Articles tagged with Transcriptomics
The ENCODE project has published a series of articles annotating the functional elements in the human genome, revealing new information on pseudogenes and regulatory elements. The study's findings are now freely available online as part of BioMed Central's open access policy.
Scientists have identified how E. coli O157:H7 colonizes fresh-cut lettuce, providing new insights for food safety. The bacteria breaks down leaf cells, releasing carbohydrates and antimicrobial compounds that can be used as energy sources.
Researchers at UCSD have made a breakthrough discovery that enables the experimental annotation of genomes. By combining multiple genome-scale measurements, they can identify the location and use of genomic elements with precision. This innovation has significant implications for metabolic engineering, disease research, and drug design.
The FANTOM4 consortium has published several milestone papers in Nature Genetics and BioMed Central journals, providing new data on genomic regulatory blocks and chromatin conformation signatures. These findings have the potential to revolutionize our understanding of gene regulation and cell differentiation.
The launch of BioMed Central's Genome Medicine journal marks a significant milestone in the field of personalized medicine. The journal will focus on the latest technologies and findings impacting human health and disease, covering topics such as genomics, epigenetics, and computational approaches to disease management.
Researchers discovered a positive role for gene recruitment to the nuclear periphery, with significant implications for cell polarity and development. The study's findings suggest a complex interplay between nuclear organization and transcriptional regulation.
The study reveals that antisense transcripts (SATs) are widely expressed in various mouse tissues and cell cultures, exhibiting tissue-specific expression patterns. SATs tend to be poly(A)-negative and enriched in the nucleus, suggesting a functional role in gene regulation.
The Neisseria meningitidis genome contains hundreds of repetitive elements that facilitate genome fluidity and antigenic variation. The most abundant element is the neisserial DNA uptake sequence, which enables transformation among different species.
Dr. Julie R. Korenberg's comprehensive map integrates three ways of looking at the human genome, marking critical points with fluorescent signposts for rapid translation of clinical problems into genome-based solutions. The guide has significant practical applications in cancer treatment and genetic diagnosis.
A recent University of Georgia study suggests that retroviruses, including HIV, may have an ancient origin. Researchers analyzed the genome of a worm called Caenorhabditis elegans and found evidence of retroviral-like elements in its DNA. This finding challenges previous assumptions about the evolution of complex retroviruses.