search

menu

  • Research Research
    • Where science meets inspired minds

    • Back
    • Research
    • Our Science
    • Research Groups
    • Facilities & Platforms
    • Clinical research
    • Find a researcher
    • Publications
    • Knowledge Transfer
  • Careers & study Careers & study
    • Become a leader in cancer research

    • Back
    • Careers & study
    • Vacancies
    • Faculty
    • Scientific staff
    • Scientific support staff
    • Postdoctoral fellows
    • PhD Students
    • Operational staff
    • Clinical fellows
    • Life in Amsterdam
    • Student internships
  • News & Events News & Events
    • Check out our stories and events

    • Back
    • News & Events
    • News
    • Media & Press
    • Calendar
  • About us About us
    • Maximum impact for cancer patients

    • Back
    • About us
    • Our vision
    • Organization
    • Collaborations
    • Responsible Research
    • Support us
    • Visit us
    • Contact us
  • Support us
Support us
  • Home
  • Publications
  • Research
  • Publications
  • Article

Global and specific mechanisms stimulate mistranslation in cancer.

Demi Wernaart ,
Amos Fumagalli ,
Mrittika Adhikary ,
Xiaodong Feng ,
Olaf Geintzer ,
Edwin S Kyei-Baffour ,
Onno B Bleijerveld ,
Liesbeth Hoekman ,
Ceri Zwart ,
Alexander Fish ,
Lisanne Giebel ,
Artur Burylo ,
Natalie Proost ,
Pierre-René Körner ,
Ferhat Alkan ,
Chao Yang ,
Janne Brouwer ,
Cecilia Anna Henriksen ,
Eric Westhof ,
Julien Champagne ,
Olaf van Tellingen ,
Marina Rodnina ,
Reuven Agami

Abstract

Tryptophan codon-specific mistranslation, in the form of ribosomal frameshifting and tryptophan-to-phenylalanine (W > F) codon reassignments (substitutants), is induced in cancer cells by the limiting level of tryptophan imposed by anti-tumour immunity. While the oncogenic mitogen-activated protein kinase pathway drives frameshifting, whether substitutants are genetically regulated remains unknown. Here we screened for genes that control W > F substitutants following interferon-γ-mediated tryptophan shortage. This screen identified ADAR1, an enzyme that converts adenosine to inosine in double-stranded RNA molecules, and FTSJ1, an enzyme that 2'-O-methylates the anticodon region of several tRNAs. We demonstrate that ADAR1 sustains expression of key players in the ribosome quality control pathway, which in turn is essential for mistranslation events. FTSJ1, in contrast, specifically drives W > F mistranslation by methylation of tRNATrp to promote its binding to WARS1 loaded with phenylalanine instead of tryptophan. As ADAR1 and FTSJ1 levels are elevated in many cancer types, we propose that cancer cells deploy global and specific mechanisms to promote mistranslation in response to anti-tumour immunity.

More about this publication

Nature cell biology

Publication date 05-10-2026

Full text links

Publisher website (DOI) 10.1038/s41556-026-02088-3
Europe PubMed Central 42834166
Pubmed 42834166

Where science meets inspired minds

Contact

Plesmanlaan 121
1066CX Amsterdam

020 512 9111 communicatie@nki.nl

Quick links

  • Vacancies
  • News
  • Contact us
  • Media & Press

Follow us on

Disclaimer
Privacy statement
Cookies
Change cookie settings

This site uses cookies

This website uses cookies to ensure you get the best experience on our website.