The dirty side of clean energy: shedding light on the risks associated with the critical materials boom

João Vitor Braun , Annelise Kopp Alves

Energy, Ecology and Environment ›› 2025, Vol. 10 ›› Issue (5) : 519 -537.

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Energy, Ecology and Environment ›› 2025, Vol. 10 ›› Issue (5) : 519 -537. DOI: 10.1007/s40974-025-00371-x
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The dirty side of clean energy: shedding light on the risks associated with the critical materials boom

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Abstract

Population growth and economic development have significantly intensified material resource consumption, with a notable surge in demand for energy transition minerals and metals (ETMs). The global shift towards carbon-neutral economies has driven major economic powers to secure stable supplies of these critical raw materials (CRMs). On the other hand, resource-rich countries have been considering this trend as an economic opportunity through the required expansion in the extractive sector. Despite the immense wealth contained in natural resources, converting it into sustainable and inclusive development has remained a challenge that can be represented by the Resource Curse phenomenon and the Middle-income Trap. This critical analysis aims to present an overview of how main CRMs importers and exporters have been approaching this topic and address what we term “the dirty side of green technologies,” emphasizing that, despite their essential role in achieving sustainability goals, these technologies leave behind a trail of social and environmental liabilities along their material supply chains.

Keywords

Energy transition minerals / Critical raw materials / Strategic minerals / Resource curse / Renewable energy / Clean energy

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João Vitor Braun, Annelise Kopp Alves. The dirty side of clean energy: shedding light on the risks associated with the critical materials boom. Energy, Ecology and Environment, 2025, 10(5): 519-537 DOI:10.1007/s40974-025-00371-x

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References

[1]

Abbas K et al (2024) Exploring synergistic and individual causal effects of rare elements and renewable energy on multidimensional economic complexity for sustainable economic development. Appl Energy 364:123192. https://doi.org/10.1016/j.apenergy.2024.123192

[2]

AlarifiIM. Advanced selection materials in solar cell efficiency and their properties - A comprehensive review. Mater Today: Proc, 2023, 81: 403-414.

[3]

AlassafY. Comprehensive review of the advancements, benefits, challenges, and design integration of Energy-Efficient materials for sustainable buildings. Buildings, 2024, 142994.

[4]

AndreucciD, García LópezG, RadhuberIM, et al.. The coloniality of green extractivism: unearthing decarbonisation by dispossession through the case of nickel. Political Geogr, 2023, 107102997.

[5]

BadeebRA, LeanHH, ClarkJ. The evolution of the natural resource curse thesis: A critical literature survey. Resour Policy, 2017, 51: 123-134.

[6]

BaharD, SantosMA. One more resource curse: Dutch disease and export concentration. J Dev Econ, 2018, 132: 102-114.

[7]

BastaPC. Garimpo de Ouro Na amazônia: a Origem Da Crise sanitária Yanomami. Cad Saúde Pública, 2023, 39e00111823.

[8]

BlenginiGA, NussP, DewulfJ, et al.. EU methodology for critical Raw materials assessment: policy needs and proposed solutions for incremental improvements. Resour Policy, 2017, 53: 12-19.

[9]

BorgE, KitsI, JunttilaJ, UddinGS. Dependence between renewable energy related critical metal futures and producer equity markets across varying market conditions. Renewable Energy, 2022, 190: 879-892.

[10]

BrandU. Green economy, green capitalism and the imperial mode of living: limits to a prominent strategy, contours of a possible new capitalist formation. Fudan J Hum Soc Sci, 2016, 9: 107-121.

[11]

BrandU, WissenMThe imperial mode of living: everyday life and the ecological crisis of capitalism, 2021, La Vergne. Verso.

[12]

CalvoG, ValeroA, ValeroA. Assessing maximum production peak and resource availability of non-fuel mineral resources: analyzing the influence of extractable global resources. Resour Conserv Recycl, 2017, 125: 208-217.

[13]

CaredduN, DinoGA, DanielsenSW, PřikrylR. Raw materials associated with extractive industry: an overview. Resour Policy, 2018, 59: 1-6.

[14]

Celso FurtadoFormação econômica do Brasil, 200532Brasil. Companhia Editora Nacional.

[15]

Chang K-F, Lin J-X, Lin S-M (2021) Revisiting the Dutch disease thesis from the perspective of value-added trade. Resour Policy 72(102103). https://doi.org/10.1016/j.resourpol.2021.102103

[16]

CimprichA, YoungSB, SchrijversD, et al.. The role of industrial actors in the circular economy for critical Raw materials: a framework with case studies across a range of industries. Min Econ, 2023, 36: 301-319.

[17]

Circular Economy Coalition for Latin America and Caribbean (2022) Circular economy in Latin America and the Caribbean: a shared vision. UNEP

[18]

CristóbalJ, JubayedM, WulffN, SchebekL. Life cycle losses of critical Raw materials from solar and wind energy technologies and their role in the future material availability. Resour Conserv Recycl, 2020, 161104916.

[19]

DawG. Security of mineral resources: A new framework for quantitative assessment of criticality. Resour Policy, 2017, 53: 173-189.

[20]

De AntunesF. Lost and found: bourgeois dependency theory and the forgotten roots of neodevelopmentalism. Latin Am Perspect, 2022, 49: 36-56.

[21]

DeetmanS, De BoerHS, Van EngelenburgM, et al.. Projected material requirements for the global electricity infrastructure– generation, transmission and storage. Resour Conserv Recycl, 2021, 164105200.

[22]

U.S. Department of Energy (2021) Critical minerals and materials

[23]

Dorn FM (2022) Green colonialism in Latin America? Towards a new research agenda for the global energy transition. ERLACS 137–146. https://doi.org/10.32992/erlacs.10939

[24]

Ericsson M, Löf O (2017) Mining’s contribution to low- and middle-income economies. UNU-WIDER

[25]

FangZ. Assessing the impact of renewable energy investment, green technology innovation, and industrialization on sustainable development: A case study of China. Renewable Energy, 2023, 205: 772-782.

[26]

FASEPOEMASA Mineração vem aí… E agora? Um Guia prático Em Defesa Dos territórios, 2019, Rio de Janeiro, RJ. FASE / POEMAS.

[27]

FerroP, BonolloF. Materials selection in a critical Raw materials perspective. Mater Design, 2019, 177107848.

[28]

FikruMG. An economic framework for assessing the impact of domestic mining policies on affordable energy transition. Sci Rep, 2024, 1413615.

[29]

FlickUThe SAGE handbook of qualitative data collection, 2018, Los Angeles London. SAGE.

[30]

FreemanC, SoeteL. Developing science, technology and innovation indicators: what we can learn from the past. Res Policy, 2009, 38: 583-589.

[31]

FreitasCMD, SilvaMAD, MenezesFCD, LuzZMPD. Desastres Em barragens de Mineração Como Riscos sistêmicos. Rev Bras Epidemiol, 2022, 25e220004.

[32]

GamuJ, Le BillonP, SpiegelS. Extractive industries and poverty: A review of recent findings and linkage mechanisms. Extractive Industries Soc, 2015, 2: 162-176.

[33]

GaustadG, KrystofikM, BustamanteM, BadamiK. Circular economy strategies for mitigating critical material supply issues. Resour Conserv Recycl, 2018, 135: 24-33.

[34]

Gil AC (2002) Como Elaborar Projetos De Pesquisa. Atlas

[35]

GirtanM, WittenbergA, GrilliML, et al.. The critical Raw materials issue between scarcity, supply risk, and unique properties. Materials, 2021, 141826.

[36]

GkillasK, ManickavasagamJ, VisalakshmiS. Effects of fundamentals, geopolitical risk and expectations factors on crude oil prices. Resour Policy, 2022, 78102887.

[37]

GraedelTE, ErdmannL. Will metal scarcity impede routine industrial use?. MRS Bull, 2012, 37: 325-331.

[38]

GraedelTE, HarperEM, NassarNT, ReckBK. On the materials basis of modern society. Proc Natl Acad Sci USA, 2015, 112: 6295-6300.

[39]

GuoZ, ZhaoS, LiT, et al.. Recent advances in rechargeable Magnesium-Based batteries for High‐Efficiency energy storage. Adv Energy Mater, 2020, 101903591.

[40]

HabibK, WenzelH. Exploring rare earths supply constraints for the emerging clean energy technologies and the role of recycling. J Clean Prod, 2014, 84: 348-359.

[41]

HamoucheneH, SandwellKDismantling green colonialism: energy and climate justice in the Arab region, 2023, NV. Pluto Press, London; Las Vegas.

[42]

HeffronRJ. The role of justice in developing critical minerals. Extractive Industries Soc, 2020, 7: 855-863.

[43]

HelbigC, WietschelL, ThorenzA, TumaA. How to evaluate Raw material vulnerability - An overview. Resour Policy, 2016, 48: 13-24.

[44]

HelbigC, BradshawAM, WietschelL, et al.. Supply risks associated with lithium-ion battery materials. J Clean Prod, 2018, 172: 274-286.

[45]

HenckensMLCM, DriessenPPJ, WorrellE. Metal scarcity and sustainability, analyzing the necessity to reduce the extraction of scarce metals. Resour Conserv Recycl, 2014, 93: 1-8.

[46]

HenckensMLCM, DriessenPPJ, WorrellE. How can we adapt to geological scarcity of antimony? Investigation of antimony’s substitutability and of other measures to achieve a sustainable use. Resour Conserv Recycl, 2016, 108: 54-62.

[47]

HofmannM, HofmannH, HagelükenC, HoolA. Critical Raw materials: A perspective from the materials science community. Sustainable Mater Technol, 2018, 17e00074.

[48]

IEAThe role of critical minerals in clean energy transitions, 2021, France. International Energy Agency.

[49]

IEA (2024) Policies Database. In: IEA Policies Database. https://www.iea.org/policies?topic%5B0%5D=Critical Minerals. Accessed 1 Jul 2024

[50]

IMFA new fiscal framework for Resource-Rich countries, 2023, Washington, D.C. International Monetary Fund.

[51]

IRPMineral resource governance in the 21st century gearing extractive industries towards sustainable development, 2020, New York. UNEP.

[52]

IRP (2020a) Resource efficiency and climate change: material efficiency strategies for a low-carbon future. Zenodo

[53]

IşıldarA, Van HullebuschED, LenzM, et al.. Biotechnological strategies for the recovery of valuable and critical Raw materials from waste electrical and electronic equipment (WEEE)– A review. J Hazard Mater, 2019, 362: 467-481.

[54]

IslamMM, SohagK, AlamMM. Mineral import demand and clean energy transitions in the top mineral-importing countries. Resour Policy, 2022, 78102893.

[55]

Jin Y, Kim J, Guillaume B (2016) Review of critical material studies. Resources, Conservation and Recycling 113:77–87. https://doi.org/10.1016/j.resconrec.2016.06.003

[56]

JonesB, Nguyen-TienV, ElliottRJR. The electric vehicle revolution: critical material supply chains, trade and development. World Econ, 2023, 46: 2-26.

[57]

JoyaO. Growth and volatility in resource-rich countries: does diversification help?. Struct Change Econ Dyn, 2015, 35: 38-55.

[58]

KauanoÉE, SilvaJMC, MichalskiF. Illegal use of natural resources in federal protected areas of the Brazilian Amazon. PeerJ, 2017, 5e3902.

[59]

KrausmannF, SchandlH, EisenmengerN, et al.. Material flow accounting: measuring global material use for sustainable development. Annu Rev Environ Resour, 2017, 42: 647-675.

[60]

KuAY, KocsEA, FujitaY, et al.. Materials scarcity during the clean energy transition: myths, challenges, and opportunities. MRS Energy Sustain, 2024, 11: 173-180.

[61]

LèbreÉ, StringerM, SvobodovaK, et al.. The social and environmental complexities of extracting energy transition metals. Nat Commun, 2020, 114823.

[62]

Li X-Y, Ge J-P, Chen W-Q, Wang P (2019) Scenarios of rare earth elements demand driven by automotive electrification in China: 2018–2030. Resources, Conservation and Recycling 145:322–331. https://doi.org/10.1016/j.resconrec.2019.02.003

[63]

LiaoJ, LiuX, ZhouX, TursunovaNR. Analyzing the role of renewable energy transition and industrialization on ecological sustainability: can green innovation matter in OECD countries. Renewable Energy, 2023, 204: 141-151.

[64]

MachacekE, KalvigP. Assessing advanced rare Earth element-bearing deposits for industrial demand in the EU. Resour Policy, 2016, 49: 186-203.

[65]

MånbergerA, StenqvistB. Global metal flows in the renewable energy transition: exploring the effects of substitutes, technological mix and development. Energy Policy, 2018, 119: 226-241.

[66]

MansurMColapso mineral Em maceió: o desastre Da Braskem e o Apagamento Das violações, 2023, Brasília, DF. Katia Visentainer.

[67]

MapBiomas (2022) Projeto MapBiomas– Mapeamento anual de cobertura e uso da terra no Brasil entre 1985 a 2022

[68]

McLellanB, YamasueE, TezukaT, et al.. Critical minerals and Energy–Impacts and limitations of moving to unconventional resources. Resources, 2016, 519.

[69]

Mejia-MuñozS, BabidgeS. Lithium extractivism: perpetuating historical asymmetries in the ‘green economy’. Third World Q, 2023, 44: 1119-1136.

[70]

Melane-LavadoA, Álvarez-HerranzA, González-GonzálezI. Foreign direct investment as a way to guide the innovative process towards sustainability. J Clean Prod, 2018, 172: 3578-3590.

[71]

MerinoR. The cynical state: forging extractivism, neoliberalism and development in governmental spaces. Third World Q, 2020, 41: 58-76.

[72]

Merino-SaumA, BaldiMG, GundersonI, OberleB. Articulating natural resources and sustainable development goals through green economy indicators: A systematic analysis. Resour Conserv Recycl, 2018, 139: 90-103.

[73]

MiaoY, RazzaqA, AdebayoTS, AwosusiAA. Do renewable energy consumption and financial globalisation contribute to ecological sustainability in newly industrialized countries?. Renewable Energy, 2022, 187: 688-697.

[74]

MignamissiD, Malah KueteYF. Resource rents and happiness on a global perspective: the resource curse revisited. Resour Policy, 2021, 71101994.

[75]

MilanezB. Mineração, ambiente e sociedade: impactos Complexos e simplificação Da legislação. Boletim regional. Urbano E Ambiental, 2017, 16: 93-101

[76]

MME (2024) PNM-2050 Mineração Brasileira. In: Ministério de Minas e Energia. https://www.gov.br/mme/pt-br/assuntos/secretarias/geologia-mineracao-e-transformacao-mineral/pnm-2050. Accessed 10 Dec 2024

[77]

MossRL, TzimasE, KaraH, et al.. The potential risks from metals bottlenecks to the deployment of strategic energy technologies. Energy Policy, 2013, 55: 556-564.

[78]

MünchenDD, SteinRT, VeitHM. Rare Earth elements recycling potential estimate based on End-of-Life NdFeB permanent magnets from mobile phones and hard disk drives in Brazil. Minerals, 2021, 111190.

[79]

Nature. The global fight for critical minerals is costly and damaging. Nature, 2023, 619: 436-436.

[80]

Nem SinghJ, OvadiaJS. The theory and practice of Building developmental States in the global South. Third World Q, 2018, 39: 1033-1055.

[81]

NRGI (2020) Resource-backed loans: pitfalls and potential. Natural Resource Governance Institute

[82]

OECD (2023) Raw materials critical for the green transition. Production, International Trade and Export Restrictions

[83]

OlivettiEA, CullenJM. Toward a sustainable materials system. Science, 2018, 360: 1396-1398.

[84]

ORGANONREDE UFES– RIO DOCE - Impactos socioambientais no Espírito Santo Da ruptura Da barragem de Rejeitos Da Samarco, 2015, Brasil. UFES.

[85]

Owen JR et al (2022) Energy transition minerals and their intersection with land-connected people. Nat Sustain 6:203. https://doi.org/10.1038/s41893-022-00994-6

[86]

PedrolloCT, KinuppVF. Sustainability or colonialism? Legislative Obstacles to research and development of natural products and patents on traditional knowledge in Brazil. Acta Bot Bras, 2015, 29: 452-456.

[87]

QinY, XiaoX, LiuF, et al.. Forest conservation in Indigenous territories and protected areas in the Brazilian Amazon. Nat Sustain, 2023, 6: 295-305.

[88]

Ramírez-CendreroJM, WirthE. Is the Norwegian model exportable to combat Dutch disease?. Resour Policy, 2016, 48: 85-96.

[89]

RamprasadC, GwenziW, ChaukuraN, et al.. Strategies and options for the sustainable recovery of rare Earth elements from electrical and electronic waste. Chem Eng J, 2022, 442135992.

[90]

RezendeVL. A Mineração Em Minas gerais: uma análise de Sua Expansão e Os impactos Ambientais e sociais causados Por Décadas de exploração. Soc Nat, 2016, 28: 375-384.

[91]

SachsJD, Schmidt-TraubG, MazzucatoM, et al.. Six transformations to achieve the sustainable development goals. Nat Sustain, 2019, 2: 805-814.

[92]

SchrijversD, HoolA, BlenginiGA, et al.. A review of methods and data to determine Raw material criticality. Resour Conserv Recycl, 2020, 155104617.

[93]

ShiY, FengY, ZhangQ, et al.. Does china’s new energy vehicles supply chain stock market have risk spillovers? Evidence from Raw material price effect on lithium batteries. Energy, 2023, 262125420.

[94]

Silva-JuniorCHL, SilvaFB, ArisiBM, et al.. Brazilian Amazon Indigenous territories under deforestation pressure. Sci Rep, 2023, 135851.

[95]

Smith StegenK. Heavy rare earths, permanent magnets, and renewable energies: an imminent crisis. Energy Policy, 2015, 79: 1-8.

[96]

Sonter LJ et al (2017) Mining drives extensive deforestation in the Brazilian Amazon. 8:1013. https://doi.org/10.1038/s41467-017-00557-w

[97]

SonterLJ, DadeMC, WatsonJEM, ValentaRK. Renewable energy production will exacerbate mining threats to biodiversity. Nat Commun, 2020, 114174.

[98]

Sousa Filho PCD, Serra OA (2014) Rare earths in Brazil: historical aspects, production, and perspectives. Química Nova 37. https://doi.org/10.5935/0100-4042.20140121

[99]

SprecherB, KleijnR. Tackling material constraints on the exponential growth of the energy transition. One Earth, 2021, 4: 335-338.

[100]

SprecherB, DaigoI, MurakamiS, et al.. Framework for resilience in material supply chains, with a case study from the 2010 rare Earth crisis. Environ Sci Technol, 2015, 49: 6740-6750.

[101]

SrivastavaN, KumarA. Minerals and energy interface in energy transition pathways: A systematic and comprehensive review. J Clean Prod, 2022, 376134354.

[102]

Stevens P (2015) The resource curse revisited. The Royal Institute of International Affairs

[103]

StevensP, DietscheE. Resource curse: an analysis of causes, experiences and possible ways forward. Energy Policy, 2008, 36: 56-65.

[104]

Szczepański M (2020) Critical raw materials for the EU. Enablers of the green and digital recovery

[105]

UN (2019) UN Report: Nature’s Dangerous Decline ‘Unprecedented’; Species Extinction Rates ‘Accelerating.’ In: Sustainable Development Goals. https://www.un.org/sustainabledevelopment/blog/2019/05/nature-decline-unprecedented-report/. Accessed 12 Dec 2024

[106]

UN Secretary-General (2024) United Nations secretary-general’s panel on critical energy transition minerals. Principles to guide critical energy transition minerals. Towards equity and justice. UN

[107]

UNCTADA framework for science, technology and innovation policy reviews Harnessing innovation for sustainable development, 2020, Erscheinungsort nicht ermittelbar. United Nations.

[108]

UNCTAD (ed) (2021) Catching technological waves: innovation with equity. United Nations, New York Geneva

[109]

UNCTAD (2024) Trade and development report 2024. Rethinking development in the age of discontent

[110]

UNEA (2019) Developing an agenda for international collaboration on mineral resource governance. Summary UNEA 4/19 Consultations

[111]

UNEPGlobal resources outlook 2024: Bend the Trend– Pathways to a liveable planet as resource use spikes, 2024, Nairobi. International Resource Panel.

[112]

UNESCO (2021) UNESCO science report 2021: the race against time for smarter development. United Nations

[113]

VeltmeyerH. Latin America in the vortex of social change: development and social movement dynamics. World Dev, 2020, 130104916.

[114]

VenablesAJ. Using natural resources for development: why has it proven so difficult?. J Economic Perspect, 2016, 30: 161-184.

[115]

WalshPP, MurphyE, HoranD. The role of science, technology and innovation in the UN 2030 agenda. Technol Forecast Soc Chang, 2020, 154119957.

[116]

WanderleyLJAtlas do Problema mineral Brasileiro, 2023, Brasília, DF. Katia Visentainer.

[117]

WanderleyLJTransição desigual: as violações Da Extração Dos Minerais Para a Transição energética no Brasil, 2024, Rio de Janeiro, RJ. Maíra Mansur.

[118]

WEF (2023) The Global Risks Report 2023. 18th Edition, Insight Report

[119]

WentkerM, GreenwoodM, AsabaMC, LekerJ. A Raw material criticality and environmental impact assessment of state-of-the-art and post-lithium-ion cathode technologies. J Energy Storage, 2019, 26101022.

[120]

WMD (2024) World Mining Data 2024. Vienna

[121]

World BankWorld development report 2024: the Middle-Income trap, 2024, Washington, DC. World Bank. .

[122]

World Inequality Lab (2022) World inequality report 2022. World Inequality Lab

[123]

WWFBuilding a nature-positive society, 2022, Frederiksberg. CBS Library.

[124]

XiaoY, WatsonM. Guidance on conducting a systematic literature review. J Plann Educ Res, 2019, 39: 93-112.

[125]

ZanolettiA, CornelioA, BontempiE. A post-pandemic sustainable scenario: what actions can be pursued to increase the Raw materials availability?. Environ Res, 2021, 202111681.

[126]

Zárate RuedaR, Beltrán VillamizarYI, Becerra ArdilaLE. Neo-Extractivism and formalization of artisanal and Small-Scale Mining—The case of the Santurbán moorland (Colombia). Sustainability, 2023, 1511733.

[127]

ZengX. Win-Win: anthropogenic circularity for metal criticality and carbon neutrality. Front Environ Sci Eng, 2023, 1723.

[128]

ZhangL, ChenZ, YangC, XuZ. Global supply risk assessment of the metals used in clean energy technologies. J Clean Prod, 2022, 331129602.

[129]

ZhongQ, LiY, WangY, et al.. Revisiting metal footprints of nations with a reserve-side scarcity indicator. Ecol Ind, 2022, 145109677.

[130]

ZilbermanD, ReardonT, SilverJ, et al.. From the laboratory to the consumer: innovation, supply chain, and adoption with applications to natural resources. Proc Natl Acad Sci USA, 2022, 119e2115880119.

[131]

ZuoN, ZhongH. Can resource policy reverse the resource curse? Evidence from China. Resour Policy, 2020, 68101733.

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