1 Challenge the future The Dutch Automated Vehicle Initiative: Challenges for automated driving Dr. R.(Raymond) G. Hoogendoorn Assistant Professor Delft.

Slides:



Advertisements
Similar presentations
Proactive Traffic Merging Strategies for Sensor-Enabled Cars
Advertisements

Field Operational Tests in 7FP Fabrizio Minarini Head of Sector DG INFSO - ICT for transport.
Date: 1 October2013 Meeting: Concertation meeting VRA Speaker and organisation: Maarten Oonk, TNO [ Roadmap Automation in Road Transport.
Vehicle-infrastructure integration: creating co-operative mobility systems and services Hearing EU Parliament, 22 January 2009 Hermann Meyer, CEO.
Driver Behavior Models NSF DriveSense Workshop Norfolk, VA Oct Mario Gerla UCLA, Computer Science Dept.
© Ricardo plc 2012 Eric Chan, Ricardo UK Ltd 21 st October 2012 SARTRE Demonstration System The research leading to these results.
IHRA-ITS UN-ECE WP.29 ITS Informal Group Geneva, March, 2013 Overview of International Activities to Limit Distraction Document No. ITS (21st ITS,
Good Drivers Just Driving! Driving and Mobile Phone BUILDING EFFICIENCY MIDDLE EAST AUGUST 2010.
Insert the title of your presentation here Presented by Name Here Job Title - Date Monitoring national casualty trends in Great Britain Jeremy Broughton.
To delegate or not to delegate: A human factors perspective of autonomous driving Dale Richards, Coventry University Presentation to: European Conference.
International Journal of Industrial Ergonomics 35 (2005) 939–953 Situation awareness and workload in driving while using adaptive cruise control and a.
Institute for Transport Studies FACULTY OF ENVIRONMENT Human Factors and Vehicle Automation The good, the bad and the ugly Tyron Louw National Road Safety.
AUTOMOBILES Dimitris Milakis, Transport Institute, Delft University of Technology Envisioning Automated Vehicles within the Built Environment: 2020, 2035,
Traffic Incident Management – a Strategic Focus Inspector Peter Baird National Adviser: Policy and Legislation: Road Policing.
1 Development of California Regulations for the Testing and Operation of Automated Vehicles on Public Roads Steven E. Shladover, Sc.D.Ching-Yao Chan, Ph.D.
Legal issues addressed in the EU funded AdaptIVe project
Definition for Levels of Automation
Ian Fraser Highways Agency Co-operative Vehicle - Highway Systems Research.
Human Interaction with Intelligent Transportation Systems Committee Meeting 3 – August 24, 2011.
Maarten Oonk MSc.Joakim Svensson Sr. Market Manager TNO [ Automation in Road Transport Past, Present & Future Date: 7th of March 2013.
1 Development and Evaluation of Selected Mobility Applications for VII (a.k.a. IntelliDrive) Steven E. Shladover, Sc.D. California PATH Program Institute.
automated Vehicles and transportation system sustainability
Bringing intelligent systems to the market: the new European research challenge of Field Operational Tests Fabrizio Minarini Head of Sector ICT for Transport.
Smart cities Rasmus Lindholm, Director, ERTICO – ITS
Innovative ITS services thanks to Future Internet technologies ITS World Congress Orlando, SS42, 18 October 2011.
1 Challenge the future Meng Wang Department of Transport & Planning Department of BioMechanical Engineering Supervisor(s): Winnie Daamen, Serge Hoogendoorn,
Eric Eiswerth Safety Research Project Manager FORD AUTOMOTIVE SAFETY OFFICE 2011 AASHTO Annual Meeting The Vehicle of the Future: Greener, Safer, Smarter.
Institute for Transport Studies FACULTY OF ENVIRONMENT Human Factors Natasha Merat Associate Professor Institute for Transport Studies University of Leeds.
1 TRB Workshop on Road Vehicle Automation Steven E. Shladover, Sc.D. California PATH Program University of California, Berkeley Jane Lappin Volpe National.
International Telecommunication Union No 1 The Executive Round Tables High-level perspectives and strategies regarding the present and future use of ICT.
Presentation for Document ACSF-03-03_rev1 Oliver Kloeckner September rd meeting of the IG ASCF Munich, Airport Informal Document.
Cars - the better drivers ?
The Fully Networked Car Geneva, 4-5 March Ubiquitous connectivity to improve urban mobility Hermann Meyer ERTICO.
1 Challenge the future Longitudinal Driving Behavior in case of Emergency situations: An Empirically Underpinned Theoretical Framework Dr. R.(Raymond)
IntelliDriveSM Update
1 October 2013 VRA Meeting, Brussels 1 AdaptIVe Automated Driving Applications & Technologies for Intelligent Vehicles Aria Etemad Volkswagen Group Research.
A Stochastic Model of Platoon Formation in Traffic Flow USC/Information Sciences Institute K. Lerman and A. Galstyan USC M. Mataric and D. Goldberg TASK.
Status of ITS research May Peter Sweatman David Kapp.
IHRA-ITS UN-ECE WP.29 ITS Informal Group Geneva, March, 2011 Design Principles for Advanced Driver Assistance Systems: Keeping Drivers In-the-Loop Transmitted.
GRIDLOCK? – TRANSPORT IN 2030 THE FUTURE FOR PRIVATE TRANSPORT Professor Mike McDonald Director, Transportation Research Group Vice-Chair, European Road.
New Services in Mobility: C-ITS
© 2006 PSEN Unit - #4 Let’s Go Driving Identification Evaluation Control Monitor.
An Autonomous Self-Parking Vehicle William Whitney (Mentor: Dr. Jeff Gray) Background: NXT and Robot C The vehicle was constructed using the Lego Mindstorms.
Automated vehicles on public roads Alwin Bakker.
Verein Konstantin Melnik Svetlana
Engineering College, Tuwa. Design Engineering 1 - B  Guided by, SUBMITTED BY, PRAGNESH PATEL SHAH HETAXI ( ) RAJPUT VIVEK ( ) SOLANKI.
ADVANCED TRANSPORTATION AND CONGESTION MANAGEMENT TECHNOLOGIES DEPLOYMENT (ATCMTD) PROGRAM 1 Bob Arnold, Director Office of Transportation Management,
2040 LONG RANGE PLAN UPDATE Congestion Management Process Plan (CMPP) Major Update February 24, 2016.
1 6th ACSF meeting Tokyo, April 2016 Requirements for “Sensor view” & Environment monitoring version 1.0 Transmitted by the Experts of OICA and CLEPA.
European Truck Platooning Conference Amsterdam, 07 April 2016 Liam Breslin Sustainable Surface Transport DG Research & Innovation European Commission Research.
© 2014, 2015 Noblis, Inc.. The Interrelationships between Connected and Automated Vehicle Technologies Mike McGurrin Sampson Asare, Ph.D 14 January 2015.
OICA „Certification of automated Vehicles“
VEMANA INSTITUTE OF TECHNOLOGY,BANGALORE
Crash-imminent safety (CrIS) UTC
Vehicle to Vehicle Communication
Common Understanding on Major Horizontal Issues and Legal Obstacles
Communication technologies for autonomous vehicles
TOWARDS A DESIRED TRANSPORT FUTURE: SAFE, SUFFICIENT AND AFFORDABLE
Accelerating the Introduction of
Road Infrastructure for Road Vehicles Automation
Safety Assessment of Automated Vehicles
How technology and data can bring needed improvements to air quality and the environment Dr Dave Williams 8th November 2018.
Safety concept for automated driving systems
Communication technologies for autonomous vehicles
Safety considerations on Emergency Manoeuver
Tomorrow’s Mobility…Is Here Today!
ENabling SafE Multi-Brand Platooning for Europe
AUTOMATED VALET PARKING
Norwegian regulation on testing of self-driving vehicles on roads
Graduate Research Assistant
Presentation transcript:

1 Challenge the future The Dutch Automated Vehicle Initiative: Challenges for automated driving Dr. R.(Raymond) G. Hoogendoorn Assistant Professor Delft University of Technology

2 The Dutch Automated Vehicle Initiative 2 1. Automated driving: definitions and impacts

3 Challenge the future The Dutch Automated Vehicle Initiative What is the objective? To investigate, improve and demonstrate automated driving on public roads The Dutch Automated Vehicle Initiative (DAVI)

4 Challenge the future The Dutch Automated Vehicle Initiative What is automated driving? Driver assistance: The driver permanently maintains either longitudinal or lateral control. The other task can be automated or advisory. Partial automation: The system takes over longitudinal and lateral control. The driver must still permanently monitor the system and be prepared to take over control. High automation: The system takes over longitudinal and lateral control. The driver is not required to permanently monitor the system, but must be prepared to resume manual control. Full automation: The system takes over longitudinal and lateral control. In case a take-over request is not carried out, the system will return to a minimal risk condition by itself.

5 Challenge the future The Dutch Automated Vehicle Initiative What are the possible benefits of automated driving? Solve traffic jams by increased outflow Increase traffic stability Towards an optimal distribution over the network Increase in traffic safety (also VRU’s) Reduction in congestion Improved energy efficiency Improved travel experience

6 The Dutch Automated Vehicle Initiative 6 2. The Challenges

7 Challenge the future The Dutch Automated Vehicle Initiative Four main challenges: Technology; Human Factors; Traffic management applications; Traffic safety and legal; Challenges of automated driving

8 The Dutch Automated Vehicle Initiative 8 2a. Technology

9 Challenge the future The Dutch Automated Vehicle Initiative Environmental perception & communication; Automated vehicles are required to be sufficiently aware of the driving environment as well as the interaction with other road users; Sensing technologies are already capable of identifying other road users, obstacles, navigation paths, road signs and delineation (Broggi & Zani, 2011); However, the reliability of sensing has to be quantified; Furthermore the reliability has to be improved for real life conditions (e.g. adverse weather conditions and complex traffic scenarios); Technology challenges

10 Challenge the future The Dutch Automated Vehicle Initiative Automation control strategies; Current control strategies mainly focus on longitudinal control (e.g., ACC); Up to now, lateral control systems are predominantly advisory (Visvikis et al., 2008); Automated control strategies have to be developed for: Merging; Lane changing; Overtaking; Testing of these control strategies in real life conditions; Technology challenges 2

11 Challenge the future The Dutch Automated Vehicle Initiative Technology challenges 3

12 The Dutch Automated Vehicle Initiative 12 2b. Human factors

13 Challenge the future The Dutch Automated Vehicle Initiative In automated driving the human driver becomes a supervisor of a system instead of a manual controller of the vehicle; In partial and high automation, a capable driver is still required to resume manual control; Profound insight is needed into the quality of the determinants of the quality of the interaction of the driver with the automated vehicle; Examples of the determinants are vigilance, driver workload and situation awareness (Brookhuis et al., 1991; Endsley, 1995); Human factors challenges

14 Challenge the future The Dutch Automated Vehicle Initiative Currently little knowledge is available on these determinants in case of driving in an automated vehicle under real life traffic conditions; Most knowledge in relation to behavior is largely based on driving simulator studies; Furthermore, traffic safety may be affected by adaptation effects in behavior of the surrounding manually driven vehicles (mixed traffic); It is however not yet clear to what extent driving behavior of these vehicles is affected; Human factors challenges 2

15 The Dutch Automated Vehicle Initiative 15 2c. Traffic management

16 Challenge the future The Dutch Automated Vehicle Initiative The advent of V2I and V2V in combination with automated vehicles offers a vast range of possibilities to increase traffic flow efficiency; E.g., platooning and lane specific control; Rao and Varaiya (1994): framework for controlling the movement of platoons; Steady state flow of over 6000 veh/hr; Knoop et al. (2012): lanes are generally underutilized; Furthermore, currently traffic management measures often result in suboptimal performance since drivers disregard advice or comply imprecisely (Risto & Martens, 2011); Traffic management challenges

17 Challenge the future The Dutch Automated Vehicle Initiative A complication is however that until now studies on automated traffic management have predominantly been investigated using microscopic simulation studies; E.g., Wang et al., 2012; Schakel et al., 2010; Park et al., 2011; Empirical verification of the assumptions underlying these theories and models on the behavior of automated vehicles and drivers in dynamic manoeuvers is urgently needed; Traffic management challenges 2

18 The Dutch Automated Vehicle Initiative 18 2d. Traffic safety and legal challenges

19 Challenge the future The Dutch Automated Vehicle Initiative The reliability of the sensors and human aspects can be used to quantify benefits in terms of traffic safety; However, an adequate quantification of traffic safety does not yet exist; Benefits in terms of traffic safety is envisaged to be explored using microscopic simulation studies; However, currently models are predominantly accident free. New models are needed! Traffic safety and legal challenges

20 Challenge the future The Dutch Automated Vehicle Initiative But also many legal challenges are ahead; The vehicle should be offered to the Dutch vehicle approval authority for admittance on public roads; Finally substantial challenges exist in terms of liability… Who is legally responsible when a crash involving an automated vehicle occurs? Traffic safety and legal challenges 2

21 The Dutch Automated Vehicle Initiative A closer look at DAVI

22 Challenge the future The Dutch Automated Vehicle Initiative Delft University of Technology; Transport Institute; Robotics Institute; Connekt: Dutch Transport and Automotive sector; RDW: Legalization of automated driving; TNO and Toyota Motor Europe; Many Dutch and selected international partners; But we are always looking for new partners!!! The Dutch Automated Vehicle Initiative

23 Challenge the future The Dutch Automated Vehicle Initiative Partners investigating automationSince 1990ties Inception DAVIMarch 2013 DAVI grant proposals June 2013 First full time DAVI researcherAugust 2013 Official Launch Innovatie-estafette November 2013 The Dutch Automated Vehicle Initiative 2

24 Challenge the future The Dutch Automated Vehicle Initiative Partners investigating automationSince 1990ties Inception DAVIMarch 2013 DAVI grant proposals June 2013 First full time DAVI researcherAugust 2013 Official Launch Innovatie-estafette November 2013 The Dutch Automated Vehicle Initiative 2

25 The Dutch Automated Vehicle Initiative Thank you for your attention!