Improving Exoskeleton Brace Design: Alleviating Misalignment and Parasitic Forces

Abstract This article presents a design methodology for exoskeleton-user connection attachments, i.e., braces that aim to reduce parasitic forces and potentially improve user comfort. The proposed brace structure incorporates additional passive joints, identified through a hyperstaticity analysis to minimize undesired tangential forces, e.g., rubbing against the user’s skin. To assess the proposed structure, we primarily conducted simulation experiments using a human-exoskeleton coupled model in an MSC ADAMS environment. Subsequently, a series of real-life experiments was conducted using a self-balancing bipedal exoskeleton with two distinct dummy manikins. The results demonstrated the feasibility of the proposed brace structure in reducing the parasitic forces and slippage compared to the conventional fixation approach.

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Publication Details

Journal
Journal of Mechanisms and Robotics
Published
2025-04-04
DOI
https://doi.org/10.1115/1.4068379
Primary Topic
Orthopaedic implants and arthroplasty
Type
article
Field-Weighted Citation Impact
0.00

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article

Improving Exoskeleton Brace Design: Alleviating Misalignment and Parasitic Forces

Suleyman Can Cevik, Ramazan Ünal, Özkan Bebek, Sinan Coruk et al.
Journal of Mechanisms and Robotics
Orthopaedic implants and arthroplasty
article

Improving Exoskeleton Brace Design: Alleviating Misalignment and Parasitic Forces

Suleyman Can Cevik, Ramazan Ünal, Özkan Bebek, Sinan Coruk, Barkan Uğurlu, Mustafa Derman, Ahmed Fahmy Soliman
article en

Abstract

Abstract This article presents a design methodology for exoskeleton-user connection attachments, i.e., braces that aim to reduce parasitic forces and potentially improve user comfort. The proposed brace structure incorporates additional passive joints, identified through a hyperstaticity analysis to minimize undesired tangential forces, e.g., rubbing against the user’s skin. To assess the proposed structure, we primarily conducted simulation experiments using a human-exoskeleton coupled model in an MSC ADAMS environment. Subsequently, a series of real-life experiments was conducted using a self-balancing bipedal exoskeleton with two distinct dummy manikins. The results demonstrated the feasibility of the proposed brace structure in reducing the parasitic forces and slippage compared to the conventional fixation approach.

Journal of Mechanisms and RoboticsVol. 17(9)
Vrije Universiteit Brussel (BE), İstanbul Nişantaşı Üniversitesi (TR), University of Manchester (GB), Özyeğin University (TR)
Türkiye Bilimsel ve Teknolojik Araştırma Kurumu
Openalex Percentile: Top 88%
Orthopaedic implants and arthroplasty
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