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Stress and Environmental Regulation of Gene Expression and Adaptation in Bacteria PDF

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Stress and environmental regulation of gene expression and adaptation in bacteria Volume 1 Stress and environmental regulation of gene expression and adaptation in bacteria Volume 1 Editedby Frans J. de Bruijn INRA-CNRSLaboratoryofPlant-MicrobeInteractions(LIPM) ChemindeBordeRouge-Auzeville Castanet-Tolosan France Copyright©2016byJohnWiley&Sons,Inc.Allrightsreserved. PublishedbyJohnWiley&Sons,Inc.,Hoboken,NewJersey. PublishedsimultaneouslyinCanada. Nopartofthispublicationmaybereproduced,storedinaretrievalsystem,ortransmittedinanyformorbyanymeans,electronic, mechanical,photocopying,recording,scanning,orotherwise,exceptaspermittedunderSection107or108ofthe1976UnitedStates CopyrightAct,withouteitherthepriorwrittenpermissionofthePublisher,orauthorizationthroughpaymentoftheappropriate per-copyfeetotheCopyrightClearanceCenter,Inc.,222RosewoodDrive,Danvers,MA01923,(978)750-8400,fax(978)750-4470, oronthewebatwww.copyright.com.RequeststothePublisherforpermissionshouldbeaddressedtothePermissionsDepartment, JohnWiley&Sons,Inc.,111RiverStreet,Hoboken,NJ07030,(201)748-6011,fax(201)748-6008,oronlineat http://www.wiley.com/go/permission. LimitofLiability/DisclaimerofWarranty:Whilethepublisherandauthorhaveusedtheirbesteffortsinpreparingthisbook,they makenorepresentationsorwarrantieswithrespecttotheaccuracyorcompletenessofthecontentsofthisbookandspecifically disclaimanyimpliedwarrantiesofmerchantabilityorfitnessforaparticularpurpose.Nowarrantymaybecreatedorextendedby salesrepresentativesorwrittensalesmaterials.Theadviceandstrategiescontainedhereinmaynotbesuitableforyoursituation.You shouldconsultwithaprofessionalwhereappropriate.Neitherthepublishernorauthorshallbeliableforanylossofprofitorany othercommercialdamages,includingbutnotlimitedtospecial,incidental,consequential,orotherdamages. Forgeneralinformationonourotherproductsandservicesorfortechnicalsupport,pleasecontactourCustomerCareDepartment withintheUnitedStatesat(800)762-2974,outsidetheUnitedStatesat(317)572-3993orfax(317)572-4002. Wileyalsopublishesitsbooksinavarietyofelectronicformats.Somecontentthatappearsinprintmaynotbeavailableinelectronic formats.FormoreinformationaboutWileyproducts,visitourwebsiteatwww.wiley.com. LibraryofCongressCataloging-in-PublicationDataappliedfor. ISBN:9781119004882 Coverinsetfigure:CourtesyofMaudeGuillier. Regulationofgeneexpressioninbacteriaplaysakeyroleintheiradaptationtoever-changingenvironments.Transcriptionisthefirst levelofcontrolthathasbeendescribedanddecadesofresearchhaveledtoathoroughcharacterizationofthetranscriptional network,atleastforsomeofthemodelbacteriasuchasEscherichiacoli.However,itisnowclearthatmanygenesaresubjectto post-transcriptionalcontrolaswell,andsmallRNAsareamajorclassofpost-transcriptionalregulators.Manyfunctionsareinfact controlledbymixedregulatorycircuitsencompassingbothtranscriptionalandpost-transcriptionalcontrolmediatedrespectivelyby proteinsorRNAs.Thepropertiesofsuchcircuitsarejuststartingtobeelucidated.Intheregulatoryschemeshownonthecover,the involvementofHfq-bindingsRNAsincontrolofmotilityandadhesioninenterobacteriaisdepicted.Positiveandnegativecontrols areshownwithnormalandblunt-endarrowsrespectively.Asterisksindicateregulatoryinteractionspresumedtobedirect.Green triangleshighlightfeedforwardregulatorymotifs.TheregulatoryschemeisfoundinFigure5.1.1inChapter5.1byMaudeGuillier etal.FormoredetailsseeChapter5.1. 10 9 8 7 6 5 4 3 2 1 Thisworkisdedicatedtomywife,CathySenta-LoysdeBruijn,forhersupportandinterestinthe book,andherloveandunderstandingduringthehecticeditingepisodes. Contents VOLUME 1 2.10 Transposableelements:atoolkitforstressand environmentaladaptationinbacteria,137 Preface,xiii AnnaUllastres,MiriamMerenciano,LainGuio,and Acknowledgements,xiv JosefaGonza´lez Listofcontributors,xv 2.11 CRISPR–Cassystem:anewparadigmforbacterial stressresponsethroughgenomerearrangement,146 1 Introduction,1 JosephA.Hakim,HyunminKoo,JanD.vanElsas, FransJ.deBruijn JackT.Trevors,andAsimK.Bej 2.12 Thecoppermetallomeinprokaryoticcells,161 Section2: Keyoverviewchapters,3 ChristopherRensing,HendA.Alwathnani,and 2.1 Stress-inducedchangesintranscriptstability,5 SylviaF.McDevitt DvoraBiranandElioraZ.Ron 2.13 Ribonucleasesasmodulatorsofbacterialstress 2.2 StressChipformonitoringmicrobialstressresponsein response,174 theenvironment,9 Ca´tiaBa´rria,VaˆniaPobre,AfonsoM.Bravo,and JoyD.VanNostrand,AifenZhouandJizhongZhou Cec´ıliaM.Arraiano 2.3 Arevolutionaryparadigmofbacterialgenome 2.14 Double-strand-breakrepair,mutagenesis,and regulation,23 stress,185 AkiraIshihama ElizabethRogers,RaulCorrea,BrittanyBarreto, Mar´ıaAnge´licaBravoNu´n˜ez,P.J.Minnick,Diana 2.4 Roleofchangesinσ70-driventranscriptionin VeraCruz,JunXia,P.J.Hastings,andSusanM. adaptationofE.colitoconditionsofstressor Rosenberg starvation,37 UmenderK.Sharma 2.15 SigmafactorcompetitioninEscherichiacoli:kinetic andthermodynamicperspectives,196 2.5 ThedistributionandspatialorganizationofRNA KuldeepkumarRamnareshGuptaand polymeraseinEscherichiacoli:growthrateregulation DipankarChatterji andstressresponses,48 DingJunJin,CedricCagliero,JeromeIzard,Carmen 2.16 Ironhomeostasisandiron–sulfurclusterassemblyin MataMartin,andYanNingZhou Escherichiacoli,203 HuangenDing 2.6 TheECFclassification:aphylogeneticreflectionofthe regulatorydiversityintheextracytoplasmicfunctionσ 2.17 Mechanismsunderlyingtheantimicrobialcapacityof factorproteinfamily,64 metals,215 DanielaPintoandThorstenMascher JoeA.LemireandRaymondJ.Turner 2.7 Toxin–antitoxinsystemsinbacteriaandarchaea,97 2.18 Acyl-homoserinelactone-basedquorumsensingin YoshihiroYamaguchiandMasayoriInouye membersofthemarinebacterialRoseobacterclade: complexcell-to-cellcommunicationcontrolsmultiple 2.8 BacterialsRNAs:regulationinstress,108 physiologies,225 MarimuthuCitartan,CarstenA.Raabe,Chee-Hock AlisonBuchan,AprilMitchell,W.NathanCude, Hoe,TimofeyS.Rozhdestvensky,andThean-Hock andShawnCampagna Tang 2.19 Nativeandsyntheticgeneregulationtonitrogen 2.9 Bacterialstressresponsesasdeterminantsof limitationstress,234 antimicrobialresistance,115 Jo¨rgSchumacher MichaelFruciandKeithPoole vii viii Contents Section3: One-,two-,andthree-component 4.7 Posttranslationalregulationofantisigmafactorsof regulatorysystemsandstressresponses,247 RpoE:acomparisonbetweentheEscherichiacoliand Pseudomonasaeruginosasystems,361 3.1 Two-componentsystemsthatcontroltheexpressionof SundarPandey,KyleL.Martins,andKalaiMathee aromatichydrocarbondegradationpathways,249 TinoKrell Section5: SmallnoncodingRNAsandstress 3.2 Cross-talkofglobalregulatorsinStreptomyces,257 responses,369 JuanF.Mart´ın,FernandoSantos-Beneit,Alberto Sola-Landa,andPalomaLiras 5.1 BacterialsmallRNAsinmixedregulatorycircuits,371 JonathanJagodnik,DenisThieffry,andMaude 3.3 NO–H-NOX-regulatedtwo-componentsignaling,268 Guillier DhruvP.Arora,SandhyaMuralidharan,and ElizabethM.Boon 5.2 RoleofsmallRNAsinPseudomonasaeruginosa virulenceandadaptation,383 3.4 Thetwo-componentCheYsysteminthechemotaxisof HansiKumari,DeepakBalasubramanian,andKalai Sinorhizobiummeliloti,277 Mathee MartinHaslbeck 5.3 Physiologicaleffectsofposttranscriptionalregulation 3.5 Stimulusperceptionbyhistidinekinases,282 bythesmallRNASgrSduringmetabolicstressin HannahSchramke,YangWang,RalfHeermann,and Escherichiacoli,393 KirstenJung GregoryR.Richards Section4: Sigmafactorsandstressresponses,301 5.4 ThreerpoS-activatingsmallRNAsinpathways contributingtoacidresistanceofEscherichiacoli,402 4.1 TheextracytoplasmicfunctionsigmafactorEcfO GeunuBak,KookHan,DaunKim,Kwang-sunKim, protectsBacteroidesfragilisagainstoxidativestress,303 andYounghoonLee IvanC.Ndamukong,SamanthaPalethorpe,Michael Betteken,andC.JeffreySmith 5.5 ThermalstressnoncodingRNAsinprokaryotesand eukaryotes:acomparativeapproach,412 4.2 Regulationofenergymetabolismbythe MercedesdelaFuenteandJose´Luis extracytoplasmicfunction(ECF)σfactorsof Mart´ınez-Guitarte Arcobacterbutzleri,311 IratiMartinez-Malaxetxebarria,RudyMuts,Linda vanDijk,CraigT.Parker,WilliamG.Miller,Steven Section6: Toxin-antitoxinsystemsandstress Huynh,WimGaastra,JosP.M.vanPutten,Aurora responses,423 Fernandez-Astorga,andMarcM.S.MWo¨sten 6.1 Epigeneticsmediatedbyrestrictionmodification 4.3 Extracytoplasmicfunctionsigmafactorsandstress systems,425 responsesinCorynebacterium IwonaMrukandIchizoKobayashi pseudotuberculosis,321 ThiagoL.P.Castro,NubiaSeyffert,AnneC.Pinto, 6.2 Toxin–antitoxinsystemsasregulatorsofbacterial ArturSilva,VascoAzevedo,andLuisG.C.Pacheco fitnessandvirulence,437 BrittanyA.FlemingandMatthewA.Mulvey 4.4 Thecomplexrolesandregulationofstressresponseσ factorsinStreptomycescoelicolor,328 6.3 Mechanismsofstress-activatedpersisterformationin JanKormanec,BeatricaSevcikova,RenataNovakova, Escherichiacoli,446 DagmarHomerova,BronislavaRezuchova,andErik StephanieM.AmatoandMarkP.Brynildsen Mingyar 6.4 IdentificationandcharacterizationoftypeII 4.5 Proteolyticactivationofextracytoplasmicfunction toxin–antitoxinsystemsintheopportunisticpathogen (ECF)σfactors,344 Acinetobacterbaumannii,454 JessicaL.HastieandCraigD.Ellermeier EditaSuzˇiede˙liene˙,MildaJure˙naite˙,andJulija Armalyte˙ 4.6 TheECFfamilysigmafactorσHinCorynebacterium glutamicumcontrolsthethiol-oxidativestress 6.5 Transcriptionalcontroloftoxin–antitoxinexpression: response,352 keepingtoxinsunderwrapsuntilthetimeisright,463 TobiasBuscheandJo¨rnKalinowski BarbaraKeℷdzierskaandFinbarrHayes Contents ix 6.6 OppositeeffectsofGraTtoxinonstresstolerance 9.3 HowalargegenenetworkcouplesmutagenicDNA ofPseudomonasputida,473 breakrepairtostressinEscherichiacoli,570 RitaHo˜rakandHedvigTamman ElizabethRogers,P.J.Hastings,Mar´ıaAnge´licaBravo Nu´n˜ez,andSusanM.Rosenberg Section7: Stringentresponsetostress,479 9.4 Double-strandDNAbreakrepairinmycobacteria,577 7.1 PreferentialcellularaccumulationofppGpporpppGpp RichaGuptaandMichaelS.Glickman inEscherichiacoli,481 K.PotrykusandM.Cashel Section10: Adaptationtooxidativestress,587 7.2 GlobalRsh-dependenttranscriptionprofileofBrucella 10.1 Peroxide-sensingtranscriptionalregulatorsin suisduringstringentresponseunravelsadaptationto bacteria,589 nutrientstarvationandcross-talkwithotherstress JamesM.DubbsandSkornMongkolsuk responses,489 StephanKo¨hler,NabilHanna,Safia 10.2 Regulationofoxidativestress–relatedgenesimplicated Ouahrani-Bettache,KennethL.Drake,L.Garry intheestablishmentofopportunisticinfectionsby Adams,andAlessandraOcchialini Bacteroidesfragilis,603 FelipeLopesTeixeira,ReginaMariaCavalcanti 7.3 Thestringentresponseandantioxidantdefencesin PilottoDomingues,andLeandroAraujoLobo Pseudomonasaeruginosa,500 GowthamiSampathkumar,MalikaKhakimova,Tevy 10.3 Investigationintooxidativestressresponseof Chan,andDaoNguyen Shewanellaoneidensisrevealsadistinctmechanism,609 JieYuan,FenWan,andHaichunGao 7.4 MolecularbasisofthestringentresponseinVibrio cholerae,507 10.4 Anomicsviewontheresponsetosingletoxygen,619 ShreyaDasgupta,BhabatoshDas,PallabiBasu,and BorkA.BerghoffandGabrieleKlug RupakK.Bhadra 10.5 Regulatorsofoxidativestressresponsegenesin Escherichiacoliandtheirconservationinbacteria,632 Section8: ResponsestoUVirradiation,517 HerbE.Schellhorn,MohammadMohiuddin,Sarah 8.1 UVstress-responsivegenesassociatedwith M.Hammond,andStevenBotts enterobacterialintegrativeconjugativeelementsofthe 10.6 HydrogenperoxideresistanceinBifidobacterium ICESXT/R391group,519 animalissubsp.lactisandBifidobacteriumlongum,638 PatriciaArmshawandJ.TonyPembroke TaylorS.ObergandJeffR.Broadbent 8.2 AlteredoutermembraneproteinsinresponsetoUVC radiationinVibrioparahaemolyticus andVibrioalginolyticus,528 Section11: Adaptationtoosmoticstress,647 FethiBenAbdallah 11.1 Interstrainvariationinthephysiologicaland 8.3 Ultraviolet-Bradiationeffectsonthecommunity, transcriptionalresponsesofPseudomonassyringae physiology,andmineralizationofmagnetotactic toosmoticstress,649 bacteria,532 GwynA.Beattie,ChiliangChen,LindseyNielsen, YingzhaoWangandYongxinPan andBrianC.Freeman 8.4 Nucleotideexcisionrepairsystemandgeneexpression 11.2 ManagementofosmoticstressbyBacillussubtilis: inMycobacteriumsmegmatis,545 geneticsandphysiology,657 AngelinaCordone TamaraHoffmannandErhardBremer 11.3 HyperosmoticresponseofStreptococcusmutans: Section9: SOSanddoublestrandedrepairsystems frommicroscopicphysiologytotranscriptomic andstress,551 profile,677 9.1 TheSOSresponsemodulatesbacterialpathogenesis,553 LuWangandXinXu DarjaZˇgurBertok 11.4 Defectiveribosomematurationorfunctionmakes 9.2 RNAPsecondary-channelinteractorsinEscherichia Escherichiacolicellssalt-resistant,687 coli:makersandbreakersofgenomestability,561 HyoutaHimeno,TakefusaTarusawa,ShionIto,and PriyaSivaramakrishnanandChristopheHerman SimonGoto x Contents Section12: Dessicationtoleranceanddrought 14.3 Coevolutionanalysisilluminatestheevolutionary stress,693 plasticityofthechaperoninsystemGroES/L,796 MarioA.Fares 12.1 Consequencesofelevatedsaltconcentrationson expressionprofilesintherhizobiumS.meliloti1021 14.4 ClpLATPase:anovelchaperoneinbacterialstress likelyinvolvedinheatanddesiccationstress,695 responses,812 JanA.C.Vriezen,CarolineM.Finn,andKlaus PratickKharaandIndranilBiswas Nu¨sslein 14.5 DuplicatedgroELgenesinMyxococcusxanthus 12.2 Genesinvolvedintheformationofdesiccation- DK1622,820 resistantcystsinAzotobactervinelandii,709 YanWang,Xiao-jingChen,andYue-zhongLi GuadalupeEsp´ın 12.3 OsmoticanddesiccationtoleranceinEscherichiacoli Section15: Coldshockresponses,827 O157:H7andSalmonellaentericarequiresrpoS (σ38),716 15.1 Generegulationbycoldshockproteinsvia ZachPratt,MeganShiroda,AndrewJ.Stasic,Josh transcriptionantitermination,829 Lensmire,andC.W.Kaspar SangitaPhadtareandKonstantinSeverinov 12.4 DesiccationofSalmonellaentericainduces 15.2 Metagenomicanalysisofmicrobialcoldstressproteins cross-tolerancetootherstresses,725 inpolarlacustrineecosystems,837 ShlomoSela(Saldinger)andChellaiahEdwardRaja HyunminKoo,JosephA.Hakim,and Index,i1 AsimK.Bej 15.3 Roleoftwo-componentsystemsincoldtoleranceof VOLUME 2 Clostridiumbotulinum,845 Yag˘murDerman,EliasDahlsten,andHannu Preface,xiii Korkeala Acknowledgements,xiv 15.4 ColdshockCspAproteinproductionduringperiodic Listofcontributors,xv temperaturecyclinginEscherichiacoli,854 DavidStoparandTinaIvancic Section13: Heatshockresponses,737 13.1 Heatshockresponseinbacteriawithlargegenomes: 15.5 ColdshockresponseinEscherichiacoli:amodel lessonsfromrhizobia,739 systemtostudyposttranscriptionalregulation,859 AnaAlexandreandSolangeOliveira AnnaMariaGiuliodori 13.2 Smallheatshockproteinsinbacteria,747 15.6 Newinsightintocoldshockproteins: MartinHaslbeck RNA-bindingproteinsinvolvedinstressresponseand 13.3 Transcriptomeanalysisofbacterialresponsetoheat virulence,873 shockusingnext-generationsequencing,754 CharlotteMichauxandJean-Christophe Kok-GanChan Giard 13.4 Comparativeanalysesofbacterialtranscriptome 15.7 Lightregulationofcoldstressresponsesin reorganisationinresponsetotemperatureincrease,757 Synechocystis,881 Bei-WenYingandTetsuyaYomo KirillS.MironovandDmitryA.Los 13.5 ParticipationofSer–Thrproteinkinasesinregulation 15.8 Escherichiacolicoldshockgeneprofilesinresponse ofheatstressresponsesinSynechocystis,766 tooverexpressionordeletionofCsdA,RNaseR,and AnnaA.Zorina,GalinaV.Novikova,and PNPaseandrelevancetolow-temperatureRNA DmitryA.Los metabolism,890 Section14: Chaperoninsandstress,781 SangitaPhadtare 14.1 GroEL/ESchaperonin:unfoldingandrefolding reactions,783 Section16: Adaptationtoacidstress,897 VictorV.Marchenkov,NataliyaA.Ryabova,Olga 16.1 Acid-adaptiveresponsesofStreptococcusmutans, M.Selivanova,andGennadyV.Semisotnov andmechanismsofintegrationwithoxidative 14.2 FunctionalcomparisonbetweentheDnaKchaperone stress,899 systemsofStreptococcusintermediusand RobertG.QuiveyJr.,RobertaC.Faustoferri, Escherichiacoli,791 BrendalizSantiago,JonathonBaker,Benjamin ToshifumiTomoyasuandHideakiNagamune Cross,andJinXiao Contents xi 16.2 Acidsurvivalmechanismsinneutralophilic 18.3 Promiscuousfunctionsofcellenvelopestress-sensing bacteria,911 systemsinKlebsiellapneumoniaeandAcinetobacter EugeniaPennacchietti,FabioGiovannercole,and baumannii,1031 DanielaDeBiase VijayaBharathiSrinivasanandGovindan Rajamohan 16.3 Two-componentsystemsinsensingandadaptingto acidstressinEscherichiacoli,927 18.4 InfluenceofBrpAandPsroncellenvelope YokoEguchiandRyutaroUtsumi homeostasisandvirulenceofStreptococcus mutans,1043 16.4 Slr1909,anoveltwo-componentresponseregulator ZezhangT.Wen,JacobP.Bitoun,SumeiLiao,and involvedinacidtoleranceinSynechocystis JacquelineAbranches sp.PCC6803,935 LeiChen,QiangRen,JiangxinWang,andWeiwen 18.5 Modulatorsofthebacterialtwo-componentsystems Zhang involvedinenvelopestress,transport,andvirulence,1055 RajeevMisra 16.5 Comparativemassspectrometry–basedproteomicsto elucidatetheacidstressresponseinLactobacillus Section19: Ironhomeostasis,1065 plantarum,944 TiaanHeunis,ShellyDeane,andLeonM.T.Dicks 19.1 Ironhomeostasisandenvironmentalresponsesin cyanobacteria:regulatorynetworksinvolvingFur,1067 Section17: Adaptationtonitrosativestress,953 Mar´ıaLuisaPeleato,Mar´ıaTeresaBes,andMar´ıaF. 17.1 Transcriptionalregulationbythiol-basedsensorsof Fillat oxidativeandnitrosativestress,955 19.2 InterplaybetweenO andironingeneexpression: 2 TimothyTapscott,MatthewA.Crawford,and environmentalsensingbyFNR,ArcA,andFurin Andre´sVa´zquez-Torres bacteria,1079 17.2 HaemoglobinsofMycobacteriumtuberculosisand BryanTroxellandHosniM.Hassan theirinvolvementinmanagementofenvironmental 19.3 Theiron–sulfurclusterbiosynthesisregulatorIscR stress,967 contributestoironhomeostasisandresistanceto KanakL.Dikshit oxidantsinPseudomonasaeruginosa,1090 17.3 WhatisitaboutNOthatyoudon’tunderstand?The AdisakRomsang,JamesM.Dubbs,andSkorn roleofhemeandHcpRinPorphyromonas Mongkolsuk gingivalis’sresponsetonitrate(NO ),nitrite(NO ), 3 2 19.4 Transcriptionalanalysisofiron-responsiveregulatory andnitricoxide(NO),976 networksinCaulobactercrescentus,1103 JaninaP.LewisandBenjaminR.Belvin Jose´F.daSilvaNeto 17.4 Di-ironRICs:playersinnitrosative-oxidativestress 19.5 Protein–proteininteractionsregulatethereleaseof defences,989 ironstoredinbacterioferritin,1109 L´ıgiaS.NobreandL´ıgiaM.Saraiva HuiliYao,YanWang,andMarioRivera 17.5 TheVibriocholeraestressresponse:anelaborate 19.6 Proteindynamicsandiontrafficinbacterioferritin systemgearedtowardovercominghostdefenses function:amoleculardynamicssimulationstudyon duringinfection,997 wild-typeandmutantPseudomonasaeruginosa Karl-GustavRueggebergandJunZhu BfrB,1118 17.6 Ensemblemodelingenablesquantitativeexploration HuanRui,MarioRivera,andWonpilIm ofbacterialnitricoxidestressnetworks,1009 JonathanL.RobinsonandMarkP.Brynildsen Section20: Metalresistance,1131 Section18: Adaptationtocellenvelopestress,1015 20.1 Nickeltoxicity,regulation,andresistancein bacteria,1133 18.1 TheCpxinnermembranestressresponse,1017 LeeMacomberandRobertP.Hausinger RandiL.GuestandTracyL.Raivio 20.2 MetabolicnetworkstocounterAltoxicity 18.2 Newinsightsintostimulusdetectionandsignal inPseudomonasfluorescens:aholisticview,1145 propagationbytheCpx-envelopestresssystem,1025 ChristopherAuger,NishmaD.Appanna,andVasu PatrickHoernschemeyerandSabineHunke D.Appanna

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Bacteria in various habitats are subject to continuously changing environmental conditions, such as nutrient deprivation, heat and cold stress, UV radiation, oxidative stress, dessication, acid stress, nitrosative stress, cell envelope stress, heavy metal exposure, osmotic stress, and others. In ord
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