Showing 121 - 140 results of 1,970 for search '"RNA polymerase II"', query time: 0.36s Refine Results
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    Repression of RNA polymerase II elongation in vivo is critically dependent on the C-terminus of Spt5. by Hui Chen, Xavier Contreras, Yuki Yamaguchi, Hiroshi Handa, B Matija Peterlin, Su Guo

    Published 2009-09-01
    “…The stalling of RNA polymerase II (RNAPII) at the promoters of many genes, including developmental regulators, stress-responsive genes, and HIVLTR, suggests transcription elongation as a critical regulatory step in addition to initiation. …”
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    Condensin controls recruitment of RNA polymerase II to achieve nematode X-chromosome dosage compensation by William S Kruesi, Leighton J Core, Colin T Waters, John T Lis, Barbara J Meyer

    Published 2013-06-01
    “…Here we define TSSs and the distribution of transcriptionally engaged RNA polymerase II (Pol II) genome-wide in wild-type and dosage-compensation-defective animals to dissect this regulatory mechanism. …”
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  7. 127

    Maintenance of long-range DNA interactions after inhibition of ongoing RNA polymerase II transcription. by Robert-Jan Palstra, Marieke Simonis, Petra Klous, Emilie Brasset, Bart Eijkelkamp, Wouter de Laat

    Published 2008-01-01
    “…We demonstrate that upon transcription inhibition binding of RNA polymerase II to gene regulatory elements is severely reduced. …”
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  8. 128

    Autophagy receptor NDP52 alters DNA conformation to modulate RNA polymerase II transcription by Ália dos Santos, Daniel E. Rollins, Yukti Hari-Gupta, Hannah McArthur, Mingxue Du, Sabrina Yong Zi Ru, Kseniia Pidlisna, Ane Stranger, Faeeza Lorgat, Danielle Lambert, Ian Brown, Kevin Howland, Jesse Aaron, Lin Wang, Peter J. I. Ellis, Teng-Leong Chew, Marisa Martin-Fernandez, Alice L. B. Pyne, Christopher P. Toseland

    Published 2023-05-01
    “…We find that NDP52 clusters with RNA Polymerase II (RNAPII) at transcription initiation sites and that its overexpression promotes the formation of additional transcriptional clusters. …”
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  9. 129

    Prdm5 regulates collagen gene transcription by association with RNA polymerase II in developing bone. by Giorgio Giacomo Galli, Kristian Honnens de Lichtenberg, Matteo Carrara, Wolfgang Hans, Manuela Wuelling, Bettina Mentz, Hinke Arnolda Multhaupt, Cathrine Kolster Fog, Klaus Thorleif Jensen, Juri Rappsilber, Andrea Vortkamp, Les Coulton, Helmut Fuchs, Valérie Gailus-Durner, Martin Hrabě de Angelis, Raffaele Adolfo Calogero, John Robert Couchman, Anders Henrik Lund

    Published 2012-01-01
    “…In particular, we show that Prdm5 controls both Collagen I transcription and fibrillogenesis by binding inside the Col1a1 gene body and maintaining RNA polymerase II occupancy. In vivo, Prdm5 loss results in delayed ossification involving a pronounced impairment in the assembly of fibrillar collagens. …”
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  10. 130

    A DNA damage response system associated with the phosphoCTD of elongating RNA polymerase II. by Tiffany Sabin Winsor, Bartlomiej Bartkowiak, Craig B Bennett, Arno L Greenleaf

    Published 2013-01-01
    “…RNA polymerase II translocates across much of the genome and since it can be blocked by many kinds of DNA lesions, detects DNA damage proficiently; it thereby contributes to DNA repair and to normal levels of DNA damage resistance. …”
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  11. 131

    Poised RNA Polymerase II Changes over Developmental Time and Prepares Genes for Future Expression by Bjoern Gaertner, Jeff Johnston, Kai Chen, Nina Wallaschek, Ariel Paulson, Alexander S. Garruss, Karin Gaudenz, Bony De Kumar, Robb Krumlauf, Julia Zeitlinger

    Published 2012-12-01
    “…Poised RNA polymerase II (Pol II) is predominantly found at developmental control genes and is thought to allow their rapid and synchronous induction in response to extracellular signals. …”
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  12. 132

    Recruitment of TREX to the transcription machinery by its direct binding to the phospho-CTD of RNA polymerase II. by Dominik M Meinel, Cornelia Burkert-Kautzsch, Anja Kieser, Eoghan O'Duibhir, Matthias Siebert, Andreas Mayer, Patrick Cramer, Johannes Söding, Frank C P Holstege, Katja Sträßer

    Published 2013-11-01
    “…Here, we show that TREX is recruited to the transcription machinery by direct interaction of its subcomplex THO with the serine 2-serine 5 (S2/S5) diphosphorylated CTD of RNA polymerase II. S2 and/or tyrosine 1 (Y1) phosphorylation of the CTD is required for TREX occupancy in vivo, establishing a second interaction platform necessary for TREX recruitment in addition to RNA. …”
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    Sensitivity of mitochondrial transcription and resistance of RNA polymerase II dependent nuclear transcription to antiviral ribonucleosides. by Jamie J Arnold, Suresh D Sharma, Joy Y Feng, Adrian S Ray, Eric D Smidansky, Maria L Kireeva, Aesop Cho, Jason Perry, Jennifer E Vela, Yeojin Park, Yili Xu, Yang Tian, Darius Babusis, Ona Barauskus, Blake R Peterson, Averell Gnatt, Mikhail Kashlev, Weidong Zhong, Craig E Cameron

    Published 2012-01-01
    “…We show that all of the anti-HCV ribonucleoside analogues are substrates for human mitochondrial RNA polymerase (POLRMT) and eukaryotic core RNA polymerase II (Pol II) in vitro. Unexpectedly, analogues containing 2'-C-methyl, 4'-methyl and 4'-azido substituents were inhibitors of POLRMT and Pol II. …”
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    The host RNA polymerase II C-terminal domain is the anchor for replication of the influenza virus genome by Tim Krischuns, Benoît Arragain, Catherine Isel, Sylvain Paisant, Matthias Budt, Thorsten Wolff, Stephen Cusack, Nadia Naffakh

    Published 2024-02-01
    “…Abstract The current model is that the influenza virus polymerase (FluPol) binds either to host RNA polymerase II (RNAP II) or to the acidic nuclear phosphoprotein 32 (ANP32), which drives its conformation and activity towards transcription or replication of the viral genome, respectively. …”
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    Striatal NELF-mediated RNA polymerase II stalling controls l-dopa induced dyskinesia by Matthieu F. Bastide, Simone Bido, Nathalie Duteil, Erwan Bézard

    Published 2016-01-01
    “…Their rapid transcription involves the stalling of RNA polymerase II on IEG promoters, a mechanism that critically depends on the presence of the negative elongation factor (NELF) protein complex. …”
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