Introduction

The future industrial strategy for electricity systems refers to the legal, regulatory, economic and institutional framework through which governments plan to develop electricity generation, transmission, distribution, storage, manufacturing and associated technologies in a way that supports industrial development. Electricity is no longer merely a utility supplied to consumers; it is increasingly a strategic industrial input for manufacturing, digital infrastructure, transport, hydrogen production, artificial intelligence, data centres and other energy-intensive sectors.

Future industrial strategy therefore has to reconcile several objectives:

reliable and affordable electricity;

expansion of renewable and low-carbon generation;

development of domestic electricity equipment manufacturing;

modernisation of transmission and distribution networks;

energy security and supply-chain resilience;

competitive electricity markets;

investment certainty;

technological innovation; and

environmental and social objectives.

In India, the Electricity Act, 2003, tariff-based competitive procurement, regulatory commissions, transmission planning and renewable-energy policies provide important foundations for such a strategy.

1. Meaning and Scope

Traditional electricity regulation concentrated on preventing monopoly abuse, fixing tariffs and ensuring universal supply. A future industrial strategy goes further by asking how electricity regulation can actively support productive economic capacity.

It may include:

strategic generation planning;

renewable-energy manufacturing;

battery and energy-storage industries;

transmission-equipment manufacturing;

smart-grid technology;

electric-vehicle infrastructure;

green hydrogen;

domestic critical-mineral supply chains;

industrial demand-response markets;

long-duration energy storage;

digital electricity infrastructure; and

resilient electricity supply chains.

Thus, electricity law becomes closely connected with industrial policy, competition law, environmental law, infrastructure law and economic regulation.

2. Electricity as Strategic Industrial Infrastructure

Modern industries require electricity that is not merely available but reliable, predictable, affordable and increasingly low-carbon.

For example, semiconductor manufacturing, data centres, steel, aluminium, chemicals, railways and hydrogen production can require large quantities of electricity. Interruptions or volatile prices can materially affect industrial investment.

Future electricity regulation may therefore provide differentiated frameworks for:

energy-intensive industries;

strategic manufacturing;

critical infrastructure;

export-oriented industries;

small and medium enterprises; and

emerging clean-technology sectors.

However, preferential treatment must remain consistent with principles of transparency, competition and non-discrimination.

3. Domestic Manufacturing and Electricity-System Industrial Policy

A future industrial strategy will increasingly connect electricity-sector development with domestic manufacturing.

Governments may seek to develop domestic capabilities in:

solar modules;

wind turbines;

transformers;

switchgear;

cables;

batteries;

power electronics;

smart meters;

grid-management software;

electrolyzers;

charging infrastructure; and

grid-scale storage.

This transforms electricity procurement into an industrial-policy instrument.

For example, public procurement can potentially establish technical standards or eligibility requirements that encourage domestic manufacturing, provided that such requirements comply with applicable competition, trade and procurement obligations.

4. Competitive Procurement as an Industrial Strategy

India's experience with Ultra Mega Power Projects (UMPPs) illustrates how electricity procurement can be used to mobilise large-scale private investment.

In All India Power Engineer Federation v. Sasan Power Ltd. (2016), the Supreme Court considered the legal framework surrounding the tariff-based competitive bidding process for the Sasan UMPP. The Court's discussion arose in the context of procurement undertaken under the Electricity Act framework. (Indian Kanoon)

The case demonstrates an important principle for future industrial strategy: large electricity infrastructure can be developed through competitive procurement rather than simply through administrative allocation.

Future procurement may extend this approach to:

renewable electricity;

battery storage;

pumped hydro;

firm renewable power;

green hydrogen;

transmission projects; and

hybrid generation-storage projects.

5. Long-Term Investment Certainty

Industrial electricity infrastructure requires substantial capital and often has investment horizons of decades.

Consequently, future industrial strategy must address regulatory stability.

Important areas include:

change-in-law provisions;

tariff adjustment mechanisms;

force-majeure provisions;

currency risks;

fuel-price risks;

environmental compliance costs;

grid-connection rules; and

contract renegotiation.

The litigation surrounding the Sasan project demonstrates the significance of these issues. Sasan Power pursued claims concerning change-in-law events and project economics before the electricity regulatory authorities and appellate bodies. (Indian Kanoon)

More recently, disputes concerning the Mundra Ultra Mega Power Project have also involved the treatment of regulatory and environmental compliance costs, including flue-gas desulphurisation requirements. (Indian Kanoon)

The broader lesson is that industrial strategy requires predictable allocation of regulatory risk.

6. Transmission as the Backbone of Industrial Strategy

Generation capacity alone cannot create an industrial electricity system. Strategic transmission infrastructure is equally important.

Future industrial strategy will require:

high-capacity inter-regional transmission;

HVDC corridors;

renewable-energy transmission;

industrial transmission corridors;

offshore-grid infrastructure;

storage-connected networks;

digital grid management; and

greater interconnection between electricity markets.

The Supreme Court's decision in Tata Power Company Ltd. Transmission v. Maharashtra Electricity Regulatory Commission (2022) examined the legal framework governing development of a major HVDC transmission project and the relationship between transmission licensing and competitive bidding. (Indian Kanoon)

The case is particularly relevant because future industrial policy may require governments to balance competitive procurement with strategic infrastructure planning.

7. Strategic Electricity Markets

Future industrial strategy is unlikely to rely exclusively on traditional long-term PPAs.

Electricity systems may increasingly combine:

bilateral PPAs;

day-ahead markets;

real-time markets;

capacity mechanisms;

ancillary-service markets;

flexibility markets;

storage contracts; and

demand-response arrangements.

Industrial consumers could become active participants rather than passive purchasers.

For example, a large factory might:

purchase long-term renewable electricity;

participate in the power exchange;

operate battery storage;

reduce consumption during peak periods; and

provide grid-balancing services.

Electricity law will therefore need to recognise industrial consumers as market participants.

8. Renewable Energy and Industrial Competitiveness

Decarbonisation increasingly affects industrial competitiveness because companies face pressure to reduce the carbon intensity of their production.

Future industrial electricity policy may consequently promote:

renewable PPAs;

green open-access electricity;

renewable-energy certificates;

storage-backed renewable electricity;

green hydrogen;

carbon accounting; and

low-carbon industrial clusters.

But renewable support mechanisms must be carefully designed. European jurisprudence demonstrates that financial support for renewable electricity can raise questions concerning State aid and the operation of electricity markets.

In PreussenElektra AG v Schleswag AG (Case C-379/98), the Court of Justice of the European Union considered German legislation requiring electricity suppliers to purchase renewable electricity at minimum prices. (InfoCuria)

The case remains significant for understanding the interaction between renewable-energy support mechanisms, electricity markets and State-aid principles.

9. Industrial Electricity Pricing

Electricity pricing will be one of the most important components of future industrial strategy.

Industrial consumers need prices that are:

competitive;

transparent;

predictable; and

reflective of system costs.

However, excessive subsidies for industrial users can shift costs to households or other consumers.

Therefore, future tariff policy may use:

time-of-use tariffs;

demand charges;

interruptible tariffs;

long-term contracts;

competitive procurement;

locational pricing; and

flexibility incentives.

The legal challenge is to balance industrial competitiveness with consumer protection and financial sustainability of utilities.

10. Electricity Storage and Industrial Strategy

Storage will become a central industrial asset.

Future systems will combine:

lithium-ion batteries;

flow batteries;

pumped-storage hydro;

thermal storage;

hydrogen;

compressed-air storage; and

other long-duration technologies.

Regulation must determine whether storage is treated as:

generation;

transmission;

distribution;

a separate market asset; or

a multi-function infrastructure resource.

Clear classification is important because it affects licensing, tariffs, taxation, market participation and revenue recovery.

11. Critical Minerals and Supply-Chain Security

Electricity-system industrial strategy increasingly intersects with critical minerals.

Modern electricity infrastructure depends on materials such as:

lithium;

cobalt;

nickel;

copper;

graphite; and

rare-earth elements.

A future industrial strategy therefore cannot focus exclusively on electricity generation. It must also address the upstream industrial ecosystem.

Legal mechanisms may include:

strategic stockpiles;

recycling obligations;

responsible-mining standards;

supply-chain diversification;

domestic processing;

international partnerships; and

circular-economy requirements.

This approach links electricity law with mining, environmental and trade regulation.

12. Digitalisation and Smart Electricity Systems

Future industrial electricity systems will be increasingly digital.

Important technologies include:

smart meters;

automated demand response;

artificial intelligence;

predictive maintenance;

digital substations;

distributed-energy management systems;

blockchain-based transactions; and

cyber-secure grid management.

This creates new legal questions concerning:

cybersecurity;

data ownership;

algorithmic decision-making;

interoperability;

privacy;

liability for automated decisions; and

access to electricity-system data.

Consequently, industrial electricity strategy must increasingly incorporate digital regulation.

13. Electricity Regulation and Environmental Compliance

Industrial electricity projects must operate within environmental law.

Future electricity regulation will therefore need to coordinate:

environmental impact assessment;

air-pollution standards;

water regulation;

land acquisition;

biodiversity protection;

climate obligations; and

emissions-control requirements.

The Mundra UMPP litigation illustrates how environmental requirements can have direct economic consequences for large electricity projects. The 2024 APTEL proceedings concerned the treatment of costs associated with installation of flue-gas desulphurisation equipment and their effect on project tariff. (Indian Kanoon)

This demonstrates why future industrial strategy should incorporate environmental compliance into project economics from the beginning, rather than treating it as a subsequent regulatory issue.

14. Green Industrial Clusters

A future industrial strategy may increasingly develop integrated electricity-industrial clusters.

A cluster could contain:

Renewable generation → transmission → storage → industrial consumers → green hydrogen → manufacturing → export infrastructure.

Such clusters can reduce infrastructure duplication and coordinate electricity supply with industrial demand.

Examples could include:

renewable-energy manufacturing zones;

green-steel clusters;

hydrogen hubs;

battery-manufacturing clusters;

semiconductor industrial corridors; and

data-centre energy zones.

The legal framework would need coordinated rules concerning land, transmission access, electricity procurement, environmental approval and industrial incentives.

15. Role of Electricity Regulatory Commissions

Regulators such as CERC and State Electricity Regulatory Commissions will remain central.

Their future responsibilities may expand beyond conventional tariff regulation toward:

market design;

flexibility markets;

storage regulation;

demand response;

digital systems;

transmission planning;

consumer data;

distributed generation; and

decarbonisation mechanisms.

At the same time, industrial strategy should not eliminate regulatory independence. Long-term investment confidence depends partly upon predictable and technically reasoned regulatory decisions.

16. Case Law and Its Significance

A. All India Power Engineer Federation v. Sasan Power Ltd. (2016)

The Supreme Court considered the competitive-bidding framework associated with the Sasan UMPP. The case is important for understanding competitive electricity procurement and contractual discipline in large infrastructure projects. (Indian Kanoon)

B. Tata Power Company Ltd. Transmission v. Maharashtra Electricity Regulatory Commission (2022)

The Supreme Court examined the regulatory and competitive-bidding framework applicable to a major transmission project. It illustrates the legal importance of transmission planning, licensing and competitive procurement. (Indian Kanoon)

C. Sasan Power Ltd. v. CERC proceedings

Sasan-related litigation has also addressed change-in-law claims and allocation of regulatory risks affecting large electricity projects. (Indian Kanoon)

D. Tata Power Company Ltd. v. Gujarat Urja Vikas Nigam Ltd. (2024)

The APTEL proceedings concerned the treatment of environmental-compliance costs associated with FGD installation at the Mundra UMPP. The case illustrates how environmental regulation can affect electricity tariffs and investment economics. (Indian Kanoon)

E. PreussenElektra AG v. Schleswag AG, C-379/98

The CJEU examined renewable-electricity purchase obligations and minimum-price mechanisms, demonstrating the relationship between renewable-energy industrial policy and electricity-market regulation. (InfoCuria)

F. Achema and Lifosa v Commission, T-300/19

The EU General Court considered State-aid issues concerning renewable-electricity support and electricity-intensive undertakings. The case illustrates the legal tension between industrial competitiveness, renewable-energy support and competition rules. (InfoCuria)

17. Future Legal Architecture

A mature future industrial electricity strategy could be organised around six interconnected pillars:

The important development is that electricity regulation would become strategic infrastructure law, rather than merely tariff law.

18. Challenges

Several difficulties must be addressed.

Regulatory fragmentation

Electricity, environment, industry, mining, transport and trade authorities may operate under separate legal frameworks.

Risk of excessive industrial subsidies

Preferential electricity prices may create distortions and shift costs to other consumers.

Market concentration

Large infrastructure projects may increase concentration in generation, transmission equipment or technology markets.

Stranded assets

Rapid technological change can make conventional generation or network investments economically obsolete.

Environmental conflict

Industrial expansion may conflict with land, biodiversity, water and emissions objectives.

Technology dependence

Dependence on imported equipment or critical minerals may create strategic vulnerabilities.

Conclusion

Future industrial strategy for electricity systems represents a transition from electricity regulation as a narrow utility function toward electricity as a foundation of national industrial infrastructure.

The future framework will need to integrate competitive procurement, renewable energy, transmission expansion, storage, domestic manufacturing, digitalisation, critical-mineral security and environmental regulation.

Indian electricity jurisprudence already provides important building blocks. The Sasan litigation demonstrates the importance of competitive procurement and contractual risk allocation; Tata Power Transmission illustrates the importance of strategic transmission infrastructure; and the Mundra proceedings show how environmental requirements can affect electricity-project economics. (Indian Kanoon)

Ultimately, the future legal architecture should seek to create an electricity system that is reliable enough for strategic industries, competitive enough to attract investment, flexible enough to accommodate new technologies, and environmentally sustainable enough to support long-term industrial development.