# Speed to Power: How Developers Are Restructuring for AI Demand — retained record

> Retained news record from news:datacenterknowledge.

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source: [news](https://highsignal.app/data/news) (news:datacenterknowledge)  published 2026-04-30 19:19 ingested 2026-05-01 08:08

[original source ↗](https://www.datacenterknowledge.com/energy-power-supply/speed-to-power-how-developers-are-restructuring-for-ai-demand)

## extract

Speed to Power: How Developers Are Restructuring for AI Demand
Behind-the-meter data center builds, phased energization, and nuclear bets move from edge cases to core strategy.
Power constraints are no longer a future risk for data center developers – they are already shaping how projects are designed, financed, and delivered. As AI infrastructure demand accelerates beyond what grids can reliably support, operators are shifting from a scale-first mindset to one defined by “speed to power,” forcing a rethink of everything from site selection to energy sourcing.
That shift is driving a structural change in the market: behind-the-meter generation, phased energization strategies, and early-stage bets on technologies are moving from contingency plans to standard practice. The result is a more complex, hybrid energy model in which data centers are not just large loads but active participants in how power is generated, managed, and deployed.
Recent analysis from the International Energy Agency (IEA) underscores the scale of the challenge: data center electricity demand is rising far faster than overall grid capacity, widening the mismatch between supply and demand.
That imbalance is growing despite efficiency gains, with total data center electricity demand on track to double by 2030, led by AI-specific loads.
The IEA frames this as a long-term challenge: grid constraints, interconnection delays, and supply chain limits are slowing expansion, even as operators move aggressively into renewables, nuclear, and alternative power strategies to keep pace.
With “speed to power” now a competitive differentiator, industry experts outline how developers are restructuring projects to secure capacity faster.
AI-driven workloads are reshaping data center energy strategies, with behind-the-meter power and liquid cooling leading the charge. (Image: Alamy)
Developers Shift to Dynamic Load Planning
Utilities and operators are being pushed to manage demand more dynamically rather than relying solely on new generation. IDC research shows global data center energy consumption is projected to triple by 2029, outpacing available grid capacity.
“Global data center energy consumption is projected to triple by 2029… outpacing grid capacity,” Olga Yashkova, IDC research manager for digital and data center infrastructure and services, told Data Center Knowledge.
That pressure is driving a shift toward predictive load modeling, phased energization, and hybrid grid/on-site power architectures. At the same time, grid operators are working to extract more capacity from existing infrastructure.
Bridget Bartol, executive director of industry and regulatory affairs for the grid at the National Electrical Manufacturers Association (NEMA), explained that the near-term solution is to determine the best way to extract capacity and flexibility from assets already on the grid.
“Our current grid system is about 100 years old, so strategically planning upgrades with these already available solutions in mind will help close a gap on rising demand and help mitigate rising costs as new infrastructure is built,” she told Data Center Knowledge.
Behind-the-Meter Power Becomes a Deployment Tool
With grid interconnection timelines stretching, behind-the-meter generation is becoming a practical path to keep projects moving.
“Behind-the-meter is gaining traction, especially in power-constrained areas, because it enables faster deployment, avoids interconnection delays, and reduces reliance on congested grids,” Yashkova said.
On-site natural gas generation paired with battery storage allows operators to maintain uptime while reducing reliance on constrained transmission networks.
“Developing behind-the-meter power capability is part of the solution to closing the emerging gap between growing electricity demand and available grid supply,” said Don Leavens, senior vice president and chief economist at the NEMA.
IDC research points to several drivers behind the shift:
Faster deployment by avoiding interconnection delays
Greater control over reliability and uptime
Reduced exposure to congested grids
The trade-offs include higher upfront costs, added compliance requirements, and continued reliance on fossil fuels, even if partially offset by storage and future integration of cleaner energy sources.
SMRs and Alternative Energy Enter the Build Strategy
The scale of projected demand is accelerating investment in alternative energy, particularly small modular reactors (SMRs).
IDC identifies SMRs as the most commercially advanced emerging option, with pilot projects targeting operation as early as 2026 and early agreements already in place between hyperscalers and nuclear developers.
Geothermal energy is also being explored, though its applicability remains limited to specific geographies.
“Both technologies face barriers around cost, regulation and supply chains, leaving operators to pursue a mix of energy sources rather than a single solution,” Yashkova said.
Efficiency Gains Can’t Offset Demand Alone
Advances in chip design and system architecture are improving performance per watt, but not enough to counteract rising demand. Higher-density racks, liquid cooling, and new power architectures are increasing compute efficiency, while total consumption continues to climb.
“Chip power demand can lead to significant breakthroughs in operational efficiency – so it’s an area that will continue to evolve,” Bartol said.
Yashkova pointed out that even with those gains, overall data center energy use is still projected to triple by the end of the decade, reinforcing the need for parallel investment in infrastructure and energy sourcing.
“Efficiency must be paired with energy sourcing and infrastructure upgrades to materially offset demand growth,” she said.
Data Centers Take on a Larger Role in the Energy System
Data centers are increasingly participating in grid operations rather than acting solely as large power consumers. That includes demand response programs, grid-interactive storage, and coordinated infrastructure planning with utilities.
“Data centers are shifting from passive loads to active grid partners,” Yashkova said.
The surge in AI-driven electricity demand is fundamentally reshaping the relationship between data center developers and the energy sector, shifting it from a simple customer-utility transaction to a complex coordination effort requiring closer collaboration on infrastructure planning, grid integration, and operations.
NEMA senior vice president of strategy, technical, and industry affairs Patrick Hughes said the core problem facing data center developers is “speed to power,” but utilities need time to plan, permit, and build the infrastructure needed to safely and reliably serve massive new loads.
“This tension is what’s incentivizing data center developers to innovate energization pathways – installing on-site energy storage systems and microgrids, for instance,” he said.

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