Arginine methylation next to the PY‐NLS modulates Transportin binding and nuclear import of FUS

Cited by (328)

Items 301–328 of 328

  1. Physiological function of FUS: An RNA binding protein in motor neuron disease
    Liuqing Yang · 2015 · UKnowledge (University of Kentucky)
  2. Additional file 1 of Wild-type FUS corrects ALS-like disease induced by cytoplasmic mutant FUS through autoregulation
    Inmaculada Sanjuan-Ruiz, Noé Govea-Perez, Melissa McAlonis‐Downes, Stéphane Dieterle, Salim Megat, Sylvie Dirrig‐Grosch, Gina Picchiarelli, Diana Piol, Qiang Zhu, Brian Myers et al. · 2021 · Figshare
  3. Additional file 1 of Mimicking hypomethylation of FUS requires liquid–liquid phase separation to induce synaptic dysfunctions
    Kim, Seung Chan, Scott J. Mitchell, Qamar, Seema, Whitcomb, Daniel J., Ruepp, Marc-David, Peter St George‐Hyslop, Kwangwook Cho · 2024 · Figshare
  4. Additional file 1 of Frameshift peptides alter the properties of truncated FUS proteins in ALS-FUS
    An, Haiyan, Camille Rabesahala de Meritens, Vladimir L. Buchman, Shelkovnikova, Tatyana A. · 2020 · Figshare
  5. Additional file 2 of Wild-type FUS corrects ALS-like disease induced by cytoplasmic mutant FUS through autoregulation
    Inmaculada Sanjuan-Ruiz, Noé Govea-Perez, Melissa McAlonis‐Downes, Stéphane Dieterle, Salim Megat, Sylvie Dirrig‐Grosch, Gina Picchiarelli, Diana Piol, Qiang Zhu, Brian Myers et al. · 2021 · Figshare
  6. Protein Arginine Methylation in the Nervous System Development, Health and Disease
    Misuzu Hashimoto · 2026 · Interdisciplinary biotechnological advances
  7. Post-transcriptional regulation in intervertebral disc degeneration
    Xinyu Li, Huaizhen Liang, Zhi Du, Rui Shi, Yu Song, Cao Yang · 2026 · Genes & Diseases
  8. STMN2 protein depletion via translation deficits and stress granules and its compensation in ALS
    Brittany C. S. Ellis, Anna Sanchez Avila, Wan-Ping Huang, Sabin J. John, Sam Bonsall, Rachel E. Hodgson, Vedanth Kumar, Matthew Nolan, Susan G. Campbell, Kurt J. De Vos et al. · 2026 · bioRxiv (Cold Spring Harbor Laboratory)
  9. The sequence context of RG/RGG motifs determines condensate formation, transportin-1 binding and chaperoning
    Sinem Usluer, Yukti Khanna, Saskia Hutten, Đesika Kolarić, Benjamin M. R. Bourgeois, Iva Pritišanac, Dorothee Dormann, Tobias Madl · 2026 · bioRxiv (Cold Spring Harbor Laboratory)
  10. Cytoplasmic RBMX coordinates selective mRNA translation to suppress senescence in cancer
    Ho Jin You, Jeeho Kim, In Youb Chang, Young Jin Jeon, Jeongsik Yong · 2026 · Research Square
  11. Conditional truncation of the FUS protein in mice : a new animal model of the ALS/FTD continuum
    Jelena Scekic‐Zahirovic · 2016 · theses.fr (ABES)
  12. Rôle du muscle squelettique dans la Sclérose Latérale Amyotrophique : apport de modèles transgéniques conditionnels
    Gina Picchiarelli · 2018 · theses.fr (ABES)
  13. Implication des macrophages périphériques dans la Sclérose latérale Amyotrophique
    Aude Chiot · 2018 · theses.fr (ABES)
  14. Novel FUS and CHCHD10 models to investigate pathogenic mechanisms in Amyotrophic Lateral Sclerosis
    Annis-Rayan Bourefis · 2019 · theses.fr (ABES)
  15. The link between PARP1-mediated signaling and RNA-binding protein FUS in response to DNA damage
    Anastasiya Singatulina · 2019 · theses.fr (ABES)
  16. Étude de la composante neuroinflammatoire dans les DFT/SLA
    Julie Smeyers · 2020 · theses.fr (ABES)
  17. Plk1 mitotic phosphorylation in the N-terminal region of the BRCA2 protein : identification, characterization and role in protein interactions
    Manon Julien · 2021 · theses.fr (ABES)
  18. Analyses génétiques et fonctionnelles de nouveaux gènes incriminés dans la Sclérose Latérale Amyotrophique (SLA)
    Elisa Teyssou · 2017 · theses.fr (ABES)
  19. Comprendre et modéliser la Sclérose Latérale Amyotrophique à début précoce
    François Muratet · 2022 · theses.fr (ABES)
  20. Age-dependent remodelling of RNP condensates in Drosophila neurons
    Kavya Vinayan Pushpalatha · 2021 · theses.fr (ABES)
  21. Développement d’outils pour la caractérisation de la TDP-43 et exploration de marqueurs indirects dans un contexte de dégénérescence lobaire frontotemporale
    Jean Escal · 2021 · theses.fr (ABES)
  22. Memory dysfunctions and associated epigenetic and transcriptomic changes in an ALS/FTD mouse model linked to a FUS mutation
    Laura Tzeplaeff · 2021 · theses.fr (ABES)
  23. Modulation des macrophages périphériques pour ralentir la progression de la sclérose latérale amyotrophique
    Félix Berriat · 2022 · theses.fr (ABES)
  24. Physiological and pathological functions of TAF15 in neurodegenerative diseases and cancers
    Congcong Liu, Lanxia Meng, Zhentao Zhang · 2026 · Journal of Advanced Research
  25. RNA-binding protein diversity and NLS arginines regulate FUS mixing in mRNA-rich compartments
    Diane Valenti, Vandana Joshi, Serhii Pankivskyi, Hoang Hung Cai, Loïc Hamon, Bénédicte Desforges, Amandine Molliex, Julien Duez, Julian Bursztyka, Laurianne Davignon et al. · 2026 · Cell Reports
  26. Conformational change of RNA-helicase DHX30 by ALS/FTD-linked FUS induces mitochondrial dysfunction and cytosolic aggregates.
    引網亮太, 守村敏史, 智之 築山, 守村直子, 真季子 楠井, 英貴 和田, 明美 小代, めぐみ 浅田, 真 漆谷, Ryota Hikiami et al. · Institutional Repositories DataBase (IRDB)
  27. The N-terminal extension of ribosomal protein Rps2 shapes its early fate through Chaperone–Importin competition and arginine methylation
    Maximilian Mack, Benjamin Pillet, Nicole Holton, Ingrid Zierler, Stephanie Himpich, Phyllis Jessen, Markus C. Wahl, Dieter Kressler, Brigitte Pertschy · 2026 · Journal of Biological Chemistry
  28. Protein arginine methylation rewires molecular interactions
    Joseph D. DeAngelo, Aliza M. Silverstein, David Shechter · 2026 · Cell chemical biology