Alessandro Raffaele, Valeria Mauri, Mattia Negrini, Erika Negrello, Gian Battista Parigi, Luigi Avolio, Andrea Pietrabissa, Ferdinando Auricchio, Stefania Marconi
{"title":"制作和开发逼真的 3D 打印模型,用于培训在超声引导下为儿童置入外周中心静脉导管。","authors":"Alessandro Raffaele, Valeria Mauri, Mattia Negrini, Erika Negrello, Gian Battista Parigi, Luigi Avolio, Andrea Pietrabissa, Ferdinando Auricchio, Stefania Marconi","doi":"10.1177/11297298231187005","DOIUrl":null,"url":null,"abstract":"<p><strong>Background: </strong>Simulation for training is becoming a trend topic worldwide, even if its applications are commonly limited to adulthood. Ultrasound-guided procedures require practice and experience-especially in the pediatric field, where the small size of the involved anatomical structures poses major problems. In this context, a realistic 3D printed pediatric phantom for training of the ultrasound-guided placement of peripheral central venous catheters in children was developed.</p><p><strong>Materials and methods: </strong>Starting from Computed Tomography scans of an 8 years-old girl, her left arm was virtually reconstructed-including bones, arteries, and veins-through a semi-automatic segmentation process. According to preliminary results, the most suitable 3D printing technologies to reproduce the different anatomical structures of interest were selected, considering both direct and indirect 3D printing techniques. Experienced operators were asked to evaluate the efficacy of the final model through a dedicated questionnaire.</p><p><strong>Results: </strong>Vessels produced through indirect 3D printing latex dipping technique exhibited the best echogenicity, thickness, and mechanical properties to mimic real children's venous vessels, while arteries-not treated and/or punctured during the procedure-were directly 3D printed through Material Jetting technology. An external mold-mimicking the arm skin-was 3D printed and a silicone-based mixture was poured to reproduce real patient's soft tissues. Twenty expert specialists were asked to perform the final model's validation. The phantom was rated as highly realistic in terms of morphology and functionality for the overall simulation, especially for what concerns vessels and soft tissues' response to puncturing. On the other hand, the involved structures' US appearance showed the lower score.</p><p><strong>Conclusions: </strong>The present work shows the feasibility of a patient-specific 3D printed phantom for simulation and training in pediatric ultrasound-guided procedures.</p>","PeriodicalId":56113,"journal":{"name":"Journal of Vascular Access","volume":" ","pages":"1767-1774"},"PeriodicalIF":1.6000,"publicationDate":"2024-11-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC11539528/pdf/","citationCount":"0","resultStr":"{\"title\":\"Elaboration and development of a realistic 3D printed model for training in ultrasound-guided placement of peripheral central venous catheter in children.\",\"authors\":\"Alessandro Raffaele, Valeria Mauri, Mattia Negrini, Erika Negrello, Gian Battista Parigi, Luigi Avolio, Andrea Pietrabissa, Ferdinando Auricchio, Stefania Marconi\",\"doi\":\"10.1177/11297298231187005\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p><strong>Background: </strong>Simulation for training is becoming a trend topic worldwide, even if its applications are commonly limited to adulthood. Ultrasound-guided procedures require practice and experience-especially in the pediatric field, where the small size of the involved anatomical structures poses major problems. In this context, a realistic 3D printed pediatric phantom for training of the ultrasound-guided placement of peripheral central venous catheters in children was developed.</p><p><strong>Materials and methods: </strong>Starting from Computed Tomography scans of an 8 years-old girl, her left arm was virtually reconstructed-including bones, arteries, and veins-through a semi-automatic segmentation process. According to preliminary results, the most suitable 3D printing technologies to reproduce the different anatomical structures of interest were selected, considering both direct and indirect 3D printing techniques. Experienced operators were asked to evaluate the efficacy of the final model through a dedicated questionnaire.</p><p><strong>Results: </strong>Vessels produced through indirect 3D printing latex dipping technique exhibited the best echogenicity, thickness, and mechanical properties to mimic real children's venous vessels, while arteries-not treated and/or punctured during the procedure-were directly 3D printed through Material Jetting technology. An external mold-mimicking the arm skin-was 3D printed and a silicone-based mixture was poured to reproduce real patient's soft tissues. Twenty expert specialists were asked to perform the final model's validation. The phantom was rated as highly realistic in terms of morphology and functionality for the overall simulation, especially for what concerns vessels and soft tissues' response to puncturing. 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引用次数: 0
摘要
背景:模拟培训正成为全球的一个趋势性话题,尽管其应用通常仅限于成年期。超声引导手术需要实践和经验,尤其是在儿科领域,由于涉及的解剖结构较小,因此存在很大问题。在这种情况下,我们开发了一个逼真的 3D 打印儿科模型,用于在超声引导下为儿童置入外周中心静脉导管的培训:从一名 8 岁女孩的计算机断层扫描图像开始,通过半自动分割过程虚拟重建了她的左臂,包括骨骼、动脉和静脉。根据初步结果,考虑到直接和间接三维打印技术,选择了最适合的三维打印技术来再现不同的解剖结构。通过专门的问卷调查,请经验丰富的操作人员对最终模型的效果进行评估:结果:通过间接三维打印乳胶浸渍技术制作的血管在回声性、厚度和机械性能方面表现最佳,可以模拟真实的儿童静脉血管,而未在手术过程中进行处理和/或穿刺的动脉则通过材料喷射技术直接三维打印。模仿手臂皮肤的外部模具是3D打印出来的,然后浇注硅酮基混合物以再现真实患者的软组织。20 位专家应邀对最终模型进行了验证。就整体模拟的形态和功能而言,该模型被评为高度逼真,尤其是在血管和软组织对穿刺的反应方面。另一方面,相关结构的 US 外观得分较低:本研究表明,针对特定患者的三维打印模型在儿科超声引导手术的模拟和培训中具有可行性。
Elaboration and development of a realistic 3D printed model for training in ultrasound-guided placement of peripheral central venous catheter in children.
Background: Simulation for training is becoming a trend topic worldwide, even if its applications are commonly limited to adulthood. Ultrasound-guided procedures require practice and experience-especially in the pediatric field, where the small size of the involved anatomical structures poses major problems. In this context, a realistic 3D printed pediatric phantom for training of the ultrasound-guided placement of peripheral central venous catheters in children was developed.
Materials and methods: Starting from Computed Tomography scans of an 8 years-old girl, her left arm was virtually reconstructed-including bones, arteries, and veins-through a semi-automatic segmentation process. According to preliminary results, the most suitable 3D printing technologies to reproduce the different anatomical structures of interest were selected, considering both direct and indirect 3D printing techniques. Experienced operators were asked to evaluate the efficacy of the final model through a dedicated questionnaire.
Results: Vessels produced through indirect 3D printing latex dipping technique exhibited the best echogenicity, thickness, and mechanical properties to mimic real children's venous vessels, while arteries-not treated and/or punctured during the procedure-were directly 3D printed through Material Jetting technology. An external mold-mimicking the arm skin-was 3D printed and a silicone-based mixture was poured to reproduce real patient's soft tissues. Twenty expert specialists were asked to perform the final model's validation. The phantom was rated as highly realistic in terms of morphology and functionality for the overall simulation, especially for what concerns vessels and soft tissues' response to puncturing. On the other hand, the involved structures' US appearance showed the lower score.
Conclusions: The present work shows the feasibility of a patient-specific 3D printed phantom for simulation and training in pediatric ultrasound-guided procedures.
期刊介绍:
The Journal of Vascular Access (JVA) is issued six times per year; it considers the publication of original manuscripts dealing with clinical and laboratory investigations in the fast growing field of vascular access. In addition reviews, case reports and clinical trials are welcome, as well as papers dedicated to more practical aspects covering new devices and techniques.
All contributions, coming from all over the world, undergo the peer-review process.
The Journal of Vascular Access is divided into independent sections, each led by Editors of the highest scientific level:
• Dialysis
• Oncology
• Interventional radiology
• Nutrition
• Nursing
• Intensive care
Correspondence related to published papers is also welcome.