SAfety VEhicles using adaptive Interface Technology (SAVE-IT): A Program Overview

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SAfety VEhicles using adaptive Interface Technology (SAVE-IT): A Program Overview SAVE-IT David W. Eby,, PhD University of Michigan Transportation Research Institute International Distracted Driving Conference October 4, 2005 eby@umich umich.edu

Background

Goal Prevent fatalities and injuries by reducing distraction-related motor vehicle crashes.

Objectives Advance the deployment of adaptive interface technology as a potential countermeasure for distraction-related crashes Enhance collision warning system effectiveness by tailoring system to the driver s level of workload and distraction. Conduct research to help derive distraction and workload measures for use in algorithms for adaptative interface. Develop and apply evaluation procedures for assessment of SAVE-IT safety benefits. Develop performance requirements for system operation and standards/guidelines for adaptive interface conventions. Disseminate research results.

Background Sponsors: John A. Volpe National Transportation Systems Center and the National Highway Traffic Safety Administration Partners: Delphi Delco Electronics (Prime) UMTRI University of Iowa General Motors Ford Seeing Machines, Inc. $3 million plus cost sharing 3 year program, about ½ completed.

Background Problem Space: AM Normal Driving State Warning State Collision Avoidable State Collision Unavoidable State Post Collision State Avoidance Zone Mitigation Zone Safety Warning Systems Dynamic Vehicle Safety Management Systems Occupant Protection Systems Pedestrian Protection / Injury Reduction Systems SAVE -IT System

Background Relationship between attention variables and and safe driving is complex. Attentive driving Routine driving AM Attention allocated to driving tasks Distracted driving Impaired driving Attention allocated to non-driving tasks Low Demand Moderate Demand Driving Task Demand High Demand

Program: 15 Tasks Task 1: Scenario Identification Identify the driving scenarios in which the SAVE-IT systemcan provide most benefit in reducing distraction-related crashes; Literature review; CDS data analysis; and expert panel. Task 2: Driving Task Demand Develop algorithms that measure the level of attention that is required by the driving environment as a function of environmental parameters; Literature review; HSIS data analysis; Self-report from viewing of naturalistic driving video. Task 3: Performance Develop algorithms that reliably measure degraded driving performance; Literature review; Simulator studies.

Program: 15 Tasks Task 4: Distraction Mitigation Develop countermeasures that mitigate against inappropriate levels of distraction, while maintaining high levels of driver acceptance; Literature review; focus groups; Simulator studies. Task 5: Cognitive Distraction Develop algorithms that can reliably measure the level of cognitive distraction; Literature review; Simulator studies. Task 6: Telematics demand Identify the distraction potential of telematics functions; Literature review; Simulator studies.

Program: 15 Tasks Task 7: Visual Distraction Develop algorithms that can reliably measure the level of visual distraction; Literature review; simulator studies (eye glance) Task 8: Driver Intent Develop algorithms that can reliably measure the immediate intention of the driver; Literature review; Analysis of naturalistic driving data. Task 9: Safety warning countermeasures Improve existing safety warning countermeasures so they can adaptively warn the driver about immediate threats in the environment as a function of driver state information; Literature review; Simulator studies.

Program: 15 Tasks Task 10: Technology Development Develop a concept vehicle that can serve as a platform for the system algorithms; Haptic Seat (L/R/C cue) Respiration Monitor Heart rate Monitor (steering wheel) Driver Controls/Interface SWC (MMM, FCW) HUD control MMM, HVAC, Wipers, etc Stereo Vision Eye Tracking System HUD (3 x 6 Full color) Forward Radar Lane Tracking Vision Camera HMI fusion Processor 3-D Audio Cueing (F/R/L/R) MMM user Discriminator Side-Mirror Icons (L/R, amber, red) Mobile Multi-media with Voice Rec and T/S

Task 11: Data Fusion Program: 15 Tasks Develop algorithms that coherently fuse all data from the subsystems into information that can drive the countermeasure systems. Task 12: Establish Guidelines and Standards Task 13: System Integration Demonstration vehicle Task 14: Evaluation Simulator, on road, test track Task 15: Benefit evaluation

Program: Two Sub-Systems Systems Safety Warning Countermeasures Uses driver distraction, driver intent, and driving task demand information to adaptively adjust safety warning systems, such as forward collision warning (FCW); Safety warning systems will require the use of warnings about immediate traffic threats without an annoying rate of false alarms and nuisance alerts; The safety warning system will adapt to the needs of the driver

Program: Two Sub-Systems Systems Distraction Mitigation sub-system Adaptive interface technologies to minimize driver distraction to reduced risk resulting from inadequate attention allocated to the driving task; Will process driving task demand, the level of driver distraction, the intent of the driver, and the telematics distraction potential to determine which functions should be advised against under a particular circumstance; SAVE-IT program will compare various mitigation methods on effectiveness, driver understandability, and user acceptance.

Program Phase 1 (first year) is completed. Results can be found at the Volpe web page: http://www.volpe.dot.gov/opsad/saveit/docs.html SAVE-IT Thank You