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Experimental design and mechanics study on brain injury tolerance under sagittal angular acceleration based on shearing strain equivalent coupling method

机译:基于剪切应变等效耦合法的矢状角加速下脑损伤耐受的实验设计与力学研究

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Brain impact injury is the leading cause of death in traffic accidents. In this paper, a brain multi-functional rotary impacting platform will first be set up. After this, the living animal brain sagittally rotary impacts will be executed and the injury tolerance will be achieved. Then, the sagittal physical models of animal and human brains will be produced and the four-point markers will be placed widely on the models' sagittal sections. In succession, the high-speed camera and the three-dimension infrared motion analysis meter will be used to record the rotary impacting process, the exterior angular acceleration course and the shearing strain data of interior four-point markers. Thus, with the exterior angular acceleration course, the living animals' experiments and the experiments based on the animal physical brain model can be coupled equivalently. In the same way, through the maximum shearing strain data of interior four-point markers, the experiments based on the animal physical brain model can be equivalently coupled with the experiments based on the human physical brain model. Finally, according to the comparability in pathology and physiology between animal and human brain tissue, the injury tolerance of human brain under its sagittally rotary impacts can expect to be obtained through the mechanics study.
机译:脑冲击损伤是交通事故中死亡的主要原因。本文首先将建立脑多功能旋转冲击平台。在此之后,将执行生物动物脑垂直旋转撞击,并将实现损伤耐受性。然后,将产生动物和人性脑的矢状物理模型,四点标记将在模型的矢状部分上广泛放置。连续,高速相机和三维红外运动分析仪将用于记录旋转冲击过程,外部角度加速度和内部四点标记的剪切应变数据。因此,通过外部角加速度过程,生物动物的实验和基于动物物理脑模型的实验可以等同地耦合。以相同的方式,通过内部四点标记的最大剪切应变数据,基于动物物理脑模型的实验可以等效地与基于人体体力脑模型的实验相结合。最后,根据动物和人类脑组织之间病理和生理学的可比性,通过机械研究可以获得垂直旋转冲击下的人类脑的损伤耐受性。

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