Site selection is the backbone of successful construction management for large-scale projects like data centers. It impacts everything from workforce availability to permitting, infrastructure, and logistics. The locations discussed - Beaver Dam, WI; Lebanon, IN; and Box Elder, UT - highlight how local conditions shape project execution:
Key takeaways:
Ultimately, thorough site analysis ensures smoother project delivery and reduces risks tied to delays or resource shortages. This requires mission-critical construction management expertise to navigate complex site variables.
Data Center Site Selection: Beaver Dam vs. Lebanon vs. Box Elder
Geography plays a major role in shaping every construction management decision. Locations like Beaver Dam, WI; Box Elder, UT; and Lebanon, IN each come with their own physical and regulatory hurdles. These challenges influence everything from construction timelines to costs and workforce strategies, making geography a critical factor in mission-critical construction projects.
When it comes to construction, the local climate and site conditions demand tailored solutions, especially for cooling and infrastructure. For instance, Meta's Beaver Dam facility uses dry-cooling systems - air-cooled heat exchangers - to completely eliminate operational water demand. This approach not only addresses environmental concerns but also aligns with Meta’s commitment to restore 100% of the water consumed back to local watersheds [1].
In Box Elder, O'Leary Digital's Stratos Project employs a closed-loop chilling system that uses a mix of water and polyethylene glycol. Paul Palandjian, Co-founder and CEO of O'Leary Digital, explained:
"The water would cool down by being exposed to ambient air before cycling back through... noting it would need to work harder in the warmer months." [2]
Meanwhile, Meta's Lebanon campus has opted for a closed-loop liquid cooling system, designed to minimize water use for much of the year. This system directly addresses the region's water-use challenges [5].
Geographic constraints also influence early site preparation. For example, the Beaver Dam site required a $200 million investment to upgrade energy infrastructure, including new substations and transmission lines, before construction could even begin. These upgrades were necessary to overcome the site's power grid limitations [1]. Similarly, in Lebanon, $120 million was spent upfront on roads, transmission lines, and water infrastructure to address local gaps and ensure the project could proceed smoothly [5].
Regulatory environments differ widely across states, and overlooking these differences can lead to costly delays. In Beaver Dam, Wisconsin passed a law in July 2025 that provided tax increment district (TID) exemptions for data center projects, giving Meta a smoother path through local approvals. However, the city maintained strict oversight. Mayor Bobbi Marck emphasized:
"From the city's end, all of those permits were in line and they were following the law... we will 'trust, but verify' through inspections as the project progresses." [1]
In Box Elder, the process is more complex. The Stratos Project falls under the jurisdiction of the Military Installation Development Authority (MIDA), which required an interlocal agreement with the Box Elder County Commission. This approval, granted in May 2026, came after over 1,500 formal protests were filed with the Utah Division of Water Rights regarding the project’s application to convert agricultural water rights to industrial use [2][6]. As a result, managing water rights has become a top priority for construction managers in Utah.
In Lebanon, the project benefits from being part of Indiana's LEAP Innovation District, a state-designated development zone designed to streamline permitting for large-scale projects. While this framework helps compress approval timelines, it still requires coordination with multiple agencies to address utility, environmental, and zoning compliance [5].
| Location | Primary Regulatory Body | Key Permitting Challenge | Mitigation Strategy |
|---|---|---|---|
| Beaver Dam, WI | City Council / State of Wisconsin | Wetland restoration & utility load | TID exemptions; $200M utility financing [4][1] |
| Lebanon, IN | LEAP Innovation District / State of Indiana | Multi-agency coordination | State-designated development zone [5] |
| Box Elder, UT | MIDA / County Commission | Water right transfers & public protests | Closed-loop cooling; on-site power generation [2][6] |
These regulatory complexities directly influence how resources and staffing challenges on large-scale construction projects are approached. Adjustments to account for these challenges are critical, as will be discussed in the next section.
Once regulatory challenges are addressed, the focus shifts to securing the right people, materials, and equipment. Each site's logistics and resource profile plays a major role in staffing and supply strategies, making site selection a cornerstone of successful construction management (CM).
In smaller markets, labor pools can be robust, but hiring often requires a more thoughtful approach. For example, Beaver Dam offers a manufacturing-focused workforce, which attracted Generac Power Systems to set up along Highway 151. CEO Aaron Jagdfeld explained:
"Beaver Dam felt like a good spot for us as a good-sized manufacturer...to be a bigger fish in a smaller pond." [4]
This workforce can support large-scale construction, provided senior positions are filled well in advance - typically 4–6 months before mobilization. Filling these roles takes time, often exceeding 90 days, and comes with a wage premium of 25–30% compared to general commercial construction work [7].
In areas with limited local talent, like Box Elder, companies may need to relocate experienced professionals or rely on specialized recruiting services. For long-term capital projects, embedded recruiting models or RPO vs. in-house recruitment have proven effective. These approaches ensure a steady talent pipeline, avoiding the inefficiency of hiring on an as-needed basis [8]. Treating staffing as a critical-path activity, rather than a secondary HR task, is essential for success.
At the same time, aligning material procurement with workforce needs is equally important.
Transportation infrastructure significantly impacts material movement and associated costs. For instance, Beaver Dam's location near U.S. Highway 151 facilitates high-volume deliveries and enhances workforce mobility. This advantage is further highlighted by the presence of a 1.2 million–square–foot Walmart distribution center nearby, serving Wisconsin, Illinois, and Michigan [4].
However, regional labor shortages can amplify supply chain issues. In markets like Salt Lake City, which supports Box Elder, labor availability is tight due to rapid commercial growth outpacing apprenticeship programs [10]. When local crews are unavailable, construction managers often need to bring in workers, which introduces added costs for per-diem, travel, and retention - factors that can complicate project bids.
"The people who swing hammers, set panels, and pull wire are scarcer than any material on the project." - William Goodin, Terrapin Construction Group [10]
To mitigate these risks, it’s wise to require subcontractors to commit to named crews in their contracts, rather than relying on vague labor assurances. Including specific crew commitments and per-diem details helps control travel expenses and avoid unexpected cost escalations.
After addressing logistical and resource planning, the next step is tackling the unique challenges posed by terrain and infrastructure at each site.
Rural construction sites often require significant groundwork before actual building can begin. For example, converting farmland into a functional construction site involves grading, installing drainage systems, and setting up utilities. At Beaver Dam, Meta undertook extensive preparation, which included grading 500 acres of farmland and restoring 570 acres of wetlands in collaboration with Ducks Unlimited [1]. Mortenson, the general contractor appointed in December 2025, prioritized utility enablement as Phase 1, treating it as a core task rather than an afterthought. These initial civil works laid the groundwork for smoother construction, creating the physical and logistical framework essential for the project's later stages.
"The Beaver Dam site presents several infrastructure-focused challenges common to recent data-center builds, including rapid electric-load onboarding, coordination of new substations... and integration of dry-cooling and water-restoration systems." - Bryan Gottlieb, Online Editor, Engineering News-Record [1]
In areas with limited water resources, dry-cooling systems - which rely on air-cooled heat exchangers instead of municipal water - are becoming increasingly important. This approach not only reduces strain on local infrastructure but also minimizes potential conflicts with surrounding communities. For instance, at Box Elder's Stratos Project Area, which spans about 40,000 acres and is planned to support 7.5 gigawatts of power capacity upon completion, such solutions are critical [6].
When dealing with large, complex, and geographically spread-out sites, advanced technology becomes essential. Manual oversight alone isn’t enough to handle the scale and intricacy of these projects. Tools like 4D scheduling - which integrates Building Information Modeling (BIM) with time schedules - allow teams to anticipate and resolve trade conflicts or workspace density issues before they lead to delays. Primavera P6 further aids in tracking key milestones across multiple project phases. Meanwhile, Building Management Systems (BMS) from providers such as Siemens, Tridium Niagara, and Honeywell enable remote monitoring of facility performance and environmental conditions [8][9].
For retrofit or fit-out projects in partially operational environments, Method of Procedures (MOPs) offer a structured way to manage construction without disrupting ongoing activities. At Beaver Dam, CM teams used MOPs alongside Primavera P6 to coordinate contractors across phases with budgets ranging from $600,000 to $100 million [9]. This combination of precise procedures and real-time scheduling ensures that even the most dispersed and complex sites stay on track.
The examples of Beaver Dam, Lebanon, and Box Elder highlight a key shift: site selection isn't just about real estate anymore - it's the cornerstone of a solid CM strategy. Every decision made before construction begins - like ensuring dependable power or aligning with the local workforce's skills - plays a critical role in how smoothly a project unfolds. As noted in the discussion, understanding the connection between workforce potential and infrastructure is essential for teams tackling similar projects (source).
What sets successful projects apart from costly missteps boils down to one thing: execution certainty. Josh Bays of Site Selection Group puts it succinctly:
"The greatest risk is no longer selecting a site with slightly higher costs; it is selecting a site that cannot be executed as planned." [11]
Even the most appealing sites can become major setbacks if power interconnection takes over 4.5 years or if permitting assumptions fall through. Incentives, while helpful, should only tip the scales - not drive the decision. A thorough assessment of risks tied to execution naturally supports a phased approach to project planning.
The phased strategy used in Box Elder’s Stratos Project is a great example. Starting with Phase 1 capped at 1.5 GW on less than 2,000 acres, the team built trust with the community and proved their capabilities before scaling up to 7.5 GW. This measured progression eased regulatory challenges and kept financial risks manageable at every step [3][6].
Teams that succeed in these complex environments view site conditions as strategic assets, not hurdles to overcome later. By considering factors like terrain, workforce culture, infrastructure readiness, and permitting timelines early on, they set the stage for faster project delivery, smoother recovery from challenges, and long-term success. This comprehensive approach remains the most reliable path to achieving those goals.
The first thing you need to check is power. Reliable energy access is the backbone of any operation, and connecting to the grid can take anywhere from 4 to 10 years. Make sure to confirm key details like power capacity, delivery timelines, and utility commitments before moving on to factors like water availability or permits. Without a dependable power source, no other site benefits will matter.
Dry-cooling and closed-loop systems are designed to cut down on water usage, but they come with trade-offs. They demand more electrical power, which can impact site layouts, equipment requirements, and how systems perform, especially in high-temperature conditions. These setups also typically need detailed water management plans and phased approvals to comply with environmental regulations. On top of that, commissioning these systems can stretch project timelines by an extra 10–20%, as they require thorough real-world testing. This adds another layer of complexity to construction management.
For projects that are mission-critical, especially in remote areas or smaller labor markets, it’s smart to bring key construction management leaders on board 6 to 12 months before construction kicks off. Positions like senior MEP engineers and project managers demand specialized expertise, and the hiring process for these roles often stretches to 8 to 10 weeks or longer. Starting early not only helps you navigate potential labor shortages but also ensures you lock in top talent before the competition heats up.
