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Lastest news items (10)

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  • [Photo] Editor October 30, 2025
    Researchers cultured 250+ gut bacteria and found 134 "hidden" phages that could be awakened. Most stayed silent in the lab until exposed to human gut cells or complex bacterial communities.

    That means phage activity depends on both the microbiome and the human host. Some phages have even lost the genes needed to reactivate, becoming permanent passengers.

    This study gives us a powerful resource of real, testable phage-host pairs and shows that phages are active players shaping our gut ecosystem.

    ARTICLE

    Dahlman, Samuel, Tom O. Delmont, Alejandro Reyes, Anna L. Mallott, and Emily B. Hollister, et al. "Isolation, Engineering and Ecology of Temperate Phages from the Human Gut." Nature 638 (2025): 145-152. https://doi.org/10.1038/s41586-025-09614-7.
  • [Photo] Editor October 27, 2025
    A large UK study has shown that analyzing the entire genetic code of breast tumors can reveal important information about how the disease develops and how patients might respond to treatment. Researchers found that whole-genome sequencing can identify DNA changes linked to survival outcomes and uncover treatment options that standard genetic tests may miss. The findings suggest that using full-genome data could help doctors better match therapies to individual patients and avoid unnecessary treatments in the future.

    ARTICLE

    Turnbull, Clare, Helen Davies, Peter Van Loo, Serena Nik-Zainal, and colleagues. "Clinical Potential of Whole-Genome Data Linked to Mortality Statistics in Patients with Breast Cancer in the UK: A Retrospective Analysis." The Lancet Oncology (2025). https://doi.org/10.1016/S1470-2045(25)00400-0
  • [Photo] Editor October 23, 2025
    Scientists have created a new way to measure how quickly a person's body is aging by analyzing two kinds of blood data with artificial intelligence. The method, called gtAge, uses information from the sugars attached to antibodies and from gene activity in blood cells. By combining these data with deep reinforcement learning, the researchers built a model that predicts biological age more accurately than traditional approaches. They say it could one day help track how lifestyle or medical treatments slow aging and reduce disease risk.

    ARTICLE

    Xia, Yao, Syed Mohammed Shamsul Islam, Xingang Li, Abdul Baten, Xuerui Tan, and Wei Wang. "Deep Reinforcement Learning – Driven Multi-Omics Integration for Constructing gtAge: A Novel Aging Clock from IgG N-glycome and Blood Transcriptome." Engineering (2025). https://doi.org/10.1016/j.eng.2025.08.016.
  • [Photo] Editor October 17, 2025
    Researchers have developed a powerful new system called MetaGraph that allows scientists to search through enormous DNA and RNA databases containing more than a quadrillion genetic letters. The tool can rapidly find genetic sequences across global repositories such as the Sequence Read Archive, making it possible to uncover links between genes, microbes, and diseases that were previously hidden within petabytes of raw data.

    ARTICLE

    Karasikov, Mikhail, Harun Mustafa, Daniel Danciu, Oleksandr Kulkov, Marc Zimmermann, Christopher Barber, Gunnar Rätsch, and André Kahles. "Efficient and Accurate Search in Petabase-Scale Sequence Repositories." Nature (October 8, 2025). https://doi.org/10.1038/s41586-025-09603-w.
  • [Photo] Editor October 12, 2025
    A new method called SDR-seq – short for single-cell DNA-RNA sequencing – enables researchers to measure DNA mutations and gene activity within the same cell, offering a direct view of how genetic variation shapes cell function. The approach improves on previous multi-omic techniques, which often suffered from data loss and could not reliably connect genotype to transcriptomic effects at single-cell resolution. By reducing allelic dropout and scaling to hundreds of genomic targets, SDR-seq provides more accurate and comprehensive insights, demonstrating its effectiveness in both laboratory models and primary tumour samples.

    ARTICLE

    Lindenhofer, Dominik, Christian E. Saliba, René Schmutz, et al. "Functional Phenotyping of Genomic Variants Using Joint Multiomic Single-Cell DNA-RNA Sequencing." Nature Methods (2025). https://doi.org/10.1038/s41592-025-02805-0.
  • [Photo] Editor October 8, 2025
    A large-scale genomic study of more than 218,000 participants in Geisinger's MyCode Community Health Initiative has revealed that rare genetic disorders (RGDs) may be more common and less clinically recognised than previously thought. Researchers found that 2.5% of participants carried high-confidence pathogenic variants linked to RGDs, yet only about one in five of those who were positive had corresponding clinical diagnoses. The findings suggest that genomic-first approaches could identify many undiagnosed cases, refine estimates of disease penetrance, and improve early diagnosis and management of RGDs.

    ARTICLE

    Torene, Rebecca I., et al. "A Scalable Approach for Genomic-First Rare Disorder Detection in a Healthcare-Based Population." The American Journal of Human Genetics, published online October 6, 2025. https://doi.org/10.1016/j.ajhg.2025.09.010. [not open-access]
  • [Photo] Editor October 4, 2025
    Researchers analyzed ancient microbial DNA from 483 mammoth specimens, including 440 newly sequenced samples dating back up to 1.1 million years, and identified six microbial clades likely associated with living mammoths – spanning Actinobacillus, Pasteurella, Streptococcus, and Erysipelothrix. They reconstructed partial genomes of Erysipelothrix from the oldest specimen – representing the oldest authenticated host-associated microbial DNA known to date – and also found putative virulence factors in some lineages, including a Pasteurella relative linked to disease in modern elephants.

    ARTICLE

    Guinet, Benjamin, et al. "Ancient Host-Associated Microbes Obtained from Mammoth Remains." Cell (2025). https://doi.org/10.1016/j.cell.2025.08.003.
  • [Photo] Editor September 25, 2025
    Early findings from a clinical trial suggest that a new gene therapy, administered directly into the brain, may slow the progression of Huntington's disease. The therapy targets the faulty gene responsible for the condition, aiming to reduce the production of the toxic protein that damages brain cells. While the trial involved only a small number of participants, the results represent an important step toward developing the first treatment to alter the course of the disease, which currently has no cure and is typically managed only through supportive care.

    Source: https://www.bbc.com/news/articles/cevz13xkxpro
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