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Enabling energy transitions: A policy guide – Part IV: Building resilient production, industry and value chains

Renewable energy for industry decarbonisation

Policies that support renewable energy use to reduce emissions from industrial processes can be compatible with maintaining industrial competitiveness, reliability and affordability. Along with manufacturing clean energy technologies, countries can decarbonise industrial output by fostering the use of renewable electricity and renewable-based fuels in factories and industrial systems.

Because many industrial assets are long-lived and capital-intensive, progress depends on clear direction and sequencing. Strategic frameworks and roadmaps help translate economy-wide ambition into practical pathways for priority sub-sectors and facilities, with milestones, governance and monitoring to guide investment and infrastructure planning. Turning those pathways into bankable projects often requires targeted measures to address cost premiums and risk. Finance and carbon pricing can mobilise capital, improve investment conditions, and create incentives that reward early action without undermining competitiveness.

Location-based approaches can accelerate delivery by concentrating infrastructure and services. Low-carbon industrial parks and clusters reduce costs through coordination, shared utilities and faster replication across firms. Additionally, industrial decarbonisation depends on reliable access to clean energy at scale. Open-access and corporate PPAs enable large users to procure renewable electricity directly and strengthen long-term price certainty, while green power trading and certification provides credible tracking so renewable energy use can be substantiated and procurement signals are reinforced.

Strategic frameworks and decarbonisation roadmaps

Effective industrial decarbonisation starts with clear strategic direction. Governments can anchor industrial emissions reduction in national energy transition strategies and sector roadmaps, grounded in a robust assessment of where emissions are concentrated. This builds on the broader discussion of net-zero strategies and targets by specifying how energy-intensive industries fit into the overall target hierarchy.

Key elements to drive industrial decarbonisation include:

  • Embedding industrial emission targets in national transition strategies: Industrial emissions goals need to be integrated into long-term net-zero or energy transition strategies, NDCs and sector plans, with explicit links to renewable energy supply, grids and hydrogen strategies. This ensures that industrial emissions are visible within those frameworks rather than treated separately. It is also consistent with guidance on net-zero strategies and broad energy-sector targets.
  • Identifying the highest-emitting sectors and facilities: Facility-level emissions and energy-use data must be collected consistently and comprehensively to identify the highest-emitting sectors, sub-sectors and installations. This assessment is crucial to prioritise sectors, areas and clusters for early action and national or international support.
  • Developing sector-specific roadmaps with interim targets: Priority energy-intensive sectors such as steel, cement, aluminium, fertilisers, chemicals and textiles require roadmaps that define technology pathways, interim-intensity and absolute emissions targets, along with the role of

renewable electricity and fuels in each pathway. These roadmaps give concrete sector-level expression to broader net-zero and renewable energy targets.

  • Aligning industrial, energy and infrastructure planning: Industrial strategies, grid expansion plans and synthetic-fuel strategies need coordination so that future renewable-based generation, network investments and industrial siting decisions are mutually reinforcing.
  • Creating governance and monitoring arrangements: Ministries or inter-ministerial bodies can be designated to guide industrial decarbonisation, supported by stakeholder platforms bringing together industry, labour and finance. Roadmaps can be updated in regular review cycles based on the latest emissions data, technology costs and market developments.

Case study: India’s “Greening the Steel Sector” roadmap and action plan

India has prepared a dedicated roadmap and action plan to decarbonise its steel sector, which accounts for roughly 12% of the country’s GHG emissions and is one of the main industrial sources of CO2. The sector is expected to grow significantly, as India’s per capita steel consumption remains well below the world average and infrastructure needs are rising. The Ministry of Steel’s roadmap for “Greening the Steel Sector in India” combines detailed diagnostics of current emissions with a longterm pathway aligned with national netzero objectives.

The roadmap sets out a sequence of actions from 2023 to 2070, underpinned by the work of 14 task forces, with a practical definition and taxonomy for “green steel” and an MRV framework to track emissions at plant level. Actions focus first on improving energy efficiency, increasing the use of scrap, and raising the share of renewable electricity, followed by pilot schemes for hydrogenbased direct reduced iron (DRI), increased use of biomassbased reductants, and carbon capture, utilisation and storage (CCUS) demonstrations, aiming for largescale deployment of breakthrough technologies after 2030.

On the policy side, the plan combines supplyside support with demandside levers. It envisages a policy framework for green public procurement of steel and marketbased incentives that reward lowemission production routes while maintaining international competitiveness. India’s roadmap, therefore, illustrates how a government can use diagnostics, longterm sector planning, renewableenergy integration, and procurement policies together to guide a hardtoabate industrial sector toward net zero.

Legislation and policy documents

Ministry of Steel (India). Greening the Steel Sector in India: Roadmap and Action Plan. Government of India. 2024.

Secondary literature

OECD. 2025. Implementing the OECD Framework for Industry’s Net Zero Transition in South Africa: Decarbonising the Iron and Steel Sector (section discussing India’s Roadmap and Action Plan for greening the steel sector). Organisation for Economic Co-operation and Development. 2025.

Further reading

IRENA. World Energy Transitions Outlook 2022. International Renewable Energy Agency. 2022.

IEA. Renewable Energy for Industry. International Energy Agency. 2017.

Presidential Climate Commission (South Africa). South Africa’s Just Energy Transition Investment Plan (JET-IP) [2023–2027]. November 2022.

State Council (China). Action plan for peaking carbon emissions before 2030 [Original title: 国务院关于印发2030年前碳达峰行动方案的通知 国发〔2021〕23号]. China Energy Portal. 2021.

DOE (U.S.). Industrial Decarbonization Roadmap Fact Sheet. U.S. Department of Energy. 2022.

Finance and carbon pricing for low-carbon industries

Once the strategic direction is set, governments can accelerate industrial decarbonisation by aligning finance and carbon-pricing instruments to support early movers. Hard-to-abate industrial sectors need large upfront investments, long payback periods, and predictable demand for low-carbon products. Targeted public finance and carbon pricing can de-risk early movers, enhance planning certainty, and align private investment with long-term decarbonisation goals.

Notable instruments include:

  • Blended public finance to de-risk first movers: Combining grants, concessional loans, guarantees, and public equity can reduce financing costs and risks for early low-carbon projects in energy-intensive sectors such as steel, cement, and chemicals. Blended finance, when tied to credible decarbonisation pathways and renewable energy use, helps crowd in private capital and accelerate learning.
  • Long-term contracts to bridge cost gaps: Carbon CfDs and similar mechanisms provide revenue certainty by covering the cost gap between low-carbon and conventional production, ensuring vital stability while carbon prices and markets for green materials are still maturing.
  • Progressive carbon pricing for industry: Expanding emissions trading systems or carbon taxes creates durable incentives to cut emissions and improves the competitiveness of low-carbon production. Predictable price paths, safeguards for trade-exposed sectors, and the recycling of revenues into decarbonisation and just-transition measures can enhance investment confidence and political acceptance.
  • Alignment with demand-side policies: Coordinating carbon pricing and financial support with green public procurement, product standards, and trade measures helps ensure reliable demand for green materials, reducing market risk for early investors.
  • Integration within sectoral roadmaps: Embedding finance and carbon-pricing choices within sectoral transition roadmaps improves the coherence of investment support, infrastructure planning, and trade policy, strengthening overall policy credibility and effectiveness.

Case study: Germany's carbon contracts for difference and industrial decarbonisation support

Germany has introduced carbon CfDs as a possible instrument to decarbonise energy-intensive industries while preserving competitiveness. Under this scheme, the state signs 15-year contracts with companies in sectors such as steel, cement, glass, paper and chemicals to cover the additional costs of switching from conventional to low-carbon production processes.

In the first round, 15 projects were selected to receive up to EUR 2.8 billion in support over the 15-year contract period, based on competitive auctions that awarded contracts to bidders requesting the lowest subsidy per tonne of CO₂ avoided. Payments depend on the evolving difference between the strike price reflecting low-carbon production costs and reference prices from the EU Emissions Trading System and energy markets, which also allows reverse payments if low-carbon routes become cheaper over time.

Germany is expanding this approach with a larger climate protection contract programme of around EUR 6 billion, which includes projects using green hydrogen, electrification and in some cases CCS. These contracts are embedded in the country's broader industrial and climate policy, which combines EU ETS carbon pricing, innovation funding, and infrastructure planning to support early movers and create leading markets for low-emission industrial products.

Legislation and policy documents

BMWK (Germany). Habeck presents first carbon contracts for difference: 15 transformation projects can now launch (press release), 15 October 2024).

Secondary literature

Agora Industrie, FutureCamp, Wuppertal Institut, and Ecologic Institut. Klimaschutzverträge für die Industrietransformation (Gesamtstudie): Kurzfristige Schritte auf dem Pfad zur Klimaneutralität der deutschen Grundstoffindustrie. [Climate Protection Contracts for Industrial Transformation: Short-Term Steps on the Path to Climate Neutrality for Germany's Basic Materials Industries]. Agora Industrie. 2022.

DIW Berlin. Klimaschutzverträge (Carbon Contracts for Difference). 2024.

Further reading

IEA. Policy Toolbox for Industrial Decarbonisation. International Energy Agency. 2025.

IEA. Achieving Net Zero Heavy Industry Sectors in G7 Members. International Energy Agency. 2022.

IRENA. Reaching Zero with Renewables. International Renewable Energy Agency. 2020.

Agora Industrie. Breakthrough strategies for climate-neutral industry in Europe. Agora Industrie. 2021.

Industrial clusters and low-carbon industrial parks

Industrial parks and clusters can concentrate energy-intensive industries in specific locations. This facilitates decarbonising with renewable energy, because governments and firms can plan shared low-carbon infrastructure instead of acting site by site. Well-designed cluster policies can also support local development and just-transition goals.

Key cluster policies include:

  • Targeting priority clusters and industrial hotspots: Mapping industrial facilities, energy demand, and emissions helps identify where coordinated action can deliver the largest emissions reductions while safeguarding employment. Focusing on clusters or corridors helps address concentrated risks and opportunities more effectively than firm-by-firm approaches.
  • Anchoring clusters in renewable electricity supply: Linking industrial parks to dedicated or shared power generation from renewables – through direct connections, open access arrangements, or long-term PPAs – supports deep electrification and reduces exposure to volatile fossil-fuel prices. Coordination with power system and grid planning helps ensure that rising industrial demand is matched by new renewable capacity.
  • Shared low-carbon infrastructure development: Cluster-based approaches enable joint investments for infrastructure – such as reinforced grid connections, energy storage, hydrogen production and storage, CO2 transport and storage, or shared heat and steam networks – that would be uneconomic for each firm on its own. Investing together lowers costs and accelerates deployment.
  • Planning and incentive alignment: Coordinated land-use planning, zoning, permitting, and fiscal incentives can steer new or expanding industrial activity toward renewable-anchored clusters, reducing system costs and avoiding fragmented, carbon-intensive development patterns.
  • Skills, employment, and local value creation: Integrating cluster development with reskilling programmes, training centres, and local supplier development strengthens workforce transitions, embeds economic benefits locally, and supports just-transition objectives.
  • Inclusive cluster governance platforms: Dedicated coordination bodies that bring together public authorities, industry, workers, and communities can support joint infrastructure planning, emissions monitoring, and alignment between climate, industrial, and regional development goals.

Case study: The zero-carbon industrial park in Ordos, Inner Mongolia, China

China is using zero-carbon industrial parks as pilots for renewable-anchored industrial clusters, with a leading example being Inner Mongolia’s Ordos Net-Zero Industrial Park, developed by Envision Group and local authorities from April 2022. The park is widely promoted as the world’s first net-zero (zero-carbon) industrial park, positioning it as a flagship for China’s green industrial transition.

The park operates on 100% zero-carbon energy through an integrated “wind-solar-storage-hydrogen” system, supplying most electricity from onsite wind and solar systems, complemented by battery storage and additional renewable power purchased from the grid. An independent distribution network and 220-kilovolt substation connect an initial wind-solar-storage project of roughly 385 MW directly to the park, delivering several hundred million kilowatthours (kWh) of renewable electricity per year to clustered industries.

Ordos hosts a growing industrial chain that includes battery manufacturing, hydrogen equipment, and upstream and downstream suppliers for renewable energy technologies, supporting job creation, local value addition, and a gradual reduction in coal consumption in the surrounding area. Developers have also established an international standard for net-zero industrial parks and a digital carbon and energy management platform, designed to monitor emissions in real time and optimise energy use for the site.

These tools are intended to support replication in other Chinese industrial parks and are informing emerging national guidance on zero-carbon industrial development.

Legislation and policy documents

NDRC, MIIT, and NEA (China). 关于开展零碳园区建设的通知(发改环资〔2025〕910号) [Notice on the Development of Zero-Carbon Industrial Parks (Fa Gai Huan Zi [2025] No. 910)]. Joint notice of the National Development and Reform Commission (NDRC), Ministry of Industry and Information Technology (MIIT), and National Energy Administration (NEA), 8 July 2025. NDRC. 2025.

Secondary literature

SJ Group. Ordos’ new net-zero industrial park (project overview). 2025.

Envision. Ordos Envision Net Zero Industrial Park: A carbon platform enabled by artificial intelligence of things (AIoT). 2025.

Further reading

World Economic Forum. Transitioning Industrial Clusters Annual Report. 2024.

World Bank. “Eco-Industrial Parks Emerge as an Effective Approach to Sustainable Growth.” (Feature story highlighting the first joint international framework on eco-industrial parks (EIPs), launched by the World Bank Group, UNIDO, and GIZ.) World Bank. 2018.

Piatkowski, Marcin Miroslaw, Antoine Coste, Lei Shi, Yufan Du, and Zezhou Cai. Enhancing China’s Regulatory Framework for Eco-Industrial Parks: Comparative Analysis of Chinese and International Green Standards (Vol. 1 of 2). World Bank. 2019.

Open-access and corporate PPAs for industrial users

PPAs allow industrial consumers to buy renewable electricity directly from generators or through the grid, either collectively or at the corporate level, instead of relying only on their local utility mix. When rules are clear and charges are predictable, these tools can cut emissions, hedge electricity costs, and stimulate new investment in renewables, especially in systems where large industry is a dominant consumer.

Key PPA elements include:

  • Eligibility and access thresholds: Clear eligibility rules for consumers, combined with appropriately low size thresholds, can broaden PPA participation beyond large industrial users and extend renewable electricity access to SMEs.
  • Streamlined and standardised processes: Simple, digitalised approval procedures based on standard documentation and time-bound decisions reduce administrative risk and transaction costs, improving predictability for both buyers and project developers.
  • Transparent and predictable network charges: Clearly defined transmission, wheeling, banking, and standby charges, combined with caps on cross-subsidy surcharges, support fair cost recovery while avoiding pricing structures that undermine the economic case for renewable-based open access.
  • Flexible PPA structures: Physical and virtual corporate PPAs – including on-site, sleeved, or wheeled arrangements – allow industrial users to match contract structures to their risk preferences and market context, as well as clarifying how tariffs, balancing, and settlement rules will apply.
  • Aggregation and credit enhancement: Allowing the aggregation of demand among smaller consumers and across multiple sites boosts market access and scale, while standardised contracts and targeted credit-enhancement instruments help maintain project bankability.
  • Certification and disclosure alignment: Linking corporate sourcing for renewables to recognised energy attribute certificates or green labels keeps emissions claims credible and comparable, as well as consistent with national reporting and disclosure frameworks.

Case study: India’s Green Energy Open Access Rules and corporate sourcing

India’s Green Energy Open Access Rules, published in June 2022, are a prominent example of open access regulation to scale up renewable power procurement by industrial and commercial consumers. They reduce the minimum load requirement for green open access from 1 MW to 100 kW, allowing consumers above that threshold to procure renewable power from third-party generators or request it from their distribution company. This significantly broadens eligibility for corporate sourcing of renewables.

To encourage uptake, the rules cap cross-subsidy surcharges, waive additional surcharges for green open access, and provide greater clarity on charges for transmission, wheeling, and standby tariffs. India’s rules also make provision for surplus energy to be banked with the distribution company. Approvals should be processed within 15 days via a national online portal, with applications deemed approved if technical conditions are met. Subsequent amendments in 2023 enabled aggregation across multiple connections and further clarified banking rules and settlement periods.

By late 2024, a large majority of Indian states had issued or were drafting implementing regulations under the Green Energy Open Access framework, and a growing number of renewable power developers were offering open access and corporate PPA products to industrial clients, particularly in more industrialised states.

This case illustrates how open-access and corporate-sourcing rules can be designed to widen eligibility, reduce regulatory and tariff uncertainty, and create stable conditions for renewable project finance. The same approach can also support emerging policies on green hydrogen and green ammonia, which depend on access to dedicated renewable electricity supply.

Legislation and policy documents

Ministry of Power (India). Electricity (Promoting Renewable Energy Through Green Energy Open Access) Rules, 2022 (G.S.R. 418(E)). 2022.

Ministry of Power (India). Electricity (Promoting Renewable Energy Through Green Energy Open Access) Amendment Rules, 2023 (G.S.R. 59(E)). 27 January 2023.

Ministry of Power (India). Electricity (Promoting Renewable Energy Through Green Energy Open Access) (Second Amendment) Rules, 2023 (G.S.R. 381(E)). 23 May 2023.

Secondary literature

Sharma, Prabhakar, Aman Gupta, Pulkit Moudgil, and Vibhuti Garg. Impact of Green Energy Open Access Rules, 2022. Institute for Energy Economics and Financial Analysis. 2022.

Further reading

IEA. Scaling Up Private Finance for Clean Energy in Emerging and Developing Economies. International Energy Agency. 2023.

IRENA. Corporate Sourcing of Renewable Energy: Market and Industry Trends. International Renewable Energy Agency. 2018.

Global Renewables Alliance. Corporate sourcing.

Green power trading and certification for industrial buyers

Green power trading schemes and energy attribute certificates let industrial consumers buy and claim renewable electricity in a traceable way. Robust tracking and certification prevent double counting, strengthen corporate decarbonisation claims and support green procurement and carbon pricing policies. Trading in green power and associated environmental attributes support renewable electricity claims by industrial buyers.

Credible trading and certification depend on several components:

  • Clear certificate schemes and registries: A single, well-defined energy attribute certificate scheme, supported by a central electronic registry, ensures accurate tracking of issuance, transfer, and retirement, with clearly assigned roles for issuers, traders, and end users, enhancing transparency and trust.
  • Coherent links between power trading and certificates: Integrating green power trading with certificate issuance and transfer ensures that environmental attributes follow the electricity contract, while clear separation from carbon credits and other instruments prevents double counting and preserves market integrity.
  • Inclusive access for industrial buyers: Allowing industrial consumers to participate directly or via retailers and aggregators expands demand for renewable electricity, while transparent rules on contract duration, volumes, pricing, and settlement reduce uncertainty and transaction costs.
  • Credible use and retirement rules: Robust requirements for certificate use – including time matching and mandatory certificate retirement when claims are made – ensure that green power claims are verifiable and meaningful, with increasing temporal and geographic granularity strengthening credibility over time.
  • Alignment with wider policy and reporting frameworks: Consistency between green power trading, certification systems, national GHG inventories, corporate disclosure rules, and carbon pricing instruments gives industrial buyers clear and coherent signals on how renewable electricity sourcing affects their emissions reporting and compliance.

Case study: China’s green power trading and Green Electricity Certificates

China launched a national pilot scheme for green power trading in September 2021, with the Beijing and Guangzhou power exchange centres, backed by State Grid and China Southern Power Grid, organising the trades. The first trading day alone saw about 7.95–10.9 terawatt-hours (TWh) of green electricity traded, signalling strong initial demand. Trading volumes have since expanded rapidly, with annual green power transactions reaching well over 200 TWh by 2024. Inner Mongolia’s power grid joined as a third regional green power trading platform in 2024, further extending coverage.

China’s Green Electricity Certificate (GEC) system was piloted in 2017 as the domestic energy attribute certificate scheme, with each GEC representing 1 MWh (1,000 kWh) of renewable electricity. In August 2024, the National Energy Administration issued detailed “Rules for the Issuance and Trading of China Green Electricity Certificates,” confirming GECs as the sole recognised certificate for renewable electricity generation and consumption in China and the only official proof of green electricity attributes.

Green power trading and GECs now operate as an integrated system: green power can be procured via dedicated sessions on regional power exchanges or via bilateral contracts, with GECs transferred together with the electricity or traded separately. National and regional platforms have linked the former China Green Power Certificate Trading Platform to the Beijing and Guangzhou exchanges, enabling both bundled and unbundled transactions. By the end of 2024, nearly 5 billion GECs had been issued in total, with about 446 million certificates traded in that year alone.

Policy updates in 2024 expanded eligibility beyond onshore wind and utility-scale PV to include hydropower, biomass, geothermal and marine energy. International Renewable Energy Certificate (IREC) issuance in China ceased in 2025, so that domestic GECs now function as the unified instrument for renewable electricity claims. This integrated framework offers industrial buyers a standardised way to source and credibly claim renewable electricity and creates an additional revenue stream for project developers.

Legislation and policy documents

NEA (China). 国家能源局关于印发《可再生能源绿色电力证书核发和交易规则》的通知(国能发新能规 [2024] 67号) [Notice on the Issuance and Trading of Renewable Energy Green Electricity Certificates (Guo Neng Fa Xin Neng Gui [2024] No. 67)]. National Energy Administration (NEA). 2024.

Secondary literature

I-TRACK Foundation. China Introduces New EAC Policy (explains implications of NEA GEC rules for energy attribute certificates, including the phase-out of I-REC issuance). The International Tracking Standard (I-TRACK) Foundation. 2024.

Jiang, Yi, Yujing Liu, Jun Xie, and Shuo Gao. Corporate Green Power Procurement and Application: China’s Market Progress and Outlook (2024 Annual Report). RMI. 2025.