Defining a volume of threshold value with Prolog [torso model-defibrillation application]

J. Replogle, A. de Jongh, D. Russomanno, F. Claydon
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引用次数: 0

Abstract

Three-dimensional finite element torso models are widely used to simulate defibrillation field quantities such as the voltage, potential, gradient, and current density. These quantities are computed at spatial nodes that comprise the torso model. These spatial nodes typically number between 10/sup 5/ and 10/sup 6/ in magnitude making visualization and comprehension of torso defibrillation model output difficult. Thus, the objective of this study is to display a subset of the geometric model of the torso where the nodal information associated with the geometry of the model meets a specified threshold value (e.g. minimum gradient). The study is implemented with a SWI Prolog interpreter that is used to aid in the correlation between the coordinate, structural, and nodal databases of the torso model. Prolog is used to develop new methods for sorting, collecting and optimizing data from defibrillation simulations in a human torso model based on declarative queries.
用Prolog[躯干模型除颤应用]定义阈值体积
三维有限元躯干模型被广泛用于模拟除颤场量,如电压、电位、梯度和电流密度。这些数量是在构成躯干模型的空间节点上计算的。这些空间节点的数量通常在10/sup 5/和10/sup 6/之间,使得躯干除颤模型输出的可视化和理解变得困难。因此,本研究的目的是显示躯干几何模型的一个子集,其中与模型几何相关的节点信息满足指定的阈值(例如最小梯度)。该研究使用SWI Prolog解释器来实现,该解释器用于帮助实现躯干模型的坐标、结构和节点数据库之间的关联。Prolog用于开发基于声明性查询的人体躯干模型除颤模拟的分类、收集和优化数据的新方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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