Skin Deformation Display for Enhanced Driver Situational Awareness Chris Ploch.

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Presentation transcript:

Skin Deformation Display for Enhanced Driver Situational Awareness Chris Ploch

Haptic Feedback Driver should have situational awareness if car is not fully autonomous. Visual and Auditory channels are possible means of conveying information, but are already used heavily in driving. Haptics is another possibility. What kinds of information are haptics especially suited for?

As an information channel, what is haptics good for? – Not object geometry – Object properties (fuzzy, smooth, soft, slippery – related to road conditions) – Also informational cues (navigation, lane-keeping, collision avoidance) – Can be especially effective if it taps into a reflex. Provancher 2010

Johansson and Flanagan 2009 Meissner Merkel Pacini Ruffini Lateral skin deformation uses 3 out of 4, meaning a variety of cues are possible Provides direction + magnitude

Vehicle-specific Motivation Under less than ideal road conditions, want driver to know if tires are losing grip. Modern cars have reduced road feel. How should the car inform you? Haptics could provide continuous sense of road friction. Also suitable for informational cues (lane-keeping, collision avoidance): event & location

Skin Stretch Feedback Skin stretch is a promising means of conveying information, and its use in cars is relatively unexplored. Richer than an event cue. Can give information on hardness, stiffness, apparent friction (Okamura, Provancher) Can give direction & magnitude 6 Okamura 2013

Skin Stretch Navigational Cues Communication of direction through skin stretch has been examined by Provancher and others mm is enough to distinguish direction. Skin stretch on a steering wheel was an effective replacement for an audio GPS navigation system, especially when the driver was distracted or on the phone.

Proposed Solution: wheel version Low power, high frequency perceptual overlay – Does not interfere with driver/steering dynamics Provide direction, magnitude cues for navigation, road conditions, etc. At specific locations or as thin ring in wheel

Proposed Solution: console version Provide direction, magnitude cues for navigation, road conditions, etc. Skin stretch tactors

Haptic actuators are compact, low-power, don’t interfere with steering system dynamics. Can supplement torque feedback at high frequencies. – Humans use information up to 60 Hz when perceiving road surfaces, conditions. Can render event cues with added analog magnitude and direction. Advantages of Proposed Solution

First Prototype Design Rough prototype to test if skin stretch feedback makes sense on a steering wheel. Rotating ring attached to rim. Actuated by DC motor, cable, and pulley. Large display surface. 11 Stationary side Rotating side

First Prototype Actuation Drum Capstan Cable

First Prototype Design Schematic 13 Encoder Counter IC Microcontroller Motor Driver DC Motor Spring Cable Pulley Bearing To 12 V AC Adapter To USB Steering Wheel

Skin Deformation Mapping Experiment Can users perceive magnitude and direction when turning wheel? Mapping made by users was found to be repeatable, monotonic, bipolar, and centered around zero (analog). Wheel was simple to use, but form factor not ideal.

Positioning Task Result Conclusion: people can map steering wheel-induced skin stretch to a linearly varying quantity (analog)

Second Prototype 4 skin deformation displays (one under the palm and fingers of each hand) For console or wheel display Force: 1.5 kg-cm -> 10.4 N Bandwidth tests: – ~5 Hz at 2 mm – ~2 Hz at 10 mm

Collision Avoidance Experiment Have access to autonomous test vehicle through Dynamic Design Lab (DDL). Current DDL experiment: – An obstacle appears in front of driver. – Controller optimizes steering angle to avoid collision. – Wheel torque feedback proportional to steering wheel error given to driver before they see obstacle. – Feedback was found useful. This experiment models how a car with V2V communication could convey information to the driver of an impending collision.

Collision Avoidance Experiment Plan We plan to run a modified version of the DDL experiment to test skin stretch collision avoidance cues. Does directional information help? Buzz (event) vs. directional feedback Two loops vs. one loop: wheel torque vs. skin deformation 3 cases: – Wheel torque – Skin deformation – Buzz

Road Conditions Display: motivation Under less than ideal road conditions, want to know if tires are losing grip. Modern cars have reduced road feel. How should car inform you? Also suitable for informational cues (lane-keeping, collision avoidance) To be explored in future tests…

Next Steps Return to question of road condition display (higher bandwidth prototype) Evaluate other information particularly suited for proportional cutaneous display (navigation with anticipation, lane-keeping, collision avoidance)

In Summary Skin stretch feedback provides direction and magnitude information in addition to the “event cue” one gets from a vibrator or buzzer. It has potential for: – Navigational cues – Collision Avoidance cues – Lane-keeping cues – Conveying road surface/friction properties