DocumentCode
1717359
Title
Development of wire-driven laparoscopic surgical robotic system, “MU-LapaRobot”
Author
Direkwatana, Chawaphol ; Suthakorn, Jackrit ; Wilasrusmee, Chumpon
Author_Institution
Dept. of Biomed. Eng., Mahidol Univ., Nakorn Pathom, Thailand
fYear
2011
Firstpage
485
Lastpage
490
Abstract
This paper describes the design and development of a new wire-driven laparoscopic surgical robotic system. The aim of our design is to develop a surgical robotic system to work with traditional surgical tools to reduce the surgeon´s learning curve in using our robotic system. The overall design is strictly based on surgical requirements which our specific workspace analysis also plays an important role. The motion of laparoscopic tool creates a unique constraint which is a remote-fulcrum point away from the robot at the small incision on abdominal wall. Our robot consists of 3 sections; 1) 2-link passive planar manipulator with level adjuster for locating the fulcrum point in 3D-space, 2) 2-DOF distant-parallel mechanical linkage for generating a cone-shape workspace, and 3) tool´s quick release for switching tool during the surgery. Our current study and mechanical design is based on our first design of “A Passive Laparoscopic Tool Holder with Electromagnetic Brake System” in full motion constraint. The new design is a wire-driven and motorized system. The design, implementation, experiment and results are discussed here. The ultimate goal of this project is to develop an interchangeable surgical robots which capable of human-robot collaboration and tele-operation.
Keywords
brakes; diseases; end effectors; human-robot interaction; medical robotics; surgery; telerobotics; wires; 2-DOF distant parallel mechanical linkage; 2-link passive planar manipulator; 3D-space; MU-LapaRobot; abdominal wall; cone-shape workspace; electromagnetic brake system; human-robot collaboration; level adjuster; mechanical design; motion constraint; passive laparoscopic tool holder; remote fulcrum point; specific workspace analysis; surgeon learning curve; surgical tools; teleoperation; wire-driven laparoscopic surgical robotic system; Actuators; Instruments; Joints; Minimally invasive surgery; Robot kinematics; Laparoscopic Surgical Robot; Robot Design; Robot-Assisted Surgery; Surgical Robots; Workspace;
fLanguage
English
Publisher
ieee
Conference_Titel
Robotics and Biomimetics (ROBIO), 2011 IEEE International Conference on
Conference_Location
Karon Beach, Phuket
Print_ISBN
978-1-4577-2136-6
Type
conf
DOI
10.1109/ROBIO.2011.6181333
Filename
6181333
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