Articles tagged with Gene Transcription
Researchers at St. Jude Children's Research Hospital used a next-generation protein degradation technology to study CTCF, revealing its functional insights into transcription regulation. The AID2 system overcame limitations of previous approaches, identifying specific zinc finger domains responsible for CTCF-dependent transcription.
A germline mutation of topoisomerase II B affects the movement of proteins in the nuclei of cells with this mutation. The study reveals that the mutation impacts nuclear dynamics and provides a platform to understand the biological relevance of such mutations.
Researchers identified 17 clusters of single cells in peripheral blood, showing upregulation of antigen processing and presentation pathways and downregulation of genes involved in ribosome pathways with age. The study also found senescent T cells resistant to apoptosis, potentially targeted for treatment.
A recent study has unveiled how nucleotide excision repair (NER) is controlled at the molecular level, shedding light on its role in cancer treatment. The research revealed that TFIIH uses XPG to stimulate motor activity and locate damaged DNA, licensing XPG nuclease activity to excise it.
Researchers at Kyoto University discovered METTL16's role in DNA repair and erythropoiesis, a process generating 200 billion new red blood cells daily. Tiny methyl groups on specific mRNAs play a pivotal role in this process, involving mechanisms mediated by RNA-binding proteins.
Researchers have characterized the functional significance of DDX41 in molecular processes underlying cancer. The study reveals that DDX41 serves crucial functions in transcriptional processes, RNA splicing, and genomic integrity maintenance, which may hold significance in treating hematopoietic malignancies.
Researchers developed a new mathematical technique to analyze cell nucleus organization, revealing self-sustaining transcription clusters that play a key role in maintaining cell identity. This understanding may expose vulnerabilities for targeting cancer cells and reprogramming them to stop uncontrollable cell division.
Researchers at UNSW Sydney have found a transposable element that regulates the immune response to virus infection in mice, leading to exaggerated immune responses and tissue damage. Reintroducing the element restores survival, suggesting its potential as a target for treatment.
Researchers at Cedars-Sinai have comprehensively mapped molecular activity in the brain and spinal cord that regulates body's response to central nervous system (CNS) disorders. They discovered a critical role of astrocytes, specialized support cells, in regulating outcomes for CNS disorders.
A study by EMBL researchers sheds light on how gene placement impacts its expression and neighboring genes, revealing general principles for designing genomes. The team found that transcriptional context alters RNA output, even when the sequence itself remains unchanged.
Researchers at Karolinska Institutet used spatial transcriptomics to create a map of gene expression in the mouse colon, gaining new insights into inflammatory bowel disease. The study's findings suggest that the colon is divided into more segments than previously thought and could lead to the development of new treatments.
Researchers developed a new reagent-free detection technique for SARS-CoV-2 using Raman spectroscopy and machine learning. The method shows an accuracy of 80% in detecting COVID-19 infections from saliva samples, overcoming limitations of RT-PCR testing.
Researchers found a unique bivalent histone-mark switch specific to critical transcription factors that induce genes essential for angiogenesis. The histone modifiers responsible for this modification are vital for postnatal angiogenesis.
A new portable $51 testing kit can provide fast and reliable COVID-19 detection in resource-poor regions, refugee camps, and disaster zones. The non-invasive saliva sampling system uses a technique similar to PCR testing, with costs comparable to commercial tests.
Researchers at Penn State will investigate ways to stimulate muscle growth by increasing ribosome production. Their goal is to find molecular targets that can be used to promote muscle growth without exercise or drugs. This study aims to prevent muscle loss due to aging, cancer, and other chronic diseases.
A UMass Chan clinical trial demonstrates the safety and efficacy of an antisense oligonucleotide in suppressing mutant C9ORF72, a common cause of familial ALS. The treatment led to reduced levels of neurotoxins and stable or improved ALS functional scores.
Researchers from the University of Tsukuba found that the FoxO-KLF15 axis regulates macronutrient metabolism in the liver in response to changes in insulin levels. This pathway promotes the conversion of protein to carbohydrate and prevents the conversion of carbohydrate to fat during fasting, but shuts down during feeding.
Researchers discovered a microRNA, miR-766-5p, that targets super-enhancers and reduces MYC expression in cancer cells, inhibiting growth rates. The study suggests this molecule could be used as an anti-cancer therapeutic to fight MYC-driven cancers.
Researchers have identified five Bacillus strains with antibiotic ability against the deadly Fusiarium wilt TR4 fungus, which is threatening global banana production. The study found that these strains can trigger direct or indirect antagonism on the fungus, providing a new biocontrol method to combat TR4.
A new protein, UAD-2, has been identified as essential for the genesis of piRNAs in Caenorhabditis elegans. The protein and its associated complex colocalize with histone marks in the nucleus.
Researchers studied age-related changes in kidney function, combining protein analysis with gene transcription. They found that aging kidneys have increased immune cells, inflammation, and decreased mitochondrial energy production. This suggests that therapies promoting protein building or slowing breakdown may help treat age-related k...
A recent study published in Cell Reports reveals that DNA supercoiling is involved in regulating gene expression, rather than being just collateral damage. The researchers found that specific genes are massively activated in response to stimuli, and topoisomerase TOP2A plays a crucial role in this process.
Researchers identified key gene networks controlling sugar and organic acid metabolism in watermelon fruit, shedding light on its sensory quality. The study's findings have important implications for improving watermelon breeding levels in China and the development of the watermelon industry.
A preclinical study by University at Buffalo researchers has identified new genes that could be key therapeutic targets for treating Alzheimer's disease. The study found that inhibiting certain enzymes involved in abnormal gene transcription can reverse memory deficits associated with the disease.
Researchers will investigate chromatin organization within cells and how it changes over time to identify disease targets. The study aims to develop navigable maps of chromatin architecture across multiple cell types, enabling new treatments for a range of diseases.
Sperm cells activate 90% of their genes, a pattern seen in other species, to repair DNA before passing it to the next generation. This process may influence the evolution of specific genes, with unexpressed genes containing fewer DNA code errors.
Historians have picked 500 favourite cases from the astrologers' notes, providing a unique insight into health and fertility concerns, bewitchment fears, and sexual desires of thousands of lives lost to history. The transcribed casebooks offer a trap door into the arcane archive of magic and medicine.
A new study found that court reporters transcribed African American English 82.9% accurately, falling short of the 95% requirement. This discrepancy can impact trial outcomes due to potential miscomprehension by jurors and judges.
Researchers uncovered a crucial quality-control mechanism inside cells that fails when contributing to major diseases including cancers. The discovery found an enzyme called casein kinase II adds molecular tags onto Spt6, a key protein in transcription, preventing inappropriate transcription.
A study found that HIV latency differs between the gut and blood, with unique mechanisms governing transcription in each. This discovery could inform new therapies aimed at curing HIV.
A team of University of Tsukuba researchers uncovered the essential role of a specific gene region in regulating blood pressure homeostasis. By deleting certain regions of the renin gene, they found that one particular region, known as -5E, plays a crucial role in the basal expression of the gene.
Researchers found that B2 RNA interacts with EZH2 enzyme to activate heat-shock genes and induce the cellular response to stress. The study reveals a new mechanism for EZH2 to activate genes outside of its typical PRC2 complex.
A study published in PLOS Biology shows that multiple mechanisms regulate expression of genes from the single X chromosome in Drosophila testes, reflecting a balance between chromosome-wide transcriptional suppression and compensatory evolution by sex-linked genes. This balance has consequences for gene expression and genome evolution.
The study found almost double the number of differentially expressed heart and liver genes in translation compared to transcription. This discovery sheds light on the genes and regulatory pathways underlying disease, offering new avenues for research.
Researchers at the Gladstone Institutes have identified a unique change in protein structure that guides the production of RNA from DNA. The study sheds light on key aspects of transcription, including polymerase pausing and acetylation, which are crucial for precise transcription and cellular processes.
Volunteers are transcribing decades-old pen strokes from historic log entries to add to the climate record, revealing past weather and climate patterns. The project aims to provide valuable data for scientists studying the Arctic's dramatic melt back.
The study reveals that inhibitory Smads bind directly to their targets without requiring phosphorylation, constituting a crucial step in the regulation of gene transcription. This discovery sheds light on how organisms achieve balance between TGF-beta signaling pathways, critical for maintaining tissue and organism health.
A new study in Canada found that breast imaging reports generated with automatic speech recognition (ASR) systems have a higher error rate compared to conventional dictation transcription. At least one major error was found in 23% of ASR reports, while 4% of conventional reports contained errors affecting patient management.
A new collaborative research center aims to study the diversity of Arabic manuscripts from a historical and comparative perspective. The project, led by Prof. Dr. Tilman Seidensticker, will analyze nine layout characteristics to understand their functions in everyday transcriptions.
A team of European researchers has generated a comprehensive digital gene expression atlas for the developing mouse embryo, revealing tissue-specific and overlapping gene networks. The atlas includes data for over 15,000 genes in hundreds of anatomical structures and provides insight into developmental processes.
Researchers at The Wistar Institute have discovered a new class of long non-coding RNA molecules that function like gene enhancer elements, promoting gene expression and potentially accounting for unknown genomic activity. This breakthrough joins a growing body of evidence challenging the central dogma of genetics.
A new study by University of Washington professor Virginia Berninger found that children can write more and faster with a pen than a keyboard for essay composition. Children consistently produced longer essays and composed them at a faster pace when using a pen.
Researchers have developed cells that can count up to three cellular events, mimicking computer chips with simple circuits. The RTC Counter uses a series of genes activated in a specific order, while the DIC Counter stores digital memory by encoding 'bits' of information.
Chromosomes in the cell nucleus exhibit directed, long-range movement that depends on actin and myosin, contradicting earlier theories on gene location. The study reveals a mechanism for actively moving chromosomes between the periphery and interior of the nucleus.
Researchers used acoustic measurements to recognize differences in vowel pronunciation among 160 Dutch and Flemish teachers. The study found that acoustic methods can map sociological differences in pronunciation with high accuracy, outperforming phonetic transcription methods which require manual expert analysis.
Researchers found that certain proteasome proteins, Sug1 and Sug2, are involved in gene activation when genes are turned on. This discovery challenges conventional wisdom and could lead to a better understanding of human development and disease causes.