Take-or-pay and long-term capacity agreements are becoming the commercial backbone of AI infrastructure, and investors should know what to look for.
In AI infrastructure, a signed long-term contract often matters more than the hardware itself, because the contract turns a cluster from a bet on future demand into an asset with predictable revenue behind it.
For most of the last cycle, the conversation centered on supply: who could get GPUs, who could get power and how fast. As capacity scales from megawatts to gigawatts, a second question has moved to the front: who has committed to pay for that capacity, for how long and on what terms? The answer sits increasingly in take-or-pay agreements, capacity reservations and multi-year compute contracts, which shape which projects get built, how they get financed and how much of the projected demand behind them is real. For investors, understanding these contracts matters as much as understanding the chips.
A Take-or-Pay Contract Commits the Buyer to Pay for Capacity, Used or Not
A take-or-pay contract requires the buyer to pay for a minimum amount of capacity whether or not the buyer uses all of that capacity. The buyer is paying the provider to stand ready with compute, power or space that would otherwise be committed elsewhere. A capacity reservation works the same way at an earlier stage, holding a place in line before the capacity exists.
Utilities and energy markets have used the structure for decades, and it is now moving into AI-related power supply. In its July 2026 earnings call, Southern Company reported 17 GW of contracted large load, with minimum bills, termination payments and collateral requirements built into its agreements, according to Utility Dive. Take-or-pay logic is now central to GPU compute itself.
Long-Term Contracts Are Becoming Standard Because Compute Is Expensive to Build
Long-term contracts are becoming standard because a large GPU cluster requires significant capital before it produces any revenue: hardware, power, cooling, facility work and operations all have to be in place first. Few providers can justify spending that capital on the hope that demand will show up. A contract that sets a revenue floor for several years changes the math for everyone involved, including the lenders behind GPU financing.
The difference between binding and announced commitments is now visible in utility data. Wood Mackenzie estimates that US utilities and grid operators will commit to about 28 percent of the 1,066 GW of data center connections requested, with roughly 12 percent already backed by firm service commitments, according to Capacity. At Exelon, high-probability data center load fell from about 18 GW at the end of 2025 to about 11 GW in the second quarter of 2026 after the utility began requiring transmission security agreements, which bind customers to credit obligations and shortfall payments, according to the Wall Street Journal, as reported by TechRadar. Across the stack, long-term commitments have become the mechanism that converts AI demand into financeable infrastructure.
Contracted Demand Is Different From Projected Demand
For investors, the most important distinction in AI infrastructure is between contracted demand and projected demand. A cluster built against a signed multi-year agreement with a creditworthy customer has a known revenue floor. A cluster built against a forecast of how many customers might arrive carries vacancy risk if utilization falls short.
The gap between contracted and projected demand shows up directly in financing. Lenders and capital partners can underwrite contracted revenue in a way they cannot underwrite a projection, which is why they look closely at the customer contracts behind a cluster. When reviewing an AI infrastructure business, ask how much of the planned capacity is already committed, by whom and for how long.
Long-Term Contracts Carry Concentration, Duration and Enforceability Risks
A long-term contract improves visibility, but it introduces risks that investors should examine.
• Concentration. When a large share of revenue depends on one or two customers, the loss or renegotiation of a single contract can affect the whole business.
• Duration mismatch. AI hardware is often planned around a service life of roughly three to five years, while power agreements are getting longer. Average minimum contract lengths for large customers have risen to about 10.8 years from 4.6 before 2024, according to filings cited by the Wall Street Journal and summarized by TechRadar, and Southern Company recently announced a 25-year agreement for a 3.2 GW data center site in Georgia. A long agreement on short-lived hardware needs a clear plan for refresh, migration and the value of retired equipment.
• Enforceability. Take-or-pay structures are well tested in energy markets. AI compute contracts are newer, so investors should review how delivery, performance and remedies are defined.
Each risk can be managed through structure: diversified customer books, refresh and remarketing plans built into the term and clear delivery and performance provisions.
Execution Determines Whether a Contract Becomes Revenue
A signed contract is only valuable if the capacity behind it is delivered on time. Delivery depends on factors outside the contract itself: securing hardware allocation, getting power to the site, preparing a high-density facility and staffing operations.
Power is often the slowest step. A Carbon Direct analysis found that power generation projects in data center load growth zones in PJM and ERCOT are waiting 36 to 48 months in the interconnection queue, against a federal target of 8 to 11 months. Delays are already showing up in utility forecasts: in September, PJM’s independent market monitor told federal regulators that 4,017 MW of forecast data center load, 42 percent of the growth PJM had assumed, had already been canceled or delayed, according to the same TechRadar report. A contract with a delivery date the provider cannot meet becomes a liability rather than an asset.
For investors, execution capability deserves the same scrutiny as the contract book. Who controls the critical path between signature and first revenue? How many separate vendors have to perform on time for the capacity to go live? The answers often reveal more about the quality of a contracted backlog than the headline value of the contracts.
What Investors Should Look For
The most durable AI infrastructure businesses are likely to combine contracted demand with the ability to deliver against it, which requires customers with real commitments, contract terms aligned with the life of the hardware and a deployment model that does not depend on a long chain of independent vendors each meeting their own deadline.
Vertical Data was built to pair signed contracts with delivery capability: its three platforms bring GPU provisioning and managed infrastructure (VerticalData.io), structured financing (GPUFinancing.com) and data center ownership (VerticalEdgedc.com) together under one company, so contracted demand can turn into active compute with fewer handoffs. As long-term contracts become the norm, investors are likely to pay closer attention to which operators can deliver the capacity they have contracted.

