DocumentCode :
3514865
Title :
Prediction of human collision avoidance behavior by lifelong learning for socially compliant robot navigation
Author :
Weinrich, Ch ; Volkhardt, M. ; Einhorn, E. ; Gross, H.-M.
Author_Institution :
Neuroinf. & Cognitive Robot. Lab., Ilmenau Univ. of Technol., Ilmenau, Germany
fYear :
2013
fDate :
6-10 May 2013
Firstpage :
376
Lastpage :
381
Abstract :
In order to act socially compliant with humans, mobile robots need to show several behaviors that require the prediction of people´s motion. For example, when a robot avoids a person, it needs to respect the human´s personal space [1] and the avoidance behavior needs to be smooth, so that it is understandable to the interaction partner. To achieve this, the robot needs to reason about future paths a person is likely to follow. Because humans adapt their avoidance behavior to the robot´s motion, the proposed method performs lifelong learning of the people´s behavior while it adapts its own behavior to their motion. The human avoidance behavior is modeled by a discrete, multi-modal, spatio-temporal distribution over the people´s future occurrences. This prediction is based on the people´s positions and their velocities relatively to the robot and the obstacle situation of the robot´s environment. The proposed prediction method is significantly better than a simple linear prediction. Particularly, for tactical decisions, like whether to avoid a moving person on the left or on the right side, this approach is well suited. Furthermore, when the humans get used to a robot, also a long-term change of the human behavior towards the robot can be learned by our approach.
Keywords :
collision avoidance; continuing professional development; human-robot interaction; mobile robots; navigation; discrete multimodal spatiotemporal distribution; human collision avoidance behavior prediction; human personal space; lifelong learning; mobile robots; obstacle situation; people position; people velocities; robot environment; robot motion; socially compliant robot navigation; Collision avoidance; Correlation; Cost function; Navigation; Robots; Tracking; Trajectory;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Robotics and Automation (ICRA), 2013 IEEE International Conference on
Conference_Location :
Karlsruhe
ISSN :
1050-4729
Print_ISBN :
978-1-4673-5641-1
Type :
conf
DOI :
10.1109/ICRA.2013.6630603
Filename :
6630603
Link To Document :
بازگشت