Articles tagged with Transcription Factors
Researchers at Rockefeller University identified Sox9 as a key molecule controlling stem cell plasticity in hair follicles. Sox9 enables hair follicle stem cells to regain their ability to produce new tissue and heal wounds by amplifying genes associated with stemness.
New connections in gene regulation have been discovered in normal lung cells that may contribute to lung tumor formation. The researchers found that the transcription factor Nkx2-1 regulates lung cell proliferation, tumor growth, and progression by binding to microRNAs.
Researchers found that C2H2-ZF transcription factors evolved to defend the genome from self-replicating parasitic DNA, known as selfish DNA. These proteins eventually took control of genes, including those involved in brain and heart development.
Researchers at CNIO have identified a key regulator of keratinocyte differentiation, Fra-2, which plays a crucial role in the formation of human skin. The study reveals that activation of Fra-2 induces premature differentiation and may hold promise for treating skin diseases.
UC Davis researchers have identified a complex network of genetic controls governing plant root growth, which may help create varieties suited for biofuel production. The study reveals how environmental changes affect the system, with potential applications in improving plant breeding and biomass conversion.
A genetic abnormality drives Ewing sarcoma through two processes: stimulating tumor growth and suppressing cancer development. New therapies may target these mechanisms.
Researchers at Scripps Research Institute have developed a method to convert human skin cells into sensory neurons, allowing for the study of pain and itch in a laboratory setting. This breakthrough enables the examination of neurodegenerative diseases such as Friedreich's ataxia and the testing of potential therapies.
Research from University of Eastern Finland finds SIP1 protein expression indicates advanced tumour stage, high recurrence risk, and poor prognosis. The study identifies SIP1 as a potential new prognostic factor for clinical use.
Researchers developed a DNA regulatory technique that modifies a single gene to control its expression and behavioral consequences. The study showed that changes in this gene reduced drug and stress responses in mice, indicating a potential new approach to treating addiction and depression.
Researchers successfully generate neural stem cells that can self-renew and differentiate into neurons, opening the door to transplantation therapies. The breakthrough allows cells to divide repeatedly without ongoing expression of reprogramming factors, making them suitable for therapeutic use.
Fruit fly research reveals that a transcription factor called Mirror regulates tumour-like growth in the intestines. A similar system may be at work in humans, suggesting a potential role for Irx transcription factors in cancer progression. This study could lead to new treatments using the fruit fly model.
Researchers at USC isolated a transcription factor, FBH1, that modulates circadian rhythms based on temperature, allowing plants to adapt to changing environments. This discovery could lead to heartier plants better equipped to deal with climate change.
Researchers have identified KLF transcription factors as key regulators of axon growth and regeneration in the central nervous system. The study found that these factors suppress axon regeneration in neurons, highlighting the complex genetic programs involved in this process.
Researchers at TUM have mapped a new signaling mode for brassinosteroids, which regulate cell elongation and division. The study shows that brassinosteroids trigger a multi-level cascade of reactions controlling the activity of the CESTA transcription factor.
The collection contains about 2,000 clones of plant transcription factors, which can be used to improve plant traits such as cold resistance and seed quantity. The researchers hope that the library will help scientists understand how plants adapt to environmental changes and design more robust crops for future food security.
Recent research from BUSM sheds light on the regulatory strategies controlling PPARgamma activity in cells, offering potential avenues for developing effective treatments. By targeting specific subsets of PPARgamma target genes, researchers aim to improve insulin sensitivity and combat type 2 diabetes.
Researchers at Case Western Reserve University found that existing cancer treatment bortezomib increases levels of the vascular-protective gene KLF2, preventing blood clot formation. This discovery has potential implications for managing thrombosis in patients with predispositions to clot formation.
Researchers from University of Southern Denmark have discovered that proteins called transcription factors work together in a new and complex way to reprogram the DNA strand when a stem cell develops into a specific cell type. This discovery could lead to new ways of making stem cells develop into exactly the type of cells that a physi...
A study from the University of Minnesota found that sex-specific transcription factors perform lifelong work to maintain sexual determination and protect against reprogramming of cells. The researchers identified key transcription factors responsible for maintaining sexual differentiation, including DMRT1 and FOXL2.
Researchers found that duplication of the OTX2 gene is associated with hemifacial microsomia, a common facial disorder. The study used genomic analysis to identify the genetic cause of the condition in a large family affected by HFM.
Researchers discovered that fatty acid binding protein 5 (FABP5) enhances cognitive function and improves learning and memory functions in the brain's hippocampus region. FABP5 deficiency impairs learning and memory, suggesting potential therapeutic applications for cognitive dysfunction.
Researchers at Boston Children's Hospital have made a significant breakthrough in regenerative medicine by reprogramming mature blood cells into blood-forming hematopoietic stem cells. The induced blood-forming stem cells (iHSCs) have functional hallmarks of HSCs and can give rise to all cellular components of the blood.
A team of researchers identified four transcription factors that distinguish glioblastoma stem cells from more differentiated tumor cells. These factors were found to be active in 2-7% of human glioblastoma cells and could be targeted by new therapeutic approaches.
Researchers at Washington University in St. Louis have identified a key protein in the auxin signaling network that may help understand the entire mechanism. The protein's interaction domain allows it to form chains with other proteins, fine-tuning the response of individual cells to auxin and producing detailed patterns on plant leaves.
A team of Caltech researchers has developed a mathematical model to describe the competition between genes for regulatory proteins. The model accounts for the limited availability of transcription factors, leading to correlations between gene copies and a regime where some portion glows green all the time.
Researchers have uncovered a complex emergency program designated to save single cells and thus the organism itself when exposed to life-threatening conditions. The protein HSF1 plays a central role in coordinating this process.
Researchers at Uppsala University have challenged the established model for gene regulation by directly measuring transcription factor concentrations in living cells. They found small but significant differences between measurements, opening up new possibilities for understanding gene regulation.
Researchers reveal how auxins activate developmental genes in plants through specific transcription factors, unlocking key to understanding plant growth and development. The discovery sheds light on the complex mechanisms behind plant hormone regulation.
Researchers at IMIM have discovered a new function for transcription factor Snail1 and enzyme LOXL2 in the process of Epithelial-Mesenchymal Transition (EMT), enabling tumor cells to invade other tissues. LOXL2 is identified as a potential therapeutic target for cancers such as breast, lung, or skin cancer.
A WSU-led study finds that modifying a drug to target specific human proteins could lead to new treatments for cancers and immune-related diseases. Researchers discovered that simple modifications to the drug furamidine have a major impact on its ability to affect genes.
Researchers discovered that DNA changes the form and activity of transcription factors, such as the glucocorticoid receptor, allowing for precise control over gene expression. This adaptation enables genes to be transcribed to varying degrees.
Researchers discovered that horizontal cells, processing visual information, are crucial for maintaining photoreceptor cell integrity. Without Onecut1, the number of photoreceptors decreases, leading to potential retinal degradation and diseases like retinitis pigmentosa.
Researchers at Sanford-Burnham Medical Research Institute have identified a critical transcription factor that regulates autophagy, a cleansing mechanism for cells. The discovery could lead to new therapies for age-related disorders by inducing autophagy in animal models and dietary-restricted mice.
A study of gene expression in five closely related mouse species reveals the first steps of evolution in gene regulation. The research found that transcription-factor binding variation is an important indicator of gene-regulation activity.
Researchers discovered that the transcription factor EBF1 is crucial for maintaining B cell identity and preventing alternative fates. When EBF1 was switched off, transplanted B cells forgot their previous identity and developed into T cells and natural killer cells.
A Brown University research team has discovered the genetically prescribed dance steps of the pollen tube, which leads to its self-sacrifice and allows flowering plants to reproduce. The study highlights the complex intercellular communications involved in pollination.
Researchers discovered a molecular switch, Steroidogenic Factor 1, that stimulates steroid hormone production and cell multiplication in aggressive prostate cancers. This factor increases tumor growth and resistance to hormone treatment.
A protein complex called Mediator, specifically enzyme CDK8, plays a crucial role in tumor cell survival under hypoxic conditions. Inhibiting CDK8 could provide a potential target for cancer-fighting drugs, particularly those targeting HIF1A transcription factor.
The study identified the DNA transcription factor SRF and its cofactors MRTF-A and MRTF-B as critical regulators of vascularization in the postnatal mouse eye. Loss of Srf led to microaneurysms and excess blood vessel formation similar to human retinal diseases.
Researchers identify ATRX as a crucial gene in maintaining genomic stability, preventing chromosomal mutations and rearrangements that can cause disease and aging. Atrx deficiency in mice leads to increased DNA damage, endocrine dysfunction, shortened lifespans, and degenerative phenotypes similar to human premature aging disorders.
A team of scientists has identified a prion that triggers epigenetic changes in yeast, leading to the adoption of a multicellular structure for improved survival. This finding suggests that prions may play a role in beneficial traits and could have implications for understanding human diseases such as cancer.
Scientists describe key details about the structure of transcription factor Oct4, crucial for cellular reprogramming. The study's findings may pave the way for medical applications in regenerative medicine and drug discovery.
Researchers at UNIGE developed a screening technique called Synthetic Tandem Repeat PROMoter (STAR-PROM) to identify transcription factor serum response factor (SRF), which activates genes and influences cellular structure. The technique allows for the discovery of factors modulating gene expression in various contexts, including drug ...
Researchers have discovered a new class of non-coding RNAs essential for embryonic heart development. Knocking down the long non-coding RNA Fendrr led to lethal malformations and impaired body wall formation in mouse embryos. The study sheds light on the role of epigenetic control in regulating cardiogenesis.
Researchers found that stem cell protein Ell3 marks enhancers that regulate gene expression, priming them for future activation. This discovery has significant implications for understanding cancer and development.
A new study reveals how a 'transcription factor' called ELF5 causes aggressive breast cancer to develop, making it resistant to oestrogen therapies. Researchers found that manipulating ELF5 levels could be a potential treatment option for this type of breast cancer.
A research team has uncovered the molecular structure of MITF, a master regulator central to melanoma and other diseases. The X-ray analysis revealed unexpected insertions that limit MITF's ability to bind to DNA, providing a rational basis for the development of tailor-made drugs targeting this protein.
Researchers at George Washington University School of Medicine and Health Sciences discover a new regulator of the blood coagulation cascade, p21-activated Kinase-1 (PAK1) signaling. The study finds that PAK1 regulates both positive and negative regulators of coagulation, promoting a hypercoagulant state.
A group of researchers has identified four specific transcription factor genes that control processes related to heart and head muscle formation. This basic research will provide a road map to ultimately allow scientists to grow the cell types needed to repair such defects from stem cells generated from a person's own body.
Researchers at EPFL and University of Geneva create k-MITOMI, a microfluidic device that measures up to 768 biomolecular interactions simultaneously. The device accelerates the acquisition of protein-protein and protein-DNA interaction information, crucial for understanding living organisms.
Researchers at Moffitt Cancer Center have identified PHF20 as a novel transcriptional factor that regulates gene P53, a crucial gene for normal cell growth and tumor suppression. The study found that PHF20 directly interacts with p53 and stabilizes it, allowing for its activation in response to DNA damage.
A Yale research team has identified a single genetic switch that triggers loss of brain connections and contributes to depression. The study found that the transcription factor GATA1 represses genes necessary for synaptic connection formation, disrupting circuits involved in emotion and cognition.
Researchers discovered a crucial switch controlling cardiac stem cell activity, enabling the growth of healthy hearts and potentially treating congenital defects. By silencing this switch, scientists hope to regenerate damaged adult hearts using lab-cultured replacement cells.
A team of researchers has made a groundbreaking discovery that could revolutionize the US tomato industry by introducing new varieties with improved flavor and quality. The study, published in Science, reveals two transcription factors responsible for the trait in wild and traditional tomatoes.
Fuxman Bass, a postdoctoral scholar, received the fellowship to study the complex immune system and its regulation by transcription factors. The research could lead to new treatments for cancer, infection, and autoimmune diseases.
Researchers at Johns Hopkins Bloomberg School of Public Health have identified the function of a series of proteins within the mosquito that transduce a signal to trigger an immune response against the malaria parasite. The study found that manipulating these proteins through genetic engineering can create a malaria-resistant mosquito.
A team of researchers at Caltech has traced the developmental process that ensures certain stem cells become T cells. They identified key genes and regulatory proteins involved in this process, shedding light on how stem cells are committed to a specific cell fate.
A UNC-led team reveals that gene switches don't simply flip on or off, but instead exhibit dynamic binding behavior involving stable and transient states. This discovery offers new insights into gene regulation and potential applications in genetic medicine.
Researchers at Max Planck Institute successfully generated artificial thymus tissue in mouse embryo, discovering key signalling molecules controlling T cell maturation. The discovery represents a crucial step towards producing artificial thymus glands that could be used to replace or augment damaged organs.
Researchers at Linköping University identified seven key transcription factors that specify the creation of 34 neuron groups in a fruit fly's antenna. This discovery sheds light on the mechanisms that diversify neurons and keep them diverse, crucial for future nerve cell cultivation and replacement.