Zhou Long, Lei Pan, Song Ping, Li Zhiyang, Zhang Huikai, Wei Hangyu, Gao Lun, Hua Qiuwei, Ye Hui, Chen Qianxue, Zhang Silei, Cai Qiang
Department of Neurosurgery, Renmin Hospital of Wuhan University, No. 238, Jiefang Road, Wuchang District, Wuhan, 430060, Hubei, China.
Department of Neurosurgery, Xiantao First People's Hospital of Yangtze University, No. 29, Middle Part of Mianzhou Avenue, Xiantao, 433000, Hubei, China.
Sci Rep. 2025 Jan 21;15(1):2609. doi: 10.1038/s41598-025-86731-3.
To explore techniques, advantages and disadvantages of 3D Slicer reconstruction and 3D printing localization technology combined with transcranial neuroendoscopy in ventriculoperitoneal shunt surgery. Retrospective analysis of clinical data of patients with hydrocephalus treated by ventriculoperitoneal shunt surgery using 3D Slicer reconstruction and 3D printing positioning technology combined with transcranial neuroendoscopy in our hospital from October 2021 to March 2023. A total of 33 patients with complete data were collected, including 19 males and 14 females, aged 10-81 years. Pre operative use of 3D Slicer reconstruction and 3D printing localization, and intraoperative use of neuroendoscopy assisted catheterization to complete ventriculoperitoneal shunt surgery. The drainage tube position was confirmed by brain CT and 3D Slicer reconstruction after operation, of which 30 cases were located in the frontal horn or center of the ipsilateral lateral ventricle, and 3 cases were located in the frontal horn or center of the contralateral lateral ventricle. All patients were successfully catheterized and well positioned. According to the unique ventricular system characteristics of each hydrocephalus patient, the 3D Slicer reconstruction technology was used to determine the individualized puncture point and direction, measure the puncture depth, accurately locate the puncture through the 3D printing guide plate, and accurately send the tip of the ventricular catheter into the frontal or central part of the lateral ventricle with the assistance of neuroendoscopic visualization, which improved the success rate of the operation and reduced the risk of tube blockage. At the same time, our team has newly developed a puncture point ("Cai's point"), which has a puncture path in a non-vascular area and can reduce the risk of puncture bleeding. However, further prospective clinical research is needed to determine its routine location.
探讨3D Slicer重建及3D打印定位技术联合经颅神经内镜在脑室腹腔分流术中的技术方法、优缺点。回顾性分析2021年10月至2023年3月我院采用3D Slicer重建及3D打印定位技术联合经颅神经内镜行脑室腹腔分流术治疗的脑积水患者的临床资料。共收集33例资料完整的患者,其中男性19例,女性14例,年龄10 - 81岁。术前采用3D Slicer重建及3D打印定位,术中采用神经内镜辅助置管完成脑室腹腔分流术。术后通过脑CT及3D Slicer重建确认引流管位置,其中30例位于同侧侧脑室额角或中央,3例位于对侧侧脑室额角或中央。所有患者均成功置管且位置良好。根据每位脑积水患者独特的脑室系统特点,利用3D Slicer重建技术确定个体化穿刺点及方向,测量穿刺深度,通过3D打印导板精确穿刺定位,并在神经内镜直视辅助下将脑室导管尖端准确送入侧脑室额部或中央部,提高了手术成功率,降低了堵管风险。同时,本团队新研发了一个穿刺点(“蔡氏点”),其穿刺路径位于非血管区域,可降低穿刺出血风险。然而,尚需进一步的前瞻性临床研究以确定其常规定位。