The meninges are membranous tissues that are pivotal in maintaining homeostasis of the
central nervous system. Despite the importance of the cranial meninges in nervous system …

Realistic human head models are of great interest in traumatic brain injury research and in
the forensic pathology courtroom and teaching. Due to a lack of biomechanical data, the …

Finite element (FE) brain models have revolutionised research on the biomechanics of
traumatic brain injury (TBI). The accuracy and reliability of results arising from brain models …

The biocompatibility, biodegradation, feasibility, and efficacy of medical devices like dural
sealants and substitutes are often evaluated in various animal models. However, none of …

A reliable computational model of the human head is necessary for better understanding of
the physical mechanisms of traumatic brain injury (TBI), car-crash investigation …

The cranial meninges have been shown to play a pivotal role in traumatic brain injury
mechanopathology. However, while the mechanical response of the brain and its many …

Finite element head models represent a valuable tool to investigate brain injury due to head
impacts. A biofidelic model is, therefore, necessary to obtain accurate and realistic results …

The meninges surround the brain and spinal cord, affording physical protection while also
serving as a niche of neuroimmune activity. Though possessing stromal qualities, its …

The meninges are pivotal in protecting the brain against traumatic brain injury (TBI), an
ongoing issue in most mainstream sports. Improved understanding of TBI biomechanics and …

The human dura mater is known to impact vastly traumatic brain injury mechanopathology.
In spite of this involvement, dura mater is typically neglected in computational and physical …