EV research at Chalmers using GPS data from vehicles

Similar documents
On Battery Electric Vehicles

DAILY TRAVEL AND CO 2 EMISSIONS FROM PASSENGER TRANSPORT: A COMPARISON OF GERMANY AND THE UNITED STATES

Driving patterns matter

A Techno-Economic Analysis of BEVs with Fast Charging Infrastructure. Jeremy Neubauer Ahmad Pesaran

A portfolio of power-trains for Europe: a fact-based analysis

P a t r i c k P l ö t z a n d Ti l l G n a n n, F r a u n h o f e r I S I, K a r l s r u h e. E V S 2 7 : , B a r c e l o n a.

How well can early adopters of electric vehicles be identified?

Driving the Market for Plug-in Vehicles - Understanding Financial Purchase Incentives

Infraday: The Future of E-Mobility

E-mobility adoption pathways in France, Germany and Norway

Preprint.

Early adopters of EVs in Germany unveiled

EVREST: Electric Vehicle with Range Extender as a Sustainable Technology.

Consequences of vehicle automatization. Aspects from a transportation science perspective. Benjamin Kickhöfer. DLR Institute of Transport Research

IA-HEV Task 15. Plug-in Hybrid Electric Vehicles. Phase 1 Findings & Phase 2 Recommendations

The Potential Evolution of EVs to the Consumer Mainstream in Canada: A Geodemographic Segmentation Approach Presented by Mark R.

Conflicting interests in defining an 'optimal' battery size when introducing the PHEV?

Paving the way for Renewable Power-to-Gas (P2G) The case of non-individual transport

A Model for Public Fast Charging Infrastructure Needs

WCTRS International Conference: Transport, Climate Change and Clean Air, Paris, June 21, 2018

Japanese Facts on Car Demand & others

MECA0500: PLUG-IN HYBRID ELECTRIC VEHICLES. DESIGN AND CONTROL. Pierre Duysinx

Can fuel cells become a mass produced option globally for heavy duty trucks 2030+? An exploratory study

Modelling real choices between conventional and electric cars for home-based journeys

SPP TENDER MODEL. Electric buses. 20 Electric buses for Stolichen Avtotransport

Impact of EV rollout on EU electricity system

econstor Make Your Publications Visible.

Recent Developments in Electric Vehicles for Passenger Car Transport

Taxing Petrol and Diesel

Electric vehicles and urban transport externalities is OSLO a good example?

The possibility for energy regeneration by electrification in Swedish car driving

Optimal Policy for Plug-In Hybrid Electric Vehicles Adoption IAEE 2014

IEA RETD Francisco Carranza Nissan Europe Bonn, 26 Oct 2012

Battery Electric (BEV) and Plug-in Hybrid Vehicle (PHEV) in Norway

Green economic taxes in Finland and their impacts

A techno-economic analysis of fast charging needs in Germany for different ranges of battery electric vehicles

ECODESIGN BATTERIES FIRST STAKEHOLDER MEETING DRAFT TASK 3

Electric cars: mass rollout, but when?

Role of solar PV prosumers in enabling the energy transition towards a fully renewables based power system for India

Decarbonising long range heavy-duty road transport

217 IEEJ217 Almost all electric vehicles sold in China are currently domestic-made vehicles from local car manufacturers. The breakdown of electric ve

CNG as a Transport Fuel - Economic Benefits 17 th November 2011

Global EV Outlook 2017 Two million electric vehicles, and counting

Experiences of EV Users in the French- German context

Continental Mobility Study Klaus Sommer Hanover, December 15, 2011

Electricity Supply to Africa and Developing Economies. Challenges and opportunities. Technology solutions and innovations for developing economies

Modeling energy system impacts of shared mobility in the Nordic context

Estimating the cost of electrification technology options to aid electricity access scale up: The case of Ghana

An Analytic Method for Estimation of Electric Vehicle Range Requirements, Electrification Potential and Prospective Market Size*

Why are thousands of Norwegians buying EVs? Ole Henrik Hannisdahl, Project Manager

Overview of Global Fuel Economy Policies

FULL ELECTRIC AND PLUG-IN HYBRID ELECTRIC VEHICLES FROM THE POWER SYSTEM PERSPECTIVE

Technological Innovation, Environmentally Sustainable Transport, Travel Demand, Scenario Analysis, CO 2

Development of Business Cases for Fuel Cells and Hydrogen Applications for Regions and Cities. FCH Delivery vans

Electric mobility Status, policies and prospects. Clean Transport Forum - 22 September 2016, Bogotá Marine Gorner, International Energy Agency

Estimation of value of time for autonomous driving using revealed and stated preferences method

Singapore and Manila March Successful Deployment of Low Emission Vehicles Industry Viewpoint

EV - Smart Grid Integration. March 14, 2012

Anna Petre. Manager Government Relations, Saab Automobile

Plug-in Hybrid Vehicles Exhaust emissions and user barriers for a Plug-in Toyota Prius

Electrified Transportation Challenges

Public Policy Strategies for Electric Vehicles and for Vehicle to Grid Power

Connecting vehicles to grid. Toshiyuki Yamamoto Nagoya University

Hydrogen Fuel Cells for Heavy Duty, Road and Rail Applications

H 2. STEPS Symposium December 10,

Energy efficiency policies for transport. John Dulac International Energy Agency Paris, 29 May 2013

COMPETT. COMPETT - COMPetitive Electric Town Transport. Erik Figenbaum Project Coordinator Compett Institute of Transport Economics, Norway

E 4 T AVERE 12/09/2018. Fabrice LE BERR Cyprien TERNEL Maxime PASQUIER

The Electric Power System

PV reaching socket parity Policy implications for distributed generation. Cédric Philibert, Simon Müller, Hoël Wiesner Renewable Energy Division

Customer Expectations and Technical Solutions for Third Generation Electric Vehicles

14 Dec 17. <Date> E-mobility landscape in Singapore. <Title> Goh Chee Kiong Head, Strategic Development

DRP DER Growth Scenarios Workshop. DER Forecasts for Distribution Planning- Electric Vehicles. May 3, 2017

On Economic and Environmental Prospects of Electric Vehicles. Amela Ajanovic Energy Economics Group Vienna University of Technology

R e p l a c i n g D i e s e l G e n e r a t i o n w i t h R e n e w a b l e S o u r c e s i n N u n a v u t C o m m u n i t i e s : F e a s i b i l i

An environmental assessment of the bicycle and other transport systems

ECONOMIC AND FINANCIAL ANALYSIS: PROJECT 1

Global and China EV Charging Equipment Industry 2014 Market Research Report

Can car sharing facilitate a more sustainable car purchase?

Outline. Introduction Related Work Data Collection and Analysis in Taiwan i-ev Pilot Project

Can Public Transportation Compete with Automated and Connected Cars?

Accelerating electric vehicle deployment and support policies

Use of odometer readings in defining road traffic volumes and emissions

OPERATIONAL CHALLENGES OF ELECTROMOBILITY

Outline. Research Questions. Electric Scooters in Viet Nam and India: Factors Influencing (lack of) Adoption and Environmental Implications 11/4/2009

PEVs, Charging Corridors, and DOE Analysis. Jacob Ward, Program Manager, Analysis U.S. Department of Energy

Fuelling the discussion: A view on how to manage fuel cost. Luc Dendievel, Director Category Team Fleet EMEA

Electric vehicles a one-size-fits-all solution for emission reduction from transportation?

Model based analysis of the deployment of electric vehicle in the Paris Ile de France region

How to enable Munich s Freedom (from private cars)? Impacts of the first Mobility Station on urban mobility

How to increase EV user acceptance Green emotion Recommendations

Move forward fuel efficiency policy in Vietnam

Carpooling and Carsharing in Switzerland: Stated Choice Experiments

shared emobility For Fleets

Verkehrsingenieurtag 6. March 2014 Carsharing: Why to model carsharing demand and how

Eskom Electric Vehicle Research Project

Personal Rapid Transit as an Alternative to Bus Service in Two Communities

Electric Vehicles and Solar PV A Total Cost of Ownership Approach"

Market integration of electric mobility: Analyzing economic efficiency and costs for consumers

Planning of electric bus systems

Transcription:

EV research at Chalmers using GPS data from vehicles Frances Sprei Assistant Professor in Sustainable Mobility Energy and Environment, Chalmers Studies in collaboration with: Sten Karlsson, Niklas Jakobsson, Lars-Henrik Björnsson (FRT, Chalmers), Patrick Plötz, Till Gnann (Fraunhofer ISI)

Data sets Outline Distribution of daily vehicle kilometers traveled (VKT) Is the second car in a household better suited as a BEV? Maximizing EV usage in 2 car households Next step

Data sets Swedish Car Movement Data (SCMD): GPS measurements of randomly sampled conventional cars from households in Western Sweden. German Mobility Panel (MoP): Household survey of individuals movements. Winnipeg data: GPS measurements of 75 household in Winnipeg Canada

Summary statistics of data

Distribution of daily VKT is right-skewed but how?

Different distributions affect the likelihood of long-distance driving

Estimating days per year with long-distance travel Comparison between estimate & extrapolated data

Goodness of fit statistics

Next steps PDF of the days requiring adaptation for L = 100, 150 and 200 km using kernel density estimation Looking at measurements length and its influence on distribution

Days Requiring Adaptation (DRA) w.r.t. range

Nbr of cars Days requiring adaptation range 140 km Annual VKT (10000 km) Source: Sprei, Jakobsson, Karlsson

Two car (+) better suited for adoption of BEVs? A household has a first car that is the preferred choice for long distance trips, and a second car that is mainly used for shorter everyday trips. Do second cars have a more suitable driving pattern for being replaced by BEVs? Are they economical as BEVs considering TCO? A household could optimize the use of a BEV so that it takes all the short trips, and the conventional car the long trips.

Nbr of cars Two-car households - range140 km 1 st column: 1 car 2 nd column: 1 st car 3 rd column: 2 nd car Annual VKT (1000 km) Source: Sprei, Jakobsson, Karlsson

CDF of DRA for different household categories (range 120 km) Swedish data German data Days requiring adaptation

Conclusions related to driving needs Share of cars viable as BEVs with a range of 120 km Second car: 30% First car: 10 % Single car: 15 % The share of viable second cars is 20% higher than first cars and 15% higher than single cars for a large part of the DRA spectra. Why? fewer long distance driving days - also lower annual VKT

Method economic analysis Annual capital costs: TCO a = a capex + a opex Annual operating costs: a i opex = VKT i c e/c k e/c + k OM a i capex = p LP i (1+p) T 1 SP i (1+p) T 1 1 + k tax + k renti D i

Parameters TCO calculated for an electric/diesel/gasoline car given the driving pattern, electric car compared to the cheapest of the conventional cars. Costs annuitized with a discount rate over 8 years. Parameters for 2020. A cost for DRA of 60 Euro per day. Swedish direct subsidy of 4400 Euro upon purchase. BEV running costs higher in Germany. Attribute Unit Sweden Germany Electricity price /kwh 0,175 0.29 Gasoline price /l 2,06 1.65 Diesel price /l 2,10 1.58 Battery price /kwh 416 335 Investment horizon years 8 6.2 Interest rate - 5% 5% VAT - 25% 19% Attribute Unit Sweden Germany BEV price w/o battery EUR 23000 21,500 Diesel vehicle price EUR 24630 23,400 Gasoline vehicle price EUR 21900 20,800 O&M BEV EUR/km 0,05 0.040 O&M Diesel EUR/km 0,06 0.048 O&M Gasoline EUR/km 0,06 0.048 Vehicle tax BEV EUR/yr 0 0 Vehicle tax Diesel EUR/yr 209 209 Vehicle tax Gasoline EUR/yr 101 101 Rental car cost EUR/day 60 60 BEV subsidy EUR 4400 - Attribute Battery capacity Depth of discharge Electric consumption Electric range Conventional consumption (gasoline) Conventional consumption (diesel) Unit kwh - kwh/km km l/km l/km Parameter 24 95 % 0.211 120 0.065 0.053

Economical BEVs w.r.t. annual VKT Swedish data 1 st column: 1 car 2 nd column: 1 st car 3 rd column: 2 nd car

Economical BEVs w.r.t. annual VKT German data

Share economic BEVs w.r.t. DRA Swedish data German data

Next steps Improvements of parameters for TCO Looking at different ranges

Two cars 65 households ( 100 measured) 2 vehicles GPS logged 2-3 months measurements

Possible electric driving Maximize EV: 40 80 % of household driving Example, Household A Electric, maximum possible Shares, electric maximum possible 5000 100 90 4000 80 Total distance [km] 3000 2000 1000 Car 1 Car 2 electric non-electric non-served Share of total distance [%] 70 60 50 40 30 20 Car 1 Car 1+2 electric non-electric non-served 10 0 0 Original Unlimited 200km 150km 100km 60km Original Unlimited 200km 150km 100km 60km Range, electric Range, electric

Potential electric driving in 2 car households Possible BEV share of 2-car household driving (%) The potential increases considerably by flexible use of the car! 100 90 80 70 60 50 max. BEV driving 40 30 20 10 second car only not fulfilled 0 Second car Unlimited 200km 150km BEV range 100km 60km (Preliminary results for 18households)

Next step Replacing one of the vehicles with a BEV (VW e-golf) GPS logging both 4-5 months 20 households ( from the 65 previous) Interviews beginning and end Starting April 2015

THANKS! QUESTIONS?