Pillar guide

AI Data Centers: Power for the Next Compute Era.

Global data center power demand more than doubles by 2030 — AI alone drives a fourfold rise — while interconnection queues stretch to five years. This is the complete guide to securing the megawatts your campus is worth.

For the first time, the constraint on a data center isn’t capital or chips — it’s electrons. Projected global data center electricity demand reaches an estimated 945 TWh in 2030, equivalent to Japan’s entire consumption today, and U.S. usage grows roughly 130% over 2024 levels. The grid was not built for this, and it is not being expanded fast enough to catch up.

Interconnection delays: the five-year problem

The average wait from interconnection request to commercial operation now runs about five years — it was under two in 2008. The IEA estimates up to 20% of planned data-center projects are at risk of delay from transmission constraints, and utilities are seeing unprecedented demand: CenterPoint Energy reported a 700% single-year jump in large-load interconnect requests. If your timeline depends on the queue, your timeline is not yours.

On-site generation & microgrids

The workaround is to bring generation to the load. On-site solar, storage, and kinetic generation — organized as a campus microgrid that can island from the grid — let you energize capacity ahead of the queue and optimize against demand and time-of-use charges. For power-constrained or stranded sites, this is increasingly the difference between a project that ships and one that waits.

Density & liquid cooling

AI training racks now draw 100kW and beyond, and liquid cooling is becoming standard. Higher density concentrates both the power draw and the cost of any interruption. Power infrastructure has to be designed for this profile from the start — not retrofitted after the racks arrive.

24/7 carbon-free energy

Hyperscaler commitments increasingly require hourly-matched, 24/7 carbon-free energy rather than annual offsets. Meeting them takes on-site generation plus storage and a procurement strategy that can be reported against the 24/7 CFE framework — numbers procurement and sustainability can both stand behind.

Scope 2 & reporting

On-site clean generation reduces Scope 2 emissions directly, and clean monitoring data turns that reduction into defensible reporting for customers, procurement, and sustainability disclosure.

Backup & uptime economics

2025 downtime costs roughly $9,000 per minute — about $540K an hour, or $4.3M for a single eight-hour event. Against that, N+1 / 2N-aligned backup and microgrid resilience are an investment with a return measured in avoided catastrophe, not a line to minimize.

Frequently asked

Data center power, answered.

How much will data center power demand grow by 2030?
Global data center electricity demand more than doubles by 2030, reaching an estimated 945 TWh — about Japan’s total consumption — with AI driving a roughly fourfold increase and U.S. usage up around 130% over 2024.
How long are grid interconnection queues now?
The average wait from request to commercial operation is about five years, up from under two in 2008. Up to 20% of planned projects face transmission-related delay.
Can on-site generation get capacity online faster?
Yes. On-site solar, storage, and kinetic generation in an islandable microgrid let you energize load ahead of the interconnection queue and on your own schedule.
What does data center downtime cost?
Industry data puts 2025 downtime near $9,000 per minute — roughly $540K per hour, or $4.3M for an eight-hour event.

The conversation

Power your campus on your timeline.

Thirty minutes to map the capacity, resilience, and carbon strategy for your site.