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Devid Will, Adrian Zlocki - Connected Automated Driving · Devid Will, Adrian Zlocki ... Transport...

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Devid Will, Adrian Zlockifka – Forschungsgesellschaft Kraftfahrwesen mbH

TS91

Sensors for Automated Vehicles

State of the Art Analysis for Connected and Automated Driving within the SCOUT Project

Overview on European Research

INVENT

2006 - 2010 AKTIV 2012-2016 UR:BAN

interactIVe

eCoMove

eValueMOTIV

FP5

1992-1994

TAP (FP4)

1994 - 1998

1992 - 1994

1985 1990 1995 2000

PROMETHEUS (EUREKA)

IST (FP5)

1998 - 2002

FP6

DRIVE II

FP7

2007 - 2014

DRIVE I1989-1991

PROTECTOR

CHAMELEON

PROMOTE CHAUFFEUR II

2000-2003

2000-2003

PREVENT

PROMOTE CHAUFFEUR I

ADASE II2001-2004

RESPONSE 22001-2004

KONVOI

1996-2000

Europe

Germany

AIDER 2008-2011

euroFOT2008-2012

TeleFOT2008-2012

2015

Intersafe II2008-2011

SIM-TD2008 - 2012

2010-2013

2011-2016

Drive C2x2011-2013

Pre-Drive C2x2008-2010

SARTRE

ecoDriver

Assess2009-2012

HAVE-it

2004-2008Transport Telematics

(FP3)

2020

2014 - 2020

AdaptIVe

VRA-Net

AutoNet2030

iGame

Companion

2002 - 2006

2005

1987-1995 1996-1998

2000-2003

2005 - 20092010-2013

2009-2012

2008-2011

2014-2017

2013-2016

2013-2016

2013-2016

2013-2016

2010

© ika/fka

SCOUT2016-2018

CARTRE2016-2018

Pegasus

ART-042016-2019

2017-2020

ART-03

2018-2021

2015-2018 Ko-HAF

2016-2019

Enable-S32016-2019

Automated Driving

2002-2005

2001 - 2005

Coordination and Support Action

Safe and Connected Automation in Road Transport

Partner

BMW, Bosch, CLEPA, CRF, Fraunhofer LBF, NEC, NXP,

Renault, SERNAUTO, Telecom Italia, VDI / VDE-IT, ika

Duration

07/2016 – 07/2018

SCOUT - Structure and Responsibilities

WP 3

Analysis of the European

Ecosystem for Connected

and Automated Driving

(ika)

WP 4

Identification of

Sustainable Business

Models

(FHG)

WP 2

Capture of

Goals,

Expectations

and Use

Cases

of Safe and

Connected

Automation

(Renault)

Strategy Development

WP 8

Project Management (VDI/VDE-IT)

Society

e.g. Cities,

Interest Groups

Public

Authorities

Industry

WP 6

International Monitoring and Cooperation (BOSCH)

Service Functions

Industry Sectors

(Automotive,

Telecom, Digital)

WP 5

European

Roadmap

for Safe

and

Connected

Automation

(NXP)

WP 7

Networking and Dissemination (CLEPA)

EU Project

Coordinators

General

Public

State of the Art Analysis

Objectives

• Record the state of the art in technical and non-technical enablers

and anticipate future evolutions

• Identify current and future gaps and challenges from technical,

societal, economic, policy, legal and regulatory perspectives in

comparison to the vision created in SCOUT

• Enable the anticipation of future development paths of the

European ecosystem of connected and automated driving

5-layer model on Automated Driving

• Each factor of Automated Driving is addressed by using the 5-layer model

• Societal

• Legal

• Economics

• Human factors

• Technology

• Each layer is divided into

• Vehicle

• Driver

• Environment

• A holistic approach is necessary on the way towards Automated Driving

none of these factors can be removed

• Focus on technical and legal layer

D R I V E R

V E H I C L E E N V I R O N M E N T

T E C H N I C A L S T A N D A R D S

Structuring Automated Driving

5-level-model on Fields of Action

D R I V E R

V E H I C L E E N V I R O N M E N T

D R I V E R

V E H I C L E E N V I R O N M E N T

D R I V E R

V E H I C L E E N V I R O N M E N T

D R I V E R

V E H I C L E E N V I R O N M E N T

Technical Level

Interaction Level

Legal Level

Social Level

D R I V E R

V E H I C L E E N V I R O N M E N TEconomic Level

Standardization

Design of infrastructure, e.g.

Physically road markings etc.

Informational connectivity

HMI concept, e. g.

Information presentation

Logics & timing & escalation

Evaluation & Sign-off

Suitable Methodologies

Efficient Process?

Regulations of

Infrastructure, e. g.

Road building rules

Assessment of acceptance, e. g.

for different user groups

Cost/Benefit analysis

Efficiency, Safety

Business location Germany

Technical regulations, e. g.

Traffic regulations (e.g. StVZO)

ECE R79, …

Environment detection

Sensor range

Redundancy

Regulation / Laws for drivers

e. g. STVO

Vienna Convention on road traffic

Driver-Vehicle-Interaction, e. g.

after TOR

during automated drivingDriver-Environment-Interaction, e. g.

Detection of critical situations

Reaction of other traffic participants

New business models, e. g.

Car-haring

Ride-sharing

Driver monitoring

Actual use of system

TOR = f(driver state)

Technical Layer

• Sensor Overview

• In-Vehicle Sensors

• Sensor Fusion

• Sensor set-ups

• Navigation and Localization

• Maps

• Current Location

• Connectivity

• Overview of 5G

• 5G-PPP Automotive Vision

• Security

Sensor Setup

Radar - Short

Range

Radar - Long

Range

GPS Lidar / Laser

Camera - Mono Camera – Stereo V2X – Sensor

Ultrasonic Infrared Maps

Example: Tesla Model S

Example: Mercedes S-Class

Technical Layer

Technical LayerEnd-to-End Learning:

Component based driving function:

Deep Neural

Network

Longitudinal

and Lateral

Control

Sensor data

(e.g. Camera)

Sensor data

processing Longitudinal

and Lateral

Control

Sensor data

(e.g. Camera)

Deep

Neural

Network

Sensor

Fusion

Deep

Neural

Network

Deep

Neural

Network

Situation

Under-

standing

Tactical

Planning

Trajectory

Planning

Deep

Neural

Network

Deep

Neural

Network

Legal Layer

• Legal status of connected and automated driving in Europe

• Vienna Convention & United Nations Regulation UN-R 79

• National Regulation

• International Regulation in several European member states

• USA

• Japan

• South Korea

• China

• Other regulation areas to be observed

• Liability

• Insurance

• Personal Data Protection/Data Security

• Type Approval

• Other national regulations revolving around automated driving

Legal Layer

Example: Legal status in Europe/Germany

• Vienna Convention on Road Traffic (1968)

• Spring 2014: proposals for amendments changes integrated

• National vs. international law

Germany

• January 2017: German Federal Ministry of Transport Proposal presented a

legislative proposal to amend the “Straßenverkehrsgesetz” in order to

establish a first legal basis for automated driving in public space

• New laws on „highly and fully automated cars“ valid since June 21, 2017

• Ethics Committee on Automated Driving Final report from June 20

• Available legal boundary conditions for Level 3 vehicle automation

Legal Level - Current State of the Art

Level 3 Systems are already legal in Germany

• New law on Level 3 vehicle automation valid since June 21st 2017 in

Germany

• Driver is allowed to get out of the driving loop, but needs to take over if

required by the system or if he detects a danger

• Data needs to be recorded of take over requests and take over situations

(to be deleted after 6 month)

• This data is to be analysed in order to determine the cause of accidents

• In total the law is not clear in all points and will need to be analysed more

accurately in case of any legal problems after an accident

• Evaluation of the law in 2019

Certification of Level 3 Systems are possible

Social Level - Current State of the Art

German Ethics Commission on Automated Driving

• Ethics Committee on Automated and Connected Driving issued final

report on June 20, 2017

• 14 independent experts involved

• 20 ethical rules for Automated and Connected Driving established

• v

• Main conclusions:

– Protection of humans has highest priority

– No evaluation between human lives (one vs.

many, young vs. old etc.)

– No ethical decisions are to be programmed

into system (dilemma situation)

The Ethics need to be taken into account

Next Steps in SCOUT• SWOT analysis of the connected and automated driving ecosystem

in Europe

No

Automation

Driver

Assistance

Partial

Automation

Conditional

Automation

High

Automation

Full

Automation

“swarm-

driving”…

Robust & secure

connectivity …

perfect

Driver Assistance

by precise Information

cooperative

highly

automated

driving

Google

Car

without

controls

…“classic

car”No

connectivity…ACC

ACC

+

Lanekeeping

autonomous

highly

automated

driving

e.g.

traffic information,

eCall

e.g.

radio based

danger warning

comfortable

automated

driving using

eHorizon

…State-of-the-art

connectivity

Level 0 Level 1 Level 2 Level 3 Level 4 Level 5

System

L e

v e

l o

f C

o n

ne c

t i

v i t

y

L e v e l o f A u t o m a t i o nHuman

Level 5Level 0 Level 1 Level 2 Level 3 Level 4

Thank you!


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