Human robot interaction (HRI): An artificial cognitive autonomy approach to enhance Decision-Making

Abstract

This study explores the critical role of artificial cognitive autonomy in Human-Robot Interaction (HRI), focusing on scenarios where quick and safe decisions are imperative. We investigate a progressive autonomy strategy supported by advanced artificial cognition techniques to improve decision-making in unforeseen situations and in the face of unknown conditions. We highlight the importance of these systems in performing essential safety functions through a three-dimensional approach: advanced perception for detailed environmental analysis; decision making based on robust algorithms for logical assessment of risk scenarios; and precise action and control to perform essential autonomous tasks. Additionally, we present a conceptual modeling that illustrates the progression of autonomy levels from total dependence to completely autonomous operation, highlighting the evolution of HRI systems through artificial cognitive autonomy. This article argues that decision-making optimization in HRI can be significantly improved through a detailed and incremental understanding of autonomy. By adopting enabling technologies, we enable autonomous agents to not only evolve within their environments, but also learn, understand and fulfill their responsibilities effectively. This theoretical approach promotes a systematic evolution of autonomy, as well as ensuring that robotic systems adapt and respond appropriately to the complex and dynamic demands of the environments in which they operate.