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#ecdna — Public Fediverse posts

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  1. Thrilled to see our work featured on the cover of Molecular Cell.

    The image: an electron micrograph of an i-loop, the DNA structure we propose as a source of eccDNA formation. Almost like catching circular DNA formation in the act.

    #MolecularCell #eccDNA #ecDNA #CancerResearch #GenomeInstability #DNARepair @MolecularCell

  2. Thrilled to see our work featured on the cover of Molecular Cell.

    The image: an electron micrograph of an i-loop, the DNA structure we propose as a source of eccDNA formation. Almost like catching circular DNA formation in the act.

    #MolecularCell #eccDNA #ecDNA #CancerResearch #GenomeInstability #DNARepair @MolecularCell

  3. Thrilled to see our work featured on the cover of Molecular Cell.

    The image: an electron micrograph of an i-loop, the DNA structure we propose as a source of eccDNA formation. Almost like catching circular DNA formation in the act.

    #MolecularCell #eccDNA #ecDNA #CancerResearch #GenomeInstability #DNARepair @MolecularCell

  4. Thrilled to see our work featured on the cover of Molecular Cell.

    The image: an electron micrograph of an i-loop, the DNA structure we propose as a source of eccDNA formation. Almost like catching circular DNA formation in the act.

    #MolecularCell #eccDNA #ecDNA #CancerResearch #GenomeInstability #DNARepair @MolecularCell

  5. Thrilled to see our work featured on the cover of Molecular Cell.

    The image: an electron micrograph of an i-loop, the DNA structure we propose as a source of eccDNA formation. Almost like catching circular DNA formation in the act.

    #MolecularCell #eccDNA #ecDNA #CancerResearch #GenomeInstability #DNARepair @MolecularCell

  6. Huge congratulations to @EZ_eta for leading the experimental work, and a big thank you to our collaborators at IIT for their Nanopore expertise, as well as to Michele Giannattasio head of the EM on Single Molecules Facility for his contribution to the structural analysis.

    #eccDNA #ecDNA #CancerResearch #GenomeInstability #DNARepair #ReplicationStress

  7. Huge congratulations to @EZ_eta for leading the experimental work, and a big thank you to our collaborators at IIT for their Nanopore expertise, as well as to Michele Giannattasio head of the EM on Single Molecules Facility for his contribution to the structural analysis.

    #eccDNA #ecDNA #CancerResearch #GenomeInstability #DNARepair #ReplicationStress

  8. Huge congratulations to @EZ_eta for leading the experimental work, and a big thank you to our collaborators at IIT for their Nanopore expertise, as well as to Michele Giannattasio head of the EM on Single Molecules Facility for his contribution to the structural analysis.

    #eccDNA #ecDNA #CancerResearch #GenomeInstability #DNARepair #ReplicationStress

  9. How do cancer-associated extrachromosomal circular DNAs arise?
    In our new manuscript, we show that single-strand DNA damage in repetitive sequences can trigger i-loop formation and eccDNA generation. What started at telomeres may reflect a much broader principle across the genome and help explain how ecDNA may emerge in cancer.
    authors.elsevier.com/a/1n0wG3v

    #eccDNA #ecDNA #CancerResearch #GenomeInstability #DNARepair #ReplicationStress

  10. How do cancer-associated extrachromosomal circular DNAs arise?
    In our new manuscript, we show that single-strand DNA damage in repetitive sequences can trigger i-loop formation and eccDNA generation. What started at telomeres may reflect a much broader principle across the genome and help explain how ecDNA may emerge in cancer.
    authors.elsevier.com/a/1n0wG3v

    #eccDNA #ecDNA #CancerResearch #GenomeInstability #DNARepair #ReplicationStress

  11. How do cancer-associated extrachromosomal circular DNAs arise?
    In our new manuscript, we show that single-strand DNA damage in repetitive sequences can trigger i-loop formation and eccDNA generation. What started at telomeres may reflect a much broader principle across the genome and help explain how ecDNA may emerge in cancer.
    authors.elsevier.com/a/1n0wG3v

    #eccDNA #ecDNA #CancerResearch #GenomeInstability #DNARepair #ReplicationStress

  12. The papers, published simultaneously in Nature on Nov. 6, detail the prevalence and prognostic impact of the circles, called #ecDNA for extrachromosomal DNA, in nearly 15,000 human #cancers; highlight a novel mode of inheritance that overthrows a fundamental law of genetics; and describe an anti-cancer therapy targeting the circles that is already in clinical trials. mastodon.social/@ScienceSchola

  13. The papers, published simultaneously in Nature on Nov. 6, detail the prevalence and prognostic impact of the circles, called #ecDNA for extrachromosomal DNA, in nearly 15,000 human #cancers; highlight a novel mode of inheritance that overthrows a fundamental law of genetics; and describe an anti-cancer therapy targeting the circles that is already in clinical trials. mastodon.social/@ScienceSchola

  14. The papers, published simultaneously in Nature on Nov. 6, detail the prevalence and prognostic impact of the circles, called #ecDNA for extrachromosomal DNA, in nearly 15,000 human #cancers; highlight a novel mode of inheritance that overthrows a fundamental law of genetics; and describe an anti-cancer therapy targeting the circles that is already in clinical trials. mastodon.social/@ScienceSchola

  15. The papers, published simultaneously in Nature on Nov. 6, detail the prevalence and prognostic impact of the circles, called #ecDNA for extrachromosomal DNA, in nearly 15,000 human #cancers; highlight a novel mode of inheritance that overthrows a fundamental law of genetics; and describe an anti-cancer therapy targeting the circles that is already in clinical trials. mastodon.social/@ScienceSchola

  16. Extrachromosomal #DNA in form of tiny DNA circles could be key drivers of #cancer. It looks strangely similar to the DNA of most bacteria which is contained in single circular molecules, the bacterial chromosome.
    ncbi.nlm.nih.gov/pmc/articles/

    This recent paper is unfortunately behind a paywall. It is named "Extrachromosomal DNA in cancer"
    nature.com/articles/s41568-024

    This article is a bit more accessible. After stem cells #ecDNA is the new hope of cancer researchers
    the-scientist.com/cancer-may-b

  17. Extrachromosomal #DNA in form of tiny DNA circles could be key drivers of #cancer. It looks strangely similar to the DNA of most bacteria which is contained in single circular molecules, the bacterial chromosome.
    ncbi.nlm.nih.gov/pmc/articles/

    This recent paper is unfortunately behind a paywall. It is named "Extrachromosomal DNA in cancer"
    nature.com/articles/s41568-024

    This article is a bit more accessible. After stem cells #ecDNA is the new hope of cancer researchers
    the-scientist.com/cancer-may-b

  18. Extrachromosomal #DNA in form of tiny DNA circles could be key drivers of #cancer. It looks strangely similar to the DNA of most bacteria which is contained in single circular molecules, the bacterial chromosome.
    ncbi.nlm.nih.gov/pmc/articles/

    This recent paper is unfortunately behind a paywall. It is named "Extrachromosomal DNA in cancer"
    nature.com/articles/s41568-024

    This article is a bit more accessible. After stem cells #ecDNA is the new hope of cancer researchers
    the-scientist.com/cancer-may-b

  19. Extrachromosomal #DNA in form of tiny DNA circles could be key drivers of #cancer. It looks strangely similar to the DNA of most bacteria which is contained in single circular molecules, the bacterial chromosome.
    ncbi.nlm.nih.gov/pmc/articles/

    This recent paper is unfortunately behind a paywall. It is named "Extrachromosomal DNA in cancer"
    nature.com/articles/s41568-024

    This article is a bit more accessible. After stem cells #ecDNA is the new hope of cancer researchers
    the-scientist.com/cancer-may-b