Articles tagged with Regulatory Genes
A new study has discovered over 2.3 million conserved non-coding sequences in plants, providing a comprehensive atlas of regulatory conservation across 284 species. These sequences date back to over 400 million years ago, shedding light on the evolution of plant genomes and gene families.
Researchers have developed DEGU, a tool that improves the accuracy and efficiency of deep neural networks in predicting genomic experiment results. DEGU reduces the size of models while maintaining predictive capabilities, making it easier to understand uncertainty and drive reliable discoveries.
Researchers at the University of Gothenburg discovered that the influenza A virus exploits a protein called AGO2 to regulate gene activity and weaken the immune system. An existing drug, arsenic trioxide, showed promise in increasing interferon production and reducing viral loads.
Researchers discovered temperature influences plant cell fate by regulating epigenetic marks. Low ambient temperatures can rescue developmental defects by compensating for PRC2 loss, highlighting the importance of H3K27me3 in maintaining cellular identity.
A recent study used AI to discover that phosphoglycerate dehydrogenase (PHGDH) is a causal gene for spontaneous Alzheimer's disease. The researchers found that altering PHGDH expression levels can significantly impact the progression of the disease, suggesting a novel therapeutic target.
Researchers discovered that individuals with robust immune resilience at midlife can gain a 15.5-year survival advantage due to their ability to counter disease drivers and maintain healthy aging. The study highlights the importance of salutogenesis, or promoting health and well-being from birth to approximately age 70.
A recent preclinical study from Weill Cornell Medicine researchers suggests that three-dimensional gene hubs may promote brain cancer. The findings, published in Molecular Cell, offer a new way to think about cancer beyond gene mutations and highlight the importance of understanding DNA organization in tumor cells.
A new study published in Science reveals insights into the activity of genes inside different cell types in maize plants. The research, led by Alexandre Marand at the University of Michigan, sheds light on how molecular biology connects to a plant's visible traits, such as ear size and growth.
A mysterious parasite is devastating fish farms globally, causing £50 million in losses annually. Researchers have discovered a new gene regulation process that could lead to the development of gene-based vaccines.
A study co-authored by an Iowa State University professor identified a single protein that triggers chemical signals called effectors in cyst nematodes, which hijack plant cells. Disrupting this protein could severely reduce nematode infections, making it a powerful method for reducing crop damage.
A study reveals that Galectin-1 protein, located in fibroblast nuclei, promotes tumor growth and resistance to treatment. The protein regulates gene expression at a specific level, activating KRAS, a key driver of uncontrolled growth and tumor aggressiveness.
Researchers have identified new candidate genes that could be responsible for congenital deafness, a condition affecting around one in 1,000 babies born in the UK. The study suggests that understanding these gene mutations may hold the key to devising effective treatments.
Researchers have found that a specific protein modification to the immune protein MDA5 can block viral replication and reduce heart inflammation. The study's findings could lead to the development of broad-spectrum antiviral treatments that target multiple viruses.
Researchers from Boston University Chobanian & Avedisian School of Medicine have found a new role for the transcription factor Traffic Jam in promoting female fruit fly fertility. The discovery solves the 30-year-old mystery of how Flamenco gets activated to protect fruit fly ovaries from genetic parasites.
This study reveals NAT10 is crucial for spermatogonial proliferation and differentiation. In Nat10-deficient mice, infertility occurs with reduced testicular sizes, germ cell depletion, and a loss of spermatogonial homeostasis.
A comprehensive atlas of gene activity in chickens has been created, revealing how millions of genetic variants affect gene regulation and giving researchers tools to understand agriculturally important traits. This knowledge could lead to healthier flocks, more resilient farming systems, and fewer economic losses for poultry producers.
The study provides a comprehensive reference for six ape species, including siamang, Sumatran orangutan, gorilla, bonobo, and chimpanzee. The ape genomes offer new insights into human and ape evolution, genetic differences among species, and potential therapeutic applications.
Researchers analyzed brain tissue from individuals with severe Tourette syndrome and identified three key changes: altered gene activity, regulatory element modifications, and interneuron loss. These findings provide unprecedented insights into the disorder's biology and may explain why individuals experience involuntary movements and ...
A recent study found that parental metabolic traits, particularly those of the mother, can significantly affect a child's cardiometabolic health. The research showed that mothers have a greater impact on blood sugar and cholesterol levels in their children, while fathers' genes play a stronger role in insulin function over time.
Researchers at Johns Hopkins Medicine have discovered how a group of proteins linked to Parkinson's and ALS act as 'guardians' of mitochondria, maintaining their normal size and function. The study found that when mitochondria become too large, they leak mitochondrial DNA into the cytosol, triggering an inflammatory response.
A team of researchers found that a gene regulatory network in gut microbes plays an auxiliary role in bacterial fitness and adaptability. By maintaining basal levels of genetic activity, the network allows bacteria to adapt to their constantly changing environment.
Researchers discovered that normal pancreatic cells can temporarily retain 'memory' of cancer-linked epigenetic marks, even in the absence of genetic mutations. This finding suggests a key role for epigenetic memory in cancer development and may explain increasing cancer rates in young people.
A novel circular RNA, circTP63-N, generated by back-splicing exons 2–4 of the TP63 gene is significantly downregulated in nasopharyngeal carcinoma (NPC) tissues. Restoring its expression effectively inhibits NPC cell proliferation and metastasis via engagement with HSP90AB1 to modulate the YAP1/Hippo signaling pathway.
A team of scientists has discovered that the circadian clock plays a crucial role in regulating F. oxysporum's response to zinc starvation and controlling secondary metabolism, enhancing its virulence. The study provides new insight into host-pathogen interactions and could lead to innovative approaches for crop protection.
Researchers discovered that cruciferous plants like cabbage and wasabi repurpose stomatal genes for defense, producing pungent compounds that deter herbivores. FAMA regulates both gas exchange and myrosin cell production, a key trigger for this defense mechanism.
A team of biologists has discovered an ancient neurohormone called bombesin that controls appetite in humans and other vertebrates. The study also found that bombesin-like neurohormones are present in starfish, revealing a common ancestor of appetite regulation dating back over half a billion years.
Researchers have identified a potential new gene target, FLT1, that could be edited to treat sickle cell disease by increasing fetal hemoglobin levels. The study found 14 new genetic markers associated with fetal hemoglobin production, which could help preserve the type of hemoglobin present at birth.
An international team of scientists has molecularly decoded blood stem cell differentiation pathways using state-of-the-art sequencing methods. They identified a crucial surface protein, PD-L2, which suppresses the immune response by preventing T cell activation and release of inflammatory substances.
Researchers identified a Y chromosome-linked gene, UTY, as a key driver of valve calcification in males. In females, fibrotic tissue formation stiffens the valve, leading to different disease progression. The study highlights the importance of sex-based mechanisms in heart valve disease
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.
Researchers at Osaka Metropolitan University developed an engineered yeast that can produce record-high yields of D-lactic acid from methanol, a key compound used in biodegradable plastics and pharmaceuticals. The optimized yeast strain achieves a 1.5-fold boost in production compared to other methanol-based methods.
Researchers at Northwestern University have identified a previously unobserved function of Exportin-1, a protein that promotes gene transcription and stimulates stronger gene expression. This discovery could aid in the development of new medications to stymie cancer growth without harming healthy cellular function.
Researchers have uncovered two major genes responsible for sorghum's double-grain spikelet, leading to a significant increase in grain number and crop yield. The study found that the DG1 gene regulates floret meristem formation and differentiation, restoring fertility to the lower floret and resulting in the double-grain trait.
Researchers identified a novel molecular module involving OfC3H49 and OfWRKY17 genes that suppresses flowering under high temperatures, leading to delayed flowering in Osmanthus fragrans. The study provides new avenues for enhancing plant resilience to heat stress.
The study highlights the role of the Nwd1 gene in liver disease and its potential as a therapeutic target. Mice with Nwd1 gene deletion exhibited liver pathologies mirroring MASH, including excessive lipid accumulation and increased ER stress.
A research team from Göttingen University has compared algae and plants that span 600 million years of independent evolution, identifying a shared stress response network. This comprehensive dataset can be further explored for its physiological impact across plant diversity.
The study highlights the significant protective role of Asah1 in preventing NAFLD progression by regulating hepatic lipid homeostasis and cellular maintenance processes. The findings suggest that targeting Asah1 expression or activity may inform new therapeutic strategies for improving patient outcomes.
Researchers found that dogs carrying the genetic variant DENND1B had higher body fat content, while humans also carry this gene linked to obesity. The study highlights the importance of fundamental brain pathways in regulating appetite and body weight.
A genetic mutation in mice reveals the crucial role of intercellular bridges in meiosis, a specialized cell division process that creates sperm. The study's findings may lead to new treatments and male contraceptives for infertility.
Key molecular applications in diagnosing and managing hematopoietic and lymphocytic neoplasms include comprehensive mutational profiling, aiding accurate diagnosis and prognostication. The use of targeted therapies against specific genetic abnormalities further refines treatment selection.
Researchers at Tel Aviv University have developed a novel method to measure PTEN gene activity, which is associated with cancer and autism. This breakthrough may lead to personalized therapeutics and earlier disease detection.
Researchers discover that the gene HMGA1 'opens' regions of the genome to activate stem cell genes, leading to tumor development and progression. High levels of HMGA1 also allow mutant tumor cells to escape detection by immune cells.
Researchers studied mRNA length variations during atherosclerosis progression in mice, discovering shorter mRNAs as the disease advances. The findings suggest alternative splicing mechanisms may play a role in generating diverse mRNA sequences related to the disease.
Researchers have developed a new gene switch that uses nitroglycerine to trigger the production of insulin and regulate blood sugar levels in people with diabetes. This switch is made exclusively of human constituents, eliminating the risk of false triggering or immune reactions.
Researchers found a biomarker, RNA Polymerase II (RNAPII), associated with tumor aggressiveness and recurrence in meningioma and breast cancers. The study developed a novel profiling technology, Cleavage Under Targeted Accessible Chromatin (CUTAC), to measure gene transcription activity from DNA, which predicted cancer outcomes.
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.
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 new study reveals that postnatal exposure to tobacco smoke can alter the way genes are expressed, increasing the risk of diseases such as asthma and cancer. The study found 11 regions associated with second-hand smoke exposure, six of which are linked to smoking-related diseases.
Researchers use CRISPR/Cas9 and CRISPR/Cpf1 genome editing to precisely edit the promoter region of key high-temperature-responsive gene GhCKI, leading to improved anther development and heat tolerance in cotton. The breakthrough provides novel genetic resources for breeding heat-tolerant cotton varieties.
Researchers at Osaka Metropolitan University assessed target genes in canine hepatocellular carcinoma (HCC) to develop molecular targeted therapies. The study identified potential gene targets, including PDGFB, which may improve treatment options for unresectable HCC.
Researchers used CRISPR/Cas9 to study the gene function of adenine phosphoribosyl transferase in beans. They found two functional mutants with distinct roles: one affects adenine recycling and the other regulates cytokinins, essential for root growth and nodules.
Two comprehensive datasets from the Gabriella Miller Kids First Pediatric Research Program explore childhood cancers and congenital disorders. The new datasets aim to identify genetic causes and links between these diseases in children, ultimately supporting the development of improved treatments.
Researchers at the University of Maryland discovered multiple pathways for dsRNA molecules to enter cells, challenging previous assumptions about RNA transport. They found that a protein called SID-1 plays a key role in regulating genes across generations, which could lead to better targeted treatments for human diseases.
Researchers have developed a new gene therapy that targets aggressive brain cancer, glioblastoma, with a precise delivery system. The treatment uses a novel virus to deliver a targeting drug to cancer cells, achieving cure rates of up to 90% in mouse models.
Researchers have identified ALPK2 as a potential therapeutic target for treating heart failure with preserved ejection function (HFpEF). The enzyme is believed to prevent stiff heart conditions through regulating the TPM1 gene. This discovery offers new hope for developing treatment options targeting ALPK2.
A KAUST-led research team discovered EZH1 plays a dual role in circadian regulation, stabilizing RNA Polymerase II and reshaping chromatin to activate or silence genes on schedule. This ensures genes involved in metabolism, sleep, and other essential processes rise and fall on cue.
Researchers successfully created a bi-paternal mouse by modifying genes involved in reproduction. The mice that reached adulthood exhibited altered growth and shortened lifespan, but could potentially lead to new therapeutic strategies for imprinting-related diseases.
The research aims to understand how high-risk genes disrupt neurodevelopment and lead to neuropsychiatric conditions, potentially informing diagnostic and therapeutic approaches. A national team of researchers will examine the effects of these genes on brain development, connectivity, and behavior in a mouse model.
Researchers from Zhejiang University have identified 185 YTH genes across twelve species of Rosaceae, revealing new insights into the regulatory mechanisms of N6-methyladenosine (m6A) and its impact on plant development. The study also highlights the potential role of YTH genes in mitigating chilling injury during cold storage.
UCSF researchers identify a molecular timer controlling mouse birth timing, which could lead to new tests for human preterm labor risk and interventions. DNA packaging during pregnancy plays a crucial role in regulating gene expression, with KDM6B working as a 'timer' that winds down over time.