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Mixed-element Octree: a meshing technique toward fast and real-time simulations in biomedical applications

机译:混合元素Octree:一种在生物医学应用中实现快速实时仿真的网格划分技术

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This article introduces a meshing technique focused on fast and real-time simulation in a biomedical context. We describe in details our algorithm, which starts from a basic Octree regarding the constraints imposed by the simulation, and then, mixed-element patterns are applied over transitions between coarse and fine regions. The use of surface patterns, also composed by mixed elements, allows us to better represent curved domains decreasing the odds of creating invalid elements by adding as few nodes as possible. In contrast with other meshing techniques, we let the user define regions of greater refinement, and as a consequence of that refinement, we add as few nodes as possible to produce a mesh that is topologically correct. Therefore, our meshing technique gives more control on the number of nodes of the final mesh. We show several examples where the quality of the final mesh is acceptable, even without using quality filters. We believe that this new meshing technique is in the correct direction toward real-time simulation in the biomedical field. Copyright (C) 2015 John Wiley & Sons, Ltd.
机译:本文介绍了一种网格技术,该技术专注于生物医学环境中的快速实时仿真。我们详细描述了我们的算法,该算法从关于模拟所施加的约束的基本八进制开始,然后,将混合元素模式应用于粗糙区域和精细区域之间的过渡。使用也由混合元素组成的表面图案,可以使我们更好地表示弯曲域,从而通过添加尽可能少的节点来减少创建无效元素的几率。与其他网格划分技术相反,我们让用户定义更高精细度的区域,并且由于这种精细度,我们添加了尽可能少的节点以生成拓扑正确的网格。因此,我们的网格划分技术可以更好地控制最终网格的节点数量。我们展示了几个示例,即使不使用质量过滤器,最终网格的质量也是可以接受的。我们认为,这种新的网格划分技术朝着生物医学领域实时仿真的正确方向发展。版权所有(C)2015 John Wiley&Sons,Ltd.

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