The active and passive kinematic difference between primary reverse and total shoulder prostheses

被引:14
作者
Alta, Tjarco D. W. [1 ,2 ]
de Toledo, Joelly M. [3 ]
Veeger, H. E. [4 ,5 ]
Janssen, Thomas W. J. [2 ,4 ]
Willems, W. Jaap [1 ,6 ]
机构
[1] Onze Lieve Vrouw Hosp, Dept Orthopaed Surg & Traumatol, Amsterdam, Netherlands
[2] Amsterdam Rehabil Res Ctr Reade, NL-1040 HG Amsterdam, Netherlands
[3] Univ Fed Rio Grande do Sul, Exercise Res Lab, Phys Educ Sch, Porto Alegre, RS, Brazil
[4] Vrije Univ Amsterdam, Fac Human Movement Sci, MOVE Res Inst Amsterdam, Amsterdam, Netherlands
[5] Delft Univ Technol, Fac Mech Maritime & Mat Engn, Sect Biomechatron & Biorobot, Delft, Netherlands
[6] Clin de Lairesse, Amsterdam, Netherlands
关键词
Kinematic analysis; reverse shoulder arthroplasty; total shoulder arthroplasty; glenohumeral motion; thoracohumeral motion; active and passive range of motion; ARTHROPLASTY; MOTION; OSTEOARTHRITIS; PREVALENCE; STRENGTH; RANGE; JOINT;
D O I
10.1016/j.jse.2014.01.040
中图分类号
R826.8 [整形外科学]; R782.2 [口腔颌面部整形外科学]; R726.2 [小儿整形外科学]; R62 [整形外科学(修复外科学)];
学科分类号
摘要
Background: Reverse shoulder arthroplasty (RSA) and total shoulder arthroplasty (TSA) effectively decrease pain and improve clinical outcome. However, indications and biomechanical properties vary greatly. Our aim was to analyze both active and passive shoulder motion (thoracohumeral [TH], glenohumeral [GH], and scapulothoracic [ST]) and determine the kinematic differences between RSAs and TSAs. Methods: During 3 range-of-motion (ROM) tasks (forward flexion, abduction, and axial rotation), the motion patterns of 16 RSA patients (19 shoulders), with a mean age of 69 +/- 8 years (range, 58-84 years), and 17 TSA patients (20 shoulders), with a mean age of 72 +/- 10 years (range, 53-87 years), were measured. The mean length of follow-up was 22 +/- 10 months (range, 6-41 months) for RSA patients and 33 +/- 18 months (range, 12-87 months) for TSA patients. Kinematic measurements were performed with a 3-dimensional electromagnetic tracking device. Results: All patients showed better passive than active ROM. This difference was significantly larger for RSA patients than for TSA patients (TH in sagittal plane, 20 degrees vs 8 degrees [P = .001]; GH in sagittal plane, 16 degrees vs 7 degrees [P = .003]; TH in scapular plane, 15 degrees vs 2 degrees [P < .001]; GH in scapular plane, 12 degrees vs 0 degrees [P < .001]; and ST in scapular plane, 3 degrees vs -2 degrees [P = .032]). This finding also showed that in the scapular plane, TSA patients showed hardly any difference between active and passive ROM. Furthermore, TSA patients had 16 degrees to 17 degrees larger active TH motion, 15 degrees larger active GH motion, and 8 degrees larger active ST motion compared with RSA patients. The GH-ST ratios showed similar figures for both types of prostheses. Conclusion: TSA patients have larger active TH motion because in the scapular plane, they completely use the possible GH motion provided by the prosthetic design. This larger active ROM in TSA patients only applies for elevation and abduction, not for axial rotation or passive ROMs. Level of evidence: Basic Science, Kinesiology. (C) 2014 Journal of Shoulder and Elbow Surgery Board of Trustees.
引用
收藏
页码:1395 / 1402
页数:8
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