Snedeker Jess G, Barnstuble Brent B, Iaizzo Paul A, Farshad Mehdi, Niederer Peter, Schmidlin Franz R
Institute of Biomedical Engineering, University and ETH Zurich, and Department of Surgery, Geneva University Hospital, Switzerland.
J Trauma. 2007 May;62(5):1240-9. doi: 10.1097/01.ta.0000215531.05677.19.
The identification of abdominal injury mechanisms, development of effective countermeasures, and refinement of clinical approach to injury treatment are greatly facilitated by the employment of numerical models that can predict injuries resulting from complicated soft tissue interactions during blunt abdominal impact.
The present study introduces a detailed three-dimensional finite element model of the human abdomen that was developed specifically for the investigation of renal trauma. The model geometry and materials reflect the complex mechanical environment of the abdomen, and is validated against both published and novel experiments.
It is shown that use of the proposed model, in combination with appropriate mechanical organ injury criteria, provides a significant step toward a comprehensive renal injury concept. Specifically, the abdominal model offers the possibility to investigate injury likelihood and identify injury mechanisms over a broad range of impact loading scenarios.
A sophisticated numerical model of renal trauma has been developed that can be used to effectively predict renal injury outcome for lateral impact.
通过使用能够预测钝性腹部撞击期间复杂软组织相互作用导致的损伤的数值模型,极大地促进了腹部损伤机制的识别、有效对策的开发以及损伤治疗临床方法的完善。
本研究介绍了一种专门为研究肾创伤而开发的详细的人体腹部三维有限元模型。该模型的几何形状和材料反映了腹部复杂的力学环境,并通过已发表的和新的实验进行了验证。
结果表明,结合适当的机械性器官损伤标准使用所提出的模型,朝着全面的肾损伤概念迈出了重要一步。具体而言,腹部模型提供了在广泛的撞击载荷场景下研究损伤可能性并识别损伤机制的可能性。
已开发出一种复杂的肾创伤数值模型,可用于有效预测侧方撞击的肾损伤结果。