Carpooling and Carsharing in Switzerland: Stated Choice Experiments

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Carpooling and Carsharing in Switzerland: Stated Choice Experiments F Ciari May 2012

Project ASTRA 2008/017 - Participants Franz Mühlethaler Prof. Kay Axhausen Francesco Ciari Monica Tschannen

Goals Estimation of Carpooling potential in Switzerland regarding: Users Traffic reduction Environmental impact reduction Mobility improvement The potential is estimated quantitatively using a simulation, which is based on the results of a nationwide survey

Contents of the Survey Qualitative questions on car-pooling Questions on socio-demographics Stated choice - experiments on car-pooling and car-sharing

Recruitment Basis: Kontinuierliche Erhebung Personenverkehr (KEP) of SBB (Swiss train company) Time span (two Phases): Between 23. August and 25. October 2010 and 1. January and 18. April 2011 Pre-condition: Driving license + Trip > 10km 1'683 Persons recruited (out of 2000 addresses) Expected (estimated) Response rate: 45% Actual Response Rate: 53%

Statistics: Sample vs. Micro-census Gender= + Male Age: - Young + Middle Age Education: ++ Tertiary Household Size: + Larger households Cars in the household: + Multiple cars (>=2) Public Transport Season Tickets: + HF + GA Income: + Affluent

Stated choice Experiments Two SC Experiments, respectively on Car-pooling and Car-sharing, per Person Car-pooling: Car-sharing 8 Situations 4 possible Alternatives (CP Driver, CP Passenger, Private Car, PT) 3 Alternatives per Person Gasoline cost as basis 6 Situations 3 possible Alternatives (CS, PC, PT) Global costs as basis Design Ngene software

Stated choice - Questionnaire

Modal choice - Carpooling Revealed Choice Car = 68.4% Car Passenger = 11.1% Other = 0.5% PT = 19.9 % Stated Choice Car = 39.8% CP Passenger = 35.0% CP Driver= 16.3% PT = 8.9%

Stated Choice Model: Carpooling Car Alone CP Driver CP Passenger PT Travel Cost -0.06-0.06-0.06-0.06 Walking Time -0.04-0.04-0.04-0.04 Travel time -0.03-0.03-0.04-0.01 Inertia 0.77 - - 2.07 Transfers Time - - - -0.08 Transfers (n) - - - -0.10 Season Ticket - - - 0.90 Male 0.65 - - - Parking Cost -0.06-0.15 - - Car Always 0.40 - - - Trip mate Colleague - 0.30 0.30 - Household Dimension - 0.09 0.09 - Positive attitude CP - 0.98 0.98 - Female - -0.64-0.64 - German Speaking - 0.17 0.17 - Constant -0.33 0.23 - -6.54 Observations: 5885 Adj. r2: 0.221

Trade-offs: Car-pooling Indicator Unit Value VSS Norm SN 641 822 (2007) VTTS CPD CHF/h 36.7 - VTTS CPP CHF/h 40.0 - VTTS Car CHF/h 31.7 22.2 VTTS PT CHF/h 8.2 13.8 WTP PT Transfers (#) CHF/Transfer 1.8 2.5 WTP PT Transfer Time CHF/h 84.3 6.5 WTP Walking Time CHF/h 46.2 - Average Income = 8,300 CHF/Month Average Trip Distance = 38.1 Km

Interactions distance-income on VTTS - Carpooling

Modal choice - Carsharing Revealed Choice Car = 68.4% Car Sharing 0.5% (Est.) Public Transport = 19.9 % Stated Choice Car = 51.2% Carsharing = 14.9% Public Transport = 33.9% Car Passenger = 11.1% Other = 0.5%

Stated Choice Model: Carsharing Private Car Carsharing PT Travel Cost -0.01-0.02-0.03 Travel Time -0.03-0.02-0.02 Walking Time -0.02-0.11-0.04 Transfers time - - -0.04 Transfers (n) - - -0.14 Season Tickets - - 0.81 Log (Age) - - 0.50 Log(Income) - - -0.39 Inertia 0.47-1.09 Parking cost -0.06-0.03 - Car Always 0.31 - - PT to station - -0.13 - Constant 0.02-1.35 Observations: 4350 Adj. r2: 0.275

Trade-offs: Car-sharing Indicator Unit Value VTTS Car CHF/h 151.6 VTTS CS CHF/h 68.6 VTTS PT CHF/h 38.2 WTP PT Transfer Time CHF/h 67.4 WTP PT Transfers (#) CHF /Transfer 4.2 WTP Walk Car CHF /h 88.1 WTP Walk PT CHF /h 66.0 WTP Walk CS CHF /min 321.0 WTP PT Time to Station CS CHF /min 390.0 Average Income = 8300 CHF/Month Average Trip Distance = 38.1 Km

Interactions distance-income on VTTS - Carsharing

Conclusions Overall, the existence of a good unexploited potential for carpooling in Switzerland is suggested. Carpooling alternatives have a higher VTTS than car, suggesting that higher income persons prefer carpooling. This was not expected and this probably means that the choice to carpool is not only of economic nature, but other motivations environmental, social, etc. also play an important role. Potential carpoolers prefer to be passenger rather than drivers. Carpool as passenger is a more attractive option, being comfortable and comparatively cheap. The choice of carsharing seems prevalently economically driven. This is consistent with the fact that carsharing is a well known and diffused option in Switzerland

Remarks Is carpooling performing too well in the model? Possible reasons are: Sample bias Reflects some assumptions on carpooling which might be unrealistic for some potential participants (temporal deviation, available matches, etc.) SP sometimes closer to self-representation than to reality Learning process?

Questions?

What motivate potential carpoolers? 0% 20% 40% 60% 80% 100% environmental relief saving of CO2 very important decongestion of roads rather important rather unimportant decongestion of parking lots totally unimportant saving expenses no opinion saving time vs public transport social aspect

How should be a Carpooling platform? 0% 20% 40% 60% 80% 100% entering data in a short time protection of personal data clear structure for fees having mobile phone number of riding/mate possibility for allowance for smoking in the car very important rather important rather unimportant totally unimportant possibility for rating of ride-mates no opinion possibility to look for a ride on the road restriction to certain users (f.ex. Collegues from work) preferences for gender of ride/mates

rather yes yes rather no I have no car no Correlation willingness to be a driver/passenger 250 200 150 100 50 willingness driver rather no 0 no yes rather yes willingness passenger

Summary (II) Positive Attitude: 76% Positive Readiness to participate: 51% would participate Most important characteristics of the trip-mate: Driving style, Smoker, Appearance/Demeanor Basis for sharing the costs: Gasoline cost (70%) Maximal deviation for the Driver: up to 10 Minutes (83%) Barriers: Time adjustments, Fixed working time, Risk not being picked up Preferred incentives: Back-to-home guarantee, Pooling Platform, Financial incentives

Continuous Interactions Continuous interactions between tastes and socio-demographic attributes, in this case trip distance and income, are an alternative to the use of arbitrary segmentations into different income and distance classes. The interactions are assumed as follows: f(y,x) = b x (y/y*) l(y,x) x where y is the observed value for a given socio-demographic variable, and y* is a reference value, usually the mean value across a sample population.