Head acceleration measurement sensors are now widely deployed in the field to monitor
head kinematic exposure in contact sports. The wealth of impact kinematics data provides …

Computational models of the brain and its biomechanical response to skull accelerations
are important tools for understanding and predicting traumatic brain injuries (TBIs) …

Mechanical properties of brain tissue are very complex and vary with the species, region,
method, and dynamic range, and between in vivo and ex vivo measurements. To reconcile …

Age-related memory impairments have been linked to differences in structural brain
parameters, including the integrity of the hippocampus (HC) and its distinct hippocampal …

Aging and neurodegenerative diseases lead to decline in thinking and memory ability. The
subfields of the hippocampus (HCsf) play important roles in memory formation and recall …

Brain magnetic resonance elastography (MRE) is an imaging technique capable of
accurately and non-invasively measuring the mechanical properties of the living human …

Purpose Understanding how mechanical properties relate to functional changes in
glioblastomas may help explain different treatment response between patients. The aim of …

Magnetic resonance elastography is a relatively new, rapidly evolving quantitative magnetic
resonance imaging technique which can be used for map** the viscoelastic mechanical …

An accurate finite element (FE) model of the human brain reliably predicting its response to
loading offers great possibilities for brain injury prevention, disease prediction, and surgical …

Background Changes in brain stiffness can be an important biomarker for neurological
disease. Magnetic resonance elastography (MRE) quantifies tissue stiffness, but the results …