A02
Project Area A - Biology and Molecular Oncology
Prof. Dr. Andrea Musacchio
Mechanistic Cell Biology
Max-Planck Institute of Molecular Physiology, Dortmund
Phone: +49 231 133 2101
Email
Bridging the gap between cell biology and biochemistry with artificial protein prosthetics in cell cycle transitions
Mitosis is the process of somatic cell division. It allows humans to develop from a single cell to the ~15 trillion cells of an adult individual. In most cases, dividing cells complete this process without errors, allowing the two daughters of a mother cell to remain genetically identical. Errors in this process, however rare, derange cell physiology and promote the transformation of healthy cells into malignant counterparts. From a molecular perspective, transmission of the genetic material is no easy task, but specialized machinery evolved to execute this fundamental chore seamlessly and accurately. We aim to dissect the molecular basis of mitosis. Because mitosis is rapid, typically requiring less than 1 hour, we study this process with perturbations that trigger immediately observable effects. Working at the interface between biochemistry in reconstituted systems and classical cell biology, we will shed light on fundamental aspects of the chromosome transmission process.
Project Members
Luis Demuth
Jason Mak
Publications
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M18BP1 valency and a distributed interaction footprint determine epigenetic centromere specification in humansIn: The EMBO Journal, 2026, in pressDOI (Open Access)
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Molecular requirements for PLK1 activation by T-loop phosphorylationIn: The EMBO Journal, 2026, in pressDOI (Open Access)
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Condensin II activation by M18BP1In: Molecular Cell, Vol. 85, 2025, Nr. 14, pp. 2688 – 2700.e11DOI (Open Access)
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Decoding the language of PLK1 docking motifs and activation mechanismsIn: Trends in Cell Biology, 2025, in pressDOI (Open Access)
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Interactions with multiple inner kinetochore proteins determine mitotic localization of FACTIn: The Journal of Cell Biology (JCB), Vol. 224, 2025, Nr. 5, e202412042DOI (Open Access)
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Interplay of kinetochores and catalysts drives rapid assembly of the mitotic checkpoint complexIn: Nature Communications, Vol. 16, 2025, Nr. 1, 4823DOI (Open Access)
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The BUB1 and BUBR1 paralogs scaffold the kinetochore fibrous coronaIn: Science Advances, Vol. 11, 2025, Nr. 37, eady6890DOI (Open Access)
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Microtubule end-on attachment maturation regulates Mps1 association with its kinetochore receptorIn: Current Biology, Vol. 34, 2024, Nr. 11, pp. 2279 – 2293.e6DOI (Open Access)
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Role of protein kinase PLK1 in the epigenetic maintenance of centromeresIn: Science, Vol. 385, 2024, Nr. 6713, pp. 1091 – 1097
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Structure of the human KMN complex and implications for regulation of its assemblyIn: Nature Structural & Molecular Biology, Vol. 31, 2024, Nr. 6, pp. 861 – 873DOI (Open Access)
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Thirty years of structural changesIn: Nature Structural & Molecular Biology, Vol. 31, 2024, Nr. 1, pp. 4 – 5
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RZZ‐Spindly and CENP‐E form an integrated platform to recruit dynein to the kinetochore coronaIn: The EMBO Journal, Vol. 42, 2023, Nr. 24, e114838DOI (Open Access)
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Conformational transitions of the Spindly adaptor underlie its interaction with Dynein and DynactinIn: The Journal of Cell Biology (JCB), Vol. 221, 2022, Nr. 11, e202206131DOI (Open Access)
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On the role of phase separation in the biogenesis of membraneless compartmentsIn: The EMBO Journal, Vol. 41, 2022, Nr. 5, e109952DOI (Open Access)
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Structure of the RZZ complex and molecular basis of Spindly‐driven corona assembly at human kinetochoresIn: The EMBO Journal, Vol. 41, 2022, Nr. 9, e110411DOI, Online Full Text (Open Access)
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Ipl1-controlled attachment maturation regulates Mps1 association with its kinetochore receptor2023DOI (Open Access)