Aubin Carl-Eric
"CAD Innovations in Orthopedic Engineering", Mechanical Eng. Dept., Ecole Polytechnique, PO Box 6079, St. Centre-ville, Montréal (Québec), Canada H3C 3A7.
Stud Health Technol Inform. 2002;91:309-13.
Finite element models have been used for many years to study scoliosis biomechanics. This paper presents some of the work done in our institution over the last decade in this area. It covers the simulations of scoliosis treatment (orthotics, surgical instrumentation), muscle and control, as well as the growth process. The models presented in this paper are of clinical interest because they have the capacity to simulate an unlimited number of variables to investigate scoliosis biomechanics. Current developments are directed toward the integration and validation of specific models (muscle, control, and growth modeling) into a unified refined model of the trunk, thus allowing a more complete understanding of scoliotic spine pathomechanicsms, as well as to predict in advance what would be the resulting shape of the spine in response to the application of a treatment
有限元模型已被用于研究脊柱侧弯生物力学多年。本文介绍了我们机构在过去十年中在该领域所做的一些工作。它涵盖了脊柱侧弯治疗(矫形器、手术器械)、肌肉与控制以及生长过程的模拟。本文中提出的模型具有临床意义,因为它们有能力模拟无数变量来研究脊柱侧弯生物力学。当前的发展方向是将特定模型(肌肉、控制和生长建模)整合并验证到一个统一的、更精细的躯干模型中,从而更全面地理解脊柱侧弯的病理力学机制,并提前预测脊柱在接受某种治疗后会呈现的形状。