Dikici Serkan, Aldemir Dikici Betül, Eser Hakan, Gezgin Erkin, Başer Özgün, Şahin Savaş, Yılmaz Bülent, Oflaz Hakan
a Department of Biomedical Engineering , Izmir Katip Celebi University , Izmir , Turkey.
b Department of Biomedical Technologies , Izmir Katip Celebi University , Izmir , Turkey.
Minim Invasive Ther Allied Technol. 2018 Jun;27(3):177-185. doi: 10.1080/13645706.2017.1341927. Epub 2017 Jun 22.
Hysterectomy, the most common major gynecological operation worldwide, consists of removal of the uterus and can be performed abdominally, vaginally, or laparoscopically. A uterine manipulator is a key device used for uterine manipulation and cannulation in hysterectomies. The challenges of conventional manipulators are to move the uterus in two distinct planes and to identify cervical landmarks during circular cut and coagulation.
In this study, a structural synthesis of the two degrees of freedom parallel manipulator was performed considering the constraints noted by surgeons. Computer-aided design and assembly of the manipulator, the cervicovaginal cap with LEDs, and the external parts were performed before rapid prototyping. The final design of the uterine manipulator was then manufactured from stainless steel and tested on an artificial uterus model using a test chamber.
This article presents the design, production and testing processes of an innovative manipulator with a motion capability up to 80° workspace both in the sagittal and coronal planes and an illumination system, easily detectable by the laparoscope, was successfully implemented on the manipulator's cervical cap in order to overcome the drawbacks of conventional uterine manipulators.
Despite all the current studies and uterine manipulators on the market, no research has incorporated all the features mentioned above.
子宫切除术是全球最常见的大型妇科手术,包括切除子宫,可通过腹部、阴道或腹腔镜方式进行。子宫操纵器是子宫切除术中用于子宫操纵和插管的关键设备。传统操纵器的挑战在于在两个不同平面移动子宫,并在环形切割和凝固过程中识别宫颈标志。
在本研究中,考虑外科医生指出的限制因素,对两自由度并联操纵器进行了结构综合。在快速成型之前,进行了操纵器、带发光二极管的宫颈阴道帽和外部部件的计算机辅助设计与组装。然后用不锈钢制造子宫操纵器的最终设计,并在使用测试腔的人工子宫模型上进行测试。
本文介绍了一种创新操纵器的设计、生产和测试过程,该操纵器在矢状面和冠状面的工作空间运动能力高达80°,并且在操纵器的宫颈帽上成功实现了一个易于腹腔镜检测的照明系统,以克服传统子宫操纵器的缺点。
尽管目前有所有相关研究以及市场上的子宫操纵器,但尚无研究具备上述所有特征。