Carsharing Stated Preference (SP) Francesco Ciari. Kay W. Axhausen

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Carsharing Stated Preference (SP) Francesco Ciari Kay W. Axhausen Travel Survey Metadata Series 47 June 2013

Travel Survey Metadata Series Carsharing Stated Preference (SP) Francesco Ciari IVT, ETH Zürich Wolfgang-Pauli-Strasse 15 CH-8093 Zürich Kay W. Axhausen IVT, ETH Zürich Wolfgang-Pauli-Strasse 15 CH-8093 Zürich May 2013 Abstract A recent study aimed to estimate the potential of carpooling in Switzerland. Part of this study was a survey in which the attitude of the public towards this transport option was investigated using both multi-response questions and stated preference (SP) experiments. In order to gain an insight on how innovative modes are perceived in general, the SP part was composed of two different experiments, one of them including carsharing as alternative. In the first experiment respondents were choosing among car, public transport, carpooling as driver and carpooling as passenger. In the second experiment respondents were choosing among car, public transport and carsharing. This paper reports on the multinomial logit choice models, which were estimated based on participants responses. Both SP experiments were based on a trip reported by participants during a phone interview. For each experiment two specifications, a linear and a nonlinear one were estimated. The nonlinear specification allows investigating the impact of selected socio-demographic variables, in this case income and travel time, on the parameters of the models and on willingness to pay indicators. Such indicators permit to complement the qualitative discussion of the results with quantitative analyses and provide a useful background for policy evaluation and planning. Experiment 2: Carsharing In the second SP experiment the alternatives considered were car, public transport and carsharing. In this case all respondents received the same set of alternatives while the number of situations was limited to six. An issue which had to be tackled was the cost of carsharing travel. The norm in SP experiments with car and public transport as available modal options is to take into account the cost of the ticket for public transport travel and the cost of the gasoline for car travel. It is commonly accepted that gasoline cost is what car users perceive as the cost of a trip with that mode. The parking cost can be eventually added. In the case of carpooling this was appropriate, since carpooling implies the use of a private car. In the case of carsharing the usage fee covers other costs which are not usually taken into account in such experiments, nor generally by the driver a of a private car as cost of a particular trip; car insurance and amortization costs are the most important. For that reason, in the second SP experiment total kilometer costs were used. The kilometer cost was calculated using appropriate tables available on the web page of a Swiss automobile club (14). In order to have personalized costs, twelve different categories were considered according to the type of car (using price as proxy, with four levels) and to the yearly mileage (with three levels). Consumption, as in the previous exercise, was the one declared by the respondent. The cost for carsharing usage was calculated using the current prices of the Swiss operator Mobility (15). The carsharing car was, as far as possible, of the same or similar category as the respondent s own car. Mobility s fleet includes most, but not all car types. Another issue is how to take into account the duration related part of the carsharing fee. Carsharing users, in general, pay a fee, which is the sum of a distance dependent

fee and a duration dependent fee. The latter depends on the rental time, which broadly corresponds to the duration of the round-trip tour; at least in the case of carsharing systems like Mobility which do not allow one-way rentals. Ideally, one would compare tours and not trips; however, since it was not possible to have the precise information needed for the whole tour, the experiment is based on a choice at the trip level. The ranges for the second experiment are reported in Table 2. They were chosen with the same criteria as for the first experiment. Keywords CarSharing Preferred citation style Ciari, F. and K.W. Axhausen (2013) Carsharing Stated Preference (SP), Travel Survey Metadata Series, 47, Institute for Transport Planning and Systems (IVT); ETH Zürich, Zürich.

1.0 Document Description Citation Title: Identification Number: Authoring Entity: CarSharing SP CarSharingSP Dr. Francesco Ciari (IVT, ETH Zürich) Date of Production: 2013-04-08 Software used in Production: Prof. Dr. Kay W. Axhausen (IVT, ETH Zürich) Nesstar Publisher 2.0 Study Description Citation Title: Identification Number: Authoring Entity: CarSharing SP CarSharingSP Dr. Francesco Ciari (IVT, ETH Zürich) Date of Production: 2013-04-08 Prof. Dr. Kay W. Axhausen (IVT, ETH Zürich) Software used in Production: Study Scope Nesstar Publisher Abstract: A recent study aimed to estimate the potential of carpooling in Switzerland. Part of this study was a survey in which the attitude of the public towards this transport option was investigated using both multi-response questions and stated preference (SP) experiments. In order to gain an insight on how innovative modes are perceived in general, the SP part was composed of two different experiments, one of them including carsharing as alternative. In the first experiment respondents were choosing among car, public transport, carpooling as driver and carpooling as passenger. In the second experiment respondents were choosing among car, public transport and carsharing. This paper reports on the multinomial logit choice models, which were estimated based on participants responses. Both SP experiments were based on a trip reported by participants during a phone interview. For each experiment two specifications, a linear and a nonlinear one were estimated. The nonlinear specification allows investigating the impact of selected sociodemographic variables, in this case income and travel time, on the parameters of the models and on willingness to pay indicators. Such indicators permit to complement the qualitative discussion of the results with quantitative analyses and provide a useful background for policy evaluation and planning. Experiment 2: Carsharing In the second SP experiment the alternatives considered were car, public transport and carsharing. In this case all respondents received the same set of alternatives while the number of situations was limited to six. An issue which had to be tackled was the cost of carsharing travel. The norm in SP experiments with car and public transport as available modal options is to take into account the cost of the ticket for public transport travel and the cost of the gasoline for car travel. It is commonly accepted that gasoline cost is what car users perceive as the cost of a trip with that mode. The parking cost can be eventually added. In the case of carpooling this was appropriate, since carpooling implies the use of a private car. In the case of carsharing the usage fee covers other costs which are not usually taken into account in such experiments, nor generally by the driver a of a private car as cost of a particular trip; car insurance and amortization costs are the most important. For that reason, in the second SP experiment total kilometer costs were used. The kilometer cost was calculated using appropriate tables available on the web page of a Swiss automobile club (14). In order to have personalized costs, twelve different categories were considered according to the type of car (using price as proxy, with four levels) and to the yearly mileage (with three levels). Consumption, as in the previous exercise, was the one declared by the

3.0 File Description respondent. The cost for carsharing usage was calculated using the current prices of the Swiss operator Mobility (15). The carsharing car was, as far as possible, of the same or similar category as the respondent s own car. Mobility s fleet includes most, but not all car types. Another issue is how to take into account the duration related part of the carsharing fee. Carsharing users, in general, pay a fee, which is the sum of a distance dependent fee and a duration dependent fee. The latter depends on the rental time, which broadly corresponds to the duration of the round-trip tour; at least in the case of carsharing systems like Mobility which do not allow one-way rentals. Ideally, one would compare tours and not trips; however, since it was not possible to have the precise information needed for the whole tour, the experiment is based on a choice at the trip level. The ranges for the second experiment are reported in Table 2. They were chosen with the same criteria as for the first experiment. File: CarSharing SP.NSDstat Number of cases: 4350 No. of variables per record: 41 Type of File: NSDstat 200501 4.0 Variable Description Variable Groups Person SP CarSharing Person Variables within Person Interview-Nummer Choice Car Sharing Cost Car Sharing Parking Cost Geschlecht Alter alter (ungruppiert) Frage 4.10: Wieviele Personen leben in ihrem Haushalt, Sie eingerechnet? Frage 43.00: Sind Sie erwerbstätig? Frage 1.45: Haben Sie persönlich ein Bahn - oder Verbundabonnement? Frage 32.00: Wieviele Autos sind in Ihrem Haushalt vorhanden? Frage 47.00: Welche Schule haben Sie zuletzt besucht? Frage 1.51: Sie besitzen also ein GENERAL-ABONNEMENT. Handelt es sich dabei um das normale Erwachsenen GA, das Partner GA, ein Familien GA oder um ein anderes spezielles GA? (Original) Car Sharing Member Car Sharing genutzt Car Pooling Muttersprache Frage 33.00: Wie können Sie - auch wenn im Haushalt nicht vorhanden - über ein Auto verfügen? Sie können mir sagen immer, gelegentlich - oder nie. Frage 613.10: Benutztes Verkehrsmittel Frage 615.00: Zurückgelegte KM (1 Kommastelle) Frage 613.00: Zu welchem Hauptzweck haben Sie diesen Weg unternommen? Car Pooling Erfahrung Einkommen Mode im Besitz eines Ga's? Anderes Abo für OEV? Einkommen in CHF Wahl bei Car Pooling SP

SP CarSharing Variables within SP CarSharing Interview-Nummer Choice Car Sharing Cost Car Sharing Parking Cost Car Sharing Travel Time (in Vehicle) Car Sharing Walking Time Car Sharing Public Transport Time Private Car Cost (Gasoline) Private Car Parking Cost Private Car Travel Time (in Vehicle) Private Car Walking Time Public Transport Cost (Ticket) Public Transport Travel Time (in Vehicle) Public Transport Walking Time Public Transport Waiting Time Public Transport Transfers Variables Variable: Interview-Nummer Range of Valid Data Values: 201038307 to 201135436 Minimum : 201038307 Maximum : 201135436 Mean : 201105379.264 Standard deviation : 20182.112 Variable: Choice 1. 646 2. 2228 3. 1476 Range of Valid Data Values: 1 to 3 Minimum : 1 Maximum : 3 Mean : 2.191 Standard deviation : 0.672 Variable: Car Sharing Cost Width: 17 Range of Valid Data Values: 0.832 to 439.67

.832 Maximum : 439.67 Mean : 41.448 Standard deviation : 49.317 Variable: Car Sharing Parking Cost Width: 16 Range of Valid Data Values: 3.2 to 252 Minimum : 3.2 Maximum : 252 Mean : 10.516 Standard deviation : 20.627 Variable: Car Sharing Travel Time (in Vehicle) Width: 16 Range of Valid Data Values: 3.2 to 308.4 Minimum : 3.2 Maximum : 308.4 Mean : 36.849 Standard deviation : 38.015 Variable: Car Sharing Walking Time Width: 16 0. 1688 5. 1564 10. 1098 Range of Valid Data Values: 0 to 10 Maximum : 10 Mean : 4.322 Standard deviation : 3.944 Variable: Car Sharing Public Transport Time Width: 19 0. 1094 3. 1802 6. 1454 Range of Valid Data Values: 0 to 6

Maximum : 6 Mean : 3.248 Standard deviation : 2.283 Variable: Private Car Cost (Gasoline) Width: 18 Range of Valid Data Values: 0.549 to 747.4.549 Maximum : 747.4 Mean : 44.834 Standard deviation : 63.491 Variable: Private Car Parking Cost Width: 3 Range of Valid Data Values: 3.2 to 6 Minimum : 3.2 Maximum : 6 Mean : 4.777 Standard deviation : 1.161 Variable: Private Car Travel Time (in Vehicle) Width: 4 Range of Valid Data Values: 3.2 to 318 Minimum : 3.2 Maximum : 318 Mean : 40.787 Standard deviation : 37.339 Variable: Private Car Walking Time Width: 17 0. 1702 5. 979 10. 1669 Range of Valid Data Values: 0 to 10

Maximum : 10 Mean : 4.962 Standard deviation : 4.402 Variable: Public Transport Cost (Ticket) Width: 18 Range of Valid Data Values: 0.64 to 244.8.64 Maximum : 244.8 Mean : 15.039 Standard deviation : 20.531 Variable: Public Transport Travel Time (in Vehicle) Width: 17 Range of Valid Data Values: 3.2 to 418.8 Minimum : 3.2 Maximum : 418.8 Mean : 61.996 Standard deviation : 50.662 Variable: Public Transport Walking Time Width: 20 Range of Valid Data Values: 0 to 118.8 Maximum : 118.8 Mean : 11.193 Standard deviation : 9.235 Variable: Public Transport Waiting Time Width: 18 Range of Valid Data Values: 0 to 116.4 Maximum : 116.4 Mean : 9.988 Standard deviation : 11.309 Variable: Public Transport Transfers

Width: 17 0. 1703 1. 599 2. 963 3. 294 4. 478 5. 27 6. 212 8. 54 10. 19 12. 1 Range of Valid Data Values: 0 to 12 Maximum : 12 Mean : 1.692 Standard deviation : 1.924 Variable: Geschlecht 1. 1 Männer 2447 2. 2 Frauen 1903 Range of Valid Data Values: 1 to 2 Variable: Alter 15. 15-19 Jahre 72 20. 20-29 Jahre 306 30. 30-39 Jahre 716 40. 40-49 Jahre 1298 50. 50-59 Jahre 1023 60. 60-69 Jahre 629 70. 70-84 Jahre 306 Range of Valid Data Values: 15 to 70 Minimum : 15 Maximum : 70

Variable: alter (ungruppiert) Range of Valid Data Values: 16 to 84 Minimum : 16 Maximum : 84 Mean : 48.348 Standard deviation : 13.74 Variable: Frage 4.10: Wieviele Personen leben in ihrem Haushalt, Sie eingerechnet? 1. 440 2. 1773 3. 673 4. 1034 5. 341 6. 77 7. 12 Range of Valid Data Values: 1 to 7 Minimum : 1 Maximum : 7 Mean : 2.849 Standard deviation : 1.243 Variable: Frage 43.00: Sind Sie erwerbstätig? 1. 1 Ja, vollzeitlich (ab 37 Std. pro Woche) 2246 2. 2 Ja, Teilzeit (bis 36 Std. pro Woche) 1093 3. 3 Nein 1011 Range of Valid Data Values: 1 to 3 Variable: Frage 1.45: Haben Sie persönlich ein Bahn - oder Verbundabonnement? 0. 603

1. 1 Ja 2438 2. 2 Nein 1309 Range of Valid Data Values: 0 to 2 Variable: Frage 32.00: Wieviele Autos sind in Ihrem Haushalt vorhanden? 0. 0 Keines 169 1. 1 Auto 2066 2. 2 Autos 1720 3. 3 Autos 306 4. 4 Autos 72 5. 5 Autos 6 6. 6 Autos 11 7. 7 Autos 0 8. 8 Autos 0 9. 9 Autos 0 Range of Valid Data Values: 0 to 9 Maximum : 6 Variable: Frage 47.00: Welche Schule haben Sie zuletzt besucht? 1. 1 Primar-/Sekundar-/Real-/Bezirkschule 241 2. 2 Berufsschule/Lehre/Gewerbeschule 2076 3. 3 Mittelschule/Gymnasium/höhere Schulen (UNI/ETH) 2033 Range of Valid Data Values: 1 to 3 Variable: Frage 1.51: Sie besitzen also ein GENERAL-ABONNEMENT. Handelt es sich dabei um das normale Erwachsenen GA, das Partner GA, ein Familien GA oder um ein anderes spezielles GA? (Original) 0. 3934 1. 01 GA Erwachsene 314 2. 02 GA-Plus Duo Partner 24

4. 04 GA-Plus Familia Jugend (16-25 Jahre) 6 5. 05 GA-Plus Familia Partner 6 6. 06 GA Familia Kind (bis 15 Jahre) 0 7. 07 GA Junior (16-25 Jahre) 18 8. 08 GA Junior für Studierende 25-30 J. 12 9. 09 GA Senior 30 10. 10 GA Behinderte 6 11. 11 Schnupper-GA 0 12. 12 GA Lernende (wird durch Firma gestellt) 0 Range of Valid Data Values: 0 to 12 Variable: Car Sharing Member Width: 1 1. 196 2. 4130 9. 24 Variable: Car Sharing genutzt Variable Format: character Width: 1 1. 59 2. 131 3. 199 4. 3961 Variable: Car Pooling Variable Format: character Width: 1 1. 368 2. 134 3. 223 4. 905 5. 2714 9. 6 Range of Valid Data Values: 1 to 9 Variable: Muttersprache

Width: 2 1. 3097 2. 707 3. 546 Range of Valid Data Values: 1 to 3 Variable: Frage 33.00: Wie können Sie - auch wenn im Haushalt nicht vorhanden - über ein Auto verfügen? Sie können mir sagen immer, gelegentlich - oder nie. 1. 1 immer 3742 2. 2 gelegentlich 566 3. 3 nie 42 Range of Valid Data Values: 1 to 3 Variable: Frage 613.10: Benutztes Verkehrsmittel 0. 0 Taxi 6 1. 1 Auto als Fahrer 2554 2. 2 Auto als Beifahrer 984 3. 3 Tram/Bus 84 4. 4 Motorrad/Töff 18 5. 5 Bahn / Bergbahn 692 6. 6 Car (Ohne Fahrplan) 12 7. 7 Flugzeug 0 8. 8 Schiff 0 9. 9 Seilbahn 0 Range of Valid Data Values: 0 to 9 Variable: Frage 615.00: Zurückgelegte KM (1 Kommastelle) Range of Valid Data Values: 2 to 333 Minimum : 2 Maximum : 333 Mean : 42.623

Standard deviation : 47.94 Variable: Frage 613.00: Zu welchem Hauptzweck haben Sie diesen Weg unternommen? 0. 0 Rückfahrt nach Hause 0 1. 1 Arbeit 1726 2. 2 Ausbildung 102 3. 3 Geschäftsreise 203 4. 4 Freizeitfahrt Ausflug / Nutzfahrt 2223 5. 5 Ferien 96 Range of Valid Data Values: 0 to 5 Variable: Car Pooling Erfahrung 0. 3891 1. 459 Range of Valid Data Values: 0 to 1 Maximum : 1 Mean : 0.106 Standard deviation : 0.307 Variable: Einkommen Width: 3 Range of Valid Data Values: 1 to 9 Minimum : 1 Maximum : 9 Mean : 4.571 Standard deviation : 1.939 Variable: Mode 1. miv 2554 2. cpm 984 3. oev 704 4. other 108

Range of Valid Data Values: 1 to 4 Minimum : 1 Maximum : 4 Variable: im Besitz eines Ga's? 0. nein 3934 1. ja 416 Range of Valid Data Values: 0 to 1 Maximum : 1 Variable: Anderes Abo für OEV? 0. nein 1912 1. ja 2438 Range of Valid Data Values: 0 to 1 Maximum : 1 Variable: Einkommen in CHF Range of Valid Data Values: 1500 to 17000 Minimum : 1500 Maximum : 17000 Mean : 8238.23 Standard deviation : 3834.21 Variable: Wahl bei Car Pooling SP 0. 1079 1. 3271 Range of Valid Data Values: 0 to 1

Variable: Range of Valid Data Values: 0 to 330 Maximum : 330 Mean : 38.621 Standard deviation : 47.838