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文档简介
Innovation
Amplifiers:
Getting
More
Bangfor
the
Buck
on
GHG
ReductionsED
RIGHTOR
|JULY
2023ThepaceofGHG
reductionsneeds
togreatlyaccelerate.Recentinvestmentsareagreatstartbutarenotsufficient.Weneedtoamplifythecurrentinvestmentstoachievecleanenergyas
thenormandimprovecompetitiveness.KEY
TAKEAWAYS.....ThepaceofglobalGHGreductionsisfarfrom
what’sneededtostabilizetheclimate.Emissionsaregoingupincontrasttoprojectionsandcommitments
thatthey’dbegoingdown.Thetax
incentivesin
the
recentIRAlegislationwill
expandclean
energygeneration,distribution,andusebutareinsufficienttodrivethe
RD&Dneededtodecreasethe
costsoflow-carbontechnologies,supportinfrastructure,andimplementsolutions.Forthe
currentportfolioofinvestments,DOEand
otheragenciesneed
tocapturesignificantly
morevaluefromtheresourcestheycommitby
adopting
knowledgeandapplicationamplifierswithgoal-directedresearch.DOEshoulddevelophigh
leveragecapabilities(e.g.,electrochemistry,
composites,energystorage);pursuescience
andengineeringto
addresscrosscuttingconstraints;andrallydiversecollaboratornetworksfocused
onaudaciousgoals.DOEalsoshouldencouragespilloversintoadjacentorunseenapplicationsandmarkets;increaseoutreachandtransparencyto
engageecosystemsof
collaborators;andusetheinvestmentsinhydrogen
andCCUShubstoutilizearangeof
amplifiers.CONTENTSKeyTakeaways
1ExecutiveSummary
2Introduction
3WhatIsanAmplifier?
4ImprovedClarityandFewerConstraints
4KnowledgeSpillovers
5ApplicationSpillovers
5ClearSolutionPaths
5StrategicUseof
Resources
6IntersectionalThinking
6SupportNetworks
6Goal-DirectedResearch
7HowCanWeFosterAmplifiers?
7HowAreDOE,DOD,andOtherAgenciesUsingAmplifiers?
9HowCouldAmplifiersMaximize
the
Impactof
RecentFunding?
11ConclusionsandRecommendations
13Endnotes
15EXECUTIVE
SUMMARYTheworld
isbehind
thecurveinaddressingclimatechange.
Weneed
toamplifytheimpactofglobalgreenhousegas(GHG)reduction
initiatives.DespiterecenthistoricUnitedStatesinvestmentstospurcleanenergy
technologies,we
simply
can’treduceGHGsfastenoughwiththelimitedresourcescommittedglobally—andadditionalmassivefundingisunlikely.
WeneedbiggerandfasterGHGreductionsfromthe
fundsalreadycommitted.But
how?Pursuingamplifiersisan
underutilizedapproachthatcouldcascadeGHGreductionsin
multipleareas
simultaneously.
Amplifiersleverage
resourcesandknowledgetogreatlyincrease
impact,removeconstraints,or
expandapplications.Theyspurcreativethinking
thatleadsto
innovativesolutions
to
toughproblems.Amplifierssuchas
spilloversincreasetheimpactof
innovations.Forexample,
lithium-ionbatteriesdeveloped
for
smallconsumerelectronicsaremakinganevenlargerimpactpoweringelectricvehiclesand
stationarybatteries.Lookingahead,innovationsincorecapabilitiessuchaselectrochemistrycouldamplifyGHGreductions
in
batteries,hydrogenfuelcells,andwaterelectrolyzers,and
converting
carbondioxide(CO
)
into
value-added2products.Likeincreasingthepowerofamplifiersataconcert,weneed
to“crankit
up”intermsof
GHGreductions.TheDepartmentofEnergy
(DOE)and
researchpartnerscan
getmorebangforthebuckfromrecentinvestmentsbypursuingamplifiersin
“EnergyEarthshots.”1
DOEshouldINFORMATIONTECHNOLOGY&INNOVATIONFOUNDATION
|
JULY2023PAGE2engagediverseinnovatornetworksacrossmultiple
partners
todevelopand
applyexpertise
withhighleveragepotential(e.g.,electrochemistry,composite
materials,separations,energystorage).MakingbigGHGreductionsfastisvital.Usingamplifierstodeliverthosebiggerreductionsfasterwillbe
crucialto
achievingaudaciousGHGreductionand
sustainabilitygoals.INTRODUCTIONSocietyiswaybehindthepacewhenit
comestoGHGreductionsneededto
avoid
theworstimpactsof
climatechange.2
Recentinvestmentsprovideastartfor
the
transformation
requiredbutare
farfromthe
level
currentlyneeded.Onewaytoachievefargreaterimpactfromthelimitedresourcesavailable—get“morebang
forthebuck”—isbyidentifyingandpursuingamplifiersto
increase
leverageand
marketpull.Thescaleofthetransformationneededacrossenergysystems,manufacturing,buildings,transportation,supplychains,and
thewaythatpeopleuse
energyiscolossal.Theresourcescommitted
tothisradicalchangein
averycompressedtimewindowarelimitedconsideringthescale
ofthechange
needed.This
isaglobalproblem,and
thelevelofglobalinvestmentneededwillbe
enormous,butthe
consequencesofnotmakingthetransformationareunthinkable.Estimatesof
the
globalinvestmentneededareabove$130trillionthrough
2050.3
Between2021and2025,$2.6trillionperyearis
needed—andthisincreasesbeyond2025to$4.5trillion/year.Bycomparison,the$35billionauthorized
forcleanenergytechnologyis
merelyablip.4
Andprospectsforadditionalfundingin
the
nextfewyearsaredim,so
makingthemostofthelimitedfundsis
vital.Gettingmorebangforthebuckmatters,
astheinnovationsneededto
enablethe
technologicalchangeareenormousandlow-carbon
technologiesneedto
gettoprice
and
performanceparitywithincumbentsolutionsfast.6Thiswillrequire
largeanddurableresearch,
development,anddemonstration(RD&D)investmentsas
adoptionfacesdisplacingwell-entrenched,less-expensivetechnologiesandprocesses.Sectorssuchas
industry,aviation,and
marineareveryheterogeneous,whileintegration(e.g.,complex
linkagesbetweeninputsand
outputs)and
risksfor
implementationarehigh.Theneedsforinnovation
toachievenet-zeroemissionsareprofound.Nearlyhalf
thetechnologiesneededto
reachnetzeroby2050arestillinprototypeor
demonstration
stage.5
Sectorssuch
asindustry,aviation,andmarine
areevenmoredependentonemergenttechnologies.Acceleratedadoptionwillrequiredemonstrationsinmultipleconfigurations,
applications,andregionalcontexts,so
innovation
in
implementationis
importanttoo.Thelow-carbonapproachesfortransitioningenergyusesuch
asrenewable
hydrogen,
convertingCO
intousefulproducts,
electrifying
manufacturingprocesses,
andmitigatingremaining2emissionsfrom
hard-to-abateprocessesbycarbon
captureutilizationandstorage(CCUS)aresignificantlymoreexpensivethanincumbentsolutions.Thatpricegapwillleadtoslowadoption,whichmeansit’sessentialto
reachpriceparitywhiledeliveringthesameperformance.6
There’sacriticalneedtoamplifyoureffortsgivenlimited
resources,a
shorttimewindow,and
myriadadoptionchallenges.INFORMATIONTECHNOLOGY&INNOVATIONFOUNDATION
|
JULY2023PAGE3Thisreportexploreshow
toidentifyand
pursueamplifiersto
accelerateGHGreductions,highlightingpolicyenablersandwaysagenciescanexpandthe
impactoffundsprovidedbytheInflationReductionAct
(IRA)andBipartisan
InfrastructureLaw(BIL).WHAT
IS
AN
AMPLIFIER?Amplifiersare
approachestoprogrammanagementthatleverageresourcesandknowledgetogreatly
increase
the
impactofinputs,removeconstraints,
orexpanda
range
ofapplications.InthecontextofGHGreductions,anamplifiergreatlyexpands
themagnitudeofemissionsreductions
forthe
resourcesavailable.Figure1showstheseveralcategoriesofamplifiers,followedbyillustrativeexamplesforeach.Butas
therearemanywaysamplifierscanbecreativelyapplied,thislistisnotmeanttobeexhaustive.Figure
1:
Categories
of
amplifiersImprovedClarity,FewerConstraintsSupportNetworksKnowledgeSpilloversGoal-DirectedResearchIntersectionalThinkingClear
SolutionPathwaysStrategicResourcesImproved
Clarity
and
Fewer
ConstraintsTherearemultipleways
inwhichremovalof
constraints(capital,risk,
technicalissues,etc.)andimproved
claritycan
yieldamplified
impact.
Operation
WarpSpeed
(OWS)intheUnitedStateswassuccessful
in
removingRD&Dandregulatoryrisk
toaccelerateCOVID-19vaccinedevelopment.7
RD&Doftenhasassociatedrisksregardingwhetherofferingswillmeettheneedsofcustomersandif
they’llpurchasetheproductdeveloped.Thegovernmentlargelyeliminatedthose
risksbyguaranteeingthepurchaseof
thevaccinesandprovidingfinancingregardlessofregulatoryapproval.Normalregulatoryprocessesfor
medicalproductscan
takeyears—acloudofINFORMATIONTECHNOLOGY&INNOVATIONFOUNDATION
|
JULY2023PAGE4uncertaintyforproductdevelopers’approvaltimingandapplicationconstraints.Thegovernmentminimized
theserisksbyfast-trackingapprovalforthevaccinesandaidedcontractinganddistribution,furtherminimizing
risks.
Multipleagenciesandprivatesectorcompaniespartneredtospeeddevelopmentanddeploymentwhileeffectivelyaddressinghurdles.TheDefenseAdvancedResearchProjectsAgency(DARPA)playedanearlyroleby
seeingthepotentialforthe
mRNAtechnologyforvaccines,supportingdevelopment,buildingnetworks
ofresearchers,and
lowering
technicalrisks—startingeightyearsbefore
thepandemic.8
DARPAhasahistory
ofpioneeringinnovationsthathavebeen
pickedupby
markets.ExamplesincludetheInternet,
miniaturizedglobalpositioningsystem(GPS)devices,unmanned
aerialvehicles(drones),and
flatscreen
displays.9Knowledge
SpilloversSpilloversincreasetherateoflearning
andapplication
inareasthatwerenot
the
originaltargetofinnovationactivity.10
Knowledgespilloversincorporate
newprinciplesintootherapplicationsincreasingthe
rateofinnovationin
thenewarea.
Oneexample,as
noted
is
theadoption
ofsemiconductormanufacturingprocesses
andleveragedsiliconproductionwithphotovoltaic(PV)cells.Thiscontributed
to
thedominanceofPVs(overcompetingthin
films)after2000withpolysiliconcostsdroppingto10percentthatofthe1975level.9Anotheraspectof
thesespilloversoccurswhenresearcherspursueinnovationsinunfamiliarfields
inwhichtheycandevelopnewinsights.Theseinterloperscanbe
“cross-pollinators”thathelpdevelop
innovativeideas.11
Thediversityinthinkingat
theintersection
offields,culture,andexperiencescan
yielduniqueperspectives.Forexample,
theemergencyroom(ER)
staffat
ahospital
whowere
seekinginnovative,nontraditionalmethodstominimize
mistakesobservedcarracingpitcrewsunderpressure—notERsat
otherhospitals.12Application
SpilloversApplicationspilloversinvolveatechnologydevelopedfor
oneapplicationbeingpickedupbyanotherapplication
oradjacentmarket.Forexample,gas
turbines
originallydevelopedandapplied
forjetengineswerelateradaptedfornaturalgasturbines.13
Spilloverscanshareacommonscientificbase,manufacturing
techniques,andoperationskills.ThemultitudeofapplicationspilloversfromtheNASA
moonshotsareprime
examples.14
Theincreased
impactsandacceleratedspeedfrom
spilloverswerealsoimportantforthe
rapidpreparationofmaterialsforWorld
War
II,wheretheyenabledcollaborationtoturnfailuresintosuccessesinotherapplicationsand
acceleratedprogressin
the
faceof
scarceinputs.15Clear
Solution
PathsAmplifierscanalsorevealnewknowledgethatallowsfor
aclearerpath
tosolutions.ThedevelopmentofvaccinesbyOWSenabledthemappingofsupplychainsfortherapidmanufacture,transportation,anddeploymentof
vaccines.Thismappingwasakeypartoftherapid
responsetothepandemic,as
it
identifiedvulnerabilitiesandwasused
alongwithmanufacturing
forecastingandinvestingtoclosegapsbefore
theyarose.7
ThisalsouncoveredthatPfizerknew
itssupplychain,as
didSanofi,but
knowledgeoftheentiresupply
chainneededfor
manufactureanddistributionwasunknown.Thisisanexampleof
findingclarityonhow
toutilizeacomplexproductionanddeliveryprocess
more
effectivelyfromend
toend.INFORMATIONTECHNOLOGY&INNOVATIONFOUNDATION
|
JULY2023PAGE5Therearealsoexampleswhereinnew
insightscan
come
frommore
clearlyseeinghowtoorchestratesolutionsincomplex,nonlinear,or
multivariatesystems.Analysesofpatentsassociatedwithcomplexareas
showthedisproportionatebenefitsofscienceuncoveringpreviouslyunrecognized
relationships.Sciencecan
helpinventorsboth
find
theirwaytounfamiliarplacesandconvinceothersthat
whattheyfound
isvaluable.16Strategic
Use
of
ResourcesGreaterimpactisrealizedwhenthevalueisleveragedacrossmultipleorganizations.Forexample,acompanywith
therightstobuildroads,
bridges,orcommunicationsnetworkscanoperatemoreefficientlyinmovingitsgoodsor
information.Thisimpact,however,canbefargreaterif
thetechnologyisshared
amongmultiplecompaniesconnectingmoreproducers,sellers,
andendconsumers.
Inanotherexample,systemsengineeringchallengeswerenotreadilydivisibleduringtechnologydevelopmentassociatedwith
WWII,
sothe
developmentofradarwasconcentrated
atthe
MassachusettsInstituteof
Technology.15
Conversely,paralleleffortswerefavoredforfissionandthedevelopmentof
penicillinandmedicinestoaddressmalaria.Intersectional
ThinkingFransJohannsen,inThe
MediciEffect,explained
thatincreasedcreativitycomeswhentalentedpeoplewithdifferent
backgroundsanddisciplinescollaborate,yielding
step-changeimprovements.11Creativitywillflourishwhenpeoplewithdiversebackground,cultures,educations,and
valuescollaborate.Attheseintersectionsof
thinking,new
approachesandbreakthroughscanoccur.
Peopleoutsideacertain
fieldofstudydon’thave
thesameassumptionsor
are
able
tochallenge
thosealreadypresent,and
ideascanbe
combinedinnewways.DARPApromotes
this
intersectionalityin
theteamstheybuild
andinteractionsthey
spuramongnetworks.TheAdvanced
ResearchProjectsAgency-Energy(ARPA-E)promotesit
at
theirinnovation
summitswheretechnologydevelopersfromall
overthe
globeworkingondiverseproblemshaveanopportunityto
interact.7
Successesfrom
theARPA-Eprogramincludewide-bandgapsemiconductorsandmobiledetectionfor
methane
leakdetection
among
the135companies,
morethan1,000patents,andover300licensesresultingfrom
supportedprograms.17Support
NetworksSupportnetworksenabletherapidexchangeof
knowledgeand
spurcreativitybetweenresearchersin
overlappingdisciplines,
encouragingcross-fertilizationand
innovation.
Whenthesenetworksare
focusedon
acommongoal,progresscanbeacceleratedby
thecommunityofcollaboratorsthatexpand
expertiseanddrivedurableprogress.Forexample,DARPAisknownforbuildingstrongnetworksofcollaboratorsthatfocus
onagoal,withthenetworkstappingabroad
range
ofexpertiseanddisciplines.7Thenetworkscanrangefromacademiato
emergingtechnologyfirmsthatlackexperienceasdefensecontractors.
Inanotherexample,theUnitedStatesgovernmentspurred
thedevelopmentofpublic-privatenetworksleadingtonumerousPV
inventions/innovationsinthe1970s.7
However,at
thesametime,asimilarfederalprogram
encouragingpublic-privatenetworksandinnovationecosystemstodrive
theapplicationof
technologywaslargely
absent,allowingGermany,
Japan,andSpaintohavetheupperhand
in
installationspercapita.INFORMATIONTECHNOLOGY&INNOVATIONFOUNDATION
|
JULY2023PAGE6Goal-Directed
ResearchCreative
innovationwillmake
thegreatestdifferenceinaddressingclimatestabilization,
ifdirected
toward
thatcause.Thisalignswithpriorlearnings.Goal-directed
researchwasvitaltotheUnitedStatesOfficeofScientificResearchandDevelopment(OSRD)developmentofinnovativesolutionstochallengesduringWWIIsuchasthe
ManhattanProject.12
Thatexperiencealsoshowedthe
tensionsbetweentheneeds
forveryrapid
innovationin
multipleareas,severetimeconstraints/urgency,
limitedresources,and
highcosts.Discoveringunusualcombinationsofideas
viaamplifiersmay
berelativelyinexpensive,butcommercializingthosebreakthroughsmayrequire
more
time
tofullydeploy,as
theseuniquesolutionsare
stillrelativelynewanduntested.TheHumanGenomeproject’ssuccesswithprivateRD&Ddirectedtowardasocietalgoalchangedthewaybiomedicalresearchisstructured.18
Theevolution
of“grand
challenges”providesadditionalsteeringforresearch.19
Thenotionofchallenge-basedresearchhasbeenpickedup
inEuropeto
createaresearchagendawithsocietyand
activeparticipantstakeholders.20HOW
CAN
WE
FOSTER
AMPLIFIERS?Thereareseveralroutestobolsteramplifiers.Projectsand
eventsthatgatherexpertsfromdifferentfieldsof
studyencourage
cross-fertilizationofideas,
learning,andcollaborationsthatleadtonewcombinations
ofapproachestosolutions.Gathering
innovators
in
multiple
fields
across
art,
sciences,
literature,
etc.
harkensback
totheMedicis,
awealthybankingandmerchantfamily
thatspurred
innovationin
16thcenturyFlorenceviathis
method.
Theresultingnexusof
intellectualthinkingcontributedtoEurope’srenaissance.21
Thecollisionofdifferentperspectives,lifeexperiences,andculturescan
lead
toexperimentationoutsidetheboundsofpreviousthoughtpatterns—whichsometimesareconstrainedbytheestablished“rules”of
afieldofpractice.Peoplethatconsiderproblemsinareas
thatarenewto
themdon’thavethebiasesandthereforedon’thavetounlearn“traditional”learning.Thisallowspeopleworking
attheseinterfacesto
spontaneouslyconnectdisparate
concepts,ideas,ingredients,approaches,etc.Diverse
networks,
collaborations,
and
partnerships
formwhenpeoplewithdivergentexperiencesandperspectivescome
together.Akey
tofosteringintersectionalthinking
is
togatherpeoplefromdifferentfieldsand
focus
theircreativethinkingonachallenge(e.g.,goal-directedRD&D).Peoplewhoarenaturallycuriousandinterestedin
topicsbeyond
theirexpertise
and
training—andasklotsofthought-provokingquestionsandenjoypursuingthem—are
goodcandidates.Thestrategyoffostering
networksis
centraltoDARPA,andit
intentionallybringstogetherarangeof
expertsfrommultipledisciplinesandfocusesthemon
achallenge.22
Thismodelisalsoemployed
intheNationalNetwork
forManufacturingInnovation(NNMI),wheretheinvolvementofnetworkstoaddresscrosscuttingopportunitiesisrecognized.23
Expansion
ofnetworkstoinclude
internationalpeersin
overlappingfieldscanspeedthetransferofknowledge,
identifyinnovation
gaps,and
avoidduplicationofefforts.
ExistingmultilateralprogramsincludetheInternationalEnergyAgency’s(IEA’s)technologycollaborationprograms,
Mission
Innovation,andtheCleanEnergyMinisterial.6INFORMATIONTECHNOLOGY&INNOVATIONFOUNDATION
|
JULY2023PAGE7Spurring
development
of
new
insights
in
complex
areas
is
anotherroute.Thiscanoccurinareasthatarewellcovered—wherenewapproaches,tools,or
re-examinationof
assumptionscan
yieldnewpaths
tosolutions.Or
it
canoccurinunexploredareas.Theimprovedabilityto
modelmyriadparametersquicklywith
emerging
artificialintelligence(AI),
machinelearning,quantumcomputing,etc.isexpectedtoprovidegreaterunderstanding
ofhow
tooptimizecomplexsystemsanddynamicallyadjusttochanging
marketneedsandopportunities.Understandinghow
toconnectmarketpushand
pullmechanisms,andhowtooptimize
interactionsacrosscomplexsupplychains,
presentsadditionalopportunitiesin
this
area.24
Expanding
accessto
informationorusingthe
voluminouslevelof
digitaldataavailableto
identifytrendsand
interpretthemformore
rapiddecision-makingfitshereaswell.Encouraging
new
approaches
and
business
models
isyetanotherapproach.Forexample,increasingthescaleof
productionaidstheabilityofcompaniestocompete.Thisleadstolargerandlargerfacilitiesin
centralized
locations.Thepandemic,however,exposed
severalsupplychaingapswiththatmodelandinherentvulnerabilitieswithjust-in-time-delivery.Aconverse
approachispursuingsmallermodularunits
closertocustomers(shortersupplychains)thatarenimblerandcanachievescaleby
stackingproductionfrom
identicalunits.Thosepursuingdistributedmanufacturing
toutthe
increased
opportunitiesfor
radicallydifferentbusinessmodelsinwhichdata-drivenopen
innovationprovidesgreaterflexibilityandtheabilitytocustomize,andmeetfastdeliveryrequirementsofcustomers.25Inspiring
the
development
of
deep
expertise
in
areas
with
broad
applicability
is
centraltoamplification.Thereare
multipleopportunitieswheresharedexpertisecouldbenefitcleanenergyinnovation.Forexample,
theareaofelectrochemistryiscentraltoinnovationinbatteries,electrolyzers(e.g.,generationof
renewable
hydrogen),fuelcells,and
many
othercleantechnologyapplications.9
Developmentofexpertiseinthisareaandencouragingexpertsto
movefromoneapplicationareatoanotherisawayto
encourage
innovation.Otherareaswhereexpertisecouldbecentralto
innovationscouldincludeenergystorage,separations,
lightweightmaterials,
quantumcomputing,AI,advanced
manufacturing/automation,
andbiotechnology.Supporting
early
markets
is
key.
It’schallengingfor
entrepreneurstocommercializeinventions.Encouragementin
targetedareas
ofmarketor
societalchallengescan
decreasethe
hurdlesandspeedinnovation.DARPAusesthisapproach
byservingasanearlymarketforinformationtechnology(IT)products.
Byencouraging“connectedRD&D,”DARPAprovidesnotonlyinsightsintocustomerneedsbutalsoconnectionsto
interestedpartieswillingto
trialconcepts.26
DARPAandtheDepartmentofDefense(DOD)werethe
firstadoptersofITadvancesforworkstations(SunMicrosystems,SiliconGraphics)andInternetforerunnersARPANETandMILNET.27
DARPAprovidedacriticalassisttothe
launchingof
Sunby
extending
fundstoacademicinstitutions,therebypermittingthem
toacquireworkstations.
Orders
fromDARPA-connectedacademicpartnersaccountedfor
80
percentoftheordersreceivedby
Sunin
itsfirstyearof
business.34DARPAreliedonitsconnectionsand
tiesto
largerinnovation
systemstonurture
internalandexternalmultilayerednetworkstospurinnovation
whileengagingadiverserangeof
researchersandendusers.28There’salsotheapproachofofferingprizestospurinnovation,whichwouldseemtosupportinnovationby
entrepreneurs.There’sbeenaboominlargeprizessince1970,
withinducementprizesaccountingfor78
percentoftotalprizes.29
Yet,quantitativeevidencefor
theeffectofINFORMATIONTECHNOLOGY&INNOVATIONFOUNDATION
|
JULY2023PAGE8prizesisnotstrong.
Whereprizesarechosen,theymaybeparticularlyappropriatefordevelopingtechnologytobreakcriticaltechnologicalbarriers,
achieve
higherperformance,orstimulatethediffusionorcommercialization
oftechnologies.30
Theseareasalignwithamplifieruse,socarefulselection
ofgoalsandmetricsinthedesign
ofprizescouldbe
consideredtoinspire
thosepursuingearlymarkets.Be
alert
for
adjacent
markets
and
applications.
Goal-oriented
RD&Dshould
recognizethatwhileinnovationsaretargetedforonearea,
there
maybe
adjacentmarketsor
applicationswithevenlargerimpactor
a
moredirectpathwaytoadoption.Often
innovatorshave
tunnelvision—focusedon
meetingamarketneedthatjustifiestheirtimeandenergyindevelopingasolution—butareunawareofadjacentor
unseenmarkets,asnotedbyPeterDruckerdecadesago.31
Amplifierscan
revealabroadermarketto
innovatorsaugmentingthebusinesscaseand
providinggreaterscale.Thecompanythatdevelopedthefirstcomputer,Univac,sawthatit
would
begreatforscientificresearchbut
didn’tsee
the
marketforbusiness,letalonepersonalcomputing.Severalmarkets
connectedwithelectrochemistrymaybe
modesttoday,but
whencombinedwiththepotentialforleverageable
innovations,becomequiteattractive.Theglobalmarketforelectrolyzersis$1.2billion
in2023butexpected
reach$24billionby
2028(a
compoundannualgrowth
rate(CAGR)of80percent).32
Theglobalmarketforhydrogen
fuelcellswas
$14.7billion/yearin2021
andisprojected
tobea$80billion/yearmarketby2030
(CAGR21
percent).33
Themarketpotentialinchemicalsand
fuelsis
immensegiven
thearrayofproductsandneedtodecarbonize.34
Theglobalmarketforethylene(oneofthelargestcommodity
chemicals)in2021was$176
billionandisprojectedtoreach$287billionby2030.35Entrepreneurscan
spurdisruptiveinnovationby
reorganizingacurrentmarketorcreating
anewonethroughthe
applicationofexistingtechnologiestonewprocessesor
business
models.Thelatterishardtounderstand,asit’sdifficulttodoresearchonamarketthatdoesn’texistyet.Nevertheless,unseenmarketscanbe
thepathto
successand
should
betappedbyamplifiers.HOW
ARE
DOE,
DOD,
AND
OTHER
AGENCIES
USING
AMPLIFIERS?Severalagenciesrecognizethebenefitsofleveraginginnovationsacrossmultipleare
温馨提示
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