Gonzalez-Romo Nicolas I, Mignucci-Jiménez Giancarlo, Hanalioglu Sahin, Gurses Muhammet Enes, Bahadir Siyar, Xu Yuan, Koskay Grant, Lawton Michael T, Preul Mark C
Department of Neurosurgery, Barrow Neurological Institute, Phoenix, Arizona, United States.
Department of Neurosurgery, Hacettepe University, Ankara, Turkey.
Surg Neurol Int. 2023 Mar 17;14:90. doi: 10.25259/SNI_162_2023. eCollection 2023.
Advances in computer sciences, including novel 3-dimensional rendering techniques, have enabled the creation of cloud-based virtual reality (VR) interfaces, making real-time peer-to-peer interaction possible even from remote locations. This study addresses the potential use of this technology for microsurgery anatomy education.
Digital specimens were created using multiple photogrammetry techniques and imported into a virtual simulated neuroanatomy dissection laboratory. A VR educational program using a multiuser virtual anatomy laboratory experience was developed. Internal validation was performed by five multinational neurosurgery visiting scholars testing and assessing the digital VR models. For external validation, 20 neurosurgery residents tested and assessed the same models and virtual space.
Each participant responded to 14 statements assessing the virtual models, categorized under realism ( = 3), usefulness ( = 2), practicality ( = 3), enjoyment ( = 3), and recommendation ( = 3). Most responses expressed agreement or strong agreement with the assessment statements (internal validation, 94% [66/70] total responses; external validation, 91.4% [256/280] total responses). Notably, most participants strongly agreed that this system should be part of neurosurgery residency training and that virtual cadaver courses through this platform could be effective for education.
Cloud-based VR interfaces are a novel resource for neurosurgery education. Interactive and remote collaboration between instructors and trainees is possible in virtual environments using volumetric models created with photogrammetry. We believe that this technology could be part of a hybrid anatomy curriculum for neurosurgery education. More studies are needed to assess the educational value of this type of innovative educational resource.
包括新型三维渲染技术在内的计算机科学进展,已促成基于云的虚拟现实(VR)界面的创建,使得即使身处偏远地点也能实现实时对等交互。本研究探讨了这项技术在显微外科解剖学教育中的潜在用途。
使用多种摄影测量技术创建数字标本,并将其导入虚拟模拟神经解剖学解剖实验室。开发了一个使用多用户虚拟解剖实验室体验的VR教育项目。由五名跨国神经外科访问学者对数字VR模型进行测试和评估,以进行内部验证。为进行外部验证,20名神经外科住院医师对相同的模型和虚拟空间进行了测试和评估。
每位参与者对14条评估虚拟模型的陈述做出回应,这些陈述分为逼真度(3条)、实用性(2条)、实践性(3条)、趣味性(3条)和推荐度(3条)。大多数回应表示同意或强烈同意这些评估陈述(内部验证,总回应率为94%[66/70];外部验证,总回应率为91.4%[256/280])。值得注意的是,大多数参与者强烈认为该系统应成为神经外科住院医师培训的一部分,并且通过该平台开展的虚拟尸体课程对教育可能有效。
基于云的VR界面是神经外科教育的一种新型资源。使用通过摄影测量创建的体积模型,在虚拟环境中教师和学员之间可以进行交互式远程协作。我们认为这项技术可以成为神经外科教育混合解剖学课程的一部分。需要更多研究来评估这类创新教育资源的教育价值。