Simulating Global Motion of the Brain in Response to Trauma
This research constructs a three-dimensional (3D) topological model that comprehensively predicts the macroscopic movement of the brain within the skull [5]. The consideration of impact angles and cerebrospinal fluid dynamics highlights the unique forces of various injurious scenarios [1][6]. To accomplish these tasks, the project utilizes ANSYS LS-DYNA's finite element capabilities, which captures the nuanced interactions of the aforementioned factors derived through a series of differential equations. This holistic approach provides unprecedented insights into the brain's dynamic response to forces.
https://www.dynalook.com/conferences/17th-international-ls-dyna-conference-2024/biomedical-healthcare/villalobos_florida-atlantic-university.pdf/view
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Simulating Global Motion of the Brain in Response to Trauma
This research constructs a three-dimensional (3D) topological model that comprehensively predicts the macroscopic movement of the brain within the skull [5]. The consideration of impact angles and cerebrospinal fluid dynamics highlights the unique forces of various injurious scenarios [1][6]. To accomplish these tasks, the project utilizes ANSYS LS-DYNA's finite element capabilities, which captures the nuanced interactions of the aforementioned factors derived through a series of differential equations. This holistic approach provides unprecedented insights into the brain's dynamic response to forces.