Titlebook: Medical Image Computing and Computer-Assisted Intervention - MICCAI 2003; 6th International Co Randy E. Ellis,Terry M. Peters Conference pr

漂亮才會(huì)豪華

CAJ

Simulation Studies for Predicting Surgical Outcomes in Breast Reconstructive Surgery system for the planning of breast reconstructive surgery will greatly enhance patient prognosis. In this paper, we present our computer simulations representing the reconstructed breast using idealized and realistic geometric models.

LAITY

Creditee

Simple Biomanipulation Tasks with “Steady Hand” Cooperative Manipulator configuration for cell manipulation is reported. Augmentation strategies for stable cooperative insertion of a micropipette in a mouse embryo are developed and preliminary experiments validating these strategies are presented. These preliminary experiments demonstrate promise of cooperative robotic augmentation in single cell manipulation tasks.

LARK

Campaign

0302-9743 Montr′ eal,Qu′ ebec,CanadaattheF- rmont Queen Elizabeth Hotel during November 15–18, 2003. This was the ?rst time the conference had been held in Canada. The proposal to host MICCAI 2003 originated from discussions within the Ontario Consortium for Ima- guided Therapy and Surgery, a multi-institutio

心神不寧

Pathology Growth Model Based on Particlesnted that overcomes different limitations of previous approaches. It allows for a realistic generation of both polyps and myomas protruding to different extents into the uterine cavity. The model incorporates several biological as well as mechanical factors, which influence the growth process and thus the appearance of the pathologies.

小平面

Real-Time Synthesis of Bleeding for Virtual Hysteroscopyck that the surgeon may be conducing to the virtual reality environment. And all this has to be performed in real-time, i.e. at frame-rate. In this paper we present a methodology for solving this particular problem and show preliminary results of real-time visualization of bleeding in a dynamic virtual reality environment.

前兆

A Biomechanical Model of the Liver for Reality-Based Haptic Feedbackdentation equipment for characterizing the biomechanical properties of the liver and formulated a hybrid nonlinear model that is valid in both low strain and high strain regions. The pig liver is simplified as the incompressible, isotropic, and homogeneous elastic material. This model will be the basis for a finite element model for the pig liver.

Inexorable