Department of Neurosurgery, Huashan Hospital, Shanghai 200040, China.
Chin Med J (Engl). 2012 Jun;125(11):2057-61.
BACKGROUND: The Dextroscope system by Volume Interactions (Singapore) had been applied to minimally invasive neurosurgery in many units. This system enables the neurosurgeon to interact intuitively with the three-dimensional graphics in a direct manner resembling the way one communicates with the real objects. In the paper, we explored its values in pre-operation surgical planning for intracranial meningiomas resection. METHODS: Brain computed tomography (CT), magnetic resonance imaging (MRI), and magnetic resonance venography (MRV) were performed on 10 patients with parasagittal and falcine meningiomas located on central groove area; brain CT, MRI and magnetic resonance angiography (MRA) were performed on 10 patients with anterior skull base meningiomas and 10 patients with sphenoid ridge meningiomas. All these data were transferred to Dextroscope virtual reality system, and reconstructed. Then meningiomas, skull base, brain tissue, drainage vein and cerebral arteries were displayed within the system, and their anatomic relationships were evaluated. Also, the simulation operations were performed. RESULTS: For parasagittal and falcine meningiomas, the relationships of tumor with drainage vein and superior sagittal sinus were clearly displayed in the Dextroscope system. For anterior skull base and sphenoid ridge meningiomas, the relationships of tumor with bilateral internal carotid arteries, anterior cerebral arteries, middle cerebral arteries and skull base were vividly displayed within the virtual reality system. Surgical planning and simulation operation of all cases were performed as well. The real operations of all patients were conducted according to the simulation with well outcomes. CONCLUSIONS: According to the virtual reality planning, neurosurgeons could get more anatomic information about meningioma and its surrounding structures, especially important vessels, and choose the best approach for tumor resection, which would lead to better prognosis for patients.
背景:新加坡 Volume Interactions 公司的 Dextroscope 系统已在许多单位应用于微创神经外科手术。该系统使神经外科医生能够以直接的方式与三维图形进行直观交互,类似于与真实物体进行交流的方式。在本文中,我们探讨了其在颅内脑膜瘤切除术前手术规划中的价值。
方法:对 10 例位于中央沟区的矢状窦和镰旁脑膜瘤患者进行脑计算机断层扫描(CT)、磁共振成像(MRI)和磁共振静脉造影(MRV)检查;对 10 例前颅底脑膜瘤患者和 10 例蝶骨嵴脑膜瘤患者进行脑 CT、MRI 和磁共振血管造影(MRA)检查。所有这些数据均被传输至 Dextroscope 虚拟现实系统,并进行重建。然后,在系统中显示脑膜瘤、颅底、脑组织、引流静脉和脑动脉,并评估它们的解剖关系。同时,还进行了模拟手术操作。
结果:对于矢状窦和镰旁脑膜瘤,Dextroscope 系统清楚地显示了肿瘤与引流静脉和上矢状窦的关系。对于前颅底和蝶骨嵴脑膜瘤,在虚拟现实系统中生动地显示了肿瘤与双侧颈内动脉、大脑前动脉、大脑中动脉和颅底的关系。所有病例均进行了手术规划和模拟手术操作。所有患者的实际手术均根据模拟结果进行,效果良好。
结论:根据虚拟现实规划,神经外科医生可以获得更多关于脑膜瘤及其周围结构的解剖信息,特别是重要的血管,并选择最佳的肿瘤切除方法,从而为患者带来更好的预后。
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