Hydrogen-氢能洞见2022—氢能市场发展和规模化解锁氢能所需行动的更新观点-12页VIP专享VIP免费

Hydrogen Insights 2022
An updated perspective on hydrogen
market development and actions
required to unlock hydrogen at scale
September 2022
Executive summary
The pipeline of hydrogen projects is continuing to grow, but actual deployment is lagging.
In 2022 some 680 large-scale hydrogen project proposals, equivalent to USD 240 billion in direct
investment through 2030, have been put forward – an investment increase of 50% since November
2021. Yet, only about 10% (USD 22 billion) have reached final investment decision.
Europe is home to over 30% of proposed hydrogen investment globally. However, other regions
are leading the implementation on the ground: 80% of operational global low-carbon hydrogen
production capacity is in North America, while China has surpassed Europe in electrolysis with 200
megawatts (MW) operational, versus 170 MW in Europe, driven by strong government support.
South Korea and Japan, in turn, are leading on fuel cells, driven by strong government and corporate
ambitions: more than half of the 11 gigawatts (GW) of global fuel cell manufacturing capacity is
located there, and Japan has ramped up deployment of hydrogen-ready combined heat and power
(CHP) plants, with 425,000 such systems installed.
The urgency to invest in mature hydrogen projects today is greater than ever. The rebound
of carbon emissions to above pre-COVID levels, the invasion of Ukraine, and the growing concerns
around energy security resulting from the war in Europe make one thing clear: our economies need
clean hydrogen, and action is needed to convert proposals into actual deployment. Out of the more
The pipeline of hydrogen projects is continuing to grow, but actual deployment is lagging.
680 large-scale project proposals worth USD 240 billion have been put forward, but only about
10% (USD 22 billion) have reached final investment decision (FID). While Europe leads in proposed
investments (~30%), China is slightly ahead on actual deployment of electrolyzers (200 MW), while
Japan and South Korea are leading in fuel cells (more than half of the world’s 11 GW manufacturing
capacity).
The urgency to invest in mature hydrogen projects today is greater than ever. For the world
to be on track for net zero emissions by 2050, investments of some USD 700 billion in hydrogen
are needed through 2030 – only 3% of this capital is committed today. Ambition and proposals by
themselves do not translate into positive impact on climate change; investments and implementation
on the ground is needed.
Joint action by the public and private sectors is urgently required to move from project
proposals to FIDs. Both governments and industry need to act to implement immediate actions for
2022 to 2023 – policymakers need to enable demand visibility, roll out funding support, and ensure
international coordination; industry needs to increase supply chain capability and capacity, advance
projects towards final investment decision (FID), and develop infrastructure for cross-border trade.
iii
Hydrogen Insights Report September 2022
Hydrogen Council, McKinsey & Company
Published in September 2022 by the Hydrogen Council. Copies of this document
are available upon request or can be downloaded from our website:
www.hydrogencouncil.com
This report was authored by the Hydrogen Council in collaboration with McKinsey &
Company. The authors of the report confirm that
1. There are no recommendations and / or any measures and / or trajectories
within the report that could be interpreted as standards or as any other form of
(suggested) coordination between the participants of the study referred to within
the report that would infringe the EU competition law;
and
2. It is not their intention that any such form of coordination will be adopted.
Whilst the contents of the Report and its abstract implications for the industry
generally can be discussed once they have been prepared, individual strategies
remain proprietary, confidential and the responsibility of each participant.
Participants are reminded that, as part of the invariable practice of the Hydrogen
Council and the EU competition law obligations to which membership activities
are subject, such strategic and confidential information must not be shared or
coordinated – including as part of this Report.
than 680 projects announced, 45 projects worth USD 29 billion are in the front-end engineering
design (FEED) phase and 120 projects worth USD 80 billion are undergoing feasibility studies.
However, only USD 22 billion (about 10% of proposals) have reached final investment decision (FID)
or are under construction or operational. This number has only grown by USD 2 billion in the last half
year, significantly slower than growth in project announcements.
The key barrier that project developers face today is a lack of demand visibility – many are awaiting
decisions on the enabling regulatory frameworks and funding to incentivize offtakers to enter long-
term hydrogen supply contracts. Such long-term offtake is key to unlocking project finance and
support from financial investors.
Capturing the maximum climate value of hydrogen to deliver the 2050 net zero target requires a
tripling of investment in hydrogen by 2030 to USD 700 billion – in other words, additional investments
of USD 460 billion into hydrogen projects through 2030. This sounds enormous but in fact is
equivalent to less than 15% of the investment committed to upstream oil and gas in the past decade.
Across the value chain, investment in infrastructure connecting supply and demand is particularly
lagging as visibility on demand is lacking, with an investment gap of more than 80% between project
proposals and what is needed to reach net zero.
Joint action by the public and private sectors is urgently required to move from project
proposals to FIDs. For policy ambition and project proposals to materialize into actual investments
and start delivering environmental and socio-economic benefits, enabling conditions are necessary
today. Below, a set of mutually reinforcing priority actions for policymakers and industry for 2022
to 2023 to progress from proposals to investments, scale up hydrogen deployment in regions and
enable global hydrogen trade (Exhibit 1). These are critical for moving from ambition to action,
accelerating hydrogen deployment.
Exhibit 1 – Synchronizing the efforts of governments and the industry
Policy - Priority actions for 2022-2023:
1. Enable demand visibility and regulatory certainty by adopting legally binding
measures. Create demand visibility through measures such as targets or quotas for
hydrogen consumption across end-use sectors, alongside public procurement measures
or competitive bidding for (carbon) contracts for difference. This will bridge the gap to
cost competitiveness, boost investor confidence and have a ripple effect throughout the
value chain, enabling investments in hydrogen supply, equipment manufacturing, and
infrastructure.
2. Fast-track access to public funding for hydrogen projects. Introduce measures such
as grants, loans, tax credits, as well as funding support schemes based on competitive
bidding. Policymakers across geographies have put forward plans to roll out the relevant
instruments designed to stimulate hydrogen uptake. Right now, it is crucial to move from
vision to action, and proceed with the implementation of these instruments. Rapid rollout
of support schemes for hydrogen will lift mature projects off the ground and accelerate
hydrogen deployment to support global climate goals within this decade, while bringing the
costs further down.
3. Ensure international coordination and support credible common standards and
robust tradeable certification systems. A common standard methodology for assessing
all hydrogen production pathways is essential to allow the hydrogen with the lowest carbon
footprint to reveal its climate benefits. Robust certification systems are instrumental in
building consumer trust and paving the way for global hydrogen trade, which in turn will
support scale-up and minimize hydrogen cost.
Industry - Priority actions for 2022-2023:
1. Advance project proposals to FID by committing to funding and resource
deployment. As regulatory certainty is being strengthened and funding support starts
rolling out, industry should commit to deploying resources to mature projects towards FID
by conducting feasibility and FEED studies to realize the USD 240 billion project proposals.
Furthermore, new projects must continue to be developed to bridge the USD 460 million
investment gap to net zero toward the end of this decade. Project developers should focus
on building long-term relationships between hydrogen suppliers and offtakers, and actively
mitigate the perceived risk of investing in hydrogen projects by staging projects and by
working with established partners with strong track records.
2. Scale up hydrogen supply chain capability and capacity. As government targets
translate into regulatory action and confidence in a sustained demand outlook, commit
to increasing supply chain capability and capacity. The industry should start ramping up
capacity to enable deployment at scale. Alignment and synchronization between the policy,
infrastructure, and end-use applications is essential. The industry needs to ensure the
project proposals and equipment (e.g., electrolyzers) are available as the industry scales.
Supply chains must be readied, and only industry can do it. Increasing renewable power
capacity at scale remains vital to scale up renewable hydrogen deployment.
3. Build infrastructure for cross-border trade. Global trade unlocks the full benefits
of hydrogen as transportable, clean energy. But project proposals to develop hydrogen
infrastructure are lacking, and industry should concentrate its efforts toward establishing
infrastructure to enable cross-border trade (e.g., through building out terminals, large-scale
storage, and hydrogen conversion technologies). As international cooperation between
governments advances, the industry should actively help to prioritize actions to enable
international trade flows match supply and demand in an efficient manner.
Progress projects and
scale up deployment in regions
Enable international
hydrogen trade
Enable
demand
visibility
Scale up supply
chain capability
and capacity
Fast-track
access to
public funding
Advance project
proposals
to FID
Ensure
international
coordination
Build
infrastructure for
cross-border trade
Priority actions
for policymakers
Priority actions
for industry
iv Hydrogen Insights Report September 2022
Hydrogen Council, McKinsey & Company v
Hydrogen Insights Report September 2022
Hydrogen Council, McKinsey & Company
HydrogenInsights2022AnupdatedperspectiveonhydrogenmarketdevelopmentandactionsrequiredtounlockhydrogenatscaleSeptember2022ExecutivesummaryThepipelineofhydrogenprojectsiscontinuingtogrow,butactualdeploymentislagging.In2022some680large-scalehydrogenprojectproposals,equivalenttoUSD240billionindirectinvestmentthrough2030,havebeenputforward–aninvestmentincreaseof50%sinceNovember2021.Yet,onlyabout10%(USD22billion)havereachedfinalinvestmentdecision.Europeishometoover30%ofproposedhydrogeninvestmentglobally.However,otherregionsareleadingtheimplementationontheground:80%ofoperationalgloballow-carbonhydrogenproductioncapacityisinNorthAmerica,whileChinahassurpassedEuropeinelectrolysiswith200megawatts(MW)operational,versus170MWinEurope,drivenbystronggovernmentsupport.SouthKoreaandJapan,inturn,areleadingonfuelcells,drivenbystronggovernmentandcorporateambitions:morethanhalfofthe11gigawatts(GW)ofglobalfuelcellmanufacturingcapacityislocatedthere,andJapanhasrampedupdeploymentofhydrogen-readycombinedheatandpower(CHP)plants,with425,000suchsystemsinstalled.Theurgencytoinvestinmaturehydrogenprojectstodayisgreaterthanever.Thereboundofcarbonemissionstoabovepre-COVIDlevels,theinvasionofUkraine,andthegrowingconcernsaroundenergysecurityresultingfromthewarinEuropemakeonethingclear:oureconomiesneedcleanhydrogen,andactionisneededtoconvertproposalsintoactualdeployment.OutofthemoreThepipelineofhydrogenprojectsiscontinuingtogrow,butactualdeploymentislagging.680large-scaleprojectproposalsworthUSD240billionhavebeenputforward,butonlyabout10%(USD22billion)havereachedfinalinvestmentdecision(FID).WhileEuropeleadsinproposedinvestments(~30%),Chinaisslightlyaheadonactualdeploymentofelectrolyzers(200MW),whileJapanandSouthKoreaareleadinginfuelcells(morethanhalfoftheworld’s11GWmanufacturingcapacity).Theurgencytoinvestinmaturehydrogenprojectstodayisgreaterthanever.Fortheworldtobeontrackfornetzeroemissionsby2050,investmentsofsomeUSD700billioninhydrogenareneededthrough2030–only3%ofthiscapitaliscommittedtoday.Ambitionandproposalsbythemselvesdonottranslateintopositiveimpactonclimatechange;investmentsandimplementationonthegroundisneeded.JointactionbythepublicandprivatesectorsisurgentlyrequiredtomovefromprojectproposalstoFIDs.Bothgovernmentsandindustryneedtoacttoimplementimmediateactionsfor2022to2023–policymakersneedtoenabledemandvisibility,rolloutfundingsupport,andensureinternationalcoordination;industryneedstoincreasesupplychaincapabilityandcapacity,advanceprojectstowardsfinalinvestmentdecision(FID),anddevelopinfrastructureforcross-bordertrade.iiiHydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&CompanyPublishedinSeptember2022bytheHydrogenCouncil.Copiesofthisdocumentareavailableuponrequestorcanbedownloadedfromourwebsite:www.hydrogencouncil.comThisreportwasauthoredbytheHydrogenCouncilincollaborationwithMcKinsey&Company.Theauthorsofthereportconfirmthat1.Therearenorecommendationsand/oranymeasuresand/ortrajectorieswithinthereportthatcouldbeinterpretedasstandardsorasanyotherformof(suggested)coordinationbetweentheparticipantsofthestudyreferredtowithinthereportthatwouldinfringetheEUcompetitionlaw;and2.Itisnottheirintentionthatanysuchformofcoordinationwillbeadopted.WhilstthecontentsoftheReportanditsabstractimplicationsfortheindustrygenerallycanbediscussedoncetheyhavebeenprepared,individualstrategiesremainproprietary,confidentialandtheresponsibilityofeachparticipant.Participantsareremindedthat,aspartoftheinvariablepracticeoftheHydrogenCouncilandtheEUcompetitionlawobligationstowhichmembershipactivitiesaresubject,suchstrategicandconfidentialinformationmustnotbesharedorcoordinated–includingaspartofthisReport.than680projectsannounced,45projectsworthUSD29billionareinthefront-endengineeringdesign(FEED)phaseand120projectsworthUSD80billionareundergoingfeasibilitystudies.However,onlyUSD22billion(about10%ofproposals)havereachedfinalinvestmentdecision(FID)orareunderconstructionoroperational.ThisnumberhasonlygrownbyUSD2billioninthelasthalfyear,significantlyslowerthangrowthinprojectannouncements.Thekeybarrierthatprojectdevelopersfacetodayisalackofdemandvisibility–manyareawaitingdecisionsontheenablingregulatoryframeworksandfundingtoincentivizeofftakerstoenterlong-termhydrogensupplycontracts.Suchlong-termofftakeiskeytounlockingprojectfinanceandsupportfromfinancialinvestors.Capturingthemaximumclimatevalueofhydrogentodeliverthe2050netzerotargetrequiresatriplingofinvestmentinhydrogenby2030toUSD700billion–inotherwords,additionalinvestmentsofUSD460billionintohydrogenprojectsthrough2030.Thissoundsenormousbutinfactisequivalenttolessthan15%oftheinvestmentcommittedtoupstreamoilandgasinthepastdecade.Acrossthevaluechain,investmentininfrastructureconnectingsupplyanddemandisparticularlylaggingasvisibilityondemandislacking,withaninvestmentgapofmorethan80%betweenprojectproposalsandwhatisneededtoreachnetzero.JointactionbythepublicandprivatesectorsisurgentlyrequiredtomovefromprojectproposalstoFIDs.Forpolicyambitionandprojectproposalstomaterializeintoactualinvestmentsandstartdeliveringenvironmentalandsocio-economicbenefits,enablingconditionsarenecessarytoday.Below,asetofmutuallyreinforcingpriorityactionsforpolicymakersandindustryfor2022to2023toprogressfromproposalstoinvestments,scaleuphydrogendeploymentinregionsandenableglobalhydrogentrade(Exhibit1).Thesearecriticalformovingfromambitiontoaction,acceleratinghydrogendeployment.Exhibit1–SynchronizingtheeffortsofgovernmentsandtheindustryPolicy-Priorityactionsfor2022-2023:1.Enabledemandvisibilityandregulatorycertaintybyadoptinglegallybindingmeasures.Createdemandvisibilitythroughmeasuressuchastargetsorquotasforhydrogenconsumptionacrossend-usesectors,alongsidepublicprocurementmeasuresorcompetitivebiddingfor(carbon)contractsfordifference.Thiswillbridgethegaptocostcompetitiveness,boostinvestorconfidenceandhavearippleeffectthroughoutthevaluechain,enablinginvestmentsinhydrogensupply,equipmentmanufacturing,andinfrastructure.2.Fast-trackaccesstopublicfundingforhydrogenprojects.Introducemeasuressuchasgrants,loans,taxcredits,aswellasfundingsupportschemesbasedoncompetitivebidding.Policymakersacrossgeographieshaveputforwardplanstorollouttherelevantinstrumentsdesignedtostimulatehydrogenuptake.Rightnow,itiscrucialtomovefromvisiontoaction,andproceedwiththeimplementationoftheseinstruments.Rapidrolloutofsupportschemesforhydrogenwillliftmatureprojectsoffthegroundandacceleratehydrogendeploymenttosupportglobalclimategoalswithinthisdecade,whilebringingthecostsfurtherdown.3.Ensureinternationalcoordinationandsupportcrediblecommonstandardsandrobusttradeablecertificationsystems.Acommonstandardmethodologyforassessingallhydrogenproductionpathwaysisessentialtoallowthehydrogenwiththelowestcarbonfootprinttorevealitsclimatebenefits.Robustcertificationsystemsareinstrumentalinbuildingconsumertrustandpavingthewayforglobalhydrogentrade,whichinturnwillsupportscale-upandminimizehydrogencost.Industry-Priorityactionsfor2022-2023:1.AdvanceprojectproposalstoFIDbycommittingtofundingandresourcedeployment.Asregulatorycertaintyisbeingstrengthenedandfundingsupportstartsrollingout,industryshouldcommittodeployingresourcestomatureprojectstowardsFIDbyconductingfeasibilityandFEEDstudiestorealizetheUSD240billionprojectproposals.Furthermore,newprojectsmustcontinuetobedevelopedtobridgetheUSD460millioninvestmentgaptonetzerotowardtheendofthisdecade.Projectdevelopersshouldfocusonbuildinglong-termrelationshipsbetweenhydrogensuppliersandofftakers,andactivelymitigatetheperceivedriskofinvestinginhydrogenprojectsbystagingprojectsandbyworkingwithestablishedpartnerswithstrongtrackrecords.2.Scaleuphydrogensupplychaincapabilityandcapacity.Asgovernmenttargetstranslateintoregulatoryactionandconfidenceinasustaineddemandoutlook,committoincreasingsupplychaincapabilityandcapacity.Theindustryshouldstartrampingupcapacitytoenabledeploymentatscale.Alignmentandsynchronizationbetweenthepolicy,infrastructure,andend-useapplicationsisessential.Theindustryneedstoensuretheprojectproposalsandequipment(e.g.,electrolyzers)areavailableastheindustryscales.Supplychainsmustbereadied,andonlyindustrycandoit.Increasingrenewablepowercapacityatscaleremainsvitaltoscaleuprenewablehydrogendeployment.3.Buildinfrastructureforcross-bordertrade.Globaltradeunlocksthefullbenefitsofhydrogenastransportable,cleanenergy.Butprojectproposalstodevelophydrogeninfrastructurearelacking,andindustryshouldconcentrateitseffortstowardestablishinginfrastructuretoenablecross-bordertrade(e.g.,throughbuildingoutterminals,large-scalestorage,andhydrogenconversiontechnologies).Asinternationalcooperationbetweengovernmentsadvances,theindustryshouldactivelyhelptoprioritizeactionstoenableinternationaltradeflowsmatchsupplyanddemandinanefficientmanner.ProgressprojectsandscaleupdeploymentinregionsEnableinternationalhydrogentradeEnabledemandvisibilityScaleupsupplychaincapabilityandcapacityFast-trackaccesstopublicfundingAdvanceprojectproposalstoFIDEnsureinternationalcoordinationBuildinfrastructureforcross-bordertradePriorityactionsforpolicymakersPriorityactionsforindustryivHydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&CompanyvHydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&CompanyContextandobjectivesTheurgencytoinvestinmaturehydrogenprojectstodayisgreaterthanever1Includes14EUmemberstatesthathavenotannouncedtargetsbutfallundertheEU’soverarchingnet-zerotargetby2050,PurchasingPowerParitymethodologyusedforGDPcalculation,definitionandlistgatheredfromOxfordNetZeroTracker2Cleanhydrogeninthispublicationdefinedasbothrenewable(fromelectrolysisandrenewables)andlow-carbon(fromfossilfuelreformingwithcarboncaptureandstorage)3TheEUplantocutgreenhousegasemissions55%by20304Initiativedrivenby31infrastructureoperatorsClimatechangemustbeaddressed,urgently.ItisclearerthaneverthatclimatechangeurgentlyneedstobeaddressedashighlightedinthemostrecentIPCCreportpublishedinMay2022.Stakeholdersaremakingcommitmentstocurbemissionsrapidly:131countriescovering90%ofglobalGDPhaveintroducednet-zerotargets,1and46countrieshaveimplementedorannouncedcarbondioxideemissionspricingortradingschemes.Globally,40nationalhydrogenstrategieshavebeenannouncedascountriessetpathwaystotapintohydrogen’spotentialtodecarbonize,ensureenergysecurity,andspursustainableeconomicgrowthfromstrandedenergyresources.Stakeholdersfromgovernmentstoindustriestoconsumersthemselvesincreasinglyrecognizethathydrogenisneededtoachievenet-zeroemissions.Theenergysystemneedshydrogen.Hydrogencanacceleratetheenergytransitionbyallowingcleanenergytobestoredandlargevolumestobetransportedoverlongdistancesviapipelinesandships.Itcanfostergreaterresilience,cost-efficiency,andoptimizationatasystemlevel.Hydrogenisaversatileclean2moleculethatplaysmultiplerolesacrossend-usesandgoeshand-in-handwithotherdecarbonizationleverssuchasdirectelectrification,carboncaptureandstorage,biofuels,andenergyefficiencymeasures.Forexample,itcanserveasafueldirectlyusableinfuelcellsusedinmobilityorstationarypower,orforhigh-gradeheatneededforcementproduction,orgridpowergeneration.Itisafeedstocktoproduceammoniaorsyntheticfuelsforuseinthemaritimeandaviationsectorsorothercleanchemicals,andareductantforprocessingironoreforcleansteelmaking.Globalpoliticalandeconomictrendsinfluencehydrogendeployment.Thepaceofdeploymentisinfluencednotonlybyregulations,ascriticalastheyare,andprivatesectorcommitments,butalsobyfactorssuchasthestateoftheglobaleconomy,geopolitics,commodityprices,andthestateofglobalsupplychains.TheworldisrecoveringfromtheCOVID-19pandemic,resultinginrapidgrowthineconomicactivitywithrecentsupplychaindisruptionsandhighinflationrates.Economicdevelopmentisunevenacrossgeographiesandthegrowthoutlookisuncertain.Thesefactorsinfluencehydrogendeployment,butnotnecessarilyinanegativefashion:recentdevelopmentssuggesttheseshiftshavestrengthenedthefocusonhydrogeninthepastmonths.However,on-the-grounddeploymentisnotmovingfastenoughandneedstoacceleratetorealizethebenefitsofhydrogen.Beyonditsimportanceindecarbonization,hydrogenisgainingtractionasawaytoincreaseenergysecurity.Countriesareincreasinglypursuingenergyindependenceanddiversificationofenergysupplies,particularlyconsideringthecurrentwarinEuropeanduncertaintiesinglobalpolitics.IntheEU,thewarinUkrainehasledtobolderambitionsforcleanhydrogentostrengthenenergysecurityandspurdecarbonizationbeyondthe“Fitfor55”3package.TheEU’sREPowerEUcommunication,announcedjustthreeweeksafterthestartoftheUkrainewar,raisedtheambitionfrom5.6millionmetrictons(MT)ofrenewablehydrogendeployedby2030to10millionMTofrenewablehydrogenproduceddomesticallyandanother10MTofimportedcleanhydrogen.StakeholdershaveacceleratedplanstodevelophydrogenpipelinetransmissionsaslaidoutintheEuropeanHydrogenBackboneinitiative,4whichnowtargets28,000kmin2030.Formanycountries,hydrogenisaboutmonetizingdecentralizedenergyresourceslikerenewablesinChile,Brazil,Australia,andEgypt,orensuringenergysecurityandself-sufficiency,whicharekeycomponentsoftheChinesehydrogenstrategy.Theyincludebuildingadomesticindustryaroundtechnologyforseabornehydrogentradeanduseinthepowerandautomotivesectors,suchasinJapanandSouthKorea.Incentiveschemestoacceleratehydrogenadoptionaretakingshapeacrosstheglobe–theseneedtoberolledout,fast.IntheEU,forinstance,thefirstImportantProjectsofCommonEuropeanInterest(IPCEI)pre-notificationsweremadeatnationallevelin2021,withfirstapprovalsfromtheEUCommissionreceivedinJuly2022.Furthermore,thedevelopmentofacarboncontractsfordifference(CCfD)schemeforrenewablehydrogenhasbeenannouncedonEUlevel.CountriesinEuropearedevelopingnationalsupportschemesforhydrogen.Forexample,GermanyandDenmarkarepursuingjointpurchasingagreementsandCfDschemesforcleanhydrogenimports.Otherregionsarenotstandingstill,withvariousincentiveschemesemergingaroundtheglobe.Forinstance,theUShasallocatedUSD9billioninfundingtodevelopcleanhydrogenhubsandadvanceandscaleupelectrolyzertechnologywhilegrantingtaxcreditsforcarboncaptureandstorage,whileJapan’sGreenInnovationFundisallocationaboutUSD2billiontodevelopcarbonneutralprojects,supportingdevelopmentofliquidhydrogenvaluechains,amongstothertechnologies.Omaniswaivinggridfeesforrenewablehydrogenproduction,whileIndiaisconsideringapproachessuchasgridtariffreductions,cleanhydrogenblendingmandatesinrefineries,andelectrolyzercapitalexpendituresubsidies.Butspeedisoftheessence–importantcontrolsandbureaucracyneedtobeadaptedtomatchtheurgencyofthesituationandthetypicalcommercialproductdevelopmentrhythm.Hydrogen’sfutureisbright–rightnow,jointactionisrequiredtoscalethehydrogeneconomyasfastasneeded.Decarbonizationisanurgentneedastheworldisexpectedtoexhaustitsremainingcarbondioxideemissionsbudgetofabout400gigatons(GT)by2030toremainwithin1.5degreesCelsiuswarming.Therecentmomentuminthehydrogeneconomyispositive,butambitionandproposalsbythemselvesdonottranslateintoapositiveimpactonclimatechange;investmentsandimplementationonthegroundareneeded.JointactionbythepublicandprivatesectorsisurgentlyrequiredtomovefromprojectproposalstoFIDs.HydrogenInsightsshedslightonthestateoftheindustry–andwhatneedstobedoneforambitionandproposalstomaterializeintoinvestmentsanddeploymentHydrogenInsightsistheHydrogenCouncil’sperspectiveonthehydrogenindustry’sevolution.Itsummarizesthecurrentstateoftheglobalhydrogensectorandoffersauniqueviewintoactualhydrogendeployment.Thispublicationhasthreesections:Momentum:Industryannouncementsshowcurrentinvestmentmomentumintheglobalhydrogenindustry.Actualdeploymenttodayoffersuniqueinsightsintotherealdeploymentofhydrogenacrosssectorsandgeographies.Priorityactionsforpolicymakers&industrysuggestasetofpriorityactionsforpolicymakersandindustryforthecomingyeartoovercomethekeychallengespreventinghydrogendeploymentatscale.Thisperspectiveisco-authoredbytheHydrogenCouncilandMcKinsey&Companyandrepresentsacollaborativeefforttoshareanobjective,holistic,andquantitativeperspectiveonthestatusquooftheglobalhydrogenindustrydevelopment.TheHydrogenCouncilcounts141members(Exhibit2),upfrom60in2020,representingUSD8.2trillioninmarketcapitalization,6.8millionemployees,andrevenuesofUSD5.2trillionin2021.2HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&Company3HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&Company8.26.85.2Exhibit2–HydrogenCouncilMembersMomentum:IndustryannouncementsmarketcapitalizationUSDtrillionFTEsworldwiderevenuesUSDtrillionmillionWhilethenumberofprojectproposalscontinuestogrowglobally,lessthan10%ofhydrogenprojectshavereachedFIDGlobally,theindustryhasannounced680large-scalehydrogenprojectproposals(Exhibit3)asoftheendofMay2022,anincreaseofmorethan160projectssinceourpreviouspublication(HydrogenforNetZero,November2021).Ofthese,534aimtofullyorpartiallycommissionthrough2030andrepresentUSD240billionofdirectinvestmentsneededinhydrogenvaluechainsby2030(upfromUSD160billioninthepreviouspublication).Ofthese534projectproposals,aboutathirdareundergoingfeasibilityandFEED(front-endengineeringdesign)studies,representingUSD109billionininvestments.However,onlyUSD22billion(about10%)havereachedafinalinvestmentdecision(FID),areunderconstruction,orareoperational.ThisnumberhasonlygrownbyUSD2billioninthelasthalfyear,significantlyslowerthanthegrowthinannouncements.Giga-scaleprojectproposals(over1GWofelectrolysisforrenewableormorethan200,000metrictonsayearoflow-carbonhydrogensupply)accountfor61projects,ofwhich18havebeenannouncedsincethepreviouspublication.Ofthese61proposals,45arerenewableand16arelow-carbonhydrogen.51oftheseareplanningfullorpartialcommissioningby2030,while33areundergoingfeasibilityorFEEDstudies,andthreehavereachedFID(linkedtolow-carbonhydrogeninNorthAmerica).Giga-scaleprojectproposalsarefoundacrossallcontinentsandarefocusedonexportstodemandcentersinEuropeorAsiaoronservingdemandinlargeindustrialhubs.Europeishometoover30%ofproposedhydrogeninvestmentsglobally(aboutUSD76billion),withnearly314projectproposalsintotaland268aimingforfullorpartialcommissioningthrough2030.Ofthis,aboutUSD32billionisintheplanningstagesandUSD6billioninvolvescommittedinvestment.Inthepastsixmonths,about50newprojectproposalswereannouncedinEurope,withmostnewadditionsfocusingonthedecarbonizationoflarge-scaleindustrialuses.NorthAmericaandLatinAmericafollowEuropeintermsofannouncementswithabout20%eachofproposedinvestments.Infact,sincethepreviouspublication,theproposedinvestmentsinthesetworegionshavegrownatthefastestrate,withUSD20billionaddedinNorthAmericaandUSD34billioninLatinAmerica.InLatinAmerica,projectproposalsworthUSD30billionareundergoingfeasibilityorFEEDstudies.InNorthAmerica,projectproposalsworthaboutUSD13billionareundergoingfeasibilityorFEEDstudies,andUSD8billioniscommittedcapital(mainlydrivenbyexistinglow-carbonhydrogenprojects).Maximizingtheclimatevalueofhydrogentodeliverthe2050netzerotargetrequiresatriplingofinvestmentinhydrogenby2030,toUSD700billion.Inotherwords,anadditionalUSD460billionhydrogenprojectproposalsby2030areneeded,evenifallcurrentproposalsarerealized.AnincreasingnumberofprojectproposalsareundergoingfeasibilityandFEEDstudies,yetFIDsarelackingOftheUSD240billionannouncedthrough2030,nearlyhalfisintheplanningstage,i.e.,undergoingfeasibilityorFEEDstudies(Exhibit4).Sincethepreviouspublication,thenumberofprojectproposalsundergoingengineeringstudieshasincreasedfrom115to165,anincreaseof70%intermsoftargetedinvestment,fromUSD64billiontoUSD109billion.Despitethemomentum,manyprojectproposalshavenotreachedFIDandareawaitingthedevelopmentofsupportiveregulationandincreasedvisibilityondemandforcleanhydrogenanditsderivatives.Whilethereispositivemomentuminfurthermaturingprojects,thereisaslowdownwhenlookingattheFIDs,whichonlygrewbyUSD2billion(about10%).Thekeybarrierthatprojectdevelopersare4HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&Company5HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&CompanyExhibit3–GlobalhydrogenprojectannouncementsOutof5341large-scaleprojectsworthUSD240bnannouncedglobally……165–aboutonethird–areundergoingfeasibilityandFEEDstudies……andonlyabout10%ofinvestmentshaveachievedfinalinvestmentdecisionUSD240bninvestmentsrequiredforannouncedprojectsuntil2030512624012853Giga-scaleproductionLarge-scaleindustrialuseInfrastructureprojectsTransportIntegratedH2economyEuropeNorthAmericaLatinAmericaOceaniaJapan,Korea,restofAsiaChinaAfrica#ofprojects7664719433315USD109bninvestmentsuntil2030,relatedtoprojectsinplanning338672613Giga-scaleproductionLarge-scaleindustrialuseInfrastructureprojectsTransportIntegratedH2economy#ofprojects63243213130EuropeNorthAmericaLatinAmericaOceaniaJapan,Korea,restofAsiaChinaAfrica377196129Giga-scaleproductionLarge-scaleindustrialuseInfrastructureprojectsTransportIntegratedH2economyUSD22bninvestmentsuntil2030,relatedtocommittedprojects#ofprojectsEuropeNorthAmericaLatinAmericaOceaniaJapan,Korea,restofAsiaChinaAfrica2<1<168<16Exhibit4–AnnouncedinvestmentsbymaturityDirecthydrogeninvestmentsuntil2030,USDbillion1096410876End-use&offtakeProduction&supply202220212021Infrastructure2022202120222022USD240bntotalannouncedinvestmentsCommittedPlanningstageAnnouncedProjectsthatareatthefeasibilityoffront-endengineeringanddesignstageProjectswhereafinalinvestmentdecisionhasbeentaken,thatisunderconstruction,commissioned,oroperationalProjectsinpressannouncementsorpreliminarystudystagesfacingtodayisthelackofdemandvisibility,asmanyareawaitingdecisionsontheenablingregulatoryframeworksandfunding(includingtheexistingframeworkssuchasIPCEIinEuropeorhydrogenhubsintheUS)toincentivizeofftakerstoenterlong-termhydrogensupplycontracts.ThelargestvolumeofcommittedinvestmentisinNorthAmerica(about35%,partiallyduetooperationallow-carbonhydrogenprojects),followedbyEurope(drivenbyasomewhatclearerregulatoryenvironmentandindustrydecarbonizationtargets)andAsia(excludingChinaandOceania),bothatabout25%.Alongthevaluechain,about65%ofthetotalannouncedinvestmentsofUSD240billionfocusoncleanhydrogensupply,followedbyend-use(25%)andtransmissionanddistribution(10%).Consideringonlyprojectproposalsintheplanningstage,theshareofhydrogensupplyisabove70%ofthetotalassociatedinvestmentofUSD109billion.However,thesupplyshareofinvestmentsdeclinestoabout50%whenconsideringonlycommittedinvestments,whiletheshareofinvestmentstargetinghydrogentransmissionanddistributionincreasestomorethan20%.Thisisadoublingfromabout10%shareofinvestmentswhenconsideringprojectsacrossallmaturitylevels.Thiscouldbeduetotheinfrastructurecomponentofaprojectmaturingafterthehydrogensupplyaspectisclearer,orduetoasignificantcurrentmomentumaroundhydrogensupplyspecifically.Hydrogensupply:AnnouncementsreachonethirdofnetzerotargetCompanieshaveannouncedprojectproposalsaddinguptoabout26millionMTofcleanhydrogencapacitythrough2030(Exhibit5),anincreaseofabout8MTsincethepreviouspublication.Thisamountstoaboutathirdofthe75MTrequiredby2030tobeontracktowardnetzero(aslaidoutintheHydrogenforNetZeroreport).Announcementsaddupto7.3MTofcleanhydrogenby2025,upfrom6.5MTinthepreviouspublication.About60%oftheannouncedvolumesthrough2030featurerenewablehydrogen,whileabout40%consistoflow-carbonhydrogen.Themajorityofthiscapacityisatanearlyprojectdevelopmentstage,withabout15MTintheplanningstageundergoingfeasibilityorFEEDstudies,andonly2MT(about7%oftotalannouncedAsofMay8,2022AsofMay8,20221680projectsannouncedgloballyofwhich534are(partially)deployeduntil20306HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&Company7HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&Companypositivedevelopment,infrastructureisthevaluechainstepthatseesthelargestgapininvestmentsrequiredtobeontracktonetzero,withprojectproposalscoveringlessthan15%oftheinvestmentrequirement.Developersareconsideringmultiplehydrogencarriertechnologiesforglobalhydrogentransmission,includingammonia,LOHC5,andliquidhydrogen.Mostoftheprojectsannouncedthrough2030withdefinedhydrogencarriershavecurrentlyoptedforammonia(about35%byvolumehydrogen),followedbyLOHC(about10%),andliquidhydrogen(about5%).However,abouthalfoftheprojectshavenotyetselectedtechnology,andevenforthosethathave,thefinaldecisionsonconcept,design,andinvestmenthavenotyetbeenmade.Hydrogenend-use:MobilityandsteelaredrivinginvestmentsAnnouncedinvestmentsinhydrogenend-usesthrough2030accountforaboutUSD60billionandencompass,forexample,fuelcellvehicles,thedeploymentofmethanolandammoniasynthesisplants(ofwhichsomecapacityisintendedforexport),ortheuseofhydrogenincleansteelmakingorpowerapplications.Ofthis,aboutUSD23billioniscurrentlyundergoingfeasibilityorFEEDstudies,whileUSD6billioniscommittedcapital.Groundtransportisthesegmentwiththehighestshareofcommittedcapital,with25%oftotalinvestmentproposalsatFIDormoreadvanced,followedbypowerwheretheshareisabout15%.Mostannouncedinvestmentstargetthemobilitysectorandnewindustryend-usessuchassteelmaking,eachatabout30%ofinvestments,followedbyexistingindustryuses,likeammoniaandrefining,atabout25%ofannouncedinvestments.Announcedinvestmentsinexistingindustryuses,wherecleanhydrogendirectlysubstitutesforfossil-based(“grey”)hydrogen,havemorethantripledsince2021(fromUSD5to16billion).However,alargeshareofthisgrowthisfromadditionalammoniaproductionprojects,manyofwhichtargetenergyexporttodemandcentersinAsiaandEurope,ratherthansubstitutinggreyhydrogeninfertilizermarkets.Investmentsinnewindustryuses5LiquidorganichydrogencarrierExhibit6–GlobalfuelcellandelectrolyzermanufacturingcapacityElectrolyzerandFuelcellmanufacturercapacity,2025GWp.a.byHQregionManufacturingcapacityannouncements,GWEuropeJapanandKoreaChinaUSA1GW10GW2021–installed2025–announced3.5FuelcellElectrolyzer11.045.028.0capacity)atFID,underconstruction,oroperational.Consideringtheproposalscurrentlyintheplanningstage,about55%ofcapacityisrenewableand45%islow-carbonhydrogen.Fortheprojectswithcommittedcapital,themajorityislow-carbonhydrogen(about70%oftotalvolumes),drivenlargelybyoperationallow-carbonhydrogenprojectsinNorthAmerica.Fromaregionalperspective,Europe,NorthAmerica,andLatinAmericaaccountforover70%ofthetotalannouncedcleanhydrogensupplyvolumes,withthehighestvolumesfoundinEurope(about8MTinannouncedsupply).LatinAmericahasthelargestannouncedsupplyofrenewablehydrogen(4.8MTby2030),whileNorthAmericahasthelargestvolumeoflow-carbonhydrogen(4.7MT).LatinAmericaandNorthAmericaaretheregionswiththehighestgrowthinannouncedvolumessincethepreviouspublication,adding3.6MTand2.8MT,respectively.Aboutthree-quartersofprojectproposalsfocusedonhydrogensupplyareundergoingfeasibilityorFEEDstudiesinEurope,LatinAmerica,Oceania,andtheMiddleEast,indicatingthattheindustryisinvestinginmaturinghydrogensupplyprojectsfurther.Beyond2030,anadditional15MTofcleanhydrogencapacityhasbeenannouncedglobally,bringingthetotaltoabout41MT.Ifalltheannouncementswererealized,itwouldreflectabout6%ofthe660MTrequiredby2050toreachthenet-zerotarget.Morecleanhydrogensupplyprojectproposalsareneededtobeontracktonetzero.Hydrogentransmission&distribution:LargestgaptonetzeroCompanieshaveannouncedapproximatelyUSD24billionininvestmentsinhydrogeninfrastructurethrough2030,encompassingrefuelingstations,pipelines,terminals,andships,forexample,upfromaboutUSD22billionreportedinthepreviouspublication.AbouthalfoftheseannouncedinvestmentstargettheAsia-Pacificregion,whileEuropeaccountsforabout25%,followedbytheMiddleEastat15%.AboutathirdiscurrentlyundergoingfeasibilityorFEEDstudies,withthemajorityinEurope(about30%),followedbyChinaandOceania(eachabout20%ofvolumes).DespitethisExhibit5–AnnouncedcleanhydrogenproductionvolumebypathwayCumulativeproductioncapacity,MTp.a.Announced1Low-carbonhydrogenRenewablehydrogen2728262526.2242320202220302921Announced1Planning2Planning22019Announcedasof2022Committed3Committed3202020211Preliminarystudiesoratpressannouncementstage2Feasibilitystudyorfront-endengineeringanddesignstage3Finalinvestmentdecisionhasbeentaken,underconstruction,commissionedoroperationalAsofMay8,2022AsofMay8,20228HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&Company9HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&CompanyCleanhydrogendeploymentisincreasingacrossthevaluechainThedeploymentofhydrogentechnologiesandprojectsisgraduallygrowingacrossthevaluechain,withprogressinhydrogensupply,transmissionanddistribution,andend-usesinthepastyear(Exhibit7)Hydrogensupply:800ktlow-carbon,550MWelectrolysisdeployedUpuntilnow,theglobalindustryhasinstalledabout800kilotons(kt)perannumoflow-carbonhydrogencapacityandabout550MWofwaterelectrolysisforrenewablehydrogensupply.Operationallow-carbonhydrogenvolumesarespreadacross18projects,withabout90%ofthecapacityinNorthAmerica.Installedelectrolyzercapacitygrewabout80%from2020totheendof2021,withmostofthegrowth(160MW)inChina.Chinaiscurrentlytheworld’slargestmarketforelectrolysis,withabout200MWcapacityinstalled(mostofwhichinvolvesa150MWplantcommissionedin2021).Europeisthesecond-largestmarketwithabout170MWofelectrolyzersinstalled(with40MWaddedin2021).Abouttwo-thirdsofthisservedemandfromindustrialend-usessuchasammoniaplantsorrefineries,followedbymobilityatabout10%oftotalcapacity.About75%oftheinstalledelectrolyzersarealkalinetechnology,followedbyproton-exchangemembrane(PEM)solutions,whichaccountformostoftheremaining25%.MostPEMelectrolyzercapacityisinstalledinEurope,whileotherregionshavehighersharesofalkalinetechnology.Exhibit7–Hydrogendeploymentacrossthevaluechain1Notethatgreyammonia(i.e.,producedfromnaturalgaswithoutcarbonsequestration)isshippedtodayatscaleActualdeploymenttodayhavegrownbyabout25%sincethepreviouspublication,primarilyreflecting26steelprojects(ofwhich20areinEurope).Momentumaroundproposedprojectstargetinghydrogenend-usesisstrongestinEurope,wherehalfoftheproposedinvestmentshavebeenannounced,followedbytheAsia-PacificregionandNorthAmerica(eachabout15%).Thereissignificantvariationinthefocussegmentsacrossregions.InEurope,mostend-useinvestmentsfocusonsteel(60%),whereasLatinAmericasees60%ofinvestmentsrelatedtoammoniaproduction(majorityofwhichisintendedforexport).TheAsia-Pacificregionfocusesonpowerandtransport(about40%each),whileinNorthAmericaabouthalfoftheinvestmentstargetmobility(groundtransportationandsustainablefuels).Hydrogentechnologysupplychainsarepreparingforarapidscale-upAnticipatinghydrogenmarketgrowth,technologyprovidersareplanningtorampupfast(Exhibit6)–ifdemandmaterializesandregulatoryframeworksareputinplace.Forexample,electrolyzerOEMannouncementsworldwideaddupto45GWofannualmanufacturingcapacityby2025,morethantentimesthecapacityinstalledbyendof2021.EuropeanOEMsarethemostambitious,accountingfor40%oftheannouncedcapacity.ChineseOEMsfollowwithabout35%ofannouncedcapacity,potentiallydrivenbysupportivegovernmentpoliciestowardcleanhydrogensupply.FuelcellOEMshaveannounced28GWinstalledcapacityuntil2025,upfrom11GWinstalledtoday.About60%ofexistingcapacityisconcentratedinJapanandSouthKorea,wheresomeoftheworld’sleadingvehicleOEMsarebased.SupplyTransmissionanddistributionManufacturingcapacityEnd-use3.5GWElectrolysismfg.capacity+3.5GWin202250%inEurope3H2shippingpilotsLH2,cleanNH3,LOHCshippedtoJapanfromAustralia/MiddleEast550MWElectrolysiscapacityoperationalin2021200MWinstalledinChina11GWFuelcellmfg.capacityin2021+2GWin202250,000FCEVsfleetontheroad+50%salesin2021700HRSoperational425,000Stationaryfuelcellsinstalled800ktpaLow-carbonhydrogencapacityin2021110HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&Company11HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&CompanyHydrogentransmissionanddistribution:InitialstepstodevelopahydrogentradesystemarebeingtakenRegionalandglobalhydrogeninfrastructureisgraduallydevelopingandmaturing,andthisishappeningacrosspipelines,refuelingstations,andglobalhydrogenshipments.Globalseabornehydrogentradeisslowlyevolving.Small-scaledeliveriesofcleanhydrogenbyshiphavetakenplace.Threepilotprojectscarryingcleanammonia,liquidhydrogen,andliquidorganichydrogencarriers(LOHC)havealreadysailedinthepastthreeyears,deliveringhydrogenfromAustraliaandtheMiddleEasttoJapan.TheJapanesegovernmentfocusesonhydrogenasacleanenergyvector,andistakingstepsto,forinstance,developtheworld’sfirstinternationalvaluechainfortransportingliquidhydrogenbetweenJapanandAustralia.Otherregionsarestartingtofocusmoreonhydrogentradingaswell.EuropeancountriesareconsideringimportsfromseveralpotentialexportcountriesintheMiddleEast,NorthernAfrica,andelsewhere,whileSingaporeisconsideringimportinghydrogenfromAustralia.Severalregionsarepositioningthemselvesasexportersofrenewableorlow-carbonenergy,includingAustralia,LatinAmerica,NorthAmerica,NorthernAfrica,andtheMiddleEast.Hydrogenpipelinesareadvancing.Thereisabout4,500kmofhydrogenpipelineinstalledglobally,transmittinggreyhydrogentoindustrialend-users,showcasingthefeasibilityoftransmittinghydrogenviapipelines.Severalinitiativesarecurrentlyexploringpipelinetransmissionsofhydrogen.Forinstance,pipelineexportsofhydrogenfromenergyresource-richareasinNorthernAfricaorNorwaytocontinentalEuropearebeingconsidered,whiletheUKandCalifornia,amongothers,aretestingtheblendingofhydrogeninnaturalgaspipelines.Thedeploymentofhydrogenrefuelingstationscontinuestogrow.About700hydrogenstationswereinstalledgloballybytheendof2021,reflectingabout25%annualgrowthfromtheendof2020.AbouthalfoftheseareinJapan,SouthKorea,andChina,withabout100stationsaddedinthepastyear,reflectingannualgrowthofabout35%.Europeaccountsforabout230stations,whiletheUShas80operationalstationsconcentratedinthecoastalstates.Annualgrowthinthesetwomarketswasabout20%,notablyslowerthaninAsianmarkets.Hydrogenend-use:65%growthinvehicles,cleanammoniaproducersleadinindustrysegmentHydrogenisadvancinginmobility.Salesoffuelcellvehiclesgrewbyabout65%from2020to2021,withtotalsalesofabout17,000vehicles(upfrom11,000in2020).Commercialvehiclesaccountforabout10%oftotalvehiclesales,withaboutthree-quartersconsistingoffuelcellbusesandtheremainderoftrucks.However,thesetwosegmentsgrowatdifferentrates.Whereassalesoffuelcelltrucksgrewsevenfoldinayear,mainlyinChinafollowedbyEurope,bussalesdeclinedby30%drivenbylowersalesinChina.Salesoffuelcellpassengervehiclesgrewabout80%,totalingabout15,000vehiclessoldworldwidein2021.MostsaleswereinSouthKorea(55%ofsales),NorthAmerica(20%),andJapan(15%).ThehighestrelativegrowthoccurredinNorthAmerica(nearlyquadrupled)andJapan(morethantripled),reflectingsupportingregulatoryschemesandavailablerefuelinginfrastructure.Progressishappeningwithoff-roadvehiclesaswell,wherehydrogenhasaroletoplayforheavy,long-durationusesinsectorslikemining,construction,orrail.Multipleprojectshaveretrofittedminingtruckswithfuelcells,whileOEMshavedevelopedcrawlerexcavatorsthatrunonhydrogen.Hydrogen-fueledtrainsweredeployedinseveralcountriesinEuropeandAsia.Morethan10trainscurrentlyoperateglobally,withordersforover60moreinplace.Industrialhydrogenend-useshavehighactivitylevels,butlarge-scaleplantshaveyettobebuilt.27renewablehydrogenprojectshavereachedFID,ofwhichabout20areinEurope,encompassingtheproductionofcleanammonia,methanol,steel,andsyntheticfuels.Amongthese,ammonialeadsthewaywithsevenprojectshavingreachedtheFIDstageandthreeoperationalprojects(upto20MWelectrolyzers).Meanwhile,cleanmethanolproductionprojectsarematuring,withsevenattheFIDstageandthelargestoperationalplanthavinga10MWelectrolyzer.Anotherfiverenewablehydrogenprojectsfocusonrefining,foursmall-scaleprojectstargethydrogen-basedsteelmaking,andfourotherswillproducesyntheticfuels.Muchofthismomentumisdrivenbyprivatesectorcommitments,evenbeforeregulatoryframeworksandpotentialgovernmentsupportareclear.Forinstance,twolargeglobalcontainershipoperatorshaveplacedtheworld’sfirstordersformethanol-fueledoceangoingcontainerships,whileautomotivecompaniesarecommittingtosourcing“greensteel.”However,nofull-scaleplantshavereachedtheFIDstage.Energyandheatingend-usesareprogressing.Examplesincludetheblendingofhydrogeninnaturalgasturbinesaswellasthedevelopmentofhydrogen-readyturbinesandhydrogenforhigh-gradeheatapplications,aswellasthereplacementofcoalwithcleanammoniainpowerplants.Notably,JapanandSouthKoreahavedeployedcombinedheatandpower(CHP)fuelcellsystemsthatcanrunonhydrogen,withabout425,000suchsystemsinstalledacrossJapan.TechnologysuppliershaverampedupmanufacturingcapacityHydrogendeploymentisgraduallyevolving,andalthoughdemandvisibilityislimited,suppliersarereadyingandhaveinstalledmanufacturingplantsforequipmentsuchaselectrolyzersandfuelcells.Electrolysis.Companieshaveinstalledabout3.5GWofelectrolysismanufacturingcapacitygloballybytheendof2021,withanother3.5GWannouncedtobeaddedduring2022.EuropeanOEMshavedevelopedabouthalfoftheexistingcapacity,whileChineseOEMshaveannouncedthemostambitioustargetsfor2022andareplanningtoinstallanadditional1.5GWthisyear.Two-thirdsofexistingcapacityisatmosphericalkalinetechnologytoday,whereastheshareofpressurizedelectrolyzertechnologiesshouldgraduallyincreaseasnewmanufacturingcapacityrollsout.Fuelcells.Thecurrentlyinstalledfuelcellmanufacturingcapacityisapproximately11GW,withabout60%ofthiscapacitydevelopedbySouthKoreanandJapaneseOEMs,followedbyChineseandAmericanOEMs.Announcednear-termgrowthislimited,withatargetof13GWtotalinstalledcapacityin2023,andmostgrowthwilloccurinSouthKorea.Vehicleplatforms.VehicleOEMshavedeveloped87fuelcellvehicleplatformstodate,upfrom61in2021(about70%areinChina).Mostofthecurrentplatformsareforfuelcellbuses,followedbytrucksandlightvehicles.Mostofthenewplatformstargetfuelcelltrucks,followedbylightvehiclessuchasvansorpassengervehicles.DevelopersandfinancialinvestorsareinvestinginhydrogenCompaniesareactivelyinvestinginhydrogen,bothtodevelopprojectstosupplyandconsumecleanhydrogen,andinhydrogencompaniesthemselves(e.g.,technologyproviders).Companiesareinvestinginmaturinghydrogenprojectproposals.StakeholdersareinvestingaboutUSD4billioninfeasibilityorFEEDstudiesforprojectsthathaveyettoreachFID.About40%oftheseinvestmentsarecenteredintheAsia-Pacific,followedbyEurope(about35%).Historically,companieshaveinvestedaboutUSD2billioninsuchstudiestodevelopprojectsthathavealreadyreachedFIDorhavebeendeployed–theseprojectsimplyanestimatedcommittedinvestmentofUSD22billion.Financialinvestorsarefollowingsuit.Globally,investorsspentaboutUSD7billiononfuelcellandelectrolyzersuppliersin2021,nearlydoublinginayear.Bothprivateandpublicmarketsareactive,withsignificantgrowthseenacrossalltypesofinvestments.Notably,privateinvestmentinpublicequity(PIPE)doubled,whilemergerandacquisition(M&A)activitygrewfivefoldfrom2020to2021.Averagedealsizesincreasedby60%yearonyear,withanaveragedealworthUSD41millionin2021.12HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&Company13HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&CompanyPriorityactionsforpolicymakersandindustryJointactionbythepublicandprivatesectorsisurgentlyrequired6SeePathtoHydrogenCompetitiveness,January2020,andHydrogenInsights,February2021Thereisnoclimatesolutionwithoutcleanhydrogen.Scalingituprapidlyiscrucialforstayingontracktonetzerobutdoingsowillnothappenbydefault.Thetwomostimportantprioritiesforpolicymakersandindustryinthenextfewyearsare:i)toprogressfromproposalstoinvestmentsandscaleuphydrogendeploymentinregions,andii)toenableglobalhydrogentrade(Exhibit1).1.ProgressfromproposalstoinvestmentsandscaleuphydrogendeploymentinregionsAcceleratinghydrogendeploymentatscaleiscritical,anditwillhelppushthecostsofcleanhydrogenfurtherdown.Todoso,policymakerscancreatedemandvisibilityandregulatorycertaintyaswellasfast-trackaccesstopublicfundingformatureprojects.Inparallel,industryshouldmatureprojectstowardsFIDandfurtherincreasesupplychaincapacityandcapabilities.Policyaction1:Enabledemandvisibilityandregulatorycertaintybyadoptinglegallybind-ingmeasuresCurrently,about680large-scalehydrogenprojectproposalsareonthetable.Tomovetheseprojectsforward,investorsarelookingforvisibilityonfuturedemand,whichdependstoalargedegreeontheregulatoryframeworkforofftakers.Measuressuchasbindingtargetsandquotasfortheconsumptionofcleanhydrogen(forinstanceinsteelmaking,roadmobility)andhydrogenderivatives(suchassyntheticfuelsandcleanammonia),contractsfordifference(CfDs)andpublicprocurementmeasureswouldincreasethisdemandvisibility.Ifenacted,thesepolicieswillcreatearippleeffectthroughthevaluechain,enablinginvestmentsinhydrogensupply,equipmentmanufacturing,andinfrastructure.Withtheincreasedscale,costswillcomedown,bridgingthegaptowardscostcompetitiveness.Inelectrolysis,forexample,anestimated70GWofinstalledelectrolysisissufficienttobringdowncoststobeonparwithgreyhydrogen.6Severalcountrieshaveproposedschemestoincreasedemandvisibility.TheNetherlandshaveenactedSDE++,acarboncontract-for-differenceschemethatprovidesareliableandrobustcarbonpricetosupportdecarbonizationprojects.GermanyisimplementingtheH2Globalschemetofacilitatehydrogenimportsbymatchinglong-termsupplycontractswithshorter-termofftakecontracts.IntheUnitedStatesofAmerica,California’sLowCarbonFuelStandard(LCFS)hasproventobeacost-effectivedemand-pullmeasureincentivizingfuelswitchingfromfossilfuelstolowcarbonalternativesinthetransportsector.MeanwhileSouthKoreahas,aspartofitshydrogenroadmap,launchedambitiouspublicprocurementmeasuresforfuelcellelectricvehicles.Policyaction2:Fast-trackaccesstopublicfundingforhydrogenprojectsGovernmentshaveearmarkedUSD80billiontokickstartthehydrogeneconomy.Thefundingaimsatsupportingearlyhydrogendeployment,creatinginfrastructureandclusters,andspeedingupcostreductionsashydrogenreachesscale.Suchannouncedmeasuresacrossdifferentregionsinclude:—FundingprogramforregionalhydrogenhubsandproductiontechnologydevelopmentintheUS(USD9billion),aswellasproductiontaxcredits(PTC)forcleanhydrogenproductionwithsupportofuptoUSD3kgakilogramdependingoncarbondioxidecontent.—AlongsidefundingfromtheImportantProjectsofCommonEuropeanInterest(IPCEI)intheEU,fromwhichfirstapprovalsfromtheEUCommissionwerereceivedinJuly2022,releasefundingforrollingoutcarboncontractsfordifference(CCfD)schemeforrenewableandlow-carbonhydrogenattheEUlevel.Further,severalnationalhydrogenstrategieshavepledgedfundingforgrowinghydrogendeployment(e.g.,Germany,Spain).—InJapan,thegovernmenthaspledgedaboutUSD2billionforthedevelopmentofalarge-scaleliquefiedhydrogensupplychain.Mostofthesefunds,however,remainpledgestodate,andonlyasmallsharehasbeenassignedtospecificprojects.Followingthroughwithrapidimplementationoftheseinstrumentstosupporthydrogendeploymentisessentialandwillallowliftingmatureprojectsofftheground.Forinstance,acrossEuropethereareprojectproposalsworthUSD32billionundergoingfeasibilityorFEEDstudies–anaccelerationoffundingcouldhelppropelthemforward.Governmentactionandsupportforcleanhydrogendeploymenttodayiscriticaltomovefromvisiontoactionandacceleratehydrogenuptake,whilehelpingindustriesthataredecarbonizingtoretaintheircompetitiveness.Industryaction1:AdvanceprojectproposalstoFIDbycommittingtofundingandre-sourcedeploymentAsgovernmentsincreaseregulatorycertaintyandfundingsupportstartstorollout,matureprojectswillmovetowardFID.InvestinginfeasibilityandFEEDstudieswillberequiredtobringtheUSD240billionofprojectproposalsclosertodeployment.Inaddition,moreprojects–anestimatedUSD460billionofinvestmentsuntil2030–areneededtobeontracktonet-zeroin2050.Projectdeveloperswouldneedtostepupthedevelopmentofmoreproposalsspanningtheentirehydrogenvaluechain,boostinghydrogensupply,investmentsinend-use,andtheinfrastructurethatconnectssupplywithdemand.Tolowerrisksforbothofftakersandsuppliers,newpartnershipsacrossthevaluechainarealreadyemerging.Projectdevelopersareelicitingdemandfrompotentialofftakers,forexample,bywayoforganizingtheminprojectconsortiatogetherwithpotentialhydrogensuppliersandinfrastructureplayers.Astheprojectconceptmatures,bindingofftakeagreementsareconcluded,whichinturnallowthesuppliersandinfrastructureplayerstoraisefundingandcommitfurtherinvestments.Bycoordinatingacrossthevaluechain,sharingrisks,leveragingexistinginfrastructureandbuildinginphases,suchprojectsaresolvingthechicken-eggprobleminaniterativefashion.Industryaction2:ScaleuphydrogensupplychaincapabilityandcapacityAsdemandvisibilityincreases,theindustrywillbeabletorampupmanufacturinganddeploymentcapacityacrossalltypesofequipment.Forexample,electrolyzerOEMsneedtoexpandcapacityfromthecurrent3.5GWinstalledbyendof2021toatleast50GWayearby2030tobeontracktonetzero.Furthermore,scale-upisrequiredalongthefullvaluechain,startingwiththematerialsthatgointothecomponentsandultimatelytheequipmenttoproduce,store,convert,transportandusehydrogen.Tosucceed,companiesneedtodeploycapitalearlytobuildmanufacturingexperience,prepareproductdesigns,optimizemanufacturingprocesses,andgainexperienceinbuildingtheplants.Projectsrequirealignmentandsynchronizationalongthevaluechain,bothintermsofregulationsaswellaswithinfrastructureandend-useapplications.Partnershipsalongthevaluechain–forexamplebetweenelectrolyzersuppliersandprojectdevelopersandbetweencomponentmanufacturersandfuelcellstackmanufacturers–canbeusedtojointlydevelopproductsandsynchronizescaleup.7InternationalOrganisationforStandardisation2.EnableglobalhydrogentradeGlobaltradeinhydrogenallowstobringcleanhydrogenfromregionswithabundantenergyresourcestothedemandcenterstherebyacceleratinghydrogenuptakeandreducingcosts.Thisrequirescommonglobalstandardsforhydrogen,robusttradeablecertificationsystemsandcross-borderinfrastructure.Policyaction3:EnsureinternationalcoordinationToenabletradeofhydrogenanditsderivatives,internationalcoordination,crediblecommonstandardsandrobustcertificationsystemsforhydrogenarerequired.AcommonglobalISO7standardmethodologyforassessingthecarbonfootprintofdifferenthydrogenproductionpathways14HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&Company15HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&Companyisessentialtoallowthehydrogenwiththelowestcarbonfootprinttorevealitsclimatebenefits.TheHydrogenCouncilissupportingthedevelopmentofthesaidISOstandard,withtheIPHEguidelines8servingastheseeddocument.Meanwhile,robustcertificationsystemsareinstrumentalinbuildingconsumertrustandpavingthewayforcross-borderhydrogentrade,whichinturnwillsupportproductionscale-upandbringthecostofhydrogenfurtherdown.TheupcomingHydrogenCouncilpublicationsontheglobaltradeofhydrogenandonhydrogencertificationwillexplorethesetopicsinmoredetail.Industryaction3:Buildinfrastructureforcross-bordertradeThebiggestgapbetweenannouncedprojectsandprojectsrequiredtoachievenetzeroisinhydrogeninfrastructure.Only10%ofcurrentlyproposedinvestmentsfocusonhydrogeninfrastructure,highlightinganinvestmentgapofabout85%totherequiredUSD200billioninspendingthrough2030.Theindustryneedsmoreproposalsintheseareasandshouldconcentrateitseffortsonestablishinginfrastructuretoenablecross-bordertrade.Suchproposalswouldinvolveterminals,large-scalestorageofhydrogen,hydrogencarriers,conversiontechnologies,andrefuelingstationnetworks.Asinternationalcooperationamonggovernmentsadvances,industryshouldactivelyhelpprioritizeactionstoenabletradeflowsthatefficientlymatchsupplyanddemandacrossborders.8IPHEWorkingPaper,MethodologyforDeterminingtheGreenhouseGasEmissionsAssociatedwiththeProductionofHydrogen16HydrogenInsightsReportSeptember2022HydrogenCouncil,McKinsey&Company

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