肱喙韧带的拉伸位置:使用新鲜/冷冻尸体肩部进行被动运动时的应变测量。

Tomoki Izumi, Mitsuhiro Aoki, Yoshitaka Tanaka, Eiichi Uchiyama, Daisuke Suzuki, Shigenori Miyamoto, Mineko Fujimiya
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引用次数: 21

摘要

背景:据报道,肱骨喙韧带挛缩会限制肩侧臂的外旋,并限制肱骨头的后下移位。挛缩被认为限制了盂肱关节的活动范围。方法:利用9具新鲜/冷冻尸体的肩部,测量喙肱韧带浅表纤维的应变,获得喙肱韧带的拉伸位置。通过应变计的顺序测量,从参考长度(L0)开始测量韧带应变。肩部位置由3空间跟踪系统确定。通过结合先前报道的肱喙部拉伸位置和初步测量中观察到的位置,通过被动外旋从10°内旋开始测量韧带应变,每增加10°外旋至最大外旋。结果:与L0值相比,应变显著较大的伸展体位为肩胛骨平面0°抬高40°、50°及最大外旋(5.68%、7.2%、7.87%),30°伸展50°及最大外旋(4.20%、4.79%),30°伸展+内收30°及最大外旋(4.09%、4.67%、4.78%、5.05%)(P < 0.05)。先前报道的拉伸体位未观察到喙肱韧带阳性应变;即外展90°外旋或屈曲外旋。结论:下肩抬高、伸展和内收时的被动外旋会造成喙肱韧带的明显劳损。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Stretching positions for the coracohumeral ligament: Strain measurement during passive motion using fresh/frozen cadaver shoulders.

Background: Contracture of the coracohumeral ligament is reported to restrict external rotation of the shoulder with arm at the side and restrict posterior-inferior shift of the humeral head. The contracture is supposed to restrict range of motion of the glenohumeral joint.

Methods: To obtain stretching position of the coracohumeral ligament, strain on the ligament was measured at the superficial fibers of the ligament using 9 fresh/frozen cadaver shoulders. By sequential measurement using a strain gauge, the ligament strain was measured from reference length (L0). Shoulder positions were determined using a 3 Space Tracker System. Through a combination of previously reported coracohumeral stretching positions and those observed in preliminary measurement, ligament strain were measured by passive external rotation from 10° internal rotation, by adding each 10° external rotation, to maximal external rotation.

Results: Stretching positions in which significantly larger strain were obtained compared to the L0 values were 0° elevation in scapula plane with 40°, 50° and maximum external rotation (5.68%, 7.2%, 7.87%), 30° extension with 50°, maximum external rotation (4.20%, 4.79%), and 30° extension + adduction with 30°, 40°, 50° and maximum external rotation (4.09%, 4.67%, 4.78%, 5.05%)(P < 0.05). No positive strain on the coracohumeral ligament was observed for the previously reported stretching positions; ie, 90° abduction with external rotation or flexion with external rotation.

Conclusions: Significant strain of the coracohumeral ligament will be achieved by passive external rotation at lower shoulder elevations, extension, and extension with adduction.

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