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泰勒空间框架——用于畸形矫正的软件控制固定器——印度早期经验

Taylor spatial frame-software-controlled fixator for deformity correction-the early Indian experience.

作者信息

Chaudhary Milind

机构信息

Govt Medical College, Akola, CFIT India, Jaslok Hospital, Mumbai.

出版信息

Indian J Orthop. 2007 Apr;41(2):169-74. doi: 10.4103/0019-5413.32052.

Abstract

BACKGROUND

Complex deformity correction and fracture treatment with the Ilizarov method needs extensive preoperative analysis and laborious postoperative fixator alterations, which are error-prone. We report our initial experience in treating the first 22 patients having fractures and complex deformities and shortening with software-controlled Taylor spatial frame (TSF) external fixator, for its ease of use and accuracy in achieving fracture reduction and complex deformity correction.

SETTINGS AND DESIGN

The struts of the TSF fixator have multiplane hinges at both ends and the six struts allow correction in all six axes. Hence the same struts act to correct either angulation or translation or rotation. With a single construct assembled during surgery all the desired axis corrections can be performed without a change of the montage as is needed with the Ilizarov fixator.

MATERIALS AND METHODS

Twenty-seven limb segments were operated with the TSF fixator. There were 23 tibiae, two femora, one knee joint and one ankle joint. Seven patients had comminuted fractures. Ten patients who had 13 deformed segments achieved full correction. Eight patients had lengthening in 10 tibiae. (Five of these also had simultaneous correction of deformities). One patient each had correction of knee and ankle deformities. Accurate reduction of fractures and correction of deformities and length could be achieved in all of our patients with minimum postoperative fixator alterations as compared to the Ilizarov system. The X-ray visualization of the osteotomy or lengthening site due to the six crossing struts and added bulk of the fixator rings which made positioning in bed and walking slightly more difficult as compared to the Ilizarov fixator.

CONCLUSIONS

The TSF external fixator allows accurate fracture reduction and deformity correction without tedious analysis and postoperative frame alterations. The high cost of the fixator is a deterrent. The need for an internet connection and special X-rays to operate the fixator add to its complexity.

摘要

背景

采用伊里扎洛夫方法进行复杂畸形矫正和骨折治疗需要广泛的术前分析以及术后繁琐且易出错的固定器调整。我们报告了使用软件控制的泰勒空间框架(TSF)外固定器治疗首批22例骨折、复杂畸形和肢体短缩患者的初步经验,该外固定器使用方便,在实现骨折复位和复杂畸形矫正方面具有准确性。

设置与设计

TSF固定器的支杆两端均有多平面铰链,六个支杆可在所有六个轴向上进行矫正。因此,相同的支杆可用于矫正成角、平移或旋转。在手术过程中组装单个结构时,无需像伊里扎洛夫固定器那样改变组装方式,就可以进行所有所需的轴向矫正。

材料与方法

对27个肢体节段使用TSF固定器进行手术。其中有23例胫骨、2例股骨、1例膝关节和1例踝关节。7例患者为粉碎性骨折。10例患者的13个畸形节段实现了完全矫正。8例患者对10例胫骨进行了延长术(其中5例同时矫正了畸形)。各有1例患者矫正了膝关节和踝关节畸形。与伊里扎洛夫系统相比,我们所有患者均能以最少的术后固定器调整实现骨折的精确复位、畸形矫正和肢体长度恢复。由于六个交叉支杆以及固定器环体积增大,截骨或延长部位的X线显影效果受到影响,与伊里扎洛夫固定器相比,患者在床上的体位摆放和行走略显困难。

结论

TSF外固定器无需繁琐的分析和术后框架调整即可实现精确的骨折复位和畸形矫正。固定器成本高昂是一大阻碍。操作固定器需要互联网连接和特殊的X线检查,这增加了其复杂性。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/87d0/2989144/e47c2375ba97/IJOrtho-41-169-g001.jpg

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