Single-level subject-specific finite element model can predict fracture outcomes in three-level spine segments under different loading rates - Rezaei, Asghar; Tilton, Maryam; Li, Yong; Yaszemski, Michael J.; Lu, Lichun (Computers in biology and medicine, 2021)
Keywords: Absorptiometry; Absorptiometry, Photon; Biomechanics; Biomedical materials; Bone Density; Bone mineral density; Bones; Boundary conditions; Compression; Computed tomography; Degeneration; Dual energy X-ray absorptiometry; Energy; Finite Element Analysis; Finite element method; Fracture strength; Fractures; Fractures, Compression - diagnostic imaging; Humans; Internal Medicine; Loading rate; Material characterization; Mathematical models; Mechanical loading; Mechanical properties; Metastases; Metastasis; Modulus of elasticity; Osteoporosis; Other; Physiology; QCT/FEA; Risk assessment; Segments; Software; Spinal Fractures - diagnostic imaging; Spine; Statistical models; Stiffness; Trauma; Vertebrae; Vertebral augmentation; Vertebral fracture; Ann Arbor Michigan; United States--US; Vertebral fracture; Material characterization; QCT/FEA; Vertebral augmentation; material characterization; vertebral augmentation