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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A drug target is anything within a living organism to which a drug is directed and/or binds, resulting in a change in its behaviour or function.
The world’s first generation of human BBB organoids from hPSCs accurately replicated features of cerebral cavernous malformation.
Researchers have elucidated how Slc4a4 governs astrocyte-endothelial cell interaction in blood-brain barrier maintenance and repair.
In this article, senior leaders at SFA Therapeutics emphasise the importance of re-establishing homeostasis in drug development approaches.
The discovery that omental fat has a mechanism to limit adipocyte formation may lead to new treatments for obesity and metabolic disease.
Through in vitro and in vivo models, researchers find a mechanism by which bacteria-generated fatty acids regulate immune responses.
Induced NPCs facilitate the creation of patient-specific organoid models and improve identification of nephron targeted drugs.
Confounder control and quantitative profiling revealed misleading associations between microbial markers and colorectal cancer development.
The study’s findings explain the genetic differences in people’s blood pressure, which could lead to personalised medicine approaches.
Adult anxious behaviour in offspring may be related to the early life proinflammatory state caused by the absence of elevated XCL1.
The mini-colons are topobiologically complex, can be induced to develop tumours in targeted areas and reduce the use of animal models.
A new method for a fragmentation-based identification of lipids could enable the study of cancer cells in detail not seen before.
The pharmacological inhibition of class IIa HDACs could be a therapeutic approach for addressing Th17-related inflammatory and autoimmune diseases.
It was discovered that targeting RAS proteins prevent cancer cells from using different signalling pathways to escape cell death.
Researchers find the mechanism which may underly the onset and progression of age-related neurodegenerative diseases.
The new study found T3s treatment exhibited neuroprotective effects in HFSD-fed mice by mitigating oxidative stress.