IJAST

Designing Human-Robot Interaction Interfaces For Safe And Efficient Medical Robotics

© 2024 by IJAST

Volume 2 Issue 3

Year of Publication : 2024

Author : Shashank Pasupuleti

: 10.56472/25839233/IJAST-V2I3P108

Citation :

Shashank Pasupuleti, 2024. "Designing Human-Robot Interaction Interfaces For Safe And Efficient Medical Robotics" ESP International Journal of Advancements in Science & Technology (ESP-IJAST) Volume 2, Issue 3: 74-81.

Abstract :

The integration of robotics into the medical field has resulted in significant advancements, especially in minimally invasive surgery, rehabilitation, and diagnostics. Human-Robot Interaction (HRI) interfaces play a critical role in the success of these robotic systems, serving as the bridge between medical professionals and robots. Effective interface design is essential for ensuring the safety, efficiency, and comfort of medical practitioners, which directly impacts patient outcomes. This paper explores the theoretical foundations of HRI interfaces, focusing on cognitive and psychological factors, usability principles, and human factors engineering within the medical robotics domain. The design considerations for user types, interface modalities, customization, error prevention, and autonomy levels are also discussed. Additionally, the paper outlines the methodologies involved in developing, testing, and refining HRI interfaces. Real-world data and performance metrics are provided to evaluate the impact of interface designs on user performance and safety.

References :

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Keywords :

Human-Robot Interaction, Medical Robotics, Interface Design, Usability, Cognitive Factors, Haptic Feedback, Real-Time Feedback, Autonomy Levels, Error Prevention, User-Centered Design, Robotic Surgery, Interaction Modalities, Customizable Interfaces, User Testing, Safety Metrics, Surgical Robotics, Interface Usability, Performance Metrics, Healthcare Robotics, Robotic-Assisted Surgery, Cognitive Load, Decision-Making, Multimodal Interfaces, System Integration, Human Factors Engineering, Ergonomic Interface Design, Interface Customization, Robotic Rehabilitation, Feedback Loops.