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111

Ergonomics

In addition, new concepts of dividing the driving task

between the machine and the human become the

center of attention for the ongoing research. Finally, the

human-centered approach of designing automated driving

functions raises issues of how to take into account every

driver’s individual preferences on the road.

@City – Automated Cars and Intelligent Traffic in the City

will be conceived to support the driver in complex urban

settings, which are characterized by a high information

density and short response time. The demonstration

of these automated driving functions will be realized in

exemplary pilot applications.

PAKoS – Personalized, Adaptive, Cooperative Systems

for Automated Vehicles

The project @City funded by the Federal Ministry for

Economic Affairs and Energy started in September 2017

and will run for four years.

Due to the complexity of urban traffic areas cities set

some special challenges for use cases in the automated

driving context. Various roundabouts and crossings

complicate the situation understanding compared with

a well-structured environment like motorways. Reliable

situation understanding of the setting lays the foun-

dation for every automated driving function. The goal

of the project @CITY is to enable automated driving in

urban areas. Automated vehicles and intelligent traffic

are the key elements for safe, efficient and stress-free

future traffic. They should not only provide the highest

possible assistance, but also enhance the interaction

between vehicle and driver or rather between vehicle

and vulnerable road users like pedestrians and cyclists.

The project aims at efficient and robust algorithms for

environment detection and the driver’s situation under-

standing. Moreover, its goals are the achievement of a

precise digital map, well-designed automation as well

as the ideal integration of the human driver. Based on

these goals automated driving functions for urban areas

(Reference: Consortium @City, 2017)

In three years’ time, the project PAKoS aims at introducing

an automation manager capable of displaying the full use

case of an automated vehicle.

This process starts with the possibility for the driver to

prepare the automated vehicle remotely via a smartphone

app in a way that it already suits the driver’s personal

preferences upon arrival. During the drive the aim is to

monitor and identify the user state and then to use this

information to adapt the automated driving functions

appropriately. The third big part of PAKoS focuses on a

new way of handling the take-over process during which

the driver has to regain full control of the vehicle. Unlike

the conventional binary switch from automation to driver, a

cooperative approach is investigated, in which automation

and driver simultaneously control the vehicle during the

take-over process.

To tackle these interdisciplinary challenges, a consortium

of nine German partners was formed: Karlsruher Institute

of Technology, Technical University of Munich, Fraunhofer

Institute of Optronics, System Technologies and Image

Exploitation, Robert Bosch GmbH, BMW AG, Spiegel

Institute Mannheim GmbH & Co. KG, Videmo Intelligent

Video Analysis GmbH & Co. KG, mVise AG, b.i.g. security.

(Reference: Consortium PAKoS, 2016)

3. Interaction & Cooperation

The research group investigates interaction processes

between a human agent and one or multiple cooperative

partners. These partners can represent other humans as

well as technological devices such as robots, vehicles

or aircraft. In the context of cooperation, it is important

to balance partially competing individual and shared

goals of the parties involved, which can be achieved

by diverse mechanisms of communication. Metrics are

to be developed to allow for the performance-oriented

assessment of cooperation across multiple domains. With

regard to robots, effective strategies are required for both

locomotive and evasive actions by designing legible and

predictable movements. A robot’s motion can implicitly

convey intentions to the human agent, who, visually per-

ceiving and interpreting the respective information, reacts

by performing certain movements themselves within