Modelling the blood-brain barrier with organoids
The world’s first generation of human BBB organoids from hPSCs accurately replicated features of cerebral cavernous malformation.
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The world’s first generation of human BBB organoids from hPSCs accurately replicated features of cerebral cavernous malformation.
Following direct exposure of human CNS tissues to CWD prions, a significant resistance to the propagation of infection was found.
Researchers have elucidated how Slc4a4 governs astrocyte-endothelial cell interaction in blood-brain barrier maintenance and repair.
We had the privilege of speaking to Dr Víctor Sebastián Pérez, Associate Director of Computational Drug Design, following his presentation at ELRIG UK 2023. He shares his insights into how Exscientia is using AI to design drug candidates for cancer treatment.
Using an AI algorithm to predict glioblastoma’s most active kinase, researchers hope for a next-generation precision therapy targeting resistant cancers.
Data from protein analyses, combined with data from patient journals, enabled the discovery of proteins that predict disease progression.
According to US researchers, brain maturation follows a sequence that renders youth sensitive to environmental impacts through adolescence.
The new ‘hybrid’ hydrogel allowed researchers to safely deliver stem cells to the site of a brain injury in mice.
Japanese researchers find a new mechanism for how the measles virus can cause a rare but fatal neurological disorder: subacute sclerosing panencephalitis (SSPE).
Danish researchers undertake a new project that aims to find new forms of treatment for diseases such as MS, which breaks down myelin and nerve fibres, by developing new, artificial nerve fibres
A newly developed AAV has shown promise at delivering gene therapies to the brain in mice and non-human primates.
This ebook includes articles on the latest Alzheimer's research on how to potentially target tau and also how new human disease models can enable the development of transformational novel therapeutics.
In this issue are articles on synthetically engineered bacteria to deliver therapeutics, how single-molecule fluorescence resonance energy transfer was used to image GPCRs and a new assay to identify coronavirus drugs. Also included are pieces on vaccine development, monoclonal antibodies and neuroscience.
Senior scientist Dr Tony Oosterveen discusses bit.bio’s new ioDisease Model portfolio, including new models for Huntington’s disease to help advance in vitro research and drug discovery.
Precision medicine in neurology is limited by a dearth of clinically relevant models. However, here Dr Evangelos Kiskinis, Assistant Professor at Northwestern University Feinberg School of Medicine, discusses how new technologies such as bioelectronic assays enable real-time, long-term analysis of neurological diseases in a dish, offering a pathway towards identifying…