Spinal Fixation
Spinal fixation aims to stabilize fractured or weakened vertebrae, primarily using pedicle screws. Current research focuses on improving the accuracy and safety of screw placement through advancements in robotic surgery, including steerable drilling robots and flexible pedicle screws designed to navigate challenging bone structures, often using image-guided planning and augmented reality interfaces. These innovations leverage techniques like finite element analysis for biomechanical modeling and computer vision algorithms (e.g., YOLOv5) for image segmentation to enhance precision and minimize complications such as nerve damage. Ultimately, these efforts seek to improve surgical outcomes and reduce the failure rate of spinal fixation, particularly in patients with osteoporosis.
Papers
A Patient-Specific Framework for Autonomous Spinal Fixation via a Steerable Drilling Robot
Susheela Sharma, Sarah Go, Zeynep Yakay, Yash Kulkarni, Siddhartha Kapuria, Jordan P. Amadio, Mohsen Khadem, Nassir Navab, Farshid Alambeigi
Towards Biomechanical Evaluation of a Transformative Additively Manufactured Flexible Pedicle Screw for Robotic Spinal Fixation
Yash Kulkarni, Susheela Sharma, Jordan P. Amadio, Farshid Alambeigi
Spatial Spinal Fixation: A Transformative Approach Using a Unique Robot-Assisted Steerable Drilling System and Flexible Pedicle Screw
Susheela Sharma, Yash Kulkarni, Sarah Go, Jeff Bonyun, Jordan P. Amadio, Maryam Tilton, Mohsen Khadem, Farshid Alambeigi