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计算机导航技术在伴有严重胫骨内翻畸形患者同期全膝关节置换与开放楔形高位胫骨截骨术中的应用

Computer Navigation Technique for Simultaneous Total Knee Arthroplasty and Opening Wedge High Tibial Osteotomy in Patients with Large Tibial Varus Deformity.

作者信息

Hernigou Jacques, Morel Xavier, Hernigou Philippe

机构信息

1Department of Orthopaedic and Traumatology Surgery, EpiCURA hospital, Baudour/Hornu, Belgium.

Department of Orthopaedic and Traumatology Surgery, EpiCURA hospital, Baudour/Hornu, Belgium.

出版信息

Surg Technol Int. 2020 Nov 28;37:265-274.

PMID:33238026
Abstract

INTRODUCTION

Total knee arthroplasty (TKA) in patients with established knee osteoarthritis and major varus, mostly due to constitutional proximal deformity, remains a challenging procedure. Orthogonal cuts result in asymmetric bone resection and subsequent bone-related laxity or difficult release. A procedure that combines opening high tibial osteotomy (HTO) and TKA in the same sitting to address such major deformities is possible. But for this combined operation, precise planning and an exact intraoperative transformation of the planning is required. The assumption that the results could be predicted better by means of a navigation system was analyzed.

MATERIALS AND METHODS

The precision of surgery with computer-based navigation was compared to conventional surgery. A comparative prospective study was conducted using an expert surgeon. Between 2005 and 2015, we performed 20 procedures on knees with average preoperative 18° (range, 15-25°) varus. Tibial valgus osteotomy plus TKA was performed in one sitting. It allows the surgeon to do a more sparing medial release and to achieve proper realignment with a concomitant well-balanced prothesis. A group of 10 patients had conventional surgery and the other 10 had surgery performed with computer-based navigation for both osteotomy and TKA. By means of this system, the desired mechanical axis is obtained with real-time monitoring of the coronal and sagittal plane on the navigation without intraoperative x-ray control. The positioning of the saw-jigs for the femoral and tibial cuts of the arthroplasty was also performed with the help of the navigation system.

RESULTS

Postoperative mean femorotibial varus was 1.5° (range, 0-5°) with better alignment for the computer-based navigation. The mean correction following osteotomy was 16° (range, 12-24°). The intraarticular part of the deformity due to cartilage wear was addressed by the TKA. No release was done during surgery. The patients were mobilized early with limitation in range of motion up to 90° of flexion during the two weeks and were allowed full weight after. No instability and no complications were observed. On assessing radiological coronal alignment of the prostheses, there was better alignment of 0.5° varus (range, 0-3° of varus) in the computer navigation group compared to the traditional group (2.5° varus; range, 1-5° of varus). The navigation group showed better tibial slope maintenance (mean change, + 0.5°, p=0.732), whereas it was increased significantly in the conventional group (mean change, +4.2°, p<0.01). The average number of fluoroscopy shots for the computer navigation group was 2.8 (95% CI, 1.2-6.5) versus 9.4 in the control group (95% CI, 5.3-12.4). This represented a shorter (p<0.001) time of 11.4 seconds of irradiation for the computerized navigation technique compared to 36.2 seconds of irradiation for the traditional technique.

CONCLUSIONS

Computer navigation improved precision with less radiation. The findings of this study suggest that computer navigation may be safely used in a complex procedure when combined with total knee arthroplasty and opening wedge high tibial osteotomy in one sitting.

摘要

引言

对于已确诊的膝关节骨关节炎且存在严重内翻畸形(主要由于先天性近端畸形)的患者,全膝关节置换术(TKA)仍然是一项具有挑战性的手术。正交截骨会导致不对称的骨切除以及随后与骨相关的松弛或难以松解。在同一次手术中结合高位胫骨截骨术(HTO)和TKA来解决此类严重畸形是可行的。但对于这种联合手术,需要精确的规划以及术中对规划的精确转换。我们分析了借助导航系统能否更好地预测手术结果这一假设。

材料与方法

将基于计算机导航的手术精度与传统手术进行比较。由一位专家外科医生进行了一项对比性前瞻性研究。在2005年至2015年期间,我们对平均术前内翻18°(范围为15 - 25°)的膝关节进行了20例手术。在同一次手术中进行胫骨外翻截骨术加TKA。这使外科医生能够更适度地进行内侧松解,并通过合适的平衡假体实现正确的对线。一组10例患者接受传统手术,另外10例患者在截骨术和TKA手术中均采用基于计算机的导航。借助该系统,在导航上实时监测冠状面和矢状面,无需术中X线控制即可获得所需的机械轴。关节置换术中股骨和胫骨截骨的锯导板定位也借助导航系统完成。

结果

术后平均股胫内翻为1.5°(范围为0 - 5°),基于计算机导航的手术对线更佳。截骨术后平均矫正角度为16°(范围为12 - 24°)。因软骨磨损导致的关节内畸形部分通过TKA解决。手术过程中未进行松解。患者在术后两周内早期活动,屈曲活动范围限制在90°以内,之后允许完全负重。未观察到不稳定情况和并发症。在评估假体的放射学冠状面对线时,计算机导航组的内翻对线比传统组更好,为0.5°内翻(范围为0 - 3°内翻),传统组为2.5°内翻(范围为1 - 5°内翻)。导航组的胫骨斜率维持得更好(平均变化为 + 0.5°,p = 0.732),而传统组则显著增加(平均变化为 + 4.2°,p < 0.01)。计算机导航组的平均透视次数为2.8次(95%可信区间为1.2 - 6.5),而对照组为9.4次(95%可信区间为5.3 - 12.4)。与传统技术的36.2秒照射时间相比,计算机导航技术的照射时间缩短至11.4秒(p < 0.001)。

结论

计算机导航提高了精度并减少了辐射。本研究结果表明,在同一次手术中将计算机导航与全膝关节置换术及开放楔形高位胫骨截骨术相结合时,可安全用于复杂手术。

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