A Low-Cost Workflow to Generate Virtual and Physical Three-Dimensional Models of Cardiac Structures.

Philippe Grieshaber, Alexander Schneller, Elizabeth Fonseca-Escalante, Mina Farag, Rebecca Krey, Angéla Czundel, Christoph Jaschinski, Matthias Karck, Matthias Gorenflo, Tsvetomir Loukanov
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Abstract

Purpose: Three-dimensional modeling and printing (3DMP) of anatomical structures from cross-sectional imaging data can enhance the understanding of spatial relationships in complex congenital heart defects. Partially due to the substantial financial, material and personnel resources required, 3DMP is not yet universally used. Here, we describe a workflow that addresses and eliminates these drawbacks.

Description: The workflow utilizes the open-source software "3D Slicer" (The Slicer Community) and "Blender" (Blender Foundation) for segmentation and post-editing of datasets. This approach enables the generation of virtual or physical 3D models. The physical models are printed using a standard fused deposition modeling printer.

Evaluation: The financial challenges that likely constrain the wider use of 3DMP are largely addressed by this approach. However, the workflow still requires a considerable amount of time to manually segment the imaging data.

Conclusions: Three-dimensional modeling and printing might improve planning and safety of congenital cardiac surgical treatment. Furthermore, it is a useful tool for education of parents and medical professionals. This workflow increases its suitability for routine use also in regions with low economic resources.

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生成心脏结构虚拟和物理三维模型的低成本工作流程。
目的:根据横截面成像数据对解剖结构进行三维建模和打印(3DMP),可加深对复杂先天性心脏缺损空间关系的理解。由于需要大量的财力、物力和人力,3DMP 尚未得到普遍应用。在此,我们介绍一种解决并消除这些弊端的工作流程:该工作流程利用开源软件 "3D Slicer"(Slicer 社区)和 "Blender"(Blender 基金会)对数据集进行分割和后期编辑。这种方法可以生成虚拟或物理三维模型。物理模型使用标准的熔融沉积建模打印机打印:这种方法在很大程度上解决了可能制约 3DMP 更广泛应用的资金难题。然而,该工作流程仍需要大量时间对成像数据进行手动分割:结论:三维建模和打印可改善先天性心脏病手术治疗的规划和安全性。结论:三维建模和打印可提高先天性心脏病手术治疗的计划性和安全性,也是对家长和医疗专业人员进行教育的有用工具。这种工作流程使其更适合在经济资源匮乏的地区常规使用。
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