DIRECT MEDICAL IMAGE TO SIMULATION USING AUTO-SEGMENTATION AND POINT CLOUD-BASED CFD.

Ashton M Corpuz, Monu Jaiswal, Pan Du, Abhay B Ramachandra, Jian-Xun Wang, Ming-Chen Hsu
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Abstract

Cardiovascular disease (CVD) remains one of the leading causes of mortality worldwide. Computational medicine and digital twins hold promise in mitigating the impact and prevalence of CVD. Recent advances in image-based computational methods have enabled the quantification of functional and biologically important metrics that would otherwise be difficult to obtain from the standard of care. However, significant challenges remain due to the manual/semi-automated nature of the processes and the domain expertise required to perform them. This paper addresses these challenges by proposing a novel framework that builds on our recently developed direct point cloud-to-CFD approach using immersogeometric analysis. The proposed method leverages advanced auto-segmentation techniques to extract medically relevant geometries as point clouds, which are then directly used for CFD simulations. The framework is validated using benchmark flow problems with analytical and computational solutions and is subsequently applied to patient-specific images to demonstrate its capabilities. The results highlight the method's ability to facilitate rapid CFD simulations directly on point clouds derived from patient scans, underscoring its potential to accelerate the image-to-simulation pipeline and enable the tractability of cardiovascular digital twins.

直接医学图像模拟使用自动分割和点云为基础的cfd。
心血管疾病(CVD)仍然是世界范围内死亡的主要原因之一。计算医学和数字双胞胎有望减轻心血管疾病的影响和患病率。基于图像的计算方法的最新进展使功能和生物学重要指标的量化成为可能,否则很难从护理标准中获得这些指标。然而,由于流程的手动/半自动化性质以及执行它们所需的领域专业知识,重大的挑战仍然存在。本文通过提出一个新的框架来解决这些挑战,该框架建立在我们最近开发的使用浸入式几何分析的直接点云到cfd方法的基础上。该方法利用先进的自动分割技术提取医学相关的几何形状作为点云,然后直接用于CFD模拟。该框架使用具有分析和计算解决方案的基准流问题进行验证,随后应用于特定患者的图像以展示其功能。研究结果强调了该方法能够直接在患者扫描得出的点云上进行快速CFD模拟,强调了其加速图像到模拟流程的潜力,并使心血管数字双胞胎具有可追溯性。
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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