Hybrid modeling techniques for 3D printed deep inferior epigastric perforator flap models.

IF 3.2 Q1 RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING 3D printing in medicine Pub Date : 2023-09-12 DOI:10.1186/s41205-023-00181-z
Nicholas M Jacobson, Erik Carerra, Aaron Treat, Megan McDonnell, David Mathes, Christodoulous Kaoutzanis
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Abstract

Background: Deep Inferior Epigastric Perforator Flap (DIEP) surgical procedures have benefited in recent years from the introduction of 3D printed models, yet new technologies are expanding design opportunities which promise to improve patient specific care. Numerous studies, utilizing 3D printed models for DIEP, have shown a reduction of surgical time and complications when used in addition to the review of standard CT imaging. A DIEP free flap procedure requires locating the inferior epigastric perforator vessels traversing and perforating the rectus abdominis muscle, perfusing the abdominal skin and fatty tissue. The goal of dissecting the inferior epigastric perforator vessels is complicated by the opacity of the fatty tissue and muscle. Previous attempts to 3D print patient specific models for DIEP free flap cases from CT imaging has shown a wide range of designs which only show variations of perforator arteries, fatty tissue, and the abdominis rectus muscle.

Methods: To remedy this limitation, we have leveraged a voxel-based modeling environment to composite complex modeling elements and incorporate a ruled grid upon the muscle providing effortless 'booleaning' and measured guidance.

Results: A limitation of digital surface-based modeling tools has led to existing models lacking the ability to composite critical anatomical features, such as differentiation of vessels through different tissues, coherently into one model, providing information more akin to the surgical challenge.

Conclusion: With new technology, highly detailed multi-material 3D printed models are allowing more of the information from medical imaging to be expressed in 3D printed models. This additional data, coupled with advanced digital modeling tools harnessing both voxel- and mesh-based modeling environments, is allowing for an expanded library of modeling techniques which create a wealth of concepts surgeons can use to assemble a presurgical planning model tailored to their setting, equipment, and needs.

Trial registration: COMIRB 21-3135, ClinicalTrials.gov ID: NCT05144620.

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3D打印腹壁下穿支皮瓣模型的混合建模技术。
背景:近年来,由于3D打印模型的引入,上腹部深下穿支皮瓣(DIEP)手术程序受益,但新技术正在扩大设计机会,有望改善患者的具体护理。利用3D打印模型进行DIEP的大量研究表明,除了对标准CT成像的审查外,使用3D打印模型还可以减少手术时间和并发症。DIEP游离皮瓣手术需要定位腹下穿支血管,穿过腹直肌,灌注腹部皮肤和脂肪组织。解剖腹壁下穿支血管的目的由于脂肪组织和肌肉的不透明而变得复杂。之前尝试通过CT成像3D打印DIEP游离皮瓣病例的患者特定模型,显示了广泛的设计,仅显示穿支动脉、脂肪组织和腹直肌的变化。方法:为了弥补这一限制,我们利用基于体素的建模环境来复合复杂的建模元素,并在肌肉上合并一个直纹网格,提供轻松的“布尔清洗”和测量指导。结果:基于数字表面的建模工具的局限性导致现有模型缺乏将关键解剖特征(如通过不同组织的血管分化)连贯地合成到一个模型中的能力,从而提供更类似于手术挑战的信息。结论:随着新技术的发展,高度精细的多材料3D打印模型使更多的医学影像信息能够在3D打印模型中表达。这些额外的数据,再加上利用基于体素和网格的建模环境的先进数字建模工具,可以扩展建模技术库,创建丰富的概念,外科医生可以使用这些概念来根据他们的环境、设备和需求组装手术前计划模型。试验注册:COMIRB 21-3135, ClinicalTrials.gov ID: NCT05144620。
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