Phase II: The Challenges Ahead. Prof. Konstantinos Boulouchos, Head SCCER Mobility

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Transcription:

Phase II: The Challenges Ahead Prof. Konstantinos Boulouchos, Head SCCER Mobility 16.09.2016 1

Phase II: strong focus on Interdisciplinary and Integrated Approach to Mobility Further exploiting synergies within SCCER Mobility Join Activities (JA): Toward the integration of Mobility with the overall Energy System Vision Development: Complement bottom-up with top-down approaches towards a coherent research strategy Integration instrument among research groups and Capacity Areas SCCER Mobility 16.09.2016 2

Interdisciplinary and Integrated Approach to Mobility Future mobility and transportation depend on complex and inter-related technological, social, economic and political developments. To cope with this complexity, SCCER Mobility s approach is highly interdisciplinary and... Vehicle and Drivetrain Technology Information Technology Fuels and Fueling Infrastructure Built Environment Consumer Behavior Public Policy and Businesses A1 E-Mobility A2 Chemical Energy Converters A2 Vehicular Energy Demand B1 Infrastructures B2 Integrated Assessment Powertrain systems Vehicle as a system Mobility as a system SCCER Mobility 16.09.2016 3

Different levels of integration across our 5 Capacity Areas Interdisciplinary and Integrated Approach to Mobility... increasingly integrated in phase II (2017-2020), Demand-side interventions to promote new technologies Data for integrated assessment A1 E-Mobility Powertrain integration into vehicles Components for energy storage and conversion: BEV, FCEV, HEV, etc. A2 Chemical Energy Converters A2 Vehicular Energy Demand Integration of vehicles and energy infrastructures B1 Infrastructures B2 Integrated Assessment Powertrain systems Vehicle as a system Mobility as a system SCCER Mobility 16.09.2016 4

Interdisciplinary and Integrated Approach to Mobility... with new cross-cutting and extended socio-economic research activities. MAS CAS ETH Future Transportation Systems Interdisciplinary, advanced training Learning Lab Future Transport Systems Development paths for Swiss mobility SCCER Mobility White Papers Communicating research to external stakeholders New Joint SCCER Activities Integration of energy research in Switzerland A1 E-Mobility A2 Chemical Energy Converters A2 Vehicular Energy Demand B1 Infrastructures B2 Integrated Assessment Powertrain systems Vehicle as a system Mobility as a system SCCER Mobility 16.09.2016 5

Learning Lab Future Transport Systems (L 2 -FTS) Extension of the Strategic Guidance Project (whose potential was limited to first order interventions) to account for subsequent effects on energy demand and GHG emissions or feedback loops of transport related interventions Framework for Integration of SCCER Mobility research into future path of the Swiss transport system Definition of important research questions Exploratory tool in the new MAS CAS ETH in Mobilität der Zukunft (Future Transport Systems) to facilitate interaction between researchers and external partners Outreach to opinion leaders and the interested public Hosted at ETH Zurich, LAV 16.09.2016 6

SCCER Mobility White Papers Phase II: Series of SCCER Mobility White Papers to communicate research findings in specific fields of general relevance for politics, public administration or industry 16.09.2016 7

Joint Activities Toward the integration of Mobility with the overall Energy System CEDA: Common Energy Demonstrator Access (Lead Mobility) CREST-Mobility (Lead CREST) Simulation and Modeling (Lead SoE) White Paper on P2X (Lead HaE) 16.09.2016 8

Joint Activity CEDA- Coherent Energy Demonstrator Assessment The aim of CEDA is to provide a common basis for the energy-systemic view of the different storage and conversion technologies investigated in the demonstrators, interfacing these with the mobility and building demand patterns. To guide the process the team will address the specific needs of a set of dedicated case-study projects (in preparation with external stakeholders). Anchoring Capacity Areas A3, B1 Participating SCCERs: HaE, FEEB&D, BIOSWEET and Mobility, 16.09.2016 9

CEDA Coherent Energy Demonstrator Assessment WP1 WP3 FEEB&D - NEST Project Management WP2 Mobility - move BIOSWEET ESI Technical coordination Harmonization & streamlining Mobility CA-B1 FEEB&D UESL & ETH-BP HaE ESI/HSR PtG/EPFL Case-study data Case study/ies SCCER Mobility 16.09.2016 10

Joint Activity with SCCER CREST Additional funding for joint research activities to analyze legal, economic and social determinants of mobility demand and investments in new mobility infrastructure estimate energy impact of mobility scenarios 2050 Approaches (still in discussion) 1. Detailed modeling of demand for mobility (incl. rebound effects) and identification of parameters influencing demand 2. (Loose) coupling of behavioral, economic and environmental modelling tools 3. Field experiments SCCER Mobility Research Groups involved ETHZ IVT (K. Axhausen), PSI LEA (S. Hirschberg), ZHAW INE (M. Hoppe) Anchoring Capacity Areas B1 and B2 16.09.2016 11

Joint activity: Scenario and Modelling initiative To combine the modelling capabilities of the different SCCERs and to develop coherent and robust scenarios Participating SCCERs: CREST, SoE, Mobility, FURIES, HaE, EIP, FEEB&D, and BIOSWEET Anchoring Capacity Areas B2 and Learning Lab 16.09.2016 12

Joint activity: White Paper on P2X Assess the technological and economic potential of P2X* to address the challenges of temporal and spatial grid balancing * Energy conversion technologies that produce synthetic gases, fuels or energy feedstock products using an electro-chemical conversion process. Participating SCCERs: SCCERS HaE, FURIES, Biosweet and CREST 16.09.2016 13

Vision Development: The purpose To integrate perspectives about the ideal future mobility system in Switzerland and about the impact of the SCCER activities, from the demand/supply res. Socioeconomic/ Technology side. To identify missing competencies and important interfaces for cooperation with other SCCERs To expand the common ground between researchers from the different disciplines in SCCER To this end: The Vision Development report should help our members and interested reader to keep in mind the big picture Work currently in progress, final version due December 2016 16.09.2016 14

Vision Development: Targeting the Driving Factors Driving factors for the evolution of energy demand and CO 2 -emissions in the transportation sector: (B), (C): exogenous drivers (D), (E): demography, urban planning, and pricing policies (F): vehicle technology, legislation (G): powertrain technology, legislation (H), (I): energy / electricity infrastructure, technology innovation, policy (J), (K): technology innovation, policy / legislation. 16.09.2016 15

Vision Development: Targeting the Driving Factors 16.09.2016 16

Annual GHG emissions (Mio tonnes CO2 eq) Integrated Assessment Example: Fleet 2050 Annual GHG Emissions LCA CO2 - Foreign (gray) LCA CO2 - Switzerland Direct CO2 Drivetrains BEV - Battery Electric Vehicles FCEV - Fuel Cell Electric Vehicles EV - ½ BEV, ½ FCEV HEV - Hybrid Electric Vehicles Numbers are % fleet sales penetration in 2050. Balance of fleet is internal combustion vehicles. Electricity POM - Demand is BFE Political Measures BAS - Supply is gas-dependent strategy RES - Supply is renewables strategy AVE - Charging is average generation mix MAR - Charging is marginal generation mix Hydrogen SMR - Steam Methane Reforming HYD - Electrolysis using Swiss Hydropower Source: PSI-LEA, 2016 16.09.2016 17

Vision Development: The transformation path from a systemic perspective The transformation path is necessary to bridge the gap between the envisioned sustainable mobility system and the evolution based on current trends Interventions to realize this transformation path can be structured according to the following levels: Micro-Level (individual mobility behavior) Meso-Level (role of organizations) Macro-Level (society / policy) 16.09.2016 18

Vision Development: next steps & phase II A first complete draft version will be ready within the next weeks the, the final version until end of 2016. Valuable experience and lessons learned from this project will flow into phase II to provide strategic guidance on our research portfolio and to support the development and assessment of future mobility scenarios. 16.09.2016 19

Thanks for your attention 16.09.2016 20