Author/Authors :
Chepelev, Leonid The Ottawa Hospital Research Institute and the Department of Radiology - University of Ottawa - Ottawa - Ontario , Canada , Hodgdon, Taryn The Ottawa Hospital Research Institute and the Department of Radiology - University of Ottawa - Ottawa - Ontario , Canada , Gupta, Ashish The Ottawa Hospital Research Institute and the Department of Radiology - University of Ottawa - Ottawa - Ontario , Canada , Torres, Carlos The Ottawa Hospital Research Institute and the Department of Radiology - University of Ottawa - Ottawa - Ontario , Canada , Krishna, Satheesh The Ottawa Hospital Research Institute and the Department of Radiology - University of Ottawa - Ottawa - Ontario , Canada , Akyuz, Ekin The Ottawa Hospital Research Institute and the Department of Radiology - University of Ottawa - Ottawa - Ontario , Canada , Sheikh, Adnan The Ottawa Hospital Research Institute and the Department of Radiology - University of Ottawa - Ottawa - Ontario , Canada , Wang, Aili Faculty of Medicine - University of Ottawa - Ottawa, Canada , Mitsouras, Dimitrios Department of Radiology - Applied Imaging Science Lab - Brigham and Women’s Hospital - Boston - MA, USA
Abstract :
Medical 3D printing holds the potential of transforming personalized medicine by enabling the fabrication of
patient-specific implants, reimagining prostheses, developing surgical guides to expedite and transform surgical
interventions, and enabling a growing multitude of specialized applications. In order to realize this tremendous
potential in frontline medicine, an understanding of the basic principles of 3D printing by the medical professionals
is required. This primer underlines the basic approaches and tools in 3D printing, starting from patient anatomy
acquired through cross-sectional imaging, in this case Computed Tomography (CT). We describe the basic
principles using the relatively simple task of separation of the relevant anatomy to guide aneurysm repair. This is
followed by exploration of more advanced techniques in the creation of patient-specific surgical guides and
prostheses for a patient with extensive pleomorphic sarcoma using Computer Aided Design (CAD) software.
Keywords :
Precision Medicine , 3D Printing , Aneurysm repair , Cancer Segmentation , Computer-aided design , Orthopedic Surgery , Implant , Surgical Guide , Radiological Society of North America