Paweł Turek, Ewelina Dudek, Mateusz Grzywa, Kacper Więcek
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A Bambu Lab X1 3D printer was used for this purpose. The process of geometric accuracy evaluation was carried out on manufactured prototypes of surgical plates made of ABS+, CPE, PLA+, and PETG material. In the geometric accuracy evaluation process, the smallest deviation values were obtained for the ABS plus material, within a tolerance of ±0.1 mm, and the largest were obtained for CPE (±0.2 mm) and PLA plus (±0.18 mm). In terms of the surface roughness evaluation, the highest value of the Sa parameter was obtained for the PLA plus material, which was 4.15 µm, and the lowest was obtained for the CPE material, equal to 3.62 µm. The knowledge of the flow of digital data and the identification of factors determining the accuracy of mapping the geometry of anatomical structures allowed for the development of a procedure that improves the modeling and manufacturing of anatomical structures within the craniofacial region.","PeriodicalId":510293,"journal":{"name":"Knowledge","volume":"59 1","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2024-05-15","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"The Process of Digital Data Flow in RE/CAD/RP/CAI Systems Concerning Planning Surgical Procedures in the Craniofacial Area\",\"authors\":\"Paweł Turek, Ewelina Dudek, Mateusz Grzywa, Kacper Więcek\",\"doi\":\"10.3390/knowledge4020014\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"This paper presents the process of digital data flow in RE/CAD/RP/CAI systems to develop models for planning surgical procedures in the craniofacial area. 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In the geometric accuracy evaluation process, the smallest deviation values were obtained for the ABS plus material, within a tolerance of ±0.1 mm, and the largest were obtained for CPE (±0.2 mm) and PLA plus (±0.18 mm). In terms of the surface roughness evaluation, the highest value of the Sa parameter was obtained for the PLA plus material, which was 4.15 µm, and the lowest was obtained for the CPE material, equal to 3.62 µm. 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引用次数: 0
摘要
本文介绍了在 RE/CAD/RP/CAI 系统中开发用于规划颅面外科手术的模型的数字数据流过程。在第一个 RE 建模阶段,进行了数字数据处理、分割和解剖结构几何重建。在 CAD 建模阶段,使用了三种不同的概念。第一个概念用于创建一个可以塑造颅顶几何形状的工具。第二个概念是用来制作种植体原型,以补充下颌骨前部的几何形状。最后,第三个概念用于设计一个定制的手术板原型,以准确匹配下颌骨的几何形状。物理模型是使用快速原型技术制作的。为此使用了 Bambu Lab X1 3D 打印机。几何精度评估过程是在 ABS+、CPE、PLA+ 和 PETG 材料制成的手术板原型上进行的。在几何精度评估过程中,ABS+材料的偏差值最小,公差为±0.1毫米,CPE(±0.2毫米)和PLA+(±0.18毫米)的偏差值最大。在表面粗糙度评估方面,PLA plus 材料的 Sa 参数值最高,为 4.15 微米,CPE 材料的 Sa 参数值最低,为 3.62 微米。通过对数字数据流的了解和对决定解剖结构几何图形绘制精度的因素的识别,可以开发出一种程序,改进颅面部解剖结构的建模和制造。
The Process of Digital Data Flow in RE/CAD/RP/CAI Systems Concerning Planning Surgical Procedures in the Craniofacial Area
This paper presents the process of digital data flow in RE/CAD/RP/CAI systems to develop models for planning surgical procedures in the craniofacial area. At the first RE modeling stage, digital data processing, segmentation, and the reconstruction of the geometry of the anatomical structures were performed. During the CAD modeling stage, three different concepts were utilized. The first concept was used to create a tool that could mold the geometry of the cranial vault. The second concept was created to prepare a prototype implant that would complement the anterior part of the mandibular geometry. And finally, the third concept was used to design a customized prototype surgical plate that would match the mandibular geometry accurately. Physical models were made using a rapid prototyping technique. A Bambu Lab X1 3D printer was used for this purpose. The process of geometric accuracy evaluation was carried out on manufactured prototypes of surgical plates made of ABS+, CPE, PLA+, and PETG material. In the geometric accuracy evaluation process, the smallest deviation values were obtained for the ABS plus material, within a tolerance of ±0.1 mm, and the largest were obtained for CPE (±0.2 mm) and PLA plus (±0.18 mm). In terms of the surface roughness evaluation, the highest value of the Sa parameter was obtained for the PLA plus material, which was 4.15 µm, and the lowest was obtained for the CPE material, equal to 3.62 µm. The knowledge of the flow of digital data and the identification of factors determining the accuracy of mapping the geometry of anatomical structures allowed for the development of a procedure that improves the modeling and manufacturing of anatomical structures within the craniofacial region.