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Emerging Sustainable
Investing Opportunities:
Controlled-Environment
Agriculture
How controlled-environment agriculture can create
a double bottom line of financial returns and positive
social and environmental Impact
PitchBook is a Morningstar company providing the most comprehensive, most
accurate, and hard-to-find data for professionals doing business in the private markets.
Insiuional esearch roup
nalsis
Daa
Alyssa Williams
Senior Data Analyst
pbinstitutionalresearch @pitchbook.com
Publishing
Designed by Julia Midkiff
Published on December 20, 2023
Contents
Key takeaways 1
Introduction 2
Financial return potential 4
Environmental and social Impact
potential
8
Anikka Villegas
Analyst, Fund Strategies &
Sustainable Investing
anikka.villegas@pitchbook.com
Insights developed in collaboration with
AlexFrederick, Sr. Analyst, Emerging Technology
at PitchBook Data.
PitchBook Data, Inc.
John Gabbert Founder, CEO
Nizar Tarhuni Vice President, Institutional
Research and Editorial
Daniel Cook, CFA Head of Quantitative Research
Key takeaways
Controlled-environment agriculture is a solution to the problem of feeding a
growing population while dealing with the challenges of climate change.
The financial return potential of this opportunity is underpinned by scaling
demand for secure and local food, the need for climate-resilient agriculture,
government funding and regulatory support, and tailwinds from the natural and
organic foods movements.
Controlled-environment agriculture has the potential to create positive
environmental Impacts through improved resource efficiency in agriculture,
pollution and contamination prevention, and decreased transportation of
produce. From a social perspective, it has the potential to generate positive
Impacts in terms of improving food security, reducing negative human health
outcomes, enabling efficient land usage, and creating quality employment.
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Q4 2023 Emerging Sustainable Investing Opportunities: Controlled-Environment Agriculture
Introduction
Venture capital, often serving as the incubator of emerging technologies, is
well positioned to invest with positive social and environmental Impact goals in
mind. Venture capitalists can utilize their expertise and resources to foster the
businesses that have the greatest potential for both Impact and returns, especially
when keeping an eye on companies for which success necessarily marries the two.
This fact has not gone unnoticed by venture capitalists, which comprise 39.8% of
the total count of Impact funds raised since 2007.1 Yet the landscape of prospective
opportunities is expansive and rapidly evolving, making it difficult to keep track of
which companies have the greatest financial—and Impact—return potential.
Emerging opportunities often go beyond the investment areas traditionally
associated with sustainability, such as solar energy or electric vehicles,
encompassing a host of lesser-known technologies. Even within the familiar
themes, niche investment opportunities are developing. In this analyst note
series, we surface opportunities across emerging technology verticals—such as
agricultural technology (agtech), mobility tech, and carbon & emissions tech—that
we believe are poised to perform well within the next decade from both a financial-
return and an Impact-return perspective. In doing so, we hope to help guide venture
capitalists pursuing the “double bottom line“ through the complex landscape to the
most fruitful opportunities.
For each analyst note in the series, insights are developed in collaboration with
a PitchBook Emerging Technology analyst covering the relevant vertical, using
their subject matter expertise and previous research, as well as some external
resources, to inform our perspective on the space. We discuss the opportunitys
major drivers of return potential as well as the investment risks and obstacles
it faces. We also explore its social and environmental Impact potential, how the
opportunity fits into various IRIS+ Impact themes,2 and potential metrics to help
quantify those Impacts. Ultimately, the aim of this research is to give venture
capitalists and their LPs a better understanding of how the opportunities align
with their return and sustainability goals and provide companies operating in
these spaces a sense of how to optimize and communicate their social and
environmental Impact.
1: For more Impact fundraising data, check out our 2023 Impact Investing Update.
2: The Impact Reporting and Investing Standards (IRIS+) framework, created by the Global Impact Investing Network (GIIN), is an industry-leading
methodology aiding investors in sorting Impact investments by the types of Impact they are targeting. Learn more about the IRIS+ categories in the
Global Impact Investing Network’s IRIS+ Thematic Taxonomy.
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Q4 2023 Emerging Sustainable Investing Opportunities: Controlled-Environment Agriculture
3: For a more detailed overview of the indoor farming space, download our Emerging Space Brief: Indoor Farming.
Source: PitchBook • Geography: Global
*As of December 5, 2023
$0 $0 $0.2
$0.2
$0.4 $0.4 $0.8 $1.4 $3.0 $2.5 $0.5
16 25
52 46
74
112 111
139
166
140
75
2013 2014 2015 2016 2017 2018 2019 2020 2021 2022
2023*
Deal value ($B) Deal count
Controlled-environment agriculture VC deal activity
This analyst note focuses on controlled-environment agriculture (CEA), which
refers to technology-enabled agriculture that uses contained and regulated
growing conditions, and includes greenhouse farming, indoor farming, and vertical
farming. Emerging CEA companies frequently use evolving technologies related to
climate control, hydroponics, and artificial lighting.3 Due to climate change and the
extreme weather events accompanying it, CEA is likely to become a necessity in
the future of global food production—although its proliferation will not be without
its difficulties. Since 2013, 432 VC-backed companies have entered the CEA space,
with $9.4 billion in investment.
PitchBookData,Inc.EmergingSustainableInvestingOpportunities:JohnGabbertFounder,CEOControlled-EnvironmentNizarTarhuniVicePresident,InstitutionalAgricultureResearchandEditorialDanielCook,CFAHeadofQuantitativeResearchHowcontrolled-environmentagriculturecancreateadoublebottomlineoffinancialreturnsandpositiveInstitutionalResearchGroupsocialandenvironmentalImpactAnalysisPitchBookisaMorningstarcompanyprovidingthemostcomprehensive,mostaccurate,andhard-to-finddataforprofessionalsdoingbusinessintheprivatemarkets.AnikkaVillegasAnalyst,FundStrategies&KeytakeawaysSustainableInvestinganikka.villegas@pitchbook.com•Controlled-environmentagricultureisasolutiontotheproblemoffeedingagrowingpopulationwhiledealingwiththechallengesofclimatechange.InsightsdevelopedincollaborationwithAlexFrederick,Sr.Analyst,EmergingTechnology•ThefinancialreturnpotentialofthisopportunityisunderpinnedbyscalingatPitchBookData.demandforsecureandlocalfood,theneedforclimate-resilientagriculture,governmentfundingandregulatorysupport,andtailwindsfromthenaturalandDataorganicfoodsmovements.AlyssaWilliamsSeniorDataAnalyst•Controlled-environmentagriculturehasthepotentialtocreatepositiveenvironmentalImpactsthroughimprovedresourceefficiencyinagriculture,pbinstitutionalresearch­@pitchbook.compollutionandcontaminationprevention,anddecreasedtransportationofproduce.Fromasocialperspective,ithasthepotentialtogeneratepositivePublishingImpactsintermsofimprovingfoodsecurity,reducingnegativehumanhealthoutcomes,enablingefficientlandusage,andcreatingqualityemployment.DesignedbyJuliaMidkiffPublishedonDecember20,2023ContentsKeytakeaways1Introduction2Financialreturnpotential4EnvironmentalandsocialImpact8potential1Q42023EmergingSustainableInvestingOpportunities:Controlled-EnvironmentAgricultureIntroductionVenturecapital,oftenservingastheincubatorofemergingtechnologies,iswellpositionedtoinvestwithpositivesocialandenvironmentalImpactgoalsinmind.VenturecapitalistscanutilizetheirexpertiseandresourcestofosterthebusinessesthathavethegreatestpotentialforbothImpactandreturns,especiallywhenkeepinganeyeoncompaniesforwhichsuccessnecessarilymarriesthetwo.Thisfacthasnotgoneunnoticedbyventurecapitalists,whichcomprise39.8%ofthetotalcountofImpactfundsraisedsince2007.1Yetthelandscapeofprospectiveopportunitiesisexpansiveandrapidlyevolving,makingitdifficulttokeeptrackofwhichcompanieshavethegreatestfinancial—andImpact—returnpotential.Emergingopportunitiesoftengobeyondtheinvestmentareastraditionallyassociatedwithsustainability,suchassolarenergyorelectricvehicles,encompassingahostoflesser-knowntechnologies.Evenwithinthefamiliarthemes,nicheinvestmentopportunitiesaredeveloping.Inthisanalystnoteseries,wesurfaceopportunitiesacrossemergingtechnologyverticals—suchasagriculturaltechnology(agtech),mobilitytech,andcarbon&emissionstech—thatwebelievearepoisedtoperformwellwithinthenextdecadefrombothafinancial-returnandanImpact-returnperspective.Indoingso,wehopetohelpguideventurecapitalistspursuingthe“doublebottomline“throughthecomplexlandscapetothemostfruitfulopportunities.Foreachanalystnoteintheseries,insightsaredevelopedincollaborationwithaPitchBookEmergingTechnologyanalystcoveringtherelevantvertical,usingtheirsubjectmatterexpertiseandpreviousresearch,aswellassomeexternalresources,toinformourperspectiveonthespace.Wediscusstheopportunity’smajordriversofreturnpotentialaswellastheinvestmentrisksandobstaclesitfaces.WealsoexploreitssocialandenvironmentalImpactpotential,howtheopportunityfitsintovariousIRIS+Impactthemes,2andpotentialmetricstohelpquantifythoseImpacts.Ultimately,theaimofthisresearchistogiveventurecapitalistsandtheirLPsabetterunderstandingofhowtheopportunitiesalignwiththeirreturnandsustainabilitygoalsandprovidecompaniesoperatinginthesespacesasenseofhowtooptimizeandcommunicatetheirsocialandenvironmentalImpact.1:FormoreImpactfundraisingdata,checkoutour2023ImpactInvestingUpdate.2:TheImpactReportingandInvestingStandards(IRIS+)framework,createdbytheGlobalImpactInvestingNetwork(GIIN),isanindustry-leadingmethodologyaidinginvestorsinsortingImpactinvestmentsbythetypesofImpacttheyaretargeting.LearnmoreabouttheIRIS+categoriesintheGlobalImpactInvestingNetwork’sIRIS+ThematicTaxonomy.2Q42023EmergingSustainableInvestingOpportunities:Controlled-EnvironmentAgricultureThisanalystnotefocusesoncontrolled-environmentagriculture(CEA),whichreferstotechnology-enabledagriculturethatusescontainedandregulatedgrowingconditions,andincludesgreenhousefarming,indoorfarming,andverticalfarming.EmergingCEAcompaniesfrequentlyuseevolvingtechnologiesrelatedtoclimatecontrol,hydroponics,andartificiallighting.3Duetoclimatechangeandtheextremeweathereventsaccompanyingit,CEAislikelytobecomeanecessityinthefutureofglobalfoodproduction—althoughitsproliferationwillnotbewithoutitsdifficulties.Since2013,432VC-backedcompanieshaveenteredtheCEAspace,with$9.4billionininvestment.Controlled-environmentagricultureVCdealactivity166139140112111747552461625$0$0$0.2$0.2$0.4$0.4$0.8$1.4$3.0$2.5$0.520132014201520162017201820192020202120222023Dealvalue($B)DealcountSource:PitchBook•Geography:GlobalAsofDecember5,20233:Foramoredetailedoverviewoftheindoorfarmingspace,downloadourEmergingSpaceBrief:IndoorFarming.3If,andfarmorelikely,whenclimatechangeQ42023EmergingSustainableInvestingOpportunities:Controlled-EnvironmentAgriculturepersistsandintensifies,thedominantCEAplayerswillreaptherewardsofheightenedFinancialreturnpotentialdemandrelativetolimitedsupply,aswillinvestorsinCEAwithpatientcapital.Climatechange’spresentandprojectedimpactsonagriculturalyieldshaveraisedquestionsabouthowtofeedtheworld’sswellingpopulationinthecomingdecades.CEAislikelypartoftheanswerandwillincreasinglybenefitfromconsiderabletailwinds,althoughitalsofacessomemajorobstacles.CEAhashighstartupcostsandcanbecapital-intensiveduetothetypeofinfrastructureandtechnologyitrequires.Itusuallytakesseveralyearsforcompaniestobreakeven,andthetimetoprofitabilityisclosertoeightor10years,makingcompaniesreliantoncontinuedfinancialsupport.Yetif,andfarmorelikely,whenclimatechangepersistsandintensifies,thedominantCEAplayerswillreaptherewardsofheighteneddemandrelativetolimitedsupply,aswillinvestorsinCEAwithpatientcapital.Forthepurposesofthisreport,CEAcompaniesrefertofarmersoroperatorsusingCEAtechnologiesandpracticestogrowandsellproduce,althoughdevelopersofCEAtechnologiesandcomponentswillexperiencesomeofthesametailwindsandrisks.FourkeyfactorssupportCEA’sfinancialreturnpotential:growingdemandforfood,theneedforclimate-resilientagriculture,governmentfundingandregulatorysupport,andthenaturalandorganicfoodmovements.First,globaldemandforfoodisincreasing.TheUNFoodandAgricultureOrganizationpredictsthatapproximately60%morefoodwillbeneededtofeedapopulationof9.3billionpeople,4whichtheworldisprojectedtoexceedwithin30years.5Tofeedthegrowingpopulace,ashifttomoresustainabledietswillbenecessary,requiringlessconsumptionofruminantmeatsuchasbeef,lamb,andgoat,andmoreconsumptionofplant-basedfoods.6Long-termtrendsshowincreasingsharesofconsumerspendinggoingtohigher-valuefooditems,7includingfruitsandvegetables,withdecliningconsumerexpendituresonstaplecropssuchasriceandwheat.8Thesetrendswillintensifyasdevelopingcountriescontinuetourbanize,whichwillalterconsumers’dietsinfavorofhigher-valuefoods.9CEAisideallysuitedtotheproductionofcertainfruitsandvegetables,withsomeofthemostcommonlygrowntypesbeingtomatoes,cucumbers,strawberries,leafygreens,andmicrogreens.10Assuch,CEAcompaniesarewellpositionedtoproducesomeofthetypesoffoodsforwhichdemandwillgrowthemostrapidly.Second,climate-resilientagricultureisbecomingincreasinglynecessary.Thecostsofbillion-dollarextremeweathereventssuchasdroughts,wildfires,floods,severestorms,andcycloneshavebeenscalingsincethe1980s,11withmanyoftheseeventsinvolvingdamagetoagriculturallands,crops,andanimals.12Anthropogenicclimatechangeisgenerallymakingtheseeventsmorelikelyandmoreharmful,13sowithclimatechangeprovingexceedinglydifficulttoreverse,agriculturemustbeableto4:“FeedingtheWorldSustainably,”UnitedNations,UNChronicle,JoséGrazianoDaSilva,June2012.5:“WorldPopulationExpectedtoReach9.8Billionin2050,and11.2Billionin2100,”UnitedNations,DepartmentofEconomicandSocialAffairs,n.d.,accessedDecember5,2023.6:“HowtoSustainablyFeed10BillionPeopleby2050,in21Charts,”WorldResourcesInstitute,JanetRanganathan,etal.,December5,2018.7:PertheUnitedNations,high-valuefoodproductsfitintothreegroups:1)semiprocessedproducts,suchasfreshandfrozenmeats,flour,vegetableoils,roastedcoffee,andrefinedsugar;2)highlyprocessedproductsthatarereadyfortheconsumer,suchasmilk,cheese,wine,andbreakfastcereals;and3)high-valueunprocessedproductsthatarealsooftenconsumer-ready,suchasfreshanddriedfruitsandvegetables,eggs,andnuts.8:“Overview,”USDAEconomicResearchService,September15,2023.9:Ibid.10:“ControlledEnvironmentAgriculture:AFuturisticFixfortheFoodSystem,”L.E.K.,PeterWalter,RobWilson,andShangSaavedra,December1,2020.11:“TimeSeries,”NationalCentersforEnvironmentalInformation,December8,2023.12:“Events,”NationalCentersforEnvironmentalInformation,2023,accessedDecember5,2023.13:“AttributingExtremeWeathertoClimateChange,”CarbonBrief,n.d.,accessedDecember5,2023.4GovernmentfundingandregulatorysupportQ42023EmergingSustainableInvestingOpportunities:Controlled-EnvironmentAgricultureforCEAisontheriseasrecognitionofitseconomic,social,andenvironmentalImpacttoleratemorefrequentandworseextremeweather.Beyondtheseevents,climatepotentialgrows.changealsoresultsinmorepests,weeds,anddiseases;decreasedsoilquality;14andheightenedwaterscarcity—allofwhichfarmerswillneedtomanagemoreeffectivelyinthefuture.15CEAcanhelpaddresstheseissues,withtheprotectivebarrierofagreenhouseoredificereducingtheimpactsofextremeweathereventsaswellasthepresenceofpests,weeds,anddiseases.Further,CEAismorewater-efficient,whichcancreateacostbenefit,andoffersmorecontroloversoilhealth,withtechnologieslikehydroponicsandaeroponicsalsoenablinggrowthwithoutanysoilatall.16Asclimatechange’simpactsmanifestmoredramatically,conventionalgrowerswillstruggletomaintainoutput,andCEAcompanieswillbenefitbyfillinginthegapsinsupply.Third,governmentfundingandregulatorysupportforCEAisontheriseasrecognitionofitseconomic,social,andenvironmentalImpactpotentialgrows.IntheUS,legislationsuchasthe2018AgricultureImprovementAct,alsoknownastheFarmBill,includesprovisionsforgrantspromotingurban,indoor,andemergingfarmingpractices.17AmongthesearemicrograntstosupportlocallygrownfoodusingCEApracticesinfood-insecureareas,demonstratingfederalbuy-intotheideathatCEAcanhelpeliminatefoodswamps.18BeyondCEA-specificfundingopportunities,CEAoperatorscanalsotakeadvantageofmoregeneralistUSDepartmentofAgriculture(USDA)grantsandloans,althoughsometargetingsmallbusinesseswillnotbeapplicableasoperationsscale.19Othercountries,includingSingapore,20theUnitedArabEmirates,21Japan,22andCanada,23alsooffergrants,subsidies,andotherfinancialincentivestoCEAcompanies.Ofnote,pandemic-inducedsupplychaindisruptionsandtheRussia-Ukrainewarhavesparkedanewwaveofconcernsaboutfoodsovereignty,thusincreasinggovernmentinterestinreshoredagriculture,whichmaytranslatetomoresupportforCEAingeographieswhereconventionalagriculturefacesenvironmentalchallenges.Lastly,CEAexperiencestailwindsfromthegrowingnaturalandorganicfoodmovements,24whichwillstrengthenasclimatechangeprogresses.WhilesometypesofCEAsuchasverticalfarmingconjureimagesmorefuturisticthanold-fashioned,CEAproducewilllikelycometobethemorenaturaloption.Duetoclimatechange-inducedsoilerosionandnutrientdepletion,moreaggressiveplantdiseases,andincreasesinthenumberofpests,conventionalfarmerswillneedtoutilizemoresyntheticfertilizers,pesticides,andotherchemicals,aswellasgeneticengineering,intheirproductionprocesses.Withacontrolledenvironment,farmershavelessneedfortheseproductsandtechnologies,whichhaveeachexperienceddegreesofconsumerdistasteinrecentyears.Growersfocusedonparticularly14:“ClimateChangeImpactsonAgricultureandFoodSupply,”USEnvironmentalProtectionAgency,November16,2023.15:“ClimateChangeandAgriculture,”UnionofConcernedScientists,March20,2019.16:“ControlledEnvironmentAgriculture:AFuturisticFixfortheFoodSystem,”L.E.K.,PeterWalter,RobWilson,andShangSaavedra,December1,2020.17:“ControlledEnvironmentAgriculture(CEA)Production,”CongressionalResearchService,August31,2023.18:Foodswampsareareasthathaveaccesstolow-quality,lessnutritious,andmorehighlyprocessedfoods,butlackaccesstoaffordablehigh-quality,nutritious,healthyfoods.19:“ControlledEnvironmentAgriculture(CEA)Production,”CongressionalResearchService,August31,2023.20:“SingaporeLaunches$45MAgritechFundtoBoostUrbanFoodProduction,”AgFundNews,JackEllis,February18,2021.21:“OpportunityAwaitsEarlyInvestorsinRegion’sControlled-EnvironmentAgricultureProjects,”KhaleejTimes,TyronHolgate,September19,2023.22:“Developments,SubsidiesandEntranceofNon-AgroCompanies:HorticultureinJapan,”KingdomoftheNetherlands,2018.23:“What’sDrivingVerticalFarminginCanada?”JDSupra,BennettJonesLLP,MurrayColeman,LorelaiGraham,andJuliaSchatz,May26,2023.24:“NewAcostaGroupStudyHighlightsKeyInfluencesforGrowingBaseofNatural&OrganicShoppers,ReflectingOpportunitiesforBrandsandRetailers,”Acosta,March6,2023.5BetsonCEAdonotnecessarilyassumeQ42023EmergingSustainableInvestingOpportunities:Controlled-EnvironmentAgricultureapricingadvantageunderthepresentconditions,butratherunderfutureonesmadeclimate-vulnerablecropssuchascocoaandcoffee,whichwillrequiremoregeneticlessfavorabletoconventionalagriculturebyorchemicalinterventions,willlikelybenefitthemostfromthisdynamic.climatechange’seffects.IntermsoftherisksandobstaclesfacedbyCEA,therearefourmainconsiderations.FirstandforemostarethehighstartupandoperatingcostsofmanyCEAcompanies,resultinginapathtoprofitabilitythatcantakemorethanadecade.CEAfacilitiesoftennecessitatecomplexandexpensiveinfrastructureandtechnology,andoperatorsmayalsoneedtoinvestinresearch&developmenttoimproveyieldandscalability.Further,expertiseislimited,sohumancapitalcostscanbequitehigh.ForCEAcompaniesutilizingartificiallight,energycostsaresubstantial.And,forurbanCEAgrowers,realestatecanbecostly,atleastcomparedtoruralagriculturalland.ThesechallengeshavebecomeinsurmountableforsomeCEAcompaniesin2023—weknowofatleast15thathaveceasedoperationsorfiledforbankruptcythroughDecember1.Asdiscussedinapreviousagtechreport,withinthenext10years,startupandoperationalcostsareexpectedtoimproveasCEAcomponentenergyefficiencymakesheadwayandasexpertisebecomeslessscarce—moresoifthepricesofCEAtechnologiesfall.Withrespecttoenergy,highcostshavebeenexacerbatedbytheEuropeanenergycrisis,andthereisspeculationthatrenewablespriceswilldecreasemateriallyby2030,butenergycostswilllikelyremainamajordeterminantofreturnonCEAcompaniesintheyearsahead.Thesecondkeyriskiscompetitiveinnature.CEAcompaniesfacecompetitionnotonlyfromotherexistingCEAcompaniesandstartupsthatwillenterthespaceifitprovesmorelucrative,butmoreimportantlyfromincumbentsintheconventionalagriculturespace.Giventhechallengesthatwerejustdiscussed,conventionalagriculturecompanieshaveapricingadvantageoverCEAcompaniesonvariouscroptypes.CEAcompaniesusingindoorandverticalfarmingpracticesarenotwellsuitedtocropswithlonglifecyclesorlowyieldbecauseenergycostsaregreaterrelativetotherevenuefromtheproducegrown.25Manyconventionalfarmsalsobenefitfromgovernmentfunding,whichcontributestotheirpricingadvantage.YetbetsonCEAdonotnecessarilyassumeapricingadvantageunderthepresentconditions,butratherunderfutureonesmadelessfavorabletoconventionalagriculturebyclimatechange’seffects.AndCEAcompanieswithfacilitieslocatedclosertoconsumershaveafreshness—orquality—advantage.Plus,technologicaldevelopmentmaymakeCEAmoresuitabletoabroaderrangeofcroptypesinthecomingyears.Still,conventionalagricultureincumbentsmayalsoadoptCEApracticesastheybecomeenvironmentallynecessary,usingtheirbrandsandexistingrelationshipstogainanedgeoverlesser-knownplayers.Additionally,moremarketentrantswillalsoresultinincreasedcompetitionforgovernmentfunding.Assuch,theseriskswillpersisttoanextent,althoughtheseCEA-adoptingincumbentsmayalsopresentexitopportunitiesforCEAcompanies.ThethirdmajorriskisadoptionriskduetothepriceofproducecreatedusingCEA.RegardlessofwhetheraCEAcompanycanofferbetterpricesorqualitycomparedtotheirCEAandconventionalagriculturepeers,ifthecostofitsproduceistoohighforconsumerstopay,itwillnotbeabletogeneraterobustrevenue.Thiscouldoccurinaneconomicrecession,asconsumerspendingpatternswillshifttowardmoreaffordableproducts,suchasfast-fooditemsratherthanfreshproduce.Ina25:“HowFarCanVerticalFarmingGo?”BBC,WilliamPark,January11,2023.6WhileagriculturehashistoricallybeenaQ42023EmergingSustainableInvestingOpportunities:Controlled-EnvironmentAgriculturelesspartisanissue,withtheconventionalagriculturelobbyintheUSpossessingrecessionaryscenario,growersproducingfoodsthatareconsiderednecessitiesorsignificantinfluenceoverbothpoliticalparties,inferiorgoodssuchaspotatoes,greenbeans,oronionsarelessvulnerabletothissustainability-andclimate-relatedtopicssuchrisk,whilethoseproducingitemsthatcouldbecomeluxuryfoodsornonessentialsasresilientagriculturearemorecontroversial.suchaschocolateorcoffeearemorevulnerable.Slightlyreducingthelikelihoodofthisriskisthefactthatgovernmentstypicallyusesubsidiestohelpkeepcommoditypriceslow,sointhecaseofindustry-wideeventsimpactingtheabilityofconsumerstopurchaseproduce,governmentinterventionmayprovidesomeresolution.Onanothernote,evenifaCEAcompanycanofferbetterqualitycomparedtotheirconventionalagriculturepeers,ifthepricedifferentialbetweentheproduceofthetwoissubstantial,manyconsumerswilloptforthelessexpensive.Wehaveseenthismanifestinrecentyears,withpremiumpricinglikelycontributingtothedifficultiescausingsomeCEAcompaniestoclosetheirdoors.26Thefinalriskispolitical,relatedtothepotentiallossofgovernmentfunding.TotheextentthatCEAcompaniesrelyongovernmentsubsidiesortaxbenefitsasaconsistentcomponentoftheirbusinessmodel,shiftsinpolicyresultingintheeliminationofthoseprogramscouldsubstantiallyimpactthebottomline.ThisismorelikelytooccurinnationswherethereareeconomicconditionsconstrainingtheabilityofthegovernmenttofundvariousprogramsorincountriessuchastheUSwherelargeswingsfromoneendofthepoliticalspectrumtotheotheraremorecommon.Whileagriculturehashistoricallybeenalesspartisanissue,withtheconventionalagriculturelobbyintheUSpossessingsignificantinfluenceoverbothpoliticalparties,sustainability-andclimate-relatedtopicssuchasresilientagriculturearemorecontroversial.Assuch,programsfocusedexclusivelyonCEAratherthanagriculturemoregenerallyarelikelyatgreaterrisk.Nonetheless,asCEAprovesnecessarytoproduceenoughfoodforacountry’sinhabitants,contentionarounditwillwane.26:“InfarmAbandonsEuropefor‘RegionsBetterSuitedtoIndoorFarming,’”JustFood,SimonHarvey,May17,2023.7Q42023EmergingSustainableInvestingOpportunities:Controlled-EnvironmentAgricultureEnvironmentalandsocialImpactpotentialRelevantIRIS+categories:27AgricultureBiodiversity&ClimateEcosystemsHealthDiversity&InclusionEmploymentLandPollutionWaterCEAhasamoderate-to-highenvironmentalImpactpotentialatpresent,whichwilllikelyexpandinthenext10yearsastechnologiesimprove,adoptionscales,andmorerenewableenergybecomesavailable.TheseenvironmentalImpactsaremanifold.OnemajordimensionoftheImpactpertainstoresourceefficiency.ManyCEAfarmsareclosedsystems,whichallowforcontroloverlight,water,temperature,humidity,nutrients,anddetrimentalvariablessuchaspests,weeds,anddisease.Assuch,theycanbemoreresource-efficient,28particularlyintermsofwaterusageandespeciallyinthecaseofhydroponicsandaeroponics.Themostwater-efficientgrowingmethodspotentiallyrequire98%lesswaterthanconventionalfarming.29SomeoftheseefficienciesareinherenttoCEA,butothersrequireadditionalinvestmentintechnologyorotherinputs,soachievingmaximalresourceefficiencymaynotbeeconomicallyrationalabsentadditionalgovernmentincentives.Still,theeconomicallyviableresource-efficiencyimprovementsalonecanhaveasizableenvironmentalImpact.TheexceptiontoCEA’spotentialresourceefficiencyisenergy,asCEAgrowerscanusemorethan15xtheamountofenergythatconventionalgrowersdo.30Asidefromtheoperational,adoption,andcompetitiveobstacles,thisisthegreatestrisktoachievingnet-positiveenvironmentalImpactsthroughCEA.Totheextentthatthe27:“IRIS+ThematicTaxonomy,”GlobalImpactInvestingNetwork,April2023.28:“NE1835:ResourceOptimizationinControlledEnvironmentAgriculture,”NIMSS,September30,2023.29:Foranin-depthbreakdownofhowtheseefficienciesarepossible,downloadouranalystnoteCultivatingOpportunitiesinIndoorFarming.30:“2021GlobalCEACensusReport,”AgritectureandWayBeyond,n.d.,accessedDecember5,2023.8CEAhasthepotentialtoimprovebiodiversity,Q42023EmergingSustainableInvestingOpportunities:Controlled-EnvironmentAgriculturereduceagriculture’scontributiontoclimatechange,andpreventthecontaminationofenergyconsumedbyCEAfacilitiesisnotderivedfromrenewablesorothercleandrinkingwater,whichisgrowingmorescarce.sources,CEAwillcontributenegativelytoclimateissues.However,morerenewableenergyisbecomingavailableeveryyear,andenergyconsumptionisexpectedtoimproveasprecisionagriculture,smartgrids,andotherenergy-efficiencytechnologiesmakestrides,aswediscussinourCultivatingOpportunitiesinIndoorFarminganalystnote.AnotherdimensionofCEA’spositiveenvironmentalImpactpotentialrelatestothepreventionofpollutionandcontaminationevents.Inconventionalagriculture,approximately80%ofnitrogenandfrom25%to75%ofphosphorousappliedtofieldsislosttotheenvironment.31Theselosseslargelyendupinbodiesofwaterthroughleachingandrunoff,whichharmsaquaticbiodiversityandwaterqualityandcreatesmoregreenhousegasemissionsfromthebodiesofwater.32CEA’sabilitytocreateclosedsystemsalsomeanstheabilitytocontrolrunoff,whichcanresultinlesspollutionfromchemicalsandsyntheticfertilizers,evenifapproachesarenotfullycircular,meaningtheydonotreuseallwastefromthegrowingprocess.CEAalsofacilitatesmoreaccurateandfrequentmonitoringofnutrientsavailabletocrops,thusallowingformoreprecisenutrientmanagementandreducingtheamountofchemicalinputsneededandeventuallydiscarded.33Assuch,CEAhasthepotentialtoimprovebiodiversity,reduceagriculture’scontributiontoclimatechange,andpreventthecontaminationofdrinkingwater,whichisgrowingmorescarce.ThefinalmajordimensionofenvironmentalImpactisthatCEAcanreducetheamountoftransportationneededtobringproducetoconsumers.CEAfacilitiescanbelocalizedtocommunitiesinanyenvironmentinsteadofjusttheruralcommunitiesthatnaturallyexperienceadvantageousgrowingconditions,sothedistancetoconsumers—especiallyonesinurbanareas—canbecutsignificantly.Asaresult,transportation-relatedairpollutionandcarbonemissionsandtheirassociatedenvironmentalandclimateImpactscanbecurtailed.Furthermore,foodwasteduetospoilageinthetransportationprocesscanbereduced,therebydecreasinggreenhousegasemissionsfromfoodwaste.ThisImpactisespeciallyrelevanttocountriesthatimportthemajorityoftheirfoodduetoinhospitablegrowingconditions,soImpactcanbeoptimizedbyestablishingCEAfacilitiesinthoseareas,aswellasurbanonesorthosefarfromconventionalfarms.IntermsofsocialImpact,CEA’spotentialismoderateandexpectedtoincreasewithinthenextdecadewithimprovedadoptionandtechnology.ThefirsttypeofsocialImpactgeneratedthroughCEAistiedtoaccesstofresh,safe-to-eatproduce,whichisvitaltohumanhealthanddevelopment.Insufficientquantitiesoffreshfruitsandvegetablesinthehumandietareassociatedwithcardiovasculardisease,obesity,Type2diabetes,andsometypesofcancers,makingaccesstothemapublichealthissue.34Further,thisissuedisproportionatelyaffectscommunitieswithhighpovertyandhighminoritycomposition,soimprovingaccesshelpstomitigatesystemicinequalities.3531:“OurNutrientWorld:TheChallengetoProduceMoreFoodandEnergywithLessPollution,”UNEnvironmentProgramme,2013.32:“TheGlobalizationofCulturalEutrophicationintheCoastalOcean:CausesandConsequences,”USEnvironmentalProtectionAgency,HeroandEnvironmentalHealthResearchOnline(HERO),TCMaloneandA.Newton,2020.33:“CEASystems:TheMeanstoAchieveFutureFoodSecurityandEnvironmentalSustainability?”Frontiers,NicholasCowan,etal.,June15,2022.34:“Only1in10AdultsGetEnoughFruitsorVegetables,”CDC,February16,2021.35:“IncreasingAccesstoFruitsandVegetables:PerspectivesFromtheNewYorkCityExperience,”NationalLibraryofMedicine,NationalCenterforBiotechnologyInformation,RachelSacks,MPH,StellaS.Yi,Ph.D.,andCathyNonas,MS,RD,May2015.9AgriculturalrunoffdoesnotonlyaffecttheQ42023EmergingSustainableInvestingOpportunities:Controlled-EnvironmentAgricultureenvironment;itcanalsohaveserioushumanhealthimplications.Already,somecompaniesoperatingnetworksofsmallfacilitieshaveworkedtoprovidefreshproducetocommunitiesdealingwithfoodswamps.Additionally,fruitsandvegetablesproducedbyCEAgrowersmaybelowerriskforfoodborneillnessduetoshorter,morecontrolledproducesupplychains.36WhilethesepotentialImpactsarepresentlymoreminor,theywillballoonasclimatechangereducesagriculture’sabilitytoproducethenecessarycropyieldstofeedtheglobalpopulation.Affordabilityfactorsintothisequation,sopotentialImpactwillincreaseifaffordabilitydoes,duetoeithergovernmentsubsidiesortechnologicaladvancements.ThesecondtypeofsocialImpactisrelatedtoCEA’sabilitytopreventpollutionandcontaminationassociatedwithleachingandrunoff.Agriculturalrunoffdoesnotonlyaffecttheenvironment;itcanalsohaveserioushumanhealthimplications.Runoffcarryingnitrogenfromagriculturalfertilizersoftenmakesitswayintodrinkingwater,andthentothehumanbody.Studieshaveshownthatexcessnitrogenislinkedtooutcomessuchascancer,reproductiveimpacts,hypothyroidism,andmethemoglobinemia,alsoknownasbluebabysyndrome,inwhichthereisinsufficientoxygenpresentinbodytissues.37Whilemanydevelopednationshavebannedtheuseofbroad-spectrumandpersistentpesticidessuchasDDTandsomeorganophosphatesduetotheircreationofacuteandpotentiallychronicnegativehealthimpacts,theyarestillinuseinsomelessdevelopednations.38Thesepesticidesarealsocarriedintodrinkingwaterthroughrunoff.PreventionofcontaminationandpollutionusingCEAstillrequiressomeintentionality,butCEAnonethelessfacilitatesthepreventionofsucheventsanddecreasestheirlikelihoodofoccurring.ThethirdtypeofsocialImpactthatCEAhasthepotentialtogenerateisrelatedtoreducedlandrequirements,whichcouldcontributetolandrehabilitationforformerconventionalagriculturallandandleavemorespaceforurbanandruralgreenspaceslikeforestsandparks.39NotalltypesofCEAinvolvelesslandusage,butverticalfarming,rooftopfarming,andhydroponicgreenhousescanuseanywherefrom10xto300xlesslandincomparisontotraditionalequivalentoutdoorgrowthscenarios.40Arableland,orlandthatcanbeploughedandusedtogrowcrops,isbecomingincreasinglyscarce.Asof2015,33%oftheworld’sarablelandhadbeenlosttoerosionorpollutionintheprevious40years.41Rehabilitationofagriculturallandwillbenecessaryifwearetofeedtheglobalpopulation,andCEAcreatestheabilitytomaintainthefoodsupplywhileallowingthetimeandspaceforthistooccur.Furthermore,withlessagriculturallandusage,morelandcanbeusedforgreenspaces,whichpromotehumanhealthbycreatingspaceforphysicalandsocioculturalactivities.42Plus,urbanverticalfarmingcanallowoperatorstoconvertvacantwarehousesintofarms,whichisamoreefficientuseofrealestatecomparedtobuildingnet-newCEAfacilities.36:“ClimateChangeandFoodSafetyRisk,”TuftsUniversity,ElenaN.Naumova,June29,2022.37:“ReducingtheHealthImpactsoftheNitrogenProblem,”NationalLibraryofMedicine,NationalCenterforBiotechnologyInformation,September2021.38:“WaterPollutionFromAgriculture:AGlobalReview,”FoodandAgricultureOrganizationoftheUnitedNations,JavierMateo-Sagasta,etal.,2017.39:“WhatIsLandRehabilitation?”Investopedia,AdamHayes,May25,2022.40:“IndoororIn-Field:ClimateImpactsofControlledEnvironmentGrowth,”WelshGovernmentFarmingConnect,Dr.DavidCutress,February9,2022.41:“SoilLoss:ASustainableModelforIntensiveAgricultureBriefingNote,”GranthamCentreforSustainableFutures,December2,2015.42:“ValueofUrbanGreenSpacesinPromotingHealthyLivingandWellbeing:ProspectsforPlanning,”NationalLibraryofMedicine,NationalCenterforBiotechnologyInformation,AndrewCheeKengLee,HannahC.Jordan,andJasonHorsley,August27,2015.10CEAcanbringhigh-paying,high-quality,high-Q42023EmergingSustainableInvestingOpportunities:Controlled-EnvironmentAgricultureeducationjobstoregionscharacterizedbyunemploymentandlow-paying,lowquality,ThefinalsocialImpactopportunityisrelatedtothequalityofemploymentprovidedandlow-educationjobs,therebycreatingabyCEAcompaniescomparedtoconventionalagriculturefarms.Accordingtothesocioeconomicbenefit.CentersforDiseaseControlandPrevention(CDC),agriculturecurrentlyranksamongthemosthazardousindustries,withfarmersathighriskforbothfatalandnonfatalinjuries.43Transportationincidentsaretheleadingcauseofdeathforfarmersandfarmworkers,andCEAreducestheamountoftransportationnecessaryforagriculture,thusmitigatingthisrisk.Farmworkersarealsoatincreasedriskforlacerations,fractures,amputations,hearingloss,respiratorydisorders,arthritis,andcancer,amongothernegativeoutcomes.44WhileCEAdoesnotminimizethelikelihoodofalltheseimpacts,itdoesinvolvelessuseofheavymachinerysuchastractorsorcombines,andaspreviouslymentioned,canreducethequantityofpesticidesandamountoffertilizernecessaryforgrowth,thusreducingrespiratoryrisks.Ofcourse,CEAisnotfreeofemployeehealthandsafetyrisks,socomprehensiveprogramsusedtoassessandaddressthemastheyarisearenecessarytoensurethispositiveImpactiscreated.Additionally,CEAcanbringhigh-paying,high-quality,high-educationjobstoregionscharacterizedbyunemploymentandlow-paying,low-quality,andlow-educationjobs,therebycreatingasocioeconomicbenefitaswell.43:“AgriculturalSafety,”CDC,March3,2023.44:“OccupationalandEnvironmentalHealthRisksinFarmLabor,”NationalLibraryofMedicine,NationalCenterforBiotechnologyInformation,ThomasA.ArcuryandSaraA.Quandt,October2,2019.11Q42023EmergingSustainableInvestingOpportunities:Controlled-EnvironmentAgricultureOthernotesintheEmergingSustainablePotentialImpactmetricsInvestingOpportunitiesseriesAsdiscussedinourESG,Impact,andGreenwashinginPEandVCanalystnote,manyCultivatedProteinGPsandLPsconsidermeasurementanecessarycomponentofanImpactinvestmentDownloadthereporthereprogram.ThefollowingmetricscanbeusedtoquantifythepositivesocialandenvironmentalImpactsdiscussedinthereport,includingbycompaniespitchingtheirTransitTechpositiveImpactstosustainability-orientedGPsandGPscollectingImpactmetricsonDownloadthereportheretheirportfoliosforinternaltrackingandmonitoring,amongothers:45Waste-to-Fuel•PoundsofproducegrownusingCEA.Downloadthereporthere•Poundsofproducedistributedtolocalcommunities.•Poundsofproducedistributedtolow-incomecommunities.•Averagetransportationdistancefromfacilitytovendororconsumer.•Waterconsumptionperunitofproducedistributedcomparedtostandardagriculturalpractices.•Percentageofenergyusedforproductionthatisderivedfromrenewablesourcessuchassolarandwind.•Numberofrecallsorotherfoodsafetyincidentsassociatedwithcompanyproduce.•Numberofjobscreatedbythecompany.CarbonUtilizationDownloadthereporthere45:Ofnote,thesemetricsaretailoredtothespecificopportunitydiscussed,andassuch,someofthemwillnotaggregatemeaningfullyattheLPportfoliolevel.Readmoreabouttheuseofcustomizedversusstandardizedmetricsin“AssessingComparability:TheIndicatorsDilemma,”EVPA,GianlucaGaggiotti,etal.,September12,2023.COPYRIGHT©2023byPitchBookData,Inc.Allrightsreserved.Nopartofthispublicationmaybereproducedinanyformorbyanymeans—graphic,electronic,ormechanical,includingphotocopying,recording,taping,andinformationstorageandretrievalsystems—withouttheexpresswrittenpermissionofPitchBookData,Inc.Contentsarebasedoninformationfromsourcesbelievedtobereliable,butaccuracyandcompletenesscannotbeguaranteed.Nothinghereinshouldbeconstruedasinvestmentadvice,apast,currentorfuturerecommendationtobuyorsellanysecurityoranoffertosell,orasolicitationofanoffertobuyanysecurity.Thismaterialdoesnotpurporttocontainalloftheinformationthataprospectiveinvestormaywishtoconsiderandisnottoberelieduponassuchorusedinsubstitutionfortheexerciseofindependentjudgment.12

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