DocumentCode
2196918
Title
Muscle Model for Safe Minimally Invasive Surgery
Author
Nakamura, N. ; Yanagihara, M. ; Kawamura, Kei
Author_Institution
Grad. Sch. of Sci. & Technol., Waseda Univ., Tokyo
fYear
2006
fDate
17-20 Dec. 2006
Firstpage
1438
Lastpage
1443
Abstract
Minimally invasive surgery that is less safe for human beings cannot spread. We propose a system that avoids damaging the nerves and blood in the surgical approach to safe minimally invasive surgery. The system consists of a model of the operative part and a surgical manipulator. The model shows the pressure on the nerves and bloods in surgical procedure. The model requires precise measurement of the physical properties of soft tissue in the view of the surgical procedure. We propose new and precise model for muscle´s heterogeneity properties. In this paper a viscoelasticity test is examined to some muscle samples involved in a rectus femoris muscle. Approximating each result of heterogeneity properties to the three-elements model quantitatively showed the difference in the physical properties of each part. This precise three-elements model is build in a simulation of muscle behavior. Comparison of the indentation examinations between real muscle and the simulation confirmed the effectiveness of the parameters obtained from the viscoelasticity examination. The difference between the maximum forces of the indented simulated heterogeneity and homogeneity models is about 21%. The indented simulation resulted in a need for a heterogeneity model of muscle. In the near future proposed model will be based on the control of a surgical manipulator. Proposed system will provide safe minimally invasive surgery.
Keywords
haemodynamics; manipulators; medical robotics; muscle; surgery; viscoelasticity; minimally invasive surgery; muscle heterogeneity property; rectus femoris muscle; surgical manipulator; three-element model; viscoelasticity test; Biological tissues; Blood; Bones; Hip; Humans; Joints; Minimally invasive surgery; Muscles; Orthopedic surgery; Safety; Minimally invasive surgery; Muscle model; Physical property; Safe approach; Surgical manipulator;
fLanguage
English
Publisher
ieee
Conference_Titel
Robotics and Biomimetics, 2006. ROBIO '06. IEEE International Conference on
Conference_Location
Kunming
Print_ISBN
1-4244-0570-X
Electronic_ISBN
1-4244-0571-8
Type
conf
DOI
10.1109/ROBIO.2006.340140
Filename
4142077
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