A Biomechanical Stability Study of Extraforaminal Lumbar Interbody Fusion on the Cadaveric Lumbar Spine Specimens.

Transforaminal lumbar interbody fusion (TLIF) is an effective surgery for lumbar degenerative disease. However, this fusion technique requires resection of inferior facet joint to provide access for superior facet joint resection, which results in reduced lumbar spinal stability and unnecessary trau...

Full description

Bibliographic Details
Main Authors: Song Guo, Cheng Zeng, Meijun Yan, Yingchao Han, Dongdong Xia, Guixin Sun, Lijun Li, Mingjie Yang, Jun Tan
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2016-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC5178989?pdf=render
id doaj-f8076edea1524a11a92d96f2d12e11aa
record_format Article
spelling doaj-f8076edea1524a11a92d96f2d12e11aa2020-11-25T01:32:48ZengPublic Library of Science (PLoS)PLoS ONE1932-62032016-01-011112e016849810.1371/journal.pone.0168498A Biomechanical Stability Study of Extraforaminal Lumbar Interbody Fusion on the Cadaveric Lumbar Spine Specimens.Song GuoCheng ZengMeijun YanYingchao HanDongdong XiaGuixin SunLijun LiMingjie YangJun TanTransforaminal lumbar interbody fusion (TLIF) is an effective surgery for lumbar degenerative disease. However, this fusion technique requires resection of inferior facet joint to provide access for superior facet joint resection, which results in reduced lumbar spinal stability and unnecessary trauma. We have previously developed extraforaminal lumbar interbody fusion (ELIF) that can avoid back muscle injury with direct nerve root decompression. This study aims to show that ELIF enhances lumbar spinal stability in comparison to TLIF by comparing lumbar spinal stability of L4-L5 range of motion (ROM) on 12 cadaveric spine specimens after performing TLIF or ELIF.12 cadaveric spine specimens were randomly divided and treated in accordance with the different internal fixations, including ELIF with a unilateral pedicle screw (ELIF+UPS), TLIF with a unilateral pedicle screw (TLIF+UPS), TLIF with a bilateral pedicle screw (TLIF+BPS), ELIF with a unilateral pedicle screw and translaminar facet screw (ELIF+UPS+TLFS) and ELIF with a bilateral pedicle screw (ELIF+BPS). The treatment groups were exposed to a 400-N load and 6 N·m movement force to calculate the angular displacement of L4-L5 during anterior flexion, posterior extension, lateral flexion and rotation operation conditions.The ROM in ELIF+UPS group was smaller than that of TLIF+UPS group under all operating conditions, with the significant differences in left lateral flexion and right rotation by 36.15% and 25.97% respectively. The ROM in ELIF+UPS group was higher than that in TLIF+BPS group. The ROM in the ELIF+UPS+TLFS group was much smaller than that in the ELIF+UPS group, but was not significantly different than that in the TLIF+BPS group.Despite that TLIF+BPS has great stability, which can be comparable by that of ELIF+UPS. Additionally, ELIF stability can be further improved by using translaminar facet screws without causing more tissue damage to patient.http://europepmc.org/articles/PMC5178989?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Song Guo
Cheng Zeng
Meijun Yan
Yingchao Han
Dongdong Xia
Guixin Sun
Lijun Li
Mingjie Yang
Jun Tan
spellingShingle Song Guo
Cheng Zeng
Meijun Yan
Yingchao Han
Dongdong Xia
Guixin Sun
Lijun Li
Mingjie Yang
Jun Tan
A Biomechanical Stability Study of Extraforaminal Lumbar Interbody Fusion on the Cadaveric Lumbar Spine Specimens.
PLoS ONE
author_facet Song Guo
Cheng Zeng
Meijun Yan
Yingchao Han
Dongdong Xia
Guixin Sun
Lijun Li
Mingjie Yang
Jun Tan
author_sort Song Guo
title A Biomechanical Stability Study of Extraforaminal Lumbar Interbody Fusion on the Cadaveric Lumbar Spine Specimens.
title_short A Biomechanical Stability Study of Extraforaminal Lumbar Interbody Fusion on the Cadaveric Lumbar Spine Specimens.
title_full A Biomechanical Stability Study of Extraforaminal Lumbar Interbody Fusion on the Cadaveric Lumbar Spine Specimens.
title_fullStr A Biomechanical Stability Study of Extraforaminal Lumbar Interbody Fusion on the Cadaveric Lumbar Spine Specimens.
title_full_unstemmed A Biomechanical Stability Study of Extraforaminal Lumbar Interbody Fusion on the Cadaveric Lumbar Spine Specimens.
title_sort biomechanical stability study of extraforaminal lumbar interbody fusion on the cadaveric lumbar spine specimens.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2016-01-01
description Transforaminal lumbar interbody fusion (TLIF) is an effective surgery for lumbar degenerative disease. However, this fusion technique requires resection of inferior facet joint to provide access for superior facet joint resection, which results in reduced lumbar spinal stability and unnecessary trauma. We have previously developed extraforaminal lumbar interbody fusion (ELIF) that can avoid back muscle injury with direct nerve root decompression. This study aims to show that ELIF enhances lumbar spinal stability in comparison to TLIF by comparing lumbar spinal stability of L4-L5 range of motion (ROM) on 12 cadaveric spine specimens after performing TLIF or ELIF.12 cadaveric spine specimens were randomly divided and treated in accordance with the different internal fixations, including ELIF with a unilateral pedicle screw (ELIF+UPS), TLIF with a unilateral pedicle screw (TLIF+UPS), TLIF with a bilateral pedicle screw (TLIF+BPS), ELIF with a unilateral pedicle screw and translaminar facet screw (ELIF+UPS+TLFS) and ELIF with a bilateral pedicle screw (ELIF+BPS). The treatment groups were exposed to a 400-N load and 6 N·m movement force to calculate the angular displacement of L4-L5 during anterior flexion, posterior extension, lateral flexion and rotation operation conditions.The ROM in ELIF+UPS group was smaller than that of TLIF+UPS group under all operating conditions, with the significant differences in left lateral flexion and right rotation by 36.15% and 25.97% respectively. The ROM in ELIF+UPS group was higher than that in TLIF+BPS group. The ROM in the ELIF+UPS+TLFS group was much smaller than that in the ELIF+UPS group, but was not significantly different than that in the TLIF+BPS group.Despite that TLIF+BPS has great stability, which can be comparable by that of ELIF+UPS. Additionally, ELIF stability can be further improved by using translaminar facet screws without causing more tissue damage to patient.
url http://europepmc.org/articles/PMC5178989?pdf=render
work_keys_str_mv AT songguo abiomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT chengzeng abiomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT meijunyan abiomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT yingchaohan abiomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT dongdongxia abiomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT guixinsun abiomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT lijunli abiomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT mingjieyang abiomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT juntan abiomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT songguo biomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT chengzeng biomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT meijunyan biomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT yingchaohan biomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT dongdongxia biomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT guixinsun biomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT lijunli biomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT mingjieyang biomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
AT juntan biomechanicalstabilitystudyofextraforaminallumbarinterbodyfusiononthecadavericlumbarspinespecimens
_version_ 1725079680902496256