版权说明:本文档由用户提供并上传,收益归属内容提供方,若内容存在侵权,请进行举报或认领
文档简介
GlobalEnergyReview2026
INTERNATIONALENERGYAGENCY
TheIEAexaminesthe
fullspectrum
ofenergyissues
includingoil,gasand
coalsupplyand
demand,renewable
energytechnologies,
electricitymarkets,
energyefficiency,
accesstoenergy,
demandside
managementandmuchmore.Throughitswork,theIEAadvocates
policiesthatwill
enhancethereliability,affordabilityand
sustainabilityofenergyinits
32Membercountries,13Associationcountriesandbeyond.
Thispublication,aswellas
anydataandmapincludedherein,arewithoutprejudicetothestatusofor
sovereigntyoveranyterritory,tothedelimitationof
internationalfrontiersandboundariesandtothenameofanyterritory,cityorarea.
Source:IEA.
InternationalEnergyAgencyWebsite:
IEAMembercountries:
Australia
Austria
Belgium
Canada
CzechRepublicDenmark
Estonia
Finland
France
GermanyGreece
HungaryIreland
ItalyJapanKoreaLatvia
Lithuania
LuxembourgMexico
Netherlands
NewZealandNorway
Poland
Portugal
SlovakRepublicSpain
Sweden
Switzerland
RepublicofTürkiyeUnitedKingdom
UnitedStates
TheEuropean
CommissionalsoparticipatesintheworkoftheIEA
IEAAccessioncountries:
Brazil
Chile
Colombia
CostaRicaIsrael
Romania
IEAAssociationcountries:
ArgentinaChina
EgyptIndia
Indonesia
Kenya
Morocco
Senegal
Singapore
SouthAfricaThailand
UkraineVietNam
GlobalEnergyReview2026
IEA.CCBY4.0.
PAGE|3
Abstract
ThiseditionoftheGlobalEnergyReviewprovidesthefirstfullassessmentoftrendsacrosstheentireenergysectorin2025,withdataforallfuelsandtechnologies,allregionsandmajorcountries,andenergy-relatedcarbondioxide(CO2)emissions.
Thereportcoversestimatesofenergydemandbyregionandbysourceandfuelin2025;developmentsinelectricitydemandandsupply;deploymentofselectedenergytechnologies;andestimatesofenergy-relatedCO2emissions.Thereportalsoassessestrendsinenergyintensityandanalysestheimpactoffactors,suchasweathereffects,onenergydemandandemissions.
IEA.CCBY4.0.
PAGE|4
Tableofcontents
Keyfindings 5
Globaltrends 7
Oil 15
Naturalgas 18
Coal 21
Electricitydemand 23
Technology:Electricvehicles 26
Technology:Heatpumps 27
Electricitysupply 28
Technology:SolarPVandwind 32
Technology:Nuclear 34
Technology:Batterystorage 35
CO2emissions 36
Dataandmethodology 43
Acknowledgements,contributorsandcredits 46
GlobalEnergyReview2026
IEA.CCBY4.0.
PAGE|5
Keyfindings
Allmajorenergyfuelsandtechnologiesgrewin2025–butatverydifferentrates.Overallglobalenergydemandgrowthslowedto1.3%,justbelowtheaverageforthepreviousdecade.Slowereconomicgrowthandslowergrowthinenergy-intensiveindustriesinsomeregions,lowercoolingdemand,andfasterefficiencyimprovementsallcontributedtoslowerdemandgrowth.
SolarPV,thelargestsinglesourceofgrowth,metmorethan25%ofhigherdemand,followedbynaturalgas,whichcontributed17%.Thiswasthefirsttimeonrecordthatamodernrenewablesourcecontributedthelargestshareofglobalenergydemandgrowth.Demandforoil,naturalgasandcoalallgrewin2025,butataslowerratethanin2024.Low-emissionssourcescombined–solar,wind,nuclear,hydropowerandotherrenewables–contributednearly60%ofthegrowthinglobaldemand.
DemandgrowthintheUnitedStatesrosetoitssecondhighestlevelsince2000,excludingpost-recessionreboundyears,boostedbystrongelectricitydemandfromdatacentres,robustindustrialgrowthandcoldertemperatures.ThePeople’sRepublicofChina(hereafter,“China”)accountedforthelargestoverallshareofglobalenergydemandgrowth,butat1.7%itsgrowthrateslowedsharplyduetotherapidgrowthofrenewablesandefficiencyimprovements.
Demandforelectricitygrewatwellovertwicetherateofenergydemand,reaffirmingthattheworldhasenteredtheAgeofElectricity.Growthofnearly3%remainedabovetheaverageof2.8%overthelastdecade,butwasslowerthanin2024,largelyduetoone-offfactorssuchaslowerdemandforcoolinginIndiaandSoutheastAsia.Electricitydemandgrowthwasagaindrivenbyawiderangeofendusesinbuildingsandindustry.Althoughonlycontributingasmallshareofthistotalgrowth,demandfromelectricvehiclesanddatacentresgrewrapidly.IntheUnitedStates,datacentresmadeuphalfofallgrowthinelectricityuse.
Oildemandgrowthslowedfurtherin2025,increasingby0.65millionbarrelsperday(mb/d)or0.7%,downfrom2024’salreadymuted0.75mb/dofgrowth.Theincreaseinbothyears,whichwasinlinewithIEAprojections,remainedwellbelowtheaverageannualrisebetween2010and2019of1.4mb/d.Theslowerincreasemainlyreflectedweakergrowthinpetrochemicalfeedstocks,notablyinChina,whilecontinuedgrowthofelectricvehicleskeptoildemandforroadtransportincheck.Electriccarsalescontinuedtheirrapidgrowth,climbingover20%tomorethan20millionunits–aroundonequarterofnewcarsalesin2025.
Gasdemandgrowthslowedmarkedlyin2025,risingbyaround1%,downfromthe2.8%recordedin2024,amidrelativelyhighpricesinthefirsthalfoftheyear.IncrementaldemandwaslargelyconcentratedintheUnitedStatesandEuropean
IEA.CCBY4.0.
PAGE|6
Union,supportedbycolderwinterweather,andintheMiddleEast,wheregasuseinthepowersectorgrewquickly.Bycontrast,AsiaPacificdemandgrewatitsweakestpacesincethe2022energycrisis.
Coaldemandin2025grewonlymodestlyabove2024levels,risingbyaround0.4%.IntheUnitedStates,gas-to-coalswitchingandstronggrowthinelectricitydemandsupporteda10%riseincoaluse,reversingthetrendofrecentdeclines.CoaldemandwasflatinChina:strongrenewablesgrowthpusheddowncoaluseinelectricitygeneration,whileinindustry,lowercoaluseinsteelandcementproductionwasoffsetbyincreaseduseforchemicals.CoaldemandforpowergenerationdecreasedinIndia,mostlyduetoanearly,strongandlongmonsoon.
Theincreaseingenerationfromrenewablesandnuclearpowerin2025exceededthetotalgrowthinelectricitysupply.The2025increaseinsolarPVof600terawatt-hours(TWh)wasthelargest-everelectricitygenerationincreasebyanysourceinoneyear,outsideofperiodsofpost-crisisrecovery.TheriseinsolarPValonemetaround70%ofelectricitygenerationgrowth.Renewablescombinednowvirtuallymatchtotalglobalgenerationfromcoal.IntheEuropeanUnion,theshareofsolarPVandwindreached30%in2025,surpassingthatoffossilfuelsforthefirsttime.Electricitygenerationfromnaturalgasandfromnuclearpowercontinuedtogrowatthegloballevelin2025.
Annualglobalrenewablecapacityadditionsrosetoarecord800gigawatts(GW),ofwhichsolarcontributed75%.Batterystoragewasthefastestgrowingpowertechnology:capacityadditionsrosebyaround40%in2025toreachalmost110GW,morethanthehighest-everannualcapacityadditionsfromnaturalgas.Inaddition,constructionstartedonover12GWofnuclearpowercapacityin2025.
Globalgrowthinenergy-relatedcarbondioxide(CO2)emissionsslowedfurtherin2025,risingbyaround0.4%.EmissionsfromChinafellduetotheboominrenewables,structuraldeclinesinenergy-intensiveindustry,andoverallslowerdemandgrowth.India’senergy-relatedCO2emissionswereflatforthefirsttimesincethe1970s,largelyduetocyclicaleffectsfromastrongmonsooncombinedwithstructuralgrowthinrenewables.Acoldwinterandhighernaturalgaspricespushedupemissionsinadvancedeconomies.Duetothesetrends,emissionsfromadvancedeconomiesgrewfaster(+0.5%)thanthosefromemergingmarketanddevelopingeconomies(+0.3%)forthefirsttimesincethe1990s.
Therolloutofcleanenergytechnologiessince2019avoidedmorethan35exajoulesofannualfossilfueldemandin2025,equivalenttoaround7%ofglobalfossilfueluseannually.DeploymentofsolarPV,wind,nuclear,electriccarsandheatpumpssince2019alsoprevents3billiontonnesofCO2annually,oraround8%ofglobalemissions.Theavoidedcoaldemand(around800milliontonnesofcoalequivalent)equatestomorethantheentirecoaluseofIndiain2025.Estimatedavoidedgasdemand(over260billioncubicmetres)isequivalenttoalmosthalfthegloballiquefiednaturalgas(LNG)market.
GlobalEnergyReview2026
IEA.CCBY4.0.
PAGE|7
Globaltrends
Demandforallfuelsandtechnologiesgrewin2025
Globalenergydemandgrewby1.3%,or8exajoules(EJ),in2025.Thisrepresentsanotableslowdowninenergydemandgrowthfrom2024,whenitincreasedby2%.Arangeoffactorsexplainthis.Firstly,althoughtheglobaleconomicexpansionremainedrobust,therateofgrowthwasslightlyslowerthanin2024,withslowergrowthinenergy-intensiveindustriesinsomeregions.Secondly,lowertemperaturesrelativeto2024ledtolowercoolingdemand.Thirdly,energyintensityimprovementsaccelerated.
Allenergysourcescontributedtomeetingglobalenergydemandgrowthin2025,withsolarPVandnaturalgasleadingtheway.GrowthinsolarPVmetmorethanone-quarterofglobalprimaryenergydemandgrowth,thefirsttimeonrecordthatamodernrenewablesourcecontributedthelargestshareofthegrowthinglobalenergydemand.Naturalgasfollowed,meetingaround17%ofglobaldemandgrowth.Oilcontributedaround15%,followedbysolidbioenergyandwaste.Coaldemandgrowthslowed,duetodeclinesinChinaandIndia.Inall,low-emissionssourcescontributednearly60%oftotalenergydemandgrowth.Thiswasdespitealmostnogrowthinhydropowerduetopoorhydrologicalconditionsinsomemajorregions.
Growthinenergydemandbysource,2025
Globalenergydemand:averageannualgrowth,2013-2025,andshareofgrowthbysource,2025
Naturalgas17%
Oil
15%
Coal
9%
Nuclear
SolarPV
27%
Solid
bioenergy,
waste
13%
Wind
9%
5%
Liquidbiofuels2%
Otherrenewables3%
Annualgrowthrateofenergydemand
2013-202320242025
2.0%
1.5%
1.0%
0.5%
0%
IEA.CCBY4.0.
Note:“Otherrenewables”includehydropower,solarthermal,geothermalandbiogases.
Demandforeachofthethreefossilfuelsgrewin2025,albeitataslowerratethanin2024.Coaldemandincreasedby0.4%,downfrom1.4%in2024andtranslatingtoaround30milliontonnes(around0.7EJ)ofadditionalconsumption.Cooler
IEA.CCBY4.0.
PAGE|8
weatherandstrongrenewablesgrowthwerethemajordriversoftheslowdown.Oildemandgrowthalsoeased,increasingbyaround0.65mb/d,drivenbypetrochemicalsandaviationasfueldemandforroadtransportgrowthremainedmutedaselectricvehiclesalesincreasedbyover20%tomorethan20millionunits.Naturalgasdemandincreasedbyaround40billioncubicmetres(bcm).At1%,theannualgrowthratemarkedanotableslowdownfromthe2.8%increasein2024,ashighpricescurbedhigherconsumption.
EnergydemandgrowthintheUnitedStatesaccelerated,whileChina’smomentumslowed
Chinaaccountedforthelargestshareofglobalenergydemandgrowthin2025,asin2024.However,thisfactmasksasharpslowdowninitsrateofgrowth,whichat1.7%wassubstantiallyslowerthanGDPandmuchlowerthantheannualincreaseseenayearearlier(2.7%).SharpgrowthinrenewablesinelectricitygenerationinChinahelpedtopushdowncoalconsumption,withtheknock-oneffectofimprovingprimaryenergyintensity.
TheUnitedStatessawanotableaccelerationinitsenergydemandgrowth,withdemandincreasingbymorethan2%in2025.Thisrepresentsthesecondfastestincreasesince2000,excludingyearsinwhichtheUSeconomywasreboundingfromarecession.TheUnitedStatesaccountedfornearlyone-quarterofglobalenergydemandgrowth.Partofthisaccelerationwasduetogas-to-coalswitchinginelectricitygeneration,butaharshwinterandverystrongheatingseasonin2025,robusteconomicgrowth,andstrongincreasesinelectricityconsumptionfordatacentresalsocontributed.
Changeinenergydemandinselectedregions,2025
EJ
+1.7%+2.1%+2.9%+2.5%+1.5%+1.1%-0.1%
3
2
1
0
-1
ChinaUnitedStatesAfricaSoutheastMiddleIndiaEuropean
AsiaEastUnion
Annualchange
RenewablesNuclear
NaturalgasCoal
Oil
Totaldemand
IEA.CCBY4.0.
Note:EJ=exajoule.
GlobalEnergyReview2026
IEA.CCBY4.0.
PAGE|9
GlobaltrendswerealsoimpactedbyaslowdowninenergydemandgrowthinIndia,whichataround1%wasamongthelowestratesrecordedinrecentyears.Astrong,earlymonsoonandlowercoolingneedspusheddowngrowthinelectricitydemand,whilearapidexpansionofrenewablesinelectricitygenerationsqueezedcoalconsumption.Meanwhile,intheEuropeanUnionacoldwinter,alongwithpoorhydroandwindavailability,pushedupdemandfornaturalgasforelectricitygeneration,evenashighgaspricesweighedonindustrialdemand.Inotherregions,energydemandgrowthwasgenerallylowerin2025thanin2024,exceptforinAfricaandtheMiddleEast.
2025dataconfirmthearrivaloftheAgeofElectricity
Globalelectricitydemandgrewbyaround3%in2025over2024levels,addingaround800terawatt-hours(TWh).Whilefasterthanthelong-termaverage,thisrateofincreaserepresentsaslowdownfromtheblockbusterriseseenin2024.Onefactorbehindtheslowdownwascoolerweatherinmajorregionswithstrongdemandforairconditioning,includingIndia.In2025,thenumberofglobalcoolingdegreedays,whilestillabovethelong-termaverage,was6%lowerthantherecordseenin2024.
Globalelectricitydemandin2025grewaround2.3timesfasterthantotalenergydemand.Thedriversofelectricitydemandgrowthwerebroad-based.Demandfromelectricvehicles(+38%)anddatacentres(+17%)rosesharply;however,theystillaccountedforrelativelyslimsharesoftotalelectricitydemandgrowth.Industry,householdappliancesandcommercialbuildings(excludingdatacentres)continuedtoprovidethebulkofdemandgrowth.
Inadvancedeconomies,electricitydemandexpandedbyarobust1.6%year-over-year,withparticularlystronggrowthintheUnitedStates.Datacentresaccountedforaround50%oftotalelectricitydemandgrowthintheUnitedStates,withadditionalgrowthcomingfromtheresidential,industryandtransportsectors.ThisalignswithprojectionsintheIEA’sreportEnergyandAIreport,whichfoundthatdatacentresaresettoaccountforhalfofelectricitydemandgrowthintheUnitedStatesto2030.
GrowthinelectricitydemandinChinaremainedstrongat5%,thoughitslowedcomparedwiththeveryrapid7%increasein2024,whichwaspushedupbyextraordinarycoolingdemandgrowth.ElectricitydemandgrowthalsoweakenedsignificantlyinIndia,asastrongmonsoonandcoolertemperaturesloweredelectricityconsumptionforagriculturalpumpingandcooling.
GlobalEnergyReview2026
IEA.CCBY4.0.
PAGE|10
Energyandelectricitydemandgrowth,electricitydemandgrowthbyselecteduses,andelectricitydemandgrowthbyregion,2025
2025demandgrowth
EnergyElectricity
demanddemand
3%
2%
1%
0%
Electricitydemandgrowthbyselecteduses,2025(TWh)
Datacentres
Electric
vehicles
90
60
38%
17%
30
0
Totalelectricitydemandgrowthin
2025byregion(TWh)
900
600
300
0
Advancedeconomies
Otheremerging
marketanddevelopingeconomies
China
IEA.CCBY4.0.
Note:TWh=terawatt-hour.
Solarsawextraordinarygrowthin2025
Twomaintrendsmarkedtheevolutionofglobalelectricitygenerationin2025.SolarPVpostedarecordincreaseof600TWh,takingitstotalelectricitygenerationtonearly2700TWh.Thiswasmorethandoubleitsoutputin2022andbringssolarPV’sshareintotalglobalelectricitygenerationtoover8%.TheabsoluteincreaseofsolarPVgenerationin2025isthelargesteverobservedforanysource,excludingyearsmarkedbyreboundsfromglobaleconomicshockssuchasCovid-19.AlthoughChinasawahugeincreaseinitssolarPVgeneration,thegrowthofthissourcewasaglobalstory,withtheUnitedStates,IndiaandtheMiddleEastallseeingincreasesof20%ormore.
TheflipsideofthestronggrowthofsolarPVwasadeclineinglobalelectricitygenerationfromcoalforthefirsttimesince2019(excludingtheCovid-19shockin2020).Chinaledthewayhere,withcoalgenerationfallingbyaround1.5%,whileIndiaalsosawadropof3%.IntheEuropeanUnion,coalpowerfellbelow10%oftotalgenerationforthefirsttime.
Naturalgasgenerationcontinuedtogrowatthegloballevel,butmoreslowlythanin2024.Meanwhile,nuclearpowergenerationexpandedbyaround1.2%,reachingitshighestlevelever.Windpowergenerationincreasedbyaround8%,heldbackbypoorwindconditionsinsomemajormarkets.Overall,growthinrenewablesandnuclearexceededtheentireglobalincreaseinelectricitygenerationin2025,whilegenerationfromfossilfuelsfellslightly.Evenso,fossilfuelscontinuedtocontributemorethanhalfofglobalelectricitygeneration,withcoalremainingthelargestsinglesource.
IEA.CCBY4.0.
PAGE|11
Shareofaverageannualchangeinelectricitygenerationfromrenewablesandnuclear,andfromsolarPV,2000-2025
SolarPV
Renewables
andnuclear
20242025
100%
75%
50%
25%
0%
2000-
2003
2004-
2007
2016-
2019
2020-
2023
2008-
2011
2012-
2015
IEA.CCBY4.0.
•
Theglobalenergyintensityslowdownofthelastfewyearsreversedin2025
Arangeoffactorsexplaintheslowerworldwideenergydemandgrowthin2025.GlobalGDPexpandedby3.1%,comparedto3.3%in2024.Globaltemperaturessurgedin2024,pushingupelectricitydemandforcooling,andwhile2025wasstillahotyear,theeffectoftemperaturevariabilityindrivingupenergydemandwasmoremutedincomparison.Theshareofrenewablesinelectricitygenerationexpandedevenmorerapidlyin2025thaninthepreviousyear,andthisimprovedprimaryenergyintensity.Finally,theunderlyingrateofenergyintensityimprovementsalsoaccelerated.
Amajortrendshapingtheglobalenergysectorinrecentyearswastheapparentslowdowninglobalenergyintensityimprovementsinthepost-Covidperiod.However,in2025,globalenergyintensityimprovedbynearly2%,inlinewithitslong-termaveragefrom2010to2019.Thisrepresentedanotableaccelerationfromtherecenttrendofaround1.3%peryearbetween2019and2024.
However,theglobalnumbersmasktheimportantroleplayedbyChina.Thecountry’senergyintensityimprovementsslowedsharplyfromnearly4%peryearbetween2010and2019tojust0.6%peryearfrom2019to2024.In2025,China’senergyintensityimprovementjumpedbacktoabove3%.PuttingChinaaside,globalenergyintensityimprovementswouldhaveappearedmorestableinrecentyears.UnderstandingwhyChina’senergyintensityslowedsodramaticallyinrecentyearsrequiresfurtheranalysis.However,itappearstobeinpartbecauseofadverseweatherandpartlyduetostructuralchangesinChina’seconomyafterCovid-19towardsamoreexport-andindustry-intensivemodelofgrowth.
IEA.CCBY4.0.
PAGE|12
30
15
0
-15
20242025
Temperature
GDP
OtherintensityimprovementsRenewablessubstitution
Netchange
IEACCBY40
Driversofdemandgrowth(EJ)
Averageannualenergyintensityimprovementbyregion,2010-2025,anddriversofglobalenergydemandgrowthin2024and2025
Energyintensityimprovements
2010-2019
2019-2024
2025
WorldChinaWorldexcl.
China
4%
3%
2%
1%
0%
...
•
Notes:EJ=exajoule;GDP=grossdomesticproduct.“Temperature”reflectstheimpactofweather-relatedvariationsinheatingandcoolingneedsonenergydemand.Itisestimatedusingchangesinheatingdegreedays(HDD)andcoolingdegreedays(CDD)relativetothepreviousyear.
Asextremeweathertestedenergysystems,naturalgassteppedup
2025wastheworld’sthirdwarmestyearonrecord,slightlycoolerthantheall-timehighsetin2024.However,theseglobaltrendsmaskdifferentdynamicsattheregionallevel.
Inadvancedeconomies,acolderwinterin2025droveupheatingdemandandledtohigherconsumptionofnaturalgas.Weestimatethattemperaturevariationscontributedmorethan16billioncubicmetres(bcm)ofthearound40bcmofglobalnaturalgasdemandgrowthin2025.Insomeregions,suchastheEuropeanUnion,poorwindconditionsduringcoldsnapsalsodroveupnaturalgasuseinpowergeneration.Thishighlightedtheimportanceofpowersystemflexibilityanddispatchablecapacityastheshareofvariablerenewablesincreases.Beyondtemperaturevariations,droughtconditionsinseveralregions,particularlyinEuropeandacrossCentralandSouthAmerica,reducedhydropoweroutput,furthercontributingtotheincreaseincarbondioxide(CO2)emissionsastheshortfallwaslargelymetbyfossilfuels.
Forcoal,theoppositetrendplayedout.Coolingdegreedays(ameasureofcoolingneeds)remainedwellabovethelong-term2000-2019average,sustainingelevatedelectricitydemandforcoolinginmanyregions.However,relativeto2024,globalcoolingdegreedaysfell6%in2025.ThistrendwasparticularlymarkedinIndia,whereanearlyandstrongmonsoonseasonraisedhydropoweroutputandloweredair-conditioninguse.Overall,weestimatethatwithouttheeffectsofcooler
IEA.CCBY4.0.
PAGE|13
weather,globalgrowthincoaldemandwouldhavebeenslightlyhigher,risingby0.5%insteadof0.4%,althoughstillbelowthegrowthobservedin2024.
Contributionofweathereffectstochangeofenergydemandandemissions,2025
20
16
12
8
4
0
NaturalGas
(Bcm)
100
75
50
25
0
CO₂
(MtCO₂)
0
-4
-6
-2
-8
-10
Electricity
(TWh)
0
-2
-4
-6
-8
-10
Coal
(Mtce)
IEA.CCBY4.0.
Note:Bcm=billioncubicmetres;MtCO2=milliontonnesofcarbondioxide;TWh=terawatt-hour;Mtce=milliontonnesofcoalequivalent.
GrowthinglobalCO2emissionsslowedfurther,buttotalemissionsstillreachedarecordhigh
Globalenergy-relatedCO2emissionsrosebyaround0.4%in2025,continuingthelong-termtrendofslowinggrowth.However,emissionsstillhitanewrecordhighofmorethan38billiontonnes(Gt)in2025.TotalCO2emissionsfromfuelcombustionandindustrialprocessesincreasedbyaround145milliontonnes.Weestimatethatthenetimpactofweather-relatedfactors–includingtemperaturevariationsandshortfallsinhydropowerandwind–pushedupCO2emissionsfromthecombustionoffossilfuelsbyaround90milliontonnesin2025,drivenbyhighernaturalgasconsumption.
2025sawareversalinthelong-termtrendofdecliningemissionsinadvancedeconomiesandrapidgrowthinemissionsinemergingmarketanddevelopingeconomies.Inadvancedeconomies,emissionsroseby0.5%,thefirstannualincreasesince2018(excludingthepost-Covidrebound).IntheUnitedStates,highgaspricesledtogastocoalswitchinginelectricitygeneration,whileacoldwinterdroveupdemandfornaturalgas.IntheEU,emissionsfellbutbylessthaninrecentyears,duetohigherheatingneedsandloweroutputfromwindandhydro.
EmissionsinChinafellbyaround0.5%duetodecliningemissionsfrombothindustrialprocessandelectricitygeneration.Rapidgrowthinrenewablesandnuclearpusheddowncoaluseinelectricitygeneration;stronggrowthofelectricvehicleskeptalidonoildemand,whilealimitedincreaseincoolingdegreedays
IEA.CCBY4.0.
PAGE|14
curbedelectricitydemandgrowth.Forthefirsttimeonrecord,emissionsinIndiafellduringnormaleconomicconditions,previouslyhavingdecreasedonlyin2020andduringtheoilshocksofthe1970s.Thisdeclinewaslargelyduetocyclicalfactorsresultingfromthestrongmonsoon,althoughrenewablesalsosurged.
Weatherconditionshadanotableimpactonemissionsindifferentregionsin2025.Inadvancedeconomies,weatherpushedupemissionsduetohigherheatingdemandandlowerwindandhydrooutput.Withouttheseeffects,emissionsinadvancedeconomieswouldhavecontinuedtheirlong-termtrendofdecline.InChina,thefallinemissionswouldbemarginallylargerifadjustedforweathereffects.Incontrast,weatherplayedasubstantialroleinlimitingrisingemissionsinotheremergingmarketanddevelopingeconomies,notablyduetolowercoolingdemandinIndiaandSoutheastAsia.
AverageannualgrowthrateofglobalenergyrelatedCO2emissions,2009-2025,changeofCO2emissionsbyregion,2025
Annualgrowthrateofemissions
3%
2009-2014
2014-2019
2019-2024
2025
0%1%2%
Changeofemissionsbyregion,2025(MtCO₂)
AdvancedeconomiesChina
OtherEMDE
ActualWeather-adjusted
300
150
0
-150
IEA.CCBY4.0.
Notes:EMDE=emergingmarketanddevelopingeconomies;MtCO2=milliontonnesofcarbondioxide.“Weather-
adjusted”referstoimpactsoftemperaturevariationsbasedonheatingandcoolingdegreedays.Unlessotherwise
•
specified,itdoesnotaccountfortheimpactofweatheronrenewableenergyoutput,suchasvariationsinhydropowerorwindgeneration.
IEA.CCBY4.0.
PAGE|15
Oil
Oildemandgrowthremainedsubduedin2025
Oildemandincreasedin2025by0.65mb/d(millionbarrelsperday)or1.2EJ,butthis0.7%risemarkedafurtherslowdownfrom2024’salready-muted0.75mb/dofgrowth.TheincreaseinbothyearswasinlinewithIEAprojections.The2025increasefellwellshortofthe2010-19averageannualriseof1.4mb/d,offeringfurtherevidenceofastructuraldecelerationinoilmarkets.
Thisslowdownmainlyreflectedweakergrowthinpetrochemicalfeedstockuse.Demandfornaphtha,liquefiedpetroleumgas(LPG)andethane–themajorrawmaterialsforplasticsconsumption–laggedmostclearlyinthesecondquarterof2025astradeturmoilweighedoninternationaltradeanddisruptedkeyUSexportstoChinesechemicalplants.Thefull-yearincreaseof1.2%waswellbelowthe2.6%recordedin2024,whenfeedstocksaccountedforthelargestshareofthe
温馨提示
- 1. 本站所有资源如无特殊说明,都需要本地电脑安装OFFICE2007和PDF阅读器。图纸软件为CAD,CAXA,PROE,UG,SolidWorks等.压缩文件请下载最新的WinRAR软件解压。
- 2. 本站的文档不包含任何第三方提供的附件图纸等,如果需要附件,请联系上传者。文件的所有权益归上传用户所有。
- 3. 本站RAR压缩包中若带图纸,网页内容里面会有图纸预览,若没有图纸预览就没有图纸。
- 4. 未经权益所有人同意不得将文件中的内容挪作商业或盈利用途。
- 5. 人人文库网仅提供信息存储空间,仅对用户上传内容的表现方式做保护处理,对用户上传分享的文档内容本身不做任何修改或编辑,并不能对任何下载内容负责。
- 6. 下载文件中如有侵权或不适当内容,请与我们联系,我们立即纠正。
- 7. 本站不保证下载资源的准确性、安全性和完整性, 同时也不承担用户因使用这些下载资源对自己和他人造成任何形式的伤害或损失。
最新文档
- 勤学不辍延续荣光-小学主题班会课件
- 销售数据统计与分析报告模板
- 项目预算编制及控制模板
- 排泄护理中的患者权利
- 航空物流货物运输风险应对措施指南
- 第15课 图文混排(编排图文并茂作品)教学设计初中信息技术(信息科技)七年级下册黔教版
- 新型农业种植技术与应用手册
- 第四单元 神州音韵(四)-欣选听 半个月亮爬上来 教学设计-2023--2024学年人教版初中音乐八年级下册
- 秋日的田野美景描写8篇
- 托育家长协议书
- 某自来水厂施工组织设计完整方案
- 十年(14-23)高考物理真题分项汇编专题58 气体的等圧変化(含解析)
- 高中英语必修二unit 4 教学设计与反思评价
- 蛋白质结构分析
- 110kv变电站设计外文翻译
- 2023年中考数学压轴题专题22 二次函数与新定义综合问题【含答案】
- 毛主席诗词(132首)
- SB-2100流量积算仪说明书
- 【毕业论文撰写】开题报告、文献综述、文献检索
- GB/T 7702.13-1997煤质颗粒活性炭试验方法四氯化碳吸附率的测定
- GB/T 41-20161型六角螺母C级
评论
0/150
提交评论