SWOT Analysis of Different Approaches for an Environmentally Friendly Vehicle (EFV) OICA Presentation to EFV Informal Group 6 June 2008 Working paper No.

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Presentation transcript:

SWOT Analysis of Different Approaches for an Environmentally Friendly Vehicle (EFV) OICA Presentation to EFV Informal Group 6 June 2008 Working paper No. EFV (GRPE Informal Group on EFV, First Meeting, 6 June 2008.)

Investigated concepts  Life-Cycle Assessment (LCA) of vehicles  Well-to-Wheel Analysis  CO 2 Regulation Reference Approach  Environmental Rankings  Green Vehicle Certification

Product Life-Cycle Eutrophication Potential Global warming Potential Summer smog Potential Acidification Potential CO 2 ∑ CH 4 ∑ NO X ∑ …… ∑ VOC ∑ NO X CO 2 CH 4 CO 2 VOCCO 2 NO X CO 2 NO X Life-Cycle Inventory Impact Assessment Full LCA on Passenger Vehicles Energetic and mineral resources

Requirements for a LCA according to ISO 14040/44 Comparative Assertions disclosed to the public: 1.Weighting of different environmental aspects/categories or single scores shall not be applied 2.Critical Review by independent 3rd party

Full LCA on Passenger Vehicles EXECUTING A FULL VEHICLE LCA:  enables to evaluate cars regarding different environmental aspects  is standardized by ISO 14040/14044 and therefore international accepted LCA SUPPORTS SUSTAINABLE PRODUCT DEVELOPMENT BY:  comparing alternative concepts regarding ecological aspects  identifying connections between causes and consequences within the product lifecycle  supporting concept decisions by statements on ecological advantages and disadvantages according to economical and technological aspects LCA STUDIES OF DIFFERENT PRACTITIONERS VARY IN RELEVANT CRITERIAS:  goal and scope  system boundaries  cut off criteria  allocation methods  basic data sources  LCA software tools and data collection / sorting software

LCA on passenger vehicles - SWOT Strength  LCA can be a suitable method within product development to support environmentally friendly product design if simplified for internal purposes  Internationally accepted method (ISO 14040/44)  Integration of all actors along the value chain into the environmental discussion possible (Supply-Chain, OEM, Mineral Oil Industry, Costumer) Weakness  No EFV definition in itself / delivers only data that can be used for EFV definitions  High effort for executing a LCA (time, costs, data). LCAs for passenger vehicles require several simplifications / data estimates  Comparability given only within one study, i.e. not suitable for EFV definition  Too complex information input and output Opportunity  Third party certification possible Threat  Complex LCA information may lead to confusion and mis-leading conclusions by customers and regulators  Aggregation of LCA results to a single-score done although not allowed according to ISO14040 (no scientific basis for single-score/biased weighting)  Due to complexity work may concentrate more on LCA method details than on product improvements.

Well-to-Wheel Analysis - Concept  Life-Cycle Perspective is considered only as use-phase + fuel chain, without vehicle production and EoL phase  Only Greenhouse Gas Emissions and Energy demand is calculated  Other environmental aspects such as HC/NOx/CO (Summer smog / Acidification,…) were not addressed  The approach is well known and widely accepted  The EUCAR-CONCAWE-JRC study is limited to a generic vehicle

Well-to-Wheel Analysis - SWOT Strength  Widely accepted approach Weakness  No EFV definition in itself / delivers only data that can be used for EFV definitions.  High effort for execution / update.  Environmental discussion is reduced to one single parameter (Energy/GHG).  Well-to-wheel analysis deal with different fuel options instead of EFVs. Opportunity  Other environmental aspects such as emissions can be integrated.  Streamlined Life-cycle Approach (only fuel chain is additionally considered).  Third party certification possible. Threat  High additional expenditure for the inclusion of other environmental aspects.

CO2 Regulation Reference Approach - Concept Determine CO 2 emissions (g CO 2 /km tailpipe) of the individual vehicle Calculate the distance to legal target in the region Reflect any CO 2 credits linked to the vehicle Note: relative or absolute approaches possible  An EFV could be a vehicle having lower CO 2 emissions than required  If necessary additional criteria could be added that are important in the region (e.g. emission standard) Vehicle mass kg (EU) (US: footprint, in other regions other parameters) target g CO 2 / km light duty passenger vehicles 1 2 vehicle with CO 2 below target = EFV vehicle with CO2 above target

CO2 Regulation Reference Approach - SWOT Strength  Adoptable to regional conditions (regulatory targets different)  Easy to establish  Relating to existing regulation i.e. harmonized with and supporting legislation Weakness  EFV definition different in various regions.  No EFV definition if no regulation exist.  Environmental discussion is reduced to one aspect.  Missing life cycle perspective. Opportunity  WTW CO 2 -values and other items (such as emissions) or approaches can be easily included Threat  Long debates how much EFVs need to be better than target line by x g/km

ECO Ranking (Consumer associations) - Concept Determine CO 2 emissions, noise and emission standard of the individual vehicle fixed allocation of emission standards to “environmental impact categories” (approved by IFEU, UBA) fixed weighting of CO 2, noise and “impact categories” Calculate eco points  An EFV is a vehicle having highest score  per category or overall Top Ten

ECO Ranking (Consumer associations) - Concept Determine vehicle specific and manufacturer specific data: vehicle: - fuel consumption on road and NEFZ - emission standards, noise - equipment: start/stop, CO 2 calculator, indoor emissions manufacturer/production: energy per vehicle, painting, use of recycled mater., natural fibres, elv and environmental system,... fixed weighting of all categories  Environmental certificate only for best in class (90 from 100 pts).

Strength  Easy to establish and third party verification  Top Ten results / Labeling  Methods with more than CO 2 and emission standards Weakness  Multi Criteria / impact category approach with questionable “scientific” approved weighting.  Criteria with less benefit for environment are included, but no WTW / lifecycle- data.  Biased methods. Opportunity  WTW and other items can be easily included Threat  Due to non-stable and non-scientific method changing criteria and weightings over time  confuse customer, moving development targets. ECO Ranking (Consumer associations) - SWOT

Green Vehicle certification (China) - Concept  There are at least four „Green Vehicle“ certifications in China by different organizations  The “Green Vehicle“ certificates are based on a set of requirements  All four certificates include the evaluation factors “Emission control (OBD)“ and “Fuel consumption“  Additionally they include at least one of the following criteria:  CO 2 emission  Curb mass  Exterior and interior noise  inner vehicle air quality  ELV RRR rates, Banned materials, EMI, non-CFC materials in AC system, non-asbestos material, max. vehicle speed, acceleration and climbing ability  Often References to GB / GB/Ts given  Implementation of two “Green Vehicle“ certifications in China (2005 and 2006)

Green Vehicle certification (China) - SWOT Strength  Transparent, understandable, easy to establish  Mainly criteria that are anyhow in the development focus, legal base  Relating to existing regulation i.e. harmonized with and supporting legislation Weakness  All depending on criteria selection, limit values  Adoption to regional conditions  further market fragmentation  Development efforts on issues out of customer focus Opportunity  If EFV definition can be globally agreed on the basis of legislation this could foster a global harmonization of legislations Threat  Different schemes create market fragmentation

CONCLUSIONS & NEXT STEPS EFV definition needs to investigate the complete variety of possible approaches (only few examples presented here). So far no approach identified as useful or acceptable. Further work is required to analyze approaches (additional approaches, deepening of SWOT). However, first fundamental questions need to be clarified to conduct a SWOT (EFV definition for what purpose (tax, GPP, development targets, …?), target audience (engineers, fleet customer, private customer, etc.)) as this determines strengths and weaknesses (customer clinics and regional studies might be required). It is recommended to first agree on the questions and then to develop a working plan.

Thank you for your attention