Assessing the biomechanics of scheuermann’s kyphosis affected thoracolumbar spine in forward flexion at the tissue-level using a finite element model - Wan, Chunli; Shen, Xiaowen; Wu, Xixi; Yu, Cui; Shao, Yi; Zhang, Ruiping; Shang, Jiao; Li, Jianan; Zhang, Yuting; Li, Yongqiang (Scientific reports, 2025)
Keywords: 631/1647; 692/308; Adult; Back pain; Biomechanical Phenomena; Biomechanics; Body mass index; Boundary conditions; Cartilage (articular); Computed tomography; Disease; Electromyography; Female; Finite Element Analysis; Finite element validation; Force; Humanities and Social Sciences; Humans; Independent sample; Integrated approach; Intervertebral discs; Kinematics; Kyphosis; Kyphosis - physiopathology; Low back pain; Lumbar Vertebrae - diagnostic imaging; Lumbar Vertebrae - physiopathology; Male; Mathematical models; Mechanical properties; Middle Aged; Motion capture; multidisciplinary; Musculoskeletal dynamics; Nucleus pulposus; Patients; Range of Motion, Articular; Scheuermann Disease - diagnostic imaging; Scheuermann Disease - physiopathology; Scheuermann’s disease; Science; Science (multidisciplinary); Simulation; Spinal biomechanics; Spine; Stress; Thoracic Vertebrae - diagnostic imaging; Thoracic Vertebrae - physiopathology; Thoracolumbar kyphosis; Vertebrae; Von mises stress; Young Adult; United States--US; Spinal biomechanics; Scheuermann’s disease; Low back pain; Von mises stress; Thoracolumbar kyphosis; Musculoskeletal dynamics; Finite element validation