Our goal is to develop a software workstation to assist in performing femoral augmentation for osteoporotic patients. The surgical procedure consists of a series of bone cement injections into the femur. The bone augmentation system features preoperative biomechanical planning to determine the most advantageous cement injection site(s) and injection protocol to increase the strength of the femur. During the surgery, we will navigate the injection device and inraoperatively reconstruct virtual models of the injected cement. The injected cement models can be used to update the injection protocol intraoperatively.
This image guided percutaneous femoroplasty system can be divided into three main phases:
For preoperative evaluation we conduct finite element analysis of the biomechanics of the femur from CT image sets.For intraoperative evaluation we are reconstructing 3D model of the bone cement from 2D X-ray projections. During intraoperative evaluation we optimize registration estimates with multi-image optimization
Name | Institution | Affiliation |
---|---|---|
Dr. Mehran Armand | Applied Physics Lab | Principal Investigator |
Dr. Russell Taylor | Johns Hopkins University | Principal Investigator |
Dr. Peter Kazanzides | Johns Hopkins University | Principal Investigator |
Dr. Yoshito Otake | Johns Hopkins University | Post-Doc |
Michael Kutzer | Applied Physics Lab | Research Scientist |
Robert Armiger | Applied Physics Lab | Research Scientist |
Ryan Murphy | Applied Physics Lab | Research Scientist |
Ehsan Basafa | Johns Hopkins University | Graduate student |
Blake Lucas | Johns Hopkins University | Graduate student |
Ben Xin Kang | University of Hong Kong | Graduate student |
Wen P. Liu | Johns Hopkins University | Graduate student |
* NIH
* ERC/LCSR