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Enabling energy transitions: A policy guide – Part I: Strategic plans and getting started

Energy transition targets and strategies

Many jurisdictions adopt targets and strategies to steer the long-term energy transformation process. The crucial interaction between these elements is obvious in the case of net-zero decarbonisation pathways, typically extending two to three decades into the future.

Net-zero targets represent long-term emissions reduction goals, while national net-zero strategies translate these targets into concrete policies, sectoral pathways, and timelines for implementation. Through an iterative process, ambitious targets guide strategic planning, while evolving strategies can, in turn, strengthen, clarify, or recalibrate the original targets based on technological progress, evolving economic conditions, and social considerations.

Targets for renewable energy and other components are an increasingly important tool to manage the complex energy transition process. Renewable energy targets are typically embedded in a larger framework, ideally with a hierarchy of goals bridging a net-zero economic vision with deployment targets for technologies such as wind and solar photovoltaic (PV) power generation. In total, the framework should encompass energy and electricity decarbonisation, renewable electricity targets, and deployment targets for specific technologies.

Renewable energy targets can be either indicative or legally binding. If legally binding, they are likely to be combined with policies to measure the shares of various renewables in the electricity mix and verify that obligatory levels are met. For this purpose, some jurisdictions have adopted Renewable Portfolio Standards or Renewable Energy Certificate systems.

Target-based monitoring and governance enable effective guidance, transparent implementation, and continuous adjustment where needed. Systematic tracking and accountability help align the transition to renewables with broader energy-security and climate-related objectives.

Policies and targets for fossil-fuel phase-out also provide a crucial signal about the required pace and direction of structural change in the energy system. By setting timelines for the decline and eventual cessation of coal, oil, and gas use, these policies help align infrastructure investment, workforce planning, and innovation with long-term decarbonisation goals. They also reduce carbon lock-in and the risk of creating stranded assets, with new high-emissions projects being actively discouraged while renewables, energy efficiency, and supporting technologies such as storage and grids are increasingly rolled out.

When integrated into broader transition planning, fossil-fuel phase-out targets can be combined with regional or local transition plans to ensure that communities depending on the fossil fuel industry can achieve a smoother transition to other industries and activities.

Net-zero targets

A "net-zero" target sets a target year (e.g. 2050) by which the greenhouse gas (GHG) emissions in any given market or sector must either be eliminated or sufficiently balanced by offsets to ensure that overall climate impact is neutral. Such targets have been adopted or announced by growing numbers of countries around the world (see https://zerotracker.net), although not all those targets are anchored in legislation or detailed implementation plans.

Net-zero targets can take various forms, including:

  • Defined target year with interim steps: A clearly specified long-term target year – such as 2050 – provides strategic direction and policy certainty for investors and institutions. Interim milestones translate long-term ambition into measurable progress, enhancing credibility, enabling course correction, and reducing the risk of a delayed or disorderly transition.
  • Sector-specific targets: Disaggregated emissions reduction targets across different sectors – such as energy, transport and industry – clarify responsibilities, reflect varied mitigation potential and investment cycles, and support more precise policy design. Sectoral benchmarks also improve accountability and help monitor progress in relation to net-zero aims across the entire economy.
  • Sector-specific strategies: Coherent strategies aligned with sectoral targets translate economy-wide ambition into actionable pathways. In the energy sector, long-term system planning, deployment trajectories, and targets for renewables provide visibility on infrastructure, investment and technology choices, strengthening implementation and policy consistency over time.

Case study: Germany's climate law and sectoral targets

In 2019, Germany adopted a strategy to reach net-zero carbon emissions by 2045. First, the country defined economy-wide emissions reduction targets. Second, these overall targets were broken down into sector-specific emission limits. Policies in all sub-sectors are focused on reaching those targets. If a sector exceeds the emissions allowed for a given year, the responsible ministry must immediately submit an emergency programme to comply with GHG emission budgets in subsequent years.

Legislation and policy documents

Federal Ministry of Justice and Federal Office of Justice (Germany). "Bundes-Klimaschutzgesetz (KSG)" [Federal Climate Protection Act (KSG)]. Gesetze im Internet [Laws Online]. 2019.

Secondary literature

Erbach, Gregor. Germany's climate action strategy. European Parliamentary Research Service (PE 767.182). 2024.

Clean Energy Wire. "Germany's Climate Action Law." Factsheets. Clean Energy Wire. 2025.

Net-zero strategies and related long-term plans

Various strategies have emerged to help national policymakers manage the transition to a decarbonised energy sector. Most famously, the 2015 Paris Agreement under the United Nations Framework Convention on Climate Change (UNFCCC) gave rise to Nationally Determined Contributions (NDCs), a bottom-up framework to steer decarbonisation by setting country-specific mitigation targets. Since then, countries and regions have increasingly adopted long-term low-emission development strategies (LT-LEDS), net-zero strategies, integrated energy and climate plans, and other approaches.

Such long-term strategies depend on several crucial policy elements, namely:

  • Medium- and long-term targets: Clearly defined milestones provide strategic direction and investment certainty, helping align public and private decision-making with a net-zero trajectory. Interim benchmarks enable the systematic tracking of progress and timely policy adjustments where gaps emerge.
  • Governance: Different ministries, institutions and levels of government need effective coordination to ensure policy coherence and reduce the risk of conflicting objectives. Formal alignment between climate, energy and broader development strategies strengthens implementation and improves overall effectiveness.
  • Scenarios and modelling: A strong analytical foundation based on reliable data and realistic modelling supports evidence-based decision-making. Clear assessments of trade-offs, costs, system impacts and feasibility enhance the credibility and robustness of decarbonisation pathways.
  • Monitoring: Transparent monitoring, reporting and verification (MRV) systems enhance accountability and investor confidence. Regular tracking of outcomes against targets facilitates course correction and reinforces the integrity of long-term strategies.
  • Stakeholder engagement: Inclusive engagement processes and attention to social impacts strengthen political legitimacy and public support. Addressing distributional effects and employment implications reduces resistance to structural change and supports a just transition.

Case study: Costa Rica’s phased pathway to net zero

Costa Rica submitted its National Decarbonization Plan 2018–2050 to the UNFCCC as a long-term low-emission development strategy (LT-LEDS) in December 2019, with implementation spanning three phases: initial (2018–2022), inflection (2023–2030), and massive deployment (2031–2050).

The plan sets a goal of net-zero GHG emissions by 2050, aligning long-term climate ambition with national development planning. It integrates renewable energy scale-up with other decarbonisation measures, such as sustainable mobility, land-use management, and low-carbon agriculture, specifying clear phases and focus areas for implementation.

The Climate Change Directorate within the Ministry of Environment and Energy coordinated and led the planning process with presidential support, strengthening stakeholder engagement and subsequent governance.

Legislation and policy documents

Government of Costa Rica. National Decarbonization Plan 2018–2050: Long-Term Low-Emission Development Strategy. 2019.

Secondary literature

Groves, David G., et al., The Benefits and Costs of Decarbonizing Costa Rica’s Economy: Informing the Implementation of Costa Rica’s National Decarbonization Plan under Uncertainty. Inter-American Development Bank. 2020. osts-decarbonizing-costa-ricas-economy-informing-implementation-costa-ricas-national.

Further reading

UNDP and WRI. Designing and preparing Intended Nationally Determined Contributions (INDCs). United Nations Development Programme and World Resources Institute. 2015.

UNFCCC. Technical guide for the development of Long-Term Low-Emission Development Strategies in Africa. United Nations Framework Convention on Climate Change. 2024.

UNDP. Planning for a net-zero future: Guidance on how to develop a Long-Term Low-Emission Development Strategy (LT-LEDS). United Nations Development Programme. 2024.

GIZ and GGGI. Aligning NDCs and LT-LEDS: A step-by-step guide for practitioners. Deutsche Gesellschaft für Internationale Zusammenarbeit (GIZ) GmbH in cooperation with the Global Green Growth Institute (GGGI). 2025.

Renewable energy targets

Targets for renewable sources and technologies indicate the future trajectory of the energy system and provide long-term investment predictability. Setting targets and tracking progress also helps coordinate investments in power generation, grid enhancement and storage capacity. Targets can be either indicative or legally binding, with the possibility of financial penalties for non-compliance.

Renewable energy targets can take various forms:

  • Energy sector targets: Economy-wide renewable energy targets for the entire energy sector – including electricity, heating and cooling, and transport – provide an overarching signal that guides system-wide decarbonisation. Such targets help align investment decisions across sub-sectors and reduce the risk of fragmented or inconsistent policy development.
  • Sub-sector targets: Disaggregated targets for electricity, heating and cooling, and transport allow for differing mitigation potential, infrastructure needs and technology readiness. They enhance clarity on responsibilities and support tailored policy design, improving implementation and accountability in each sub-sector.
  • Technology-specific targets: Benchmarks informed by least-cost system modelling provide technology-level visibility on expected capacity expansion and infrastructure requirements. This can strengthen investor confidence, support supply-chain planning, and reduce uncertainty about the future energy mix.
  • Green hydrogen targets: Dedicated renewable energy targets linked to hydrogen production signal long-term demand for renewable electricity and related infrastructure. They can catalyse early investment, foster industrial development, and help provide green power for hard-to-abate industries.

Case study: Germany's renewable energy target framework

The German energy transition is guided by a clear set of targets for renewable energy deployment. First, targets were determined for the share of renewables in final energy consumption, encompassing all sub-sectors (electricity, transport, and heating and cooling). In accordance with the European Union's Renewable Energy Directive II (RED II), Germany aims to achieve at least 41% renewables in final energy consumption by 2030, although this objective is not anchored in national law.

Second, the Renewable Energy Source Act defines specific targets for the electricity sector. By 2030, renewables are expected to account for 80% of total final power demand. A climate-neutral electricity system is envisaged for 2035.

Third, technology-specific targets were adopted for solar PV and wind energy. Accordingly, solar PV deployment must continue growing from 99 gigawatts (GW) in 2024 to 215 GW by 2030. Installed capacities need to increase from 63 GW to 115 GW for onshore wind and 9 GW to 30 GW for offshore wind over the same period.

Legislation and policy documents

Federal Law Gazette (Germany). Renewable Energy Sources Act, as amended by Act to amend the Renewable Energy Sources Act to make biogas plants more flexible and secure follow-up funding (2025, No. 52). 24 February 2025.

Secondary literature

Agora Energiewende. Die Energiewende in Deutschland: Stand der Dinge 2025 [The Energy Transition in Germany: Status Report 2025]. Agora Energiewende. 2026.

Further reading

IRENA. Renewable energy targets in 2022: A guide to design. International Renewable Energy Agency. 2022.IRENA. Renewable energy target setting. June 2015, International Renewable Energy Agency. 2015.

Renewable portfolio standards and energy certificates

Renewable portfolio standards (RPS) and similar quota-based mechanisms have been used in various jurisdictions to establish binding renewable energy targets. This type of legislation typically requires electricity suppliers or vertically integrated utilities to obtain a defined proportion of their total electricity supply – e.g. 40% each year – from renewable energy sources.

Obligated entities may comply in various ways, typically by: (i) generating solar or wind power themselves; (ii) procuring renewable electricity from other producers; or (iii) proving compliance via tradable certificates. In this last case, the power-consuming entity must present the required total in green certificates at the end of each year or pay penalties.

Several countries, notably, have introduced RPS not to promote renewables but instead cap deployment at low levels, with the binding target serving in practice like a ceiling on deployment. This way, existing fossil-fuel assets were protected from competition by renewable energy projects.

Successful RPS use hinges on a range of mechanisms, including:

  • Compliance flexibility: Options such as competitive procurement, certificate trading or own-deployment reduce overall system costs and allow obligated parties to meet targets more efficiently. Such flexibility can enhance market liquidity and encourage innovation while maintaining the integrity of the standard.
  • Target setting: Ambitious and progressively increasing targets, accompanied by interim milestones, prevent RPS from functioning as a de facto ceiling on deployment. Well-calibrated targets reinforce long-term market growth and align the mechanism with broader decarbonisation objectives.
  • Penalties for non-compliance: Credible and proportionate financial penalties strengthen enforcement and enhance investor confidence in the durability of demand for renewable energy. Clear consequences for non-compliance reduce the risk of underachievement on strategic targets.
  • Clear coverage and eligibility: Specifying covered entities, applicable load, eligible technologies and certificate rules reduces loopholes and regulatory ambiguity. Precise definitions support additionality (e.g. incremental emission reductions or capacity additions), discourage companies from gaming the system, and ensure that deployment outcomes reflect policy intent.
  • Credible certification: Transparent and reliable systems for measuring power generation, issuing certificates and preventing double counting bolster market trust. Robust tracking and verification mechanisms enhance the environmental integrity and credibility of renewable energy certificates.
  • Stabilising certificate prices: Price-management tools, such as banking and borrowing provisions, floor and ceiling prices, or market reserves, can reduce excessive price volatility. Greater price stability improves predictability for investors while preserving market-based incentives.

Case study: Provincial renewable targets and certificate trading in China

China has introduced a “responsibility weight” for renewable electricity consumption, an RPS-style mechanism that sets binding minimum shares of renewables in total power consumption at the provincial level. The weight is defined as the proportion of locally consumed renewable electricity in total electricity use within each provincial administrative region, with two subweights: one for total renewable electricity and one specifically for nonhydropower renewables.

Target weights, differentiated mainly based on local resource endowments, are overseen by the National Energy Administration (NEA). Provincial authorities and obligated market participants, including large electricity consumers, are required to meet associated quotas.

China’s Green Electricity Certificate (GEC) system, piloted in 2017 as a voluntary scheme, has been expanded since 2023 to provide full coverage, making this the main instrument to document renewable electricity consumption across the country. For provinces, the fulfilment of responsibility weights is determined mainly based on actual consumption, while for obligated market participants, it mainly reflects the number of GECs each participant holds and surrenders.

Tradable certificates allow provinces with high renewable power generation to sell GECs to those with lower renewable shares, increasing flexibility and helping reduce overall compliance costs. However, certificate trading has raised concerns about regional equity, distributional impacts, and coordination between provinces with surplus certificates and those that remain structurally dependent on energy imports.

The NEA and other regulators use performance assessments, public reporting and, in some cases, constraints on project approvals or access to subsidies to enforce compliance, although provincial-level penalties and enforcement practices continue evolving.

Legislation and policy documents

国家发展改革委、国家能源局有关负责同志就《关于做好可再生能源绿色电力证书全覆盖工作 促进可再生能源电力消费的通知》答记者问 [NDRC and NEA officials and answer questions on Notice on Full Coverage of Renewable Energy Green Electricity Certificates to Promote Renewable Energy Electricity Consumption]. National Energy Administration. 2023.

Secondary literature

Monitoring and governance

Diligent monitoring and effective governance support clear guidance, transparent implementation, and continuous adjustment throughout the energy transition, with designated institutions tracking progress, enforcing accountability, and aligning actions at every level with strategic climate and energy objectives.

Key monitoring and governance elements include:

  • Monitoring, reporting, and verification: Standardised indicators, consistent data collection methodologies and independent verification strengthen data reliability and comparability over time. A robust monitoring, reporting and verification (MRV) framework enhances policy credibility, supports evidence-based decision-making, and underpins accountability in the transition process.
  • Regular review and adjustment cycles: Structured review processes at predefined intervals link monitoring outcomes to policy-revision cycles. The resulting feedback loop enables timely course correction, reduces the risk of persistent implementation gaps, and improves the adaptability of long-term strategies.
  • Transparent and publicly accessible data: Public access to monitoring results and methodologies reinforces accountability and strengthens stakeholder confidence. Transparent reporting supports informed debate, facilitates external scrutiny, and contributes to sustained public trust in the energy transition.
  • Institutional responsibility: Clearly defined roles in data collection, reporting, independent evaluation and follow-up actions reduce institutional overlaps and governance gaps. Well-defined mandates enable enhanced coordination among ministries and regulators, improving overall effectiveness and policy coherence.

Case study: Germany's Energiewende monitoring framework

Germany uses a formal, recurring monitoring process for the energy transition (Energiewende), centred on the federal government's Energiewende Monitoring Report, published annually and complemented by an in-depth Progress Report every four years. These reports track quantitative indicators for energy security, affordability, environmental impact and innovation.

In addition, an independent Expert Commission on the Energy Transition (Expertenkommision) critically evaluates the government's monitoring reports. The separation between reporting and evaluation strengthens transparency, credibility, and evidence-based policy adjustments.

Results captured in transition monitoring are explicitly used to inform policy revisions, periodic legislative reforms, grid expansion planning, and climate programmes. The process emphasises learning and course correction rather than fixed plans, enabling adaptive governance over time.

The Federal Ministry for Economic Affairs and Climate Action (BMWK) and other institutions also publish regular monitoring reports on further aspects of the energy transition, namely grid development, energy efficiency, security of electricity and gas supply, and progress in energy research.1

Legislation and policy documents

BMWE. Energy transition. Efficient. Do. Monitoring report at the start of the 21st legislative period. 2025.

Expert Commission on Energy Transition Monitoring. Monitoring Report 2025. BMWE. 2025.

Secondary literature

Agora Energiewende. Die Energiewende in Deutschland: Stand der Dinge 2025 [The Energy Transition in Germany: Status Report 2025]. Agora Energiewende. 2026.


1 Federal Ministry of Economic Affairs and Energy (Germany), Monitoring der Energiewende [Monitoring the Energy Transition]: www.bundeswirtschaftsministerium.de/Redaktion/DE/Artikel/Energie/monitoring-prozess.html.

Further reading

BMWK. Monitoring the Energy Transition.

Expanding and financing energy access

Rural electrification presents specific and complex challenges. A dedicated government agency can provide leadership and coordination and establish accountability among various institutions and the communities involved. It can also ensure consistency in planning, regulatory oversight, and long-term investment strategies that often eludes separate ministries or ad-hoc programmes.

Energy access governance and finance ideally include:

  • Specialised oversight: A rural electrification agency (REA) or similar institution can be put in charge of implementing all rural electrification activities and strategies.
  • Ring-fencing national funding: Funds for rural electrification activities, including mini-grids and off-grid solutions, can be ring-fenced for exclusive use by the REA or equivalent, with rules in place to define stable funding sources, such as levies, budget lines, and donor co-finance.
  • Clear regulatory frameworks: Licensing, tariff and connection rules must be transparent and predictable, with uniform technical and service standards and quality controls enabling private and community participation.
  • Financial support and incentives: The responsible agency must facilitate access to long-term, affordable financing for off-grid solutions, including innovative funding mechanisms like microfinance, results-based finance, and crowdfunding aimed at underserved areas.

Case study: Rural electrification in Nigeria

Nigeria's REA and Rural Electrification Fund (REF) were originally established under the Electric Power Sector Reform Act (EPSRA) of 2005. This framework was subsequently updated and consolidated under the Electricity Act of 2023, which now serves as the principal legislation governing Nigeria's power sector, with the REA and REF retained as core institutions for energy access.

The Electricity Act, 2023, formally reaffirms the REA as the federal agency responsible for promoting universal access to affordable, reliable, and sustainable electricity in rural, unserved, and underserved communities (Section 127(1)). This mandate positions the REA as the central implementing body for off-grid and decentralised electrification in Nigeria.

The same act establishes the REF as a dedicated financing mechanism to support rural electrification projects, with a strong emphasis on renewable energy and sustainable energy solutions. The fund is intended to ensure predictable and targeted allocation of resources to priority communities and projects.

The REA and its governing board are entrusted with REF management, overseeing fund mobilisation, eligibility and allocation criteria, and expenditures. This institutional arrangement aims to strengthen accountability, coordination, and alignment between policy objectives and project implementation.

Over the past decade, the REA has rolled out more than 200 solar mini-grids and other decentralised renewable energy solutions. These interventions have provided electricity access to over one million Nigerians and have catalysed more than USD 1 billion in public and private financing for rural electrification.

Nigeria's experience illustrates how a dedicated agency and ring-fenced fund, anchored in Legislation and policy documents, can support the deployment of decentralised renewables at scale while leveraging private investment to unlock energy access for previously underserved areas and communities.

Legislation and policy documents

Federal Republic of Nigeria. Electricity Act, 2023 (Sections 127–147). 2023.

Secondary literature

Stantec et al., Nigerian Market Report – May 2024. European Union and Alliance for Rural Electrification (Nigeria). 2024.

Phase-out plans for fossil fuels

Achieving very high shares of renewable-based electricity requires a carefully managed and gradual phasing down of fossil fuels. Clear and credible phase-out plans provide direction to investors, utilities and workers, signalling that carbon-intensive assets will be retired in line with decarbonisation objectives.

Policymaking plays a central role in setting timelines, aligning market rules and investment frameworks, and addressing social and regional impacts to ensure that fossil fuels are replaced by clean alternatives in a predictable and economically efficient manner. Well-designed phase-out strategies reduce stranded-asset risks, support system reliability during the transition, and create the policy certainty needed to accelerate investment in renewable energy and power-system flexibility.

Fossil-fuel phase-out strategies typically include:

  • Phase-out timelines and regulatory mandates: Clearly defined and legally anchored retirement schedules for fossil-fuel power plants provide long-term certainty and align asset lifetimes with climate objectives. Complementary restrictions on new fossil capacity – such as permit rules or emissions-performance standards – reduce the risk of lock-in and stranded assets, while signalling the direction of the energy system to investors and operators.
  • Market and pricing reforms: Carbon pricing and the gradual removal of fossil-fuel subsidies help internalise environmental and social costs, correcting market distortions that favour carbon-intensive power generation. By improving the relative competitiveness of renewable energy and low-carbon alternatives, such reforms support efficient capital allocation and accelerate the transition.
  • Just transition and social protection measures: Measures addressing workforce and regional impacts – such as retraining programmes, economic diversification initiatives, and inclusive stakeholder consultation processes – can mitigate social and economic disruptions linked to plant closures. A structured approach to managing distributional effects strengthens political legitimacy and public support for fossil-fuel phase-out strategies.
  • System adequacy and reliability planning: Coordinated planning, particularly for generation, storage, grids and demand-side flexibility, reduces the risk that fossil-fuel retirements compromise system reliability. Clear sequencing between plant closures and the deployment of clean capacity helps avoid supply gaps and price volatility.
  • Financial mechanisms for asset retirement: Dedicated transition funds, securitisation mechanisms or negotiated buy-out schemes can help manage stranded-asset risks and smooth the financial impact of early retirements. Structured approaches to cost recovery reduce litigation risks and provide clarity to investors.
  • Repurposing and site redevelopment strategies: Planning for the reuse of grid connections and industrial infrastructure, combined with brownfield redevelopment of fossil-fuel sites, can lower transition costs and support local economic renewal. Early redevelopment planning can avert long-term decline in affected areas and communities.

Case study: Chile’s coal phase-out strategy

In Chile, the Ministry of Energy has maintained agreements with the main coal-power operators – AES Gener, Colbún, Enel and Engie – to refrain from developing new coal-fired power plants without carbon capture and storage and to gradually retire the existing coal fleet by 2040. These initially voluntary arrangements were formalised in the ministry’s Decree N° 50/2020.

The initial schedule foresaw the retirement of eight out of 28 coal-fired units (about 19% of coal power capacity) by 2024 and the remainder by 2040, with the option for retired units to maintain strategic reserve status for up to five years with remuneration for their available capacity. In practice, Chile had surpassed the initial eightunit closure target by 2022.2

The country has committed to achieving carbon neutrality by 2050, with the gradual shutdown of its coal fleet as a key component of its decarbonisation strategy. Its most recent NDC and climate legislation set a target of at least 80% renewable electricity generation in the power mix by 2030.3

Chile has completely ceased domestic coal mining, closing its last site, Mina Invierno, in 2020. All coal currently used in the country’s power sector is imported, particularly from Colombia and Australia. As a result of targeted energy transition policies, the share of coal in Chile’s power mix fell from 34% in 2019 to 16% in 2024.4

Legislation and policy documents

Ministry of the Environment (Chile). Ley Marco de Cambio Climático [Framework Climate Change Law], Law No. 21.455. Diario Oficial, 13 June 2022. Biblioteca del Congreso Nacional de Chile. 2022.

Secondary literature

Agora Energiewende and Qazaq Green. Enabling a just coal transition in Kazakhstan: Opportunities, challenges and strategic pathways. 2024.

Agora Energiewende and GIZ. Phasing out coal in Chile and Germany: A comparative analysis. 2021.


2 GIZ in collaboration with Powering Past Coal Alliance (PPCA), Progress achieved in the retirement of coal facilities in Chile and the definition of a Just Energy Transition Strategy: www.jetknowledge.org/wp-content/uploads/2024/04/Chile-casestudy-giz.pdf.
3 Bloomberg Global Coal Countdown, Chile: bloombergcoalcountdown.com/countries/CL (updated as of July 2026); NDC Partnership, Chile: ndcpartnership.org/country/chl.
4 Ember. Electricity Data Explorer (Overview: Share of electricity generation in Chile): ember-energy.org/data/electricity-data-explorer/.

Further reading

IISD. From Commitment to Implementation: Guidance for Governments on Fossil Fuel Subsidy Phase-Out Plans. International Institute for Sustainable Development. 2025.

SEI, IISD and Climate Analytics. The Production Gap. 2025.

Energy Transitions Commission. Fossil fuels in transition: Committing to the phase-down of all fossil fuels. 2023.

IEA-RETD. RE-TRANSITION: Transitioning to policy frameworks for cost-competitive renewables (Final Report, March 2016. IEA Technology Collaboration Programme for Renewable Energy Technology Deployment (IEA-RETD). 2016.

Sub-national transition plans

Governments can provide substantial support to replace high levels of fossil-fuel value creation as the energy transition reshapes traditional economic foundations. As coal, oil and gas activities decline, proactive transition strategies focused on affected parts of a country help channel investment and industrial policy toward emerging sectors, ensuring that affected localities participate in new sources of growth.

Targeted measures – such as prioritising battery manufacturing, renewable energy projects or other suitable industries in phase-out areas – can anchor new value chains, sustain local employment, and maintain social and economic stability during and after the transition.

Important elements for sub-national transition planning include:

  • Localised industrial diversification strategies: Targeted diversification strategies reduce economic dependence on fossil-fuel activities and mitigate the risk of long-term decline in affected areas. Strategies that identify competitive advantages and support alternative sectors – including clean energy value chains and other industries, such as tourism – can broaden the local economic base and create new sources of employment and revenue.
  • Local procurement targets: Well-designed procurement provisions can strengthen linkages between incoming clean energy projects and local firms. By encouraging local sourcing and workforce participation, this targeted procurement approach can support job creation and embed investment benefits within the communities most affected by the transition.
  • Infrastructure investment: Upgrading transport, grid and digital infrastructure can enhance the attractiveness of transition-affected areas for new industrial and clean energy investments. Recycling public revenues or leveraging international financial support for infrastructure reduces structural disadvantages and facilitates economic renewal.
  • Investment incentives and tax credits: Fiscal incentives, grants and public-private partnership models can help offset higher perceived risks in areas formerly dependent on fossil-fuel extraction or related industries. Such measures improve the risk-return profile for investors and can catalyse private capital flows into emerging low-carbon industries.
  • Regional development funds: Dedicated funding mechanisms provide targeted support for community-led initiatives, small and medium-sized enterprises (SMEs), innovation activities and workforce retraining. Structured financial support strengthens local capacity to adapt and fosters inclusive economic transformation.
  • Social-protection and income-support mechanisms: Temporary income support, mobility assistance and early retirement schemes can smooth the adjustment for affected workers and households, reducing social disruption during restructuring.
  • Stakeholder participation frameworks: Inclusive regional planning processes enhance legitimacy and ensure that transition strategies reflect local priorities and socio-economic realities. Meaningful engagement with workers, local authorities and communities reduces resistance and improves the quality and sustainability of investment decisions.
  • Monitoring and evaluation mechanisms: Systematic tracking of employment trends, investment flows and social outcomes strengthens accountability and policy learning. Evidence-based assessments further support timely adjustments to local or sub-national transition measures, which in turn can reinforce government credibility in the transition process.

Case study: Spain's Just Transition Agreements and coal-sector closure

Spain's 2019 Just Transition Strategy has guided the closure of coal mines and power plants through Just Transition Agreements with unions, companies and local governments, covering multiple coal power stations (around 10 GW in total) and several thousand workers.

Spain's Institute for Just Transition coordinates funding, reskilling and territorial redevelopment and aligns national support measures with the EU Just Transition Fund. Affected workers have been offered early retirement options, reemployment pathways and training programmes, while companies commit to prioritising local labour for dismantling and site restoration.

Public investment has focused on renewable energy projects, environmental rehabilitation and support for local entrepreneurship to revitalise formerly coaldependent areas.

Legislation and policy documents

Ministry for Ecological Transition and the Demographic Challenge (Spain). Estrategia de Transición Justa [Just Transition Strategy]. 2019.

Secondary literature

Instituto para la Transición Justa [Institute for Just Transition (Spain)].

Fundación 1º de Mayo and ISTAS. Spain: A pioneer country in just transition. 2022.

Lázaro Touza, Lara, et al., From phasing-out to phasing-in: Lessons from Spain's just transition governance framework. Elcano Royal Institute. 2025.

Fundación para la Investigación sobre el Trabajo (ISTAS). (2022, 25 April). Spain: A pioneer country in just transition [PDF].

Lázaro Touza, L., Briones, A., Tirado Sarti, S., Averchenkova, A., López Gunn, E., & Escribano, G. (2025, February 27). From phasing-out to phasing-in: Lessons from Spain's just transition governance framework. Elcano Royal Institute.

Further reading

OECD. Managing Environmental and Energy Transitions for Regions and Cities. Organisation for Economic Co-operation and Development. 2020.

Eurofound. Supporting regions in the just transition: Role of social partners. European Foundation for the Improvement of Living and Working Conditions. 2023.

Anczewska, Marta, Juliette de Grandpré, Nikos Mantzaris, Georgi Stefanov, Katie Treadwell. Just transition to climate neutrality: Doing right by the regions. WWF Germany. 2020.

Just Transition Commission (Scotland, UK). Regional Planning for a Just Transition: A Case Study for the North East of Scotland. 2025.

GIZ. Just Transition Policies – Lessons from Europe. 2025.

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