Bloom Energy SOFC for AI Data Centers, $5 B Brookfield Deal, 400 MW Deployed, and Oracle Agreements (2021 to 2025)
Data Center On-Site Power Adoption, Bloom Energy SOFC Deals
The urgent need for scalable AI infrastructure has driven data center operators to adopt on-site power solutions to bypass multi-year grid interconnection delays, shifting technologies like solid oxide fuel cells (SOFCs) from backup to primary power sources. Before 2024, fuel cells were primarily considered for supplemental or backup power in commercial and industrial settings. However, the exponential growth in power demand from AI, projected to add 35 GW of demand by 2030, combined with aging grid infrastructure, has created a structural shift. Companies now procure on-site power as a primary, baseload solution to ensure operational continuity and accelerate time-to-market for new data center capacity.
Shift from Grid-Tied to On-Site Primary Power
The fundamental change in 2025 is the use of AI data center fuel cells as “always-on” primary power, a strategy designed to circumvent grid-related development bottlenecks. In the 2021-2024 period, data center power strategies were largely dependent on securing long-term power purchase agreements with utilities and connecting to the existing transmission grid. This model has become untenable, with wait times for new high-voltage connections extending to several years in high-demand regions. In response, major operators are now deploying on-site generation to achieve power independence and operational speed. This pivot is validated by reports that Bloom Energy can deliver and operationalize its systems within 90 days, a significant acceleration compared to traditional grid projects.
Key Commercial Agreements Validating Fuel Cells
Large-scale commercial agreements in 2025 confirm the role of fuel cells as a critical enabler for AI expansion. In July 2025, Oracle announced it would deploy Bloom Energy fuel cells for its Oracle Cloud Infrastructure, specifically to support large-scale AI workloads. Shortly after, data center REIT Equinix announced collaborations with multiple alternative energy providers, including fuel cell developers, to secure its power supply chain. These agreements demonstrate that hyperscalers and colocation providers view on-site power not just as a technical solution but as a core component of their competitive strategy to capture AI market share.
| Forecast Provider⇅ | Market Segment⇅ | Region⇅ | 2025 Forecast (GW)⇅ | 2027 Forecast (GW)⇅ | 2030 Forecast (GW)⇅ | Source⇅ |
|---|---|---|---|---|---|---|
| RAND | AI Data Centers | Global | 23.87 * | 68 | 327 | AI’s Power Requirements Under Exponential Growth ↗ |
| Deloitte | AI Data Centers | United States | 123 | Can US infrastructure keep up with the AI economy? ↗ | ||
| Hanwha Data Centers | AI Data Centers | Global | 10 | 21.53 * | 68 | What Are the Power Requirements for AI Data Centers? ↗ |
| Goldman Sachs Research | Data Centers (Overall) | Global | 22.56 * | 50% increase from early 2025 levels | 165% increase from early 2025 levels | AI to drive 165% increase in data center power demand by … ↗ |
AI Workloads Fuel Exponential Data Center Energy Demand
AI workloads are set to drive data center electricity consumption to nearly 600 TWh by 2028 in a high-growth scenario. Servers – AI Specialized are projected to be the dominant energy consumer, highlighting a critical power demand challenge.
Massive AI Power Demand Strains Grid, Creates On-Site Generation Opportunity
The projected surge in AI-driven data center energy demand will strain existing grid infrastructure, necessitating innovative, efficient, and sustainable on-site power solutions. Hyperscale and large colocation data centers will account for over 90% of server energy consumption by 2028.
(Source: Shehabi et al. — via Equity Macro Strategy: 2026 – by Ridwan Adetu – MetaMacro)
$5 B Brookfield-Bloom Energy AI Infrastructure Partnership
Significant institutional capital is flowing into the on-site power sector, validated by a landmark $5 billion strategic partnership and the creation of specialized financial products designed to fund the AI-related energy build-out. This investment activity signals strong market confidence in the long-term viability of fuel cells as essential infrastructure for the digital economy. The financial backing provides fuel cell manufacturers with the capital needed to scale production and meet the accelerating demand from the data center industry.
The Brookfield $5 B Strategic Partnership
The partnership between Brookfield and Bloom Energy, announced in October 2025, is a pivotal event that structures financing for on-site fuel cell deployments at AI data centers. Under the agreement, Brookfield will fund the distributed power generation assets, which are then leased to customers through a power purchase agreement with Bloom Energy. This financial model de-risks the adoption for data center operators by shifting the upfront capital expenditure to a predictable operational expense, thereby lowering the barrier to entry and accelerating procurement cycles for mission-critical power infrastructure.
Market Validation Through Public Markets
Public markets have responded strongly to the central role of on-site power in the AI value chain. Following the Brookfield deal, Bloom Energy‘s stock experienced a significant increase, reflecting investor recognition of its strategic position. Further validation came in July 2025 with the launch of the Defiance AIPO ETF, the first exchange-traded fund focused specifically on AI and Power Infrastructure. The creation of such a targeted investment vehicle underscores the maturation of this trend from a niche industrial concern into a major, investable market theme.
Table: Key Investments in AI Power Infrastructure (2025)
| Partner / Project | Time Frame | Details and Strategic Purpose | Source |
|---|---|---|---|
| Brookfield and Bloom Energy | Oct 2025 | A $5 billion strategic partnership to provide financing for on-site fuel cell deployments at AI data centers. This structure allows customers to procure power as an operating expense, accelerating adoption. | CNBC |
| Defiance AIPO ETF | Jul 2025 | Launch of the first ETF (AIPO) focused on companies in the AI and Power Infrastructure sector. The fund provides investors with targeted exposure to the build-out of energy systems supporting AI. | Yahoo Finance |
Bloom Energy Data Center Agreements with Oracle & AEP (2025)
Strategic alliances between fuel cell manufacturers, cloud providers, and utilities in 2025 are accelerating the deployment of on-site power and establishing a new project delivery model for the data center industry. These partnerships are not merely transactional; they represent a coordinated effort to solve a systemic infrastructure challenge. By collaborating directly, these entities are creating a more resilient and responsive power ecosystem tailored to the specific demands of AI workloads.
Oracle Cloud’s Rapid Deployment Strategy
The collaboration between Oracle and Bloom Energy, announced in July 2025, exemplifies the strategic need for speed in the AI sector. Oracle is deploying Bloom‘s SOFC technology to provide clean, reliable power for its cloud infrastructure, explicitly citing the need to support large-scale AI applications. A critical factor in the decision was the ability to deploy the on-site power systems rapidly, enabling Oracle to scale its capacity much faster than if it relied solely on traditional grid connections. By mid-2025, Bloom Energy had already deployed over 400 MW of capacity at data centers globally, demonstrating its execution capability.
AEP’s Utility-as-a-Service Model
In a significant shift in utility strategy, American Electric Power (AEP) received approval in June 2025 to install on-site fuel cells for its large data center customers, including Amazon Web Services (AWS) and Cologix. AEP placed an initial order for 100 MW of fuel cells from Bloom Energy to provide reliable power directly at customer facilities. This move represents a “utility-as-a-service” model, where the utility procures and manages distributed generation assets on behalf of its clients. This strategy allows AEP to retain major industrial customers and manage grid load, while providing data center operators with a streamlined path to secure power.
Table: Key Fuel Cell Partnerships for AI Data Centers (2025)
| Partner / Project | Time Frame | Details and Strategic Purpose | Source |
|---|---|---|---|
| Oracle and Bloom Energy | Jul 2025 | Deployment of Bloom Energy‘s SOFCs at select Oracle Cloud Infrastructure data centers to provide primary power for AI workloads, enabling rapid capacity expansion by bypassing grid delays. | Bloom Energy |
| AEP, AWS, Cologix, and Bloom Energy | Jun 2025 | AEP received approval to install 100 MW of on-site fuel cells from Bloom Energy at data centers operated by AWS and Cologix. This provides reliable power and helps manage grid constraints. | AEP |
| Equinix and Alternative Energy Providers | Aug 2025 | Equinix partnered with five energy providers, including fuel cell developers, to secure its power supply chain and support its sustainability goals, avoiding an estimated 285, 000 metric tons of CO 2 e. | Equinix |
| Attribute⇅ | Market Segment⇅ | Fuel Cells⇅ | Grid Power⇅ | Diesel Generators⇅ | Source⇅ |
|---|---|---|---|---|---|
| Deployment Speed | On-site Power | As little as 90 days | 2-5+ years for new connections | Relatively fast | Oracle, Bloom Energy strike data center power deal ↗ |
| Reliability / Uptime | On-site Power | 100.00 | Variable, subject to outages | Typically for backup only | Fuel Cell Report: Winning the AI Race for Power ↗ |
| Electrical Efficiency | On-site Power | 60-65% (up to 85% with CHP) | N/A (Transmission losses apply) | 35-45% | Hydrogen Fuel Cells: Powering the Future of Clean Energy ↗ |
| Local Emissions (NOx, SOx) | On-site Power | Near-zero; 10-100x lower than combustion | Depends on generation source | High | Caught in the Current: Companies Juggle Carbon Goals … ↗ |
| Carbon Capture Capability | On-site Power | Yes (Carbonate fuel cells) | Only at source power plant | No | Carbon Capture, Reinvented: The Power of … ↗ |
US Market Focus, Quanta Services Infrastructure Role
The United States is the primary market for the adoption of fuel cells for AI data centers, driven by the high concentration of AI development in the country and significant grid constraints in key regions. While fuel cell technology is global, the most significant commercial deployments for data centers in 2025 are centered in the U.S. This regional focus is creating a substantial market for infrastructure builders like Quanta Services, which are contracted to build the supporting energy and communications systems.
Concentration in US Data Center Hubs
Activity is concentrated in established and emerging U.S. data center hubs where power availability is a primary constraint. The partnerships involving Oracle, AEP, AWS, and Cologix are located in the U.S. This geographic concentration is a direct result of the AI supply chain, which is heavily weighted toward U.S.-based cloud service providers. As these companies build out their AI capacity, they are simultaneously creating localized demand for on-site power solutions and the related construction and engineering services provided by firms like Quanta Services.
Infrastructure Enablement by Quanta Services
While technology firms like Bloom Energy provide the fuel cells, infrastructure solutions providers like Quanta Services play a distinct but equally critical role. Quanta Services does not manufacture fuel cells; it builds the complex infrastructure that supports new power generation and grid modernization. In October 2025, Quanta announced a major agreement with utility Ni Source to provide power generation and grid infrastructure solutions for a large industrial customer. The company’s strong financial results, with revenues of $6.8 billion in Q 2 2025, reflect the high demand for its services in building out the energy ecosystem required to support the AI sector.
| Date⇅ | Company⇅ | Market Segment⇅ | Partner(s)⇅ | Agreement Details⇅ | Source⇅ |
|---|---|---|---|---|---|
| Jul 24, 2025 | Bloom Energy | Fuel Cells for Data Centers | Oracle Cloud Infrastructure (OCI) | Collaboration to deploy Bloom's fuel cell technology at select OCI data centers in the U.S. to power large-scale AI workloads. Bloom can deliver onsite power within 90 days. | Oracle and Bloom Energy Collaborate to Deliver Power … ↗ |
| Jun 5, 2025 | AEP (American Electric Power) | Utility Power Provision | Bloom Energy, Amazon Web Services (AWS), Cologix | AEP received approval to install onsite fuel cells from Bloom Energy at AWS and Cologix facilities. AEP placed an initial order for 100 MW of cells. | PUCO Approves Onsite Power Project for Data Centers ↗ |
| Jul 30, 2025 | FuelCell Energy | Utility-Scale Fuel Cells | CGN | A 10 MW repowering agreement, highlighting utility-scale power and steam applications. | FuelCell Energy and CGN Reach 10 MW Repowering … ↗ |
| Jul 24, 2025 | Crusoe | AI Data Center Development | Tallgrass | Strategic partnership to develop a 1.8 GW AI data center campus in Wyoming, scalable to 10 GW, using sources including natural gas and renewables. | Crusoe and Tallgrass Announce AI Data Center in Wyoming ↗ |
SOFC Technology Reaches Commercial Scale for Data Centers
Solid oxide fuel cell (SOFC) technology has matured from niche applications to a commercially viable primary power solution for large-scale data centers, validated by gigawatt-scale production plans and deployments by major cloud providers in 2025. This marks a critical inflection point for the technology. In the 2021-2023 period, fuel cell deployments were often smaller and focused on commercial buildings or as backup power. Today, they are being procured for baseload, mission-critical operations at a scale of hundreds of megawatts.
Validation through Large-Scale Deployments
The technology’s maturity is confirmed by its performance and reliability in demanding data center environments. SOFCs from Bloom Energy are marketed as offering 99.999% uptime, a key requirement for always-on AI services. They also provide high electrical efficiency of 60-65%, significantly better than traditional combustion-based power. These performance characteristics, combined with the successful deployments for clients like Oracle, have validated SOFCs as a bankable and technically sound solution for the data center industry’s power challenges.
Production Capacity Expansion
In response to surging demand, fuel cell manufacturers are aggressively scaling their production capacity. Bloom Energy announced it is on track to double its annual manufacturing capacity to 2 GW by the end of 2026. This expansion is a direct reaction to the growing pipeline of projects from the data center sector and is a strong indicator that the industry expects the trend of on-site power adoption to continue. Scaling production is essential to reducing costs through economies of scale and meeting the delivery timelines required by hyperscale customers.
| Forecast Provider⇅ | Market Segment⇅ | Base Year⇅ | Base Year Value (% of Total U.S. Electricity)⇅ | Forecast Year⇅ | Forecast Value (% of Total U.S. Electricity)⇅ | Source⇅ |
|---|---|---|---|---|---|---|
| American Action Forum | AI Data Center Electricity Demand | 2023 | 4.40 | 2028 | 6.7% – 12% | AI Data Centers: Why Are They So Energy Hungry? – AAF ↗ |
| Goldman Sachs Asset Management | Overall Data Center Power Demand | Current | 3 | End of Decade | 8 | Infrastructure in 2025: Megatrends and Mid-Market … ↗ |
SWOT Analysis for Fuel Cell Data Center Adoption
While fuel cells for data centers offer a strong solution to grid delays, their growth depends on managing fuel supply risks and scaling manufacturing, with the market opportunity defined by the persistent growth in AI power demand. The technology’s primary strength is its ability to provide rapid, reliable power, directly addressing the main bottleneck for data center expansion. However, its current reliance on natural gas presents a challenge to corporate decarbonization goals, a weakness that the industry is addressing through a transition to hydrogen fuel cells.
Strengths and Opportunities
The key strengths of fuel cells are their rapid deployment capability, high reliability, and modular scalability, which perfectly align with the needs of the fast-growing AI industry. The main opportunity lies in the integration with green hydrogen. As production of green hydrogen scales and costs decline, fuel cells offer a clear pathway to providing zero-carbon, 24/7 power for data centers, positioning the technology as a long-term sustainable solution.
Weaknesses and Threats
The primary weakness is the current dependence on the natural gas pipeline, which exposes operators to price volatility and presents a carbon footprint. The main threat comes from two areas: the potential for competing technologies, such as advanced small modular reactors (SMRs) or long-duration energy storage, to mature and become cost-competitive, and the possibility that large-scale grid modernization and transmission build-outs eventually alleviate the connection backlogs, reducing the urgency for on-site generation.
Table: SWOT Analysis for Fuel Cell Adoption in AI Data Centers
| SWOT Category | 2021 – 2023 | 2024 – 2025 | What Changed / Resolved / Validated |
|---|---|---|---|
| Strengths | High reliability (99.9%+ uptime), high efficiency, low criteria pollutants. Considered a premium backup power source. | Rapid deployment (months vs. years for grid), modular scalability, proven baseload capability for mission-critical loads. | The market validated speed-to-deployment as the most critical strength, elevating fuel cells from backup to primary power to bypass grid queues, as seen in the Oracle deal. |
| Weaknesses | Higher upfront cost compared to diesel generators. Primarily dependent on natural gas supply. | Continued reliance on natural gas infrastructure, creating exposure to price volatility and carbon emissions concerns. | The weakness remains but is now secondary to the urgent need for power. The $5 B Brookfield financing model helps mitigate the upfront cost barrier. |
| Opportunities | Potential to use biogas or hydrogen as fuel. Growing demand from data centers facing grid constraints. | Massive AI-driven power demand. Integration with green hydrogen for zero-carbon power. Use of regenerative fuel cells for on-site energy storage. | The AI power demand surge turned a potential opportunity into an urgent, large-scale market. The pathway to green hydrogen is now a core part of the long-term value proposition. |
| Threats | Competition from solar + battery storage. Long-term improvements in grid infrastructure. | Advances in competing clean firm power technologies (e.g., SMRs). A slowdown in AI growth could reduce urgency. Potential for regulatory shifts related to natural gas. | The threat from grid improvements has diminished in the short term as backlogs grow. The primary long-term threat is now from other clean firm power technologies, though they have longer development timelines. |
| Technology⇅ | Primary Application⇅ | Key Feature / Innovation⇅ | Source⇅ |
|---|---|---|---|
| Solid Oxide Fuel Cells (SOFC) | AI Data Center Power | High efficiency, fuel flexibility (natural gas, hydrogen), 'always-on' reliability for mission-critical loads. | PUCO Approves Onsite Power Project for Data Centers ↗ |
| Carbonate Fuel Cells | Industrial Carbon Capture | Simultaneously generates power, heat, and hydrogen while capturing CO2 emissions from industrial sources before release. | Carbon Capture, Reinvented: The Power of … ↗ |
| Microbial Fuel Cells (MFCs) | Wastewater Treatment & Power Generation | Uses microorganisms to convert organic pollutants in wastewater directly into electricity. | The Potential of Microbial Fuel Cells as a Dual Solution for … ↗ |
| Reversible Fuel Cells (R-SOFCs) | Energy Storage | Enables bidirectional conversion between electricity and hydrogen in a single device, acting as a form of energy storage. | Regenerative or Reversible Fuel Cells: Energy Storage … ↗ |
| AI-Enhanced Direct Methanol Fuel Cells | Optimized Power Output | An AI method called Alpha-Fuel-Cell uses reinforcement learning to monitor the fuel cell state and select actions to maximize power output and catalyst longevity. | Leveraging AI to enhance performance in direct methanol fuel cells – Nature Energy ↗ |
Scenario: Fuel Cell Market Growth with Bloom Energy
The most critical factor for 2026 is whether fuel cell manufacturers can execute on their production scaling plans to meet the exponential demand from data center operators. Any failure to meet delivery timelines for multi-hundred-megawatt orders could create significant openings for alternative on-site power technologies and potentially slow the pace of AI infrastructure deployment.
The High-Growth Scenario
If demand from data centers continues to outpace grid capacity, watch for continued announcements of large-scale, multi-year procurement agreements between fuel cell providers and cloud companies. Key signals to monitor include Bloom Energy successfully meeting its target of 2 GW annual production capacity by the end of 2026 and the announcement of the first major data center project designed to run primarily on green hydrogen-powered fuel cells. This scenario would cement fuel cells as essential data center power for the foreseeable future.
The Constrained-Growth Scenario
If manufacturers face supply chain disruptions or technical challenges in scaling production, this could lead to project delays and customer frustration. In this scenario, watch for data center operators diversifying their on-site power strategies more aggressively, with increased investment in natural gas turbines as a stop-gap measure or accelerated pilot projects for emerging technologies like SMRs. A slowdown in deployment would signal that the fuel cell industry is struggling to capitalize on its market opportunity, potentially ceding ground to competitors.
| Date⇅ | Company⇅ | Market Segment⇅ | Partner(s)⇅ | Key Details / Value⇅ | Source⇅ |
|---|---|---|---|---|---|
| Oct 13, 2025 | Bloom Energy | AI Data Center Power | Brookfield Asset Management | A $5 billion strategic partnership to install fuel cells in AI data centers. | Brookfield and Bloom Energy Announce $5 Billion … ↗ |
| Jul 24, 2025 | Bloom Energy | Cloud Infrastructure Power | Oracle | Deployment of Bloom Energy fuel cells at select Oracle Cloud Infrastructure (OCI) data centers in the US to power large-scale AI workloads. | Oracle and Bloom Energy Collaborate to Deliver Power to … ↗ |
| Jun 5, 2025 | AEP Ohio | Data Center On-Site Power | Bloom Energy (Technology Provider) | Received approval to install onsite solid oxide fuel cells for AWS and Cologix data centers. Initial order is for 100 MW, with expansion orders expected in 2025. | PUCO Approves Onsite Power Project for Data Centers ↗ |
| Aug 14, 2025 | Equinix | Data Center Alternative Energy | Fuel cell and advanced nuclear reactor developers | Partnerships to diversify power sources. Fuel cell use enables Equinix to avoid 285,000 MTCO2e emissions and 382 billion gallons of embedded water use. | Equinix Collaborates with Leading Alternative Energy … ↗ |
The questions your competitors are already asking
This report covers one angle of fuel cell adoption for data centers. The questions that matter most depend on your work.
- Data center projects using green hydrogen fuel cells
- Small modular reactors for data center power viability
- FuelCell Energy data center deals
- Cost of on-site power purchase agreements for data centers
This report does not answer these. Enki Brief Pro does.
Your question, your angle, your framework. SWOT, PESTL, scenario modelling. The same niche depth, built around the decision your work actually depends on.
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Erhan Eren
Erhan Eren is the CEO and Co-Founder of Enki, a commercial intelligence platform for emerging technologies and infrastructure projects, backed by Equinor, Techstars, and NVIDIA. He spent almost a decade in oil and gas, first at Baker Hughes leading market intelligence, strategy, and engineering teams, then at AI startup Maana, where he spearheaded commercial strategy to acquire net new accounts including Shell, SLB, and Saudi Aramco. It was across these roles, watching teams stitch together executive briefings from scattered PDFs and Google searches, that the idea for Enki was born. Erhan holds a BS in Aeronautical Engineering from Istanbul Technical University and an MS in Mechanical and Aerospace Engineering from Illinois Institute of Technology. He has spent over 20 years at the intersection of energy, strategy, and technology, and built Enki to give professionals the clarity they need without the analyst-grade budget or timeline.

