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本文引用的文献

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Treatment recommendations for idiopathic scoliosis: an assessment of the Lenke classification.特发性脊柱侧凸的治疗建议:对Lenke分类法的评估
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Comparison of reliability between the Lenke and King classification systems for adolescent idiopathic scoliosis using radiographs that were not premeasured.使用未经预先测量的X线片比较Lenke和King青少年特发性脊柱侧凸分类系统之间的可靠性。
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Biomechanical modeling of posterior instrumentation of the scoliotic spine.脊柱侧弯后路内固定的生物力学建模
Comput Methods Biomech Biomed Engin. 2003 Feb;6(1):27-32. doi: 10.1080/1025584031000072237.
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Comparative analysis of pedicle screw and hook instrumentation in posterior correction and fusion of idiopathic thoracic scoliosis.椎弓根螺钉与钩器械在特发性胸椎侧弯后路矫正融合中的对比分析
Eur Spine J. 2002 Aug;11(4):336-43. doi: 10.1007/s00586-002-0415-9. Epub 2002 May 29.
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Analysis of vertebral morphology in idiopathic scoliosis with use of magnetic resonance imaging and multiplanar reconstruction.利用磁共振成像和多平面重建分析特发性脊柱侧凸的椎体形态。
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Multisurgeon assessment of surgical decision-making in adolescent idiopathic scoliosis: curve classification, operative approach, and fusion levels.多外科医生对青少年特发性脊柱侧弯手术决策的评估:曲线分类、手术入路及融合节段
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青少年特发性脊柱侧凸中脊柱内固定配置的变异性

Variability of spinal instrumentation configurations in adolescent idiopathic scoliosis.

作者信息

Aubin Carl-Eric, Labelle Hubert, Ciolofan Oana C

机构信息

Mechanical Engineering Department, Ecole Polytechnique, Montreal, QC, Canada.

出版信息

Eur Spine J. 2007 Jan;16(1):57-64. doi: 10.1007/s00586-006-0063-6. Epub 2006 Feb 14.

DOI:10.1007/s00586-006-0063-6
PMID:16477449
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC2198894/
Abstract

Surgical instrumentation for the correction of adolescent idiopathic scoliosis (AIS) is a complex procedure involving many difficult decisions (i.e. spinal segment to instrument, type/location/number of hooks or screws, rod diameter/length/shape, implant attachment order, amount of rod rotation, etc.). Recent advances in instrumentation technology have brought a large increase in the number of options. Despite numerous clinical publications, there is still no consensus on the optimal surgical plan for each curve type. The objective of this study was to document and analyse instrumentation configuration and strategy variability. Five females (12-19 years) with AIS and an indication for posterior surgical instrumentation and fusion were selected. Curve patterns were as follows: two right thoracic (Cobb: 34 degrees, 52 degrees), two right thoracic and left lumbar (Cobb T/L: 57 degrees/45 degrees, 72 degrees/70 degrees) and 1 left thoraco-lumbar (Cobb: 64 degrees). The pre-operative standing postero-anterior and lateral radiographs, supine side bending radiographs, a three-dimensional (3D) reconstruction of the spine, pertinent 3D measurements as well as clinical information such as age and gender of each patient were submitted to six experienced independent spinal deformity surgeons, who were asked to provide their preferred surgical planning using a posterior spinal approach. The following data were recorded using the graphical user interface of a spine surgery simulator (6x5 cases): implant types, vertebral level, position and 3D orientation of implants, anterior release levels, rod diameter and shape, attachment sequence, rod rotation (angle, direction), adjustments (screw rotation, contraction/distraction), etc. Overall, the number of implants used ranged from 11 to 26 per patient (average 16; SD +/-4). Of these, 45% were mono-axial screws, 31% multi-axial screws and 24% hooks. At one extremity of the spectrum, one surgeon used only mono-axial screws, while at the other, another surgeon used 81% hooks. The selected superior- and inferior-instrumented vertebrae varied up to six and five levels, respectively (STD 1.2 and 1.5). A top-to-bottom attachment sequence was selected in 61% of the cases, a bottom-up in 29% and an alternate order in 11%. The rod rotation maneuver of the first rod varied from 0 degrees (no rotation) to 140 degrees, with a median at 90 degrees. In conclusion, a large variability of instrumentation strategy in AIS was documented within a small experienced group of spinal deformity surgeons. The exact cause of this large variability is unclear but warrants further investigation with multicenter outcome studies as well as experimental and computer simulation studies. We hypothesize that this variability may be attributed to different objectives for correction, to surgeon's personal preferences based on their previous experience, to the known inter-observer variability of current classification systems and to the current lack of clearly defined strategies or rational rules based on the validated biomechanical studies with modern multi-segmental instrumentation systems.

摘要

用于矫正青少年特发性脊柱侧凸(AIS)的手术器械是一个复杂的过程,涉及许多艰难的决策(例如,要植入器械的脊柱节段、钩或螺钉的类型/位置/数量、棒的直径/长度/形状、植入物附着顺序、棒的旋转量等)。器械技术的最新进展使选择的数量大幅增加。尽管有大量临床出版物,但对于每种曲线类型的最佳手术方案仍未达成共识。本研究的目的是记录和分析器械配置和策略的变异性。选择了五名患有AIS且有后路手术器械植入和融合指征的女性(12 - 19岁)。曲线类型如下:两条右胸弯(Cobb角:34度、52度),两条右胸弯和左腰弯(Cobb胸/腰角:57度/45度、72度/70度)以及一条左胸腰弯(Cobb角:64度)。将每位患者的术前站立位前后位和侧位X线片、仰卧位侧弯X线片、脊柱的三维(3D)重建、相关的3D测量以及年龄和性别等临床信息提交给六位经验丰富的独立脊柱畸形外科医生,要求他们使用后路脊柱入路提供其首选的手术规划。使用脊柱手术模拟器的图形用户界面记录以下数据(6×5例):植入物类型、椎体水平、植入物的位置和3D方向、前路松解水平、棒的直径和形状、附着顺序、棒的旋转(角度、方向)、调整(螺钉旋转、收缩/撑开)等。总体而言,每位患者使用的植入物数量为11至26个(平均16个;标准差±4)。其中,45%为单轴螺钉,31%为多轴螺钉,24%为钩。在范围的一端,一位外科医生仅使用单轴螺钉,而在另一端,另一位外科医生使用了81%的钩。所选的上、下器械固定椎体分别相差多达六个和五个节段(标准差1.2和1.5)。61%的病例选择了自上而下的附着顺序,29%选择了自下而上的顺序,11%选择了交替顺序。第一根棒的旋转操作从0度(无旋转)到140度不等,中位数为90度。总之,在一小群经验丰富的脊柱畸形外科医生中,记录到AIS手术器械策略存在很大变异性。这种大变异性的确切原因尚不清楚,但需要通过多中心结果研究以及实验和计算机模拟研究进行进一步调查。我们假设这种变异性可能归因于不同的矫正目标、基于外科医生以往经验的个人偏好、当前分类系统已知的观察者间变异性以及目前缺乏基于现代多节段器械系统的经过验证的生物力学研究的明确界定策略或合理规则。