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Spinal disorders constitute a significant global health concern, impacting a substantial portion of the population. Clinical studies have consistently highlighted a significant relationship between muscle dysfunction and spinal disorders, emphasizing the crucial role of paraspinal muscles in the biomechanical functioning of the spine. Previous research from our group delving into the microstructural properties of paraspinal muscles in patients with spinal deformities revealed noteworthy mechanical and morphological anomalies. To expand on these findings, this project aims to develop a 3D finite element model of paraspinal muscles, exploring how morphological changes influence mechanical properties at the whole-muscle level. Integrating this muscle model into a comprehensive spine model is anticipated to yield invaluable insights into the biomechanical functioning of the spine in individuals with spinal deformities. These insights are anticipated to play a crucial role in advancing diagnostic and treatment approaches for spinal deformities, ultimately resulting in better patient outcomes and an improved quality of life.
Thomas Oxland
Universität Ulm
Engineering
Health and Related Sciences & Technology
The University of British Columbia
Globalink Research Award
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