Introduction
A solar farm can be completed before the transmission line needed to carry its electricity. A coal plant can close before replacement employment reaches the surrounding community. A company can secure a low-carbon technology without securing the minerals, skills or affordable finance required to operate it at scale.
Each initiative may appear successful when viewed independently. Together, they may produce an unstable transition.
This is the central challenge now facing governments and businesses. The green transition is often discussed as a technological journey from high-carbon assets to cleaner alternatives. In practice, it is a restructuring of energy systems, industrial supply chains, labour markets, public finances, consumer costs and regional economies.
The question is no longer whether the green transition is necessary. It is whether organisations can sequence investments, distribute costs, manage dependencies and maintain resilience while the transition is under way.
That requires an enterprise risk management mindset.
The Transition Is a System, Not a Collection of Green Projects
Many transition plans are organised around individual initiatives: renewable-power procurement, fleet electrification, energy efficiency, green hydrogen, low-carbon materials or supplier decarbonisation.
The risk is that each project is approved through its own business case while the dependencies between them remain untested.
An electric-vehicle fleet depends on charging infrastructure, grid capacity, battery availability, route suitability, maintenance capability and electricity tariffs. Industrial electrification depends on reliable power, transmission access and equipment delivery. Green hydrogen requires renewable electricity, water, electrolysers, storage, transport and committed buyers.
When one component is delayed, the value of the others may be impaired.
This is sequencing risk: the possibility that the right investments are made in the wrong order.
The International Energy Agency estimates that approximately $2.2 trillion was invested in clean-energy technologies and infrastructure in 2025; twice the amount directed towards fossil fuels. Yet annual grid investment remained around $400 billion, compared with approximately $1 trillion invested in generation. The imbalance means that power-production assets may expand faster than the systems needed to connect, balance and deliver their output. [1]
Risk-intelligent transition planning must therefore evaluate the system’s weakest dependency, not merely the environmental merit of its most visible project.
Infrastructure bottlenecks can turn clean capacity into stranded capability
Renewable energy generation can be built comparatively quickly. Transmission lines, substations, permitting systems and market reforms often require much longer.
The IEA has previously identified at least 3,000 gigawatts of renewable projects waiting in grid-connection queues worldwide, including 1,500 gigawatts at advanced stages of development. This is several times the amount of wind and solar capacity added globally in a single year. [2]
The operational consequences extend beyond delayed decarbonisation.
A congested grid may lead to:
- renewable-power curtailment;
- delayed project revenues;
- higher balancing costs;
- increased dependence on fossil-fuel backup;
- compensation disputes;
- weaker investor confidence;
- reduced reliability during periods of peak demand.
India illustrates the importance of integrated planning. The IEA reported that 83% of Indian power-sector investment went to clean energy in 2024 and that non-fossil sources had reached 44% of installed power-generation capacity. At the same time, inadequate transmission infrastructure had impeded approximately 60 gigawatts of renewable capacity. Distribution companies also carried substantial accumulated losses and more than $9 billion in unpaid dues as of March 2025. [3]
This is not simply an energy-sector problem. It is a portfolio interaction among infrastructure, utility finances, project bankability, electricity affordability and national industrial ambitions.
Generation targets should therefore be accompanied by transmission readiness, storage availability, distribution-company solvency, and demand-management indicators.
Green Capital Can Still Become Stranded Capital
A project may support decarbonisation and still fail financially.
Green infrastructure remains exposed to:
- interest-rate changes;
- inflation;
- construction delays;
- commodity-price volatility;
- exchange-rate movements;
- technology underperformance;
- permitting delays;
- contractual disputes;
- uncertain demand;
- changing regulation.
These financial risks become particularly material in capital-intensive projects with long construction periods and fixed-price revenue arrangements.
In May 2025, renewable-energy developer Ørsted discontinued the Hornsea 4 offshore-wind project in its existing form. The company cited higher supply-chain costs, increased interest rates and greater execution risk, and expected cancellation-related costs and impairments of up to approximately $838 million. [4]
The lesson is not that offshore wind is unviable. It is that climate benefit does not immunise a project against changing financial assumptions.
Transition investments should be stress-tested for:
- higher financing costs;
- construction and component inflation;
- delayed commissioning;
- lower-than-expected utilisation;
- weaker demand;
- reduced policy support;
- currency depreciation;
- supplier failure.
Leaders should also understand which assumptions can change without destroying project value. A credible transition plan needs financial resilience, not merely an emissions trajectory.
The Cheapest Technology May Carry the Most Expensive Dependency
The transition from fossil-fuel systems to electrified systems changes the structure of resource dependence. Oil and gas exposure may fall, while dependence on copper, lithium, nickel, graphite, rare earth elements and specialised processing technologies increases.
The IEA reported that the average share of the three largest refining countries across key energy minerals rose from approximately 82% in 2020 to 86% in 2024. China remained the dominant refined supplier for most minerals, while Indonesia held a leading position in nickel. [5]
Even apparently adequate global supply can conceal severe concentration risk.
The IEA’s 2025 analysis indicated that, if the largest producer and its demand were removed from the market, remaining supplies of graphite and rare earth elements would cover only about 35–40% of remaining projected demand in 2035. Copper and lithium also face potential longer-term supply gaps under announced-project pipelines. [5]
Export controls introduced since 2023 have demonstrated that such exposure is no longer theoretical. Restrictions covering gallium, germanium, antimony, tungsten and selected rare earth elements have affected technologies used across energy, electronics and advanced manufacturing. [5]
A transition supply-chain assessment should move beyond identifying the country where a final component is assembled. It should map:
- mineral extraction;
- refining and chemical processing;
- component manufacturing;
- infrastructure risk
- logistics routes;
- intellectual property;
- production equipment;
- recycling capacity;
- viable substitutes.
Risk resilience may require multiple suppliers, strategic inventories, recycling, long-term offtake arrangements and technology designs that reduce supply chain risks and exposure to constrained materials.
A Net Gain in Jobs Can Still Leave Communities Behind
The green transition is expected to create significant employment. It will not create all jobs in the same place, at the same time, for the same people.
A World Economic Forum (WEF) report estimates that the transition could affect 14.4 million jobs globally by 2030, with approximately 12 million roles created and 2.4 million phased out; a net gain of 9.6 million. One-third of surveyed businesses nevertheless expressed concern about job displacement in at least one major industry in their country. [6]
The coexistence of job creation and worker insecurity is not contradictory.
A coal-plant technician may not live near a solar-manufacturing cluster. An automotive worker experienced in internal-combustion engines may need different qualifications for battery systems. A new job may offer lower wages, weaker employment security or require relocation.
IRENA and the International Labour Organization estimate that renewable-energy employment reached at least 16.6 million jobs globally. Their analysis also notes that employment growth has been moderated by automation, economies of scale, manufacturing overcapacity and grid bottlenecks. Women and people with disabilities continue to face barriers to participation and progression. [7]
Workforce risk must therefore be assessed at occupational, regional and demographic levels.
A credible transition plan should identify:
- roles likely to decline;
- skills that can be transferred;
- training lead times;
- local replacement-job availability;
- wage and benefit differences;
- contractor and supply-chain impacts;
- communities economically dependent on existing assets.
Retraining should begin before closure decisions become irreversible. Social dialogue, income support, redeployment pathways and regional economic development are operational controls; not peripheral corporate-responsibility initiatives.
Affordability Is Not a Communications Problem: When transition costs reach households, climate ambition can lose its social licence
A technically sound climate policy may become politically and commercially unstable when its costs are experienced as unfair.
The WEF found that 51% of executives were concerned that price increases in key industries could be passed to consumers. Sixty-six per cent anticipated consequences for the accessibility of goods and services. Concerns were lower where social-protection systems and access to essential services were stronger. [6]
Affordability risk may arise through:
- electricity and heating costs;
- transport prices;
- housing-retrofit requirements;
- food and agricultural inputs;
- vehicle-replacement costs;
- carbon-pricing mechanisms;
- higher prices for low-carbon materials.
Average cost reductions do not guarantee equitable outcomes. A household may save money over the lifetime of an electric vehicle but remain unable to afford the upfront purchase. A building retrofit may reduce energy demand but increase rent. A carbon price may improve environmental incentives while disproportionately affecting low-income consumers unless revenues or support mechanisms are designed appropriately.
Organisations should therefore analyse who pays, when they pay and whether they have practical alternatives.
Public acceptance is not merely a matter of explaining the transition more effectively. It depends on whether people experience the distribution of costs and benefits as credible and fair.
The Finance Exists—but Not Where the Risk Is Highest
Global clean-energy investment is growing, but its geographic distribution remains uneven.
The IEA reported that emerging and developing economies outside China received approximately 18% of clean-energy investment in 2025, despite representing nearly two-thirds of the world’s population and much of its future energy-demand growth. [8]
The WEF survey found that 49% of executives in low-income economies regarded limited green finance as a material barrier, compared with 23% in high-income economies. Eighty per cent of respondents identified unequal access to green finance as a significant competitiveness risk in at least one industry. [6]
The problem is not simply a shortage of global capital. It is the risk-adjusted cost of directing capital to markets affected by currency volatility, weaker utilities, uncertain regulation, limited project pipelines and sovereign risk.
India has achieved a comparatively low cost of capital for grid-scale renewables among emerging economies, but the IEA estimates that it remains around 80% higher than in advanced economies. [3]
Risk reduction can therefore be as important as additional subsidy.
Relevant instruments include:
- credit guarantees;
- currency-risk facilities;
- blended finance;
- standardised contracts;
- aggregation of smaller projects;
- stronger payment security;
- transparent permitting;
- development-finance participation;
- reliable project pipelines.
The transition cannot scale globally if viable clean technologies remain unbankable where energy demand is growing fastest.
Decarbonisation Can Transfer Environmental Risk
The green transition is intended to reduce climate risk. Poorly governed implementation may create ESG risks and transfer pressure to water systems, biodiversity, land, workers, and communities.
Critical-mineral extraction can involve water stress, tailings, habitat disruption, occupational hazards, corruption and human-rights concerns. The IEA identified water, emissions, biodiversity, human rights, communities and corruption as priority risk areas for responsible mineral supply chains. It also reported that floods or droughts placed approximately 7% of global copper supply at risk of disruption in 2024. [9]
This creates both ethical and operational risks. Community opposition, permitting challenges, litigation, labour action or environmental damage can delay the same mineral projects needed for energy security.
Companies should therefore examine whether a climate solution:
- increases water demand;
- affects sensitive ecosystems;
- creates waste or end-of-life liabilities;
- displaces communities or livelihoods;
- relies on unsafe labour;
- transfers emissions or impacts into the supply chain;
- depends on environmental claims that cannot be verified.
A transition plan focused only on carbonisation risk may reduce one risk while intensifying several others.
No Single Transition Path Fits Every Economy
The WEF report groups countries into six transition archetypes:
- inclusive green adopters;
- green developers;
- emerging green adopters;
- growth economies;
- fossil-fuel exporters;
- frontier economies.
The categories recognise that countries differ in industrial structure, fiscal capacity, energy access, skills, social protection and exposure to fossil-fuel revenues. India is classified among growth economies—rapidly industrialising countries balancing decarbonisation with energy affordability, expanding demand and development priorities. [10]
This matters to multinational companies.
A transition strategy designed for a high-income service economy may not transfer effectively to a manufacturing-intensive emerging economy. The same procurement requirement or emissions deadline may affect suppliers differently depending on access to capital, renewable electricity, technology and skilled labour.
Global standards may be necessary for direction and accountability. Execution plans must remain sensitive to local constraints.
Building a Green Transition Control Tower: Seven disciplines for governing decarbonisation as enterprise transformation
1. Build an interconnected transition-risk taxonomy
Move beyond separate climate, financial and operational registers.
Conduct risk identification. Map dependencies across energy, finance, technology, supply chains, people, communities, nature, regulation and customers. Identify where several projects depend on the same grid connection, supplier, mineral, policy or technology.
2. Establish clear transition risk appetite
Leaders should define tolerances for:
- energy unreliability;
- Capital risk;
- supply concentration;
- affordability impacts;
- worker displacement;
- community disruption;
- environmental harm;
- unproven technology risk;
- regulatory non-compliance.
A risk appetite makes trade-offs visible before pressure forces an improvised decision.
3. Use multiple transition scenarios
Test the plan under higher interest rates, commodity shortages, delayed permits, weaker demand, policy changes, technology failure and extreme weather.
Scenarios should examine both faster and slower transitions. Delayed action creates physical, regulatory and market exposure; poorly sequenced acceleration creates execution, affordability and reliability risks.
4. Apply dependency-based stage gates
Do not approve a major asset only because its individual business case is attractive.
Require evidence that enabling infrastructure, skills, finance, permits, suppliers, customers and community arrangements will be available when needed.
5. Integrate people into capital allocation
Every major transition investment should include a risk assessment of workforce, consumers, suppliers and affected communities.
The analysis should influence project design and funding; not be added after investment approval.
6. Monitor leading indicators
Useful indicators include:
- grid-connection delays;
- renewable curtailment;
- project-cost escalation;
- cost-of-capital changes;
- supplier concentration;
- critical-mineral exposure;
- workforce reskilling progress;
- household or customer affordability;
- community grievances;
- permitting timelines;
- nature-related impacts;
- actual emissions reduction against the plan.
These indicators reveal transition drift before it appears in annual emissions reporting.
7. Independently assure both claims and controls
Assurance should test whether transition data is reliable, dependencies are being managed and social or environmental benefits are supported by evidence.
A transition plan is credible when governance, capital allocation and operational decisions align with its stated objectives.
The green transition will succeed when resilience and decarbonisation advance together
The green transition offers significant opportunities: greater energy security, cleaner air, industrial innovation, new employment and more resilient infrastructure.
Its success is not guaranteed by the scale of investment or the ambition of targets.
A transition can stall when grids lag behind generation, financing costs destroy project economics, critical-mineral supplies become concentrated, governance risks go unchecked, workers cannot move into new roles or consumers bear costs they cannot absorb.
Risk management does not weaken climate ambition. It protects that ambition from foreseeable failure.
A transition which has risk intelligence embedded in every step, asks not only how quickly emissions can be reduced, but whether energy remains reliable, projects remain financeable, supply chains remain available, work remains dignified and communities retain confidence in the journey.
The green transition will not succeed because every risk was avoided.
It will succeed because uncertainty was anticipated, trade-offs were governed and progress was designed to endure.
The author confirms that this article is original and has not been copied, reproduced, or derived from another author’s work, except for appropriately cited third-party references used for research purposes.
Citations:
[1] Global clean-energy investment, generation and grid-investment trends [ International Energy Agency ]
[2] Electricity-grid bottlenecks and renewable connection queues [ International Energy Agency ]
[3] India’s clean-energy investment, financing and transmission risks [ International Energy Agency ]
[4] Cancellation of the Hornsea 4 offshore-wind project following changes in costs, interest rates and execution risk [ Reuters ]
[5] Critical-mineral concentration, projected supply gaps and export-control exposure [ International Energy Agency ]
[6] World Economic Forum report on aligning the green transition with socioeconomic outcomes and corporate competitiveness [ World Economic Forum ]
[7] Renewable-energy employment and inclusive workforce-development requirements [ International Renewable Energy Agency (IRENA) ] [ International Labour Organization ]
[8] Unequal distribution of clean-energy investment across emerging and developing economies [ International Energy Agency ]
[9] Environmental, social and governance risks in critical-mineral supply chains [ International Energy Agency ]
[10] World Economic Forum Executive Opinion Survey findings and six country-transition archetypes [ World Economic Forum ]
FAQs
1.What is green transition risk?
- The green transition is often discussed as a technological journey from high-carbon assets to cleaner alternatives. In practice, it is a restructuring of energy systems, industrial supply chains, labour markets, public finances, consumer costs and regional economies.
- The green transition risk is that each project is approved through its own business case while the dependencies between them remain untested.
- An electric-vehicle fleet depends on charging infrastructure, grid capacity, battery availability, route suitability, maintenance capability and electricity tariffs. Industrial electrification depends on reliable power, transmission access and equipment delivery. Green hydrogen requires renewable electricity, water, electrolysers, storage, transport and committed buyers.
- When one component is delayed, the value of the others may be impaired.
2. Why does the green transition need enterprise risk management?
- The green transition is often discussed as a technological journey from high-carbon assets to cleaner alternatives. In practice, it is a restructuring of energy systems, industrial supply chains, labour markets, public finances, consumer costs and regional economies.
- The question is no longer whether the green transition is necessary. It is whether organisations can sequence investments, distribute costs, manage dependencies and maintain resilience while the transition is under way.
- That requires an enterprise risk management mindset.
- Enterprise Risk Management (ERM) is an integrated and joined up approach to managing all areas of risks across an organisation and its extended networks.
- The enterprise risk management framework involves:
- Identifying Risks
- Analysing Risks
- Assessing Risks
- Treating Risks
- Monitoring And Reviewing
- The green transition will not succeed because every risk was avoided. It will succeed because uncertainty was anticipated, trade-offs were governed and progress was designed to endure. Enterprise risk management complements this approach and enables organisations to pursue the green transition with confidence.
3. How can businesses build risk resilience during the energy transition?
Control measures are an effective way to minimise risks and ensure the success of a green transition plan. Businesses can build risk resilience during the energy transition by implementing the following controls:
- An interconnected transition-risk taxonomy: Dependencies across various operations must be mapped.
- A clear transition risk appetite: Leaders should define tolerances for energy unreliability, capital-at-risk, supply concentration, affordability impacts, worker displacement, community disruption, environmental harm, unproven technology, and regulatory non-compliance.
- Testing multiple transition scenarios: The plan should be tested under higher interest rates, commodity shortages, delayed permits, weaker demand, policy changes, technology failure and extreme weather.
- Dependency-based stage gates: Evidence must be provided to confirm that enabling-infrastructure, skills, finance, permits, suppliers, customers and community arrangements will be available when needed.
- Integration of people into capital allocation: Every major transition investment should include an assessment of workforce, consumers, suppliers and affected communities.
- Monitoring leading indicators: Useful indicators include – grid-connection delays; renewable curtailment; project-cost escalation; cost-of-capital changes; supplier concentration; critical-mineral exposure; workforce reskilling progress; household or customer affordability; community grievances; permitting timelines; nature-related impacts; actual emissions reduction against plan.
- Independent assurance of both claims and controls: Assurance should test whether transition data is reliable, dependencies are being managed and social or environmental benefits are supported by evidence.
