TY - JOUR
T1 - Deformable organ model using the sphere-filled method for virtual surgery
AU - Suzuki, Shigeyuki
AU - Suzuki, Naoki
AU - Hattori, Asaki
AU - Takatsu, Akihiro
AU - Uchiyama, Akihiko
PY - 2000
Y1 - 2000
N2 - We have been developing a virtual surgery simulation system that uses virtual reality techniques. In order to perform real-time simulation, we have to develop a deformable organ model. We made a method to create an elastic organ model by the nature of 'sphere-filled model'. This model is suited for real-time simulation and quantitative deformation. Furthermore, we equipped this model with a sense of touch a sense of force by connecting it to a force feedback device. With a patient's 3D image reconstructed from MRI, we will able to perform virtual surgery while taking into account individual differences in organ shape, blood vessel structures and so on. Normally, manipulations of an organ model were limited to the basic surgical manuevers. However, the model in initial stage becomes unmanageable when faced with complicated incisions. Therefore, we modified this model by using a new algorithm for organ deformation which permits various, complicated incisions. The modified sphere-filled model provided the system with a more realistic simulation of various organ manipulations in virtual space.
AB - We have been developing a virtual surgery simulation system that uses virtual reality techniques. In order to perform real-time simulation, we have to develop a deformable organ model. We made a method to create an elastic organ model by the nature of 'sphere-filled model'. This model is suited for real-time simulation and quantitative deformation. Furthermore, we equipped this model with a sense of touch a sense of force by connecting it to a force feedback device. With a patient's 3D image reconstructed from MRI, we will able to perform virtual surgery while taking into account individual differences in organ shape, blood vessel structures and so on. Normally, manipulations of an organ model were limited to the basic surgical manuevers. However, the model in initial stage becomes unmanageable when faced with complicated incisions. Therefore, we modified this model by using a new algorithm for organ deformation which permits various, complicated incisions. The modified sphere-filled model provided the system with a more realistic simulation of various organ manipulations in virtual space.
KW - Force feedback
KW - Incision
KW - Sphere-filled model
KW - Virtual reality
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U2 - 10.1109/IEMBS.2000.901286
DO - 10.1109/IEMBS.2000.901286
M3 - Article
AN - SCOPUS:0034444588
SN - 0589-1019
VL - 4
SP - 2416
EP - 2418
JO - Annual International Conference of the IEEE Engineering in Medicine and Biology - Proceedings
JF - Annual International Conference of the IEEE Engineering in Medicine and Biology - Proceedings
ER -