Microsoft HoloLens 2 vs. tablet-based augmented reality and 3D printing for fronto-orbital reconstruction of craniosynostosis: a case study.

IF 3.1 Q1 RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING 3D printing in medicine Pub Date : 2025-03-21 DOI:10.1186/s41205-025-00251-4
Alicia Pose-Díez-de-la-Lastra, Mónica García-Sevilla, Austin Tapp, Manuel Tousidonis, Juan-Vicente Darriba-Alles, Marius George Linguraru, Javier Pascau, Santiago Ochandiano
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Abstract

Background: Craniosynostosis is a congenital condition characterized by the premature fusion of cranial sutures, leading to potential complications such as abnormal skull growth, increased intracranial pressure, and cognitive delays. Traditionally, open cranial vault reconstruction (OCVR) has been used to treat this condition. However, it is highly subjective and greatly dependent on the surgeon's expertise, which can lead to residual deformities and the need for reoperation. Effective preoperative planning can greatly improve surgical outcomes, although the major challenge is accurately translating this plan into the clinical setting. Recently, augmented reality (AR) and 3D printing have emerged as promising technologies to facilitate this endeavor. In this work, we propose three alternatives, leveraging these technologies, to guide the precise repositioning of remodeled bone fragments in the patient.

Methods: The three guidance methods are AR on a tablet, AR with Microsoft HoloLens 2, and 3D-printed spacers. The accuracy of each method was assessed by measuring the deviation of each bone fragment from the virtual surgical plan (VSP) in a simulated environment using 3D-printed phantoms based on a 14-month-old boy with trigonocephaly. The same assessment was also performed during his actual surgery.

Results: All three guidance methods demonstrated similar levels of accuracy, with mean placement errors below 1 mm in all cases. The AR systems allowed for real-time adjustments, enhancing precision. Statistical analysis showed no significant differences in error rates between the different methods or attempts.

Conclusions: Integrating AR and 3D printing into craniosynostosis surgery holds great potential for improving OCVR. While 3D-printed spacers are useful when digital technologies are unavailable, AR-based methods provide more comprehensive guidance. Nevertheless, our study suggests that the choice may depend more on the specific clinical context, user-specific skills, and available resources rather than on a clear superiority of one method over the others.

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微软 HoloLens 2 与基于平板电脑的增强现实技术和三维打印技术在颅颧骨前部重建中的对比:案例研究。
背景:颅缝闭闭是一种先天性疾病,其特征是颅缝过早融合,导致潜在的并发症,如颅骨生长异常、颅内压升高和认知迟缓。传统上,开放式颅拱顶重建(OCVR)已被用于治疗这种疾病。然而,这是高度主观的,很大程度上取决于外科医生的专业知识,这可能导致残留的畸形和需要再次手术。有效的术前计划可以极大地改善手术结果,尽管主要的挑战是将该计划准确地转化为临床环境。最近,增强现实(AR)和3D打印已经成为促进这一努力的有前途的技术。在这项工作中,我们提出了三种替代方案,利用这些技术,指导患者精确重新定位重塑的骨碎片。方法:采用平板AR、微软HoloLens 2 AR和3d打印垫片三种引导方式。每一种方法的准确性都是通过测量每个骨碎片与虚拟手术计划(VSP)在模拟环境中的偏差来评估的,使用的是基于一个14个月大的三头畸形男孩的3d打印模型。在他的实际手术中也进行了同样的评估。结果:所有三种制导方法都显示出相似的精度水平,在所有情况下,平均放置误差都在1毫米以下。增强现实系统允许实时调整,提高精度。统计分析显示,不同方法或尝试之间的错误率没有显著差异。结论:将AR和3D打印技术整合到颅缝闭合手术中,在改善OCVR方面具有很大的潜力。虽然3d打印垫片在没有数字技术的情况下很有用,但基于ar的方法可以提供更全面的指导。然而,我们的研究表明,选择可能更多地取决于特定的临床环境、用户特定的技能和可用的资源,而不是一种方法明显优于其他方法。
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