Articles tagged with Gene Regulation
Researchers found an interaction between BRD4 and the enzyme MTHFD1 from folate metabolism, which links gene regulation to transcriptional control. This discovery promises new approaches in cancer combination therapy for aggressive tumors.
A Princeton University-led team used AI to decode the functional impact of non-coding DNA mutations in people with autism. The researchers analyzed 1,790 family genomes and found thousands of potential genetic contributors. This breakthrough method is applicable to discovering genetic contributions to any disease.
Researchers from the University of Minnesota Medical School discovered that large loops form between DNA sequences where a key protein Pax3 binds, and these loops are essential for the development of skeletal muscle. The study shows how 3D genome organization regulates cell differentiation in skeletal muscle formation.
Researchers discovered that ribosomes in human cells destroy healthy mRNAs, affecting protein production and regulating gene expression. This discovery may lead to a better understanding of gene misregulation in human diseases.
The German Research Foundation (DFG) has approved a new Research Training Group focusing on the evolution of complex genetic regulation systems. The GenEvo group will bring together researchers from evolutionary and molecular biology to analyze regulatory processes and their selection under evolutionary pressures.
A Rutgers discovery identified a siesta-suppressing gene in fruit flies that helps creatures balance the benefits of napping against getting important activities done during the day. The 'daywake' gene regulates behavioral flexibility, allowing flies to seek food or mates when temperatures are cool.
Researchers have identified over 100 new genes that could contribute to the development of cleft lip and palate (CL/P), a condition affecting 1 in 700 live-born babies. The study suggests that genetic variants near these genes are regulated by 'enhancers' in the genome, which play a crucial role in maintaining proper cell identity.
Rhythmic food intake drives liver gene expression independently of the molecular clock, regulating metabolic pathways and potentially leading to health issues like aging and obesity. The study's findings have implications for understanding circadian biology and the impact of timing on health.
Researchers have developed a new label-free imaging technique that reveals the dynamic movement of chromatin in eukaryotic cells just before cell death. The study found that cells experience a 'burst' of activity, known as cellular paroxysm, which is thought to play a role in the earliest stages of cell death.
A team of biologists has discovered new rules governing cell decision-making in genetics, revealing how genes are activated under specific conditions. The study found that a protein called Zelda strengthens Dorsal activity, allowing cells to make decisions about gene activation based on their environment.
Researchers found that Hirschsprung disease shares common genetic mechanisms with complex disorders like schizophrenia and autism. The study identified key genes, cellular mechanisms, and molecular targets for personalized treatment.
A Belgian team developed a new bioinformatics method called cisTopic to analyze gene regulation in cells. The method discovers common topics of gene control across cells, revealing unique gene activity patterns. This enables researchers to understand cellular diversity and its implications for diseases.
A new research unit at Charité - Universitätsmedizin Berlin aims to improve the identification and diagnosis of rare genetic diseases by analyzing non-coding DNA sequences. The researchers will develop software for whole-genome data analysis, enhancing our understanding of gene regulation and transcription.
Researchers discovered a new candidate gene, unpaired 1, that contributes to lifespan regulation in Drosophila melanogaster. Overexpression of this gene increased lifespan in nervous tissue and fat body, but decreased lifespan in intestine.
A team of scientists led by Paula McSteen identified a new gene called barren stalk2 (ba2) that affects the development of axillary meristems in corn plants. The ba2 gene interacts with another gene, barren stalk1 (ba1), to regulate ear formation.
Researchers have made significant breakthroughs in understanding snake genomes, including the evolution of venom genes, dosage compensation mechanisms, and sex determination systems. The study provides a comprehensive genomic context for these complex biological processes, offering new insights into the unique adaptations of snakes.
Researchers developed an artificial chemical DNA switch that can be turned on and off using light, offering a novel approach to epigenetics. The method uses chemical reactions in the major groove of DNA to influence gene switching, potentially leading to targeted regulation of gene expression.
Experts argue that new regulations challenging women with differences of sex development are based on limited scientific data and may set an unscientific precedent. Blood testosterone levels vary naturally in men and women, making it difficult to determine direct associations between testosterone levels and sports performance.
Researchers from the Center for Genomic Regulation have discovered a direct link between nutrient metabolism and gene regulation in embryonic stem cells. The AHCY protein is found to be a key activator of genes involved in controlling stem cell proliferation, with implications for understanding embryonic growth and infertility.
Research led by Queen Mary University of London finds that pesticides affect genes in bumblebees, leading to changes in gene activity levels. The study highlights the need for improved regulation on neonicotinoid pesticides to protect pollinator health and ecosystem stability.
A study published in EMBO Journal has discovered the key aspect of regulating telomeres, which are protective caps at the end of chromosomes. The research team found that the protein complex CST is responsible for maintaining telomeres, and a chemical modification regulates its S component, allowing telomere duplication and elongation.
A recent study has investigated the regulation of genes by noncoding DNA, which controls gene expression and determines cellular function. The research found that cell-specific enhancers have relatively small effects on target genes, highlighting the importance of tight regulation under normal conditions.
Researchers developed a powerful new tool to investigate brain development, memory, and learning, and the role of gene regulation in neuropsychiatric diseases. The tool selectively and robustly turns on genes in neurons, allowing for controlled expression of individual or multiple genes.
Researchers have developed a neuron-optimized CRISPR activation system that efficiently regulates genes involved in learning and memory, plasticity, and neuronal development. This breakthrough paves the way for studying genetic influences on brain health and disease using model organisms more closely resembling humans.
A multinational review of peppers/chilis (Capsicum species) explores various aspects, including taxonomy, genetic resources, cytogenetic studies, and capsaicinoid biosynthesis. The crop's global production, cultivation, and economic value are also examined.
Researchers identified six target disease genes at previously known AMD loci and three additional candidate genes, providing insights into the genetic architecture of AMD. The study used RNA sequencing data to expand on the genetic contributions to AMD.
Researchers studied genome sequences of various species to understand the genetic factors behind limb loss in snakes. By analyzing gene regulatory elements, they found that only one gene was lost in snakes, but not its associated regulatory element, suggesting a more complex process.
Researchers at UNC School of Medicine discovered that Lin28a is needed for the development of pathological hypertrophy, a process where the adult heart enlarges in response to cardiac stress. This discovery could lead to more potent therapeutics for heart disease treatment.
A gene expression atlas has mapped the variability in genetically identical plants, revealing that around 9% of genes behave unpredictably. This variation helps plants respond to environmental factors like light, temperature, and pathogens, increasing their survival chances.
Researchers studied mRNA and microRNA interactions in prenatal human brain cells to understand their role in cell type identification. They found that these interactions are highly cell-type specific, which can lead to overexpression of certain genes and uncontrolled cell production.
Researchers at UNIGE discovered the identity of Hydra's inhibitor, protein Sp5, which maintains a single-headed adult body and regulates regenerative response. The mechanism has been conserved throughout evolution, suggesting potential therapeutic applications in human tumors.
A new report highlights the need for effective communication in addressing 'post-normal' science technologies, such as gene drives, which pose a challenge to science journalists. The technology has the potential to reduce malaria deaths but also raises concerns about safety and regulation.
Scientists have identified a novel step in gene expression that controls the expression of genes crucial for breast cancer cell growth and tumour progression. The discovery highlights a specific modification allowing RNA polymerase II to overcome a pausing barrier, enabling the transcription of proliferation genes.
Researchers identified 24 candidate genes associated with monogamy in vertebrates, including heightened expressions of those involved in neural development, synaptic activity, learning, and memory. This suggests a putative gene expression signature common to some vertebrate species.
A new study suggests that Actin, a cytoskeleton protein, plays a crucial role in regulating the genome during neuron formation. The research has potential implications for the development of personalized medicines.
A Texas A&M-led study reveals that transcription factor Foxo1 plays a crucial role in regulating blood glucose levels and may serve as a key therapeutic target for preventing Type 2 diabetes. By understanding the molecular mechanism of Foxo1, researchers aim to develop novel interventions for controlling blood glucose homeostasis.
A team of UD engineers has developed a method to use CRISPR/Cas9 technology for conditional gene regulation, introducing a new functionality to the technology. This allows scientists to precisely target and edit DNA within living cells, which could help correct inherited diseases.
Researchers found that enhancers regulate the SOX9 gene, which is critical for male development. The study reveals that disruptions to these enhancers can lead to disorders of sex development.
Scientists at the Salk Institute discovered a complex gene regulation network that helps plants cope with DNA damage. The research identified approximately 2,400 genes responding to DNA damage, with only 200 directly activated by SOG1, revealing its 'hands-off' overseer role.
Researchers found that vertebrate genomes underwent two whole genome duplications, driving the evolution of genetic characteristics. The study, published in Nature, also revealed regulatory mechanisms shared between lancelets and vertebrates, shifting our understanding of gene control along the evolutionary timeline.
Research published in Experimental Physiology reveals smoking during pregnancy increases the likelihood of a baby becoming obese. Higher levels of chemerin, a protein associated with obesity, were found in infants whose mothers smoked during pregnancy. Reduced DNA methylation was also linked to increased expression of this protein.
The study analyzes genome data from multiple species, including humans, mice, and zebrafish, to understand the evolutionary transition from invertebrates to vertebrates. The research identifies key differences in gene regulation between vertebrates and invertebrates, highlighting complex gene regulation and specialization.
Researchers identified the Ikzf2 gene as a key regulator of special cells needed for hearing. Introducing a virus engineered to overexpress helios into inner ear hair cells transformed some mature inner hair cells into outer hair cells, exhibiting critical characteristics. This discovery may lead to therapies for age-related hearing loss.
A new study reveals LZTR1 as a key regulator of RAS protein signaling, which is central to growth and oncogenesis. The findings provide a molecular explanation for various pathological conditions, including cancers and developmental disorders.
Researchers found a clear connection between gene expression and behavior in little male fish building patterns to attract mates. The study also suggests that the genes behind this behavior have human cousins implicated in autism spectrum disorder.
Researchers found thousands of genetic variants linked to both pit and castle building behaviors, suggesting complex patterns of genetic variation and regulation. The study provides evolutionary insights into the development of these natural behaviors in cichlid fishes.
A new study has discovered a single protein called Dazl that regulates a network of genes essential for developing sperm to replicate and survive. This finding could lay the groundwork for future research into therapies for infertile men, offering insights into molecular events that ensure survival of germ cells.
Researchers report genome assemblies of Eurasian trembling aspen and North American quaking aspen, highlighting the influence of gene network connectivity on genetic diversity. The study suggests that genetic variation is shaped by gene expression levels and regulation in these species.
A new screening method, 'rec-YnH', has been developed to detect direct biomolecule interactions, enabling researchers to understand complex cellular processes. This affordable and accessible technique can be used by standard biomedical laboratories to study protein-protein and protein-RNA interactions.
Researchers at CRG describe how specific proteins guide Tet2 enzyme to DNA regions needed for cell fate specification. This novel mechanism reveals a new way transcription factors interact with the genome.
A study found that a fragment of an ancient retrovirus, HK2, is more frequently integrated in the genes of people who contracted HIV through IV drug use. This suggests that HK2 may contribute to dopaminergic manipulation and be an underappreciated pathogenic burden.
Researchers found a new mechanism by which small snoRNAs regulate the splicing process of host genes, ensuring proper protein production. This breakthrough discovery opens a new avenue of research into gene expression and has implications for understanding diseases like cancer.
Repeated binge drinking alters gene expression in the brain, affecting hormone signaling and immune function in females, while nerve signaling is impacted in males. This study highlights the importance of tailoring treatments for male and female patients with alcohol use disorder.
Research by University of Manchester scientists found that genes regulating lungs and liver function change with the day-night cycle, impacting steroid side effects. Removing a specific molecule, Reverbα, altered gene expression and showed protective effects against fatty liver buildup.
Researchers have identified the genetic mechanisms underlying preterm labor by studying the Nodal gene. Variations of the gene and inflammation are associated with an increased risk of premature delivery.
Researchers identified two essential genes involved in regulating REM sleep duration in mice. The knockout of these genes resulted in drastically decreased REM sleep and altered sleep patterns. This study provides insights into the molecular mechanisms underlying REM sleep, a crucial aspect of maintaining mental and physical health.
Researchers found that Evf2 RNA regulates key genes during embryonic brain development, affecting GABA neurotransmitters and leading to seizures or neurological disorders. The discovery could help identify therapeutic targets to prevent neurological diseases.
Researchers discovered that gene regulation is largely digital and stochastic, with genes being on or off for a fraction of time. This finding adds complexity to human diseases, such as neuropsychiatric disorders, and may help better understand dosage-sensitive genes contributing to these conditions.
A direct link has been discovered between protein aggregation in nerve cells and the regulation of gene expression in Huntington's disease. The study found that impaired autophagy leads to accumulation of misfolded proteins, including AGO2, which disrupts cell function and signal pathways.
The complete wheat genome is now sequenced, enabling researchers to identify genes controlling traits such as drought resistance and breed plants with higher nutritional quality. This breakthrough accelerates innovation in breeding resilient and disease-resistant crops to meet global demand for wheat.