Page 456 - Biomedical Engineering and Design Handbook Volume 2, Applications
P. 456

434  SURGERY

                       156. Mittelstadt, B., et al., “Accuracy of Surgical Technique of Femoral Canal Preparation in Cementless Total
                           Hip Replacement,” in  Annual Meeting of  American  Acadamy of Orthopedic Surgeons,  1990, New
                           Orleans.
                       157. Mittelstadt, B., et al., “The Evolution of a Surgical Robot from Prototype to Human Clinical Use,” in
                           Computer-Integrated Surgery, R. H. Taylor et al., (eds.), 1996, MIT Press, Cambridge, Mass., pp. 397–407.
                       158. Bishoff, J. T., et al., “RCM-PAKY: Clinical application of a new robotics system for precise needle placement,”
                           Journal of Endourology, 1998, 12:S82.
                       159. Cadeddu, J. A., et al., “A Robotic System for Percutaneous Renal Access Incorporating a Remote Center
                           of Motion Design,” Journal of Endourology, 1998, 12:S237.
                       160. Stoianovici, D., J. A. Cadeddu, L. L. Whitcomb, R. H. Taylor, and L. R. Kavoussi, “A Robotic System for
                           Precise Percutaneous Needle Insertion,”  Thirteenth  Annual Meeting of the Society for Urology and
                           Engineering, 1988, San Diego.
                       161. Stoianovici, D., et al., “Friction  Transmission with Axial Loading and a Radiolucent Surgical Needle
                           Drive,” 1997, Johns Hopkins University (provisional patent application filed 17 February 1997).
                       162. Stoianovici, D., et al., “A Modular Surgical Robotic System for Image-Guided Percutaneous Procedures,”
                           in Medical Image Computing and Computer-Assisted Interventions (MICCAI-98), 1998, Cambridge,
                           Mass., Springer.
                       163. Berkelmann, P. J., et al., “Performance Evaluation of a Cooperative Manipulation Microsurgical Assistant
                           Robot  Applied to Stapedotomy,” in  Medical Image Computing and Computer-Assisted Interventions
                           (MICCAI 2001), 2001.
                       164. Stoianovici, D., et al., “A modular surgical robotic system for image guided percutaneous procedures,” in
                           International Conference on Medical Image Computing and Computer-Assisted Intervention. 1998,
                           Cambridge, Mass.
                       165. Barnes, A., H. Su, and W. Tam, “An End-Effector for Minimally Invasive Robot Assisted Surgery,” 1996,
                           Johns Hopkins University, Dept. of Mechanical Engineering, Baltimore.
                       166. Barnes, A., A modular robotic system for precise minimally invasive surgery, M.S. thesis, Mechanical
                           Engineering, The Johns Hopkins University, Baltimore, 1999.
                       167. Gomez-Blanco, M. A., C. N. Riviere, and P. K. Khosla, “Intraoperative instrument motion sensing for
                           microsurgery,” in Proc. 20th Annu. Conf. IEEE Eng. Med. Biol. Soc., 1999, Atlanta.
                       168. Taylor, R. H. and P. Kazanzides, “Medical Robotics and Computer-Integrated Interventional Medicine,” in
                           Biomedical Information Technology, D. Feng, (ed.), Elsevier, 2007, pp. 393–416.
                       169. Taylor, R. H. “A Perspective on Medical Robotics,”  IEEE Proceedings,  September 2006, 94:
                           1652–1664.
                       170. Kazanzides, P. “Robots for Orthopaedic Joint Reconstruction,” In: Robotics in Surgery: History, Current
                           and Future Applications, R. A. Faust, (ed.), Nova Science Publishers, 2007, pp. 61–94.
                       171. Proceedings of the 6-10th International Conference on Medical Image Computing and Computer Aided
                           Intervention. Lecture Notes in Computer Sciences, Springer-Verlag, 2003–2008.
                       172. Shoham, M. et al., “Robotic assisted spinal surgery—from concept to clinical practice,” Computer-Aided
                           Surgery, 2007, 12:105–115.
                       173. The  Aurora Electromagnetic Measurement System, Northern Digital, Inc., http://www.ndigital.com/
                           medical/aurora.php, 2008.
                       174. Flock of Birds, Ascension Technology Corporation, http://www.ascension-tech.com/products/flockofbirds.php,
                           2008.
                       175. AXIEM  TM  Electromagnetic  Tracking  Technology, Medtronic Surgical Navigation, http://www.
                           medtronicnavigation.com/procedures/navigation/tracking/axiem_electromagnetic_tracking.jsp, 2008.
                       176. Fischer, G. S. and R. H.  Taylor, “Electromagnetic  Tracker Measurement Error Simulation and  Tool
                           Design,” In: MICCAI, Palm Springs, CA, 2005, pp. 73–80.
                       177. Wu, X. and R. H. Taylor, “A Framework for Calibration of Electromagnetic Surgical Navigation Systems,”
                           in IROS, Las Vegas, 2003, pp. 547–552.
                       178. Banovac, F. et al., “Precision Targeting of Liver Lesions Using a Novel Electromagnetic Navigation Device
                           in Physiologic Phantom and Swine,” Medical Physics, August 2005, 32:2698–2705.
                       179. Poulin, F. and L. Amiot, “Electromagnetic Tracking in the OR: Accuracy and Sources of Intervention,” in
                           Proceedings of CAOS USA 2001, Pittsburgh, 2001, pp. 233–235.
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