A critical challenge in robot learning from demonstration is the ability to map the behavior of the trainer onto a robot’s existing repertoire of basic/primitive capabilities. In part, this problem is due to the fact that the observed behavior of the teacher may consist of a combination (or superposition) of the robot’s individual primitives. The problem becomes more complex when the task involves temporal sequences of goals. We introduce an autonomous control architecture that allows for learning of hierarchical task representations, in which: (1) every goal is achieved through a linear superposition (or fusion) of robot primitives and (2) sequencing across goals is achieved through arbitration. We treat learning of the appropriate superposition as a state estimation problem over the space of possible linear fusion weights, inferred through a particle filter. We validate our approach in both simulated and real world environments with a Pioneer 3DX mobile robot.
2024. 2024 10th International Conference on Wireless and Telematics (ICWT), ► pp. 1 ff.
Li, Shijian, Minhao Shi, Runhe Huang, Xinwei Chen & Gang Pan
2020. Perception-enhancement based task learning and action scheduling for robotic limb in CPS environment. Future Generation Computer Systems 108 ► pp. 1069 ff.
Lin, Jin-Ling, Kao-Shing Hwang, Haobin Shi & Wei Pan
2020. An ensemble method for inverse reinforcement learning. Information Sciences 512 ► pp. 518 ff.
Fraser, Luke, Banafsheh Rekabdar, Monica Nicolescu, Mircea Nicolescu, David Feil-Seifer & George Bebis
2016. 2016 IEEE-RAS 16th International Conference on Humanoid Robots (Humanoids), ► pp. 697 ff.
Michaud, François & Monica Nicolescu
2016. Behavior-Based Systems. In Springer Handbook of Robotics [Springer Handbooks, ], ► pp. 307 ff.
Mitić, Marko & Zoran Miljković
2015. Bio-inspired approach to learning robot motion trajectories and visual control commands. Expert Systems with Applications 42:5 ► pp. 2624 ff.
Vuković, Najdan, Marko Mitić & Zoran Miljković
2015. Trajectory learning and reproduction for differential drive mobile robots based on GMM/HMM and dynamic time warping using learning from demonstration framework. Engineering Applications of Artificial Intelligence 45 ► pp. 388 ff.
2014. Programming by Demonstration: A Taxonomy of Current Relevant Methods to Teach and Describe New Skills to Robots. In ROBOT2013: First Iberian Robotics Conference [Advances in Intelligent Systems and Computing, 252], ► pp. 287 ff.
Parker, Lynne E.
2012. Motor Schemas in Robot Learning. In Encyclopedia of the Sciences of Learning, ► pp. 2352 ff.
Grollman, D H & O C Jenkins
2010. 2010 IEEE/RSJ International Conference on Intelligent Robots and Systems, ► pp. 261 ff.
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