设为首页 |  加入收藏
首页首页 期刊简介 消息通知 编委会 电子期刊 投稿须知 广告合作 联系我们
骶髂关节螺钉手术导航机器人系统设计及实验研究

Design and experimental research of a surgical navigation robotic system for sacro-iliac joint screw surgery

作者: 苏永刚  张维军  王豫 
单位:北京积水潭医院创伤骨科(北京100035)
关键词: 手术机器人;手术导航;骶髂关节;内固定 
分类号:
出版年·卷·期(页码):2013·32·4(331-335)
摘要:

目的 针对骶髂关节螺钉手术设计手术导航机器人系统,完成空间定位和路径导航,开展精度测试实验,检测系统定位的位置误差和角度误差。方法 本文开发手术导航机器人系统,利用基于透视视觉的双平面定位算法完成空间定位,利用串并混联结构的机器人完成路径导航。使用模型骨和尸体骨共完成模拟手术实验16例,通过术前规划与术后结果图片的重叠来评价手术导航机器人的系统精度。结果 本机器人系统最终测得的位置误差为(1.91±1.15)mm,角度误差为1.88°±0.915°。结论 本文开发的手术导航机器人可提高手术精度和手术安全性,并减少术中透视的使用。系统的平均误差能够满足骶髂关节手术的要求,但误差的标准差较大,需在后续研究中通过算法和系统优化来改善。

Objective To design a surgical navigation robotic system to fulfill spatial positioning and surgical path navigation for sacro-iliac joint screw surgery. Methods This robotic system used fluoroscopy-based bi-planar method for positioning and the serial-parallel hybrid robot for navigation. Sixteen cases of surgery simulation experiments were carried out,and the accuracy was calculated by overlapping the pre-operative planning images with post-operative result images. Results The position error of this system was (1.91±1.15)mm,while the angular error was 1.88°±0.915°. Conclusions The surgical navigation robotic system improved the accuracy and safety,and effectively reduced the usage of intra-operative fluoroscopy. The mean error satisfied the requirement for sacro-iliac joint screw surgery,yet the standard deviation was relatively large which could be improved by algorithm and system optimization.

参考文献:


[1]Webb JE,Regev GL,Garfin SR,et al. Navigation-assisted fluoroscopy in minimally invasive direct lateral interbody fusion:a cadaveric study[J]. SAS Journal,2010,4:115-121.

[2]Gorek JE,Rolfe KW,Idler C. Minimally Invasive Surgery of the Spine:Less Is More[J]. Seminars in Spine Surgery,2011,23(1):2-8.

[3]Mobbs RJ,Sivabalan P,Li J.Minimally invasive surgery compared to open spinal fusion for the treatment of degenerative lumbar spine pathologies[J]. Journal of Clinical Neuroscience,2012,19(6):829-835.

[4]Sugano N. Computer-assisted orthopaedic surgery[J]. J Orthop Sci,2003,8:442-448.

[5]Pott PP,Scharf HP,Schwarz MLR. Today’s state of the art in surgical robotics[J]. Computer Aided Surgery,2005,10(2):101-132.

[6]Russell T,Dan S. Medical robotics in computer-integrated surgery[J]. IEEE Transactions on Robotics and Automation,2003,19(5):765-781.

[7]Schep NM,Broeders IA,van der Werken C. Computer assisted orthopaedic and trauma surgery,State of art and future perspectives[J]. Injury,2003,34:299-306.

[8]Gomes P. Surgical robotics:Reviewing the past,analyzing the present,imagining the future[J]. Robotics and Computer-Integrated Manufacturing,2010,27:261-266.

[9]Hassanein AH,Mailey BA,Dobke MK. Robot-assisted plastic surgery[J]. Clinics in Plastic Surgery,2012,39(4):419-424.

[10]Fine HF,Wei W,Goldman RE,et al. Robot-assisted ophthalmic surgery[J]. Canadian Journal of Ophthalmology,2010,45(6):581-584.

[11]Lee SL,Lerotic M,Vitiello V,et al. From medical images to minimally invasive intervention:computer assistance for robotic surgery[J]. Computerized Medical Imaging and Graphics,2010,34(1):33-45.

[12]Matta JM,Saucedo T. Internal fixation of pelvic ring fractures[J]. Clin Orthop,1989,242:83-97.

[13]Gautier E,Bachler R,Heini PF,et al. Accuracy of computer-guided screw fixation of the sacroiliac joint[J]. Clin Orthop,2001,393:310-317.

[14]王豫,贠超,张丰全,等. 双平面导航机器人系统在不同骨科适应症中的应用研究[J]. 机器人,2007,29(3):200-206.

Wang Yu,Yun Chao,Zhang Fengquan,et al. Application of the Bi-planar Navigation Robot System in Different Orthopedic Indications[J]. Robot,2007,29(3):200-206.

[15]Wang Yu,Yun Chao,Hu Lei,et al. Development of a compact orthopedic robot for distal locking of intramedullary nails[C]. Proceeding of The first International Conference on Complex Medical Engineering (CME2005):183-187.

服务与反馈:
文章下载】【加入收藏
提示:您还未登录,请登录!点此登录
 
友情链接  
地址:北京安定门外安贞医院内北京生物医学工程编辑部
电话:010-64456508  传真:010-64456661
电子邮箱:llbl910219@126.com