Dozens of finite element models of the human brain have been developed for providing
insight into the mechanical response of the brain during impact. Many models used in …

Brain magnetic resonance elastography (MRE) was developed on the basis of a desire to
“palpate by imaging” and is becoming a powerful tool in the investigation of …

Alterations in brain rheology are increasingly recognized as a diagnostic marker for various
neurological conditions. Magnetic resonance elastography now allows us to assess brain …

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

The relationship between brain development and mechanical properties of brain tissue is
important, but remains incompletely understood, in part due to the challenges in measuring …

The mechanical properties of brain tissue in vivo determine the response of the brain to
rapid skull acceleration. These properties are thus of great interest to the developers of …

Magnetic resonance elastography holds promise as a non-invasive, easy-to-use, in vivo
biomarker for neurodegenerative diseases. Throughout the past decade, pigs have gained …

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

Brain, the most important component of the central nervous system (CNS), is a soft tissue
with a complex structure. Understanding the role of brain tissue microstructure in mechanical …

Measurements of dynamic deformation of the human brain, induced by external harmonic
vibration of the skull, were analyzed to illuminate the mechanics of mild traumatic brain …