Biomedical engineers at Duke University have developed a technique to noninvasively visualize the brain's waste-removal ...
University of Missouri researchers are developing new ways to better simulate the complex nature of human brain tissue. For years, scientists have worked to uncover how the brain responds to ...
A 3D model accurately mimicking the Blood-Brain Barrier (BBB) in a laboratory environment has been successfully developed by research teams led by Professor Jinah Jang from the Departments of ...
Blood–brain barrier (BBB) integrity is critical for brain homeostasis, with malfunctions contributing to neurovascular and neurodegenerative disorders. Mechanistic studies on BBB function have been ...
Advancing neurological disorder research requires model systems that more accurately reflect the human brain. 3D cell cultures, such as organoids and spheroids, have emerged as game-changers by better ...
Herpes simplex encephalitis (HSE) caused by HSV-1 is the most common non-epidemic viral encephalitis, and the neuropathogenesis of HSE remains elusive. This work describes a 3D human neurovascular ...
Discover the world’s most detailed 3D atlas of the human brainstem at cell resolution, released by IIT Madras. This ...
Scientists at MIMETAS have published a new study describing a scalable, self-assembling human blood-brain barrier (BBB) model that combines physiological relevance with high-throughput capability. The ...
BraDiPho (Brain Dissection Photogrammetry) is an innovative tool for the study of white matter connections in the human brain. The realistic map was developed by a group of researchers from the ...
BraDiPho was presented in a paper published in Nature Communications, with Laura Vavassori as first author. She is a doctoral student at the Center for Brain/Mind Sciences (Cimec) of the University of ...
Marimélia Porcionatto is a Full Professor in the Department of Biochemistry at the Paulista School of Medicine (EPM) at the Federal University of São Paulo (Unifesp; Brazil) and Vice-Director of ...
Combining microscopy, scanning, and deep learning enables more precise imaging of functional dynamics in neural networks of human cortical organoids.
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