Literature DB >> 11021967

Archaeal histone selection of nucleosome positioning sequences and the procaryotic origin of histone-dependent genome evolution.

K A Bailey1, S L Pereira, J Widom, J N Reeve.   

Abstract

Archaeal histones and the eucaryal (eucaryotic) nucleosome core histones have almost identical histone folds. Here, we show that DNA molecules selectively incorporated by rHMfB (recombinant archaeal histone B from Methanothermus fervidus) into archaeal nucleosomes from a mixture of approximately 10(14) random sequence molecules contain sequence motifs shown previously to direct eucaryal nucleosome positioning. The dinucleotides GC, AA (=TT) and TA are repeated at approximately 10 bp intervals, with the GC harmonic displaced approximately 5 bp from the AA and TA harmonics [(GCN(3)AA or TA)(n)]. AT and CG were not strongly selected, indicating that TA not equalAT and GC not equalCG in terms of facilitating archaeal nucleosome assembly. The selected molecules have affinities for rHMfB ranging from approximately 9 to 18-fold higher than the level of affinity of the starting population, and direct the positioned assembly of archaeal nucleosomes. Fourier-transform analyses have revealed that AA dinucleotides are much enriched at approximately 10. 1 bp intervals, the helical repeat of DNA wrapped around a nucleosome, in the genomes of Eucarya and the histone-containing Euryarchaeota, but not in the genomes of Bacteria and Crenarchaeota, procaryotes that do not have histones. Facilitating histone packaging of genomic DNA has apparently therefore imposed constraints on genome sequence evolution, and since archaeal histones have no structure in addition to the histone fold, these constraints must result predominantly from histone fold-DNA contacts. Based on the three-domain universal phylogeny, histones and histone-dependent genome sequence evolution most likely evolved after the bacterial-archaeal divergence but before the archaeal-eucaryal divergence, and were subsequently lost in the Crenarchaeota. However, with lateral gene transfer, the first histone fold could alternatively have evolved after the archaeal-eucaryal divergence, early in either the euryarchaeal or eucaryal lineages. Copyright 2000 Academic Press.

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Year:  2000        PMID: 11021967     DOI: 10.1006/jmbi.2000.4128

Source DB:  PubMed          Journal:  J Mol Biol        ISSN: 0022-2836            Impact factor:   5.469


  20 in total

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Authors:  Divya J Soares; Frédéric Marc; John N Reeve
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2.  Activation of archaeal transcription by recruitment of the TATA-binding protein.

Authors:  Mohamed Ouhammouch; Robert E Dewhurst; Winfried Hausner; Michael Thomm; E Peter Geiduschek
Journal:  Proc Natl Acad Sci U S A       Date:  2003-04-11       Impact factor: 11.205

3.  The archaeal origins of the eukaryotic translational system.

Authors:  Hyman Hartman; Paola Favaretto; Temple F Smith
Journal:  Archaea       Date:  2006-08       Impact factor: 3.273

4.  Wavelet Analysis of DNA Bending Profiles reveals Structural Constraints on the Evolution of Genomic Sequences.

Authors:  Benjamin Audit; Cédric Vaillant; Alain Arnéodo; Yves d'Aubenton-Carafa; Claude Thermes
Journal:  J Biol Phys       Date:  2004-03       Impact factor: 1.365

5.  Mechanical and structural properties of archaeal hypernucleosomes.

Authors:  Bram Henneman; Thomas B Brouwer; Amanda M Erkelens; Gert-Jan Kuijntjes; Clara van Emmerik; Ramon A van der Valk; Monika Timmer; Nancy C S Kirolos; Hugo van Ingen; John van Noort; Remus T Dame
Journal:  Nucleic Acids Res       Date:  2021-05-07       Impact factor: 16.971

6.  An alternative beads-on-a-string chromatin architecture in Thermococcus kodakarensis.

Authors:  Hugo Maruyama; Janet C Harwood; Karen M Moore; Konrad Paszkiewicz; Samuel C Durley; Hisanori Fukushima; Haruyuki Atomi; Kunio Takeyasu; Nicholas A Kent
Journal:  EMBO Rep       Date:  2013-07-09       Impact factor: 8.807

7.  Sequence-dependent DNA helical rise and nucleosome stability.

Authors:  Francesco Pedone; Daniele Santoni
Journal:  BMC Mol Biol       Date:  2009-11-27       Impact factor: 2.946

8.  Fine-structured multi-scaling long-range correlations in completely sequenced genomes--features, origin, and classification.

Authors:  Tobias A Knoch; Markus Göker; Rudolf Lohner; Anis Abuseiris; Frank G Grosveld
Journal:  Eur Biophys J       Date:  2009-06-17       Impact factor: 1.733

9.  Transcription by an archaeal RNA polymerase is slowed but not blocked by an archaeal nucleosome.

Authors:  Yunwei Xie; John N Reeve
Journal:  J Bacteriol       Date:  2004-06       Impact factor: 3.490

10.  Structure of histone-based chromatin in Archaea.

Authors:  Francesca Mattiroli; Sudipta Bhattacharyya; Pamela N Dyer; Alison E White; Kathleen Sandman; Brett W Burkhart; Kyle R Byrne; Thomas Lee; Natalie G Ahn; Thomas J Santangelo; John N Reeve; Karolin Luger
Journal:  Science       Date:  2017-08-11       Impact factor: 47.728

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