Did you know that depression is more common in those with autism and/or Fragile X? Even more disturbing is the discovery that current treatments for depression do not work in Fragile X mice. With this grant, the team will work to develop a rapid screening tool to identify FDA-approved drugs which can treat depression in people with Fragile X syndrome.
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mRNA Therapy for Fragile X Syndrome
Dr. Kathryn Whitehead, Associate Professor at Carnegie Mellon University, helped develop the revolutionary science behind the COVID-19 vaccines. With a $103,000 grant from FRAXA, her team will now adapt this technology to deliver the missing Fragile X protein, to treat people who have Fragile X syndrome.
Read moreRecruiting: Clinical Study of Non-Invasive EEG for Children Ages 2-7
Dr. Carol Wilkinson, MD PhD, and Dr. Charles Nelson, PhD, at Boston Children’s Hospital are recruiting children ages 2-7 years with Fragile X syndrome to participate in a study of brain differences using non-invasive EEG.
Read moreCorrecting Fragile X Syndrome Deficits by Targeting Neonatal PKCε Signaling in the Brain
With this $90,000 grant from 2017-2018, Dr. Banerjee’s team has shown that enhancing PKCε can correct brain development and abnormal behaviors in Fragile X knockout mice and had their findings published in PubMed.
Read moreLovamix: Clinical Trial of Combined Treatment of Minocycline and Lovastatin in Fragile X Syndrome
With a $66,714 grant from the FRAXA Research Foundation awarded over 2015-2017, Dr. Francois Corbin at the Universite of Sherbrooke will test the safety and synergistic effects of lovastatin and minocycline in patients with Fragile X syndrome.
Read moreGABA-A Receptor in Fragile X Syndrome
With $210,000 in grants from FRAXA over 1999-2010, Dr. Frank Kooy has studied the involvement of the GABAergic system in Fragile X syndrome, at the University of Antwerp, Belgium.
Read moreCharacterization of a Novel CYFIP1 – Derived Peptidomimetic Restoring the Dysregulated mRNAs Translation: Toward An Innovative Therapeutic Strategy for FXS
The researchers are developing next-generation drugs called peptidomimetics, using the functional features of FMRP. If they succeed, the hope is that we will have new drugs that could make up for the loss of FMRP, thus treating Fragile X syndrome.
Read moreCannabinoids as a Treatment for Fragile X Syndrome
Many people with Fragile X syndrome are hyper-sensitive to sights and sounds, and Electroencephalography (EEG) studies show that there are abnormalities in brain circuits. EEG studies show similar changes in Fragile X mice. So the team will use EEG tests in mice to find which drugs best reduce hypersensitivity. They can then easily move on to human EEG-based clinical trials. What they learn will tell us much more about why people with Fragile X are hypersensitive – and which drugs could best help them.
Read morePurposeful and FRAXA Partnership Leads to Clinical Trial
Can a combination of drugs make a meaningful difference for people with Fragile X? A new clinical trial is going to find out. 15-20 adult men with Fragile X will be included in this trial to test the effects of an available drug and a nutritional supplement taken together.
Read moreInhibiting Nonsense – Mediated mRNA Decay: A Potential Treatment Approach for Fragile X
All cells have a kind of housecleaning service which sweeps away genetic errors. This is called nonsense-mediated mRNA decay (NMD). With a previous FRAXA grant, this team discovered runaway NMD in cells of Fragile X patients. It’s not yet known how this impacts people with Fragile X. With this grant, Dr. Maquat and Dr. Kurosaki will test drugs which can bring NMD back to normal levels.
Read moreExploring Drug Repurposing to Restore Hippocampal Function in FXS Mouse Models
A gene’s job is to produce a protein. In Fragile X syndrome, the FMR1 gene is mutated and cannot make FMRP, a protein which shapes connections between nerve cells (neurons) in the brain. These connections are the basis of learning and memory. This team has discovered a mechanism involving FMRP that is absolutely essential to control the connections between neurons. These connections are the basis of learning and memory. They will now test available drugs which directly target this mechanism, to see if they can treat Fragile X syndrome.
Read moreContribution of Microglia to the Therapeutic Effects of Metformin and Adiponectin in Fragile X Syndrome
The research team of Brian Christie, PhD and Marie-Eve Tremblay is developing ways to balance hormones, including drugs like metformin and changes in diet, which could not only reduce hunger and obesity, but ultimately also improve learning and behavior in Fragile X syndrome.
Read moreAlternative Splicing in White Blood Cells: A Biomarker for Fragile X Syndrome
Explore groundbreaking research by the University of Massachusetts Medical School and Rush University Medical Center on alternative splicing in white blood cells as a biomarker for Fragile X syndrome, paving the way for personalized treatment optimization through a non-invasive blood test.
Read moreLink Between Lipid Profile, eCBome System and Gut Microbiome in Fragile X Syndrome
Why does obesity challenge so many people with Fragile X? Dr. Caku’s team thinks changes in the gut are the culprit. This team has found that Fragile X syndrome causes changes in the tiny organisms that live in our gut. They believe that these abnormalities cause changes in the brain which impair learning and behavior.
Read moreCharacterization of Microglia Transcriptional Profile in Fmr1 Knockout Mice Model
With this grant, the team will identify the pathways responsible for this excessive activation and attempt to reverse the excess. If they can correct this using drugs, they will be able to identify a new potential treatment for Fragile X syndrome solving one more piece of the Fragile X brain puzzle.
Read moreThe Role of Astrocyte BMP Signaling in Fragile X Syndrome
Astrocytes are star-shaped cells that make up one fifth of all cells in the human brain. Recently researchers found a specific pathway in astrocytes that is overactive in Fragile X syndrome, and they hope to bring this pathway back to normal with a drug. With this grant, the team will try to correct the pathway in Fragile X mice. The hope is that they will find a new potential treatment approach for Fragile X syndrome.
Read moreIdentifying Cellular and Molecular Signatures in Human Neurons That Distinguish Fragile X Syndrome Patients with Divergent EEG Profiles
Why is it so hard to find the right medications to help people with Fragile X syndrome? Just as Fragile X affects individuals differently, medications do as well. This project aims to bring personalized medicine to Fragile X syndrome.
Read morePreclinical Testing of High Fat/Low Carb Diets in Fragile X Mice and Cells
With a $90,000 research grant from FRAXA, Dr. Cara Westmark’s team will use mice to determine if more palatable Atkins-type diets can improve sleep and boost learning skills for those with Fragile X syndrome.
Read moreFRAXA Drug Validation Initiative (FRAXA-DVI)
The FRAXA Drug Validation Initiative (FRAXA-DVI) provides speedy, cost-effective, objective preclinical testing of potential Fragile X treatments. FRAXA-DVI uses in-vitro systems, behavior batteries, and gene expression and peripheral biomarker platforms to validate investigational new drugs and repurposed available compounds in Fragile X syndrome (FXS).
Read morePharmacotherapeutic Effects of Cannabidiol (CBD) in Fragile X syndrome (FXS) and Autism Spectrum disorder (ASD)
This study will test CBD (cannabidiol) treatment in male and female Fragile X mice to learn how and why it works and whether gender affects responses to CDB treatment. Along with clinical trials, this study will help us to understand and optimize the potential of CBD as a behavior-regulating treatment for Fragile X.
Read moreCellular-Specific Therapeutic Targeting of Inhibitory Circuits in Fragile X Syndrome
Studies have shown that the function of inhibitory networks is disturbed in Fragile X. This abnormality is not well understood but appears to be secondary to abnormalities in metabotropic glutamate and endocannabinoid systems. With a $90,000 grant from FRAXA, Dr. Molly Huntsman’s team examined how these networks interact and how inhibitory deficits can best be remedied.
Read moreAuditory Dysfunction in Fragile X Syndrome in a Mouse Model of Fragile X
With a $90,000 grant from FRAXA, Dr. McCullagh and Dr. Achem Klug at the University of Colorado investigated whether auditory neural circuits are altered in Fragile X mice. They saw minor differences in these mice compared to B6 (control) mice in several measures of auditory acuity. Fmr1 mice had increased latency to the startle response for almost all conditions compared to B6 mice, suggesting altered timing to acoustic cues. These experiments show that, consistent with patient reports and anatomical/physiological data, the auditory system is altered in a mouse model of FXS, though with some potential compensation leading to a subtle behavioral impact.
Read moreScreening Combinatorial Pharmacological Therapies for Fragile X Syndrome
FRAXA Research Foundation has awarded a $90,000 research grant to Stanford University principal investigators Dr. Philippe Jacques Mourrain and Dr. Gordon Wang, along with postdoctoral fellow, Dr. Rochelle Coulson. They are evaluating additive effects of combinatorial drug treatments to correct a broad spectrum of deficits observed in Fragile X syndrome.
Read moreGenome-wide Screen for FMR1 Reactivation in Human FXS Neural Cells
Drs. Mahmoud Pouladi and Kagistia Utami at the Agency for Science, Technology and Research (A*STAR) in Singapore were awarded a $67,500 research grant from FRAXA Research Foundation and that led to much greater governmental funding to expand this work. Their goal is to reactivate the gene which is silenced in people who have Fragile X syndrome.
Read moreCholesterol-Dependent Changes in Fragile X Astrocytes
FRAXA Research Foundation has awarded $45,000 to Dr. Maija Castrén, of the University of Helsinki, Finland. Dr. Castren is working with Dr. Iryna Ethell, at the University of California at Riverside, to uncover mechanisms behind beneficial effects of lovastatin and cholesterol-dependent changes seen in the Fragile X brain.
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