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    Brain tumors induce widespread disruption of calvarial bone and alteration of skull marrow immune landscape (2025)

    Art
    Zeitschriftenartikel / wissenschaftlicher Beitrag
    Autoren
    Dubey, Abhishek
    Yamashita, Erika
    Stangeland, Biljana
    Abbas, Imane
    Fooksman, David
    Harris, Robert A.
    Palmer, Gregory M.
    Koba, Wade R.
    Zhang, Jinghang
    Himes, Benjamin T.
    Lu, Olivia R.
    Ho, Winson S.
    Kuiper, Raoul V.
    Huffman, Derek
    Wu, Zhiping
    Uchida, Yutaka
    Ishii, Masaru
    Welch, Rachel L.
    Fiedler, Alexander F. (WE 2)
    Reynolds, David
    Hosainey, S. A. Mohieb
    Dobrenis, Kostantin
    Ye, Qinge
    Fisher, Kevin
    Killian, Nathaniel
    Stanley, E. Richard
    Eskandar, Emad
    Behnan, Jinan
    Quelle
    Nature neuroscience
    Bandzählung: 28
    Heftzählung: 11
    Seiten: 2231 – 2246
    ISSN: 1097-6256
    Sprache
    Englisch
    Verweise
    URL (Volltext): https://www.nature.com/articles/s41593-025-02064-4
    DOI: 10.1038/s41593-025-02064-4
    Pubmed: 41044343
    Kontakt
    Institut für Veterinär-Physiologie

    Oertzenweg 19 b
    14163 Berlin
    +49 30 838 62600
    physiologie@vetmed.fu-berlin.de

    Abstract / Zusammenfassung

    The skull marrow niche has recently been identified as a reservoir that supplies the brain with monocytes and neutrophils in the context of disease and injury, but its role in brain cancers remains unknown. Here we show that glioblastoma, the most malignant type of brain tumor, induces calvarial bone abnormalities in murine models and patients with glioblastoma, altering osteoclast activities and increasing the number of skull channels in mice. Single-cell RNA sequencing revealed glioblastoma-mediated alterations in the immune landscape of skull marrow and femoral bone marrow, including expansion of neutrophils and deterioration of various B cell subsets. In vivo inhibition of bone resorption reduced bone abnormalities, but promoted tumor progression in mesenchymal subtype tumors. This also abolished the survival benefit of the checkpoint inhibitor anti-PD-L1, by reducing activated T cell and increasing inflammatory neutrophil numbers. Together, these data provide insight into how brain tumors affect skull bone and the immune environment.