Data Center Ghost Demand Changes Which Equipment Bottlenecks Matter
September 16, 2026
Altsets
Research by Altsets Research
Data center power requests are being scrubbed for speculative projects, but the correction does not eliminate the equipment shortage: the strongest constraints remain in utility-grade transformers, breakers and switchgear, while equipment tied directly to unbuilt campuses carries more demand risk.
Data used:Altsets Supply Chain Intelligence: 90k+ entities, 400k+ relationships, 20+ years of history.
Key findings
- Reuters found more than 700 GW of large-load electricity requests across parts of the United States, showing that utility queues can substantially exceed likely realized construction.
- Exelon cut its high-probability data center demand estimate by roughly 40%, while AEP Ohio's pipeline fell by more than half after stricter financial and study requirements.
- Generator step-up transformer lead times exceeded 160 weeks in first quarter 2026 data cited by Reuters, while high-voltage circuit breaker lead times reached 125 weeks in the second half of 2025.
- Eaton reported second quarter 2026 Electrical Americas rolling orders up 41% and total Electrical sector backlog up 43% year over year, providing a stronger demand-quality signal than speculative utility requests.
Data center power requests are being scrubbed for speculative projects, but the correction does not eliminate the equipment shortage: the strongest constraints remain in utility-grade transformers, breakers and switchgear, while equipment tied directly to unbuilt campuses carries more demand risk.
The United States may have far less future data center demand than utility connection queues imply. Reuters found more than 700 GW of large-load electricity requests across parts of the country, more than ten times estimated current U.S. data center power use. After utilities introduced deposits, study fees and other financial requirements, some pipelines shrank sharply. Exelon cut its high-probability data center demand estimate by roughly 40%, while AEP Ohio's pipeline fell by more than half after stricter rules were introduced.[1]
That does not mean the data center equipment boom is imaginary. It means investors need to stop treating an electricity request, an announced campus and a purchase order as the same economic event.
The supply-chain question is therefore not whether "data center demand" is overstated. It is which suppliers are already serving booked projects and structurally undersupplied markets, versus which suppliers are expanding capacity against projects that may never reach procurement.
The grid queue is not an equipment order
This distinction matters because infrastructure demand travels through several stages before it becomes supplier revenue.
A developer can reserve land and request hundreds of megawatts without having a tenant, financing, permits or firm equipment orders. Reuters reported that Pennsylvania had more than 100 proposed data centers, but only 20 had applied for required permits, and many proposals had not secured either power or a customer.[1]
An interconnection request therefore tells investors that someone wants optionality. It does not establish a booked relationship between a data center developer and Eaton, Siemens Energy, GE Vernova, Schneider Electric, Vertiv, Cummins or any other equipment supplier.
Actual procurement is a much stronger signal. Once utilities and developers place transformer orders, reserve switchgear production slots, sign long-term supply agreements or prepay for equipment, the relationship has moved from speculative infrastructure demand into contracted economic demand.
That is the more useful way to map this boom. A 500 MW project in a utility queue can disappear without producing meaningful supplier revenue. A transformer already ordered for a funded substation is a different exposure entirely.
Not all announced data center demand has the same economic quality
The closer demand gets to procurement and supplier backlog, the stronger the evidence of realized economic activity.
- 01Utility connection requestCan represent optionality, duplicated requests, or oversized demand.
- 02Permitted and financed projectStronger evidence that the campus is moving toward construction.
- 03Deposit or equipment reservationCustomer capital begins to support specific procurement.
- 04Signed supplier contractDemand has become a direct buyer-supplier commitment.
- 05Supplier order and backlogClosest public evidence to observable economic demand.
A project can appear large in a utility queue years before it creates revenue for an equipment supplier.
The hardest bottlenecks sit closest to the grid
The clearest evidence of real scarcity remains in large electrical equipment.
Generator step-up transformer lead times exceeded 160 weeks in the first quarter of 2026, according to data cited by Reuters. High-voltage circuit breaker lead times reached 125 weeks in the second half of 2025. Utilities are responding by ordering equipment years earlier, signing longer supply agreements and sourcing internationally. One California utility told Reuters it was buying equipment as much as five years ahead.[2]
Grid-interface equipment is still measured in multi-year lead times
Lead-time evidence is materially stronger than speculative megawatt requests because it reflects actual manufacturing scarcity.
Those lead times cannot be explained by speculative AI projects alone. Transformers, high-voltage breakers and switchgear also serve utilities, renewable generation, transmission projects, factories and broader electrification. Data centers are adding pressure to a supply chain that was already difficult to expand.
That makes companies exposed to the grid interface fundamentally different from companies whose growth assumptions require every announced data center campus to be completed.
Eaton provides a useful public example. In its second-quarter 2026 results, the company reported that twelve-month rolling orders in Electrical Americas were up 41%, while total Electrical sector backlog was up 43% from a year earlier. Management also emphasized broad end-market strength rather than attributing the entire expansion to data centers.[3]
Eaton shows the difference between queue demand and supplier demand
Orders and backlog are not risk-free, but they sit materially closer to realized demand than anonymous grid requests.
Backlog is not risk-free. Orders can be delayed or cancelled. But it is economically closer to realized demand than an anonymous request for hundreds of megawatts sitting in a utility planning queue.
For investors, that difference is critical.
Ghost demand becomes more important downstream
The further equipment moves toward the individual data center, the more project cancellation can matter.
Medium-voltage distribution systems, UPS equipment, busway, rack power, chillers, liquid-cooling systems, backup generators and prefabricated infrastructure ultimately require physical buildings that proceed to construction. Vertiv, Schneider Electric, Eaton, Caterpillar, Cummins and Generac all participate in different portions of this layer.
Demand for these products can still be extremely strong. But a supplier expanding factories because its customers have issued purchase orders is in a different position from one expanding because industry forecasts show thousands of planned data centers.
This is where "ghost demand" should change the analysis.
A speculative project can occupy grid planning capacity years before it needs chillers or rack-level power distribution. If regulators remove duplicate or underfunded requests, the first visible correction may appear in utility demand forecasts without immediately damaging manufacturers whose production is already allocated to financed projects.
Later, however, weaker project conversion can matter for equipment categories purchased closer to commissioning. Suppliers whose growth depends disproportionately on future campus build-outs rather than existing backlog deserve more scrutiny.
The reverse is true for equipment with long replacement cycles and multiple end markets. A cancelled data center does not eliminate an aging utility transformer that still needs replacement, a new generation project that needs interconnection equipment or an industrial facility that needs switchgear.
Project-conversion risk rises as equipment moves closer to the individual campus
Grid equipment often serves multiple end markets, while campus-specific equipment depends more directly on a project reaching construction and commissioning.
| Layer | Examples | Primary demand-quality question |
|---|---|---|
| Grid interface | Large transformers, high-voltage breakers, utility switchgear | Is scarce capacity already allocated across utilities, generation, industrial projects, and funded data center builds? |
| Site electrical distribution | Medium-voltage gear, substations, busway, UPS systems | Has the specific campus moved beyond planning into financed construction and procurement? |
| Rack and thermal infrastructure | Rack power, chillers, liquid cooling, prefabricated modules | Has the building reached the stage where equipment must be installed and commissioned? |
| Backup generation | Generators and related systems | Are units attached to real project schedules rather than aggregate announced megawatts? |
The investment signal is demand quality, not announced megawatts
The emerging data center correction therefore creates a useful hierarchy.
Utility connection requests are the weakest evidence because they can be duplicated, unfunded or deliberately oversized. Permitted and financed projects are stronger. Customer deposits, equipment reservations and signed contracts are stronger again. Supplier orders and backlog are closest to observable economic demand.
This distinction also changes how supply-chain dependence should be interpreted. The most interesting relationship is not necessarily the supplier attached to the largest announced data center. It is the supplier whose scarce production capacity has already been claimed by real customers, especially when those customers span utilities, industrial projects and funded data center builds.
That favors analysis of companies such as Eaton, Siemens Energy, GE Vernova and other electrical-equipment manufacturers through their actual order books and capacity constraints rather than through aggregate AI power forecasts. It also argues for greater caution when valuing data center equipment capacity that has been built primarily against an industry pipeline whose underlying projects have not crossed the same financial thresholds.
Conclusion
Data center ghost demand does not mean the infrastructure shortage disappears. It means the shortage needs to be located more precisely.
The strongest evidence of genuine capacity constraint remains in transformers, high-voltage breakers, switchgear and other equipment already facing multi-year lead times and serving several expanding markets. The more speculative exposure sits where manufacturing capacity depends on announced data center projects converting into funded construction.
For investors, the useful question is no longer how many gigawatts developers have requested. It is how much of that demand has become a real buyer-supplier relationship.
Scope and limitations
This article distinguishes utility queue demand from procurement demand using public reporting and company disclosures. It does not estimate a cancellation probability for individual data center projects or assign a probability that any named supplier will realize revenue from a particular announced campus.
The 700+ GW figure represents large-load electricity requests reported by Reuters across parts of the United States, not a forecast of completed data center capacity. The Exelon and AEP Ohio reductions reflect changes in their own pipelines after stricter requirements and should not be generalized mechanically to every utility territory.
Transformer and breaker lead times vary by equipment type, voltage class, supplier, geography, and order timing. Eaton's order and backlog growth figures are company-wide electrical indicators and are not presented here as data-center-only metrics.
No Altsets relationship percentages are used because the supplied article does not provide a quantified company relationship that would improve the analysis without introducing unrelated data.
For evidence limits and relationship methodology, see the Altsets methodology.
Sources
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Reuters, "Texas' halt on powering data centers reflects US reckoning over 'ghost' demand," September 1, 2026. https://www.reuters.com/business/texas-halt-powering-data-centers-reflects-us-reckoning-over-ghost-demand-2026-09-01/
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Reuters, "US power companies scramble to secure equipment as surging data center demand strains supplies," July 9, 2026. https://www.reuters.com/business/energy/us-power-companies-scramble-secure-equipment-surging-data-center-demand-strains-2026-07-09/
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Eaton, "Eaton Reports Record Second Quarter 2026 Results, with Strong Organic Growth, Accelerating Orders and Backlog, and Raises Organic Growth Guidance," 2026. https://www.eaton.com/us/en-us/company/news-insights/news-releases/2026/eaton-reports-record-second-quarter-2026-results.html
How to Cite This
According to Altsets Supply Chain Intelligence (altsets.com), speculative data center power requests and actual electrical-equipment demand should be treated as different economic signals: the strongest evidence of scarcity remains in grid-interface equipment with long lead times and booked orders, while equipment tied to unbuilt campuses carries more project-conversion risk.
For research inquiries or data access: press@altsets.com
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