Introduction

The concept of network governance is becoming increasingly important in energy law because modern electricity systems are no longer governed effectively through a simple hierarchical model in which a central government department controls utilities. Electricity networks are now complex, interconnected and multi-actor systems involving governments, independent regulators, transmission and distribution system operators, generators, renewable-energy producers, storage operators, consumers, aggregators, technology companies, municipalities and regional or international institutions.

The future theory of network governance therefore views energy regulation as a process of coordination among legally autonomous but interdependent actors. Instead of asking only “Who has the legal power?”, network governance asks “How should different institutions coordinate their powers, information, responsibilities and resources to achieve reliable, affordable, sustainable and fair energy systems?”

Indian electricity law already contains elements of this model. The Electricity Act 2003 separated generation, transmission and distribution functions and established independent regulatory commissions. The Supreme Court has described this transformation as a move toward independent and transparent regulation. (Sci API)

1. Meaning of Network Governance in Energy Law

Network governance means the regulation of a complex system through interaction among multiple institutions rather than through one central authority.

In traditional hierarchical governance:

Government → Regulator → Utility → Consumer

Under network governance, the structure becomes more interconnected:

Government ↔ Regulator ↔ TSO/DSO ↔ Generators ↔ Markets ↔ Consumers ↔ Municipalities ↔ Technology Providers

Each participant has different legal powers and responsibilities, but none can independently control the entire electricity system.

For example, transmission operators require information from generators; distribution operators require information from distributed-energy resources; regulators require technical information from system operators; and consumers increasingly become active participants through rooftop solar, batteries, demand response and electric vehicles.

2. Why Network Governance Will Become More Important

Several developments are pushing energy law toward network governance.

(a) Decentralisation

Electricity generation is moving from large centralised power stations toward:

rooftop solar;

community energy;

microgrids;

battery storage;

distributed generation;

electric vehicles; and

prosumers.

The legal system must therefore govern millions of interconnected participants rather than a small number of large utilities.

(b) Renewable Energy

Solar and wind generation are variable. Consequently, electricity regulation increasingly requires coordination between generation, transmission, storage, demand response and balancing institutions.

(c) Digitalisation

Smart meters, artificial intelligence, automated demand response and digital platforms create new regulatory networks involving energy companies and technology companies.

(d) Cross-Border Electricity Trading

European electricity markets demonstrate the increasing importance of regional governance. ACER and transmission-system operators participate in developing methodologies for cross-border capacity allocation and congestion management. Recent litigation concerning ACER demonstrates that the distribution of regulatory authority within such networks is itself subject to judicial review. (InfoCuria)

3. Theory of Polycentric Energy Governance

One major future theory is polycentric governance.

Under this approach, there is no single centre of decision-making. Instead, several centres exercise overlapping authority.

In electricity law, these may include:

Central Government;

State Governments;

CERC;

SERCs;

APTEL;

CEA;

transmission utilities;

distribution licensees;

system operators;

electricity markets;

municipalities; and

consumers and energy communities.

The advantage is that decisions can be made by institutions possessing specialised knowledge.

The disadvantage is possible jurisdictional conflict.

Indian case law

In PTC India Ltd. v. Central Electricity Regulatory Commission, (2010) 4 SCC 603, the Supreme Court recognised the regulatory rule-making function of CERC as a form of delegated legislative power. Later Supreme Court judgments have relied upon PTC to explain the legal character of electricity regulation. (Sci API)

This is important for network governance because it demonstrates that energy regulators are not merely administrative departments. Their regulations form an important component of the legal architecture governing the electricity network.

4. Collaborative Regulation Theory

Future energy regulation will increasingly involve collaborative regulation.

Instead of the regulator independently designing every technical rule, regulatory frameworks may involve:

utilities;

technical experts;

consumer organisations;

renewable-energy companies;

storage operators;

cybersecurity experts;

municipalities; and

market participants.

The regulator remains legally responsible, but regulation becomes more participatory.

This model is particularly relevant to:

smart-grid standards;

cybersecurity;

interoperability;

EV charging;

battery storage;

distributed energy resources; and

demand-response systems.

The principal legal requirement will be that collaboration must not become regulatory capture. Participation must therefore be accompanied by transparency, conflict-of-interest safeguards and reasoned decisions.

5. Adaptive Network Governance

Electricity technology changes faster than conventional legislation.

A statute may remain unchanged for ten years while:

battery technology changes;

new market platforms emerge;

artificial intelligence becomes integrated into grid management;

distributed generation expands; and

new forms of electricity trading develop.

Future energy law will therefore require adaptive governance.

Under adaptive governance:

legislation establishes broad objectives;

regulators develop technical rules;

system operators continuously monitor the network;

stakeholders provide information;

rules are periodically reviewed; and

courts supervise legality and procedural fairness.

This produces a regulatory system capable of responding to technological change without requiring legislative amendment for every technical development.

6. Network Governance and Independent Regulators

Independent regulators are central nodes within an energy-governance network.

Their role is likely to expand from traditional tariff regulation toward:

network planning;

resilience;

cybersecurity;

market design;

data governance;

distributed resources;

flexibility markets;

decarbonisation;

consumer protection; and

regional coordination.

The Supreme Court has recognised that electricity regulatory commissions possess significant adjudicatory and supervisory characteristics. In a 2021 judgment, the Court noted that commissions such as MERC have the characteristics of courts for specified disputes and exercise continuing regulatory supervision. (Sci API)

This supports a conception of regulators as permanent governance institutions within the electricity network, rather than merely licensing authorities.

7. Network Governance and Transmission System Operators

Transmission system operators will increasingly become important governance actors.

Modern electricity systems require them to coordinate:

congestion management;

balancing;

interconnection;

grid stability;

renewable integration;

capacity calculation; and

cross-border electricity flows.

European litigation concerning ACER provides particularly useful examples.

In BNetzA and Germany v. ACER, Joined Cases T-600/23 and T-612/23 (2025), the General Court considered ACER's authority concerning methodologies for cross-zonal capacity calculation and congestion management. The Court partially annulled the relevant Board of Appeal decision because ACER had applied requirements concerning classification of critical network elements that were not authorised by the applicable legal framework. (InfoCuria)

The case illustrates a fundamental principle of network governance:

Coordination does not eliminate legal boundaries.

Even within a highly integrated regulatory network, each institution must operate within its statutory competence.

8. European Network Governance and ACER

The European electricity system provides perhaps the clearest contemporary example of network governance.

Multiple actors interact:

European Union institutions;

ACER;

national regulatory authorities;

transmission system operators;

distribution system operators;

electricity exchanges; and

market participants.

In CRE v. ACER, Case T-446/21 (2024), the General Court considered ACER's methodology concerning cost sharing for redispatching and countertrading in the Core electricity region. (InfoCuria)

Similarly, TenneT TSO and TenneT TSO v. ACER, Case T-482/21 (2024) concerned ACER's methodology relating to legitimate loop flows and cost-sharing arrangements. (InfoCuria)

These cases demonstrate that future electricity governance will increasingly operate through institutional networks extending beyond national borders.

9. Network Governance and Regulatory Legitimacy

A major future question is:

Why should decisions made within complex regulatory networks be considered legitimate?

Traditional democratic legitimacy comes from elected legislatures.

But technical electricity decisions may be made by:

independent regulators;

system operators;

technical committees;

market bodies; and

supranational agencies.

Future network governance therefore requires four forms of legitimacy:

1. Legal legitimacy

The institution must possess lawful authority.

2. Procedural legitimacy

Affected parties should receive appropriate opportunities for participation.

3. Technical legitimacy

Decisions should be supported by credible technical evidence.

4. Democratic legitimacy

Regulatory decisions should remain accountable to elected institutions and the public.

10. Network Governance and Consumer Participation

Consumers will increasingly become active network participants.

A household with:

rooftop solar;

battery storage;

smart appliances;

electric vehicles; and

demand-response technology

may simultaneously be a consumer, producer, storage operator and flexibility provider.

This creates the concept of the prosumer.

Future electricity law must therefore determine:

who may participate in electricity markets;

how prosumers are compensated;

who owns energy data;

how network charges are calculated;

how consumers can disconnect or switch providers;

how vulnerable consumers are protected; and

how distributed resources are coordinated.

Network governance consequently changes consumers from passive recipients of regulation into participants in the regulatory network.

11. Network Governance and Data

Digital electricity networks create another governance layer: data governance.

Smart grids generate information concerning:

consumption;

generation;

voltage;

network congestion;

household behaviour;

electric vehicles; and

distributed resources.

Future energy law will therefore need rules concerning:

data ownership;

access rights;

privacy;

cybersecurity;

interoperability;

algorithmic decision-making; and

data sharing between network operators.

The electricity network will increasingly become both a physical infrastructure network and an information network.

12. Network Governance and Resilience

The traditional objective of electricity law has often been framed around reliability and security of supply.

Future network governance will expand this into resilience governance.

Resilience means the ability of the electricity system to:

anticipate disruption;

absorb shocks;

continue essential services;

recover quickly; and

learn from previous failures.

Governance will consequently require coordination among:

utilities;

regulators;

disaster-management authorities;

cybersecurity institutions;

municipalities;

consumers; and

critical infrastructure operators.

13. Network Governance and Climate Transition

Decarbonisation further strengthens network governance.

A successful energy transition requires coordination between:

renewable-energy policy;

electricity regulation;

transmission planning;

land regulation;

environmental law;

finance;

industrial policy;

transport electrification; and

consumer policy.

Therefore, future energy law cannot operate within isolated legal compartments.

The electricity regulator will increasingly have to interact with environmental, transportation, competition, financial and digital regulators.

14. Judicial Review in Network Governance

Courts will remain important because complex networks can produce conflicts concerning:

jurisdiction;

delegated powers;

procedural fairness;

tariff decisions;

network access;

market rules;

regulatory methodology; and

institutional accountability.

The judicial role should generally be understood as ensuring that network institutions:

act within their statutory authority;

follow required procedures;

provide reasons where legally required;

respect applicable regulations; and

do not arbitrarily exercise delegated powers.

The recent ACER cases show how judicial review can operate within highly technical and multi-level energy governance systems. (Court of Justice of the European Union)

15. Important Indian Case Laws

16. Future Legal Model

A mature network-governance model for energy law could contain six layers:

Layer 1 – Parliament/Legislature
Establishes fundamental legal objectives.

Layer 2 – Government
Develops national energy and climate policy.

Layer 3 – Independent Regulators
Create market, tariff and technical regulatory frameworks.

Layer 4 – System Operators and Utilities
Implement and coordinate real-time network operations.

Layer 5 – Market and Technology Participants
Generators, storage providers, aggregators, platforms and prosumers participate in the system.

Layer 6 – Courts and Tribunals
Provide legal accountability and resolve jurisdictional and regulatory disputes.

This creates a distributed but legally accountable governance architecture.

Conclusion

The future theory of network governance in energy law moves beyond the traditional idea that electricity should be governed primarily through a single governmental hierarchy. Modern energy systems require polycentric, collaborative, adaptive and technologically informed governance.

The most important legal challenge will be maintaining a balance between coordination and accountability. Networks must be sufficiently flexible to accommodate renewable energy, storage, digitalisation, prosumers and cross-border electricity markets, but institutional cooperation cannot become a substitute for statutory authority.

Indian jurisprudence, particularly PTC India, together with the developing European jurisprudence concerning ACER, TSOs and cross-border electricity methodologies, demonstrates that future energy law will increasingly involve overlapping regulatory institutions whose decisions must remain within clearly defined legal boundaries. (Sci API)

Ultimately, network governance suggests a future in which energy law becomes the law of coordination: coordinating markets with infrastructure, regulators with utilities, national systems with regional networks, technology with public interests, and decentralised participants with system-wide reliability.