1.Application and overview of image guided surgery system.
Wenkui SU ; Yuli ZHANG ; Dongmei LI ; Zhaoying ZHOU
Chinese Journal of Medical Instrumentation 2010;34(4):284-288
This paper introduces the development and the key technology of image guided Surgery Systems (IGSS) and analyses its prospect in this paper. IGSS can be used in clinical surgery as an assistant tool, and it would be an advanced medical equipment combined with medical robotics.
Robotics
;
Surgery, Computer-Assisted
;
instrumentation
;
methods
2.Key technologies and implementation of the medical equipment road transportation simulation platform based on 6-DOF parallel robots.
Yidong PEI ; Baoqing PEI ; Hui LI ; Yubo FAN
Chinese Journal of Medical Instrumentation 2013;37(1):44-48
In view of the shortage of medical equipment road transportation simulation platform, we put forward a road transportation simulation method based on 6-DOF parallel robots. A 3D road spectrum model was built by the improvement of the harmonic superposition method. The simulation model was then compared with the standard model to verify its performance. Taking the road spectrum as the excitation, we could get the robot motion data to control the parallel robot through the S-shaped linear interpolation of the absolute position. It can simulate the movement of vehicles with different speed under various road conditions efficiently and accurately.
Equipment Design
;
Motor Vehicles
;
Robotics
;
instrumentation
;
Transportation
;
instrumentation
;
methods
3.Robotic Surgery in Gynecologic Field.
Young Tae KIM ; Sang Wun KIM ; Yong Wook JUNG
Yonsei Medical Journal 2008;49(6):886-890
Operative laparoscopy was initially developed in the field of gynecology earlier on and the advent of laparoscopic surgery led to advances in general surgery as well. In the last few years, a number of articles have been published on the performance of surgical procedures using the robot-assisted laparoscopy. The shortcomings of conventional laparoscopy have led to the development of robotic surgical system and future of telerobotic surgery is not far away, enabling a surgeon to operate at a distance from the operating table. The complete loss of tactile sensation is often quoted as a big disadvantage of working with robotic systems. Although the first generation da Vinci robotic surgical system provides improved imaging and instrumentation, the absence of tactile feedback and the high cost of the technology remain as limitations. New generations of the robotic surgical systems have been developed, allowing visualization of preoperative imaging during the operation. Though the introduction of robotics is very recent, the potential for robotics in several specialties is significant. However, the benefit to patients must be carefully evaluated and proven before this technology can become widely accepted in the gynecologic surgery.
Female
;
Gynecologic Surgical Procedures/instrumentation/*methods
;
Humans
;
Hysterectomy/instrumentation/methods
;
Robotics/instrumentation/*methods
5.An overview of robot-assisted percutaneous surgery systems.
Chinese Journal of Medical Instrumentation 2007;31(5):362-366
This paper introduces a new robot-assisted percutaneous surgery system, its structure and the functions of each subsystems. In addition, a discussion about some foreign systems is made and the technical developing trend of robot-assisted percutaneous surgery systems is given.
Minimally Invasive Surgical Procedures
;
instrumentation
;
Robotics
;
Surgery, Computer-Assisted
;
methods
7.The recent study and key technologies of an aided endoscopic surgical robot system.
Jiang-an ZHANG ; Liang-ming LIN ; Guo-min WANG
Chinese Journal of Medical Instrumentation 2002;26(1):54-58
This paper introduces the recent study and development of an aided endoscopic surgical robot system, and discusses its future trends--teleoperative robot system and telesurgery system. In addition, their key technologies are analyzed here in the paper.
Angioscopy
;
Endoscopy
;
methods
;
trends
;
Humans
;
Laparoscopy
;
Robotics
;
instrumentation
;
trends
;
Surgery, Computer-Assisted
;
instrumentation
;
Telemedicine
;
instrumentation
;
Thoracoscopy
8.Overview of the vascular interventional surgery robot.
Shenglin LI ; Jie SHEN ; Yonghua YAN ; Daguo CHEN
Chinese Journal of Medical Instrumentation 2013;37(2):119-122
In vascular invasive surgery procedures, because doctors suffered from a large number of X-ray radiation, and it is difficult to manipulate catheter, so vascular interventional robot has been rapidly developed. On the basis of analysis of vascular surgical intervention process, key technologies of vascular interventional surgical robots are provided. The image navigation system, the mechanical structure, control systems and force feedback are also analyzed.
Equipment Design
;
Robotics
;
instrumentation
;
methods
;
Surgery, Computer-Assisted
;
instrumentation
;
methods
;
Vascular Surgical Procedures
9.Yonsei Experience in Robotic Urologic Surgery-Application in Various Urological Procedures.
Sung Yul PARK ; Wooju JEONG ; Young Deuk CHOI ; Byung Ha CHUNG ; Sung Joon HONG ; Koon Ho RHA
Yonsei Medical Journal 2008;49(6):897-900
PURPOSE: The da Vinci(R) robot system has been used to perform complex reconstructive procedures in a minimally invasive fashion. Robot-assisted laparoscopic radical prostatectomy has recently established as one of the standard cares. Based on experience with the robotic prostatectomy, its use is naturally expanding into other urologic surgeries. We examine our practical pattern and application of da Vinci(R) robot system in urologic field. PATIENTS AND METHODS: Robotic urologic surgery has been performed during a period from July 2005 to August 2008 in a total of 708 cases. Surgery was performed by 7 operators. In our series, radical prostatectomy was performed in 623 cases, partial nephrectomy in 43 cases, radical cystectomy in 11 cases, nephroureterectomy in 18 cases and other surgeries in 15 cases. RESULTS: In the first year, robotic urologic surgery was performed in 43 cases. However, in the second year, it was performed in 164 cases, and it was performed in 407 cases in the third year. In the first year, only prostatectomy was performed. In the second year, partial nephrectomy (2 cases), nephroureterectomy (3 cases) and cystectomy (1 case) were performed. In the third year, other urologic surgeries than prostatectomy were performed in 64 cases. The first robotic surgery was performed with long operative time. For instance, the operative time of prostatectomy, partial nephrectomy, cystectomy and nephroureterectomy was 418, 222, 340 and 320 minutes, respectively. Overall, the mean operative time of prostatectomy, partial nephrectomy, cystectomy and nephrourectectomy was 179, 173, 309, and 206 minutes, respectively. CONCLUSION: Based on our experience at a single-institution, robot system can be used both safely and efficiently in many areas of urologic surgeries including prostatectomy. Once this system is familiar to surgeons, it will be used in a wide range of urologic surgery.
Aged
;
Cystectomy/instrumentation/methods
;
Female
;
Humans
;
Korea
;
Male
;
Middle Aged
;
Nephrectomy/instrumentation/methods
;
Prostatectomy/instrumentation/methods
;
Prostatic Neoplasms/surgery
;
Robotics/instrumentation/*methods
;
Urologic Surgical Procedures/instrumentation/*methods
10.Analysis of key vision position technologies in robot assisted surgical system for total knee replacement.
Zijian ZHAO ; Yuncai LIU ; Xiaojuan WU ; Hongjian LIU
Journal of Biomedical Engineering 2008;25(1):30-34
Robot assisted surgery is becoming a widely popular technology and is now entering the total knee replacement. The development of total knee replacement and the operation system structure are introduced in this paper. The vision position technology and the related calibration technology, which are very important, are also analyzed. The experiments of error analysis in our WATO system demonstrate that the position and related calibration technologies have a high precision and can satisfy surgical requirement.
Arthroplasty, Replacement, Knee
;
instrumentation
;
methods
;
Humans
;
Pattern Recognition, Automated
;
methods
;
Robotics
;
instrumentation
;
Surgery, Computer-Assisted
;
instrumentation
;
methods