[3D printing/implants in traumatology].

Unfallchirurgie (Heidelberg, Germany) Pub Date : 2025-05-01 Epub Date: 2025-03-10 DOI:10.1007/s00113-025-01546-1
Nico Bruns, Mohamed Omar
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引用次数: 0

Abstract

The use of 3D printing offers numerous application possibilities in traumatology, including anatomic models, repositioning and drilling guides as well as patient-specific implants. The greatest challenge lies in the rapid availability as many procedures require an immediate intervention. Anatomic models support surgical planning by complementing visual impressions with tactile ones. Printed models not only help in the establishment of surgical strategies but also enhance patient clarification. Studies demonstrate that these models significantly reduce the operating time, duration of fluoroscopy and blood loss, particularly for joint fractures. Repositioning and drilling guides simplify complex procedures and improve outcomes; however, they require precise planning and critical evaluation by the surgeon. Intraoperative guides are helpful, for instance, in accurately placing screws, especially in difficult to access areas or in metaphyseal fractures lacking clear references. Individualized implants play a lesser role in acute care but are useful for posttraumatic defects or corrective osteotomy. In the conservative segment, such as customized splints, 3D printing is being tested but with mixed results. Key requirements for 3D printing in traumatology include high-resolution computed tomography (CT), precise data processing and swift production. Regulatory hurdles and lack of reimbursement currently limit the widespread use. An optimized collaboration between technology and medicine, along with standardized processes, are essential for effectively integrating this technology into practice.

[创伤学中的3D打印/植入物]。
3D打印在创伤学中提供了许多应用可能性,包括解剖模型,重新定位和钻孔指南以及患者特定植入物。最大的挑战在于快速提供,因为许多程序需要立即干预。解剖模型支持手术计划通过补充视觉印象与触觉。打印模型不仅有助于建立手术策略,而且还能提高患者的清晰度。研究表明,这些模型显著减少了手术时间、透视时间和出血量,特别是关节骨折。重新定位和钻井导向器简化了复杂的程序,提高了效果;然而,它们需要外科医生精确的计划和关键的评估。术中引导是有帮助的,例如,准确放置螺钉,特别是在难以进入的区域或缺乏明确参考的干骺端骨折时。个体化植入物在急性护理中作用较小,但对创伤后缺损或矫正截骨有用。在保守的细分市场,如定制夹板,3D打印正在测试,但结果好坏参半。创伤学对3D打印的关键要求包括高分辨率计算机断层扫描(CT)、精确的数据处理和快速的生产。监管障碍和缺乏报销目前限制了它的广泛使用。技术与医学之间的优化协作以及标准化流程对于有效地将这一技术纳入实践至关重要。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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