Articles tagged with Genetic Disorders
A comprehensive analysis of 2,762 Indian genomes reveals a complex history of genetic mixing, endogamy, and population bottlenecks that shaped the country's genetic variation, health, and disease. The study found that most genetic variation in India can be explained by a single migration out of Africa about 50,000 years ago.
A new study involving 121 former elite rowers from Australia found that one in five develops atrial fibrillation, a condition that can lead to stroke and heart failure. The researchers identified genetic and clinical tools that enable early preventive strategies, highlighting the paradox that AFib is more common among fit athletes.
A phase 3 trial demonstrated the efficacy of selumetinib in reducing tumor size and alleviating pain in adults with neurofibromatosis type 1. The treatment was found to be effective in patients who received it from day one, as well as those who started it later, with significant reductions in tumor size and pain reported.
Researchers have identified a previously unknown organelle called the hemifusome that plays a crucial role in cellular sorting and recycling. This discovery could lead to targeted treatments for complex genetic disorders like Hermansky-Pudlak syndrome, which affects multiple systems in the body.
The 2025 NF Conference brings together researchers, patients, and advocates to discuss progress and future prospects in NF treatment and discovery. The event features keynotes on gene therapy, regulatory reform, and next-generation pain treatments.
DEBRA Research invites academic researchers to submit proposals for Basic Science and Research Grants to improve quality of life for those with inherited Epidermolysis bullosa. The organization focuses on translational research and clinical development to address the unmet needs of people living with EB.
The National Urea Cycle Disorders Foundation is establishing a multistakeholder Partner Network to guide health care decisions and build a sustainable infrastructure for UCD research. The project aims to empower the broad UCD community to work together effectively, identify research needs, and create a roadmap for future studies.
Researchers developed a new computational tool using generative AI to identify key gene combinations underlying complex illnesses. The method amplifies limited gene expression data, enabling researchers to resolve patterns of gene activity that cause complex traits.
Researchers created a zebrafish model of XMEA, an ultra-rare genetic disease that progressively weakens muscles. The study found that two compounds improved symptoms in the zebrafish, and autophagy antagonists showed promise for treating the disease.
Researchers have discovered that nicotinamide riboside supplementation significantly improves NAD+ levels, reducing arterial stiffness, skin ulcer area, and kidney dysfunction. This breakthrough offers new hope for patients with Werner syndrome who lack effective treatment options.
A new study published by Martin-Luther-Universität Halle-Wittenberg found that theophylline significantly improved symptoms and quality of life for patients with ADCY5-related dyskinesia. The treatment yielded impressive results, including reduced muscle twitches, improved gait, and better psychosocial well-being.
Researchers have discovered a crucial molecular basis for aortic dissection by linking endothelial dysfunction with immune infiltration. The study reveals that abnormalities in vascular endothelial cells facilitate the accumulation of inflammatory cells, leading to fatal rupture.
A new AI tool developed by University of Missouri researchers can predict the 3D shape of chromosomes inside individual cells, providing a new view of how genes work. The tool helps identify unique differences in chromosome folding between cells, which controls gene activity and can lead to diseases like cancer.
Salk Institute and UC San Diego researchers captured the first-of-its-kind video of dynein-Lis1 protein interaction, revealing 16 detailed shapes that support designing therapeutics to restore dynein and Lis1 function. The insights gained from this movie will help identify precise locations where drugs can interact with the proteins.
A recent epigenetic study identified RABGGTB as a promising biomarker for autism spectrum disorder, revealing extensive DNA methylation abnormalities in key brain regions. The findings suggest that studying this gene could unlock new doors to understanding ASD and lead to future diagnostic breakthroughs.
Researchers have synthesized cutting-edge findings on Prader-Willi syndrome, revealing its unique link to autism spectrum disorder and psychotic spectrum disorders. The condition's distinct genetic subtypes correlate with specific psychiatric outcomes, offering critical insights into the interplay between genetics and psychiatric vulne...
A novel study analyzing the cost-effectiveness of different Down syndrome screening strategies confirms that non-invasive prenatal testing (NIPT) significantly outperforms second-trimester serum screening (STSS). NIPT identifies twice as many DS cases as STSS, offering a more reliable option with lower incremental costs.
A team of researchers has successfully treated an infant with a life-threatening, incurable genetic disease using personalized gene editing therapy. The infant, who was diagnosed shortly after birth, showed positive responses to the treatment and improved symptoms over time.
A UC San Francisco-led study found that delivering medicine for spinal muscular atrophy (SMA) via the amniotic fluid was safe and helped prevent damage to nerve cells. The therapy used molecules called antisense oligonucleotides (ASOs), which can alter gene expression, and was tested in mice and sheep with promising results.
Researchers have identified a new gene, FANCX, associated with an aggressive form of Fanconi anemia. Mutations in this gene lead to severe forms of the disease, including miscarriages and early death. The discovery could help identify carriers who can prevent Fanconi anemia in future pregnancies through IVF screening.
Researchers identified unique biological mechanisms that cause premature aging in the brains of individuals with alcohol, opioid, and stimulant use disorders. Different substances appear to hijack the brain's natural aging rhythm through distinct molecular mechanisms, though some pathways are shared across different substance types.
A new study reports on five patients with Canavan disease who have a novel variant identified through targeted long-read sequencing, revealing an SVA_E retrotransposable element that disrupts gene function. The findings enhance genetic diagnostics and enable improved guidance for families.
Researchers at the University of Groningen discovered that mefloquine can enhance the effect of aminoglycosides to override faulty stop signals in proteins. This could lead to the development of new drugs tackling genetic diseases.
Researchers analyzed DNA from four generations of a large family to understand genetic mutations and their transmission. They found that the rate of de novo mutations varied by over twenty-fold depending on genome location.
A pioneering Israeli study identifies TRIM63 as a significant genetic contributor to hypertrophic cardiomyopathy (HCM), which could transform genetic screening and treatment protocols. The findings provide compelling evidence for the gene’s role in both causing and increasing susceptibility to HCM.
A team of researchers has developed a comprehensive atlas of genetic change through generations, revealing that parts of the human genome change much faster than previously known. This discovery has significant implications for understanding human disease and evolution, including the roots of genetic diseases.
A recent study by the University of Zurich examined the connection between retinal nerve connections and schizophrenia. The researchers found that individuals with a higher genetic risk for schizophrenia tend to have thinner retinas, which can be detected using non-invasive retinal measurements.
Common prescription medications can disrupt sterol biosynthesis, potentially causing developmental disorders. The editorial highlights the need for mandatory sterol biosynthesis screening in clinical practice.
The SynGAP Research Fund has announced the appointment of four new members to its Board of Trustees, bringing diverse expertise to the organization's mission. Jaime Aranda, Steve Gore, Heather Mestemaker, and Brian Smith will succeed outgoing Trustees, driving the development of therapies and enhancing SYNGAP1 quality of life.
Researchers at Mount Sinai School of Medicine have identified a new genetic cause of neurodevelopmental disorders (NDDs), including mutations in the previously overlooked non-coding gene RNU2-2. The discovery offers hope to potentially thousands of families worldwide, providing closure and support for those affected by these conditions.
A national study in Australia aims to understand the genetic cause of rare diseases, improving diagnoses and treatment options for those affected. The study is recruiting Australians with a known or suspected rare genetic disease to gather information and connect them with future research opportunities.
A clinical study confirms that early treatment with fosdenopterin/rcPMP significantly reduces the risk of early death and promotes healthy brain development in infants with MoCD type A. The therapy restores the missing molybdenum cofactor, leading to improved developmental milestones.
Researchers at Karolinska Institutet have developed a method to track the development of cells in the nervous system and inner ear. The technique, known as ectoderm barcoding, reveals that cells in the inner ear develop from two main types of stem cells.
A new gene therapy developed by researchers from Juntendo University uses AAV to deliver genome editing tools to inner ear cells, repairing a dominant-negative mutation that causes syndromic hearing loss. The approach has shown high efficiency and specificity in treating hereditary hearing loss.
Scientists at deCODE genetics identified associations between rare loss-of-function variants in HECTD2 and AKAP11 genes and the risk of bipolar disorder. The study suggests that these gene products may be promising targets for new treatments, as they interact with key cellular pathways involved in the disorder.
Dr. Vikaas Sohal's research focuses on cognitive flexibility and prefrontal gamma oscillations to improve cognitive function in individuals with SYNGAP1-related disorders. The grant aims to confirm findings in Syngap1 mutant mice and explore new therapeutic strategies.
Researchers have developed a way to activate adult stem cells from human bone marrow, enabling their expansion outside the body for use in bone marrow regeneration. The new method significantly improves transplant success rates for patients with genetic disorders or those who require a bone marrow transplant.
Scientists at Johns Hopkins Medicine discovered how bacteria protect themselves from certain phage invaders by seizing genetic material from weakened, dormant phages and forming a biological 'memory' that their offspring inherit. This process allows the bacteria to recognize and fight off similar viruses in the future.
Research reveals that placental DNA methylation influences expression of genes associated with psychiatric disorders, suggesting genetic risk manifests during prenatal stage. The study identifies schizophrenia, bipolar disorder, and major depression disorder as most strongly linked conditions.
A clinical trial shows that removing amyloid plaques from the brain can delay Alzheimer's symptoms, supporting the amyloid hypothesis. The treatment reduced the risk of developing dementia in people destined to develop early-onset Alzheimer's disease.
Dr. Julia Dallman has been awarded a $65,000 grant by the SynGAP Research Fund to screen pro-GI motility compounds for reducing gut transit time in her zebrafish SYNGAP1 model. The project aims to identify therapeutic options that can alleviate severe GI symptoms and improve quality of life for individuals with SYNGAP1-related disorders.
Researchers at Baylor College of Medicine have identified new variants of CDKL2 and CDKL1 genes associated with developmental disorders, including epilepsy. The study proposes a mechanism by which defective variants cause neurological symptoms in affected individuals.
Research from the Long Life Family Study found individuals from long-lived families have significantly better vascular health than the general population. The study identified key risk factors and four genomic regions linked to PAD risk, providing novel insight into underlying mechanisms.
A new Clinical Research Center of Excellence will improve care for individuals with SYNGAP1-related disorders and expand the Natural History Study to include Prospective Multidisciplinary Multisite Study. The center, established at Children's Hospital Colorado, aims to accelerate research and provide specialized care.
A study found that adding blood metabolite data to genetic risk scores improves glaucoma prediction accuracy, particularly in individuals at high genetic risk. Higher levels of lactate, pyruvate, and citrate were associated with a reduced risk of glaucoma.
A study uncovered new genetic clues explaining why some prostate cancers grow slowly while others become life-threatening, identifying 223 mutations that determine tumor progression. The research shows germline and somatic variability work together to initiate and drive prostate cancer.
Rare genetic diseases affect 300 million people globally, with one in three dying before age five. Global collaborations are transforming clinical care by leveraging genomic technologies and evidence-based approaches.
Researchers developed an AI approach to identify genes contributing to neurodevelopmental disorders like autism spectrum disorder, epilepsy, and developmental delay. The tool enhances gene discovery by predicting additional genes involved in these conditions.
Researchers identified a single gene, CIROZ, responsible for pediatric heart defects and abnormal organ placement. The study found that mutations in this gene can lead to severe heart defects at birth, emphasizing the importance of preventive strategies and curative therapies.
Australian Red Cross Lifeblood researchers surveyed over 4,000 people with haemochromatosis and found that their blood and plasma can be used to save lives. The study highlights the potential for these donors to increase blood supplies globally, particularly in countries accepting plasma donations from individuals with this condition.
Researchers found that a rare genetic syndrome causes different damage mechanisms in male and female brains, affecting neurogenesis and energy production. The study suggests that the ADNP protein plays a crucial role in brain development and aging, with distinct functions in males and females.
A team of geneticists discovered a gene 'silencer' in junk DNA that prevents the devastating neurological disease autosomal dominant leukodystrophy (ADLD). The silencer element regulates lamin B1 expression, only affecting one type of cell, and its presence can spare patients from fatal symptoms.
A Danish study reveals that testosterone treatment can nearly halve the mortality rate among men with Klinefelter syndrome, reducing cardiovascular disease risk and increasing life expectancy. The treatment also improves quality of life and may have positive effects on metabolism, muscle mass, and bone health.
The Rice University lab, in collaboration with Baylor College of Medicine, has developed a new gene-editing strategy called Repair Drive that improves the effectiveness of gene therapies in the liver. The technique enables the repair of liver cells at higher rates and equips them with a selective advantage to outcompete incorrectly edi...
Researchers in the Galej Group at EMBL Grenoble have provided new structural insights into the U11 snRNP subunit of the minor spliceosome, revealing its ability to specifically identify rare substrates. The study sheds light on the complex assembly pathway of the minor spliceosome, which is critical for processing minor introns in genes.
Scientists at Duke University have discovered a master epigenetic switch that can be activated using CRISPR to compensate for missing genes in Prader-Willi syndrome. This approach could potentially treat the disease by turning on naturally suppressed genes from one parent, addressing the underlying genetic defect.
A groundbreaking study analyzed data from over 78,000 cancer patients to identify nearly 800 genetic changes impacting survival outcomes. The research also discovered genes significantly associated with survival in various cancers, such as breast, ovarian, skin, and gastrointestinal cancers.
The Syngap Research Fund's 2024 Impact Report showcases the organization's progress in accelerating SYNGAP1 research, collaborating with academia and industry, and advocating for patients' rights. The report highlights seven core scientific programs and over $6M in funding for SYNGAP1-related disorders science.
Thousands of proteins rely on their tails to become successfully embedded within the cellular membrane. Researchers discovered a protein called YidC that helps short tails cross the fatty membrane, enabling functional protein-tail integration.
A new drug-free intervention targets the root cause of progressive loss of neural function in SMA by gradually reawakening functionally silent motor neurons. Early results show improved leg muscle strength and walking in adults with SMA, regardless of symptom severity.