OALib Journal期刊
ISSN: 2333-9721
费用:99美元
|
|
|
超嗜热神袍菌介导的碳水化合物转化
DOI: 10.3724/SP.J.1145.2014.10043, PP. 385-391
Keywords: 超嗜热神袍菌,海栖热袍菌,碳代谢,复杂多糖,水解酶,碳素循环
Abstract:
超嗜热神袍菌生活在高温海洋环境或地下油田,最适生长温度为76-82℃,是分解和代谢复杂多糖能力最强、生长温度最高的以h2、co2、乙酸为主要代谢产物的细菌.本文以海栖热袍菌为例对超嗜热神袍菌介导的碳水化合物转化进行综述.超嗜热神袍菌具有多重的碳代谢中心途径以及高活性的能量代谢和发酵途径,显现出极强的碳水化合物转化能力.超嗜热神袍菌能够分解和利用各种多聚糖,海栖热袍菌基因组中与糖和多糖的代谢有关的编码基因占7%,会产生各种海藻水解酶、纤维素酶、淀粉酶、果胶裂解酶和半纤维素酶等,这种完善的多聚糖水解酶系能够使超嗜热神袍菌对其生态环境可能出现的各种复杂碳水化合物进行水解和利用.通过研究超嗜热神袍菌在极端高温下迅速转化难降解多糖为发酵产物的机理,可以为生物质的综合利用提供必要的理论支持,而其产生的具有热稳定性和高活性的酶在工业生产中具有巨大的应用潜力.
References
[1] | 4nelsonke,claytonra,gillsr,gwinnml,dodsonrj,haftdh,hickeyek,petersonjd,nelsonwc,ketchumka,mcdonaldl,utterbacktr,malekja,linherkd,garrettmm,stewartam,cottonmd,prattms,phillipsca,richardsond,heidelbergj,suttongg,fleischmannrd,eisenja,whiteo,salzbergsl,smithho,craigventerj,frasercm.evidenceforlateralgenetransferbetweenarchaeaandbacteriafromgenomesequenceofthermotogamaritime[j].nature,1999,399:323-329
|
[2] | 5乐易林,邵蔚蓝.纤维素乙醇高温发酵的研究进展与展望[j].生物工程学报,2013,29(3):274-284[leyl,shaowl.advancesinandchallengesforthermophilicfermentationofcellulosicethanol[j].chinjbiotechnol,2013,29(3):274-
|
[3] | 7zhaxybayevao,swithersks,lapierrep,fourniergp,bickhartdm,deboyrt,nelsonke,nesb?cl,doolittlewf,gogartenjp,nollkm.onthechimericnature,thermophilicorigin,andphylogeneticplacementofthethermotogales[j].pnas,2009,106(14):5865-5870
|
[4] | 8ravotg,magotm,fardeauml,patelbk,prensierg,egana,garciajl,ollivierb.thermotogaelfiisp.nov.,anovelthermophilicbacteriumfromanafricanoil-producingwell[j].internunionmicrobiolsoc,1995,45(2):308-314
|
[5] | 9fardeauml,ollivierb,patelbk,magotm,thomasp,rimbaulta,rocchicciolif,garciajl.thermotogahypogeasp.nov.,axylanolytic,thermophilicbacteriumfromanoil-producingwell[j].internunionmicrobiolsoc,1997,47(4):1013-1019
|
[6] | 10jeanthonc,reysenbachal,l’haridons,gambacortaa,pacenr,glénatp,prieurd.thermotogasubterraneasp.nov.,anewthermophilicbacteriumisolatedfromacontinentaloilreservoir[j].archmicrobiol,1995,164:91-97
|
[7] | 11windbergere,huberr,trinconea,frickeh,stetterko.thermotogathermarumsp.nov.andthermotoganeapolitanaoccurringinafricancontinentalsolfataricspings[j].archmicrobiol,1989,151:506-512
|
[8] | 12g?kerm,spring?s,scheunerc,andersoni,zeytuna,nolanm,lucass,ticeh,delriotg,chengjf,hanc,tapiar,goodwinla,pitlucks,lioliosk,mavromatisk,paganii,ivanovan,mikhailovan,patia,chena,palaniappank,landm,hauserl,changyj,jeffriescd,rohdem,detterjc,woyket,bristowj,eisenja,markowitzv,hugenholtzp,kyrpidesnc,klenkhp,lapidusa.genomesequenceofthethermotogathermarumtypestrain(la3t)fromanafricansolfataricspring[j].standgenomicsci,2014,9(3):1105-1117
|
[9] | 13belkins,wirsenco,jannaschhw.anewsulfur-reducing,extre-melythermophiliceubacteriumfromasubmarinethermalvent[j].applenvironmicrobiol,1986,51(6):1180-1185
|
[10] | 14swithersks,dipippojl,brucedc,detterc,tapiar,hans,saunderse,goodwinla,hanj,woyket,pitlucks,pennacchiol,nolanm,mikhailovan,lykidisa,landml,brettint,stetterko,nelsonke,gogartenjp,nollkm.genomesequenceofthermotogasp.strainrq2,ahyperthermophilicbacteriumisolatedfromageothermallyheatedregionoftheseafloornearribeiraquente,theazores[j].jbacteriol,2011,193(20):5869-5870
|
[11] | 15childersse,vargasm,nollkm.improvedmethodsforcultivationoftheextremelythermophilicbacteriumthermotoganeapolitana[j].applenvironmicrobiol,1992,58:3949-3953
|
[12] | 16jiangy,zhouq,wuk,lixq,shaowl.ahighlyefficientmethodforliquidandsolidcultivationoftheanaerobichyperthermophiliceubacteriumthermotogamaritima[j].femsmicrobiollett,2006,259:254-259
|
[13] | 17sehr?derc,seligm,seh?nheitp.glucosefermentationtoacetate,co2andh2intheanaerobichyperthermophiliceubacteriumthermotogamaritima:involvementoftheembden-meyerhofpathway[j].archmicrobiol,1994,161:460-470
|
[14] | 21ravcheevda,lixq,latifh,zenglerk,leynsa,korostelevyd,kazakovae.transcriptionalregulationofcentralcarbonandenergymetabolisminbacteriabyredox-responsiverepressorrex[j].jbacteriol,2012,194:1145-1157
|
[15] | 22peijj,zhouq,jingqq,lil,daicc,lihz,wiegelj,shaowl.themechanismforregulatingethanolfermentationbyredoxlevelsinthermoanaerobacterethanolicus[j].metabeng,2011,13:186-193
|
[16] | 23lieblw,stemplingeri,ruilep.propertiesandgenestructureofthethermotogamaritimaalpha-amylaseamya,aputativelipoproteinofahyperthermophilicbacterium[j].jbacteriol,1997,179:941-948
|
[17] | 24limwj,parksr,ancl,leejy,hongsy,shinec,kimej,kimjo,kimh,yunhd.cloningandcharacterizationofathermostableintracellularα-amylasegenefromthehyperthermophilicbacteriumthermotogamaritimamsb8[j].resmicrobiol,2003,154:681-687
|
[18] | 25ballschmiterm,fütterero,lieblw.identificationandcharacterizationofanovelintracellularalkaline-amylasefromthehyperthermophilicbacteriumthermotogamaritimamsb8[j].applenvironmicrobiol,2006,72:2206-2211
|
[19] | 26kluskensld,vanalebeekgj,voragenag,devoswm,vanderoostj.molecularandbiochemicalcharacterizationofthethermoactivefamily1pectatelyasefromthehyperthermophilicbacteriumthermotogamaritima[j].biochemj,2003,370:651-659
|
[20] | 29anbarm,lamedr,bayerea.thermostabilityenhancementofclostridiumthermocellumcellulosomalendoglucanasecel8abyasingleglycinesubstitution[j].chemcatchem,2010,2(8):997-1003
|
[21] | 30nakazawah,okadak,onoderat,ogasawaraw,okadah,morikaway.directedevolutionofendoglucanaseiii(cel12a)fromtrichodermareesei[j].applmicrobiolbiotechnol,2009,83(4):649-657
|
[22] | 31乐易林,邵蔚蓝.极端耐热纤维素酶cel74的表达、纯化与特性[j].生物加工过程,2009,7(3):64-67[leyl,shaowl.expressionandcharacterizationofthermotogamaritimacellulasecel74[j].chinjbioprocesseng,2009,7(3):64-
|
[23] | 32paulym,keegstrak.cell-wallcarbohydratesandtheirmodificationasaresourceforbiofuels[j].plantj,2008,54:559-568
|
[24] | 35nakajimam,imamurah,shounh,wakagit.uniquemetaldependencyofcytosolicα-mannosidasefromthermotogamaritima,ahyperthermophilicbacterium[j].archbiochembiophys,2003,415:87-93
|
[25] | 36zhangm,jiangzq,lilt,katroliap.biochemicalcharacterizationofarecombinantthermostableβ-mannosidasefromthermotogamaritimawithtransglycosidaseactivity[j].jmolcatalb:enzym,2009,60:119-124
|
[26] | 37devrijet,bakkerrr,buddema,laimh,marsae,claassenpa.efficienthydrogenproductionfromthelignocellulosicenergycropmiscanthusbytheetremethermophilicbacteriacaldicellulosiruptorsaccharolyticusandthermotoganeapolitana[j].biotechnolbiofuels,2009,2:12
|
[27] | 38leyl,chenhy,zagurskyr,wujhd,shaowl.thermostablednaligase-mediatedpcrproductionofcircularplasmid(ppcp)anditsapplicationindirectedevolutionviainsituerror-pronepcr[j].dnares,2013,20(4):375-382
|
[28] | 39kakugawas,fushinobus,wakagit,shounh.characterizationofathermostablecarboxylesterasefromthehyperthermophilicbacteriumthermotogamaritima[j].applmicrobiolbiotechnol,2007,74:585-591
|
[29] | 40nathanial,nicholsonaw.thermotogamaritimaribonucleaseiii.characterizationofthermostablebiochemicalbehaviorandanalysisofconservedbasepairsthatfunctionasreactivityepitopesforthethermotoga23srrnaprecursor[j].biochemistry,2010,49:7164-7178
|
[30] | 41钱国军,陈彩平,翟如英,邵蔚蓝,梅艳珍.极耐热性乳酸脱氢酶高效表达、纯化及酶学性质[j].生物工程学报,2014,30(4):545-553[qiangj,chencp,zhairy,shaowl,meiyz.expression,purificationandcharacterizationofathermostablelatatedehydrogenasefromthermotogamaritima[j].chinjbiotechnol,2014,30(4):545-
|
[31] | 1huberr,langworthyta,k?nigh,thommm,woesecr,sleytrub,stetterko.thermotogamaritimasp.nov.representsanewgenusofuniqueextremelythermophiliceubacteriagrowingupto90℃[j].archmicrobiol,1986,144:324-333
|
[32] | 2takahatay,nishijimam,hoakit,maruyamat.thermotogapetrophilasp.nov.andthermotoganaphthophilasp.nov.,twohyperthermophilicbacteriafromthekubikioilreservoirinniigata,japan[j].intjsystevolmicrobiol,2001,51:1901-1909
|
[33] | 3frockad,noteyjs,kellyrm.thegenusthermotoga:recentdevelopments[j].environtechnol,2010,31:1169-1181
|
[34] | 6balkm,weijmaj,stamsajm.thermotogalettingaesp.nov.,anovelthermophilic,methanol-degradingbacteriumisolatedfromathermophilicanaerobicreactor[j].internjsystevolmicrobiol,2002,52:1361-1368
|
[35] | 18schutgj,adamsmw.theiron-hydrogenaseofthermotogamaritimautilizesferredoxinandnadhsynergistically:anewperspectiveonanaerobichydrogenproduction[j].jbacteriol,2009,191:4451-4457
|
[36] | 19muralidharanv,rinkerkd,hirshis,bouwerej,kellyrm.hydrogentransferbetweenmethanogensandfermontativeheterotrophsinhyperthermophiliccocultures[j].biotechnolbioeng,1997,56:268-278
|
[37] | 20mak,hutchinsa,sungsj,adamsmw.pyruvateferredoxinoxidoreductasefromthehyperthermophilicarchaeon,pyrococcusfuriosusfunctionsasacoa-dependentpyruvatedecarboxylase[j].pnas,1997,94:9608-9613
|
[38] | 27zhangpyh,himmelme,mielenzjr.outlookforcellulaseimprovement:screeningandselectionstrategies[j].biotechnoladv,2006,24:452-481
|
[39] | 28liangc,fioronim,rodríguez-roperof,xuey,schwanebergu,may.directedevolutionofathermophilicendoglucanase(cel5a)intohighlyactivecel5avariantswithanexpandedtemperatureprofile[j].jbiotechnol,2011,154(1):46-53
|
[40] | 33winterhalterc,heinrichp,candussioa,wichg,lieblw.identificationofanovelcellulose-bindingdomainwithinthemultidomain120kdaxylanasexynaofthehyperthermophilicbacteriumthermotogamaritima[j].molmicrobiol,1995,15:431-444
|
[41] | 34winterhalterc,lieblw.twoextremelythermostablexylanasesofthehyperthermophilicbacteriumthermotogamaritimamsb8[j].applenvironmicrobiol,1995,61:1810-1815
|
[42] | 42qiangj,chencp,zhour,hey,heyb,shaowl.athermostables-adenosylhomocysteinehydrolasefromthermotogamaritima:propertiesanditsapplicationons-adenosylhomocysteineproductionwithenzymaticcofactorregeneration[j].enzymemicrobialtechnol,2014,64-65:33-37
|
Full-Text
|
|
Contact Us
service@oalib.com QQ:3279437679 
WhatsApp +8615387084133
|
|