global carbon project - stanford university · 2017. 12. 8. · top fossil fuel emiers the top four...
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(some activities in 2015/2016) Global carbon project
GlobalCarbonProject.org
TheGlobalCarbonProject• TheGlobalCarbonProject(GCP)was
establishedin2001inrecogni;onofthelargescien;ficchallengesandcri;calnatureofthecarboncycleforEarth'ssustainability.
• GCPformsapartoftheinterna;onalresearchprogrammesbecomingpartofFutureEarth
• Thescien;ficgoaloftheprojectistodevelopacompletepictureoftheglobalcarboncycle,includingbothitsbiophysicalandhumandimensionstogetherwiththeinterac;onsandfeedbacksbetweenthem.
TheGlobalCarbonProject
Pa1ernsandVariability:Whatarethecurrentgeographicalandtemporaldistribu;onsofthemajorpoolsandfluxesintheglobalcarboncycle?ProcessesandInterac9ons:Whatarethecontrolandfeedbackmechanisms-bothanthropogenicandnon-anthropogenic-thatdeterminethedynamicsofthecarboncycle?CarbonManagement:Whatarethedynamicsofthecarbon-climate-humansystemintothefuture,andwhatpointsofinterven;onandwindowsofopportunityexistforhumansocie;estomanagethissystem?
Integratedassessmentworld
GCP
TheglobalcarbonprojectZhuZ,etal(2016)GreeningtheEarthanditsDrivers.NatureClimateChange,onlinepublica;on25April2016.DOI:10.1038/nclimate3004TianH,etal.(2016)Theterrestrialbiosphereasanetsourceofgreenhousegasestotheatmosphere.Nature531:525-228.DOI:10.1038/nature16946.ThompsonRL,etal.(2016)Top–downassessmentoftheAsiancarbonbudgetsincethemid1990s.NatureCommunica9ons7:10724.DOI:10.1038/ncomms10724.JacksonRB,(2016).Reachingpeakemissions.NatureClimateChange6:7-10.Publishedonline07December2015.DOI:10.1038/NCLIMATE2892.SmithP,.(2016)Biophysicalandeconomiclimitstonega;veCO2emissions.NatureClimateChange6:42–50.Publishedonline07December2015.DOI:10.1038/NCLIMATE2870LeQuéréC,(2015)GlobalCarbonBudget2015.EarthSystemScienceData7:349-396.DOI:10.5194/essd-7-349-2015SitchS(2015)RecenttrendsanddriversofregionalsourcesandsinksofcarbonDioxide.Biogeosciences12:653–679.DOI:10.5194/bg-12-653-2015LeQuéréC,(2015)GlobalCarbonBudget2014.EarthSystemScienceData,DOI:10.5194/essd–7–47–2015.RaupachMR,(2014)Sharingaquotaoncumula;vecarbonemissions.NatureClimateChange4:873–879.DOI:10.1038/NCLIMATE2384.FussS,(2014)BehngonNega;veEmissions.NatureClimateChange4:850–853.FriedlingsteinP,etal(2014)PersistentgrowthofCO2emissionsandimplica;onsforreachingclimatetargets.NatureGeoScience7:709–715.CiaisP,A.J.etal..(2014)Currentsystema;ccarbon-climateobserva;onsandtheneedforimplemen;ngapolicy-relevantcarbonobservingsystem.Biogeosciences11:3547–602.
Carbon Budget: Trends in Emissions and Sinks
GCP2015;LeQuereetal.2015,ESDD
Data: GCP
Globalemissionsfromfossilfuelandindustry:35.9±1.8GtCO2in2014,60%over1990Projec;onfor2015:35.7±1.8GtCO2,59%over1990
Es;matesfor2012,2013,2014,and2015arepreliminarySource:CDIAC;LeQuéréetal2015;GlobalCarbonBudget2015
Uncertaintyis±5%foronestandarddevia;on(IPCC“likely”range)
Emissionsfromfossilfueluseandindustry
Carbonintensityofeconomicac;vity-global
Financialcriseshavehadliolelas;ngeffectonemissionsgrowthGlobalcarbonintensityhasreturnedtoaphaseofimprovementaqerstallingforsomeyears
Economicac;vityismeasuredinPurchasingPowerParitySource:CDIAC;LeQuéréetal2015;GlobalCarbonBudget2015
Globalcarbonbudget
Thecarbonsourcesfromfossilfuels,industry,andlandusechangeemissionsarebalancedbytheatmosphereandcarbonsinksonlandandintheocean
Source:CDIAC;NOAA-ESRL;Houghtonetal2012;Giglioetal2013;Joosetal2013;Kha;walaetal2013;LeQuéréetal2015;GlobalCarbonBudget2015
1880 1900 1920 1940 1960 1980 2000 14
−40
−30
−20
−10
0
10
20
30
40
CO
¿ flu
x (G
t CO
¿/yr
)
Global Carbon Project
Data: CDIAC/NOAA−ESRL/GCP/Joos et al 2013/Khatiwala et al 2013
Ocean sink
Atmosphere
Land sink
Land−use change
Fossil fuelsand industry
Globalcarbonbudget
Thecarbonsourcesfromfossilfuels,industry,andlandusechangeemissionsarebalancedbytheatmosphereandcarbonsinksonlandandintheocean
Source:CDIAC;NOAA-ESRL;Houghtonetal2012;Giglioetal2013;Joosetal2013;Kha;walaetal2013;LeQuéréetal2015;GlobalCarbonBudget2015
1880 1900 1920 1940 1960 1980 2000 14
−40
−30
−20
−10
0
10
20
30
40
CO
¿ flu
x (G
t CO
¿/yr
)
Global Carbon Project
Data: CDIAC/NOAA−ESRL/GCP/Joos et al 2013/Khatiwala et al 2013
Ocean sink
Atmosphere
Land sink
Land−use change
Fossil fuelsand industry
Topfossilfuelemioers
Thetopfouremioersin2014covered59%ofglobalemissionsChina(27%),UnitedStates(15%),EU28(10%),India(7%)
Bunkerfuelsareusedforinterna;onaltransportis3.0%ofglobalemissionsSta;s;caldifferencesarebetweentheglobales;matesandsumofna;onaltotalsis1.1%ofglobalemissions
Source:CDIAC;LeQuéréetal2015;GlobalCarbonBudget2015
Consump;on-basedemissionsarecalculatedbyadjus;ngthestandardproduc;on-basedemissionstoaccountforinterna;onaltrade
Source:LeQuéréetal2015;Petersetal2011;GlobalCarbonProject2015
Atlas 1: Engagement with General Public
Atlas 2: Engagement with Policy Actors (Data Access, Plotting)
Atlas 3: Engagement with Research Community
Emissionsfromfossilfueluseandindustry
GlobalCO2emissionsfromfossilfueluseandindustry(leqaxis)andemissionsperuniteconomicac;vity(rightaxis).Redsymbolsareprojec;onsfor2015
GDP:GrossDomes;cProductusingPurchasingPowerParitySource:Jacksonetal2015a;GlobalCarbonBudget2015
Uncertaintyis±5%foronestandarddevia;on(IPCC“likely”range)
ChangeinCO2emissionsfromfossil-fueluseandindustry
Top:AnnualchangeinglobalCO2emissionsrela;veto2011Booom:AnnualfortheEU,US,China,India,andtherestoftheworld
Themostrecentprojectedchangeinemissionsisfrom~35.9CO2(9.8GtC)in2014to~35.7GtCO2(9.7GtC)in2015.Thefilledsymbolsfor2015denoteprojec;ons.
Source:Jacksonetal2015;GlobalCarbonBudget2015
Energyconsump;onbyenergytype-China
Energyconsump;onbyfuelsourcefrom2000to2014,withgrowthratesindicatedforthemorerecentperiodof2010to2014forChina
Source:BP2015;Jacksonetal2015;GlobalCarbonBudget2015
China India
Based on Kirschke et al. 2013, Nature Geoscience
Global Methane Budget (2nd budget is nearing completion)
Just Underway: Global Nitrous Oxide Budget
Insertpaperheader
ScenariosincludingNega;veEmissionTechnologies
ScenariosincludingNega;veEmissionTechnologiesforeachscenariocategory(colours),netlandusechangefluxesareincluded
ScenarioswithNega;veEmissionsTechnologiesfromtheAMPEREandLIMITSmodellingcomparisonexercises(colours),withallotherscenariosfromtheIPCCAR5databaseshowningrey
Source:Smithetal2015;GlobalCarbonBudget2015
DifferentNega;veEmissionTechnologies
Schema;crepresenta;onofcarbonflowsamongatmospheric,land,oceanandgeologicalreservoirsfordifferenttechnologies
Source:Smithetal2015;GlobalCarbonBudget2015
Impact/limitsummaryforNega;veEmissionTechnologies
TheimpactsandinvestmentrequirementsofNega;veEmissionsTechnologiestolimitwarmingto2°C
Waterrequirementisshownaswaterdroplets,withquan;;esinkm3peryear.Allvaluesarefortheyear2100exceptrela;vecosts,whicharefor2050
Source:Smithetal2015;GlobalCarbonBudget2015
~3%ofthefreshwatercurrentlyappropriatedforhumanuse
380–700Mha138billion
GlobalNega;veEmissionTechnologiescapacity
Factorspoten;allyenhancingorlimi;ngtheglobalcapacityforNega;veEmissionTechnologies
Source:Smithetal2015;GlobalCarbonBudget2015
Theremainingcarbonquotafor66%chance<2°C
Thetotalremainingemissionsfrom2014tokeepglobalaveragetemperaturebelow2°C(900GtCO2)willbeusedinaround20yearsatcurrentemissionrates
Grey:Totalquotafor2°C.Green:Removedfromquota.Blue:remainingquota.
Withprojected2015emissions,thisremainingquotadropsto865GtCO2Source:Petersetal2015;GlobalCarbonBudget2015
Theemissionpledges(INDCs)ofthetop-4emioers
Equity:Remainingquotasharedbycurrentpopula;on.Iner;a:Theremainingquotasharedbycurrentemissions.Source:Petersetal2015;GlobalCarbonBudget2015
Theemissionpledgescomparedtodifferentwaysofsharingtheremaining2°Cquota
Mee;ngStanford2016
Specificaoen;ontonega;veemissionsand1.5degCscenarios
What do 1.5°C scenarios look like? (How do they differ from 2°C?)
Rogelj et al (2015) NCC
Electricity emissions
• Maintainandgrowdata-drivenworkon:• Contemporarymul;-GHGBudgets• Peakemissionsandpermissiblebudgetstoclimatestabiliza;on.
• Sustainabledeploymentofcarbon-mi;ga;onop;ons,includingnega;veemissiontechnologies.
• DevelopmentofKnowledgeAc;onNetworksofFutureEarth:– Primarily,provideleadershipforthe“Decarboniza;on”KAN.– Secondarily,contributetootherKANs:nexuswater-food-energy,
urbaniza;on,oceans,others.
Future
Acknowledgements
Theworkpresentedherehasbeenpossiblethankstotheenormousobserva;onalandmodelingeffortsofmanyins;tu;onsandnetworks,someofwhicharelistedbelow:
AtmosphericCO2datasetsNOAA/ESRL(Dlugokenckyetal.2015)Scripps(Keelingetal.1976)FossilFuelsandIndustryCDIAC(Bodenetal.2015)USGS,2015UNFCCC,2015BP,2015Consump9onEmissionPetersetal.2011Land-UseChangeHoughtonetal.2012vanderWerfetal.2010
AtmosphericinversionsCarbonTracker(Petersetal.2010)JenaCarboScope(Rödenbecketal.2003)MACC(Chevallieretal.2005)LandmodelsCLM4-5BGC|ISAM|JSBACH|JULES|LPJ-GUESS|LPJ|LPJmL|OCNv1.r240|ORCHIDEE|VEGAS|VISITOceanmodelsNEMO-PlankTOM5|NEMO-PISCES(IPSL)|CCSM-BEC|MICOM-HAMMOC|MPIOM-HAMMOC|NEMO-PISCES(CNRM)|CSIRO|MITgem-REcoM2SOCATSOCATv3(Bakkeretal.2014,2015)OceanDataproductsJenaCarboScope(Rödenbecketal.2014)Landschützeretal.2015
FullreferencesprovidedinLeQuéréetal2015;Jacksonetal.2015