The central story is not simply that investors are buying more land for data centers. It is that the economics of developing artificial intelligence infrastructure increasingly depend on securing electricity before competitors do. As developers pursue sites for the next generation of AI computing capacity, access to deliverable power is emerging as a decisive factor in property valuations, construction schedules, and capital allocation. Land that once offered a location advantage now needs to demonstrate a credible path to energization, with utility commitments and transmission infrastructure influencing how investors assess its commercial potential. This shift is making power availability and delivery timelines increasingly important to data center land valuations, alongside conventional property characteristics such as location, zoning, and parcel size. The result is a market in which the ability to bring electricity online on schedule can matter as much as the land itself.
US AI Land Spending Surges as Developers Compete for Power
US spending on land intended for future data centers reached approximately $6 billion in the first half of 2026, marking a 79% increase from the same period a year earlier, according to commercial real estate adviser Avison Young. The scale of that investment reflects a fundamental change in how the market values the physical foundations of artificial intelligence, as hyperscalers, neocloud operators, energy-focused developers, and infrastructure investors pursue sites capable of supporting increasingly power-intensive computing workloads. For these buyers, the acquisition decision extends beyond acreage, zoning approvals, and proximity to major technology markets because the commercial value of a parcel increasingly depends on when it can support an operating facility. The land market is consequently becoming a contest over development readiness, in which investors must assess not only what a property can accommodate but also how reliably and quickly its electrical infrastructure can support commercial operations.
Power Availability Creates a New Premium in Land Valuations
The changing economics are particularly visible in Northern Virginia, one of the most established US data center markets, where entitled land without power can command approximately $4 million an acre while powered land can reach at least $6 million an acre, according to John Andril, manager of market intelligence at Avison Young. “The biggest thing right now is speed to power,” Andril told TechTarget, describing the factor that increasingly separates commercially attractive sites from properties whose development prospects remain uncertain. The comparison suggests a substantial valuation gap between land that has cleared relevant development requirements and land that also offers a credible route to electricity, although zoning, infrastructure, location, and other property characteristics also influence the final transaction price.
The premium also changes the way investors compare development opportunities across markets, particularly when land prices appear inexpensive relative to established data center hubs. A cheaper parcel may offer limited economic advantage if the developer must fund substantial electrical upgrades, negotiate complex utility arrangements, or wait years for the necessary capacity to become available. Conversely, a more expensive property may offer a clearer development timetable when existing infrastructure, approvals, and utility commitments align with the project’s requirements. Moreover, investors must distinguish between physical proximity to transmission infrastructure and a contractual or utility-backed commitment to deliver usable power, since the former does not automatically establish the latter. The reported price differences and transaction analysis indicate that execution readiness is an important consideration in land valuation, alongside location, entitlements, parcel characteristics, and other infrastructure requirements.
Speed to Power Becomes a Measure of Investment Risk
The emerging valuation framework places greater emphasis on the uncertainty a buyer can eliminate before committing capital. “The premium is increasingly payment for uncertainty removed, not just for megawatts nearby,” said Neil Osnato, an industry analyst. The distinction captures a central challenge for AI infrastructure investors: a property may have attractive physical characteristics and substantial theoretical capacity, yet remain commercially unsuitable if its power delivery schedule does not match the intended development plan. A genuinely power-ready property typically needs electrical infrastructure deliverable within about 18 months, Andril said, a period that roughly aligns with the time required to prepare a building for its initial load. That timeline makes power readiness a coordination challenge involving land acquisition, utility engineering, equipment procurement, construction, and commissioning, with the actual schedule depending on the requirements and progress of each workstream.
The distinction between announced capacity and deliverable capacity also has consequences for underwriting. Investors assessing a site need to understand the status of utility commitments, the expected availability of substation equipment, the allocation of construction costs, and the schedule for completing necessary electrical works. A nominal megawatt figure does not establish that the capacity will arrive in time, while a nearby transmission line does not resolve questions about connection rights or the upgrades needed to serve a new load. These uncertainties can affect the projected date of first revenue, the duration of construction financing, and the amount of capital a developer must carry before a facility begins operating, although the financial impact will depend on each project’s financing terms and delivery schedule. For operators that have made commitments to customers, delays can also create a mismatch between contracted capacity and the infrastructure available to support it.
Utilities Face a Capital Allocation Dilemma
The rush to secure power-ready sites creates a difficult planning problem for utilities, which must prepare for large new loads without committing billions of dollars to infrastructure that developers may never use. Data center operators, meanwhile, want confidence in electricity delivery before committing substantial capital to land, buildings, and computing equipment. Andril described the tension as a “chicken-and-egg” situation, reflecting the difficulty of coordinating investment decisions when each side needs assurances from the other. Utilities need credible evidence that a proposed project will proceed before allocating scarce engineering resources and funding network expansion, while developers need visibility into the power-delivery timetable before they can confidently approve a major investment. This coordination problem can become more consequential when multiple projects compete for the same equipment, transmission capacity, or utility planning resources.
Proposed commercial and procedural measures can help narrow that gap by requiring developers to demonstrate stronger financial commitment before utilities advance projects through the interconnection process. Letters of credit can provide financial assurance, while take-or-pay agreements can require customers to pay for contracted capacity under specified terms even if their actual consumption falls short. Stricter interconnection-queue requirements can also help utilities distinguish credible projects from speculative requests that reserve capacity without a sufficiently developed investment plan. Established developers and end users may find it easier to meet such requirements because they can demonstrate financing, commercial demand, and a more developed execution plan. Andril said removing speculative projects makes legitimate demand easier to evaluate, an outcome that could help utilities prioritize investment while reducing uncertainty for developers with viable projects.
Investors Must Reprice Development Readiness
The $6 billion in first-half land purchases signals how aggressively capital is pursuing the physical infrastructure needed to support AI computing, but the spending figure does not establish that every acquired site will become operational on schedule. Developers still need to secure utility capacity, complete required infrastructure, obtain applicable approvals, and coordinate construction with the availability of electrical equipment; the timing and requirements will vary by project and location. The available evidence already shows differences in transaction pricing associated with committed utility load and electrical infrastructure, although it does not establish how the market will price every category of property in the future. Sites with credible power commitments may command a premium, while properties dependent on uncertain connections may face longer development timelines and more complex financing considerations, depending on their utility arrangements and project requirements.
For developers, the strategic response is to integrate power due diligence into site selection from the beginning rather than treating electricity as a problem to solve after acquiring the land. That means evaluating utility commitments, connection schedules, substation requirements, equipment availability, and potential interim generation against the proposed campus design and customer delivery obligations, while recognizing that each site’s constraints and costs will differ. It also means examining whether the project can proceed in phases without creating infrastructure that remains underused or committing capital before the corresponding power capacity becomes available. The central lesson of the US AI land rush is that land remains essential, but its commercial value increasingly rests on the electricity that can be delivered to it, the certainty of that delivery, and the speed at which the investment can begin producing returns.
