基于声发射的颞下颌关节植入物固定螺钉松动诊断工具

IF 3.5 2区 医学 Q2 ENGINEERING, BIOMEDICAL
Eapen Jacob , Keaty William , Sun Yani , Remya Ampadi Ramachandran , Jakub Walkosz , Ozevin Didem , Mercuri Louis G , Mathew T. Mathew
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引用次数: 0

摘要

同种异体颞下颌关节置换术(TMJR)种植体已成为终末期颞下颌关节(TMJ)病理学的一种可接受的临床解决方案。然而,早期螺钉固定松动可能是一个问题。据报道,声发射(AE)可以成功地检测髋关节植入物的早期变形。我们假设声发射也可用于预测早期TMJR内种植体因固定螺钉松动而失效。实验是在一个定制的TMJ模拟器上进行的,该模拟器配备了声发射、咬力和位移传感器,以及患者配备的Stryker/TMJ Concepts (Ventura, CA)种植体,该种植体包含有八个固定螺钉位置的下颌支组件。根据之前的研究,我们选择了4个螺钉松动部位(S1、S2、S7和S8),其余固定螺钉保持紧固。建立4个螺钉固定研究组,模拟不同的TMJ种植体情况(如完全固定、部分固定和失败),(i)所有固定螺钉作为对照组,(ii) S1和S2松动360°,(iii) S7和S8松动360°,(iv)所有4颗螺钉均松动。在整个实验过程中,TMJ模拟器以1 Hz的速度移动,咬合力为10N。本文报告了本研究的三个阶段的结果。在第一阶段,初步研究发现声发射能量的增加与松动的固定螺钉数量之间存在高度相关性。在第二阶段,模拟器对植入模型的TMJR组件施加10N的咀嚼力。位移约为22mm±2%。根据各组的摩擦力计算摩擦系数约为0.2±0.05 4。收集各组声发射信号的命中驱动数据和振幅,其中(ii)组的峰值高于(i)组,(iii)组的峰值高于(i)组,但低于(ii)组,(iv)组的命中与(ii)组相似。在第一阶段,与声发射数据和螺钉松动和拧紧直接相关。在第二阶段,在颅骨下颌骨使用传感器来检测拧紧和松动螺钉产生的声发射应力波。记录了数据,但无法区分松动螺钉和固定螺钉。在第三阶段,当TMJ种植体的螺钉被拧紧或松开时,传感器被直接放置在螺钉上。在这一阶段,已经观察到松动和收紧条件之间的明显差异。因此,这表明,当我们将系统视为一个整体时,其他螺钉的拧紧活动阻止了我们看到固定螺钉的声发射能量。结果表明,将声发射传感器直接放置在种植体上时,声发射传感器可以检测到应力波信号。信号的差异可能是由于螺钉-骨界面的机械和摩擦学相互作用造成的。定制的TMJ模拟器和目前获得的结果可能为TMJ种植体固定螺钉松动的进一步研究提供参考。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Acoustic emission-based diagnostic tool for temporomandibular joint implant fixation screw loosening
Alloplastic temporomandibular joint replacement (TMJR) implants have become an acceptable clinical solution for end-stage temporomandibular joint (TMJ) pathology. However, early screw fixation loosening can be a concern. Acoustic emission (AE) has been reported to successfully detect the early deformation of hip implants. We hypothesize that AE can also be utilized to predict early TMJR implant failure due to fixation screw loosening.
The experiments were conducted on a custom-built TMJ simulator equipped with AE, bite force and displacement sensors, along with a patient-fitted Stryker/TMJ Concepts (Ventura, CA) implant containing a mandibular ramus component with eight fixation screw sites. Four screw loosening sites (S1, S2, S7, and S8) were selected for the study based on prior studies4, while the rest of the fixation screws remained tight. Four screw fixation study groups were established to simulate different TMJ implant conditions (e.g., fully fixed, partially fixed, and failed), (i) All fixed screws as the control group, (ii) S1 and S2 loosened by 360°, (iii) S7 and S8 loosened by 360°, and (iv) all four screws loosened. The TMJ simulator moved at 1 Hz with a 10N bite force throughout the experiment.
This paper reports the results of the three phases of this study. In Phase 1, the pilot study found a high correlation between the increase in AE energy and the amount of loosened fixation screws. In Phase 2, the simulator applied a masticatory force of 10N to the TMJR components implanted on the model. The displacement was approximately 22 mm ± 2 %. The friction coefficient was calculated to be approximately 0.2 ± 0.05 based on the friction force for all groups4. AE signals were collected for hit-driven data and amplitude for all groups, where Group (ii) exhibited higher peaks than (i), Group (iii) showed more peaks than (i) but lower than Group (ii), and Group (iv) demonstrated the hits similar to Group (ii). In Phase 1, a direct correlation has been made with the AE data and loosened and tightened screws. In Phase 2, the sensors were used in the mandible of the skull to detect the AE stress waves produced by the tightened and loose screws. The data was recorded, but it was not able to distinguish between the loosened and fixed screws. In Phase 3, the sensors were placed directly on the screws of the TMJ implant when they were tightened or loosened. During this phase, distinct differences have been observed between the loosened and tightened conditions. Therefore, this demonstrated that the tightening activity of the other screws prevents us from seeing the AE energy for the fixed screws when we look at the system as a whole.
The findings show that the AE sensors could detect the stress wave signals when the AE sensors were placed directly on the implant. The differences in signals are likely due to the mechanical and tribological interactions at the screw-bone interface. The custom-built TMJ simulator and the results obtained thus far might lead to further studies of fixation screw loosening in TMJ implants.
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来源期刊
Journal of the Mechanical Behavior of Biomedical Materials
Journal of the Mechanical Behavior of Biomedical Materials 工程技术-材料科学:生物材料
CiteScore
7.20
自引率
7.70%
发文量
505
审稿时长
46 days
期刊介绍: The Journal of the Mechanical Behavior of Biomedical Materials is concerned with the mechanical deformation, damage and failure under applied forces, of biological material (at the tissue, cellular and molecular levels) and of biomaterials, i.e. those materials which are designed to mimic or replace biological materials. The primary focus of the journal is the synthesis of materials science, biology, and medical and dental science. Reports of fundamental scientific investigations are welcome, as are articles concerned with the practical application of materials in medical devices. Both experimental and theoretical work is of interest; theoretical papers will normally include comparison of predictions with experimental data, though we recognize that this may not always be appropriate. The journal also publishes technical notes concerned with emerging experimental or theoretical techniques, letters to the editor and, by invitation, review articles and papers describing existing techniques for the benefit of an interdisciplinary readership.
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