Literature DB >> 28735766

Risk factor analysis for predicting vertebral body re-collapse after posterior instrumented fusion in thoracolumbar burst fracture.

Hae-Dong Jang1, Chungwon Bang2, Jae Chul Lee1, Jae-Wan Soh2, Sung-Woo Choi1, Hyeung-Kyu Cho1, Byung-Joon Shin3.   

Abstract

BACKGROUND CONTEXT: In the posterior instrumented fusion surgery for thoracolumbar (T-L) burst fracture, early postoperative re-collapse of well-reduced vertebral body fracture could induce critical complications such as correction loss, posttraumatic kyphosis, and metal failure, often leading to revision surgery. Furthermore, re-collapse is quite difficult to predict because of the variety of risk factors, and no widely accepted accurate prediction systems exist. Although load-sharing classification has been known to help to decide the need for additional anterior column support, this radiographic scoring system has several critical limitations.
PURPOSE: (1) To evaluate risk factors and predictors for postoperative re-collapse in T-L burst fractures. (2) Through the decision-making model, we aimed to predict re-collapse and prevent unnecessary additional anterior spinal surgery. STUDY
DESIGN: Retrospective comparative study. PATIENT SAMPLE: Two-hundred and eight (104 men and 104 women) consecutive patients with T-L burst fracture who underwent posterior instrumented fusion were reviewed retrospectively. Burst fractures caused by high-energy trauma (fall from a height and motor vehicle accident) with a minimum 1-year follow-up were included. The average age at the time of surgery was 45.9 years (range, 15-79). With respect to the involved spinal level, 95 cases (45.6%) involved L1, 51 involved T12, 54 involved L2, and 8 involved T11. Mean fixation segments were 3.5 (range, 2-5). Pedicle screw instrumentation including fractured vertebra had been performed in 129 patients (62.3%). OUTCOME MEASURES: Clinical data using self-report measures (visual analog scale score), radiographic measurements (plain radiograph, computed tomography, and magnetic resonance image), and functional measures using the Oswestry Disability Index were evaluated.
METHODS: Body height loss of fractured vertebra, body wedge angle, and Cobb angle were measured in serial plain radiographs. We assigned patients to the re-collapse group if their body height loss progressed greater than 20% at any follow-up time compared with immediate postoperative body height loss; we assigned the remaining patients to the well-maintained group. The chi-square test and t test of SPSS were used for comparison of differences between two groups and multiple logistic regression analysis for risk factor evaluation. Through the decision tree analysis of statistical package R, a decision-making model was composed, and a cutoff value of revealed risk factors and re-collapse rate of each subgroup were identified. The present study wassupported by the University College of Medicine Research Fund (university to which authors belong). There was no external funding source for this study. The authors have no conflict of interest to declare.
RESULTS: Re-collapse occurred in 31 of 208 patients (14.9%). In this group, age, the proportion of male gender, preoperative height loss, and preoperative wedge angle were significantly greater than the well-maintained group. Multivariable logistic regression analysis identified two independent risk factors: age (adjusted odds ratio 1.084, p=.002) and body height loss (adjusted odds ratio 1.065, p=.003). According to the decision-making tree, age (>43 years) was the most discriminating variable, andpreoperative body height loss (>54%) was the second. In this model, the re-collapse rate was zero in ages less than 43 years, and among those remaining, nearly 80% patients with greater than 54% of body height loss belonged to the re-collapse group.
CONCLUSIONS: The independent predictors of re-collapse after posterior instrumented fusion for T-L burst fracture were the age at operation (>43 years old) and preoperative body height loss (>54%). Careful assessment using our decision-making model could help to predict re-collapse and prevent unnecessary additional spinal surgery for anterior column support, especially in young patients.
Copyright © 2017 Elsevier Inc. All rights reserved.

Entities:  

Keywords:  Age; Burst fracture; Decision-making; Height loss; Load sharing classification; Prediction; Re-collapse; Risk factors; Spine surgery; Thoracolumbar

Mesh:

Year:  2017        PMID: 28735766     DOI: 10.1016/j.spinee.2017.07.168

Source DB:  PubMed          Journal:  Spine J        ISSN: 1529-9430            Impact factor:   4.166


  10 in total

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2.  Finite element analysis comparing short-segment instrumentation with conventional pedicle screws and the Schanz pedicle screw in lumbar 1 fractures.

Authors:  Fei Zhou; Sheng Yang; Jifeng Liu; Jianmin Lu; Depeng Shang; Chao Chen; Huanhuan Wang; Jinming Ma
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3.  Identifying risks factors in thoracolumbar anterior fusion surgery through predictive analytics in a nationally representative inpatient sample.

Authors:  Shane Shahrestani; Alexander M Ballatori; Xiao T Chen; Andy Ton; Zorica Buser; Jeffrey C Wang
Journal:  Eur Spine J       Date:  2021-05-04       Impact factor: 3.134

4.  Treatment of Fractures of the Thoracolumbar Spine: Recommendations of the Spine Section of the German Society for Orthopaedics and Trauma (DGOU).

Authors:  Akhil P Verheyden; Ulrich J Spiegl; Helmut Ekkerlein; Erol Gercek; Stefan Hauck; Christoph Josten; Frank Kandziora; Sebastian Katscher; Philipp Kobbe; Christian Knop; Wolfgang Lehmann; Rainer H Meffert; Christian W Müller; Axel Partenheimer; Christian Schinkel; Philipp Schleicher; Matti Scholz; Christoph Ulrich; Alexander Hoelzl
Journal:  Global Spine J       Date:  2018-09-07

5.  Dorsal and ventral thoracic 12 vertebra body height is associated with incident lumbar vertebral fracture in postmenopausal osteoporotic women.

Authors:  Yun-Sic Bang; Seunghoon Lee; Keum Nae Kang; Joohyun Lee; Hye-Won Jeong; Soo Il Choi; Young Uk Kim
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Review 6.  The Predictive Value of the Load Sharing Classification Concerning Sagittal Collapse and Posterior Instrumentation Failure: A Systematic Literature Review.

Authors:  Wessel T Stam; Jaap Deunk; Matthijs J Elzinga; Frank W Bloemers; Georgios F Giannakopoulos
Journal:  Global Spine J       Date:  2019-06-16

7.  Clinical and Radiological Factors Affecting Thoracolumbar Fractures Outcome: WFNS Spine Committee Recommendations.

Authors:  Francesco Costa; Salman Sharif; Abdul Hafid Bajamal; Yousuf Shaikh; Carla D Anania; Mehmet Zileli
Journal:  Neurospine       Date:  2021-12-31

8.  Optimization of Spondylosynthesis for Certain Thoracolumbar Burst Fractures.

Authors:  S V Likhachev; V B Arsenievich; V V Ostrovskiy; A E Shulga; A V Zaretskov; D V Ivanov; A V Dol; A M Donnik; V V Zaretskov
Journal:  Sovrem Tekhnologii Med       Date:  2020-08-27

9.  Healing pattern classification for thoracolumbar burst fractures after posterior short-segment fixation.

Authors:  Changxiang Liang; Guihua Liu; Guoyan Liang; Xiaoqing Zheng; Dong Yin; Dan Xiao; Shixing Zeng; Honghua Cai; Yunbing Chang
Journal:  BMC Musculoskelet Disord       Date:  2020-06-12       Impact factor: 2.362

10.  The feasibility of short-segment Schanz screw implanted in an oblique downward direction for the treatment of lumbar 1 burst fracture: a finite element analysis.

Authors:  Jifeng Liu; Sheng Yang; Fei Zhou; Jianmin Lu; Chunyang Xia; Huanhuan Wang; Chao Chen
Journal:  J Orthop Surg Res       Date:  2020-11-17       Impact factor: 2.359

  10 in total

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