The Great Unbundling: How Private Power Infrastructure Will Define Data Center Growth in 2026

Industry Adoption: From Grid Dependence to Private Power Ecosystems

The “Bring Your Own Power” strategy has moved from a niche option to the default model for hyperscale data center expansion, driven by acute grid constraints and the insatiable energy demand of artificial intelligence. This marks a fundamental shift from data centers as passive energy consumers to active developers of private power infrastructure.

  • Between 2021 and 2024, the primary strategy involved securing large-scale renewable Power Purchase Agreements (PPAs) with utilities like Next Era Energy Inc. and piloting grid-interactive capabilities, as demonstrated by Microsoft‘s use of its Dublin data center batteries to support the Irish grid in partnership with Eaton. This approach focused on working within the existing utility framework.
  • Since January 2025, the strategy has accelerated toward direct investment in dedicated, on-site power generation to bypass grid interconnection queues entirely. This is validated by Microsoft‘s landmark September 2024 deal with Constellation Energy to power data centers with 24/7 nuclear energy and reports of Exxon Mobil planning co-located natural gas plants for AI data centers.
  • The technology mix has diversified significantly in the current period, moving beyond traditional backup to include primary power sources. Bloom Energy‘s solid-oxide fuel cells are providing reliable on-site power, while Ford announced its entry into the market in December 2025, leveraging its battery manufacturing scale to supply stationary storage for data centers.
  • This variety indicates that the market is no longer seeking a single solution but is adopting a portfolio approach. The combination of firm power from nuclear or gas, flexible generation from fuel cells, and storage from batteries creates a resilient, independent energy ecosystem tailored to the demands of AI workloads.
AI Power Demand Drives Industry Shift

AI Power Demand Drives Industry Shift

This chart perfectly illustrates the ‘insatiable energy demand of artificial intelligence’ mentioned in the section by showing the explosive growth in AI data center power needs, which is the core driver of the industry’s shift to private power.

(Source: Hanwha Data Centers)

Partnership Analysis: Hyperscalers Forge Direct Alliances to Secure Power

Hyperscale operators are now forming direct, strategic alliances with energy producers and technology providers to co-develop power and data center infrastructure, bypassing traditional utility procurement models to achieve speed and scale.

  • Google‘s December 2024 partnership with Intersect Power to develop up to 4.5 GW of new carbon-free energy capacity establishes a new model for co-developing energy supply and data center infrastructure simultaneously, directly linking power generation to compute growth.
  • Microsoft‘s September 2024 power agreement with Constellation Energy is a critical validation point for using existing and revived nuclear assets to provide the massive, 24/7 carbon-free electricity required by AI, setting a precedent for powering data center growth with firm clean energy.
  • The July 2025 strategic commercial agreement between Google and Energy Dome to deploy long-duration “CO 2 Battery” technology signals a crucial move to solve the intermittency of renewables, enabling hyperscalers to move closer to their 24/7 carbon-free energy goals by storing power for extended periods.
  • Eaton‘s foundational partnership with Microsoft, formalized in July 2021, proved the commercial and technical viability of grid-interactive data centers. This work demonstrated that UPS batteries could generate revenue and enhance grid stability, transforming a cost center into a grid asset.

Table: Key Strategic Partnerships in Data Center Power Solutions

Partner / Project Time Frame Details and Strategic Purpose Source
Energy Dome & Google July 2025 Strategic commercial agreement to deploy Energy Dome‘s long-duration “CO 2 Battery” technology. The purpose is to help Google achieve 24/7 carbon-free energy goals by storing renewable power. Business Wire
Google, Intersect Power, & TPG Rise Climate December 2024 Partnership to develop up to 4.5 GW of new, carbon-free energy capacity directly tied to Google‘s data center growth. This co-development model bypasses grid constraints. Google Blog
Constellation Energy & Microsoft September 2024 Largest-ever power purchase agreement for Constellation, involving bringing a retired nuclear unit back online to directly supply 24/7 carbon-free power to Microsoft data centers. Constellation Energy
Eaton & Microsoft July 2021 Partnership to demonstrate grid-interactive data centers, using UPS batteries to provide grid ancillary services. This creates new revenue streams and enhances grid stability. Eaton

Geography: Site Selection Shifts from Network Proximity to Power Availability

Data center site selection has fundamentally shifted from a primary focus on network connectivity to an overriding priority on power availability, creating new growth corridors in regions with abundant energy resources and bypassing traditionally saturated markets.

Data Center Geography Shifts to Power-Advantaged Regions

Data Center Geography Shifts to Power-Advantaged Regions

This map directly visualizes the section’s core theme: a geographic shift in data center development away from legacy markets toward regions with better power availability, as described in the headline and content.

(Source: Yahoo Finance)

  • Between 2021 and 2024, development remained concentrated in established hubs like Northern Virginia, the world’s largest data center market. This led to severe grid saturation, with utilities like Dominion Energy publicly stating challenges in meeting power demand until at least 2026 despite adding over 3 GW of data center capacity.
  • From 2025 onward, development patterns are shifting to areas with accessible or stranded energy resources. Crusoe Energy exemplifies this strategy by building AI data centers co-located with underutilized renewable energy sources, developing its own interconnection infrastructure to accelerate deployment.
  • International markets are also adapting to power constraints. In Ireland, Microsoft‘s project to use its data center batteries for grid services demonstrates a strategy to unlock growth in power-limited European regions by transforming data centers into grid-stabilizing assets.

Technology Maturity: On-Site Power Solutions Advance to Commercial Scale

Power solutions for data centers have matured from efficiency-focused software and backup systems to commercially viable, large-scale primary generation and storage technologies capable of supporting multi-megawatt AI facilities.

Power Tech Providers See Strongest Growth from Data Centers

Power Tech Providers See Strongest Growth from Data Centers

This chart validates the section’s point on ‘commercial scale’ by showing that a key technology provider, Eaton, identifies data centers as its strongest growth market, confirming the commercial maturation of power solutions.

(Source: Global X ETFs)

  • The 2021–2024 period focused on optimizing mature technologies. This included deploying advanced UPS systems and power management hardware from market leaders like Vertiv and Eaton, while piloting software-defined, grid-interactive functions to improve efficiency and provide ancillary services.
  • The period from January 2025 to today is defined by the commercial validation of next-generation on-site solutions. Bloom Energy‘s solid-oxide fuel cells are now established as a reliable, scalable on-site power source, with projections that such technologies will power 27% of data centers by 2030.
  • Long-duration energy storage has moved from pilot stage to commercial deployment, confirmed by Google’s agreement with Energy Dome. This signals that firming intermittent renewables is now a bankable component of a hyperscaler’s energy strategy.
  • The market is embracing a full spectrum of technologies to address near- and long-term needs. Fast-start natural gas turbines from GE Vernova serve as critical “bridge power” to bypass immediate grid delays, while companies like VEIR are developing high-temperature superconducting lines that promise to alleviate transmission bottlenecks in the future.

SWOT Analysis: Private Power Infrastructure for Data Centers

The strategic shift toward private power infrastructure creates immense growth opportunities for energy technology providers but also introduces significant new capital requirements, regulatory hurdles, and supply chain risks for data center operators.

Table: SWOT Analysis for Data Center Private Power Infrastructure

SWOT Category 2021 – 2024 2025 – Today What Changed / Validated
Strengths High efficiency through advanced power management hardware (Vertiv, Eaton) and software-defined power. Energy independence and faster deployment by bypassing grid queues with on-site generation (Bloom Energy, Crusoe Energy) and 24/7 firm power contracts (Constellation). The strategy shifted from optimizing reliance on the public grid to achieving operational certainty by bypassing it.
Weaknesses Continued dependence on congested public grids, leading to project delays and operational risk in key markets like Northern Virginia. High upfront capital expenditure required to build private power infrastructure; increased reliance on fossil fuels as a “bridge” solution (GE Vernova, Exxon Mobil) creates carbon accounting challenges. Risk has transferred from external grid availability to internal capital allocation and ESG compliance.
Opportunities Monetizing underutilized UPS battery assets to provide ancillary grid services and create new revenue streams, as piloted by Eaton and Microsoft. Massive market growth for providers of 24/7 carbon-free power (Constellation), long-duration energy storage (Energy Dome, Ford), and advanced cooling (Liquid Stack) to support power-dense AI. The market opportunity scaled from providing supplementary grid services to delivering full, primary power solutions for gigawatt-scale data center campuses.
Threats Grid interconnection queues lasting five to fifteen years became the single largest blocker to data center growth. Supply chain bottlenecks for critical power equipment like transformers and switchgear; complex and lengthy regulatory permitting for new private generation projects. The primary threat evolved from utility bureaucracy and planning cycles to the physical availability of hardware and navigating project development regulations.

Scenario Modelling and 2026 Outlook

The most critical action for 2026 is for energy players and investors to secure positions in the supply chains for on-site generation, energy storage, and high-density power management hardware. If hyperscalers like Google and Microsoft continue to sign multi-gigawatt, direct power development deals, then watch for a wave of acquisitions targeting energy technology providers to bring key capabilities in-house and ensure supply.

Analysts Forecast Soaring Data Center Power Demand

Analysts Forecast Soaring Data Center Power Demand

This chart is ideal for ‘Scenario Modelling’ as it presents a range of forecasts from different analysts, embodying the practice of modeling various potential outcomes for future power demand.

(Source: Information Technology and Innovation Foundation (ITIF))

  • A key signal gaining traction is the “Bring Your Own Power” model. This is validated by both nimble innovators like Crusoe Energy achieving rapid deployment with stranded renewables and by tech giants like Google structuring multi-gigawatt co-development partnerships.
  • A signal losing steam is the traditional model of relying on utility-led grid expansion. The speed and scale of AI-driven demand have made this approach unworkable for hyperscalers’ growth timelines, forcing them to take control of their energy supply.
  • What could be happening is the emergence of a new class of specialized energy infrastructure developers. These firms will focus exclusively on the data center market, blending expertise from power engineering, project finance, and digital infrastructure to deliver turnkey, behind-the-meter power solutions at scale.

Frequently Asked Questions

Why are data centers moving to a “Bring Your Own Power” strategy?

Data centers are adopting this strategy primarily due to acute public grid constraints and the insatiable energy demand of artificial intelligence. Traditional grid interconnection queues can last 5-15 years, a timeline that is too slow for the rapid growth of hyperscalers. Building their own power infrastructure allows them to bypass these delays and secure energy certainty.

What kinds of energy technologies are being used for private data center power?

Companies are using a diverse portfolio of technologies. This includes firm, 24/7 power from nuclear (Constellation Energy) and natural gas (Exxon Mobil); on-site generation from solid-oxide fuel cells (Bloom Energy); and energy storage solutions like stationary batteries (Ford) and long-duration “CO2 Batteries” (Energy Dome) to manage the intermittency of renewables.

How has the strategy for powering data centers changed since 2024?

Before 2025, the primary strategy was to work within the existing utility framework, securing large Power Purchase Agreements (PPAs) and piloting grid-interactive technologies. Since January 2025, the strategy has shifted to direct investment in dedicated, on-site power generation to bypass grid interconnection queues entirely, as demonstrated by major deals for nuclear and natural gas power.

How is this trend affecting where new data centers are being built?

Site selection has fundamentally shifted from prioritizing network connectivity to prioritizing power availability. Instead of concentrating in saturated markets like Northern Virginia, new development is moving to regions with accessible or stranded energy resources. Companies like Crusoe Energy are co-locating AI data centers directly with underutilized renewable energy sources.

What are the main risks or challenges of this new private power model?

The main challenges have shifted from grid availability to internal risks. These include the high upfront capital expenditure needed to build private power plants, supply chain bottlenecks for critical equipment like transformers, and navigating complex and lengthy regulatory permitting processes for new generation projects. There is also a risk of increased reliance on fossil fuels as a “bridge” solution, which complicates ESG goals.

Experience In-Depth, Real-Time Analysis

For just $200/year (not $200/hour). Stop wasting time with alternatives:

  • Consultancies take weeks and cost thousands.
  • ChatGPT and Perplexity lack depth.
  • Googling wastes hours with scattered results.

Enki delivers fresh, evidence-based insights covering your market, your customers, and your competitors.

Trusted by Fortune 500 teams. Market-specific intelligence.

Explore Your Market →

One-week free trial. Cancel anytime.


Erhan Eren

Ready to uncover market signals like these in your own clean tech niche?
Let Enki Research Assistant do the heavy lifting.
Whether you’re tracking hydrogen, fuel cells, CCUS, or next-gen batteries—Enki delivers tailored insights from global project data, fast.
Email erhan@enkiai.com for your one-week trial.

Privacy Preference Center