What happens to the brain after focal myelin loss? Our new paper, published today in @Nature tries to answer this question: https://t.co/dCM1kcPd5N
Details in the 🧵 (1/8)
New in Science from the Lyons lab: Myelin sheaths can swell in response to damage, but don't always degenerate. A potential therapeutic window to halt demyelination?
https://t.co/H0NcftjTyy #Neuroscience#Myelin
Thrilled to share our latest paper, now out as cover story!
📄Paper: High resolution multi-scale profiling of embryonic germ cell-like cell derivation reveals pluripotent state transitions in humans: Stem Cell Reports https://t.co/r0O3VdbYFW /1
Ocular dominance and spike-time dependent plasticity have an implicit assumption that conduction velocity is fixed. Our new study on myelin plasticity invalidates that.
https://t.co/bYIgLPpffz
A remarkable cellular mechanism how microglia participate in the turnover of aging myelin. Jump to the hypothesized model in Fig. 7. https://t.co/jximYshv8s
Scientists from Tel Aviv University, working in collaboration with the Weizmann Institute of Science, Hebrew University of Jerusalem, and the Max Planck Institute in Germany, have uncovered a groundbreaking biological mechanism that could transform how Alzheimer’s disease and Multiple Sclerosis (MS) are treated.
The researchers identified that a protein called Tfii-i inhibits myelin production (myelin is a fatty substance that insulates neurons and enables fast, efficient communication). By reducing Tfii-i levels in specific cells of lab mice, scientists were able to increase myelin growth, leading to thicker myelin sheaths, faster neural signaling, and even improved coordination and mobility.
Once again, Israeli innovation is pushing the boundaries of science, bringing hope to patients around the world.
@TelAvivUni@WeizmannScience@HebrewU
תקווה חדשה למחלות נוירולוגיות!
תגלית ישראלית עשויה לשקם תאי עצב שנפגעו ממחלות מוח.
פריצת דרך מחקרית עשויה להוביל לטיפולים חדשים במחלות נוירולוגיות: נחשף מנגנון ביולוגי להגברת ייצור מיאלין במוח.
@BarakBoaz
Our latest collaboration with @RongFan8, spatial triomics to investigate myelin and cortical brain development, and demyelination, spearheaded by Leslie Kirby in our lab @karolinskainst and @Di_0579 in Rong's lab! Check it out @Nature
https://t.co/W6ihT5tMQY
🚀 Our new paper is out in Nature Communications!
We uncovered a mechanistic switch to boost myelination: deleting Gtf2i in myelinating glia enhances Sox10/Mbp activity → thicker myelin, faster conduction, improved motor coordination.
🔗 https://t.co/ZSzns8K2vB