A short Note on Design Aspect of A Mini Robot for Remote Surgical Operation

Volume 4, Issue 1, February 2023     |     PP. 70-78      |     PDF (232 K)    |     Pub. Date: November 19, 2016
DOI:    394 Downloads     37095 Views  

Author(s)

RajKrishna Paul, Free Lancer Computer Design India, Previously Dept of Mech Engg, UNL, USA
Subir Paul, Professor Dept of Material Engg, Jadavpur University , Kolkata

Abstract
A mini robot for operation into the patient body is designed , based on CAD and Solid works that can help surgeons to assist in surgeries, increase their dexterity and assist them with more reliable operations to the patients. The stress analysis was done to arrive at optimum parameters of the design. The robot manufactured has two arms with 4 degree of freedom (4DOF). The robot has 2 arms with each arm consisting of a torso, upper arm and a forearm with end effector (grasper). A 2DOF shoulders joint located between the torso and the upper arm provides yaw and pitch. The materials used were biocompatible. This system will use stainless steel for driver and driven pulleys, similar to a conveyor belt. The belt is cylindrical in shape and is made of Nitinol, which is a biocompatible material. The cost of the robot is found out around $1200.

Keywords
Medical Surgery; Robotic design ; Degree of freedom; Biocompatible material ;

Cite this paper
RajKrishna Paul, Subir Paul, A short Note on Design Aspect of A Mini Robot for Remote Surgical Operation , SCIREA Journal of Mechanical Engineering. Volume 4, Issue 1, February 2023 | PP. 70-78.

References

[ 1 ] Tyler Wortman. “Design Analysis and Testing of In-Vivo Surgical Robots”. Mechanical and Materials Engineering Department, the University of Nebraska-Lincoln. (2011.)
[ 2 ] G. B Richard., J. K. Nisbett. “Shigley’s Mechanical Engineering Design 9th Edition”. New York: McGraw Hill, (2011)
[ 3 ] M. Ashby, H. Shercliff, D. Cebon. Materials, Engineering, Science, Processing and Design 2nd Edition, Burlington: Elsevier,(2010)
[ 4 ] “Friction and Coefficient of Friction”. EngineeringToolbox.com. Web., (2012)
[ 5 ] A. N. Carl Introduction to Biocompatibility. A Prime on Engineering Design of Biomedical Device. University of Nebraska-Lincoln, (2009)
[ 6 ] L Yunhui. , S.Dong Biologically Inspired Robotics. London: CRC Press (2006)
[ 7 ] Y. Bellouard. Micro Robotics Methods and Application. Florida: CRC Press, (2010)
[ 8 ] H. Asada, J.-J. E. Slotine. Robot Analysis and Control. Canada: John Wiley & Sons, Inc. , (1986)
[ 9 ] H. Asada, K. Y. Toumi. Direct Drive Robots Theory and Practice. Massachusetts: The MIT Press, (1987)
[ 10 ] J. M Michael. , M.Constantinos , P.Charles , “Design and Dynamic of A Shape Memory Alloy Wire Bundle Actuator”. Department of Mechanical and Aerospace Engineering Rutgers University. Web (2012)