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Effects of Motion Cues on the Training of Multi-Axis Manual Control Skills
Author(s) -
Peter Zaal,
Xander Mobertz
Publication year - 2017
Publication title -
aiaa modeling and simulation technologies conference
Language(s) - English
Resource type - Conference proceedings
DOI - 10.2514/6.2017-3473
Subject(s) - training (meteorology) , computer science , motion control , control (management) , motion (physics) , human–computer interaction , artificial intelligence , computer vision , physical medicine and rehabilitation , robot , physics , medicine , meteorology
The study described in this paper investigated the effects of two different hexapod motion configurations on the training and transfer of training of a simultaneous roll and pitch control task. Pilots were divided between two groups which trained either under a baseline hexapod motion condition, with motion typically provided by current training simulators, or an optimized hexapod motion condition, with increased fidelity of the motion cues most relevant for the task. All pilots transferred to the same full-motion condition, representing motion experienced in flight. A cybernetic approach was used that gave insights into the development of pilots’ use of visual and motion cues over the course of training and after transfer. Based on the current results, neither of the hexapod motion conditions can unambiguously be chosen as providing the best motion for training and transfer of training of the used multi-axis control task. However, the optimized hexapod motion condition did allow pilots to generate less visual lead, control with higher gains, and have better disturbance-rejection performance at the end of the training session compared to the baseline hexapod motion condition. Significant adaptations in control behavior still occurred in the transfer phase under the full-motion condition for both groups. Pilots behaved less linearly compared to previous single-axis control-task experiments; however, this did not result in smaller motion or learning effects. Motion and learning effects were more pronounced in pitch compared to roll. Finally, valuable lessons were learned that allow us to improve the adopted approach for future transfer-of-training studies.

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