How to cope with challenges in integrating electric vehicles into city logistics: What can we learn from FREVUE?

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1 How to cope with challenges in integrating electric vehicles into city logistics: What can we learn from FREVUE? Hans Quak December1, 2016 Polis Conference, Rotterdam

2 1. Introduction zero emission city logistics Air quality is urgent problem in cities and CO 2 reduction will be Ambition European Commission: zero emission urban logistics in 2030 Ambition in Green Deal Zero Emission City logistics (GDZES) in the Netherlands Paris climate agreement The logistics industry is a significant driver of economic growth and essential for sustaining the urbanized way of living, but is also a heavy contributor to unsustainable impacts, such as: Polluted emissions, nuisance, decrease in traffic safety and accessibility The uptake of EFVs in the logistics industry does not go easily

3 1. Urban freight transport Total emissions city traffic in Rotterdam

4 2. Introduction FREVUE Demonstrating electric freight vehicles in city logistics operations FREVUE demonstrates to industry, consumers and policy makers, how electric freight vehicles can provide a solution to air and noise emissions caused by the logistics industry in urban areas

5 2. Introduction FREVUE 8 locations across Europe: Amsterdam, Lisbon, London, Madrid, Milan, Oslo, Rotterdam and Stockholm 80+ electric freight vehicles 14.2 million total investment (FP7) Freight applications include a wide range of: Goods deliveries Innovative logistics systems and ICT Test of different vehicle types Diverse climate conditions

6 2. Introduction FREVUE: the consortium City + Policy Cross River Partnership (Co-ordinator) City of Amsterdam City of Lisbon City of Madrid City of Milan Co-ordination and Dissemination Logistics Hyer Polis Research Imperial College London TNO (NL) SINTEF (NO) ICT Partners City of Oslo City of Rotterdam City of Stockholm Swedish Transport Adm. EMEL Transport for London Vehicle Manufacturers Grid Operators

7 3. Challenge: towards zero emission city logistics One big challenge that cities or logistics operators can not solve by themselves Manufacturers (OEMs): No demand for electric freight vehicles, so not produced on larger scale Logistics operators No electric freight vehicles offered for feasible price

8 3. Available electric freight vehicles < 3.5 ton OEM: e.g. Nissan env200, Renault Kangoo ZE) Renault Kangoo ZE 3.5 ton 12 ton: retrofit, (e.g. Innamo e-ducato), OEMs (will) start production > 12 ton: retrofit (e.g. EMOSS, Ginaf)

9 3. CURRENT SITUATION (ICE VEHICLES USED FOR CITY LOGISTICS) Shipper Retail Service (Un)satisfaction Logistics Fuel station operator Retail products Oil companies Fuel Fuel+ retail products Delivering product Vehicle + maintenance Purchase product Receiver Dealer Vehicle Vehicle manufacturer Parts Suppliers of parts

10 3. ZERO EMISSION SITUATION (EFVS USED FOR CITY LOGISTICS) Suppliers Charging infra Electricity Power networks Charging + infra Charging infrastructure Charging + infra Electricity + retail Service Shipper Logistics operator Delivery product Vehicle + maintenance Purchase Product (Un)satisfactory Receiver Electricity suppliers Electricity Dealer Vehicle Parts Suppliers Electricity producers - grey Electricity producers - green Truck producent Truck manufacturer electric Parts Supplierelectric

11 Purchase price higher for large vehicles up to What changes for logistics operators 2.5 times. using an electric freight vehicle? Operating costs lower (diesel vs electricity) Charging infrastructure required Key Activities Lower Concluding taxation in costs: Cost Structure Value Propositions Uncertainty in depreciation of battery Customer Relation Concluding Higher in initial revenues: and investment residual value even with purchase Small vehicle: Limited subsidy changes - Customer segment No extra vehicles revenues More available ownership, form OEM less lease Key Partners No Charging change infrastructure relatively Distribution Lower in More customer-side costs difficult for energy, in planning tax, easy maintenance (range) (similar (no to passenger cars) and available Key Higher Resources higher costs fee) for charging infrastructure Value Advantages proposition due to policy Improved image in outside Medium world / large exemptions (customers vehicles: and No tangible Difficulties in procurement (no OEM Revenue Stream general value public) added for customer Value for society: available: fewer emissions retrofitting) and less Impact on grid nuisance / charging infrastructure

12 (depreciation)cost/year (depreciation)cost/year What changes for logistics operators using a small and medium size vehicle? TCO - example (including purchase subsidy) Context determines local differences: - Kilometers - Tax / congestion charge - Subsidy - Residual value and battery depreciation - Operations performed years Positive business case is possible within 6 years (small) within 8 years (medium) years

13 depreciation/year What changes for logistics operators using a large size vehicle? TCO - example (including purchase subsidy) Context determines local differences: - Kilometers - Tax / congestion charge - Subsidy - Residual value and battery depreciation - Operations performed No feasible business case (yet) is possible within 10 years years

14 First results of exemptions in AMSTERDAM Amsterdam provides several incentives to make the business case for zero emission more feasible: subsidy, exemptions, public procuement Exemptions are free of charge Not all exemptions were provided

15 Reduction in stress resulting in fewer mistakes Less illegal parking and as a result: Fewer fines Fewer discussions with enforcement officers and other traffic participants More relaxed working (no fines, discussions and honking) First results of exemptions EFFECTS Time savings Reduction in walking time and distance drivers (varying from min per day to about 45 minutes), making more drops possible in roundtrip Less heavy for delivery man Less time necessary looking for an empty unloading bay / empty parking spot

16 5. Concluding Chicken and egg problem current market situation Not just replacing vehicles (electric instead of diesel) more is required for feasible business case: New network and new partners needed for logistics companies Paradox: high initial costs (vehicle and charging infrastructure), lower operational costs (fuel vs. electricity, policy privileges), but making many kilometers is difficult on battery (range) Current logistics system designed for characteristics diesel vehicles and limited range requires other logistics organization (Almost) no extra revenues for more sustainable transport Public procurement for EFV can provide extra revenues Policy privileges can help

17 Thanks for your attention Dr. Hans Quak Senior Advisor Sustainable Transport & Logistics Van Mourik Broekmanweg 6 Postbus AA Delft T hans.quak@tno.nl For more information: FREVUE Deliverable 1-3 addendum 1 State of the art of the electric freight vehicles implementation in city logistics - Update 2015 ( Quak, H.J., N. Nesterova, and T. van Rooijen (2016). Possibilities and barriers for using electric-powered vehicles in city logistics practice, Transportation Research Procedia, Volume 12, 2016, Pages , Tenth International Conference on City Logistics June 2015, Tenerife, Spain