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Supporting Research on Climate Friendly Transport Coordination Action – 233984 REACT project is partially funded by the European Commission REACT Setting.

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Presentation on theme: "Supporting Research on Climate Friendly Transport Coordination Action – 233984 REACT project is partially funded by the European Commission REACT Setting."— Presentation transcript:

1 Supporting Research on Climate Friendly Transport Coordination Action – 233984 REACT project is partially funded by the European Commission REACT Setting up of a European strategic research agenda on climate-friendly transport Chiara Bresciani, Alberto Colorni, Federico Lia, Alessandro Luè DEMOCRITOS FINAL CONFERENCE Genoa, September 23 rd 2011

2 The REACT project Co-financed by the 7 th Framework Programme August 2009-July 2011 Scheme: Coordination and Support Action Coventry University Enterprises Ltd (coordinator) - UK Wuppertal Institute for Climate, Environment and Energy - Germany GeoImaging Ltd - Cyprus POLIEDRA Politecnico di Milano - Italy Arachni Ltd - Greece University of Belgrade, Faculty of Transport and Traffic Eng. - Serbia University of Rijeka, Faculty of Maritime Studies - Croatia Cardiff University - UK OIKON Ltd, Institute for applied Ecology - Croatia

3 REACT Objectives To articulate a long-tem vision and a Strategic Research Agenda on climate-friendly transport To identify national and regional initiatives and research programs on climate friendly transport and mobility, enhancing the coordination of funded research initiatives among EC and national agencies. To develop a set of indicators for the carbon impact of transport research To share experiences among research program managers in the Member States, Associated States and EC, so as to create synergies and enhance collaboration.

4 REACT Strategic Research Agenda SRA: a strategic tool to define research priorities for the next 20 years towards a climate–friendly vision for the transport sector 1.strategic objectives for the transports sectors 2.technology or policy-based objectives 3.research areas and specific research areas 4.current specific studies for each research area A hierarchical structure: the example of ERTRAC Example

5 Analysis of SRAs elaborated by the European Technology Platforms ACARE, for the aeronautics sector ERRAC, for the rail sector ERTRAC, for the road transport sector WATERBORNE, for the maritime sector new White Paper on transport and other EC reports present FP7 calls academic literature review A preliminary analysis The analysis allowed to collect suggestions on the REACT SRA elaboration process gather a first set of promising research areas define a first set of evaluation criteria

6 Through a consultation process that involves stakeholders coming from the academic world, industry and policy Identification of the structure of the SRA (research areas to be considered) the criteria (how to evaluate the priorities) Assessment of the criteria Comments on the outcome for research areas and priorities Expert consultation Open consultation Interviews to key experts Elaboration of the REACT SRA

7 Consultation conducted face-to-face: workshops and interviews online: web questionnaire Expert consultation Final conference May 2011 in Belgrade Consultation carried out with a Delphi method, organized into rounds. Every round the same action flow: submitting questions, analyzing and providing results to participants. Workshops with experts, stakeholders, local policy makers and academics. June 2010 in Rijeka February 2011 in Milan

8 SRA structure (1) The research areas were divided in two main Pillars Engineering and ICT Planning, Social Sciences and Economy

9 Each Pillar includes Sectors of research SRA structure (2)

10 Each sector provides different research approaches; for each research approach, some main research areas are included; for each main research area, one or more specific research areas are listed. An example SRA structure (3)

11 Research demand The timeframe of the research stages (basic, applied, and implementation). It considers as threshold the year 2030. GHG emissions reduction, divided into two indicators: Contribution to reduce GHG emissions Cost-efficiency: amount of GHG savings per financial unit Feasibility Social and/or political obstacles (e.g. is it hardly behavioral acceptable or politically inconvenient?) to the development of the research area Other effects Other effects that the research in a specific field would bring together with its development, like, for example, social equity or job creation. SRA: the criteria The experts assessments on the criteria on each specific research area have been used to set the priorities of the SRA.

12 12 SRA: an example Main research area Specific research area low high Priority and criteria Score assigned to overall priority (black) and impact on GHG reduction (green) 201020302020 Timeframe of research demand: basic research (yellow), applied research (orange) and implementation (red)

13 13 SRA: priorities & timeframe AERONAUTICS One of the overall top priority research area is about aerodynamics and materials GHG reduction will also depend on breakthrough technologies and unconventional configurations In the next years management systems will introduce new concepts for more efficient flight routes and phases

14 14 SRA: priorities & timeframe RAIL The highest potential for reducing GHG emissions is attributed to the reduction of weight and aerodynamics and to the braking energy recovering systems ICT (A18), that has the highest overall priority, is entering the applied research phase and it will be full operating by 2020

15 15 SRA: priorities & timeframe ROAD Research on non conventional hybrid systems (A32), full electrical vehicles (A33) and fuel cell technology (A38) is considered very important. Basic research is mostly needed by research on hybrids and fuel cells.

16 16 SRA: priorities & timeframe WATER The highest overall priority research areas are Port operations (A51), Alternative propulsion systems (A48), Innovative and hydrodynamic vessel concepts (A49). The basic research requires very short time (1-2 years) for all the specific research areas, except “Innovative and hydrodynamic vessel concepts” (3 years).

17 17 SRA: priorities & timeframe PLANNING AND SYSTEMS The highest overall priorities were given to the research areas of Non-Motorised Mobility Planning (A59), followed by Integration of Spatial, Urban and Transport Planning (A55), Optimisation of Logistics (A64), and Public Transport Planning (A60). “…the importance of this area is also based on the long lifetime of spatial planning and transport infrastructures.”

18 18 SRA: priorities & timeframe SOCIAL AND BEHAVIOURAL MEASURES Priorities within the behavioural/social domain include: shifting from products to services (i.e., car/bike-sharing, A65), workplace/school travel planning (A72), eco-driving (A73) and education (A71) All areas were considered to reach the implementation stage in the next few years.

19 19 SRA: priorities & timeframe INDUSTRY AND ECONOMY “there is a need for studies on the specific effects of the different types of measures and policy instruments, which can inform decision makers about the most effective regulation.” The highest priority area is European regulation on emission performance standards

20 Experts and Stakeholders involved into the process stressed the importance of a SRA for climate friendly transport as a reference point for the research community and Europe. Non-technological research comes out as a fundamental and not collateral, to be adequately fostered. Some remarks have been stressed by interviewees: the major part of today’s research funding is allocated to technology-related research; many effective ways of saving CO2 in the transport sector, e.g. in the fields of policy and economical measures, are underestimated. Conclusions (1)

21 The objective of collecting and classifying all the research areas linked to climate-friendly transports was ambitious: many approaches could have been followed. The top–down hierarchical classification of research areas does not highlight easily the cross–cutting themes that interest more research areas at the same level. In the ICT and Engineering, cross cutting themes emerge: research on design (aerodynamics and fluid dynamics) and materials (composite, recycled, light weighted); electric propulsion and on-board energy generation; traffic management and ICT applied to vehicle – infrastructure, vehicle – driver and vehicle – vehicle. Conclusions (2)

22 For further information Alessandro Luè Poliedra – Politecnico di Milano Via G. Colombo 40 +39 02 2399 2905 lue@poliedra.polimi.it www.react-transport.eu Conclusions (3)

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24 24 Experts were asked to assess the criteria with a web questionnaire. Experts could decide the research areas to assess, based on their expertise. Assessment of the criteria (1)

25 The experts assessment of each specific research area have been used to set the priorities of the SRA. Two multicriteria analysis methodologies have been applied: Analytic Hierarchy Process (AHP) Decomposition of the decision problem into a hierarchy of more easily comprehended sub-problems, each of which can be analyzed independently Technique For Order preference BY Similarity to Ideal Situation (TOPSIS) Calculation of the Euclidean distances between each specific research area and the ideal one (with the best scores in every criterion) Assessment of the criteria (2)

26 Assessment of the criteria (3)


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