Differences in myoelectric and body-powered upper-limb prostheses: Systematic literature review

被引:129
作者
Carey, Stephanie L. [1 ]
Lura, Derek J. [2 ]
Highsmith, M. Jason [3 ]
机构
[1] Univ S Florida, Dept Mech Engn, Tampa, FL 33612 USA
[2] Florida Gulf Coast Univ, Dept Bioengn & Software Engn, UA Whitaker Coll Engn, Ft Myers, FL USA
[3] Univ S Florida, Sch Phys Therapy & Rehabil Sci, Morsani Coll Med, Tampa, FL USA
关键词
amputation; artificial limb; control; cosmesis; external power; function; prosthesis; rehabilitation; transhumeral; transradial; UPPER EXTREMITY PROSTHETICS; TAPES QUESTIONNAIRE; CLINICAL-EVALUATION; FINAL REPORT; ABOVE-ELBOW; AMPUTEES; PAIN; SATISFACTION; DEVICE; SERVICEMEMBERS;
D O I
10.1682/JRRD.2014.08.0192
中图分类号
R49 [康复医学];
学科分类号
100215 ;
摘要
The choice of a myoelectrie or body-powered upper-limb prosthesis can be determined using factors including control, function, feedback, cosmesis, and rejection. Although body-powered and myoelectric control strategies offer unique functions, many prosthesis users must choose one. A systematic review was conducted to determine differences between myoelectric and body-powered prostheses to inform evidence-based clinical practice regarding prescription of these devices and training of users. A search of 9 databases identified 462 unique publications. Ultimately, 31 of them were included and 11 empirical evidence statements were developed. Conflicting evidence has been found in terms of the relative functional performance of body-powered and myoelectric prostheses. Body-powered prostheses have been shown to have advantages in durability, training time, frequency of adjustment, maintenance, and feedback; however, they could still benefit from improvements of control. Myoelectric prostheses have been shown to improve cosmesis and phantom-limb pain and are more accepted for light-intensity work. Currently, evidence is insufficient to conclude that either system provides a significant general advantage. Prosthetic selection should be based on a patient's individual needs and include personal preferences, prosthetic experience, and functional needs. This work demonstrates that there is a lack of empirical evidence regarding functional differences in upper-limb prostheses.
引用
收藏
页码:247 / 262
页数:16
相关论文
共 56 条
[11]  
Bouffard J., 2012, J Prosthet Orthot, V24, P25, DOI DOI 10.1097/JPO.0B013E318240D171
[12]   Determining skill level in myoelectric prosthesis use with multiple outcome measures [J].
Bouwsema, Hanneke ;
Kyberd, Peter J. ;
Hill, Wendy ;
van der Sluis, Corry K. ;
Bongers, Raoul M. .
JOURNAL OF REHABILITATION RESEARCH AND DEVELOPMENT, 2012, 49 (09) :1331-1347
[13]   Compensatory movements of transradial prosthesis users during common tasks [J].
Carey, Stephanie L. ;
Highsmith, M. Jason ;
Maitland, Murray E. ;
Dubey, Rajiv V. .
CLINICAL BIOMECHANICS, 2008, 23 (09) :1128-1135
[14]   Kinematic comparison of myoelectric and body powered prostheses while performing common activities [J].
Carey, Stephanie Lutton ;
Dubey, Rajiv V. ;
Bauer, Greg S. ;
Highsmith, M. Jason .
PROSTHETICS AND ORTHOTICS INTERNATIONAL, 2009, 33 (02) :179-186
[15]  
Cupo ME, 1998, J REHABIL RES DEV, V35, P431
[16]  
Cupo ME, 1996, J REHABIL RES DEV, V33, P56
[17]  
Davalli A., 2000, Technology and Disability, V13, P161
[18]   The development of a myoelectric training tool for above-elbow amputees [J].
Dawson, Michael R. ;
Fahimi, Farbod ;
Carey, Jason P. .
Open Biomedical Engineering Journal, 2012, 6 (01) :5-15
[19]   PERFORMANCE OF ABOVE ELBOW BODY-POWERED PROSTHESES IN VISUALLY GUIDED UNCONSTRAINED MOTION TASKS [J].
DOERINGER, JA ;
HOGAN, N .
IEEE TRANSACTIONS ON BIOMEDICAL ENGINEERING, 1995, 42 (06) :621-631
[20]   Research and future developments in upper and lower limb prostheses [J].
Dougherty, Paul J. .
CURRENT ORTHOPAEDIC PRACTICE, 2013, 24 (02) :149-152