Articles tagged with Transcription Initiation
New research reveals that DNA's physical property of supercoiling is crucial for cells to respond to oestrogens. The study found that enzymes called topoisomerases regulate DNA coiling and activate target genes.
Researchers discovered 47,350 active putative enhancers associated with Parkinson's disease, schizophrenia, and other neurological disorders. These enhancers were found to regulate gene expression during neuronal differentiation.
Researchers have identified alternative transcription initiation sites for over 40,000 soybean genes, revealing widespread variations outside the traditional TATA box region. This discovery challenges current assumptions about gene expression and has significant implications for plant breeding and genetics research.
The CCR4-NOT complex plays a crucial role in regulating RNA metabolism and stress response in C. elegans, compromising stress resistance and decreasing lifespan when depleted of subunits. This study highlights an important new role for the CCR4-NOT complex in normal aging and longevity.
Researchers developed a method to design weaker transcription factors that work together to activate genes without activating naturally occurring genes. This approach, called cooperative assembly, strengthens the factors as a group but weakens them individually, ensuring targeted gene activation and long-term circuit stability.
Researchers at MIT have developed a new control system for synthetic genes that can precisely regulate protein production in mammalian cells. The system uses CRISPR proteins to activate target genes and can be tuned to produce specific quantities of proteins, such as monoclonal antibodies.
Researchers introduce a new theoretical model that explains how DNA supercoiling drives collective dynamics of RNA polymerases during transcription. The model considers the number of RNAPs and transcription factor binding, revealing two contrasting modes of RNAP group dynamics.
Researchers have achieved a major advance in understanding genetic information transcription from DNA to RNA, illuminating critical molecular interactions during the step-by-step process. The study provides new insights into how proteins work together to ensure accurate loading of DNA into Pol II at the start of a gene sequence.
The study determines the three-dimensional structure of the transcription initiation complex, revealing how the molecular machine recognizes and binds to specific sites on DNA. This breakthrough provides a foundation for understanding bacterial transcription initiation and developing new antibacterial agents.
Researchers at IGBMC have developed an 'image-by-image' analysis technique to study the 3D structure of transcription complexes, revealing new insights into the initiation and regulation mechanisms. The study, published in Nature, provides a detailed understanding of the molecular interactions involved in transcription.