The Ohio State University

The University of Toledo

Walker, Jason, M.

Skoracki, Roman

Moghaddam, Narges, Shayesteh

Dean, Howard, David

Sutradhar, Alok

Haberland, Christoph

Elahinia, Mohammad, H.

Miller, Michael, J.

Roman Skoracki

Mohammad H Elahinia

Howard David Dean

Christoph Haberland

Jason M Walker

Narges Shayesteh Moghaddam

Alok Sutradhar

Michael J Miller

A device used in conjunction with fixation hardware to provide a two-stage process to address the competing needs of immobilization and re-establishment of normal stress-strain trajectories in grafted bone. A method of determining a patient-specific stress/strain pattern that utilizes a model based on 3D CT data of the relevant structures and cross-sectional data of the three major chewing muscles. The forces on each of the chewing muscles are determined based on the model using predetermined bite forces such that a stiffness of cortical bone in the patient's mandible is determined. Based on the stiffness data, suitable implantation hardware can be designed for the patient by adjusting external topological and internal porous geometries that reduce the stiffness of biocompatible metals to thereby restore normal bite forces of the patient. A method of 3D printing nitinol to create a patient-specific device to facilitate the establishment of a normal stress-strain trajectory in grafted bone.

Methods, devices, and manufacture of the devices for musculoskeletal reconstructive surgery

A device used in conjunction with fixation hardware to provide a two-stage process to address the competing needs of immobilization and re-establishment of normal stress-strain trajectories in grafted bone. A method of determining a patient-specific stress/strain pattern that utilizes a model based on 3D CT data of the relevant structures and cross-sectional data of the three major chewing muscles. The forces on each of the chewing muscles are determined based on the model using predetermined bite forces such that a stiffness of cortical bone in the patient's mandible is determined. Based on the stiffness data, suitable implantation hardware can be designed for the patient by adjusting external topological and internal porous geometries that reduce the stiffness of biocompatible metals to thereby restore normal bite forces of the patient.

Growing community of inventors

Columbus, OH, United States of America

Roman Skoracki