EC Directives implementing the emission values for on-road vehicles Euro I Euro II Euro III Euro IV Dir. 94/12 of 23 Dir. 91/441 of 26 Passenger cars March 1994 June 1991 [3] [10] Light duty vehicles Dir. 93/59 of 28 June 1993 [9] Dir. 96/69 of 8 October 1996 [11] Dir. 98/69 of 13 October 1998 [5] Heavy duty vehicles Dir. 91/542 of 1 October 1991 [12] Dir. 99/96 of 13 December 1999 [6] In addition, legislation has been implemented on the use of on-board diagnostic systems (OBD) which will indicate if the vehicle emissions are too high and a light on the instrument panel will indicate if there is a need to repair the vehicle. Further reductions of road vehicle emissions (introduction of Euro V and Euro VI) are in discussion at the European Commission level. Gasoline and diesel sulphur contents are regulated by Directives 98/70/EC [7] and 2003/17/EC [8] relating to the quality of gasoline and diesel fuels. Table 2.2: Gasoline sulphur content: standards (ppm) implemented by the two Directives Dates of compliance 2000 2005 2008 Sulphur content in petrol (ppm) 150 50 10 Sulphur content in diesel (ppm) 350 50 10 3. Methodology developed within EGTEI to represent the sector 3.1 Definition of reference engines The approach was to split the total European fleet into categories in line with exhaust emissions legislation: gasoline cars (typical engine size 1200cc to 2000cc excluding performance vehicles (e.g. GTI s) taken into account, gasoline light duty truck (LDT), diesel cars (engine sizes 1,500cc to 2,000cc, diesel LDT (up to 3,500kg Gross Vehicle Weight (GVW), diesel medium duty truck (3,500 to 12,000kg GVW) and diesel heavy duty truck (12,000kg GVW and above)).

5 Table 3.1.1: Reference engines Reference engine codes (REC) Description 01 Gasoline passenger cars 02 Gasoline light duty vehicles 03 Diesel passenger cars 04 Diesel light duty trucks 05 Diesel medium duty trucks 06 Diesel heavy duty trucks 3.2 Definition of emission abatement techniques Mainstream technologies for each vehicle category and each level of existing European emissions legislation (euro I to Euro IV) and future expectations (Euro V and euro VI) have been defined as well as the penetration of each technology on the market. Many forces can contribute to the technologies in the market place, such as: Customer requirements (performance, comfort, reliability, etc), Environmental (unregulated pressure) e.g. CO 2 reductions, Other governmental e.g. taxation schemes. If the pressure on motor manufacturers since the advent of European emission limits was purely related to reduction of exhaust emissions then the technology mix would be quite different from today. For example, if pressures to improve fuel economy and CO 2 emissions were not present, stratified charge (direct injection, lean burn) gasoline engines would not unlikely exist as they provide additional emission challenges. Additionally, some technologies which were adopted for reasons other than emission control, have subsequently become necessary in meeting ever tightening limits. An example is turbochargers for diesel cars. They were initially introduced for performance and customer acceptance reasons but they are now a key part of the emission reduction technology. Given this complexity of issues, the adopted strategy for dealing with the assumed technology mix, has been as follows: An artificial, emissions driven only, technology pack has not been used, The historic technology mix is as was, Future technology mix is based on general technology trends, No attempt has been made to rationalise these with other scenarios such as CO 2 targets, Technologies with extremely low market share have not been considered. Estimates have been made on the penetration of different technologies present at the various emission introduction levels. These estimates have been particularly used in the definition of costs, future fuel consumptions and emission values. These technologies are presented below. Expected technology penetrations for each vehicle type are available in the full RICARDO report [1].

6 Table 3.2.1: Emissions technology requirement (majority of vehicles) Euro emission standard REC 01 02 03 Euro 0 Euro I Euro II Euro III Euro IV Euro V Euro VI Carburettor / Single Point Injection / Distributor Ignition / Limited use of electronic control Carburettor / Single Point Injection / Distributor Ignition / Limited use of electronic control Mechanical fuel pump / IDI combustion system / Low pressure injectors 3-way Catalyst / Lambda sensor / Electronic Injection / Electronic Ignition / Basic evaporative emissions equipment 3-way Catalyst / Lambda sensor / Electronic Injection / Electronic Ignition / Basic evaporative emissions equipment Mechanical / partelectrical fuel-control / IDI combustion system / Low pressure injectors / EGR system with electric control Better hardware design / Higher cat loading / Some use of EGR / Multi-point Injection Better hardware design / Higher cat loading / Some use of EGR / Multi-point Injection Electric fuel timing / metering / cooled EGR circuit / Turbocharged Post cat O2 / Revised controller and software / Higher catalyst loading / Evaporative emissions equipment / Reduced base engine friction Post cat O2 / Revised controller and software / Higher catalyst loading / Evaporative emissions equipment / Reduced base engine friction DI combustion system (HP injectors) / turbocharged, intercooled, Diesel oxidation catalyst Starter (pup) cat / revised high speed fuelling strategy (keep cat cool) / Increased use of EGR or variable cam phasing Starter (pup) cat / revised high speed fuelling strategy (keep cat cool) / Increased use of EGR or variable cam phasing 4V cylinder head design Variable cam phasing / Increased use of lean burn direct Injection Variable cam phasing / Increased use of lean burn direct Injection 2 nd generation common rail or unit injectors; variable nozzle turbocharger, (catalysed) Diesel particulate filter, modulated EGR and/or Lean NOx trap General refinement / Increased use of direct injection / boosted downsized engines / wider introduction of hybrid technologies General refinement / Increased use of direct injection / boosted downsized engines 04 Idem Idem Idem Idem Idem Idem Idem As Euro III; further All engines are TCA, HP All engines are TCA, Difficult to estimate. NOx reduction by Electronic FIE for control HP Electronic FIE for Increased use of SCR Higher pressure FIE for either using EGR or As Euro IV, but SCR Improved of PM, Further timing control of PM-NOx and other PM control, timing retard SCR. Likely strategies may replace EGR in 05 combustion system optimisation for low trade-off. Timing retard aftertreatment. Further for NOx reduction, move are: either EGR+DPF, some medium duty and FIE match NOx, EUPs and EUIs in for low NOx, some use updated FIE, with ever to TC/TCA or EGR + updated FIE engine applications some medium duty of EGR and/or EUPs, more complex control + Oxicat, or SCR + engines CR introduced systems updated FIE 06 Idem Idem All engines are TCA, HP Electronic FIE for control of PM, Further timing optimisation for low NOx, EUI/EUP for Premium engines All engines are TCA, HP FIE, electronic control. Timing retard for low NOx, some use of EGR, EUI/EUP widespread, CR introduced As Euro III; further NOx reduction by either using EGR or SCR. Strategies: EGR+DPF, or EGR + updated FIE + Oxicat, or SCR + updated FIE As Euro IV, but trend away from EGR towards SCR anticipated - Expect further increased use of SCR, updates FIE, more complex engine control system

7 4. Country specific data to be collected No country specific data are required for this sector. The Ricardo study provides costs data which can be directly used in RAINS. 5. Default emission factors and cost data defined with the EGTEI methodology 5.1 Default emission factors Emission factors are presented for each vehicle type and regulation. They are available expressed in g/km and g/gj. Efficiencies are also provided. Emission factors have been defined according to test cycle monitoring results. Emission factors and efficiencies are not presented in this synopsis sheet due to the amount of data available. Refer to the RICARDO report [1] for more details. 5.2 Default costs Investment costs consist in: Component costs on a per vehicle basis Tooling costs : assumed fully amortised at 100 000 units Development and calibration costs. Additional cost for vehicle development attributable to emissions compliance amortised for 100 000 vehicles The component costs used are the stabilised value and not the initial introduction levels except for light duty vehicles. The component costs vary from initial introduction to the stabilised levels achieved after a number of years. This approach gives costs which are most comparable across the emission limits. In a first step, the preceding assumption was applied for all vehicle types. However following comments from ACEA, another assumption has been developed for diesel cars and LDT. In the case of diesel passenger cars and LDT, the changes in volumes produced have resulted in significant changes in the costs of fuel injection equipment and turbochargers. In this case, the higher costs at the earlier European emission levels could not be ignored. The cost for diesel passenger cars are consequently stabilised component prices obtained about 1 year after volume technology introduction. For diesel cars and LDT, 100 % of the costs of some techniques have been attributed to emission legislation from introduction of the technology. Maintenance costs are borne by the end user. Estimations take into account the following factors: Routine replacement as dictated by the manufacturer Statutory in use testing Replacement due to unexpected failure, based on warranty information, Total investments and operating costs are presented in the following tables. Table 5.2.1: Investment costs for compliance with Euro I to Euro VI ( /vehicle) Type of vehicle Euro I Euro II Euro III Euro IV Euro V Euro VI Gasoline passenger cars 262 269 341 382 445 585 Gasoline light duty vehicles 283 286 354 375 402 453 Diesel passenger cars 59 183 355 536 738 994 Diesel light duty trucks 59 183 355 536 738 994 Diesel medium duty trucks 943 1,778 3,048 5,271 5,657 6,250 Diesel heavy duty trucks 1,983 3,734 5,121 9,730 10,809 12,250 Table 5.2.2: Operating costs for compliance with Euro I to Euro VI ( /vehicle for its entire lifetime) Type of vehicle Euro I Euro II Euro III Euro IV Euro V Euro VI Gasoline passenger cars 140 103 123 105 125 155 Gasoline light duty vehicles 220 183 170 125 126 120 Diesel passenger cars 125 118 120 132 145 165 Diesel light duty trucks 125 118 120 132 145 165

8 Diesel medium duty trucks 274 1,291 1,962 4,054 3,596 3,222 Diesel heavy duty trucks 80 1,332 2,229 3,867 3,885 4,053 5.3 Fuel characteristics Sulphur content of gasoline is regulated by Directives 98/70/EC [7] and 2003/17/EC [8] related to the quality of gasoline and diesel fuels. The different fuel type costs have to be entered only once in ECODAT in the table Fuel characteristics. Additional investment and refinery operating costs associated with lowering the sulphur content from a maximum of 50 ppm to a maximum of 10 ppm. EGTEI proposes two sets of default costs for EU North and EU South. According to reference [8], the main driver of cost difference between north and south EU is the crude oil quality (in particular the sulphur content) handheld in refineries. Table 5.3.1: Costs of lowering the sulphur content of gasoline [8] Min. ( /l) Max. ( /l) Average ( /l) EU. North 0.001 0.003 0.002 EU. South 0.002 0.003 0.0025 6. Relevance of EGTEI information for Integrated Assessment Modelling (IAM) Only EGTEI economic data have been introduced in RAINS to update costs already used in the model. Only four types of engines are defined as explained in the introduction so average costs are considered in RAINS. 7. Perspective for the future In the future, any new technology development should be considered by EGTEI to continuously improve the representation of the sector. 8. Bibliography [1] RIACRDO report: http://citepa.org/forums/egtei/egtei_doc-on_road.htm [2] Review of data used in RAINS model: http://www.iiasa.ac.at/web-apps/tap/rainsweb/ [3] Council Directive 91/441/EEC of 26 June 1991 amending Directive 70/220/EEC on the approximation of the laws of the Member States relating to measures to be taken against air pollution by emissions from motor vehicles c=directive&an_doc=1991&nu_doc=441 [4] Council Directive of 3 December 1987 on the approximation of the laws of the Member States relating to the measures to be taken against the emission of gaseous pollutants from diesel engines for use in vehicles (88/77/EC) [5] Directive 98/69/EC of the European Parliament and of the Council of 13 October 1998 relating to measures to be taken against air pollution by emissions from motor vehicles and amending Council Directive 70/220/EEC c=directive&an_doc=1998&nu_doc=69 [6] Directive 1999/96/EC of the European Parliament and of the Council of 13 December 1999 on the approximation of the laws of the Member States relating to measures to be taken against the emission of gaseous and particulate pollutants from compression ignition engines for use in vehicles, and the emission of gaseous pollutants from positive ignition engines fuelled with natural gas or liquefied petroleum gas for use in vehicles and amending Council Directive 88/77/EEC http://europa.eu.int/eur-lex/lex/lexuriserv/lexuriserv.do?uri=celex:31999l0096:en:html

9 [7] Directive 98/70/EC of the European Parliament and of the Council of 13 October 1998 relating to the quality of petrol and diesel fuels and amending Council Directive 93/12/EEC [8] Directive 2003/17/EC of the European Parliament and of the Council of 3 March 2003 [9] Council Directive 93/59/EEC of 28 June 1993 amending Directive 70/220/EEC on the approximation of the laws of the Member States relating to measures to be taken against air pollution by emissions from motor vehicles c=directive&an_doc=1993&nu_doc=59 [10] Directive 94/12/EC of the European Parliament and the Council of 23 March 1994 relating to measures to be taken against air pollution by emissions from motor vehicles and amending Directive 70/220/EEC c=directive&an_doc=1994&nu_doc=12 [11] Directive 96/69/EC of the European Parliament and of the Council of 8 October 1996 amending Directive 70/220/EEC on the approximation of the laws of the Member States relating to measures to be taken against air pollution by emissions from motor vehicles c=directive&an_doc=1996&nu_doc=69