Abstract
The introduction of surgical robots improves the quality of healthcare due to the minimal invasiveness, reduced pain of patients, improved efficiency, accuracy, and the efficacy of surgery. The majority of the existing surgical robotic systems are based on master–slave teleoperation mode. The emerging handheld collaborative control modes in robotic systems omit the teleoperation master, and instead use handheld intelligent controls to directly drive its actuator end in order to eliminate motion control uncertainties such as tremors. This chapter puts forward a novel kind of handheld robot system driven by magnetic actuators based on the magnetically suspended technology. The configuration analysis and the design method of magnetic bearing with current bias are presented, and then the analysis and method of the 1-DOF (Degree of Freedom), 3-DOF, and 4-DOF magnetic suspension-based robotic actuator systems are proposed in details.
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References
Taylor Fisher, Abbi Hamed, and Panagiotis Vartholomeos. 2014. Intraoperative magnetic resonance imaging-conditional robotic devices for therapy and diagnosis. Proceedings of the Institution of Mechanical Engineers, Part H: Journal of Engineering in Medicine.
Ren, H.L., and R. Denis. 2012. Multi-sensor data fusion in an integrated tracking system for endoscopic surgery. IEEE Transactions on Information Technology in Biomedicine 16 (1): 106–111.
Abbi Hamed, Sai Chun Tang, Hongliang Ren, et al. 2012. Advances in haptics, tactile sensing, and manipulation for robot-assisted minimally invasive surgery, noninvasive surgery, and diagnosis. Journal of Robotics 14.
Zhou Y., Ren H. L., and Max Meng Q.-H. 2013. Robotics in natural orifice transluminal endoscopic surgery. Journal of Mechanics in Medicine and Biology 13 (2): 1350044.
Wang J.L., Ren H.L., Lim C.M. 2014. Assisted transoral surgery with flexible robotics and navigation technologies: A review of recent progress and research challenges. Critical Reviews in Biomedical Engineering. (in press).
W.Y. Chen, Wu, X. Zhang, et al. 2011. Feasibility study on retinal vascular bypass surgery in isolated arterially perfused caprine eye model. Eye 25 (11): 1499–1503.
Glauco R Souza, Jennifer R Molina, Robert M Raphael, et al. 2010. Threedimensional tissue culture based on magnetic cell levitation. Nature Nanotechnology 5 (4): 291–296.
Stephenson, Emma, Laureen Jacquet, and Cristian Miere. 2012. Derivation and propagation of human embryonic stem cell lines from frozen embryos in an animal product-free environment. Nature Protocols 7 (7): 1366–1381.
Y. Paz. 2011. Ultrasound-guided, video-assisted transdiaphragmatic radiofrequency ablation for primary liver malignancy or metastatic nodules. Innovations: Technology and Techniques in Cardiothoracic and Vascular Surgery 6 (5): 337.
Tabares. Robert A MacLachlan, Brian C Becker, Jaime Cuevas de. 2012. IEEE Transactions on Robotics 28 (1): 195–212.
Hongliang Ren Jeffrey Stoll, and Pierre E. Dupont. 2012. Passive markers for tracking surgical instruments in real-time 3d ultrasound imaging. IEEE Transactions on Medical Imaging. (in press).
Win. Tun Latt, Richard C. de. 2011. IEEE Transactions on Biomedical Engineering 58 (9): 2694–2703.
Peter, L., Gehlbach Cheol Song and Jin U. Kang. 2012. Active tremor cancellation by a smart handheld vitreoretinal microsurgical tool using swept source optical coherence tomography. Optics express 20 (21): 23414–23421.
Berk Gonenc et al. 2016. Robot-assisted retinal vein cannulation with forcebased puncture detection: Micron versus the steady-hand eye robot. In Engineering in medicine and biology society (EMBC), 2016 IEEE Conference of the 38th Annual International, 5107–5111. IEEE.
G. Schweitzer, H. Bleuler, and A. traxler. 1997. Active magnetic bearing-foundation, performance and Application. (Yu Lie, Yuan Chongjun). Beijing: New: Times Press.
Schlageter, V., et al. 2001. Tracking system with five degrees of freedom using a 2D-array of Hall sensors and a permanent magnet. Sensors and Actuators A: Physical 92 (1): 37–42.
J.J. and Fan Y.H. 2012. Magnetically suspended inertial momentum wheel technology, national defense industry. (in Press).
S. Jiang, F. Sun, and J.L. Lou. 2015. Error analysis, and compensation of a high precision tendon-based MRI-compatible robot. Journal International Journal of Robotics & Automation 30 (4): 333–344.
F.Y. Xu, J.L. Hu, and X.S. Wang. 2014. Helix cable-detecting robot for cablestayed bridge: Design and analysis. Journal International Journal of Robotics & Automation 29 (4): 406–414.
K. Alipour, S.A.A. Moosavian, and Y. Bahramzadeh. 2008. Dynamics of wheeled mobile robots with flexible suspension: Analytical modeling and verification. Journal International Journal of Robotics & Automation 23 (4): 242–250.
Ren H.L., Sun J.L., and Yu H.B. 2015. Self-contained active axial drive device for medical applications. (China invention patent201510698290.6).
H. Liu. 2010. Study on magnetic bearing control methods and experiment of a novel configuration. Technical report Degree of Freedoms Magnetically Suspended Flywheel (in Chinese). Beijing, BeiHang University.
Ren H.L., Sun J.J., and Wu K.Y. 2015. Self-contained active radial drive device for medical application. (China invention patent201510698176.3).
X. Wang. 2011. Research on novel permanent magnet bias and passive magnetic bearings for magnetically suspended inertial actuators. Beijing.
Allaire Paul E. and JiangWei. 2010. Self sensing integrated system and method for determining the position of a shaft in a magnetic bearing. USA.
Fan Y.H. 2011. Experimental research on high stability and high precision control of magnetic bearing system for magnetically suspended flywheel used. Technical report Space. Beijing, BeiHang University.
Acknowledgements
This work was in part supported by the Singapore Academic Research Fund under Grant R-397-000-173-133 (Magnetically Actuated Micro-robotics) and National Natural Science Foundation of China NSFC grant 51405322.
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Sun, J., Ren, H. (2018). Design and Analysis of Magnetic Suspension Actuators in Medical Robotics. In: Ren, H., Sun, J. (eds) Electromagnetic Actuation and Sensing in Medical Robotics. Series in BioEngineering. Springer, Singapore. https://doi.org/10.1007/978-981-10-6035-9_5
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DOI: https://doi.org/10.1007/978-981-10-6035-9_5
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