Department of Neurosurgery, Fondazione IRCCS Istituto Neurologico Carlo Besta, Milano, Italy.
Neurosurgery. 2013 Jan;72 Suppl 1:54-62. doi: 10.1227/NEU.0b013e3182748ee8.
During the past decades, medical applications of virtual reality technology have been developing rapidly, ranging from a research curiosity to a commercially and clinically important area of medical informatics and technology. With the aid of new technologies, the user is able to process large amounts of data sets to create accurate and almost realistic reconstructions of anatomic structures and related pathologies. As a result, a 3-diensional (3-D) representation is obtained, and surgeons can explore the brain for planning or training. Further improvement such as a feedback system increases the interaction between users and models by creating a virtual environment. Its use for advanced 3-D planning in neurosurgery is described. Different systems of medical image volume rendering have been used and analyzed for advanced 3-D planning: 1 is a commercial "ready-to-go" system (Dextroscope, Bracco, Volume Interaction, Singapore), whereas the others are open-source-based software (3-D Slicer, FSL, and FreesSurfer). Different neurosurgeons at our institution experienced how advanced 3-D planning before surgery allowed them to facilitate and increase their understanding of the complex anatomic and pathological relationships of the lesion. They all agreed that the preoperative experience of virtually planning the approach was helpful during the operative procedure. Virtual reality for advanced 3-D planning in neurosurgery has achieved considerable realism as a result of the available processing power of modern computers. Although it has been found useful to facilitate the understanding of complex anatomic relationships, further effort is needed to increase the quality of the interaction between the user and the model.
在过去的几十年中,虚拟现实技术在医学中的应用发展迅速,从研究好奇心发展到医学信息学和技术领域具有商业和临床重要性的领域。借助新技术,用户能够处理大量数据集,以创建解剖结构和相关病变的精确且几乎逼真的重建。因此,可以获得三维(3D)表示,并且外科医生可以探索大脑以进行计划或培训。通过创建虚拟环境,进一步的改进,如反馈系统,增加了用户和模型之间的交互。描述了其在神经外科中的高级 3D 规划中的用途。已经使用和分析了不同的医学图像体绘制系统来进行高级 3D 规划:一种是商业的“即用型”系统(Dextroscope,Bracco,Volume Interaction,Singapore),而其他则是基于开源的软件(3-D Slicer,FSL 和 FreesSurfer)。我们机构的不同神经外科医生都体验到了术前高级 3D 规划如何使他们能够促进并增加对病变复杂解剖和病理关系的理解。他们都认为,虚拟规划手术入路的术前体验在手术过程中很有帮助。由于现代计算机的可用处理能力,神经外科中的高级 3D 规划的虚拟现实已经实现了相当高的逼真度。尽管发现它有助于理解复杂的解剖关系,但仍需要进一步努力来提高用户与模型之间的交互质量。
Neurosurgery. 2013-1
Neurosurgery. 2013-1
Minim Invasive Neurosurg. 2007-4
Neurosurgery. 2013-1
Neurosurgery. 2000-1
Asian J Neurosurg. 2025-4-15
Adv Exp Med Biol. 2023
Surg Neurol Int. 2023-1-27
J Neurosurg Case Lessons. 2021-6-7
J Clin Neurosci. 2021-9