A Conceptual Model To Explain, Predict and Improve User Acceptance of Driverless Vehicles

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Innovationszentrum für Mobilität und gesellschaftlichen Wandel A Conceptual Model To Explain, Predict and Improve User Acceptance of Driverless Vehicles TRB Paper S. Nordhoff PhD Student S. Nordhoff 22/06/2016 1

Focus Focus on Level 4 or Highly-Automated Vehicles defined by SAE Standard J3016 Level Highly automated Driver only Fully automated Partially automated BASt Assisted NHTSA Name Narrative definition Execution of steering and acceleration/ decelaration Monitoring of driving environment Fallback performance of dynamic driving task capability (driving modes) Human driver monitors the driving environment 0 No Automation the full-time performance by the human driver of all aspects of the dynamic driving task, even when enhanced by warning or intervention systems Human driver Human driver Human driver n/a 0 1 Driver Assistance the driving mode-specific execution by a driver assistance system of either steering or acceleration/deceleration using information about the driving environment and with the expectation that the human driver performs all remaining aspects of the dynamic driving task Human driver and system Human driver Human driver Some driving modes 1 2 Partial Automation the driving mode-specific execution by one or more driver assistance systems of both steering and acceleration/deceleration using information about the driving environment and with the expectation that the human driver performs all remaining aspects of the dynamic driving task Human driver Human driver Some driving modes 2 Automated driving system ( system ) monitors the driving environment 3 Conditional Automation the driving mode-specific performance by an automated driving system of all aspects of the dynamic driving task with the expectation that the human driver will respond appropriately to a request to intervene Human driver Some driving modes 3 4 High Automation the driving mode-specific performance by an automated driving system of all aspects of the dynamic driving task, even if a human driver does not respond appropriately to a request to intervene Some driving modes 3/ 5 Full Automation the driving mode-specific performance by an automated driving system of all aspects of the dynamic driving task under all roadway and environmental conditions that can be managed by a human driver All driving modes 4 Introduction 4P 22/06/2016 2

Definiton 4P (driverless pods) Two vehicle types of SAE level 4 4R (regular) 4P (pod-like) Driverless: no actuators Operation under restricted operational range without need for driver action Manual driving beyond operational range impossible First-mile/last-mile solutions, link to PT Introduction 4P 22/06/2016 3

Research Questions & Objectives To what extent can 4P acceptance be successfully modelled? To what extent does 4P acceptance change within and between subjects? What are additional boundary conditions/contingency factors to achieve large-scale adoption of driverless vehicles? Development of conceptual model as holistic, integrative and systematic representation of user acceptance Validation of current knowledge on user acceptance of automated vehicles under real-life conditions ( real vehicles) Research Questions & Objectives 22/06/2016 4

AV Acceptance: Current Knowledge More than one in two motorists inclined to buy self-driving car: 83% driving comfort, 81% saving time, 77% safety (n=8.500)(2016 Observatoire Cetelem automotive survey), less fuel consumption (72%), fewer emissions (64%), less congestion (52%) (Schoettle & Sivak, 2014) Men feel more comfortable travelling in automated vehicle than women (n=27.801) (Eurobarometer Survey on Autonomous s, 2015) Elderly people have lower willingness to pay for Avs (difficulties to learn how to use them, lack of trust) (Kockelman, Bansal, & Singh, 2015) High-income countries uncomfortable with data transmission to insurance companies, tax authorities or roadway organizations and most concerned about software issues and more likely to be negative rather than positive than people from low-income countries (n=5.000) (Kyriakidis et al., 2014) Literature Review 22/06/2016 5

AV Acceptance: Current Knowledge Degree to which specific system is enjoyable and fun declines with higher levels of automation (Rödel, Stadler, Meschtscherjakov, & Tscheligi, 2014) Manual driving is considered the most fun part of driving and full automation as the least enjoyable mode (Kyriakidis et al., 2014) Lack of trust in fully automated vehicles, manual or partial automation preferred (Bazilinskyy et al. 2015) 75% of respondents wanted to talk or text with friends and look out of window in fully automated car (Kockelman et al., 2015) The higher the level of automation, the higher the willingness to rest/sleep, watch movies or read in fully automated car (Kyriakidis et al., 2015) Acceptance Automation Literature Review 22/06/2016 6

Literature Review People currently using ACC show higher willingness to pay 50% of respondents (n=347) would prefer family, friends, or neighbors to use automated vehicles before adoption Respondents with negative attitude towards automated driving prefer to have manual vehicle control (n=8862) (Bazilinskyy, Kyriakidis, & De Winter, 2015) AVs preferred on long freeway journeys (67%), traffic jams (52%), on rural roads (36%) and city traffic (34%) (Continental Mobility Study 2013) or when being impaired by alcohol, drug or medication (71%) (Payre, Cestac, Delhomme, 2014) Literature Review 22/06/2016 7

External Variables 4P Acceptance Model Personality PAD UTAUT Model Acceptance Socio- Demographics Contextual Characteristics Mobility Characteristics Vehicle Characteristics Trust Sensation Seeking Locus of Control Performance Expectancy Effort Expectancy Social Influence Pleasure Arousal Dominance Efficiency Effectiveness Equity Satisfaction Usefulness Willingness to Pay Social Acceptability Behavioral Intention Acceptance Model 22/06/2016 8

Living Lab EUREF Campus: Automated Driving in the City Different phases Automated Shuttle Guest area Deliveries Access to parking decks Shared space area Forum Inductive charging stations 1 Phase 1 - Automated valet parking and use of automated vehicles on EUREF-campus Phase 2 - Automated shuttle transport 2 - Last mile delivery Phase 3 - Use of automated vehicles beyond EUREF-campus - Complete integration into automated carsharing fleet Former test track: potential test track Traffic lights/ gatehouse 2 2 Field Tests 22/06/2016 9

WEPods project Dutch Consortium Vision, Radar, Laser, Safety by low speed Two shuttles (6 seat) Using EasyMile EZ10 platform Route: Wageningen University Ede/Wageningen railway station Track length: approx. 9 km Booking via smartphone app Operational: Mid 2016 Field Tests 22/06/2016 10

Paper II: Validation by Online Survey Paper No Title/Content Status Planning/ Timing Research Questions Research Objectives Methods II Why Users will Accept and Use Driverless, Pod- Like Vehicles: Results of an International Crowdflower Survey with 10,000 Respondents In process 01/08/2016: Submission to TRB ~01/09/2016: Submission to higher-impact journal 1. To what extent is 4P acceptance influenced by variables as identified by the 4P Acceptance Model? 2. To what extent does 4P acceptance change within and between subjects? Validation of 4P Acceptance Model Data collection: Online Survey (n=10,001) Data analysis: Descriptive statistics, frequencies, Pearsonproduct moment correlation coefficients, Multiple hierarchical regression Paper II 22/06/2016

Acceptance for driverless 4P vehicles high I would use a 100% electric driverless vehicle from the train station or some other public transport stop to my final destination or vice versa. Even if it were more expensive than my existing form of travel, I would prefer driverless vehicles to my existing form of travel. Agree strongly 30.70% Agree strongly 12.60% Agree moderately 27.50% Agree moderately 19.70% Agree slightly 24.80% Agree slightly 26.50% Disagree slightly 7.10% Disagree slightly 18.30% Disagree moderately 3.50% Disagree moderately 10.50% Disagree strongly 3.60% n=9888 Disagree strongly 9.30% n=9889 Please indicate how often you intent to use a driverless vehicle when it is on the market. Never almost never 9.10% Less than monthly or 12.70% On 1-3 days per month 18.20% 1-3 days per week 25.80% Daily or almost daily 30.60% n=9888 Paper II 22/06/2016

Stepwise Multiple Regression Analysis of 4P Acceptance Predictor Variables R² B ß Performance Expectancy 0,506 1,628 0,711 Trust 0,570 0,326 0,328 Personal Distance 0,602 0,213 0,217 Perceived Enjoyment 0,623 0,146 0,176 Effort Expectancy 0,636 0,166 0,167 Mobility-related Innovativeness 0,643 0,098 0,102 p<0,001* Utilitarian motives may dominate affective, symbolic factors (sharing versus owning) Extension of model by relatively neglected factors (e.g. personal distance) Strong role of trust Mobility-related innovativeness and urban life Identification of determinants of perceived enjoyment

Conclusions Many studies about public s perception of Avs but critical research questions need to be addressed Public is generally positive about Avs Identification of right contingencies may result in large-scale adoption No common definition of acceptance, no systematic representation of drivers of acceptance 4P Acceptance Model as status quo of user acceptance on automated vehicles Empirical validation of 4P Acceptance Model needed (WEpods, Living Lab EUREF-Campus) Push/pull factors: promote acceptance from higher level; involve key stakeholders Conclusions Transportation Research Board, Washington D.C. 14

Open Challenges Access to test fields with real vehicles on public roads in mixed (national) environments Establish common definition of acceptance Uniformity of measurement across research settings Definition of acceptance that can be used to predict actual acceptance and adoption Relation to HR research??? Open Challenges Transportation Research Board, Washington D.C. 15

Thank you! Innovationszentrum für Mobilität und gesellschaftlichen Wandel Sina Nordhoff, PhD Researcher TU Delft, Civil Engineering and Geosciences Department Transport & Planning s.nordhoff@tudelft.nl Contact details 22/06(2016 16