What’s Driving Data Center Construction — and What’s Slowing It Down

Published: May 28, 2026

Key Takeaways:

  • Data center construction demand remains strong, but contractors are getting more selective on risk, pricing and contract terms.
  • Power constraints are the biggest brake on data center growth, delaying timelines and complicating project delivery.
  • Labor inflation, equipment lead times, and electrical procurement continue to drive cost and schedule risk.
  • Better outcomes depend on early utility coordination, critical equipment planning and clear risk allocation.

 

Data Center Construction Is Supporting Demand but It’s Getting More Selective

Contractors across the country say data center construction is carrying the market as other sectors cool. Executives point to multiyear pipelines, repeat orders from hyperscalers and rising spending on power infrastructure tied to growing compute needs. They see a durable tailwind but they’re also clear about the risks that can limit how much demand becomes completed facilities and booked revenue.

Firms that deliver mission-critical projects reported stronger backlogs early this year. Large sites, long-lead scopes and bundled campus work have helped offset softness in office and retail construction. Leaders also say they’ve become more selective, screening contract terms more carefully and pushing for clearer risk allocation to protect margins if schedules slip or input costs rise.

What’s Holding Back Data Center Construction Growth?

Power is the main constraint. Modern data centers require massive electrical loads. Many regional grids weren’t built to support those peaks. Utilities face long interconnection queues, while new substations, feeders, and transmission upgrades add years and major costs to projects.

 

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Those limits extend preconstruction timelines and complicate forecasting. Owners and builders spend more time sizing electrical infrastructure, modeling reliability and pricing backup systems. In some markets, projects pause until utilities confirm capacity and service dates, which raises carrying costs and delays staged go-lives.

Costs have also become harder to control. Material and labor inflation lifted the baseline cost of shells and fit-outs over the past several years. Custom switchgear, transformers and medium-voltage equipment with extended lead times can push installed costs sharply higher from one site to another. Contractors advise owners to secure firm power commitments early, reserve critical gear and treat long-lead equipment as part of the critical path.

Community and policy resistance are also growing. Local governments and residents weigh jobs and tax revenue against water use, land consumption, noise, visual impact, and potential rate pressure on households and small businesses. Some jurisdictions have proposed moratoria or bans, while others have tightened zoning, capped facility size or required design changes to reduce heat island effects and screen façades. Developers usually respond by targeting more supportive markets or adapting designs with recycled water systems, air-side cooling, on-site renewables or energy storage. Those measures can help with permitting, but they also add cost and complexity.

How Can Owners and Builders Improve Project Outcomes?

They can improve outcomes by securing power early, locking critical equipment, tightening entitlements, structuring contracts carefully and strengthening commissioning. Site selection should start with power availability, not just land. Teams need to confirm substation capacity, interconnection timelines and upstream transmission constraints before negotiating land deals. Utility letters should clearly define service levels and delivery dates, then be tested against future growth scenarios.

Critical equipment should be locked in early. Switchgear, transformers, chillers and generators often drive the schedule, so teams need a basis of design that suits what suppliers can actually deliver. Alternate options can reduce exposure to single points of failure, while procurement plans should manage deposits carefully and tie vendor performance to measurable milestones.

Entitlements and contracts also need more discipline. Teams should map zoning, noise, visual and environmental requirements in detail, engage neighbors and officials before formal filings, and show how projects will mitigate traffic, water use and viewshed impacts. Where it fits, community benefits agreements can address local priorities. Contracts should clearly define responsibility for utility-owned and customer-owned assets, along with protocols for schedule recovery, price escalation, substitutions and shared savings from value engineering.

Commissioning and sustainability also carry more weight. Complex electrical and cooling systems require early coordination between designers, trade partners and commissioning agents, with factory acceptance tests, site acceptance tests and integrated systems testing sequenced to avoid a compressed startup. Teams should verify spare parts, firmware and maintenance plans before substantial completion. At the same time, municipalities and tenants are pushing for lower water intensity, greater energy efficiency and cleaner power. Where possible, developers should secure renewable power agreements or behind-the-meter resources, track energy and water metrics from day one, and design for future retrofits such as liquid cooling or heat recovery. Overall, demand for compute capacity continues to support new campuses, expansions and power infrastructure, but the winners will be teams that manage grid constraints, community concerns and execution risk with discipline.

(Note: AI assisted in summarizing the key points for this story.)