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Mechanism of RNA polymerase III termination-associated reinitiation-recycling conferred by the essential function of the N terminal-and-linker domain of the C11 subunit

Author

Listed:
  • Saurabh Mishra

    (National Institutes of Health
    Banaras Hindu University)

  • Shaina H. Hasan

    (National Institutes of Health
    Mayo Clinic Alix School of Medicine)

  • Rima M. Sakhawala

    (National Institutes of Health
    National Institute of Diabetes and Digestive and Kidney Diseases)

  • Shereen Chaudhry

    (National Institutes of Health
    Pfizer (Pearl River Site))

  • Richard J. Maraia

    (National Institutes of Health)

Abstract

RNA polymerase III achieves high level tRNA synthesis by termination-associated reinitiation-recycling that involves the essential C11 subunit and heterodimeric C37/53. The C11-CTD (C-terminal domain) promotes Pol III active center-intrinsic RNA 3′-cleavage although deciphering function for this activity has been complicated. We show that the isolated NTD (N-terminal domain) of C11 stimulates Pol III termination by C37/53 but not reinitiation-recycling which requires the NTD-linker (NTD-L). By an approach different from what led to current belief that RNA 3′-cleavage activity is essential, we show that NTD-L can provide the essential function of Saccharomyces cerevisiae C11 whereas classic point mutations that block cleavage, interfere with active site function and are toxic to growth. Biochemical and in vivo analysis including of the C11 invariant central linker led to a model for Pol III termination-associated reinitiation-recycling. The C11 NTD and CTD stimulate termination and RNA 3′-cleavage, respectively, whereas reinitiation-recycling activity unique to Pol III requires only the NTD-linker. RNA 3′-cleavage activity increases growth rate but is nonessential.

Suggested Citation

  • Saurabh Mishra & Shaina H. Hasan & Rima M. Sakhawala & Shereen Chaudhry & Richard J. Maraia, 2021. "Mechanism of RNA polymerase III termination-associated reinitiation-recycling conferred by the essential function of the N terminal-and-linker domain of the C11 subunit," Nature Communications, Nature, vol. 12(1), pages 1-16, December.
  • Handle: RePEc:nat:natcom:v:12:y:2021:i:1:d:10.1038_s41467-021-26080-7
    DOI: 10.1038/s41467-021-26080-7
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    References listed on IDEAS

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    1. Guillermo Abascal-Palacios & Ewan Phillip Ramsay & Fabienne Beuron & Edward Morris & Alessandro Vannini, 2018. "Structural basis of RNA polymerase III transcription initiation," Nature, Nature, vol. 553(7688), pages 301-306, January.
    2. Richard J. Maraia & Keshab Rijal, 2015. "A transcriptional specialist resolved," Nature, Nature, vol. 528(7581), pages 204-205, December.
    3. Niklas A. Hoffmann & Arjen J. Jakobi & María Moreno-Morcillo & Sebastian Glatt & Jan Kosinski & Wim J. H. Hagen & Carsten Sachse & Christoph W. Müller, 2015. "Molecular structures of unbound and transcribing RNA polymerase III," Nature, Nature, vol. 528(7581), pages 231-236, December.
    4. Matthias K. Vorländer & Heena Khatter & Rene Wetzel & Wim J. H. Hagen & Christoph W. Müller, 2018. "Molecular mechanism of promoter opening by RNA polymerase III," Nature, Nature, vol. 553(7688), pages 295-300, January.
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    1. Phong Quoc Nguyen & Sonia Huecas & Amna Asif-Laidin & Adrián Plaza-Pegueroles & Beatrice Capuzzi & Noé Palmic & Christine Conesa & Joël Acker & Juan Reguera & Pascale Lesage & Carlos Fernández-Tornero, 2023. "Structural basis of Ty1 integrase tethering to RNA polymerase III for targeted retrotransposon integration," Nature Communications, Nature, vol. 14(1), pages 1-13, December.

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