Pedalling into a driverless world: opportunities and threats

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Transcription:

John Parkin Professor of Transport Engineering John.parkin@uwe.ac.uk Pedalling into a driverless world: opportunities and threats International Cycling Conference, Mannheim 19 th to 21 st September 2017

Outline 1. State-of-the-art in autonomous technology 2. Use scenarios and the challenge 3. Trial 2 findings to date 4. Trial 3 preview 5. Regulatory and moral issues

1 State-of-the-art

The critical Level 3 Volvo: Follow lanes Follow cars Adapt speed Merge fail safe. Tesla: Auto steer Auto lane change Automatic emergency steering Emergency collision warning Side collision warning Auto park Google car: trials with a safety driver Volvo: trials announced Tesla: on the open market

Trajectories for use Car Taxi Shared taxi Bus Lorries and so on or pods

2 Use scenarios 1 Fully segregated Completely segregated Have their own system Interact only with other Avs 2 Motorways and expressways With high volume and speed human drivers Only motor traffic present Infrastructure highly engineered 3 Typical urban roads (next slide) 4 Shared Space Carefully designed to reduce traffic speeds Only regulation is share sociably Interaction theoretically equitable

Challenge: (3) typical urban roads Range of: Road types (arterial roads, distributor roads, high streets, access roads and local streets) User types (vehicles and drivers, pedestrians, cyclists) Variability in: Lane types and widths Forms of junction control Levels of traffic regulation Levels of place as well as movement function

3 Trial 2 findings to date: the variables Independent variables (the AV) Dependent variables (human response) Description Headway (car following) (seconds) Headway = time gap a driver leaves to vehicle in front (Lewis-Evans et al., 2010) Critical gap = gap 50% of drivers would accept (Ashalatha and Chandra, 2011). Critical gap (gap acceptance at junctions) (seconds) Passive 2.5 5.1 Neutral 2.0 4.0 Assertive 1.5 2.8 Trust 0 = no trust to 10 complete trust Comfort Post- questionnaires and nausea rating scores Personality questionnaires Driving experience Faith and Trust in General Technology Trust in automation Impulsivity Self-control Risk taking Distractibility Personality Sleep Mood Cognitive workload

Trial 2 events Links Give ways Left turn into side road

The Wildcat AV and Venturer simulator

The respondents and comparisons 46 Participants (20 female) 8 (17%) 65 years, 4 (8%) relatively inexperienced < 5 years driving Three observations of each event The decision management system either: rejected the gap, i.e. proceeded at the critical gap, or accepted the gap, i.e. did not proceed at the critical gap Within subjects analysis: 1. Between events 2. Between platforms 3. Between rejecting and accepting gap (simulator only) Behaviour Wildcat Simulator Rejected gap Accepted gap

Some results Wildcat, trust higher: On empty link compared to overtaking a parked car with and without an oncoming vehicle. Overtaking a parked car with an oncoming vehicle than without. Turning right into and out of side road with an on-coming vehicle than without Personality data Trust scores valid and reliable (higher general trust = higher trust in the trial events) Driver age and experience not associated with trust ratings of events Venturer Simulator, trust higher: On empty link compared to overtaking a parked car with and without an on-coming vehicle Overtaking a parked car without an on-coming vehicle than with Turning right into side road with an on-coming vehicle than without. Between Platforms, trust higher in Venturer Simulator On an empty link and overtaking a parked car with and without an oncoming vehicle Turning left with and without an oncoming vehicle

4 Trial 3 preview

5 Regulatory and moral issues Private car is a deeply ingrained cultural icon (Thrift, 2004) Driving is not done in a social vacuum (Wilde, 1976) The car is all too capable of undermining its own utility (Shaw and Docherty, 2013, p12) There is a social layer of rules, customs, and bespoke modes of communication Issues: Road users may not behave in a sufficiently patterned way for machine intelligence prediction Communication subtle and culturally specific

Ethics Should driverless cars kill their own passengers to save a pedestrian? Goldhill (2015) Utilitarianism / moral obligation: maximises happiness, therefore minimise loss of life Incommensurability / participation in a moral wrong: AVs programmed to save those outside vehicle, and AV users should know the risks Bonnefon et al. (2015): 75% say do not kill pedestrians Effect dramatically weakened if they were in the car Adams (2015) Deferential programming = AVs going nowhere