Study of Alternating Transmission Performance of Shape Memory Alloy and Magneto-rheological Fluid

In response to the shortcomings such as the degradation of transmission performance of magneto-rheological fluid at high temperature, an alternating transmission method of shape memory alloy and magneto-rheological fluid is proposed. Based on the thermodynamic effect of the shape memory alloy, the r...

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Main Authors: Gong Hang, Hu Guanghui, Hu Rongli
Format: Article
Language:zho
Published: Editorial Office of Journal of Mechanical Transmission 2023-03-01
Series:Jixie chuandong
Subjects:
Online Access:http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2023.03.003
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author Gong Hang
Hu Guanghui
Hu Rongli
author_facet Gong Hang
Hu Guanghui
Hu Rongli
author_sort Gong Hang
collection DOAJ
description In response to the shortcomings such as the degradation of transmission performance of magneto-rheological fluid at high temperature, an alternating transmission method of shape memory alloy and magneto-rheological fluid is proposed. Based on the thermodynamic effect of the shape memory alloy, the relationship between the squeezing pressure of the spring and the temperature is derived, and the correctness of the equation is verified by experiment; the finite element analysis of the magnetic field of the transmission device is carried out, and the magnetic field distribution along the radial direction of the working gap is derived; based on the thermal driving characteristics of the shape memory alloy spring, the relationship between the friction torque and the squeezing pressure, the structure size and other parameters is established. The results show that the squeezing force generated by the shape memory alloy spring increases with the increase of temperature; when the temperature is lower than 40 ℃, the torque is mainly transferred by the magneto-rheological fluid, reaching 9.14 N·m; when the temperature is between 40 ℃ and 60 ℃, the torque is transferred by the magneto-rheological fluid and the shape memory alloy together, reaching 13.24 N·m; when the temperature is higher than 60 ℃, the torque is mainly transferred by the shape memory alloy, reaching 9.40 N·m. As the temperature rises, the shape memory alloy can transmit torque instead of the magneto-rheological fluid, and the device can sense the temperature change to realize the alternating transmission.
format Article
id doaj-art-606553adc58641b680a09b4681b43560
institution Kabale University
issn 1004-2539
language zho
publishDate 2023-03-01
publisher Editorial Office of Journal of Mechanical Transmission
record_format Article
series Jixie chuandong
spelling doaj-art-606553adc58641b680a09b4681b435602025-01-10T14:57:11ZzhoEditorial Office of Journal of Mechanical TransmissionJixie chuandong1004-25392023-03-0147152135810010Study of Alternating Transmission Performance of Shape Memory Alloy and Magneto-rheological FluidGong HangHu GuanghuiHu RongliIn response to the shortcomings such as the degradation of transmission performance of magneto-rheological fluid at high temperature, an alternating transmission method of shape memory alloy and magneto-rheological fluid is proposed. Based on the thermodynamic effect of the shape memory alloy, the relationship between the squeezing pressure of the spring and the temperature is derived, and the correctness of the equation is verified by experiment; the finite element analysis of the magnetic field of the transmission device is carried out, and the magnetic field distribution along the radial direction of the working gap is derived; based on the thermal driving characteristics of the shape memory alloy spring, the relationship between the friction torque and the squeezing pressure, the structure size and other parameters is established. The results show that the squeezing force generated by the shape memory alloy spring increases with the increase of temperature; when the temperature is lower than 40 ℃, the torque is mainly transferred by the magneto-rheological fluid, reaching 9.14 N·m; when the temperature is between 40 ℃ and 60 ℃, the torque is transferred by the magneto-rheological fluid and the shape memory alloy together, reaching 13.24 N·m; when the temperature is higher than 60 ℃, the torque is mainly transferred by the shape memory alloy, reaching 9.40 N·m. As the temperature rises, the shape memory alloy can transmit torque instead of the magneto-rheological fluid, and the device can sense the temperature change to realize the alternating transmission.http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2023.03.003Shape memory alloyMagneto-rheological fluidTorqueAlternating transmission
spellingShingle Gong Hang
Hu Guanghui
Hu Rongli
Study of Alternating Transmission Performance of Shape Memory Alloy and Magneto-rheological Fluid
Jixie chuandong
Shape memory alloy
Magneto-rheological fluid
Torque
Alternating transmission
title Study of Alternating Transmission Performance of Shape Memory Alloy and Magneto-rheological Fluid
title_full Study of Alternating Transmission Performance of Shape Memory Alloy and Magneto-rheological Fluid
title_fullStr Study of Alternating Transmission Performance of Shape Memory Alloy and Magneto-rheological Fluid
title_full_unstemmed Study of Alternating Transmission Performance of Shape Memory Alloy and Magneto-rheological Fluid
title_short Study of Alternating Transmission Performance of Shape Memory Alloy and Magneto-rheological Fluid
title_sort study of alternating transmission performance of shape memory alloy and magneto rheological fluid
topic Shape memory alloy
Magneto-rheological fluid
Torque
Alternating transmission
url http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2023.03.003
work_keys_str_mv AT gonghang studyofalternatingtransmissionperformanceofshapememoryalloyandmagnetorheologicalfluid
AT huguanghui studyofalternatingtransmissionperformanceofshapememoryalloyandmagnetorheologicalfluid
AT hurongli studyofalternatingtransmissionperformanceofshapememoryalloyandmagnetorheologicalfluid