An innovative development in assistive technology specifically designed for airline environments is AvioLimb. This cutting-edge device, called “AvioLimb: Muscle-Controlled Cockpit Interface for Pilots,” combines machine learning algorithms with muscle control interfaces to provide a smooth interface that allows pilots to handle various panels within the cockpit. AvioLimb uses cutting-edge deep learning algorithms to harness Electromyography (EMG) [1]signals to provide pilots natural muscle motions that precisely and intuitively control a variety of cockpit instruments, switches, toggles, and displays. In addition to improving operational effectiveness and safety, this technology lessens cognitive burden, freeing up pilots to concentrate more on crucial decision-making duties while in flight. AvioLimb’s relevance stems from its ability to transform cockpit interactions and make flying safer, more effective, and more streamlined for pilots. The survey of this paper delves into the intricate integration of machine learning algorithms and muscle control interfaces, highlighting how AvioLimb leverages deep learning to interpret Electromyography (EMG) signals for intuitive cockpit control. It examines the efficacy of AvioLimb in enhancing operational effectiveness, safety, and cognitive load reduction for pilots. The findings underscore the potential of AvioLimb to revolutionize cockpit interactions, contributing significantly to aviation safety and pilot performance optimization.
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Shinde et al. (2025) studied this question.
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