An IPMC actuated robotic surgery end effector with force sensing

Growth in patient acceptance of robotic-assisted surgery has led to increased demand and has stimulated research in many new surgical robotic applications. In some cases, the performance of robotic surgery has proven to surpass that of human surgeons alone. A new research area which uses the inheren...

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Main Authors: Kean Aw, Lixue Fu, Andrew McDaid
Format: Article
Language:English
Published: Taylor & Francis Group 2013-12-01
Series:International Journal of Smart and Nano Materials
Subjects:
Online Access:http://dx.doi.org/10.1080/19475411.2013.862579
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spelling doaj-a338f849e70b45178b35bd51be34f8fb2020-11-24T22:20:59ZengTaylor & Francis GroupInternational Journal of Smart and Nano Materials1947-54111947-542X2013-12-014424625610.1080/19475411.2013.862579862579An IPMC actuated robotic surgery end effector with force sensingKean Aw0Lixue Fu1Andrew McDaid2The University of AucklandThe University of AucklandThe University of AucklandGrowth in patient acceptance of robotic-assisted surgery has led to increased demand and has stimulated research in many new surgical robotic applications. In some cases, the performance of robotic surgery has proven to surpass that of human surgeons alone. A new research area which uses the inherently force-compliant and back-drivable properties of polymers, ionic polymer–metal composite (IPMC) in this case, has shown potential to undertake precise surgical procedures in the delicate environments related to medical practice. This is because IPMCs have similar actuation characteristics to real biological systems, which can help ensure safety. Despite this, little has been done in developing IPMCs for a rotary joint actuator for functional surgical devices. This research proposes and demonstrates the design of a single degree of freedom (1-DOF) robotic surgical instrument with one skeleton-joint mechanism actuated by IPMC with an embedded strain gauge as a feedback unit. The system performance with a developed gain-schedule PI controller is demonstrated. Despite the simplicity of the system, it was proven to be able to cut to the desired depth using the implemented force control (up to 8 gf cutting force).http://dx.doi.org/10.1080/19475411.2013.862579IPMCintegrated sensingsurgical robotforce control
collection DOAJ
language English
format Article
sources DOAJ
author Kean Aw
Lixue Fu
Andrew McDaid
spellingShingle Kean Aw
Lixue Fu
Andrew McDaid
An IPMC actuated robotic surgery end effector with force sensing
International Journal of Smart and Nano Materials
IPMC
integrated sensing
surgical robot
force control
author_facet Kean Aw
Lixue Fu
Andrew McDaid
author_sort Kean Aw
title An IPMC actuated robotic surgery end effector with force sensing
title_short An IPMC actuated robotic surgery end effector with force sensing
title_full An IPMC actuated robotic surgery end effector with force sensing
title_fullStr An IPMC actuated robotic surgery end effector with force sensing
title_full_unstemmed An IPMC actuated robotic surgery end effector with force sensing
title_sort ipmc actuated robotic surgery end effector with force sensing
publisher Taylor & Francis Group
series International Journal of Smart and Nano Materials
issn 1947-5411
1947-542X
publishDate 2013-12-01
description Growth in patient acceptance of robotic-assisted surgery has led to increased demand and has stimulated research in many new surgical robotic applications. In some cases, the performance of robotic surgery has proven to surpass that of human surgeons alone. A new research area which uses the inherently force-compliant and back-drivable properties of polymers, ionic polymer–metal composite (IPMC) in this case, has shown potential to undertake precise surgical procedures in the delicate environments related to medical practice. This is because IPMCs have similar actuation characteristics to real biological systems, which can help ensure safety. Despite this, little has been done in developing IPMCs for a rotary joint actuator for functional surgical devices. This research proposes and demonstrates the design of a single degree of freedom (1-DOF) robotic surgical instrument with one skeleton-joint mechanism actuated by IPMC with an embedded strain gauge as a feedback unit. The system performance with a developed gain-schedule PI controller is demonstrated. Despite the simplicity of the system, it was proven to be able to cut to the desired depth using the implemented force control (up to 8 gf cutting force).
topic IPMC
integrated sensing
surgical robot
force control
url http://dx.doi.org/10.1080/19475411.2013.862579
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