Abstract
This study delves into the intricate mechanical behavior of subcellular organelles by employing a sophisticated 3D finite element model that embraces the principles of tensegrity structures. Tensegrity, a structural concept characterized by a balance of tension and compression elements, has been increasingly recognized as a crucial framework for understanding the dynamic nature of cellular components. Through our computational approach, we explore the biomechanical responses of subcellular organelles, shedding light on their structural integrity, deformation patterns, and overall mechanical functionality. The insights gained from thisstudy contribute to the growing understanding of cellular biomechanics, offering potential applications in fields such as cell biology, bioengineering, and medicine.
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