Hyperscale campuses need a builder who is comfortable with scale: hundreds of acres of grading, long runs of underground duct bank, and tilt-panel buildings in lengths measured by the dozen bays. In Mayes County, the Pryor Creek area and MidAmerica Industrial Park form the most established place in Oklahoma for that kind of work, and it is where we plan for large, repeatable halls rather than one-off buildings.
A MidAmerica logistics sheet describes the park as Oklahoma's largest industrial park, with 9,000 acres and over 75 businesses, near the junction of US Highway 69 and US Highway 412, with I-44 about 20 miles to the north and more than 70 trucking companies serving the site. A park article from January 2021 adds that the campus has about 80 companies, about 4,200 employees, and custom electricity provided by the Grand River Dam Authority.
Power service from a public authority, in a park built for industry, is the main reason a hyperscale buyer looks here. We build around that fact: first the utility agreement, then the roads, the pads and the buildings.
KTUL reported on May 4, 2022 that a large cloud operator would invest another $75 million in Oklahoma, including its Pryor data center, bringing the Pryor site total to $4.4 billion, with more than 800 people in full-time and external supplier roles. We cite it as market context. We did not build that campus, and we are not describing its design. For a buyer, however, it matters that a data center campus of that size operates in Pryor, because the fiber, the power and the local workforce have been tested by a real tenant.
The effect on neighbors is practical. Suppliers of concrete, rebar, electrical gear and crane service already know the area. Roads are built for heavy loads. County officials and utility engineers have handled large-load requests before. A new project still needs its own study and approvals, and no one should assume capacity is waiting, but the process is better understood here than in a county facing its first data center.
Campus work begins with mass grading, haul roads and drainage, then the primary electrical infrastructure and the first building pads. Our services in this area are described under mass grading and site development and hyperscale campus construction. We stage the earthwork so that later phases can be added without disturbing the first, with utility corridors and stub-outs placed for the final build.
Vertical construction usually follows the tilt-panel model, which is well matched to the park. The park's own newsletter describes a 274,000-square-foot manufacturing, distribution and warehouse building built with precast concrete tilt-panels, with a 40-foot interior clear height and 40 truck docks, on Armin Road with immediate access to State Highway 69A. That is a distribution building, not a data center, but it shows that tilt-panel contractors, panel casting and crane service are established locally.
The park's electricity comes from the Grand River Dam Authority, so our first conversation is with the authority rather than with a subcontractor. We ask for the study process, the lead time for new substation capacity, the voltage options and the responsibilities of the owner and the utility for each piece of the interconnection. Then we price and schedule the work on that basis.
We handle permitting and utility interconnection as a workstream with a named lead, because the hardest delays on large campuses come from interconnection dates, not from construction. When the utility's date is fixed, we plan commissioning around it and keep the shell on a separate track.
The park newsletter cites on-site Union Pacific rail service, and the logistics sheet places the park at a major highway junction. For a builder that means choices. Rail suits bulk material and some heavy equipment. Highways suit everything else. We pick the mode for each delivery and keep a second option permitted for critical items.
The park also hosts an airport. Officials broke ground on April 19, 2024 on a 4,000-square-foot terminal at the H71 Regional Business Airport, backed by $3.285 million in Federal Aviation Administration grants. A business airport helps owners and executives visit the site, and some contractors use it for rapid movement of specialists. It also means airspace awareness for cranes, which we check during planning.
Hyperscale and AI buyers are the obvious audience. We describe how we work with them under hyperscale cloud providers and AI and GPU cloud operators. Their needs include repeating halls, a high-density cooling approach, on-site substations and large generator yards, all of which fit a park of this size.
Utilities and generation developers are the second audience. Where a project pairs compute with new generation or storage, the interconnection sequence is shared, and our work with utilities and power developers addresses it. Developers of powered land also use the park as a precedent for pad-ready sites.
Substation and interconnection costs usually lead the list, followed by the cooling approach, the generator count and the speed demanded of the schedule. Earthwork is the next largest early item, and unit costs depend on rock, moisture and haul distance. We run borings across the campus and include a contingency range that narrows as the data comes in.
Labor is a cost driver in any market with several large projects at once. We secure concrete, steel and electrical partners early and write their durations into the baseline schedule. For owners comparing this area with the metros, our pages on the Tulsa Port of Catoosa and Claremore describe nearer options with different power and land profiles.
Share the acreage you are considering, the phase plan and the power timeline. We will review utilities, grading and logistics and report what the site can support.
We cannot assure capacity. The park article reports custom electricity from the Grand River Dam Authority, which is a good starting point, but each new load needs its own study. We request the study process and timeline during feasibility, before any design money is spent.
Yes, it is a common choice because it builds quickly, resists impact and handles long clear spans. The park's newsletter describes a 274,000-square-foot tilt-panel building with a 40-foot clear height, which shows the method is used at scale in the area. For data centers we add details for roof loading, containment and the mission-critical slab.
We keep our haul routes, laydown areas and noise or dust sources away from the neighbor's operations and share the construction schedule with the park. We also confirm shared road and utility corridors in writing. We cite the existing campus only as market context.
It may be. Union Pacific service is cited on site in the park's newsletter, and rail suits very heavy or bulk items. We check the siding, the unloading method and the final haul before choosing it.
That depends on the final megawatt target, the cooling method and the generator count. We lay out the full build on paper first, then size the first phase to fit within it, so the early utilities do not block later halls.

Tell us about the site, the power and cooling plan and the schedule, and we will set up a review of scope, schedule, permits and inspections.
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