立即稳定椎弓根螺钉

Q4 Engineering
Michael de Wild, Simon Zimmermann, Falko Schlottig, Carol Hasler, Karina Klein, Thomas Steffen, Brigitte von Rechenberg
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引用次数: 0

摘要

摘要本研究旨在验证即时稳定系统(ISS)新技术的原理和安全性。该技术旨在立即稳定缺失骨中的聚合物增强椎弓根螺钉(PAS),避免在骨-螺钉界面处松动椎弓根螺钉的并发症,特别是在骨质疏松患者中。设计了聚合物套筒作为增强物,提高了螺杆钻孔后的锚固效果。通过施加超声波能量,聚合物管被塑造成宿主骨的孔隙,与邻近的骨形成牢固而均匀的结合。然后将原始螺钉植入更致密的骨环境中,从而增强了即刻的稳定性。将iss处理的植入物与常规放置椎弓根螺钉的离体尸骨(2根羊椎骨,每根脊椎n = 6个植入物,总共12个螺钉)和体内脊椎羊模型(瑞士高山羊,n = 5,每只动物4个植入物,总共20个螺钉)进行比较。iss处理的椎弓根螺钉在离体骨(+24%插入扭矩(IT))和在体羊脊柱(+32.9% IT)中的初步稳定性均有提高。在体内测试8周后,在PAS中移除扭矩(RT)较低。ISS技术在离体尸体骨骼和绵羊脊柱的体内研究中证明了椎弓根螺钉锚固的改进。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Immediate stabilization of pedicle screws
Abstract This study was designed as proof of principle and safety test of the novel technique, the Immediate Stabilization System (ISS). The technique is designed to immediately stabilize polymer-augmented pedicle screws (PAS) in deficient bone and avoid complications of loosening pedicle screws at the bone-screw interface, especially in osteoporotic patients. A polymer sleeve was designed as augmentation to improve screw anchorage after drilling the screw hole. By applying ultrasonic energy, the polymeric tube was molded into the pores of the host bone forming a strong and uniform bond with the adjacent bone. The original screw was then implanted into the denser bony environment leading to an enhanced immediate stability. The ISS-treated implants were compared to conventionally placed pedicle screws in ex-vivo cadaver bones (2 sheep spines, n = 6 implants per spine, total 12 screws) and in-vivo in a spinal sheep model (Swiss alpine sheep, n = 5, 4 implants per animal, total 20 screws). The primary stability of ISS-treated pedicle screws was increased in ex-vivo bone (+24% insertion torque (IT)) and in-vivo (+32.9% IT) in sheep spine. Removal torque (RT) was lower in the in PAS tested for 8 weeks in-vivo. The ISS technology demonstrated improved anchorage of pedicle screws in ex-vivo cadaver bones as well as in-vivo studies in sheep spine.
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来源期刊
Current Directions in Biomedical Engineering
Current Directions in Biomedical Engineering Engineering-Biomedical Engineering
CiteScore
0.90
自引率
0.00%
发文量
239
审稿时长
14 weeks
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