Who gets the power? Treating grid access as a strategic allocation question

The queue is already an industrial policy

For most of the grid’s history, connection rules could be treated as technical administration. A credible project applied, engineers studied the impact, the necessary upgrades were identified, and the customer paid under established rules. That model works while requests are limited and the network can expand at roughly the same pace as demand.

Those conditions no longer hold. The International Energy Agency estimates that more than 2,500 GW of renewable generation, storage and large-load projects are stalled in grid queues worldwide. New transmission can take five to fifteen years to plan and build; a data centre may be ready in one to three. When demand for capacity moves faster than the grid, a neutral queue becomes impossible. First-come, first-served rewards timing. Highest-bidder rewards capital. Maturity rules reward projects that can document readiness. Each method selects a different economy.

The strategic question is therefore not whether to allocate. Allocation is already happening through delay, queue design, network tariffs and investment decisions. The real question is whether those choices are explicit, contestable and aligned with the public value the power system is expected to create.

The United States: competition inside a fragmented system

The US offers scale, innovation and a warning about fragmented coordination. At the end of 2025, more than 2,000 GW of proposed generation and storage was active in transmission interconnection queues. The backlog spans regional system operators and utility territories with different planning practices, cost-allocation rules and market structures. A project can be commercially attractive and still face years of uncertainty over studies and network-upgrade costs.

Federal reforms are pushing the system away from serial, first-come processing toward cluster studies, stronger financial commitments, site-control requirements and penalties for delay. Long-term regional transmission planning is also intended to look beyond one connection at a time. The direction is important: screen out speculative requests, study projects together, and build infrastructure for a plausible portfolio rather than force each applicant to solve a system problem alone.

Yet the American model still distributes strategy across many institutions. Markets reveal willingness to invest; states choose policy priorities; utilities and system operators protect reliability; federal regulators shape process. That plurality can generate experimentation and checks on power. It can also make the aggregate decision slow and incoherent. The US is strongest when competition operates inside an anticipatory network plan—not when the queue is expected to substitute for one.

The Nordics: transparency meets scarcity

Nordic power systems begin from a different position: strong public institutions, coordinated transmission operators, cross-border markets and relatively high trust. But electrification, batteries, hydrogen, data centres and new industry are now producing requests that exceed existing and planned grid capacity. In 2026, the Nordic transmission system operators described the volume as a society-wide challenge, not something grid construction alone could solve.

Norway illustrates both the discipline and the limitation of the current approach. Statnett applies increasingly demanding maturity tests; among projects that meet them, the date of a mature order determines queue position. This reduces speculation, but it does not answer whether a flexible industrial load, a data centre, petroleum electrification or a new value chain should receive scarce capacity first. A timing rule remains a value choice—just one that is easier to administer.

Sweden is moving toward a more explicit allocation logic. Svenska kraftnät is developing capacity zones and an approach that considers delivery capability, efficient grid use, reliability and the need for network expansion. Finland makes the political tension especially visible: data centres account for roughly half of recent consumption enquiries, while storage enquiries have surged far beyond the scale of the national system. The Nordics’ advantage is not that they avoid prioritisation. It is that they can make the criteria transparent, evidence-based and open to revision before scarcity hardens into privilege.

China: build the corridor, then shape the economy around it

China treats the grid less as a passive platform and more as an instrument of national development. Large state-owned utilities, public financing and national planning can coordinate generation zones, ultra-high-voltage corridors, storage, manufacturing and urban demand at a scale that fragmented systems struggle to match. The IEA estimated Chinese transmission and distribution investment at USD 88 billion in 2025; the 2026–30 grid plan points to a further major increase.

This model can move before individual projects have completed a market test. It can connect remote renewable resources to eastern demand, reinforce industrial clusters and create domestic supply chains around a planned build-out. In strategic terms, China allocates not only existing grid capacity but the direction of future capacity.

Coordination is not the same as perfect foresight. Provincial incentives, security concerns and the continued role of coal can produce duplication, curtailment or infrastructure that protects an established pathway for too long. The centralised model trades market contestability for speed and alignment. Its lesson is not that every country should copy the institution, but that anticipatory transmission can create options that project-by-project queues never will.

Russia: the grid as territorial and security architecture

Russia’s power system is organised around a unified system spanning vast distances, alongside isolated territorial systems. Its six-year development programme identifies zones where generation is considered technologically necessary, plans additional links between Siberia and the East, and directs capacity toward forecast regional demand. Grid allocation is therefore embedded in a state-led view of territorial development and system security.

The model can concentrate resources on strategic regions and critical supply. It also gives applicants less ability to challenge the priorities or test whether alternatives would create greater economic value. Since the war against Ukraine, external scrutiny of Russian energy planning has become harder and security objectives more dominant; official plans should be read as statements of state intent, not as independent proof of delivery or efficiency.

Russia makes the political character of infrastructure unusually visible. A line is not only an electrical asset. It binds regions, supports extractive and industrial corridors, protects critical loads and expresses which territories the centre considers important. Other systems make similar choices, even when they describe them in market language.

India and Africa: allocation begins with access

In fast-growing and lower-access systems, the comparison changes. The question is not only which large industrial applicant should move forward, but whether scarce capital should extend the grid, strengthen reliability, connect renewable zones or support distributed alternatives. India’s national transmission plan works upstream of the queue, laying out the network needed to integrate more than 600 GW of renewable capacity by 2032. The strategic bet is that corridors built in advance can turn resource potential into national supply.

Across sub-Saharan Africa, nearly 600 million people still lack electricity. Mission 300 expects roughly half of new connections to come through grid expansion and half through mini-grids and standalone systems. Here, allocation reaches its most fundamental form: which communities receive reliable power, what level of service they can afford, and whether economic activity follows the network or the network follows people.

These systems show why a single global rule is inadequate. Mature markets may need to choose among data centres, factories and storage projects. Emerging systems may need to choose between a transmission corridor and thousands of distributed connections. In both cases the grid is allocating future productive capacity—and the social legitimacy of the choice matters as much as engineering efficiency.

A strategic allocation framework

Strategic allocation should not become a closed committee choosing favourite companies. That would replace an imperfect queue with discretionary risk. The alternative is a published framework that combines objective thresholds with explicit policy choices.

First, test maturity: land, finance, permits, technology and a credible delivery schedule. Second, test system fit: location, load profile, flexibility, contribution to stability and the amount of new network required. Third, test additionality: whether the connection creates capabilities, supply chains or essential services that would not otherwise emerge. Fourth, attach conditions: milestones, use-it-or-lose-it provisions, non-firm access where appropriate and obligations to provide flexibility. Finally, publish the decision, the evidence and an appeal route.

The purpose is not to predict the winning industry. It is to prevent scarce capacity from being captured by the fastest application, the deepest balance sheet or the loudest political sponsor. A strong allocation regime preserves competition while recognising that reliability, resilience, decarbonisation, regional development and national security are not interchangeable objectives.

Grid access is a compact, not a reservation

A connection grants more than electricity. It grants access to a shared system built over generations, often with public authority and public risk. In return, the connected project should offer more than a private business case. It should demonstrate readiness, use capacity responsibly and contribute to the system’s ability to serve others.

The countries that handle the next wave of electrification best will not be those that eliminate queues on paper. They will be those that make the choices inside the queue visible—and use them to build a power system with more options, not fewer.