髋关节复位过程中人体表现的定量表征

I. Motivation, M. E. Baltrusaitis, A. M. Lora, L. M. Hickman, A. C. Rodrigue, M. E. Baltrusaitis, Lingtian Wan, A. M. Lora, A. C. Rodrigue, Irene Y Kwon, L. M. Hickman, Daniel Fischer, Mark R Sochor, Gregory J Gerling
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摘要

髋关节脱位是罕见的事件。因此,住院医生很少有机会通过重复实践来获得经验。事实上,对于经验丰富的医生在手术过程中使用的力量和位移,人们知之甚少。本研究旨在量化在髋关节复位过程中将股骨头重新定位到骨盆中所需的战略机动和实质性力量,以实现建立高保真度训练模拟器的长期目标。特别地,本文的工作描述了一个定制的力与运动测量系统(FMMS)的设计、构建和评估。当医生试图重新安置髋关节时,FMMS使用安全带和在线称重传感器(4448 N范围)测量患者腰部的力,并使用四个磁位移传感器(每个6 DOF)测量脱臼腿的位移。该系统的迭代已经在尸体和健全的参与者身上进行了测试,目前的系统用于收集髋关节复位患者。结果初步表明,髋部受力范围为56.8 ~ 110.8 N,腿部受力范围为254.5 ~ 496.6 N,骨盆到大腿、大腿到膝盖、膝盖到脚踝的最大角度运动分别为80.1度、31.5度和20.7度。
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Quantitative characterization of human performance during hip reduction
Hip dislocations are rare events. As a consequence, medical residents have little opportunity to gain experience through repeated practice. In fact, little is known about the forces and displacements that experienced physicians employ during the procedure. This study seeks to quantify the strategic maneuvering and substantial force required to reposition the femoral head into the pelvis during a hip reduction, toward a long-term goal of building a high fidelity training simulator. In particular, the work herein describes the design, construction and evaluation of a custom-built, force and motion measurement system (FMMS). As a physician attempts to relocate the hip, the FMMS measures force about the patient's waist using a seatbelt and inline load cell (4448 N range) and displacement of the dislocated leg with four magnetic displacement sensors (each 6 DOF). Iterations of the system have been tested on cadavers and able-bodied participants, with the current system deployed for collection on hip reduction patients. The results preliminarily indicate that forces at the hip range from 56.8 to 110.8 N, the forces at the leg range from 254.5 to 496.6 N, and that maximum angular movements from the pelvis to the thigh, from the thigh to the knee, and from the knee to the ankle are 80.1, 31.5 and 20.7 degrees, respectively.
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