Input and Editing of Force Profiles of In-Contact Robot Motions via a Touch Graphical User Interface

Various automation tasks require the precise specification of forces/torques over time and space to be applied to the environment. Traditionally, only experts can provide such specifications, contrasting the need for intuitive robot programming in small and medium-sized enterprises. This paper presents a concept for extending kinesthetic robot programming to allow users to intuitively program motions in contact with the environment. In this context, four novel input methods enable non-experts to input and edit force/torque profiles graphically via a touch device as a function graph. A user study compares the input methods regarding duration, accuracy and workload. In addition, the system’s intuitiveness and usability for programming in-contact motions are evaluated. For a small sample set ([Formula: see text] = 20), the evaluation of the System Usability Scale (SUS) showed a promising high median result (82.5). Thus, the promising results indicate that the presented programming system is usable and intuitive for non-experts.

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Publication Details

Journal
International Journal of Semantic Computing
Published
2025-03-01
DOI
https://doi.org/10.1142/s1793351x25410028
Primary Topic
Robot Manipulation and Learning
Type
article
Field-Weighted Citation Impact
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article

Input and Editing of Force Profiles of In-Contact Robot Motions via a Touch Graphical User Interface

Johannes Hartwig, Dominik Henrich, Pascal Ruppert
International Journal of Semantic Computing
Robot Manipulation and Learning
article

Input and Editing of Force Profiles of In-Contact Robot Motions via a Touch Graphical User Interface

Johannes Hartwig, Dominik Henrich, Pascal Ruppert
article en

Abstract

Various automation tasks require the precise specification of forces/torques over time and space to be applied to the environment. Traditionally, only experts can provide such specifications, contrasting the need for intuitive robot programming in small and medium-sized enterprises. This paper presents a concept for extending kinesthetic robot programming to allow users to intuitively program motions in contact with the environment. In this context, four novel input methods enable non-experts to input and edit force/torque profiles graphically via a touch device as a function graph. A user study compares the input methods regarding duration, accuracy and workload. In addition, the system’s intuitiveness and usability for programming in-contact motions are evaluated. For a small sample set ([Formula: see text] = 20), the evaluation of the System Usability Scale (SUS) showed a promising high median result (82.5). Thus, the promising results indicate that the presented programming system is usable and intuitive for non-experts.

International Journal of Semantic ComputingVol. 19(01)
University of Bayreuth (DE)
Openalex Percentile: Top 96%
Robot Manipulation and Learning
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