3D Orthopaedics Lab
We are a discovery-driven research group working at the interface of orthopaedics, engineering, and personalized medicine. Our focus is on leveraging 3D technologies to advance treatments for musculoskeletal conditions, such as avascular necrosis, orthopaedic trauma, patellofemoral and upper extremity biomechanics and rehabilitation engineering. We combine cutting-edge imaging, surgical simulations, and computational modeling to design patient-specific instruments and techniques, aiming to optimize precision and improve outcomes in orthopaedic care. Ultimately, our work seeks to provide surgeons with innovative solutions tailored to the unique anatomical and clinical needs of each patient.
Research Areas
Our Team
Affiliate Organizations/Programs
- 3D Collaborative for Medical Innovation (3DC) The 3D Collaborative for Medical Innovation (3DC) at Yale supports researchers with specialized engineering and 3D printing services, particularly for medical imaging-based projects. Their offerings include digital model segmentation, anatomical model creation and modification, CAD for medical devices, and more.
- Yale Orthopaedics Biomechanics Laboratory The Yale Orthopaedics Biomechanics Laboratory is renowned for work delineating clinically relevant aspects of musculoskeletal injury. The Biomechanics Lab assesses the biomechanical properties of musculoskeletal tissues by providing services and technical assistance in a variety of biomechanical testing techniques.
- MS in Personalized Medicine and Applied Engineering The MS degree in Personalized Medicine & Applied Engineering provides medical students, biomedical, mechanical, and electrical engineers, and computer science majors with the tools to develop innovative 3D solutions for personalized medicine.
Selected Publications
- Newest First
- Most Cited
- Most Discussed
Showing 1 - 11 results of 11 publications
- Analyzing Alignment Error in Tibial Tuberosity–Trochlear Groove Distance in Clinical Scans Using 2D and 3D MethodsSieberer J, Park N, Rancu A, Desroches S, McDonald C, Manafzadeh A, Tommasini S, Wiznia D, Fulkerson J. Analyzing Alignment Error in Tibial Tuberosity–Trochlear Groove Distance in Clinical Scans Using 2D and 3D Methods. The American Journal Of Sports Medicine 2024, 52: 2996-3003. PMID: 39320426, DOI: 10.1177/03635465241279852.
- Fabricating patient-specific 3D printed drill guides to treat femoral head avascular necrosisBell C, Feizi A, Roytman G, Ramji A, Tommasini S, Wiznia D. Fabricating patient-specific 3D printed drill guides to treat femoral head avascular necrosis. 3D Printing In Medicine 2024, 10: 10. PMID: 38564090, PMCID: PMC10986134, DOI: 10.1186/s41205-024-00208-z.
- Using Computed Tomography-Based Three-dimensional Modeling and Computer Navigation for Minimally Invasive Core Decompression and Adjuvant Orthobiologic Therapy of Femoral Head Avascular NecrosisFeizi A, Bell C, Roytman G, Park N, Wang A, Tommasini S, Wiznia D. Using Computed Tomography-Based Three-dimensional Modeling and Computer Navigation for Minimally Invasive Core Decompression and Adjuvant Orthobiologic Therapy of Femoral Head Avascular Necrosis. Arthroplasty Today 2024, 26: 101337. PMID: 38497084, PMCID: PMC10940782, DOI: 10.1016/j.artd.2024.101337.
- The feasibility of a novel 3D-Printed patient specific cutting guide for extended trochanteric osteotomiesBergemann R, Roytman G, Ani L, Ramji A, Leslie M, Tommasini S, Wiznia D. The feasibility of a novel 3D-Printed patient specific cutting guide for extended trochanteric osteotomies. 3D Printing In Medicine 2024, 10: 7. PMID: 38427157, PMCID: PMC10905807, DOI: 10.1186/s41205-024-00204-3.
- An analytical model of lateral condylar plate working lengthRoytman G, Beitler B, LaMonica J, Spero M, Toy K, Ramji A, Yoo B, Leslie M, Baumgaertner M, Tommasini S, Wiznia D. An analytical model of lateral condylar plate working length. Clinical Biomechanics 2023, 110: 106129. PMID: 37871506, PMCID: PMC10848195, DOI: 10.1016/j.clinbiomech.2023.106129.
- Three-Dimensional Printing of Models of Patellofemoral Joint Articular Cartilage in Patients With Patella Instability for Observing Joint CongruityBeitler B, Kunsel K, Yu K, Wang A, Tommasini S, Wiznia D, Fulkerson J. Three-Dimensional Printing of Models of Patellofemoral Joint Articular Cartilage in Patients With Patella Instability for Observing Joint Congruity. Arthroscopy Techniques 2023, 12: e1853-e1858. PMID: 37942111, PMCID: PMC10628265, DOI: 10.1016/j.eats.2023.06.016.
- Simulating movements of daily living in robot-assisted total hip arthroplasty with 3D modellingTung W, Donnelley C, Pour A, Tommasini S, Wiznia D. Simulating movements of daily living in robot-assisted total hip arthroplasty with 3D modelling. Bone & Joint Open 2023, 4: 416-423. PMID: 37263587, PMCID: PMC10234721, DOI: 10.1302/2633-1462.46.bjo-2023-0046.r1.
- Three-Dimensional Printing of the Patellofemoral Joints of Patellar Instability PatientsBeitler B, Yu K, Wang A, Frumberg D, Tommasini S, Wiznia D, Cooperman D, Lattanza L, Fulkerson J. Three-Dimensional Printing of the Patellofemoral Joints of Patellar Instability Patients. Arthroscopy Techniques 2023, 12: e401-e406. PMID: 37013007, PMCID: PMC10066413, DOI: 10.1016/j.eats.2022.11.023.
- Personalizing Revision Tibial Baseplate Position and Stem Trajectory With Custom Implants Using 3D Modeling to Optimize Press-fit Stem PlacementCooperman C, Wiznia D, Kunsel K, Roytman G, Ani L, Pratola D, Lee GC, Tommasini S, Bernstein J. Personalizing Revision Tibial Baseplate Position and Stem Trajectory With Custom Implants Using 3D Modeling to Optimize Press-fit Stem Placement. Arthroplasty Today 2022, 18: 45-51. PMID: 36267389, PMCID: PMC9576531, DOI: 10.1016/j.artd.2022.08.011.
- Finite Element Evaluation of the Femoral Neck System as Prophylactic Fixation to Prevent Contralateral Hip FracturesLaMonica J, Rhee B, Milligan K, Leslie M, Tommasini S, Wiznia D. Finite Element Evaluation of the Femoral Neck System as Prophylactic Fixation to Prevent Contralateral Hip Fractures. Geriatric Orthopaedic Surgery & Rehabilitation 2022, 13: 21514593221135117. PMID: 36393901, PMCID: PMC9661561, DOI: 10.1177/21514593221135117.
- Accuracy of guide wire placement for femoral neck stabilization using 3D printed drill guidesRoytman GR, Ramji AF, Beitler B, Yoo B, Leslie MP, Baumgaertner M, Tommasini S, Wiznia DH. Accuracy of guide wire placement for femoral neck stabilization using 3D printed drill guides. 3D Printing In Medicine 2022, 8: 19. PMID: 35781846, PMCID: PMC9254431, DOI: 10.1186/s41205-022-00146-8.
News
- October 30, 2024
Medicine and Engineering Converge Over Advanced Technology in Master’s Program
- August 07, 2024
Grant to Help Team Develop Dynamic 3D Tumor Analysis
- November 15, 2023Source: Yale Medicine
How Hyperbaric Oxygen Helps Treat Avascular Necrosis
- October 05, 2022Source: Yale Medicine
Avoiding Hip Replacement: How Stem Cells Can Treat Avascular Necrosis
- July 26, 2019Source: Yale Medicine
How 3D Printing and Modeling are Changing Joint Replacement Surgery