The project evaluates a next-generation NKCC1 inhibitor, studying its safety and effects on brain signaling to determine its potential to progress into Phase 2 clinical trials.
Auditory system therapeutic target for Fragile X syndrome research uses a rat model to connect excess protein synthesis with disrupted circuits and auditory hypersensitivity.
Fragile X syndrome hippocampal organoids show neuron–glia imbalance. This team will map disrupted gene networks and test PDE inhibitors to restore brain function.
This grant is funding AI-driven drug discovery, advanced mouse behavior tracking, and gene expression analysis to uncover new treatments for Fragile X syndrome.
This project explores the role of oligodendrocytes in Fragile X. The team will test if improving these cells’ function can restore normal brain activity to treat Fragile X.
Learn more about Shionogi’s EXPERIENCE clinical trials for adults and adolescents with Fragile X syndrome, FRAXA’s role, and the open-label extension of these trials.
Fragile X syndrome researchers are studying how estrogen receptors shape brain activity and may explain why males and females experience symptoms differently.
Fragile X syndrome researchers model R-loop therapy in patient-derived brain organoids to restore FMR1, accelerating a curative approach supported by FRAXA.
This study explores how disrupted insulin signaling affects metabolism and brain function in Fragile X, revealing new treatment targets for both body and mind.
This team believes inhibitory neurons expressing somatostatin are impaired in Fragile X. They will see if stimulating these neurons has therapeutic potential.
Join Dr. Tsai and Dr. Kumar on a journey into novel treatments for Fragile X syndrome. Activating mGluR7 could be a game-changer, opening up uncharted therapeutic territory.
This study tests whether blocking certain nicotine-sensitive receptors in the brain during adolescence can improve attention and cognition in Fragile X.
This team studied how faulty calcium signaling in astrocytes contributes to sensory hypersensitivity in Fragile X, aiming to find new astrocyte-targeted treatments.
This project aims to reactivate the FMR1 gene to combat Fragile X Syndrome, with the goal of restoring vital protein function. This work is now funded by a new FRAXA grant.
Explore Yale’s groundbreaking study on mitochondrial leak channels, set to revolutionize Fragile X syndrome treatment. Funded by a $100,000 FRAXA grant.
Explore Dr. Richter’s encouraging results with ASOs for Fragile X syndrome. A $100,000 grant now fuels pivotal studies needed to advance toward ASO therapy.
This team is studying why people with Fragile X are overly sensitive to sound and light, using advanced imaging to find brain changes and test ways to prevent them.
This project will examine how CBD and other drugs targeting the endocannabinoid system affect hyperexcitable Fragile X neurons to identify new treatment strategies.