A DNA methyltransferase can protect the genome from postdisturbance attack by a restriction-modification gene complex.
about
Chromosomal toxin-antitoxin systems may act as antiaddiction modulesEpigenetic gene regulation in the bacterial worldBacteriophage orphan DNA methyltransferases: insights from their bacterial origin, function, and occurrenceTo be or not to be: regulation of restriction-modification systems and other toxin-antitoxin systemsCell death upon epigenetic genome methylation: a novel function of methyl-specific deoxyribonucleases.Type II restriction endonuclease R.Hpy188I belongs to the GIY-YIG nuclease superfamily, but exhibits an unusual active siteGeographic distribution of methyltransferases of Helicobacter pylori: evidence of human host population isolation and migration.Convergence of DNA methylation and phosphorothioation epigenetics in bacterial genomes.Plasmid addiction systems: perspectives and applications in biotechnology.The interplay of restriction-modification systems with mobile genetic elements and their prokaryotic hosts.5-azacytidine induces transcriptome changes in Escherichia coli via DNA methylation-dependent and DNA methylation-independent mechanismsContext-dependent conservation of DNA methyltransferases in bacteria.Functional analysis of the M.HpyAIV DNA methyltransferase of Helicobacter pylori.Lineage-Specific Methyltransferases Define the Methylome of the Globally Disseminated Escherichia coli ST131 Clone.Regulatory circuit based on autogenous activation-repression: roles of C-boxes and spacer sequences in control of the PvuII restriction-modification system.Solitary restriction endonucleases in prokaryotic genomes.Maintenance forced by a restriction-modification system can be modulated by a region in its modification enzyme not essential for methyltransferase activity.The Helicobacter pylori HpyAXII restriction-modification system limits exogenous DNA uptake by targeting GTAC sites but shows asymmetric conservation of the DNA methyltransferase and restriction endonuclease components.Genetic conflicts: the usual suspects and beyond.Conflicts targeting epigenetic systems and their resolution by cell death: novel concepts for methyl-specific and other restriction systemsConservation of Dcm-mediated cytosine DNA methylation in Escherichia coli.Type III restriction is alleviated by bacteriophage (RecE) homologous recombination function but enhanced by bacterial (RecBCD) function.Direct monitoring of allosteric recognition of type IIE restriction endonuclease EcoRII.Cleavage of a model DNA replication fork by a methyl-specific endonuclease.Diversity of Integrative and Conjugative Elements of Streptococcus salivarius and Their Intra- and Interspecies Transfer.Genome-wide analysis of restriction-modification system in unicellular and filamentous cyanobacteria.Structure and dynamics of H. pylori 98-10 C5-cytosine specific DNA methyltransferase in complex with S-adenosyl-l-methionine and DNA.The coevolution of toxin and antitoxin genes drives the dynamics of bacterial addiction complexes and intragenomic conflict.Within-host competition selects for plasmid-encoded toxin-antitoxin systems.Characterizing the DNA Methyltransferases of Haloferax volcanii via Bioinformatics, Gene Deletion, and SMRT Sequencing.
P2860
Q24646891-239D9D03-8DDD-4013-830C-2B0F40EDF7D0Q24669987-E42D95B9-A118-4F6C-8C83-70022E0E5B45Q26825752-2CF6999E-B7A0-4E15-B642-85D392F55AA6Q26865951-E566438A-463A-4F62-84C2-F690D956EED5Q30485348-BE58A451-9A0D-44A5-88B9-3A6B1A0B8130Q33384948-DEDCBA89-F8AA-402C-9488-FC8BB706B6CAQ33500850-9BD1B64F-7729-43B2-A4E9-B9322F63368CQ33620189-8E41A580-3B3B-4E68-BDB7-CDD1CADD9BCDQ34160193-C3D0D57C-7178-4BA1-9F72-2B2881EF7CE8Q34433472-6804F513-B89C-498A-9F59-07F089CCD1CAQ36062626-CA0BDF1A-B2A1-42CD-B3CC-2BB296CF0F20Q36180224-6F41187E-2069-4B8F-8506-96874E7BA472Q36314651-FCE3A3DA-C987-4C63-982E-8623FD121221Q36318953-7FC6A009-620E-4543-9168-433427F6E798Q36328842-497A5D79-0844-48CC-B7B0-186C6EE06BDEQ36368867-F7963676-8AFC-4C7A-86BA-44A26A6DEABCQ36483785-0112D52C-AD85-4945-8171-BD0F2D3AA2A9Q36986705-AC61DF87-1B05-4AAA-9C91-86E01F45470FQ37612803-37D0E0C0-181C-4312-B8F4-2C445FABBB90Q37808061-E4EC4A07-27CE-4415-B7D1-9D6615D0ED6CQ38623454-6C59FE42-D0C9-4918-BC7F-B616F4F26F22Q39360960-C8EDB37A-CDE6-4EE3-B8DB-5E41B796B1EAQ40421023-56EAFFB8-4D76-47DA-8702-860699F340C7Q42108715-C0CAE474-A6B7-4EE8-8237-943B687C70E3Q46378972-52A049B5-EE96-4C3B-8F51-863EFBD33D58Q47233097-FD20D2C6-C9EE-441A-839C-5911DA22EAEDQ51608273-5C88D7ED-FA08-45C7-A3D4-773BADE1EA39Q52301182-2C49787B-B0A2-4AC4-8975-3794AEAC95B2Q53068164-7B4BDA3C-8C76-451E-91B8-7751BC971BFCQ55085413-AF51E853-EA8B-4677-A97F-D845C46913CE
P2860
A DNA methyltransferase can protect the genome from postdisturbance attack by a restriction-modification gene complex.
description
2002 nî lūn-bûn
@nan
2002年の論文
@ja
2002年学术文章
@wuu
2002年学术文章
@zh-cn
2002年学术文章
@zh-hans
2002年学术文章
@zh-my
2002年学术文章
@zh-sg
2002年學術文章
@yue
2002年學術文章
@zh
2002年學術文章
@zh-hant
name
A DNA methyltransferase can pr ...... ion-modification gene complex.
@en
A DNA methyltransferase can pr ...... ion-modification gene complex.
@nl
type
label
A DNA methyltransferase can pr ...... ion-modification gene complex.
@en
A DNA methyltransferase can pr ...... ion-modification gene complex.
@nl
prefLabel
A DNA methyltransferase can pr ...... ion-modification gene complex.
@en
A DNA methyltransferase can pr ...... ion-modification gene complex.
@nl
P2860
P1476
A DNA methyltransferase can pr ...... tion-modification gene complex
@en
P2093
Noriko Takahashi
Yasuhiro Naito
P2860
P304
P356
10.1128/JB.184.22.6100-6108.2002
P407
P577
2002-11-01T00:00:00Z