Finite Element Modelling of Rheological Property of Curing PMMA Bone Cement. Part 1 - Effect of Prosthesis Insertion Velocity

M.M. Rahman, A. Olabi, M. Hashmi
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引用次数: 2

Abstract

PMMA (Polymethyl methacrylate) bone cement is currently the only material used for anchoring cemented arthroplasties to contiguous bones. The aim of this work is to model the flow of bone cement through porous cancellous bone to study the degree of penetration in total hip replacement using FIDAP simulation software. Two different viscosity models have been used (a) power law with constant consistency index and power law index less than 1 for pseudoplastic behaviour of Simplex P® and Zimmer bone cement; (b) FORTRAN subroutine for time dependent rheopectic behaviour of CMW3 and Zimmer bone cement. For each type of bone cement the effect of prosthesis insertion velocity have been investigated under four different values 5, 10, 15 and 20 mm/s. It has been observed that the depth of penetration increases with increasing prosthesis insertion velocity. On the other hand, the maximum pressure in bone cement decreases with increasing prosthesis insertion velocity. It has been observed that there is more penetration through cancellous bone for pseudoplastic behaviour than rheopectic behaviour of bone cement.
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固化PMMA骨水泥流变特性的有限元模拟。第一部分-假体插入速度的影响
PMMA(聚甲基丙烯酸甲酯)骨水泥是目前唯一用于连续骨锚定骨水泥关节置换术的材料。本工作的目的是利用FIDAP仿真软件模拟骨水泥通过多孔松质骨的流动,研究全髋关节置换术中骨水泥的渗透程度。采用了两种不同的黏度模型(a)对Simplex P®和Zimmer骨水泥的假塑性行为进行了幂律分析,幂律指数为常数,幂律指数小于1;(b) CMW3和Zimmer骨水泥随时间变化流变行为的FORTRAN子程序。在5、10、15和20 mm/s 4种不同的数值下,研究了不同类型骨水泥对假体插入速度的影响。我们观察到插入深度随着假体插入速度的增加而增加。另一方面,骨水泥内的最大压力随假体插入速度的增加而减小。已经观察到骨水泥的假塑性行为比流变行为更能穿透松质骨。
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