3d建模在医学中的应用,为3d打印做准备

Nataliya Yuriivna Onykiyenko
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引用次数: 0

摘要

医学领域的3D建模可用于使用3D打印创建医学模型(例如,组织和人体器官)或用于必要结构的数字3D可视化。当需要与患者解剖结构完美匹配的假肢时,使用医疗3d打印。此外,由于3d建模技术,可以开发特殊的医疗工具。在实际手术之前,也可以在3d模型上进行试验手术。有专门的软件用于创建进一步打印的医疗3d模型。这项工作的目的是确定3d建模的功能,为医学模型创建过程中的3d打印做准备,并对医学领域中使用的3d建模软件进行对比分析。有一个通用的工作流程可用于将体积医学成像数据(由计算机断层扫描(CT)或其他成像技术创建)转换为在3d打印机上打印的物理模型。该过程分为三个阶段:图像分割,多边形网格细化和3d打印。在多边形网格细化阶段使用3d建模程序。它们允许几乎无限的操作来细化网格,使模型可打印。使用3d建模对分割模型进行后处理的主要操作是:1)修复-纠正有时在分割和图像导出过程中出现的错误和差异;2)平滑——通过对模型表面进行平滑处理,对分割过程中由于原始医学图像分辨率不合适而产生的误差进行软化校正;3)添加元素-将分割模型与其他结构组合或从分割中删除不必要的部分。通过对医疗领域使用的3d建模软件进行对比分析,发现对于3d建模,可以使用专门为医疗领域设计的3d建模软件和常规的3d建模软件。使用常规软件时,需要第三方软件获取正确的模型文件格式。软件的选择取决于目标:与植入物一起工作并创建特定于患者的设备,可以使用专门设计的程序来实现这些目的,例如Within Medical and Medical Design Studio;如果需要高精度,可以在图像分割阶段使用为dicom图像创建的D2P;为了快速获得结果,当不需要保持最大精度时,可以使用移动版本的软件,如Ossa 3D;常见的3d建模软件,如Cinema 4D和Blender,可以用来开发特殊的工具和医疗设备。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Application of 3D-Modeling in Medicine in Preparation for 3D-Printing
3D-modeling in the medical field can be used to create medical models (eg, tissues and human organs) using 3D-printing or used for digital 3D visualization of the necessary structures. Medical 3D-printing is used when the work on prostheses that should perfectly match the patient's anatomy is needed. In addition, thanks to 3D-modeling technology, it is possible to develop peculiar medical tools. It is also possible to perform trial surgeries on 3D-models before the actual operation. There is special software for creating medical 3D-models for further printing. The purpose of this work is to determine the functions of 3D-modeling in preparation for 3D-printing in the process of creating medical models and comparative analysis of software for 3D-modeling used in the medical field. There is a common workflow that can be used to convert volumetric medical imaging data (created by computer tomography (CT), or other imaging techniques) into physical models printed on a 3D-printer. This process is divided into three stages: image segmentation, polygon mesh refinement, and 3D-printing. 3D-modeling programs are used at the stage of polygon mesh refinement. They allow almost unlimited manipulations to refine the mesh to make the model printable. The main manipulations for post-processing of a segmented model using 3D-modeling are: 1) reparation - correction of errors and discrepancies that sometimes occur in the process of segmentation and images export; 2) smoothing - correction of errors that occur during segmentation due to inappropriate resolution of the original medical image via softening by smoothing the surface of the model; 3) adding elements - combining a segmented model with other structures or removing unnecessary parts from the segmentation. As a result of a comparative analysis of 3D-modeling software used in the medical field, it was found that for 3D-modeling can be used software specifically designed for medical 3D-modeling and regular 3D-modeling software. When using regular software, you need third-party software to get the correct model file format. The choice of software depends on the goal: to work with implants and create patient-specific devices, it is possible to use specially designed programs for these purposes, such as Within Medical and Medical Design Studio; if high accuracy is required, it is possible to use D2P created for working with DICOM-images at the image segmentation stage; to achieve fast results, when maintaining of maximum accuracy is not needed, a mobile version of the software, such as Ossa 3D, can be used; common 3D-modeling software, such as Cinema 4D and Blender, can be used to develop peculiar tools and medical equipment.
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