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COMPUTER-INTEGRATED SURGERY AND MEDICAL ROBOTICS  427

                            Within the area of telesurgery, the commercially deployed Da Vinci Surgical System (Intuitive
                          Surgical, Mountain  View, California) has won widespread acceptance, with over 400 systems
                          deployed for a variety of laparoscopic procedures, including heat surgery and prostatectomies. 219–221
                          Another recently deployed commercial telesurgical system (Artisen System, Hansen Medical, Palo
                          Alto, California) is used for manipulating ablation catheters inside the heart. 222
                            Finally, there are several ongoing efforts within the medical robotics and computer-assisted surgery
                          community to develop common open-source software environments to facilitate research. 223–225


              ACKNOWLEDGMENTS

                          Any survey or critical summary must necessarily draw upon the work of many people. We would
                          like especially to acknowledge the contributions of many colleagues over the past decade who have
                          helped develop an evolving shared understanding of medical robotics and computer-integrated
                          surgery. We are especially grateful to those individuals who generously provided photographs and
                          other information about the specific systems that we have used as examples. In some cases, these
                          colleagues have also worked with us in developing some of these systems.
                            We also gratefully acknowledge the many agencies and organizations that have contributed finan-
                          cial and other support to the development of much of the work that we have reported. The National
                          Science Foundation supports the Engineering Research Center for Computer-Integrated Surgical
                          Systems and Technology under cooperative agreement number EEC9731478. Further support has
                          been provided by other NSF grants, the National Institutes of Health, the Whitaker Foundation, IBM
                          Corporation, Integrated Surgical Systems, the Johns Hopkins University, and numerous other gov-
                          ernment, industry, and academic sources. We also acknowledge the partial support of the Israeli
                          Ministry of Trade and Industry, through the IZMEL Consortium for Image-Guided Therapy.



              REFERENCES

                           1. Taylor, R. H., et al., “An Image-directed Robotic System for Precise Orthopedic Surgery,”  IEEE
                              Transactions on Robotics and Automation, 1994, 10(3):261–275.
                           2. Mittelstadt, B. D., et al., “The Evolution of a Surgical Robot from Prototype to Human Clinical Trial,”
                              Proc. Medical Robotics and Computer Assisted Surgery, 1994, Pittsburgh.
                           3. Paul, H., et al., “Accuracy of Implant Interface Preparation: Hand-held Broach vs. Robot Machine Tool,”
                              Proc. Orthopedic Research Society, 1992, Washington, D.C.
                           4. Joskowicz, L., and R. H. Taylor, “Preoperative Insertability Analysis and Visualization of Custom Hip
                              Implants,”  1st International Symposium on Medical Robotics and Computer  Assisted Surgery, 1994,
                              Pittsburgh.
                           5. Bauer, A., “Primary THR Using the ROBODOC System,” CAOS/USA, 1999, Pittsburgh.
                           6. Joskowicz, L., et al., “Computer Integrated Revision Total Hip Replacement Surgery: Preliminary Report,”
                              Second  Annual International Symposium on Medical Robotics and Computer  Assisted Surgery, 1995,
                              Baltimore.
                           7. Taylor, R. H., et al., “Computer-Integrated Revision  Total Hip Replacement Surgery: Concept and
                              Preliminary Results,” Medical Image Analysis, 1999, 3(3):301–319.
                           8. Smith, K. R., K. J. Frank, and R. D. Bucholz, “The Neurostation—a highly accurate minimally invasive
                              solution to frameless stereotactic neurosurgery,” Comput. Med. Imaging Graph., 1994, 18:247–256.
                           9. Levoy, M., “Efficient ray tracing of volume data,” ACM Transactions on Graphics, 1990, 9:245–261.
                          10. Lorensen,  W. E., and H. E. Cline, “Marching Cubes: a high resolution 3D surface reconstruction
                              algorithm,” Computer Graphics, 1987, 21:163–169.
                          11. Hohne, K. H., M. Bomans, and M. Reimer, “A 3D anatomical atlas based on a volume model,” IEEE
                              Computer Graphics and Applications, 1992, 2(1):72–78.
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