Cancer metabolism: looking forward | Nature Reviews Cancer

文章推薦指數: 80 %
投票人數:10人

Tumour initiation and progression requires the metabolic reprogramming of cancer cells. Cancer cells autonomously alter their flux through ... Skiptomaincontent Thankyouforvisitingnature.com.YouareusingabrowserversionwithlimitedsupportforCSS.Toobtain thebestexperience,werecommendyouuseamoreuptodatebrowser(orturnoffcompatibilitymodein InternetExplorer).Inthemeantime,toensurecontinuedsupport,wearedisplayingthesitewithoutstyles andJavaScript. Advertisement nature naturereviewscancer perspectives article Subjects CancermetabolismCancermicroenvironmentCancertherapy AbstractTumourinitiationandprogressionrequiresthemetabolicreprogrammingofcancercells.Cancercellsautonomouslyaltertheirfluxthroughvariousmetabolicpathwaysinordertomeettheincreasedbioenergeticandbiosyntheticdemandaswellasmitigateoxidativestressrequiredforcancercellproliferationandsurvival.Cancerdrivermutationscoupledwithenvironmentalnutrientavailabilitycontrolfluxthroughthesemetabolicpathways.Metabolites,whenaberrantlyaccumulated,canalsopromotetumorigenesis.Thedevelopmentandapplicationofnewtechnologiesoverthelastfewdecadeshasnotonlyrevealedtheheterogeneityandplasticityoftumoursbutalsoallowedustouncovernewmetabolicpathwaysinvolvedinsupportingtumourgrowth.Thetumourmicroenvironment(TME),whichcanbedepletedofcertainnutrients,forcescancercellstoadaptbyinducingnutrientscavengingmechanismstosustaincancercellproliferation.ThereisgrowingappreciationthatthemetabolismofcelltypesotherthancancercellswithintheTME,includingendothelialcells,fibroblastsandimmunecells,canmodulatetumourprogression.Becausemetastasesareamajorcauseofdeathofpatientswithcancer,effortsareunderwaytounderstandhowmetabolismisharnessedbymetastaticcells.Additionally,thereisanewinterestinexploitingcancergeneticanalysisforpatientstratificationand/ordietaryinterventionsincombinationwiththerapiesthattargetmetabolism.InthisPerspective,wehighlightthesemainthemesthatarecurrentlyunderinvestigationinthecontextofinvivotumourmetabolism,specificallyemphasizingquestionsthatremainunanswered. Thisisapreviewofsubscriptioncontent Accessoptions Accessthroughyourinstitution Changeinstitution Buyorsubscribe SubscribetoJournalGetfulljournalaccessfor1year55,14€only4,60€perissueSubscribeAllpricesareNETprices.VATwillbeaddedlaterinthecheckout.Taxcalculationwillbefinalisedduringcheckout.BuyarticleGettimelimitedorfullarticleaccessonReadCube.$32.00BuyAllpricesareNETprices. Additionalaccessoptions: Login Learnaboutinstitutionalsubscriptions Fig.1:Metabolicandsignallingpathwayssupportingtumourbiomassproduction.Fig.2:Signallingandnon-canonicalmechanismsincancermetabolism.Fig.3:BiologyofROSincancercells.Fig.4:MetaboliccrosstalkofcellswithintheTME.Fig.5:Metabolismregulatesmultistepsofmetastasis.Fig.6:Personalizedmedicineapproachtotargetingcancermetabolism. ReferencesKoppenol,W.H.,Bounds,P.L.&Dang,C.V.OttoWarburg’scontributionstocurrentconceptsofcancermetabolism.Nat.Rev.Cancer11,325–337(2011).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Warburg,O.Ontheoriginofcancercells.Science123,309–314(1956).CAS  PubMed  Article  PubMedCentral  GoogleScholar  DeBerardinis,R.J.&Chandel,N.S.WeneedtotalkabouttheWarburgeffect.Nat.Metab.2,127–129(2020).PubMed  Article  PubMedCentral  GoogleScholar  Krall,A.S.etal.AsparaginecouplesmitochondrialrespirationtoATF4activityandtumorgrowth.CellMetab.33,1013–1026.e6(2021).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Vasan,K.,Werner,M.&Chandel,N.S.Mitochondrialmetabolismasatargetforcancertherapy.CellMetab.32,341–352(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Martínez-Reyes,I.etal.Mitochondrialubiquinoloxidationisnecessaryfortumourgrowth.Nature585,288–292(2020).PubMed  PubMedCentral  Article  CAS  GoogleScholar  Hollinshead,K.E.R.etal.Respiratorysupercomplexespromotemitochondrialefficiencyandgrowthinseverelyhypoxicpancreaticcancer.CellRep.33,108231(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Bonekamp,N.A.etal.Small-moleculeinhibitorsofhumanmitochondrialDNAtranscription.Nature588,712–716(2020).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Cardaci,S.etal.PyruvatecarboxylationenablesgrowthofSDH-deficientcellsbysupportingaspartatebiosynthesis.Nat.CellBiol.17,1317–1326(2015).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Engelman,J.A.etal.EffectiveuseofPI3KandMEKinhibitorstotreatmutantKrasG12DandPIK3CAH1047Rmurinelungcancers.Nat.Med.14,1351–1356(2008).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Gatenby,R.A.&Gillies,R.J.Whydocancershavehighaerobicglycolysis?Nat.Rev.Cancer4,891–899(2004).CAS  PubMed  Article  GoogleScholar  VanderHeiden,M.G.,Cantley,L.C.&Thompson,C.B.UnderstandingtheWarburgeffect:themetabolicrequirementsofcellproliferation.Science324,1029–1033(2009).Article  CAS  GoogleScholar  Shim,H.etal.c-MyctransactivationofLDH-A:implicationsfortumormetabolismandgrowth.Proc.NatlAcad.Sci.USA94,6658–6663(1997).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Sabatini,D.M.Twenty-fiveyearsofmTOR:uncoveringthelinkfromnutrientstogrowth.Proc.NatlAcad.Sci.USA114,11818–11825(2017).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Hurst,J.H.WilliamKaelin,PeterRatcliffe,andGreggSemenzareceivethe2016AlbertLaskerBasicMedicalResearchAward.J.Clin.Invest.126,3628–3638(2016).PubMed  PubMedCentral  Article  GoogleScholar  Hoxhaj,G.&Manning,B.D.ThePI3K–AKTnetworkattheinterfaceofoncogenicsignallingandcancermetabolism.Nat.Rev.Cancer20,74–88(2020).CAS  PubMed  Article  GoogleScholar  VanderHeiden,M.G.&DeBerardinis,R.J.Understandingtheintersectionsbetweenmetabolismandcancerbiology.Cell168,657–669(2017).PubMedCentral  Article  CAS  PubMed  GoogleScholar  Ghergurovichetal.Localproductionoflactate,ribosephosphate,andaminoacidsbyhumantriple-negativebreastcancer.Med2,736–754.e6(2021).PubMed  Article  GoogleScholar  Sellers,K.etal.Pyruvatecarboxylaseiscriticalfornon-small-celllungcancerproliferation.J.Clin.Invest.125,687–698(2015).PubMed  PubMedCentral  Article  GoogleScholar  Christen,S.etal.Breastcancer-derivedlungmetastasesshowincreasedpyruvatecarboxylase-dependentanaplerosis.CellRep.17,837–848(2016).CAS  PubMed  Article  GoogleScholar  Davidson,S.M.etal.Environmentimpactsthemetabolicdependenciesofras-drivennon-smallcelllungcancer.CellMetab.23,517–528(2016).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Knott,S.R.V.etal.Asparaginebioavailabilitygovernsmetastasisinamodelofbreastcancer.Nature554,378–381(2018).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Garcia-Bermudez,J.etal.Aspartateisalimitingmetaboliteforcancercellproliferationunderhypoxiaandintumours.Nat.CellBiol.20,775–781(2018).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Sullivan,L.B.etal.Aspartateisanendogenousmetaboliclimitationfortumourgrowth.Nat.CellBiol.20,782–788(2018).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Harris,I.S.&DeNicola,G.M.ThecomplexinterplaybetweenantioxidantsandROSincancer.TrendsCellBiol.30,440–451(2020).CAS  PubMed  Article  GoogleScholar  Sayin,V.I.,LeBoeuf,S.E.&Papagiannakopoulos,T.Targetingmetabolicbottlenecksinlungcancer.TrendsCancer5,457–459(2019).CAS  PubMed  Article  GoogleScholar  Liu,J.Y.&Wellen,K.E.Advancesintounderstandingmetabolitesassignalingmoleculesincancerprogression.Curr.Opin.CellBiol.63,144–153(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Faubert,B.,Solmonson,A.&DeBerardinis,R.J.Metabolicreprogrammingandcancerprogression.Science368,eaaw5473(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Tajan,M.&Vousden,K.H.Dietaryapproachestocancertherapy.CancerCell37,767–785(2020).CAS  PubMed  Article  GoogleScholar  Poillet-Perez,L.&White,E.Roleoftumorandhostautophagyincancermetabolism.GenesDev.33,610–619(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Bader,J.E.,Voss,K.&Rathmell,J.C.Targetingmetabolismtoimprovethetumormicroenvironmentforcancerimmunotherapy.Mol.Cell78,1019–1033(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Bergers,G.&Fendt,S.M.Themetabolismofcancercellsduringmetastasis.Nat.Rev.Cancer21,162–180(2021).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Dey,P.,Kimmelman,A.C.&DePinho,R.A.Metaboliccodependenciesinthetumormicroenvironment.CancerDiscov.11,1067–1081(2021).CAS  PubMed  Article  GoogleScholar  Zhu,X.G.etal.Functionalgenomicsinvivorevealmetabolicdependenciesofpancreaticcancercells.CellMetab.33,211–221.e6(2021).CAS  PubMed  Article  GoogleScholar  Biancur,D.E.etal.Functionalgenomicsidentifiesmetabolicvulnerabilitiesinpancreaticcancer.CellMetab.33,199–210.e8(2021).CAS  PubMed  Article  GoogleScholar  Vandekeere,S.etal.SerinesynthesisviaPHGDHisessentialforhemeproductioninendothelialcells.CellMetab.28,573–587.e13(2018).CAS  PubMed  Article  GoogleScholar  Ducker,G.S.etal.Reversalofcytosolicone-carbonfluxcompensatesforlossofthemitochondrialfolatepathway.CellMetab.24,640–641(2016).CAS  PubMed  Article  GoogleScholar  Oshima,N.etal.DynamicimagingofLDHinhibitionintumorsrevealsrapidinvivometabolicrewiringandvulnerabilitytocombinationtherapy.CellRep.30,1798–1810.e4(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Svensson,R.U.etal.Inhibitionofacetyl-CoAcarboxylasesuppressesfattyacidsynthesisandtumorgrowthofnon-small-celllungcancerinpreclinicalmodels.Nat.Med.22,1108–1119(2016).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Zhang,Y.etal.Upregulationofantioxidantcapacityandnucleotideprecursoravailabilitysufficesforoncogenictransformation.CellMetab.33,94–109.e8(2021).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Tennant,D.A.,Durán,R.V.&Gottlieb,E.Targetingmetabolictransformationforcancertherapy.Nat.Rev.Cancer10,267–277(2010).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Rabinovich,S.etal.DiversionofaspartateinASS1-deficienttumoursfostersdenovopyrimidinesynthesis.Nature527,379–383(2015).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Kim,J.etal.CPS1maintainspyrimidinepoolsandDNAsynthesisinKRAS/LKB1-mutantlungcancercells.Nature546,168–172(2017).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Li,B.etal.Fructose-1,6-bisphosphataseopposesrenalcarcinomaprogression.Nature513,251–255(2014).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Li,F.etal.FBP1lossdisruptslivermetabolismandpromotestumorigenesisthroughahepaticstellatecellsenescencesecretome.Nat.CellBiol.22,728–739(2020).PubMed  PubMedCentral  Article  CAS  GoogleScholar  Huangyang,P.etal.Fructose-1,6-bisphosphatase2inhibitssarcomaprogressionbyrestrainingmitochondrialbiogenesis.CellMetab.31,174–188(2020).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Hensley,C.T.etal.Metabolicheterogeneityinhumanlungtumors.Cell164,681–694(2016).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Faubert,B.etal.Lactatemetabolisminhumanlungtumors.Cell171,358–371.e9(2017).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Hui,S.etal.GlucosefeedstheTCAcycleviacirculatinglactate.Nature551,115–118(2017).PubMed  PubMedCentral  Article  CAS  GoogleScholar  Mayers,J.R.etal.Tissueoforigindictatesbranched-chainaminoacidmetabolisminmutantKras-drivencancers.Science353,1161–1165(2016).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Yuneva,M.O.etal.Themetabolicprofileoftumorsdependsonboththeresponsiblegeneticlesionandtissuetype.CellMetab.15,157–170(2012).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Hui,S.etal.Quantitativefluxomicsofcirculatingmetabolites.CellMetab.32,676–688.e4(2020).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Liu,S.,Dai,Z.,Cooper,D.E.,Kirsch,D.G.&Locasale,J.W.QuantitativeanalysisofthephysiologicalcontributionsofglucosetotheTCAcycle.CellMetab.32,619–628.e21(2020).CAS  PubMed  Article  PubMedCentral  GoogleScholar  García-Cañaveras,J.C.etal.SHMTinhibitioniseffectiveandsynergizeswithmethotrexateinT-cellacutelymphoblasticleukemia.Leukemia35,377–388(2021).PubMed  Article  CAS  PubMedCentral  GoogleScholar  Ma,E.H.etal.MetabolicprofilingusingstableisotopetracingrevealsdistinctpatternsofglucoseutilizationbyphysiologicallyactivatedCD8.Immunity51,856–870.e5(2019).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Murashige,D.etal.Comprehensivequantificationoffuelusebythefailingandnonfailinghumanheart.Science370,364–368(2020).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Carroll,P.A.,Freie,B.W.,Mathsyaraja,H.&Eisenman,R.N.TheMYCtranscriptionfactornetwork:balancingmetabolism,proliferationandoncogenesis.Front.Med.12,412–425(2018).PubMed  PubMedCentral  Article  GoogleScholar  Lacroix,M.,Riscal,R.,Arena,G.,Linares,L.K.&LeCam,L.Metabolicfunctionsofthetumorsuppressorp53:implicationsinnormalphysiology,metabolicdisorders,andcancer.Mol.Metab.33,2–22(2020).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Li,T.etal.Tumorsuppressionintheabsenceofp53-mediatedcell-cyclearrest,apoptosis,andsenescence.Cell149,1269–1283(2012).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Liu,G.Y.&Sabatini,D.M.mTORatthenexusofnutrition,growth,ageinganddisease.Nat.Rev.Mol.CellBiol.21,183–203(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Ali,E.S.etal.ERK2phosphorylatesPFAStomediateposttranslationalcontrolofdenovopurinesynthesis.Mol.Cell78,1178–1191.e6(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Huang,F.etal.Inosinemonophosphatedehydrogenasedependenceinasubsetofsmallcelllungcancers.CellMetab.28,369–382.e5(2018).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Valvezan,A.J.etal.IMPDHinhibitorsforantitumortherapyintuberoussclerosiscomplex.JCIInsight5,e135071(2020).PubMedCentral  Article  GoogleScholar  González,A.,Hall,M.N.,Lin,S.C.&Hardie,D.G.AMPKandTOR:theyinandyangofcellularnutrientsensingandgrowthcontrol.CellMetab.31,472–492(2020).PubMed  Article  CAS  PubMedCentral  GoogleScholar  Eichner,L.J.etal.GeneticanalysisrevealsAMPKisrequiredtosupporttumorgrowthinmurineKras-dependentlungcancermodels.CellMetab.29,285–302.e7(2019).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Condon,K.J.etal.Genome-wideCRISPRscreensrevealmultitieredmechanismsthroughwhichmTORC1sensesmitochondrialdysfunction.Proc.NatlAcad.Sci.USA118,e2022120118(2021).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Khan,N.A.etal.mTORC1regulatesmitochondrialintegratedstressresponseandmitochondrialmyopathyprogression.CellMetab.26,419–428.e5(2017).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Thompson,C.B.Metabolicenzymesasoncogenesortumorsuppressors.N.Engl.J.Med.360,813–815(2009).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Yong,C.,Stewart,G.D.&Frezza,C.Oncometabolitesinrenalcancer.Nat.Rev.Nephrol.16,156–172(2020).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Frezza,C.,Pollard,P.J.&Gottlieb,E.Inbornandacquiredmetabolicdefectsincancer.J.Mol.Med.89,213–220(2011).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Mullen,A.R.etal.Reductivecarboxylationsupportsgrowthintumourcellswithdefectivemitochondria.Nature481,385–388(2011).PubMed  PubMedCentral  Article  CAS  GoogleScholar  Dang,L.etal.Cancer-associatedIDH1mutationsproduce2-hydroxyglutarate.Nature462,739–744(2009).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Ye,D.,Guan,K.L.&Xiong,Y.Metabolism,activity,andtargetingofd-andl-2-hydroxyglutarates.TrendsCancer4,151–165(2018).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Fan,J.etal.Humanphosphoglyceratedehydrogenaseproducestheoncometabolited-2-hydroxyglutarate.ACSChem.Biol.10,510–516(2015).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Engqvist,M.K.,Eßer,C.,Maier,A.,Lercher,M.J.&Maurino,V.G.Mitochondrial2-hydroxyglutaratemetabolism.Mitochondrion19,275–281(2014).CAS  PubMed  Article  GoogleScholar  Shim,E.H.etal.l-2-Hydroxyglutarate:anepigeneticmodifierandputativeoncometaboliteinrenalcancer.CancerDiscov.4,1290–1298(2014).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Baksh,S.C.&Finley,L.W.S.Metaboliccoordinationofcellfatebyα-ketoglutarate-dependentdioxygenases.TrendsCellBiol.31,24–36(2021).CAS  PubMed  Article  GoogleScholar  Losman,J.A.etal.(R)-2-Hydroxyglutarateissufficienttopromoteleukemogenesisanditseffectsarereversible.Science339,1621–1625(2013).CAS  PubMed  Article  GoogleScholar  Xu,D.etal.Theevolvinglandscapeofnoncanonicalfunctionsofmetabolicenzymesincancerandotherpathologies.CellMetab.33,33–50(2021).CAS  PubMed  Article  GoogleScholar  Martínez-Reyes,I.&Chandel,N.S.MitochondrialTCAcyclemetabolitescontrolphysiologyanddisease.Nat.Commun.11,102(2020).PubMed  PubMedCentral  Article  CAS  GoogleScholar  Zhang,D.etal.Metabolicregulationofgeneexpressionbyhistonelactylation.Nature574,575–580(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Kamata,H.etal.ReactiveoxygenspeciespromoteTNFα-induceddeathandsustainedJNKactivationbyinhibitingMAPkinasephosphatases.Cell120,649–661(2005).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Tsutsumi,R.etal.Assaytovisualizespecificproteinoxidationrevealsspatio-temporalregulationofSHP2.Nat.Commun.8,466(2017).PubMed  PubMedCentral  Article  CAS  GoogleScholar  Tonks,N.K.Proteintyrosinephosphatases:fromgenes,tofunction,todisease.Nat.Rev.Mol.CellBiol.7,833–846(2006).CAS  PubMed  Article  GoogleScholar  Konaté,M.M.,Antony,S.&Doroshow,J.H.InhibitingtheactivityofNADPHoxidaseincancer.Antioxid.RedoxSignal.33,435–454(2020).PubMed  PubMedCentral  Article  CAS  GoogleScholar  Kong,H.etal.Metabolicdeterminantsofcellularfitnessdependentonmitochondrialreactiveoxygenspecies.Sci.Adv.6,eabb7272(2020).CAS  PubMed  PubMedCentral  GoogleScholar  Woo,D.K.etal.MitochondrialgenomeinstabilityandROSenhanceintestinaltumorigenesisinAPCMin/+mice.Am.J.Pathol.180,24–31(2012).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Xiao,H.etal.Aquantitativetissue-specificlandscapeofproteinredoxregulationduringaging.Cell180,968–983.e24(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Manford,A.G.etal.Acellularmechanismtodetectandalleviatereductivestress.Cell183,46–61.e21(2020).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Ingold,I.etal.SeleniumutilizationbyGPX4isrequiredtopreventhydroperoxide-inducedferroptosis.Cell172,409–422.e21(2018).CAS  PubMed  Article  GoogleScholar  Alvarez,S.W.etal.NFS1undergoespositiveselectioninlungtumoursandprotectscellsfromferroptosis.Nature551,639–643(2017).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Tsang,T.etal.CopperisanessentialregulatoroftheautophagickinasesULK1/2todrivelungadenocarcinoma.Nat.CellBiol.22,412–424(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Jiang,X.,Stockwell,B.R.&Conrad,M.Ferroptosis:mechanisms,biologyandroleindisease.Nat.Rev.Mol.Cell.Biol.22,266–282(2021).PubMed  PubMedCentral  Article  CAS  GoogleScholar  Harris,I.S.etal.Glutathioneandthioredoxinantioxidantpathwayssynergizetodrivecancerinitiationandprogression.CancerCell27,211–222(2015).CAS  PubMed  Article  GoogleScholar  DeNicola,G.M.etal.Oncogene-inducedNrf2transcriptionpromotesROSdetoxificationandtumorigenesis.Nature475,106–109(2011).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Lignitto,L.etal.Nrf2activationpromoteslungcancermetastasisbyinhibitingthedegradationofBach1.Cell178,316–329.e18(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Wiel,C.etal.BACH1stabilizationbyantioxidantsstimulateslungcancermetastasis.Cell178,330–345.e22(2019).CAS  PubMed  Article  GoogleScholar  Lee,P.,Vousden,K.H.&Cheung,E.C.TIGAR,TIGAR,burningbright.CancerMetab.2,1(2014).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Cheung,E.C.etal.DynamicROScontrolbyTIGARregulatestheinitiationandprogressionofpancreaticcancer.CancerCell37,168–182.e4(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  LeGal,K.etal.Antioxidantscanincreasemelanomametastasisinmice.Sci.Transl.Med.7,308re308(2015). GoogleScholar  Piskounova,E.etal.Oxidativestressinhibitsdistantmetastasisbyhumanmelanomacells.Nature527,186–191(2015).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Tasdogan,A.etal.Metabolicheterogeneityconfersdifferencesinmelanomametastaticpotential.Nature577,115–120(2020).CAS  PubMed  Article  GoogleScholar  Ubellacker,J.M.etal.Lymphprotectsmetastasizingmelanomacellsfromferroptosis.Nature585,113–118(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Radisky,D.C.etal.Rac1bandreactiveoxygenspeciesmediateMMP-3-inducedEMTandgenomicinstability.Nature436,123–127(2005).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Viswanathan,V.S.etal.Dependencyofatherapy-resistantstateofcancercellsonalipidperoxidasepathway.Nature547,453–457(2017).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Sullivan,M.R.etal.Quantificationofmicroenvironmentalmetabolitesinmurinecancersrevealsdeterminantsoftumornutrientavailability.eLife8,e44235(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Gillies,R.J.,Brown,J.S.,Anderson,A.R.A.&Gatenby,R.A.Eco-evolutionarycausesandconsequencesoftemporalchangesinintratumouralbloodflow.Nat.Rev.Cancer18,576–585(2018).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Li,X.,Sun,X.&Carmeliet,P.Hallmarksofendothelialcellmetabolisminhealthanddisease.CellMetab.30,414–433(2019).CAS  PubMed  Article  GoogleScholar  Amaravadi,R.K.,Kimmelman,A.C.&Debnath,J.Targetingautophagyincancer:recentadvancesandfuturedirections.CancerDiscov.9,1167–1181(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Bosc,C.etal.Autophagyregulatesfattyacidavailabilityforoxidativephosphorylationthroughmitochondria–endoplasmicreticulumcontactsites.Nat.Commun.11,4056(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Yang,A.etal.Autophagysustainspancreaticcancergrowththroughbothcell-autonomousandnonautonomousmechanisms.CancerDiscov.8,276–287(2018).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Guo,J.Y.etal.AutophagysuppressesprogressionofK-ras-inducedlungtumorstooncocytomasandmaintainslipidhomeostasis.GenesDev.27,1447–1461(2013).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Poillet-Perez,L.etal.Autophagymaintainstumourgrowththroughcirculatingarginine.Nature563,569–573(2018).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Davidson,S.M.etal.Directevidenceforcancer-cell-autonomousextracellularproteincatabolisminpancreatictumors.Nat.Med.23,235–241(2017).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Commisso,C.etal.MacropinocytosisofproteinisanaminoacidsupplyrouteinRas-transformedcells.Nature497,633–637(2013).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Zhang,Y.&Commisso,C.Macropinocytosisincancer:acomplexsignalingnetwork.TrendsCancer5,332–334(2019).PubMed  PubMedCentral  Article  GoogleScholar  Jayashankar,V.&Edinger,A.L.Macropinocytosisconfersresistancetotherapiestargetingcanceranabolism.Nat.Commun.11,1121(2020).PubMed  PubMedCentral  Article  GoogleScholar  Cantor,J.R.etal.PhysiologicmediumrewirescellularmetabolismandrevealsuricacidasanendogenousinhibitorofUMPsynthase.Cell169,258–272.e17(2017).CAS  PubMed  PubMedCentral  Article  GoogleScholar  VandeVoorde,J.etal.Improvingthemetabolicfidelityofcancermodelswithaphysiologicalcellculturemedium.Sci.Adv.5,eaau7314(2019).PubMed  PubMedCentral  Article  CAS  GoogleScholar  Ryan,D.G.&O’Neill,L.A.J.Krebscyclereborninmacrophageimmunometabolism.Annu.Rev.Immunol.38,289–313(2020).CAS  PubMed  Article  GoogleScholar  Makowski,L.,Chaib,M.&Rathmell,J.C.Immunometabolism:frombasicmechanismstotranslation.Immunol.Rev.295,5–14(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Bian,Y.etal.CancerSLC43A2altersTcellmethioninemetabolismandhistonemethylation.Nature585,277–282(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Jacobs,S.R.etal.GlucoseuptakeislimitinginTcellactivationandrequiresCD28-mediatedAkt-dependentandindependentpathways.J.Immunol.180,4476–4486(2008).CAS  PubMed  Article  GoogleScholar  Reinfeld,B.I.etal.Cell-programmednutrientpartitioninginthetumourmicroenvironment.Nature593,282–288(2021).CAS  PubMed  Article  GoogleScholar  Yamamoto,K.etal.AutophagypromotesimmuneevasionofpancreaticcancerbydegradingMHC-I.Nature581,100–105(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Poillet-Perez,L.etal.AutophagypromotesgrowthoftumorswithhighmutationalburdenbyinhibitingaT-cellimmuneresponse.Nat.Cancer1,923–934(2020).PubMed  PubMedCentral  Article  GoogleScholar  Sousa,C.M.etal.Pancreaticstellatecellssupporttumourmetabolismthroughautophagicalaninesecretion.Nature536,479–483(2016).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Zhu,Z.etal.Tumour-reprogrammedstromalBCAT1fuelsbranched-chainketoaciddependencyinstromal-richPDACtumours.Nat.Metab.2,775–792(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Mukherjee,A.etal.Adipocyte-inducedFABP4expressioninovariancancercellspromotesmetastasisandmediatescarboplatinresistance.CancerRes.80,1748–1761(2020).CAS  PubMed  Article  GoogleScholar  Leone,R.D.&Powell,J.D.Metabolismofimmunecellsincancer.Nat.Rev.Cancer20,516–531(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Madden,M.Z.&Rathmell,J.C.ThecomplexintegrationofT-cellmetabolismandimmunotherapy.CancerDiscov.Onlineaheadofprint.https://doi.org/10.1158/2159-8290.CD-20-0569(2021).Article  PubMed  PubMedCentral  GoogleScholar  Gilmore,I.S.,Heiles,S.&Pieterse,C.L.Metabolicimagingatthesingle-cellscale:recentadvancesinmassspectrometryimaging.Annu.Rev.Anal.Chem.12,201–224(2019).CAS  Article  GoogleScholar  Chuang,C.H.etal.Alteredmitochondriafunctionalitydefinesametastaticcellstateinlungcancerandcreatesanexploitablevulnerability.CancerRes.81,567–579(2020).PubMed  PubMedCentral  Article  GoogleScholar  Porporato,P.E.etal.Amitochondrialswitchpromotestumormetastasis.CellRep.8,754–766(2014).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Schwörer,S.etal.ProlinebiosynthesisisaventforTGFβ-inducedmitochondrialredoxstress.EMBOJ.39,e103334(2020).PubMed  PubMedCentral  Article  CAS  GoogleScholar  Sciacovelli,M.etal.Fumarateisanepigeneticmodifierthatelicitsepithelial-to-mesenchymaltransition.Nature537,544–547(2016).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Sullivan,W.J.etal.ExtracellularmatrixremodelingregulatesglucosemetabolismthroughTXNIPdestabilization.Cell175,117–132.e21(2018).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Hu,H.etal.Phosphoinositide3-kinaseregulatesglycolysisthroughmobilizationofaldolasefromtheactincytoskeleton.Cell164,433–446(2016).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Gomes,A.P.etal.Age-inducedaccumulationofmethylmalonicacidpromotestumourprogression.Nature585,283–287(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Ubellacker,J.M.&Morrison,S.J.Metabolicadaptationfuelslymphnodemetastasis.CellMetab.29,785–786(2019).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Takahashi,N.etal.3DculturemodelswithCRISPRscreensrevealhyperactiveNRF2asaprerequisiteforspheroidformationviaregulationofproliferationandferroptosis.Mol.Cell80,828–844.e6(2020).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Labuschagne,C.F.,Cheung,E.C.,Blagih,J.,Domart,M.C.&Vousden,K.H.Cellclusteringpromotesametabolicswitchthatsupportsmetastaticcolonization.CellMetab.30,720–734.e5(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Schito,L.&Semenza,G.L.Hypoxia-induciblefactors:masterregulatorsofcancerprogression.TrendsCancer2,758–770(2016).PubMed  Article  GoogleScholar  Sayin,V.I.etal.Antioxidantsacceleratelungcancerprogressioninmice.Sci.Transl.Med.6,221ra215(2014).Article  CAS  GoogleScholar  Ngo,B.etal.LimitedenvironmentalserineandglycineconferbrainmetastasissensitivitytoPHGDHinhibition.CancerDiscov.10,1352–1373(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Jin,X.etal.Ametastasismapofhumancancercelllines.Nature588,331–336(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Ferraro,G.B.etal.Fattyacidsynthesisisrequiredforbreastcancerbrainmetastasis.Nat.Cancer2,414–428(2021).PubMed  Article  PubMedCentral  GoogleScholar  Elia,I.etal.Breastcancercellsrelyonenvironmentalpyruvatetoshapethemetastaticniche.Nature568,117–121(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Rinaldi,G.etal.Invivoevidenceforserinebiosynthesis-definedsensitivityoflungmetastasis,butnotofprimarybreasttumors,tomTORC1inhibition.Mol.Cell81,386–397.e7(2021).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Phan,T.G.&Croucher,P.I.Thedormantcancercelllifecycle.Nat.Rev.Cancer20,398–411(2020).CAS  PubMed  Article  PubMedCentral  GoogleScholar  VanderHeiden,M.G.Targetingcancermetabolism:atherapeuticwindowopens.Nat.Rev.DrugDiscov.10,671–684(2011).Article  CAS  GoogleScholar  Sykes,D.B.etal.Inhibitionofdihydroorotatedehydrogenaseovercomesdifferentiationblockadeinacutemyeloidleukemia.Cell167,171–186.e15(2016).CAS  PubMed  PubMedCentral  Article  GoogleScholar  McBrayer,S.K.etal.Transaminaseinhibitionby2-hydroxyglutarateimpairsglutamatebiosynthesisandredoxhomeostasisinglioma.Cell175,101–116.e25(2018).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Sulkowski,P.L.etal.OncometabolitessuppressDNArepairbydisruptinglocalchromatinsignalling.Nature582,586–591(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Sulkowski,P.L.etal.2-HydroxyglutarateproducedbyneomorphicIDHmutationssuppresseshomologousrecombinationandinducesPARPinhibitorsensitivity.Sci.Transl.Med.9,eaal2463(2017).PubMed  PubMedCentral  Article  CAS  GoogleScholar  Hangauer,M.J.etal.Drug-tolerantpersistercancercellsarevulnerabletoGPX4inhibition.Nature551,247–250(2017).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Bar-Peled,L.etal.Chemicalproteomicsidentifiesdruggablevulnerabilitiesinageneticallydefinedcancer.Cell171,696–709.e23(2017).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Badgley,M.A.etal.Cysteinedepletioninducespancreatictumorferroptosisinmice.Science368,85–89(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Cramer,S.L.etal.Systemicdepletionofl-cyst(e)inewithcyst(e)inaseincreasesreactiveoxygenspeciesandsuppressestumorgrowth.Nat.Med.23,120–127(2017).CAS  PubMed  Article  GoogleScholar  Wang,W.etal.CD8Tcellsregulatetumorferroptosisduringcancerimmunotherapy.Nature569,270–274(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Vardhana,S.A.etal.Impairedmitochondrialoxidativephosphorylationlimitstheself-renewalofTcellsexposedtopersistentantigen.Nat.Immunol.21,1022–1033(2020).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Scharping,N.E.etal.MitochondrialstressinducedbycontinuousstimulationunderhypoxiarapidlydrivesTcellexhaustion.Nat.Immunol.22,205–215(2021).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Leone,R.D.etal.Glutamineblockadeinducesdivergentmetabolicprogramstoovercometumorimmuneevasion.Science366,1013–1021(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Romero,R.etal.Keap1losspromotesKras-drivenlungcancerandresultsindependenceonglutaminolysis.Nat.Med.23,1362–1368(2017).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Venneti,S.etal.Glutamine-basedPETimagingfacilitatesenhancedmetabolicevaluationofgliomasinvivo.Sci.Transl.Med.7,274ra217(2015).Article  CAS  GoogleScholar  Lien,E.C.&VanderHeiden,M.G.Aframeworkforexamininghowdietimpactstumourmetabolism.Nat.Rev.Cancer19,651–661(2019).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Gao,X.etal.Dietarymethionineinfluencestherapyinmousecancermodelsandaltershumanmetabolism.Nature572,397–401(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Maddocks,O.D.K.etal.Modulatingthetherapeuticresponseoftumourstodietaryserineandglycinestarvation.Nature544,372–376(2017).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Hopkins,B.D.etal.SuppressionofinsulinfeedbackenhancestheefficacyofPI3Kinhibitors.Nature560,499–503(2018).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Peck,B.&Schulze,A.Lipidmetabolismatthenexusofdietandtumormicroenvironment.TrendsCancer5,693–703(2019).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Pascual,G.etal.Targetingmetastasis-initiatingcellsthroughthefattyacidreceptorCD36.Nature541,41–45(2017).CAS  PubMed  Article  PubMedCentral  GoogleScholar  Magtanong,L.etal.Exogenousmonounsaturatedfattyacidspromoteaferroptosis-resistantcellstate.CellChem.Biol.26,420–432.e9(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Bhatt,V.etal.AutophagymodulateslipidmetabolismtomaintainmetabolicflexibilityforLkb1-deficientKras-drivenlungtumorigenesis.GenesDev.33,150–165(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Bryant,K.L.etal.CombinationofERKandautophagyinhibitionasatreatmentapproachforpancreaticcancer.Nat.Med.25,628–640(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  Kinsey,C.G.etal.ProtectiveautophagyelicitedbyRAF→MEK→ERKinhibitionsuggestsatreatmentstrategyforRAS-drivencancers.Nat.Med.25,620–627(2019).CAS  PubMed  PubMedCentral  Article  GoogleScholar  DownloadreferencesAcknowledgementsTheauthorsaregratefultoR.Deberardinis(UTSouthwestern)forhelpfulandinsightfulcomments.TheythankL.DieboldandC.ReczekfromtheChandellaboratoryfortheirhelpfulinputandediting.ThisworkwasfundedbyNationalInstitutesofHealth(NIH)Grant5R35CA197532.Wehavelargelyconfinedthereferencestothepastfewyearswiththeemphasisoninvivofindingsinthefieldandhavecitedmanyexcellentreferencesinthepastyear.AuthorinformationAffiliationsDepartmentofMedicine,NorthwesternUniversityFeinbergSchoolofMedicine,Chicago,IL,USAInmaculadaMartínez-Reyes & NavdeepS.ChandelDepartmentofBiochemistryandMolecularGenetics,NorthwesternUniversityFeinbergSchoolofMedicine,Chicago,IL,USANavdeepS.ChandelAuthorsInmaculadaMartínez-ReyesViewauthorpublicationsYoucanalsosearchforthisauthorin PubMed GoogleScholarNavdeepS.ChandelViewauthorpublicationsYoucanalsosearchforthisauthorin PubMed GoogleScholarContributionsTheauthorscontributedequallytoallaspectsofthearticle.CorrespondingauthorCorrespondenceto NavdeepS.Chandel.Ethicsdeclarations Competinginterests N.S.C.isonthescientificadvisoryboardofRafaelPharmaceuticalsandPenroseTherapeuTx.I.M.-R.declaresnocompetinginterests. AdditionalinformationPeerreviewinformationNatureReviewsCancerthanksC.Frezza,E.Whiteandtheother,anonymous,reviewer(s)fortheircontributiontothepeerreviewofthiswork.Publisher’snoteSpringerNatureremainsneutralwithregardtojurisdictionalclaimsinpublishedmapsandinstitutionalaffiliations.GlossaryAutophagy Ahighlyregulatedprocessthroughwhichproteinsandorganellesaredeliveredtothelysosomeanddegraded. Ferroptosis Adistinctformofprogrammedcelldeaththatrequiresreactiveoxygenspecies(ROS)andironaccumulationtocauselethallipidperoxidation. Hyaluronidase Anenzymethatdegradeshyaluronicacidintomonosaccharides. Peroxiredoxinenzymes Cysteine-dependentperoxidasesthatconverthydrogenperoxide(H2O2)towater. RightsandpermissionsReprintsandPermissionsAboutthisarticleCitethisarticleMartínez-Reyes,I.,Chandel,N.S.Cancermetabolism:lookingforward. NatRevCancer21,669–680(2021).https://doi.org/10.1038/s41568-021-00378-6DownloadcitationAccepted:09June2021Published:16July2021IssueDate:October2021DOI:https://doi.org/10.1038/s41568-021-00378-6SharethisarticleAnyoneyousharethefollowinglinkwithwillbeabletoreadthiscontent:GetshareablelinkSorry,ashareablelinkisnotcurrentlyavailableforthisarticle.Copytoclipboard ProvidedbytheSpringerNatureSharedItcontent-sharinginitiative Furtherreading Designingbioresponsivenanomaterialsforintracellularself-assembly SarahChagri DavidY.W.Ng TanjaWeil NatureReviewsChemistry(2022) iASPPisessentialforHIF-1αstabilizationtopromoteangiogenesisandglycolysisviaattenuatingVHL-mediatedproteindegradation DongZhao ShanliangZheng YingHu Oncogene(2022) ADH1CinhibitsprogressionofcolorectalcancerthroughtheADH1C/PHGDH/PSAT1/serinemetabolicpathway ShaLi HongYang Jin-HuaWang ActaPharmacologicaSinica(2022) Glycometabolicreprogramming-mediatedproangiogenicphenotypeenhancementofcancer-associatedfibroblastsinoralsquamouscellcarcinoma:roleofPGC-1α/PFKFB3axis XiangLi ErhuiJiang ZhengjunShang BritishJournalofCancer(2022) Non-proteolyticubiquitylationincellularsignalingandhumandisease YongrongLiao IzabelaSumara EvanthiaPangou CommunicationsBiology(2022) Accessthroughyourinstitution Changeinstitution Buyorsubscribe AssociatedContent Collection 20thAnniversary Advertisement Explorecontent Researcharticles Reviews&Analysis News&Comment Videos Currentissue Collections FollowusonFacebook FollowusonTwitter Subscribe Signupforalerts RSSfeed Aboutthejournal Aims&Scope JournalInformation AbouttheEditors JournalCredits Editorialinputandchecks EditorialValuesStatement Posters JournalMetrics Contact Calendars WebFeeds Conferences Editorialpolicies Publishwithus ForAuthors ForReferees Submitmanuscript Search Searcharticlesbysubject,keywordorauthor Showresultsfrom Alljournals Thisjournal Search Advancedsearch Quicklinks Explorearticlesbysubject Findajob Guidetoauthors Editorialpolicies Closebanner Close SignupfortheNatureBriefingnewsletter—whatmattersinscience,freetoyourinboxdaily. Emailaddress Signup IagreemyinformationwillbeprocessedinaccordancewiththeNatureandSpringerNatureLimitedPrivacyPolicy. Closebanner Close Getthemostimportantsciencestoriesoftheday,freeinyourinbox. SignupforNatureBriefing



請為這篇文章評分?