Toward a High Performance IPMC Soft Actuator using A disturbance-aided method

Besides the advantages of Ionic polymer-metal composites (IPMCs) for biomedical applications, there are some drawbacks in their performance, which can be enhanced. One of those critical drawbacks is "back relaxation" (BR). If we apply a step voltage to IPMC, it will bend in the anode direc...

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Veröffentlicht in:arXiv.org 2021-06
Hauptverfasser: Annabestani, Mohsen, Mohammad Hossein Sayad, Esmaeili-Dokht, Pouria, Fardmanesh, Mehdi
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description Besides the advantages of Ionic polymer-metal composites (IPMCs) for biomedical applications, there are some drawbacks in their performance, which can be enhanced. One of those critical drawbacks is "back relaxation" (BR). If we apply a step voltage to IPMC, it will bend in the anode direction. Afterward, there is an unwanted and relatively slow counter-bending toward the cathode side. There are some disadvantages in the current BR control methods of IPMC actuators that prevent them from being used in real applications. This paper presents a new non-feedback method for eliminating the BR effect of non-patterned IPMCs by using a relatively high-frequency disturbance and proving it by theoretical and experimental explanations. The results show that the proposed method, needless to have any pattern on the electrodes of the IPMCs, can significantly eliminate the BR effect. Unlike the patterned IPMCs, no reduction will occur in the bending amplitude of IPMC, and even we can see the increased bending amplitude.
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subjects Actuators
Amplitudes
Bending
Biomedical materials
Control methods
Polymer matrix composites
Step voltage
title Toward a High Performance IPMC Soft Actuator using A disturbance-aided method
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