Artificial muscles for wearable assistance and rehabilitation

被引:0
作者
Tianyun DONG [1 ]
Xiangliang ZHANG [2 ]
Tao LIU [1 ]
机构
[1] State Key Laboratory of Fluid Power and Mechatronic Systems, School of Mechanical Engineering, Zhejiang University
[2] Yunnan Key Laboratory of Computer, Kunming University of Science and Technology
关键词
Artificial muscle; Smart material; Dielectric elastomers (DE); Polyvinyl chloride (PVC) gel; Actuator; Wearable assistance; Rehabilitation;
D O I
暂无
中图分类号
R318.1 [人工脏器与器官];
学科分类号
080502 ;
摘要
Traditional exoskeletons have made considerable contributions to people in terms of providing wearable assistance and rehabilitation. However, exoskeletons still have some disadvantages, such as being heavy, bulky, stiff, noisy, and having a fixed center of rotation that can be a burden on elders and patients with weakened muscles. Conversely, artificial muscles based on soft, smart materials possess the attributes of being lightweight, compact, highly flexible, and have mute actuation, for which they are considered to be the most similar to natural muscles. Among these materials, dielectric elastomer(DE) and polyvinyl chloride(PVC) gel exhibit considerable actuation strain, high actuation stress, high response speed, and long life span, which give them great potential for application in wearable assistance and rehabilitation. Unfortunately, there is very little research on the application of these two materials in these fields. In this review, we first introduce the working principles of the DE and PVC gel separately. Next, we summarize the DE materials and the preparation of PVC gel. Then, we review the electrodes and self-sensing systems of the two materials. Lastly, we present the initial applications of these two materials for wearable assistance and rehabilitation.
引用
收藏
页码:1303 / 1315
页数:13
相关论文
共 50 条
[31]   Wearable devices to support rehabilitation and social care [J].
Doughty, Kevin ;
Appleby, Alistair .
JOURNAL OF ASSISTIVE TECHNOLOGIES, 2016, 10 (01) :51-63
[32]   WEARABLE ROBOTIC SYSTEM FOR UPPER LIMB REHABILITATION [J].
Ver, Istvan ;
Ver, Alina-Elena ;
Mandru, Silviu Dan .
ACTA TECHNICA NAPOCENSIS SERIES-APPLIED MATHEMATICS MECHANICS AND ENGINEERING, 2024, 67 (03) :567-576
[33]   A Low-Cost Wearable Rehabilitation Device [J].
Anowar, Jahedul ;
Ali, Amin Ahsan ;
Amin, M. Ashraful .
PROCEEDINGS OF 2020 12TH INTERNATIONAL CONFERENCE ON COMPUTER AND AUTOMATION ENGINEERING (ICCAE 2020), 2020, :125-128
[34]   Wearable Soft Robots: Case Study of Using Shape Memory Alloys in Rehabilitation [J].
Shami, Zain ;
Arslan, Tughrul ;
Lomax, Peter .
BIOENGINEERING-BASEL, 2025, 12 (03)
[35]   Preliminary Evaluation of a Soft Wearable Robot for Shoulder Movement Assistance [J].
Campioni, Lorenzo ;
Dimonte, Gianluca ;
Sciarrone, Giorgia ;
Righi, Gabriele ;
Walsh, Conor ;
Gandolla, Marta ;
Del Popolo, Giulio ;
Micera, Silvestro ;
Proietti, Tommaso .
IEEE TRANSACTIONS ON MEDICAL ROBOTICS AND BIONICS, 2025, 7 (01) :315-324
[36]   Design of a Biochair to Facilitate Leg Muscles Rehabilitation [J].
Bellannagari, Pranav ;
Zaidi, Sohail ;
Viswanathan, Vimal .
2022 IEEE-EMBS CONFERENCE ON BIOMEDICAL ENGINEERING AND SCIENCES, IECBES, 2022, :246-251
[37]   Biologically inspired control for artificial muscles [J].
Richardson, RC ;
Watterson, K ;
Brown, MD ;
Levesley, MC ;
Hawkes, JA ;
Walker, PG .
SMART STRUCTURES AND MATERIALS 2002: ELECTROACTIVE POLYMER ACTUATORS AND DEVICES (EAPAD), 2002, 4695 :315-322
[38]   Constitutive models of artificial muscles: a review [J].
Wang, Hui-ming ;
Qu, Shao-xing .
JOURNAL OF ZHEJIANG UNIVERSITY-SCIENCE A, 2016, 17 (01) :22-36
[39]   Tough hydrogels for soft artificial muscles [J].
Oveissi, Farshad ;
Fletcher, David F. ;
Dehghani, Fariba ;
Naficy, Sina .
MATERIALS & DESIGN, 2021, 203
[40]   Bilayer dimensions and movement in artificial muscles [J].
Otero, TF ;
Sansinena, JM .
BIOELECTROCHEMISTRY AND BIOENERGETICS, 1997, 42 (02) :117-122