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ThisprojecthasreceivedfundingfromtheEuropeanUnion’sHorizon2020researchand innovationprogrammeundergrantagreementNo101037293 DeliverableD2.2 Conceptsandmethodstocharacteriseandintegratelocaland scientificknowledge September2023
ThisprojecthasreceivedfundingfromtheEuropeanUnion’sHorizon2020researchand innovationprogrammeundergrantagreementNo101037293 InnovatingClimateservicesthroughIntegratingScientificandlocalKnowledge DeliverableTitle:Conceptsandmethodstocharacteriseandintegratelocalandscientific knowledge Author(s):510,MarcvandenHomberg IHESumiranRastogi,MichaWerner UNIVERSIDADCOMPLUTENSEDEMADRID:LuciaDeStefano,Nuria Hernandez‐MoraZapata VUA:MarijeSchaafsma SMHI:RemcovandeBeek,IliasPechlivanidis IDEAS:VeronikaFabok ContributingAuthors(s): DateMarch2023 Suggestedcitation:VandenHombergM.,RastogiS.,Hernandez‐MoraZapataN.,etal.(2022) Conceptsandmethodstocharacteriseandintegratelocalandscientific knowledge Availability:☒PU:Thisreportispublic[Pleaseselect] ☐CO:Confidential,onlyformembersoftheconsortium(includingthe CommissionServices) DocumentRevisions: AuthorRevisionDate MarcvandenHomberg,SumiranRastogiFirstdraftJanuary2023 MarcvandenHomberg,SumiranRastogi,Nuria Hernandez‐MoraZapataetal. SeconddraftFebruary2023 MichaWerner,MarijeSchaafsma ReviewMarch2023 MarcvandenHomberg,SumiranRastogiFinalversion March2023 MichaWernerRevisionfollowingPOcommentsSeptember2023
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 3 ExecutiveSummary I‐CISKrecognisesthatknowledgeonclimateandadaptationfromallstakeholders(e.g.,scientists,localkey institutionsandpotentialend‐users)isrelevantforthedesign,production,validation,andeffectiveapplication anduseofCS.ThislocalknowledgehasitsroleineachstepoftheI‐CISKco‐creationframeworkwhichdrives theinteractionprocesswithinthelivinglabs.Localknowledgeisintegraltotheprocessofco‐exploring,co‐ identifying,andco‐developing.Assuchlocalknowledgeprioritiesareinterwovenacrossseveralworkpackages andtaskswithintheproject. Thisdeliverable,morespecifically,linkswithtask2.2(T2.2)andisconceptualizedtobeaniterativeone.The combinedobjectiveofthedeliverable(thisiterationandthenext)istoidentifyandcollectlocalknowledge, throughmostlyparticipatorymethodologies,tolinkexpertisefromtheconsortiumscientistsandlocal knowledgefromtheLLandcomplementclimatedatafromCopernicusandGEOSSandresearchwithlocal data.Thisco‐identificationisconsideredwithintheparticularsocial,economic,andsectoralcontextsofthe LL,andaimstowardsbeinggoal‐orientedandexplicitlyrecognizingthemultiplewaysofknowing.Thisfirst iteration,inparticular,summarizescurrentscholarshiponlocalknowledge,therebylayingthefoundationto buildaframingoflocalknowledgethatwillbeadoptedandoperationalisedwithintheI‐CISKproject. Thisdeliverablearguesforabroaderframingoflocalknowledge,regardingitasanall‐encompassingtermto describearangeofdifferentknowledgesderivedeitherthroughtraditionalorculturalnorms,personal observations,livedoroccupationalexperiences.Basedonthis,theholdersoflocalknowledgeandtheways inwhichtheyaccumulateknowledgearealsovaried.Adoptingsuchaframingoflocalknowledgewithinthe climateserviceprovisionprocessisbeneficialwhenconsideringtheknowledgesofthedifferentagents involvedintheCSdesignandprovision,particularlylocalserviceprovidersandpurveyors. Chapter1situatesthedeliverableinthecontextoftheprojectestablishingrelevanceandsynergieswiththe I‐CISKco‐creationframework.Chapter2reviewstheconceptoflocalknowledgeandprovidesaworking definitionforthesame.Additionally,thechaptergoesintoadiscussionaboutthevariousdimensionsoflocal knowledgeprovidingexamplesfromclimatechangeadaptation,disasterriskreductionandotherrelevant literature.Finally,thechapteralsodescribestheroleoflocaldataandhowitfitswithinourframingoflocal knowledge.Chapter3delvesintothewaysinwhichlocalknowledgeorlocaldatacanbecollectedand integratedwithinthecontextofclimateservices.Thechapterspecificallydiscussestheimportanceof participatorymethods.ThechapterconcludeswiththeapproachcurrentlybeingpilotedwithintheI‐CISK projectwhichaimstointegratelocaldataandknowledgeupstreamintheclimateservicevaluechain(i.e.,by climateserviceprovidersandmodellers).Chapter4bringsthelocalknowledgediscussiontothelivinglabs withinI‐CISKproject.ForthisfirstiterationofD2.2,weprovideexamplesfromlivinglabsinSpainandHungary, wheredatacollectionsprocesseshavehelpedinidentifyingandcharacterisingthelocalknowledgeofvarious knowledgeholders.Finally,thedeliverableconcludeswithdescribingthenextstepsthatwillbeundertaken tooperationalizetheframingoflocalknowledgeadoptedwithintheI‐CISKprojectaswellasengageina discussionwiththebroaderclimateservicescommunity.
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 4 TableofContents ExecutiveSummary.............................................................................................................................................3 TableofContents................................................................................................................................................4 ListofFigures.......................................................................................................................................................5 ListofTables........................................................................................................................................................6 ListofBoxes.........................................................................................................................................................7 1Introduction:theimportanceoflocalknowledgeintheClimateServicesvaluechainanditsroleintheco‐ creationframework.............................................................................................................................................9 2Backgroundonlocalknowledgeandlocaldata........................................................................................12 2.1Defininglocalknowledgeanditsholders..........................................................................................12 2.2Dimensionsandindicatorsoflocalknowledge..................................................................................15 2.3Defininglocaldata.............................................................................................................................19 3Methodstointegratescientificandlocalknowledge,characteriselocalknowledgeandcollectlocaldata 21 3.1WaystomakeuseoflocalknowledgeandlocaldataacrosstheCSvaluechain..............................21 3.2Overviewofmethodstointegratescientificandlocalknowledge...................................................22 3.3Methodstocharacteriselocalknowledgeandcollectlocaldata......................................................24 3.4Upstreamintegrationoflocalknowledgebythedataintegratoranddeveloper.............................29 4CharacterizationanduseoflocalknowledgeintheLivingLabs...............................................................32 4.1Introduction.......................................................................................................................................32 4.2LocalknowledgeintheAndalucía‐LosPedrochesLivinglab.............................................................32 4.2.1MethodsusedtoidentifytheLKusedintheLL............................................................................33 4.2.2SomeremarksonLKbasedontheworkcarriedoutsofar..........................................................37 4.3LivingLabHungary.............................................................................................................................37 5Conclusionsandfuturework.....................................................................................................................41 6References.................................................................................................................................................43
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 5 ListofFigures Figure1CSvaluechainasdescribedintheICISKproposal.................................................................................9 Figure2Co‐creationofuser‐centredCS:buildingblocksoftheprocessthattakeplaceinaLLcontext........10 Figure3DifferenttypesofknowledgesascharacterisedbyRaymondetal.(2010)........................................13 Figure4DimensionsofLKforfloodriskmanagementinMalawi.....................................................................16 Figure5MethodologyoflinkinglocalknowledgeanddataintoCStoservelocalneeds................................31 Figure6Responsestothequestion:Isthereachangingurbanclimate?.........................................................38 Figure7ResponsestoQuestion:Whatdoyouexperienceduringheatwaves?..............................................39 Figure8Hotspotsinthedistrictmarkedbyrespondents................................................................................39
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 6 ListofTables Table1Examplesofdefinitionsoflocalknowledgeacrossdisciplines.............................................................12 Table2Anon‐exhaustiveoverviewofCSdeliverydomains,theirtemporalscaleandlocalknowledge dimensionsacrossliteratureDRR,DRMandCCA.............................................................................................18 Table3Overviewofthedifferentknowledges,theirgenerationprocess,andholders...................................20 Table4Possibleformsofcollaborationandmeansandmeansofintegrationasdiscussedintransdisciplinary literature............................................................................................................................................................23 Table5TypologyofapproachestointegratinglocalandscientificknowledgeanddatainCS........................24 Table6Participatorymethodsandtheirrelevanceforlocalknowledge.........................................................25 Table7Overviewofmethodstocharacterizetheknowledgeandtocollectthedata(forbothscientificand localknowledge)................................................................................................................................................27 Table8Overviewofdatatypesperknowledgecategory.................................................................................28 Table9CharacterizationofknowledgeanddataidentifiedintheAndalucía‐LosPedrocheslivinglab...........35 Table10WaysinwhichlocalknowledgeisinterwovenacrossdifferentWPs.................................................42
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 7 ListofBoxes Box1Localknowledgeandco‐creation............................................................................................................11 Box2Whoaretheholdersoflocalknowledge?...............................................................................................14 Box3Reliabilityoflocalknowledge..................................................................................................................15 Box4Localknowledgefordecisionmakingonclimateadaptation.................................................................17 Box5Climateserviceproductversusprocessandtheroleoflocalknowledge...............................................22
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 8 ListofAbbreviations ABM–AgentbasedModelling CCA–Climatechangeadaptation CS–ClimateService DRM–DisasterRiskManagement DRR–DisasterRiskReduction EWS–EarlyWarningSystem FGD–FocusGroupDiscussion LL–LivingLab LK–Localknowledge MAP–MultiActorPlatform SK–Scientificknowledge
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 9 1 Introduction:theimportanceoflocalknowledgeintheClimateServices valuechainanditsroleintheco‐creationframework TheI‐CISKprojectacknowledgesthatmultiplesourcesofknowledgefeedintotheclimateservice(CS)value chainFigure1Figure1).Atoneendofthevaluechain,endusersbuildtheiradaptationdecisions,whichthey dobasedonmultiplesourcesofknowledge.Basically,enduserstriangulatebetweenthelocalknowledgeon climateandweathertheyholdandthescientificknowledgethatreachesthemfromavarietyofinformation sources(suchastheCSfromtheNationalMeteorologicalandHydrologicalServices)(Hermansetal.,2022). Foreachend‐usergroup,theremaybeadifferentvarietyofsourcewithvaryingimportancethattheyrely uponandtriangulate.Theirlocalknowledgeincludespresentandpastexperiences,observationsonfor exampleecological,meteorological,andcelestialdimensions,andofadaptationoptionsandtheir effectiveness.AttheotherendoftheCSvaluechain,thedataproviders,integrators,anddevelopersprimarily usescientificknowledge,buttheyalsomayintegratelocalknowledgeonimportantclimateparameters, thresholds,andtriggers,aswellasclimate(suchascomingfromtheCopernicusClimateDatastore),atthe appropriatespatialandtemporalscale,inaclimateproduct.Serviceprovidersandpurveyors,suchas meteorologicalexpertsoragriculturalextensionworkersworkingattheregionalorlocallevel,mayinclude theirownpriorexpertknowledgeandexperienceregardingclimatepatternsandimpactsinthetransmission ofthescientificforecastscomingfromthenationallevel.Inthisway,scientificclimatedataistailoredand translatedintounderstandableandusefulinformationsothatend‐userengagementandempowermentof theservicepurveyorsendusersisimproved.Thesemultiplesourcesofknowledge,thattheactorsalongthe CSvaluechainhold,canbemappedonacontinuumoflocalandscientificknowledge.Calveletal.(2020), Lemosetal.(2012),Kumar(2010),demonstratetheneedtocombineandintegratethemultiplesourcesof knowledgeastherearealltoooftengapsinusabilityandusefulnessoftheCSastheserviceisoftennot sufficientlylocalisedandcontextualised. Figure1CSvaluechainasdescribedintheICISKproposal Thisdeliverableisaniterativeone,withthisfirstversionsummarisingcurrentscholarshiponlocalknowledge andlayingthefoundationtobuildtowardsaframingoflocalknowledgethatwillbeadoptedand operationalisedwithintheI‐CISKproject.Knowledgeonclimatefromallstakeholders(e.g.,scientists,localkey institutionsandpotentialend‐users)isrelevantforthedesign,production,validation,andeffectiveapplication anduseofCS.Therefore,theobjectiveofthisdeliverable(andthecorrespondingtask2.2withinwhichthis deliverablehasbeendeveloped)istoidentifyandcollectlocalknowledge,throughmostlyparticipatory
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 16 Figure4DimensionsofLKforfloodriskmanagementinMalawi (Source:SakicTrogrlicetal.2019) Table2providesexamplesfromliteraturewhereresearchcapturedforvariousCSdeliverydomainsand temporalscaleslocalknowledgedimensions.TheCSdeliverydomainsrangefromDRR(DisasterRisk Reduction),DRM(DisasterRiskManagement)toCCA(ClimateChangeAdaptation).Temporalscalescanvary fromweathertoclimate,sofromcurrentandpastconditions,1‐10days,30‐90+daystomorethan5years. MostofthestudiesinTable2arefromtheMajorityWorld,withonestudythatincludedamultitudeofcase studiesaroundtheworldandonefromtheUSA.Box4givesmorebackgroundastohowlocalknowledgecan informdecisionmakingforDRR,DRMandCCA.
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 17 Box4Localknowledgefordecisionmakingonclimateadaptation
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 18 Table2Anon‐exhaustiveoverviewofCSdeliverydomains,theirtemporalscaleandlocalknowledgedimensionsacrossliteratureDRR,DRMandCCA. CSdeliverydomainTemporalscaleLocation Localknowledge dimensionDescriptionReference DRRPreparedness Longrange seasonal outlooks 30‐90+ daysMalawi Meteorological conditions Anomaliesinambienttemperatureand/orwind directionandspeedpriortowetseasonrelated todrought(Streefkerketal.2022) DRRPreparedness Longrange seasonal outlooks 30‐90+ daysZimbabweFloraandFauna Densityofleavesandfruitsandfloweringlevels asanindicationofdroughtconditions(Chisadzaetal.2015) DRREarlywarning Shortto medium‐term forecasts 1‐10 daysMalawi Meteorological conditions Windspeed,temperatureandcloudformations overLakeMalawiasprecursorstoflashflood events(Bucherieetal.2022) DRRPreparedness Shortto medium‐term forecasts 1‐10 daysNepalLocalimpacts Awarenessandjudgementoflocalimpactsof heavyrainfallfordisasterpreparedness(Sudmeier‐Rieuxetal.2012) DRRPreparedness Shortto medium‐term forecasts 1‐10 daysMalawiEarlyactions Livelihoodmodification,foodandlivestock management,relocationandevacuation, adjustmentstohousingunits(ŠakicTrogrlicetal.2019) DRRResponse Currentand past conditions Today and pastCambodia Hydro‐ meteorological conditions Localknowledgeofspatialandtemporalpatterns offloods,droughtsandrainfall(Paulietal.2021) DR MRecovery Currentand past conditions Today and pastMalawiLivelihoods Structuralandlivelihoodmeasuresimplemented postfloodevent(ŠakicTrogrlicetal.2019) DR MMitigation Currentand past conditions Today and pastTaiwan Agricultural livelihoods adaptationCropselection(ChenandCheng2020) DR MMitigation Currentand past conditions Today and pastMalawi Agricultural livelihoods adaptationChangingplantingschedules(ŠakicTrogrlicetal.2019) DR MMitigation Currentand past conditions Today and past Philippine s Water management Improvingirrigationandwatermanagement systems(LiragandEstrella2017) CCA Climate projection Climate projection >5 years GlobalFloraandFauna Changestothebiophysicalsystemasan indicationofachangingclimateatthelocallevel(Reyes‐Garcíaetal.2016) CCA Climate projection Climate projection >5 years USA Climatechange perception Experiencedclimateknowledgetoimprove servicedeliveryofCS (Clifford,Travis,and Nordgren2020)
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 19 2.3 Defininglocaldata Figure3showsthespectrumoflocalandscientificknowledges.KnowledgecanbepositionedintheData InformationKnowledgeWisdom(DIKW)pyramid.CapturingDIKWintheshapeofapyramidseemstosuggest thatdataaretherawbuildingblocksofknowledge.However,Mulderetal.(2016)flippedthisconventional view,arguingthatdataisgeneratedfromdifferentsourcesofknowledge,becausethereisasocialprocess thatunderliesthecreation,editingandtranslationofdata.Theknowledgeonehasorwantstoobtain influencesthissocialprocess.Mulderetal.(2016)analysedthisintheveryspecificcontextofcrowdsourcing datainahumanitariancrisis.Wearguethatforeachcontextthedata‐to‐knowledgegenerationprocesswill bedifferentandshouldbedisentangled.Datacollectedthroughscientificinstrumentsatthelocallevelcan throughanalysisgeneratenewscientificknowledge.Alsointhiscase,theexistingscientificknowledgeand associatedsocialprocessesinfluence–tosomeextent‐wherethelocaldatacollectionisgoingtobedone. Usually,aresearchershouldbeawareofanddescribethisinfluenceinthescientificreporting,suchasviaa positionalitystatementinsocialsciencerelatedpaperoranexplanationofthelimitationsinthedatacollection inthemethodssectioninforexampleageosciencespaper.Observationsofthenaturalenvironmentsover timeleadtothebuildingupoflocalknowledge,butalsoherepeoplemaybeinclinedtoobservewhatthey areusedto,giventheirexistinglocalknowledgeandoccupation.Apartfromthesemoreconceptual considerations,fortheincorporationoflocalknowledgeinCS,itisimportantthatweunderstandthetypesof datathatcomewiththespectrumoflocalandscientificknowledges. Table3labelsdatabytheirprocessofgeneration(i.e.,throughforexample,arigorous,evidence‐based scientificprocessorthroughpersonalexperience)andtheholders.Table3willbeintroducedinsection3.3 withtheaimtodescribethemethodstocharacteriselocalknowledgeandtocollectlocaldata.
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 20 Table3Overviewofthedifferentknowledges,theirgenerationprocess,andholders CategoryDescriptionof knowledge Knowledge generatedthrough Holderofknowledge DescriptionUsualplaceinCS valuechain Local knowledge Tacit,implicitand informalknowledge Personal experience Tribalor indigenous communities, other communities, includingthose inruraland urban environments, settledand nomadic communities, original inhabitants,and migrants User Lay,personal,local, andsituated knowledge Indigenous knowledge Traditionalcultural norms,rules,and observations Traditional ecological knowledge Localecological knowledge Morerecent human‐climate interactions Occupational knowledge Formalizednon‐ scientificprocess Employeesofthe NMHSatthe locallevel; agricultural extension workers; farmers;hotel ownersetc Serviceprovider orservice purveyor Expertknowledge Scientific knowledge Rigorous, evidence‐based scientificprocess ScientistDataprovider, dataintegrator anddeveloper CitizenDataprovider
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 21 3 Methodstointegratescientificandlocalknowledge, characteriselocalknowledgeandcollectlocaldata 3.1 WaystomakeuseoflocalknowledgeandlocaldataacrosstheCSvaluechain Thissectionaimstogiveanoverviewofthedifferentapproachesandpracticesthatarecurrently usedtobringSKandLKtogether.LocalknowledgehasaroleinaddingcontextalongtheCS valuechain.Acrossthisrangeofapproachesandexperiences,asetofbestpracticescanbe identifiedwhichunderpineffectivewaysofworkingtoleverageknowledgewhichsupports developingadequateCS.Morespecifically,theobjectiveofthissectionistoidentifythose approachesthataremosteffectiveandadequateforanactorintheCSvaluechain.Research onexpandingtheusabilityofclimateinformationarguesforproducinginformationthatis perceivedascredible(validandtrust‐worthy),salient(relevanttodecisionmaking)and legitimate(outcomeofaninclusiveandfairprocess)bystakeholders(Cashetal.2003;I‐CISK, 2022).Buildingonthis,Lemos,Kirchhoff,andRamprasad(2012),describepathwaystoachieving usableclimateinformationthroughimproved‘fit,interplayandinteraction’.Theauthors describefitastheusers’perceptionofcredibilityandsalienceoftheinformation;interplayis howtheinformationinteractswiththeexistingknowledgeandexperiencesofusers(local knowledge);andinteractionistheprocessthroughwhichclimateinformationwasproduced (ibid).Inthecontextofenvironmentalmanagement,Dyballetal.(2009),discussprocessesof sociallearningamongactors.Theyexplainthatparticipationandinteractionamongdifferent actorscanrangefromcoercion(thewillofonegroupisimposedontheother),informing, consulting,enticing,co‐creationtoco‐acting(activeparticipation).Thisspectrumofinteraction betweencommunitiesandexternalactorscanbeused,tosomeextent,todescribewaysin whichtheholdersofLKandSKrelatetooneanother,reflectingthepowerrelationsbetween actors. Berggrenetal.(2011)defineknowledgeintegrationasacombinationofspecialisedknowledge toreachanendresult,whileithasalsobeeninterpretedastheprocessoftransforming individualknowledgetoacollectiveone(OkhuysenandEisenhardt2002).Oneofthemajor challengestointegrationarisesfromthedifferencesbetweenpositivistscienceandlocal knowledge,resultingin“epistemologicalanxiety”regardingthevalidityanduseoflocal knowledge(TayloranddeLoë2012).Nevertheless,literaturealsonotesthatdisregardinglocal knowledgewithinacollaborativeprocesscanleadtooutcomesthatareperceivedasillegitimate andimposed(Berkes,Colding,andFolke2000;TayloranddeLoë2012).Box5explainsinmore depththeroleoflocalknowledgeintheCSproductversusitsroleintheprocessofdeveloping aclimateservice.
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 22 Box5Climateserviceproductversusprocessandtheroleoflocalknowledge Section3.2discussestheimportanceofintegratinglocalknowledgeandapproachestodothe sameinthecontextofCS.Section3.3providesanoverviewofparticipatorymethodsthatare usefulincollectinglocaldatawithaviewtocharacteriselocalknowledge.Lastly,Section3.4 delvesintointegrationtechniquesusedbyupstream(dataprovidersandmodellers)withinthe I‐CISKprojecttoincorporatelocaldataandknowledge. 3.2 Overviewofmethodstointegratescientificandlocalknowledge Attheircore,CSaregearedtowardsprovidingsupporttosolvesocietalchallengesbymanaging thescience‐societyinterface.Thispresentsmethodologicalchallenges,particularlythe combiningofdifferentknowledgebasestoestablishacommonunderstandingoftheproblem, andacceptanceofproposedsolutions.Thesechallengeshavebeenextensivelydiscussedinthe contextoftransdisciplinaryresearchandwithintheco‐creationframework(PohlandHadron, 2008;I‐CISK,2022).Theco‐creationframeworkencouragestheacknowledgmentofadiversity ofperspectivestounderstandandclarifytheirdifferencesanduseofparticipatorymethods(I‐ CISK,2022).Thesemethods,incombinationwithquantitativemethods,canhelpindepicting
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 23 theperceptionofacollective,andtheirrationalewithoutqualifyingthem.Table4providesa matrixofformsofcollaborationandfour(simplified)meansofintegration,identifyingintotal twelveprimarywaysofintegration,asconceptualizedbyPohlandHadron(2008).Theformsof collaboration,originallyprovidedbyRossiniandPorter(1979)positthatwithincommongroup learning,integrationistheresultofalearningprocessthatinvolvesthewholegroup;whilein caseofdeliberationitisaconsequenceofknowledgeexchangebetweenexperts(scientificand non‐scientific)witheachexpertanalysingpartoftheproblemand;inthethirdformof collaboration,integrationisundertakenbyaspecificsubgroup.Thefourfundamentalmeansof integrationinclude(PohlandHadron,2008): buildingmutualunderstandingthroughuseoflanguage; buildingcommontheoreticalunderstanding(throughtransferofconceptsacross disciplines,adaptingdisciplinaryconceptsandtheiroperationalization,ordeveloping newbridgingconcepts); using‘hard’and‘soft’modelstodepictsharedunderstandingorfacilitatemutual learningand; integrationisstimulatedbytheendproductorprocess,joiningthediverseinterestsof groupsinvolved. Table4canalsobeinterpretedfromthelensoflocalknowledgeintegrationwherein,integration canbeintheformof,forexample,developingaglossaryinlocallanguagesandinformedby localunderstanding,re‐framingclimatechangeimpactsbasedonlocalrealities,developing modelstounderstandlocaldecisionmakingorsettingupstakeholderplatformasameansto captureandintegratelocalknowledge. Table4Possibleformsofcollaborationandmeansandmeansofintegrationasdiscussedin transdisciplinaryliterature. MeansofintegrationFormsofcollaboration Commongroup learning Deliberation amongexperts Integrationbya subgroupor individual Mutualunderstanding(usingeveryday language,developingaglossary) Theoreticalconcept(bridgingdifferent concepts,newconceptsthatmerge disciplinaryandlocalknowledge) Models(qualitativeorquantitative models,scenarios) Productsandprocesses(forums,database, technicaldevices,policyorregulation) (Thedelineationofdifferentmeansofintegrationisforclarityandcomparison,inpracticeamix oftheseintegrationapproachesareused.(adaptedfromPohlandHadorn,2008)) WithinCSthediscussiononknowledgeintegrationisongoing.Table5revisitstheintegration typologyprovidedbyPlotzetal.(2017)andextendedinthisresearch.Wenotethatmostofthe approachesforintegratinglocalandscientificknowledgearewhenproducingtheCS,sopriorto theservicebecomingoperational,orwhenevaluatingCS.(Hironsetal.,2021)statethat evaluationshouldbeongoingandcombinemeteorologicalverificationwithdecision‐makers feedback.However,integrationalsotakesplacewhenaCSisdelivered.Forexample,whenCS userstriangulateinformationcontainedintheCSbetweentheirlocalknowledgeandthe knowledgeprovidedintheCS.
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 24 Table5TypologyofapproachestointegratinglocalandscientificknowledgeanddatainCS (Source:Pesqueretal.2022) Levelof integration DescriptionReference Science‐ dominated Inthisapproach,theinformationprovidedthroughtheclimate servicederivedfromscientificknowledgeisconsideredthemost valuable(describedascoercion(Dyballetal.,2009)).Thislevelof integrationisoftenfoundinglobalforecastingsystemsthatare developedusingglobalscientificdatasetsandmodels. ConsensusIntheconsensusapproach,scientificknowledge(e.g.,seasonal forecastsobtainedfromaclimatemodel)andlocalknowledge (e.g.,seasonalforecastbasedontraditionalknowledgeof meteorologicalsigns)areconsideredequallybyscientificexperts andtraditionalknowledgeholders.Thetwoknowledgesare combinedtodevelopaconsensusforecast. (Plotzetal., 2017) ValidationLocalknowledgeisusedtoevaluateinformationprovidedbythe climateservice,orscientificknowledgeisusedtoevaluatethe accuracyoflocalknowledge‐basedforecasts.Referredtoas scienceintegrationinPlotzetal. (Landmanet al.,2020;Gilles etal.,2022) TriangulationScientificknowledgeprovidedthroughtheclimateserviceis triangulatedbyuserswiththeirlocalknowledgeoftheir environment.Thiscouldincludecomparisonof(seasonal) forecaststheclimateserviceprovideswithenvironmentalcues observedbytheuser. (Shahetal., 2012;Gwenzi etal2016) InformingLocalknowledgeisusedtoinformhowscientificknowledgecan beinterpreted.Examplesincludewhere(Meteorological) indicatorsbasedonlocalknowledgeareusedtoinformhow scientificdatasetsandmodelsareinterpreted. (Bucherieet al.,2022; Streefkerket al.,2022) Conditioningand BiasCorrection Notes:herelocalknowledgeandinparticularlocaldataisusedto conditionmodeluncertaintiesandcorrectbiases.Thisisthrough formalmathematicalapproachessuchasquantilemappingor Bayesianapproaches. 3.3 Methodstocharacteriselocalknowledgeandcollectlocaldata Table3givesanoverviewofthedifferentknowledges,theirholdersandhowtheknowledgeis generated.Inthissection,wewilldescribethedataassociatedwiththeseknowledgesandhow onecancollectthedata.Table6explainstherelevanceofparticipatorymethodsincapturing andutilisinglocalknowledgeinmoredetail.Theydepictsharedrepresentationsofrealityand allowustoengageinapurposefullearningprocess(Voinovetal.2018).
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 25 Table6Participatorymethodsandtheirrelevanceforlocalknowledge (adaptedfromVoinovetal.2018;IFRC,2023) Participatory method DescriptionRelevanceforlocalknowledgeExampleofuse Surveys Surveyscompriseofsuiteofquestionsthatareaimed attryingtostudyanissue. Usefulapproachforfactfinding.Surveysareflexibleand lessresourceintensive. Understandingclimatechangeperception ofendusersofclimateservices(Clifford, Travis,andNordgren2020) Interviews (structuredand semistructured) Interviewscompriseofaseriesofquestionsthatare meanttosupportaface‐to‐faceconsultationwhen exploringanissue. Similartosurveys,theyareusefulinfactfinding. However,theycansufferfrombias,whichmaybe overcomebymovingtoasemistructuredformatthat allowsforamixofbothopenandclosedquestions Peoplecentreddisseminationand communicationofdroughtwarning (Calveletal.2020) Role‐playing games(RPGs)or Seriousgames RPGsinvolvethecreationofvirtualworld,with simplifiedreal‐worldconditionsandrules.Itaidsin exploringandunderstandingthecontextanddevelop possiblesolutionsthroughdialogueandcollective explorationbythestakeholders. Usefulinrevealingcompetinggoals,interests,implicit socialrules,andinteractions. Buildingcrossculturalknowledgeon climatechangetoenablesociallearning andsupportadaptationdecisionmaking (Blackettetal.2022) FocusGroup Discussion(FGD) FGDareaqualitativeresearchmethodanddata collectiontechniqueinwhichagroupofpeople participateinmoderateddiscussionregardingagiven topicorissue. Thesecanbeveryusefulinbringingtotheforelocal knowledgeonarangeofissues,forexample,revealing collectiveviewsandrationaleorbeliefsunderpinning thoseaswellascompetingnarrativesontopicsand issues.Itcanalsohelpingaugingtheawarenesslevels acrossdifferentmembersofthegroup. Exploringriskperceptionandadaptation decisionmakingamongfarmers(Singhet al.2022) RichpicturesThisisadiagrammingtoolwhichmakesuseofvisual media(likesymbols,texts,clipart)torepresenthowa groupofpeoplethinkaboutaparticularissue. Canhelpbringtotheforetacitknowledgeasitallows peopletodrawwhattheyarenotabletoarticulate Stakeholders’understandingof sustainabledevelopment(Bell,Berg,and Morse2016) Cognitive mapping Cognitivemapsorconceptmapsaregraphical representationsoforganizedknowledgethatareused illustraterelationshipsorindividual’sknowledgeor beliefaboutanissueofinterestorasystem. Usefulinpresentingtheorganisedunderstandingof individualsoftheworldaroundthem,orinrepresenting formalisedknowledge(fore.g.,organizationstructure, flowofinformation) Understandandanalysestakeholders’ perceptionofdroughtimpacts(Giordano, Preziosi,andRomano2013) Decisiontree analysesor problemtree Decisiontreesareusedtodepictthesequenceof decisionsandsystemchangesthatoccurovertimeand itsconsequenceonoutcomesviewedasrelevantby thestakeholders Usefulinunderstandingdecisionmaking,associated actionsandoutcomes. Adaptivemanagement(Haasnootetal. 2013)
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 32 4 CharacterizationanduseoflocalknowledgeintheLivingLabs 4.1 Introduction TheI‐CISKprojectaimstoinnovatethewayslocalknowledgeisunderstoodandutilisedwithin thedesignanddeliveryofCS.Intheearliersectionsofthisdeliverablethecurrentunderstanding anduseoflocalknowledge,andmethodstointegratelocalandscientificknowledgeare discussed.Inthischapter,wehighlightinitialworkthathasbeendoneintwoofthelivinglabs, SpainandHungary.Weadopttheframingpresentedearlierthatlocalknowledgeisanall‐ encompassingtermthatincludesarangeofdifferentknowledgesderivedeitherthrough traditionalorculturalnorms,personalobservations,livedoroccupationalexperiences.It providesaninsightintothe‘wayoflife‘ofindividualsandcommunities,sheddinglightonhow theyperceivetheirsurroundings,solveproblems,andvalidatenewinformation.Itis accumulatedovertimeandisverydynamicinnature.Localknowledgecanbebothtacitor implicitinnature,ormoreintentionalasinthecaseofitbeingderivedfromstructuredand formalizedprocesses.Finally,localknowledgeisdeeplyrootedinthecontextfromwhereit originatesandthereforemaynotbegeneralisabletoothercontexts.Withthisinmind,wetry tocharacteriselocalknowledgeanddataintheexampletwolivinglabs.Thisisbasedon,who theholdersoflocalknowledgeareandthedimensionsoflocalknowledgethatareidentified.In doingso,weutilisethecontinuumoflocalknowledge(developedbasedonthecharacterisation providedbyRaymondetal.(2010))toidentifyandcharacterisedifferentholdersoflocal knowledgeandthetypeoflocalknowledgetheypossess(seeFigure3,Chapter2).Intermsof thedimensionsoflocalknowledge,welimittoknowledgesrelevanttometeorological, hydrological,andbiophysicalobservations,climatechangeperceptionsandexperiences,culture andnorms,livelihoodpractices,copingandadaptationstrategies,decisionmaking,useof informationandothercontextrelevantdimensions.Currentcharacterisationcoversseveralof thesedimensions.Theinformationonlocalknowledgehasbeendevelopedbasedondiscussions withthemulti‐actorplatform(MAP)membersineachoftheLivingLabs,primarythrough targeteddatacollectionprocesses(forexamplethroughsurveysandquestionnaires)and throughreviewofexistingliterature. 4.2 LocalknowledgeintheAndalucía‐LosPedrochesLivinglab TheMAPintheSpanishAndalucía‐LosPedrochesLL(ALPLL)ismadeupofavarietyof stakeholdersthat,inmostcasesarebothproducersandconsumersofCSanduseavarietyof sourcesofinformationtomakeadaptationdecisions.MAPmemberssuchastheAndalusian environmentalinformationnetwork,REDIAM,ortheGuadalquivirandGuadianaRiverBasin authoritiesgenerateCS(forinstancemonthlydroughtriskreports,orREDIAM’sCLIMA database)butalsorelyonclimatedataandreportsfromtheSpanishNationalMeteorological Service(AEMET).SomeagriculturalextensionorresearchmembersofMAP,suchasIFAPAor CICAP,alsogeneratelocalclimateinformationthroughavarietyofprojects:anetworkoflocal meteorologicalstations;anetworkofmeasuringdevicesofevapotranspirationfrompasture anddehesaecosystems,measurementsofanimalstressorotherparametersinresponseto climaticconditions;orotherinitiativesincollaborationwithlocalfarmersandranchersto analysetherelationshipbetweenclimateandplantandanimalproductivity. ThemainclimaterelatedinformationusedintheALPLL,bothbynaturalareamanagersandby farmers,ranchersandfarmingcooperativesisdatawhichisprovidedprimarilybyAEMETaswell asinformationfromavarietyofmediachannels(eltiempo.es,TV,press).Apartfromtheseshort‐ termprevisions,usersrelyheavilyontheirownmemoryofpastclimaticconditionsandtheir experienceinordertomakeadaptationdecisions.Inordertofacilitatetheuseofthispast
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 33 knowledge,MAPmembershaverequestedI‐CISKtogenerateaCSthatmakesofficialhistorical climaticdata(temperatureandprecipitation)easilyavailable(throughanapp)tohelpcontrast empiricaldatawiththeirrecollectionandexperience,thushelpingimprovetheirdecision‐ makingprocess. Traditionallocalknowledgeintheformofweather‐relatedproverbsorthecabañuelas,a traditionalclimatepredictionsystem,arealsomentionedbyfarmersandforestguardsas informalsourcesofclimatepredictions.However,observedchangesintemperatureandrainfall patternsoverthelastfewyears,haveinfluencedperceptionsonthereliabilityoftraditional knowledgeandlocalexperience. IntheALPLLthreetypesoflocalinformationarecurrentlybeinggatheredinordertodevelop theco‐identifiedCS: Climateinformationfromlocalmeteorologicalstationstoadaptclimatepredictionsand projectionstothetemporalandspatialresolutionneeded,andtocharacterise uncertaintyandfitofclimatemodeloutputs. Phenologicalinformationonhistoricalplantproductivity–forpasture,olivetreesand foresttreespecies–inordertoestablishrelationshipsbetweenplantproductivityand climaticconditions. Localknowledgeregardingtheevolutionsurfaceandgroundwaterresourcesanduses inordertocharacterisethehydrologicalcycleintheregionandmodelitsprojected evolutioninresponsetoclimatechangeprojectionsandchangesindemands. 4.2.1 MethodsusedtoidentifytheLKusedintheLL TheALPLLisrelyingondifferentmethodstoidentifyandgatherLKthatshouldbeconsideredin theco‐developmentofCSand,whererelevant,beincorporatedinco‐developedCS: Documentreviewwithaspecialfocusonliteratureproducedbylocalactorsandrelated toprocessesthatareaddressedbytheCS. Accessofonlinerepositoriesofpublicmeteorologicalandhydrologicaldatathatare publiclyavailable. Reviewofsocialmediasitesrelatedtotheregion,includingblogs,twitteraccounts, Facebookpagesandotherforawhereinformationondifferentissues–suchaswater availability,climate,etc.–isexchangedbylocalresidents. Interviews.Thesemethodsallowustoidentifythetypeofknowledgeavailable,what actorhasthatinformation,itslimitationsanditsrelevanceindecisionmaking.Inperson interviewshavecreatedthespaceforactorstomentiontraditionalknowledge– refranes,cabañuelas–thatareacknowledgedasnotscientificallyreliablebutareknown andusedlocally. Workshops.Annualworkshopsallowustoidentifyexisting“formal”orscientificlocal knowledge,itsrelevanceindecisionmaking,potentialimprovementsandinterestin collaboratinginthegenerationofnewCSbuildingfromexistinginformation. Onlineperiodicfollow‐upmeetingswithkeymembersoftheMAP.Thesemeetings havebeencriticalinobtainingmoreaccurateinformationandcharacterisinglocal knowledge,toclarifydoubts,andbuildonthecollaboration. Surveytogatherlocalknowledgeonhydrologicaldata.Giventhelimitedavailabilityof officialdataonhydrologicalvariables,theLLteamhasdevelopedasurveyinorderto gatherinformationonsurfaceandgroundwaterhydrologyinordertofeedalocal hydrologicalmodel.Thesurveyisdividedintotwosections:
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 34 o Surfacewaterhydrology.Itincludesquestionsaboutindividuals’currentand pastmemoriesofthestatusoflocalriversandstreams:whentheyhavewater, whentheyaredry,forhowlong,existingponds,shorelinevegetationcoverage, etc.Thequestionnaireisbasedontheonlinetooldevelopedinthecontextof theLIFEprojectTRIVERS. o Groundwaterhydrology.Thissectionincludesquestionsaboutrespondents’ wells,evolutionofgroundwaterlevels,geologicalinformation,etc. Eachsurveyresponseisgeoreferenced.Responseswillbecombinedwithinformationanddata fromriverbasinauthoritiesandpreviousstudiesintheregion,informationontheevolutionof permittedwells,LANDSATinformationoftheevolutionoflandusesandvegetationcover. Table9belowcharacterisesthetypesoflocalknowledge(LK)identifiedintheALPLL.
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 35 Table9CharacterizationofknowledgeanddataidentifiedintheAndalucía‐LosPedrocheslivinglab TypeofLKidentifiedLKHolderLKDimensionsDescriptionTimescale ReportsADROCHES Landuse Economic Production ADROCHESisaregionalruraldevelopmentorganisationfocusedonthe Pedrochesregionthatissueseconomicdevelopmentstrategies.Ithasreports onthelivestocksector–size,development,environmentalimpacts. Severalyears Localdatacollection stations CICAP‐COVAP MeteorologicalCICAP‐COVAPhasalocalmeteorologicalstationnetwork(15stations)Continuous Regionalgovernmentof AndalucíaMeteorologicalNetworkofmeteorologicalstationsinAndalucíawithafewstationsinthe region.Informationisfreelyavailableonline.Continuous REDIAMMeteorologicalCLIMAnetworkContinuous GuadianaandGuadalquivir RiverbasinauthoritiesHydrologicalNetworkofhydrologicalandhydrogeologicalmeasuringstations.Onlyafew stationswithinthePedrochesregion.Daily Oliveoilfarmers LivestockfarmersMeteorologicalRaingauges.Theyhaveanetworkofpersonalcontactsthatshareinformation onhowmuchwaterhasfallenandwhenShort‐term LocalhighschoolMeteorologicalLocalmeteorologicalstationlocatedinthecentraltown’shighschool.Datais availableonlineandisconsultedbyfarmersandcooperatives.Daily Records OLIPE–oliveoilcooperativeOliveproductionThecooperativehashistoricalrecordsofolivetreeandprocessedoliveoil productionforallmembersofthecooperative.Annual IFAPAPastureandacorn production Pastureproductionmodelswithaseriesof20years Currentlycollectinginformationforacorns(feedforextensivehog production) Annual COVAPlivestockcooperative Milkproduction Pastureproduction Meatproduction Historicalrecordsofmilkproduction,evolutionofthenumberofheads(cows, pigsandsheep)andmeatproduction.Annual RegionalagrarianofficeTotalheadsofcattleHistoricalrecordsofheadsofcattleintheregion(cows,pigs,sheep,goats)Annual Communitymemory andindividual observations CitizensHydrological Observationoftheevolutionofsurfaceandgroundwaterresources‐ decreaseinwateravailabilitybecausestreamsdonotcarrywaterand traditionalwellshavedriedup Midandlong term(years) Popularsayings (“refranes”) Farmers,forestguards, citizensMeteorological e.g.:"ifyoudon’tseetheGuadamura[ariver]runningbyEpiphany[January 6],buyhayandsellcattle." Explanation:iftheGuadamurainJanuarydoesnotcarrywater,therewillnot beenoughwaterforthelivestockthatyear Seasonal Traditionalknowledge basedonobservation: Cabañuelas Farmers LivestockfarmersMeteorologicalThesearetraditionalmethodsofweatherforecastingforthewholeyear basedontheweatherandotherconditionsduringthefirst24daysofAugust Seasonaland monthly
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 36 TypeofLKidentifiedLKHolderLKDimensionsDescriptionTimescale Occupational experience Farmers Livestockfarmers Hydrological Meteorological Thestateofannualplantsisareflectionofboththestateofthegroundwater andtheamountofrainfall,intimesofdroughttheircolorturnsyellow. Short‐ medium term Occupational experience Farmers Forestmanagers Hydrological Meteorological Woodycrops(oaks)andforestspeciesaccumulatethewaterdeficitandsignal longperiodsofdrought. Longterm (years) Occupational experience Farmers Forestmanagers Meteorological Phenological Changeinthephenologicalcyclesofplantsevidencingachangeinthe seasonalperiods Seasonal Annual Longterm (years) TraditionalknowledgeFarmers LivestockfarmersMeteorological Positionoftheplanets:therearecertainplanetsthatincertainpositions affectweatherconditionssuchasVenuswhichisawaterplanetandifthe moonaccompaniesitcancausegoodwaterconditions.
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 37 4.2.2 SomeremarksonLKbasedontheworkcarriedoutsofar TheexploratoryworkcarriedoutintheALPLLduringthefirst15monthsoftheI‐CISKproject hasbeenkeytoshedlightintotheLKpresentintheregion: LKintheformoflocalproductionofdataandknowledgeishighlydevelopedand sophisticated.Inthiscontext,theaddedvaluethatcanbeprovidedbyI‐CISKisinthe combination,analysisandvisualizationofexitingdataandknowledgeintotailoredCS. LKintermsoftraditionalknowledge,personalandoccupationalexperienceisusedto makedecisionswithdifferentdegreesofintensityandconfidence.Localactorsarekeen tosystematicallycomparethatknowledgeandexperiencewith“hard”data(e.g. historicalrecordsofprecipitation,temperature,rainfall),sothattheycanassesstowhat extenttheirperceptionsreflectactual,observedtrends.Thisinterestincontrasting perceptionwithobservationhasspurredseverallocalinitiativesfordatacollectionin thepastfewyearsintheLLbeyondtheregionalandnationalmonitoringsystems.Since theseinitiativesarerecent,theystilldonothavelongenougharecordofobservations tofeedpredictionsandprojectionstobeproducedbyI‐CISK.However,theI‐CISKteam isworkingonassessinghowtoincorporatesomeoftheseintotheCSdevelopedbythe e.g.,toassessreliabilityofpredictions. TheworkcarriedoutsofarhasbeenkeyestablishthebasisforCSdevelopment. However,theidentification,characterisationand,whererelevant,inclusionofLKinthe CSisaniterativeprocess.Thus,therelevantpoolofLKpresentintheLLislikelyto expandateachiterationwiththeMAP.Forinstance,thefieldworkforeseenfortheyear of2023tocharacterisethehydrologicalfunctioningoftheLLislikelytorevealadditional LK,whichwillbemappedandreportedinthenextphasesofthistask(Task2.2). 4.3 LivingLabHungary IntheHungarianLivingLab‐whichissituatedinErzsébetváros,aninnerdistrictofBudapest‐ weaimtoidentifyhowstakeholdersareexperiencingurbanheatwavesandurbanheatislands, andingeneraltheurbanclimate.Besidesthis,ourgoalistoidentifythelocalknowledgeofthe residents,theclimateinformationtheyuse,theirCSneeds,andtheiradaptationstrategies.The uncertaintiesandbarriersofadaptationstrategieswerealsothefocusofourinquiryinthe contextoftheLivingLab(individualconstraints:likecosts,andinstitutionalbarriers:like contesteduseofthepublicspaces). ThestakeholdersoftheHungarianLivingLabaremembersoftheClimateDepartmentofthe district’smunicipalityandthemunicipalityofBudapest(althoughtheyareincludedtoalesser extent),researchers,anenvironmentalNGO(CleanActionGroup),andtheresidentsof Erzsébetváros.WeconsidertheresidentsofErzsébetvárosasholdersoflocalknowledge. Aswedonothavepriorknowledgeofthelocalknowledgeoradaptationstrategiesofthe residents,aprimarydatacollectioneffortwasundertaken.Insteadofapplyingparticipatory methods,wechosetoconductanonlinesurveyamongtheresidentsofthedistrict.The reasoningfortheuseofthismethodwasthatitismoresuitableasanintroductorymethodfor atopicthatmaybeunfamiliarandrarelydiscussed,asitrequireslesscommitmentandeffort fromthestakeholdersthanaparticipatorymethod.Italsoallowsustounderstandtheopinions andperceptionsofmorestakeholdersinashortertimeonafairlyunresearchedtopic.Asanext step,andwiththehelpoftheresultsoftheonlinesurveyweareorganisingtwoworkshopsfor theresidentsintheSpringof2022.Inthesummeracitizensciencecampaign,whereresidents willcollectdataonurbanheatislandsinthedistrictwithsensorswillbelaunched. Theonlinesurveywasconductedintheautumnof2022amongresidentsofErzsébetváros,and thosewhoareworkinginthedistrictorregularlystayingthereforotherreasons.Initially,we
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 38 sharedthesurveyontheFacebookpageoftheClimateCabinet(MunicipalityofErzsébetváros), whilelateronthemembersoftheLivingLabalsospreadthesurveythroughotherplatforms. 100respondentsparticipatedinthesurvey.Themajorityoftherespondentsliveinthedistrict. Somerespondentsonlyworkedinthedistrictandlivedelsewhere,andthereweresomepeople whobothlivedandworkedinErzsébetváros. Localknowledgeamongend‐users:climatechangeandurbanheatwavesandurbanheat islandsinanurbansetting,perceptions,andexperiences Themajorityoftherespondentsnoticedchangesintheweather,whichtheyattributedto climatechange.Mostofthemmentionedthelonger,moreintensiveheatwavesduring summers,thehomogenisationofseasons,thediminishingamountofprecipitation,the generallymoreerraticweather,andthetorrentialrains. Themajorityoftherespondentsagreedwiththenextstatements,whichdiscussedthechanging urbanclimate. Figure6Responsestothequestion:Isthereachangingurbanclimate? (Legend:1:don'tagreeatall,5:totallyagree) Themajorityoftherespondentsagreedwiththestatementsthatwerereferringtotheeffects ofurbanheatislandsandurbanheatwaves.
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 39 Figure7ResponsestoQuestion:Whatdoyouexperienceduringheatwaves? (Legend:1:donotagreeatall;5:totallyagree) Themajorityoftherespondentsagreedthatthereareplacesinthedistrictthatcanbecalled hotspots,whereitisuncomfortabletostayduringsummer.Therespondentsmarkedthe followingplacesinthedistrictwheretheyexperiencedbeinguncomfortablyhotduringthe summerheatwaves. Figure8Hotspotsinthedistrictmarkedbyrespondents Adaptationstrategies:individualandnon‐individualpracticesandcosts Therespondentsfollowedindividualadaptationstrategiesduringheatwaves:mostdrankmore fluids,andprotectedthemselveswithclothing.Otherthanthese,theyavoidedcertainplaces thatwereaffectedbytheheat,usedshadingintheirapartments,andescapedtogreen areas/forests/watershedstoadapttoheatwaves.
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 40 Therespondentsconsideredeffectivethefollowingnon‐individualadaptationpractices: enhancingtheextentofthegreenareas,thermalinsulationonbuildings,greeningthe backyards/inneryardsofthebuildings,greenroofs/walls,andshadingofwindows.Someofthe respondentsmentionedthatshadingsomepartsofthestreetsthataremoreexposedtosun radiationwouldbeusefulaswell. Mostoftherespondentsansweredthattheadaptationtoheatwavesresultedinextraduties. Theadaptationresultedinmoretasksbecauseoftherespondents'ownhealthsituationorage, becausetheyhadtocarefortheirchildren,ortheirolderrelatives/friends,oringeneralbecause oftheirresponsibilitiestowardstheirfamilies.Someoftherespondentsmentionedthatthey hadtocaremoreattentivelytotheirpetsduringheatwaves. Formostoftherespondents,theadaptationtoheatwavescausedextracosts.Theymentioned thecostsofheightenedwaterconsumption,theadditionalelectricitycosts,andthecostof escapingtogreenareas/forests/watersheds. ClimateinformationandCSinuse Therespondentsusedweatherdata/informationacquiredfromameteorologicalsite,TVand radio,anotherwebsite,ornewspapers.Mostoftherespondentsfollowedtheinformationon heatwavesandfollowedthesuggestionsaswell,aminorityfollowedtheheatwaveinformation, butdidnotactonthesuggestionsprovided. Mostoftherespondentsregularlyfollowedthenewsandinformationaboutclimatechange. Theyacquiredinformationfrommagazinesandwebsitesthatareproducingpopularscientific content(likeNatgeo),andpublicationsinnewspapersandnewssites. Therespondentsconsideredtheestablishmentofgreenareas,holdingbackconsumption,and themitigationofgreenhousegaseswithtechnologyasthemosteffectivewaysofclimate changemitigation. Summary Basedontheresultsoftheonlinesurveyweconcludedthattherespondentsperceivedthatthe urbanclimatewaschangingandexperiencedtheeffectsoftheurbanheatislands.The respondentsconsideredgreenareaseffectiveinclimatechangeadaptation.Theindividual adaptationcausedmostoftherespondentstohavemoreresponsibilitiesandcosts.Most respondentsacquiredweatherdata/informationfromameteorologicalsite.Tobeableto understandthesefindingsinmoredepthweplantocomplementtheresultsoftheonlinesurvey withthefindingsacquiredbyusingparticipatorymethods(workshops)andthecitizenscience sensorcampaign.
D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 41 5 Conclusionsandfuturework Thisdeliverableisaniterativeone,withthisfirstversionsummarisingcurrentscholarshipon localknowledgeandlayingthefoundationtobuildtowardsaframingoflocalknowledgethat willbeadoptedandoperationalisedwithintheI‐CISKproject. Knowledgeonclimatefromallstakeholders(e.g.,scientists,localkeyinstitutionsandpotential end‐users)isrelevantforthedesign,production,validation,andeffectiveapplicationanduseof CS.Therefore,theobjectiveofthisdeliverable(andthecorrespondingtask2.2withinwhichthis deliverablehasbeendeveloped)istoidentifyandcollectlocalknowledge,throughmostly participatorymethodologies,tolinkexpertisefromtheconsortiumscientistsandlocal knowledgefromtheLLandcomplementclimatedatafromCopernicusandGEOSSandresearch withlocaldata.Thisco‐identificationisconsideredwithintheparticularsocial,economic,and sectoralcontextsoftheLL,andaimstowardsbeinggoal‐orientedandexplicitlyrecognizingthe multiplewaysofknowing. Throughthisdeliverableandfuturework,I‐CISKaimstoinnovatethewaylocalknowledgeis currentlyunderstoodandutilisedwithinCS.Morespecifically,wewanttoexpandthecurrent framingoflocalknowledge,viewingitmoreascontinuumcomprisingofdifferenttypesof knowledgeeachcorrespondingtodifferentwaysthroughitwasgeneratedoraccumulated.The nextstepswilllookatwaystooperationalisethisframingwithintheprojectaswellasinform thediscourseonlocalknowledgeoutsideoftheproject.Furthermore,thelivinglabsthatform apartoftheI‐CISKprojectprovideauniqueopportunitytostudylocalknowledgeincontexts (countriesintheGlobalNorth,sectorsliketourismandurbanlocalknowledge)thatarecurrently lessresearchedandoftenexcludedfromthediscussiononlocalknowledge. Thefollowingarethenextstepsthatwillbeundertakenbuildinguptothenextiterationofthis deliverable. Buildingacommonunderstandingandrepositoryoflocalknowledgeacrosstheliving labs Oneofthekeychallengesimpedingtheuseoflocalknowledgeisthelackofacommon understandingofthetopic.Therefore,asthefirstnextstep,theaimwillbetoestablisha commonunderstandingatthescaleoftheI‐ICISKproject.Weplantoorganiseone‐on‐one meetingswitheachlivinglabteamtodiscusswiththemthefindingsofthisdeliverableandthe proposedframingoflocalknowledge.Nexttothat,wewillalsoprovidealllivinglabteamswith aframeworkandtemplatetoidentifyandcharacterizelocalknowledgeanddatawithintheir contexts.Wealsoaimtoprovidesupportindevelopingmethodologiesandprotocolsifthereis interestincarryingoutprimarydatacollectionprocessesrelevanttolocalknowledge. LinkingwithWorkPackages(WPs) EventhoughmostoftheworkassociatedwithlocalknowledgeprimarilyrestswithinWP2,the focuswillbetoensurethatlocalknowledgeisaddressedtovaryingextentsacrossseveralWPs. Table10providesanoverviewofWPs(andassociatedtasksanddeliverables)andlinkswith localknowledge.
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D2.2–Conceptsandmethodstocharacteriseandintegratelocalandscientificknowledge 1 Appendix1Glossary AcronymDefinition APIApplicationProgrammingInterface C3SCopernicusClimateChangeService CDSClimateDataStore CEMSCopernicusEmergencyManagementServices CMIPWorldClimateResearchProgramme’sCoupledModelIntercomparisonProject CORDEXCoordinatedRegionalClimateDownscalingExperiment CSClimateServices CSISClimateServicesInformationSystems DRRDisasterRiskReduction GEOGrouponEarthObservations GEOSSGlobalEarthObservationSystemofSystems GUIGraphicalUserInterface IPCCIntergovernmentalPanelonClimateChange LLClimateServicesLivingLabs NHMSNationalHydro‐meteorologicalService MOOCMassiveOpenOnlineCourse OGCOpenGeospatialConsortium S2SSub‐seasonaltoSeasonal TRLTechnologyReadinessLevel UNCCDUnitedNationsConventiontoCombatDesertification UNDRRUnitedNationsOfficeforDisasterRiskReduction UNFCCCUnitedNationsFrameworkConventiononClimateChange WCRPWorldClimateResearchProgramme WFDWaterFrameworkDirective WMOWorldMeteorologicalOrganization
ThisprojecthasreceivedfundingfromtheEuropeanUnion’sHorizon2020 researchandinnovationprogrammeundergrantagreementNo101037293 Colophon : ThisreporthasbeenpreparedbytheH2020ResearchProject“InnovatingClimateservices throughIntegratingScientificandlocalKnowledge(I‐CISK)”.Thisresearchprojectisapartofthe EuropeanUnion’sHorizon2020FrameworkProgrammecall,“Buildingalow‐carbon,climate resilientfuture:ResearchandinnovationinsupportoftheEuropeanGreenDeal(H2020‐LC‐GD‐ 2020)”,andhasbeendevelopedinresponsetothecalltopic“Developingend‐userproductsand servicesforallstakeholdersandcitizenssupporting climateadaptationandmitigation(LC‐GD‐9‐2‐2020)”.Thisprojecthasreceivedfundingfromthe EuropeanUnion’sHorizon2020researchandinnovationprogrammeundergrantagreementNo 101037293. Thisfour‐yearprojectstartedNovember1st2021andiscoordinatedbyIHEDelftInstitutefor WaterEducation.Foradditionalinformation,pleasecontact:MichaWerner(m.werner@un‐ ihe.org)orvisittheprojectwebsiteatwww.icisk.eu