Human-Robot Interface Usability Perception Analysis for A Virtual Assistant
Abstract
The increasing human-robot development in both domestic and industrial environments makes it necessary to include user perception in aspects such as human-robot behavior conditioning in the design phase and evaluate the interaction model that guides user-centered development. This paper presents a statistical analysis developed to evaluate the perceived usability of a human-robot interface using factor analysis. This analysis was performed based on the interaction of a virtual assistant robot for the supervision of physical training exercises with a human user in a closed environment. Developing a theoretical model with three factors that initially group 11 variables to obtain an evaluation metric in the human-robot interaction. To collect this information, a video of the interaction between the user and the virtual bot in the supervision interface was recorded and presented to a group of participants. They then completed a survey using a Likert scale to rate each variable, which also included two open-ended questions aimed at identifying ideas for improvement to propose future research. The application of confirmatory factor analysis allows us to conclude that the model for measuring interface usability consists of a factor that groups 10 variables. In addition, future research should focus on making human-robot interactions more natural.
Keywords: Factor Analysis; Human-Robot Interface; Usability; Virtual Robot; Deep Learning.
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