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EnergyProcedia00(2008)000–000



Energy

Procedia



www.elsevier.com/locate/XXX



GHGT-9

EnvironmentalImpactStudyofaPowerPlantwithCarbonCapture

andStorageneartheUKCoast

DrTAHill,DrM-JBooth,MrCDorren,MsSMStiffandWHull

E.ONEngineering,Ratcliffe-on-Soar,Nottingham,UK



Elsevieruseonly:Receiveddatehere;reviseddatehere;accepteddatehere

Abstract

Thispaperreportstheresultsofanenvironmentalimpactassessment(EIA)ofahypothetical400MWeIGCCpowerplantfitted

withCO

2

capturetechnologyandincludesthetransportationofCO

2

viaahighpressurepipelinetoageologicalformationunder

theNorthSeaandsubsequentstorage.Theemphasishasbeenonassessingenvironmentalimpactsfromthosefeatureswhichare

specifictotheCarbonCaptureandStorage(CCS)technologyandincludesanappraisalofthecurrentadequacyofinformationto

enableEIAsforthepowerplant,transportationandstoragecomponentstobeundertaken.



?2008ElsevierLtd.Allrightsreserved

Keywords:Carbon;Capture;Storage;Environmental;Impact;Assessment;Dynamis;IGCC;CCS



1.Introduction

ThisstudylooksatahypotheticalIGCCpowerplantwithCO

2

capturetechnologyatKillingholme,UK,andinvestigatesthe

impactsontheenvironmentofthecompletefacility.ThisstudyfollowsthemethodologyforEnvironmentalImpactAssessment

(EIA)requiredintheUKandinvestigatesanapproachtodeterminetheenvironmentalacceptabilityofaCarbonCaptureand

Storage(CCS)projectthatisbothrealisticandconsistentwithexistingindustrialpractice.



ThebulkofthestudywasconductedaspartoftheEUFramework6projectDYNAMIS:TowardsHydrogenandElectricity

ProductionwithCarbonDioxideCaptureandStorage.ThisstudyisoneoffourcasestudiesperformedwithinDYNAMIS

whicharedesignedtolookatCCSEIAsforavarietyoftechnologiesandstoragelocations.



InJanuary2008theEuropeanCommissionpublishedaproposalforaDirectiveonthegeologicalstorageofcarbondioxide



andanaccompanyingimpactassessment,referredtoasCCSDwithinthispaper[1].ThedraftDirectiveestablishesalegal

frameworktopreventorreducethenegativeenvironmentaleffectsandriskstohumanhealtharisingfromthegeologicalstorage

ofcarbondioxide.TheDirectiveisheavilyinfluencedbytheOSPAR[2]andLondonProtocol[3]amendments.TheCCSD



DrTAHill.Tel.:+44(0)2476192696;fax:+44(0)1159024007.

E-mailaddress:tim.hill@eon-engineering-uk.com.

c2009ElsevierLtd.Allrightsreserved.

EnergyProcedia1(2009)2463–2470

www.elsevier.com/locate/procedia

doi:10.1016/j.egypro.2009.02.008

2Authorname/EnergyProcedia00(2008)000–000

doesmuchtoremoveprohibitionsonCCSwhichexistundercurrentEUlegislation.Inparticular,existingEUwasteandground

waterDirectiveswillbeamendedtopermittheinjectionofcarbondioxideintostoragesites,andanexistingDirectivecovering

theassessmentoftheenvironmentalimpactofcertainprojectswillbeextendedtocovertheenvironmentalimpactofcapture,

pipelinetransportandstorage.



TheobjectiveofthisstudyhasbeentogainexperienceofCCSEIAsandtocontributetounderstandingoftheCCSEIA

process,identifyinggapsinknowledge.



2.DescriptionofCCSProject



Figure1-Locationofpowerplant.

ThehypotheticalpowerstationsiteislocatedinKillingholmeintheNorthEastMidlandsareaoftheUK,seefigure1.



TheIGCCpowerstationhasanelectricaloutputofabout400MWewiththeabilitytoabstractapproximately40–50MWthof

hydrogen.Itcomprisesofagasifier;anairseparatorunit;ashiftreactor;anacidgasremovalstageandasulphurrecoveryunit;a

gasturbine;awasteheatrecoveryboiler;andasteamturbine.Variousprocessescleanthesynthesisgaspriortocombustionto

reducethefinalemissionsandaphysicalabsorptionprocessknownastheRectisolsystemisusedtocapture90%ofCO

2

pre-

combustionandtransportitviaapipe-linetoastoragesiteintheSouthernNorthSea.Theprincipalfuelisassumedtobecoal.

Thepipe-lineisdesignedtocarry2.2MtCO

2

perannumbasedona35%cycleefficiencyattheKillingholmesite.TheCO

2



streamwillbetransportedunderpressureleavingthesiteatapproximately140mbar.TheCO

2

willbeinjectedintoadeepsaline

formationundertheNorthSeaafigure1.



3.ScopeofStudy

ThemajoremissionstoairandwaterfromtheIGCCplantwereidentified.Inaddition,potentialroutesfordisposalof

emissionsandre-useofby-productswereconsidered.



TheactivitiesandassociatedimpactsthatwereconsideredintheDynamisEnvironmentalStudyareshownintable1.Thisis

notacomprehensivelistofalltopicscoveredinanEIAbutcoversthosewhichCCSmaycontributesomethingnew.



2464T.A.Hilletal./EnergyProcedia1(2009)2463–2470

Authorname/EnergyProcedia00(2008)000–0003

Table1-EnvironmentalimpactsrelevanttoanIGCC-CCSprojectintheUK



ImpactPower&CapturePlantTransportthroughpipe-lineStorageinunderground,off-shore

BiodiversityEffectofCO

2

leakageonmarineecosystem

Rawmaterials,resourcesandwater

use

Processandcooling

wateruse



VisualimpactImpactofinstallation

(e.g.stack)includingits

surroundings



GaseousemissionsCO

2

,NOx,SOx,

hydrocarbons,PM,

VOCsandheavymetals

Leakages/blowoffincase

ofemergencies

LeakagesofCO

2

frominstallation(leakage

rates)

WastemanagementSolidwastehandlingof

ash,slagandsulphur.

Qualityandquantityof

wasteflows



Noise,lightandodournuisance-Noisezoning-Noiseemissions

surroundingcompression

station

-Noiseemissionssurroundinginjection

station

Soil/seabeddisruption-Inducedseismicity

-Drillingduringconstruction

Soil/seabeddisruptionLeakageofCO

2

tosoili.e.

mobilisationofheavy

metals/acidifcation

LeakageofCO

2

toseabedi.e.mobilisation

ofheavymetals/acidifcation

Groundwaterandsurfacewater

contamination/disruption

-Coolingwater

discharge

-Contaminationin

receivingwaters

-LeakageofCO

2

towaterLeakageofCO

2

towaterleadingto

acidificationandeffectsonmarine

ecosystem



4.Emissions

Figure2showsadiagrammaticrepresentationoftheIGCCprocess,indicatingmainemissions.



Wastewatertreatmentisneededtoremovesuspendedsolids,tracemetals,ammonia,halidesandanionicspeciesmainly

associatedwithgascoolingandslagquenchingprocesses.Gasificationblowdownwaterislikelytohaveafairlyhighdissolved

saltcontentmakingitunsuitablefordischargeifKillingholmewereaninlandsite.However,providedthatthewastewater

treatmentplantperformssatisfactorily,thereisunlikelytobeanyreasonwhydischargetotheHumberestuarywouldnotbe

permitted.Theavailabledataindicatesthatchlorideconcentrationsofbetween1,000-7,000mg/lmaybeexpectedinthetreated

gasifiereffluentwhichcomparesfavourablywiththatoftheHumberEstuaryofbetween16,900mg/latlowwaterslackand

11,300mg/lathighwaterslack.



Theproductionofflyashisminimisedbyconversionoftheashinthegasifierintosolid,vitreousslagwhichischemically

inertandshouldbeabletobemarketedforroadconstructionandconcreteaggregatepurpose.



T.A.Hilletal./EnergyProcedia1(2009)2463–24702465

4Authorname/EnergyProcedia00(2008)000–000



Figure2DiagrammaticrepresentationoftheIGCCprocessincludingprincipalemissions.

Intheclarification/precipitationwastewatertreatmentstepssomesludgewillbeproduced.Whilstthissludgehasthe

potentialtobeclassifiedaseitherhazardousornon-hazardouswasteithasbeenclassifiedashazardouswasteatotherIGCC

installations(e.g.Buggenum)duetoseleniumcontent.Severalthousandtonnesofthismaybeproducedperyear.Intermsof

compositionitisnotdissimilartothesludgesderivedfromtheFlueGasDesulpherization(FGD)plant.Theseareoftenrefired

intheboilerthereforeitmaybepossibletoreturnthisstreamtothegasifierfordisposal.However,whilsttheWasteIncineration

DirectiveisnottriggeredbytheseactivitiesonconventionalcoalplantequippedwithFGDitmaybenecessarytonegotiatewith

theEnvironmentAgency(EA)toseethatthesameoutcomeispossibleinIGCC.Theconcentrationsofsolublesaltsinthe

sludgearenotlikelytohaveanyspecialimplicationsforthecategoryoflandfillsite,asbothnon-hazardousandhazardous

landfillsrequireleachatecontrolsystems.



AcomparisonwasmadeoftheemissionstoairexpectedfromtheKillingholmeprojectcomparedtoothernon-CCSpower

planttechnologies,table2.Itcanbeseenthat,ingeneral,IGCCplantscombinedwithpre-combustionCO

2

capture,when

comparedtoexistingcoalfiredplant,canresultinasubstantialreductionofgaseousemissionsotherthanCO

2

.



Itwasconcludedthatnoneofthewastesemittedfromthepowerplantsiteduetothecapturetechnologywouldhaveany

novelenvironmentalimpact.



Table2-TypicalemissionsexpectedfrommainstackHRSGcomparedwithLargeCombustionPlantDirective,BestAvailable

Technologyandothercoaltechnologies



mg/Nm

3

at15%O

2

(>300MW)

SpeciesLCPDELVBATfornew

coalplants

c



BATfornew

CCGT

c

IGCC



Pulverisedfuel

withFGD

f

Super-criticalcoal-fired

plant

g

NO

x

80

b

/120

a

36-6020-9060-80

d

20080

SO

2

80

b

8-60-20

d

16080

PM20

b

2-4-0.02-

0.35

e

104

CO-12-205-10030-70



--

a

ELVtakenforagasturbine(>50MW

th

)usinggaseousfuelotherthannaturalgas

b

ELVtakenforplantsusingsolidfuels(>300MW

th

),

c

IPPC[4],

d

James[5],

e

Puertollano[6]

f

ValuestakenfromRatcliffePPC,

g

ValuestakenfromKingsnorthEIS,E.ONUK

2466T.A.Hilletal./EnergyProcedia1(2009)2463–2470

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5.TransportationofCO

2

viaPipeline

Adesktopstudywasundertakentoassesstheenvironmentalimpactofthepipe-linerouteoptionsselectedtotransportCO

2



capturedfromtheKillingholmeIGCCplanttoanoff-shorestoragesitelocatedinthesouthernNorthSea(SNS).



Figure3presentstheoptionsunderconsiderationforon-shoreandoff-shorepipe-linetransportofCO

2

.Theoptions

consideredandselectedforthisstudywerebasedonminimisingenvironmentalimpactsaswellasconsideringthehealthand

safetyissuesthatmayariseduringthelifetimeofthepipe-line.Therouteofthepipelinewasgovernedprimarilybythe

classificationofdensephaseliquidorsuper-criticalCO

2

underUKregulation.ThisiscurrentlyunderassessmentbytheHealth

andSafetyExecutive.ItwasalsodecidedtoavoiddrinkingwaterSourceProtectionZoneswhich,mightotherwisetrigger

mandatoryriskassessment.Therisktogroundwaterofapipelinereleaseislargelyunknown–itmaybeinsignificant,butuntil

furtherstudiesareavailabletodemonstratethis,aprecautionaryapproachwasadopted.Itwasdecidedthatadeveloperwould

choosetoavoidthesezones(ifpossible).Analternativeshorterrouteoptionwasconsideredfortheon-shorepipe-linetohead

directlyacrosstheHumberEstuaryafterleavingtheKillingholmesite.However,duetotheHumberestuarybeingpartofthe

Natura2000networkandbeingdesignatedasaSiteofSpecialScientificInterestSSSIitwouldprovemuchmoredifficulttogain

planningpermissionforanewpipe-lineinthisarea.Thereforethisalternativeroutewasnotconsideredfurther.Itisconcluded

thatCO

2

pipelineroutingisasignificantissueforapowerplant,withananalogywithanaturalgaspipelinetosupplyaCCGT.



Anassessmentwascarriedoutofthefugitiveemissions(predominantlyCO

2

fromthepipeline)andassociatedimpurities.

TypicalconcentrationspresentwereSO

2

0%,NO

x

0%,O

2

+N

2

+Ar0.03-0.6%,CO0.03-0.4%,CH

4

0.01%,H

2

S40ppm,CO

2



98%.ItwasconcludedthattheconcentrationsofimpuritiesintheCO

2

areinsignificantinthemselvestocauseany

environmentalimpact.FugitiveemissionsofCO

2

duringnormaloperationofthepipelinewereestimatedatabout

10-1000tonnesperyear,usingguidancefromIPCC.Thisisinsignificantcomparedtothevolumestransported.





Figure3-Proposedon-shoreandoff-shorepipe-lineroutesfromKillingholmeIGCCtotheselectedstoragesite.Image

generatedbyBritishGeologicalSurvey.Gasfieldsandinfrastructure?DepartmntforBusinessEnterpriseand

Regulatoryreform(BERR).Designatedareas(SAC''s,SSSI''s,NNR''sandRamsarsites)?NaturalEngland.Closed

structuresintheBunterSandstone?NaturalEnvironmentResearchCouncilNERC(BritshGeologicalSurvey).

6.EIAofanOffshoreSite

InformationwascollatedonthecurrentknowledgeofecosystemsandspeciestobefoundintheNorthSeaareaofthestorage

siteandthepipelineroute.Anumberofsourcesareavailableandtheinformationisreasonablycomprehensiveforthisareae.g.

EuropeanEnvironmentAgency’sEurope''sbiodiversity,SeasaroundEurope:TheNorthSea,andtheUKJointNature

T.A.Hilletal./EnergyProcedia1(2009)2463–24702467

6Authorname/EnergyProcedia00(2008)000–000

ConservationCommittee.Offshoredevelopmentiscontrolledthroughthedesignationofprotectedareaswhicharewell-defined

eitherataEuropeanlevelorunderUKlegislation.



Theenvironmentalimpactofanynewinfra-structureassociatedwiththeinjectionoftheCO

2

(e.g.platformsorsub-sea

infrastructure)wasdeterminedtobesimilartothatcurrentlyusedbytheoilandgasindustryinthisareaoftheNorthSeaandis

notreportedonhere.Areviewoftheeffectsofsuchinfra-structureonthemarineenvironmentwasundertakeninsupportofthis

assessment.



Bydefinition,aCO

2

storagesitewhichhasbeenwellcharacterizedpresentsaverylowrisktotheenvironment.Leakage

shouldnotbeexpectedfromcarefullyselected,operatedandmonitoredstoragesites.TheproblemforanEnvironmentalImpact

AssessmentistostrikeabalancebetweenassumingnofurtherimpactonceCO

2

hasbeeninjectedintothegeologicalformation,

andadetailedinvestigationintoalargenumberofhighlyimprobableeventsthatwouldaffecttheenvironmentweretheyto

occur.



Foranystoragesitetherearesomepotentialmechanismslikelytobecommontomostgeologicalstores.Theseare:



1.CO

2

migrationviaman-madestructures(boreholes,wells-operationalorabandoned),injectionwellblowouts

2.CO

2

migrationalongfaults(knownorunknown),faults‘opened’byinjection-inducedseismicity,orboundary

discontinuities

3.CO

2

migrationthroughthecaprockif:(1)gaspressureexceedscapillarypressure(2)discontinuouscaprockdueto

complexstructuralgeologyandfaulting(3)dissolutionofcaprock,

4.Displacementofinterstitialfluids,primarilysalineformationwaterbutwouldincludehydrocarbons

5.MovementofCO

2

outofacontainmentzoneintoaregionincontactwithaneco-system.



Eachstoragesiteis,ofcourse,goingtohavemanysitespecificaspectsassociatedwithit,however,theEIAforthestorage

siteshouldincludeasufficientlevelofinformationinordertodemonstratethattheenvironmentwillnotbesignificantly

affected,shouldthelowprobabilityeventsoccur.



AdoptingthisgenericapproachtotheEIAenablesalinktobeestablishedwiththeRiskAssessmentbasedonthegeological

andreservoirmodelswhichenabletheCO

2

movementwithinthereservoirtobesimulated.Thisapproachalsosavestimeand

effortandavoidsanunnecessarilycomplexdegreeofanalysis.



ThisapproachwasthenappliedtotheEIAofthestoragesite.Becausethisisadesk-topstudy,resultsarepurelyillustrative.



7.ResultsofCO

2

InjectionModelling

Figure3showsthelocationoftheproposedstoragesite.Itformspartofasequenceofmajorstructuralclosures

intheSNSBunterSandstone.Thetotalcapacityofthisstructurehasbeenestimatedas622Mt,HollowayandKirk[7],and

isknowntohaveanumberofoldexplorationwells.



WithintheDynamisproject,thesuitabilityoftheproposedformationtostoreCO

2

wasundertakenbyNetherlands

OrganizationforAppliedScientificResearch(TNO)andInstitutFran?aisduPétrole(IFP).Theworkwassupportedbythe

BritishGeologicalSurvey,whoprovidedgeologicaldataavailableincludinggeophysicallogs,for5explorationwellsinthe

vicinity,limitedporosityandpermeabilitydataandastructurecontourmapofthedepthtothetopoftheBunterSandstone

reservoir.Ageologicalmodelwhichextended70kminaneast-westdirectionand55kminanorth-southdirection(3832.5km

2



modelarea)wasconstructedbyTNO.Acrossthearea,theBunterSandstoneFormationvariesinthicknessfrom40mtoalmost

200m.TNOandIFPcreatedseparatereservoirmodelsby‘upscaling’thegeologicalmodel,usingavarietyofassumptions.



Preliminaryanalysisindicatedthatasingleinjectionwellwassufficient–reservoirpressuresdidnotexceedthefracture

pressureofthecaprock,althoughfurthersitespecificinvestigationworkneedstoundertakentoverifythis.



2468T.A.Hilletal./EnergyProcedia1(2009)2463–2470

Authorname/EnergyProcedia00(2008)000–0007

Injection

well

Explorationwell



Injection

well

Explorationwells



Figure4aandfigure4b-IllustrativepredictedCO

2

saturationwithinreservoiratendofinjectionperiod,30years,andafter

1000years(IFP)

Aspartoftheinjectionmodellingsimulations100Mtofcarbondioxidewasinjectedintothereservoiroveraperiodof

30years(3.3Mt/y).ThebehaviouroftheCO

2

withinthestoragereservoirwassimulatedupto1000years.



Fiveformerexplorationwellsarelocatedinthevicinityofthestorageformation.Noneighbouringaquiferformationsused

fordrinkingwatersupplywereidentified.



Themodellingstudieswereincompleteatthetimeofwritingandthereforeonlypreliminaryresultsareavailable.However,

figure4illustratestheextentoftheinjectedCO

2

plumeafter1000years.ItcanbeseenthattheCO

2

hasonlycomeintocontact

with1outofthe5localexplorationwells(contactfirstoccurringafter500years).TheCO

2

hasalsoremainedwithinthe

boundariesofthestoragesite.



ConsiderationofthepotentialeffectsofthedisplacementofsalineformationwaterduetoCO

2

injectionwasnotlookedatin

anydetailinthemodellingstudy,althoughestimatesofthevolumeofwaterdisplacedbytheCO

2

wereofasimilarsizetothe

volumesofCO

2

injected.



TherehasnotbeenalargequantityofresearchdoneontheimpactofCO

2

leaksonmarinespecies.However,Plymouth

MarineLaboratory,UK,hasundertakenaninitialassessmentoftheeffectsoflargevolumeCO

2

leakagesfrompointsources(e.g

pipelinerupture)andareasources(e.g.generalgeologicalfailure)intheNorthSea,Blackford[8].Thisisrestrictedtoafairly

largegridatpresent,anddoesnotmakepredictionsonalocalscalebelowseveralkm.Themodelissupportedbyaprogramme

oflaboratoryexperimentsonmarineorganisms.However,theyareabletoconcludethattheenvironmentalimpactonaregional

scalefromplausiblescenariosofleakageofcapturedCO

2

isminimalandsignificantlylessthantheimpactofuncheckedglobal

CO

2

emissions.ThisanalysisprovidessomeevidencethatCO

2

emittedduetoafailureinthepipelineorawellassociatedwith

thisprojectwouldnothaveasignificanteffectonthemarineenvironment.However,itwasidentifiedthatfurtherworkwas

neededtolookatlocalandfinescaleresponses,andtoquantitytheresponseoftheecosystemtothesechanges,Blackford[8].



ThisEIAstudywouldhavefurtherbenefitedfrominformationonpossibleCO

2

emissionratesandlikelyduration,inthe

unlikelyeventthataleakviaanoffshorewellweretooccur.However,informationonemissionratesforarangeofreservoir

circumstancesisnotavailableintheliterature,IEAGHG[9].



AnEIAwillnormallycontainadescriptionofamonitoringplanwhichwillprovidebothbaselinedataandademonstration

thattheEIAhasnotunderestimatedtheeffectofoperationsontheenvironment.Ananalysisofmonitoringpossibilitiesforthe

storagesitewasbeyondthescopeofthisassessment.



T.A.Hilletal./EnergyProcedia1(2009)2463–24702469

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8.Conclusions

TheLegalFrameworkforenablingCCSinEuropeisinthefinalstagesofdevelopment,withtheexpectationofanEU

DirectiveonCCSbeingapprovedbyearly2009.



Overall,nosignificantdifferenceswerefoundbetweentherequirementsofanEIAforaCCSpowerprojectandanon-CCS

powerprojectasfaraspowerplantsiteissuesareconcerned.Likewise,anEIAforaCO

2

pipelinewouldfollowthesame

assessmentmethodologyasforanaturalgaspipeline.However,inthiscaseunderexistingUKregulation,guidanceisrequired

onasuitablesafetyclassificationforhighpressureCO

2

inorderforpipelinedesignandpipelineroutingtobeundertaken.Also,

whilstthereareunlikelytobeanysignificantenvironmentalissuesassociatedwiththepipelineon-shore,thereisanabsenceof

referencematerialontheenvironmentaleffectsofsmallbutsustainedleaksofCO

2

intothesoilaroundapipeline.



IntermsofthelayingofaCO

2

pipelineoffshoreundertheNorthSea,anEIAwillcoverthesameissuesasrequiredforoilor

gaspipelines.Theconstructionofinjectionandmonitoringinfra-structurewilllikewisenotpresentanynovelfeaturesforan

EIA.



EcosystemandspeciesdatafortheNorthSeainthevicinityofthestoragesitewerefoundtobereasonablycomprehensive.

ThereissomedataavailableintheliteratureonthelikelyeffectofCO

2

onmarineorganismsintheNorthSea,includinga

modellingstudyonworstcaseleakagerates.AmodelofCO

2

transportwithinthestoragereservoirhasbeenconstructed,andno

CO

2

ispredictedtomovebeyondtheboundarystoragevolumeoverthe1000yearperiodmodelled.ThemostlikelyCO

2



leakagepathwaysthathavebeenidentifiedareformerexplorationwellsortheinjectionwellwhenabandoned.Itisexpectedthat

CO

2

leakagefromthesesourceswouldbeverysmallcomparedtothevolumesstoredinthereservoir,however,noinformation

wasavailablefromthisstudyorfromtheliterature,onemissionrates,andlikelydurationofCO

2

leakingfromoffshorewells.

Suchinformationwouldbeusefultofurtherdemonstratetheefficiencyofgeologicalstorageandlowriskofecological

disturbanceintheunlikelyeventthatleakageoccurred.



9.Acknowledgements

ThisworkislargelybasedonstudiesundertakenwithEUfundingundertheDynamisFramework7project.Theauthors

wouldliketothanktheDynamisEnvironmentalCaseStudyteamsatVattenfall,ProgressiveEnergyLtd,andStatoilHydro,in

particularSarahEriksson,EstherOchoa-Fernández,andCharlesEickhoff,fortheirinputintotheSpecialReportsusedinthis

study.AlsothankstotheBGS,TNOandIFPfortheirworkonthestoragecasestudy.

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