A Framework for Casualty Manipulation with Biomechanical Joint-Level Reaction Analysis

Extensive research has been conducted on understanding and shaping the interaction mechanisms between human and robots. While previous studies predominantly concentrate on minimal physical Human-Robot Interaction and collaborative efforts, our research investigated into uncharted territory: robots proactively approaching humans and taking charge of physical interactions. We present an innovative interactive simulation framework designed to facilitate the planning and control of robot-dominated physical contacts with humans, specifically emphasizing the manipulation of casualties. Our proposed simulation framework combines the computation of interaction physics between the robot and human casualty model in Gazebo with the analysis of biomechanical human joint-level reactions in OpenSim. Through telemanipulation, a simulation case study was conducted within this framework, and we presented findings on biomechanical joint-level reaction analysis resulted from casualty manipulation.

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Publication Details

Published
2024-11-12
DOI
https://doi.org/10.1109/ssrr62954.2024.10770062
Citations
1
Primary Topic
Quality and Safety in Healthcare
Type
article
Field-Weighted Citation Impact
0.94

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article

A Framework for Casualty Manipulation with Biomechanical Joint-Level Reaction Analysis

Chad Spurlock, Rajarshi Roy, Long Wang, Kent D. Butz et al.
1 citations
Quality and Safety in Healthcare
0.94
article

A Framework for Casualty Manipulation with Biomechanical Joint-Level Reaction Analysis

Chad Spurlock, Rajarshi Roy, Long Wang, Kent D. Butz, Kevin Lister, Qianwen Zhao, Aldrin Padua
article en
1 citations

Abstract

Extensive research has been conducted on understanding and shaping the interaction mechanisms between human and robots. While previous studies predominantly concentrate on minimal physical Human-Robot Interaction and collaborative efforts, our research investigated into uncharted territory: robots proactively approaching humans and taking charge of physical interactions. We present an innovative interactive simulation framework designed to facilitate the planning and control of robot-dominated physical contacts with humans, specifically emphasizing the manipulation of casualties. Our proposed simulation framework combines the computation of interaction physics between the robot and human casualty model in Gazebo with the analysis of biomechanical human joint-level reactions in OpenSim. Through telemanipulation, a simulation case study was conducted within this framework, and we presented findings on biomechanical joint-level reaction analysis resulted from casualty manipulation.

Stevens Institute of Technology (US), Corvid Technologies (United States) (US)
Small Business Innovation Research, Telemedicine and Advanced Technology Research Center
Openalex Percentile: Top 14%
Quality and Safety in Healthcare
0.94
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