Average Cost to Build a Data Center in the USA

2026 Cost Guide · Updated August 2026

Average Cost to Build a Data Center in the USA

Data center construction costs $650 to $1,250+ per square foot in 2026, or roughly $10 to $13 million per megawatt of IT load. AI-optimized facilities run far higher. Here is what actually drives the number, how it varies by tier, format, and geography, and why electrical equipment lead times now matter more than construction cost.

The 2026 Data Center Boom

The Hottest Construction Vertical in the United States

What Changed in This August 2026 Update
  • Year-to-date 2026 starts spending revised to $58.1 billion through May, more than four times the 2025 record pace.
  • Top-five state concentration updated. Virginia, Texas, Louisiana, Illinois, and North Carolina now hold nearly 60% of trailing 12-month starts spending, replacing the January 2026 ranking.
  • Per-SF and per-MW bands raised to reflect Q2 2026 pricing. Standard builds now $10M to $13M per MW.
  • New section added on electrical equipment lead times, now the dominant schedule risk on data center projects.
  • New 2027 outlook section covering pipeline, power infrastructure forecasts, and cost trajectory.

Data center construction is the single fastest-growing commercial construction vertical in the United States, and the gap is no longer close. According to ConstructConnect's July 2026 Data Center Report, year-to-date data center construction starts reached $58.1 billion through May 2026, more than four times the record level set over the same period in 2025. Data center starts now account for more than one fifth of all US nonresidential building starts.

The trailing 12-month average sits at $9.7 billion per month, with the six-month average running hotter at $12.0 billion. Over the trailing 12 months, the average data center project climbed to $475 million, up from $177.9 million a year earlier. ConstructConnect's trimmed 2026 dataset places the median at $473 per square foot and the average at $784 per square foot. That spread is not a data error. It reflects how many powered-shell and core-and-shell projects are counted alongside fully fitted facilities, and it is why a single "cost per SF" number is close to useless without knowing the scope boundary.

Cushman & Wakefield's US Data Center Development Cost Guide reports fully built cost per square foot approaching $1,000, with land prices for 50+ acre parcels up 23% year over year and the average data center land transaction now at 224 acres. Developers are chasing acreage with power commitments already attached, which is pushing activity into rural and tertiary markets.

At Terrapin Construction Group, we provide general contracting, design-build delivery, IMP building envelope installation, and equipment procurement for data center and critical infrastructure projects nationwide, licensed in all 50 states. The cost data below reflects current market conditions from our project work, combined with benchmarks from ConstructConnect, Cushman & Wakefield, RSMeans/Gordian, and Turner & Townsend's Data Centre Cost Index.

$58.1B
2026 YTD Starts Through May
4x
vs. 2025 Record Pace
$475M
Avg. Project Cost (12-Mo.)
20%+
Share of All Nonres. Starts
$101B
Near-Term Pipeline in Precon
~60%
Held by Top 5 States
+30.8%
2026 Power Infra. Starts Fcst.
23%
YoY Land Price Increase
Cost by Tier & Format

What You Will Actually Pay by Data Center Type

The Uptime Institute's tier classification system defines the redundancy level, and each tier increase adds 15 to 25% to construction cost. AI workloads add a separate premium on top of the tier classification. For a deeper comparison of the two most-specified levels, see our breakdown of Tier III vs. Tier IV data centers.

Edge Data Center
Small-Format / Local
$6Mto$30M
500 to 5,000 SF. Modular or containerized. Fast deployment in 6 to 12 months. Local fiber access. Supports latency-sensitive workloads and regional AI inference.
Enterprise / Tier II
Standard Redundancy
$650to$800/SF
10,000 to 50,000 SF. Redundant capacity components. N+1 power and cooling. Total project range: $35M to $170M.
Tier III
Concurrently Maintainable
$800to$1,000/SF
No downtime for maintenance. 2N power distribution. Multiple cooling paths. 99.982% uptime. Still the most common enterprise specification. Tier III vs. Tier IV compared →
Tier IV / Hyperscale
Fault Tolerant
$1,000to$1,250+/SF
99.995% uptime. Full 2N+1 redundancy across all systems. Multi-building campuses. Total project: $250M to $1B+. Five states hold roughly 60% of national spending.
AI-Optimized
High-Density Compute
$1,200to$1,800+/SF
30 to 50+ kW per rack, with newest deployments pushing past 100 kW, versus 5 to 10 kW standard. Direct-to-chip or immersion liquid cooling. Reinforced floors. The fastest-growing data center format in 2026.
Cost Per Megawatt
The Metric That Matters
$10Mto$13M/MW
Standard shell-and-core benchmark, up from roughly $10.7M/MW in 2025. AI-optimized facilities run $20M to $37M per deliverable MW all-in, roughly 3x a conventional build.
2026 US data center construction cost summary. Ranges reflect fully fitted facilities excluding land and IT hardware.
Facility TypeCost / SFCost / MWTypical TimelineUptime
Edge / Modular$700–$1,100$9M–$12M6–12 months99.671%+
Enterprise Tier II$650–$800$8M–$11M18–24 months99.741%
Tier III$800–$1,000$10M–$13M20–28 months99.982%
Tier IV / Hyperscale$1,000–$1,250+$12M–$16M24–36+ months99.995%
AI-Optimized$1,200–$1,800+$20M–$37M24–36+ monthsVaries by tier
Budget Breakdown

Where the Money Actually Goes

Data centers are not normal buildings. Electrical infrastructure alone, meaning power distribution, UPS, generators, and switchgear, represents nearly half the total construction budget.

40–45%
Electrical & Power
Utility interconnection, switchgear, UPS, generators, PDUs, bus duct, grounding. See electrical cost per SF
15–25%
Cooling Systems
CRAC/CRAH units, chillers, cooling towers, liquid cooling for AI, hot/cold aisle containment. See HVAC cost per SF
10–15%
Structure & Envelope
Foundation, structural steel, IMP wall panels, roofing, raised floor systems
8–12%
Site & Civil
Grading, utilities, roads, parking, fencing, security infrastructure, stormwater
5–10%
Fire Suppression & Safety
Clean agent, VESDA detection, water mist, compartmentalization. See NFPA 13 changes
5–8%
Network & Connectivity
Fiber plant, cable trays, meet-me rooms, carrier cross-connects, network operations center

The building shell represents only 10 to 15% of total data center construction cost. That is an inversion of every other commercial building type, where the structure and envelope dominate the budget. It is also why data center projects require a GC with deep MEP coordination capability and strong equipment procurement relationships. The mechanical and electrical systems are the project. The building is the box they go in.

TCG's direct relationships with Carrier and Trane for cooling equipment, plus our IMP panel installation capability for building envelope, create an integrated delivery model that eliminates the coordination gaps between shell, envelope, and MEP that drive change orders on data center projects. Our in-house MEP engineering and structural engineering capabilities let us resolve those interfaces during design rather than in the field.

Cost Drivers

The Five Factors That Move the Number Most

Power density and tier level remain the single largest cost driver. A Tier IV facility costs 25 to 40% more than Tier III due to full 2N+1 redundancy across all systems. AI workloads at 30 to 50+ kW per rack, versus 5 to 10 kW for traditional compute, require proportionally larger electrical service, cooling capacity, and structural reinforcement for floor loading. The newest AI deployments are pushing past 100 kW per rack, which changes the electrical room layout before it changes anything else.

Cooling architecture is evolving fast and directly affects cost. Traditional air cooling using CRAC and CRAH units is being supplemented or replaced by liquid cooling for AI workloads. Direct-to-chip liquid cooling adds $2,000 to $5,000+ per rack in infrastructure cost but is essential above roughly 20 kW per rack. A 1 MW immersion cooling block from an established vendor runs $2.5M to $3.5M, roughly double the upfront cost of air cooling, with operating economics that only pay back at sustained high density. Refrigerant selection is also in flux under low-GWP refrigerant rules.

Utility interconnection and power availability can represent $5 million to $25 million+ depending on proximity to grid capacity. Sites with existing high-voltage utility service are increasingly scarce in primary markets, which is exactly why Cushman & Wakefield reports the average land transaction has grown to 224 acres and developers are aggressively pursuing parcels that already carry power commitments. Some developers are investing in on-site generation including natural gas, solar, and battery energy storage, adding $3 million to $10 million+ per MW in generation infrastructure.

Geographic location affects construction cost by 25 to 40%. Northern Virginia commands the highest premium in the country on land, labor, and specialized subcontractor availability. Texas and the Southeast offer materially lower construction cost with better power availability, which is why the near-term pipeline is concentrated there. Permitting also varies widely by jurisdiction, as detailed in our state-by-state permitting timeline guide.

Tariff and material cost pressure compounds everything above. As we detail in our analysis of the five forces reshaping commercial construction, Section 232 steel and aluminum tariffs raise structural and electrical infrastructure costs. Copper, the backbone of every electrical distribution system in a data center, has seen sustained increases driven by tariffs and global electrification demand. Skilled electrical labor is the other binding input, and the 2026 labor shortage hits this trade hardest. Owners who front-load procurement through a GC with established supply chain relationships under a GMP contract structure protect their budgets from mid-project escalation.

Schedule Risk

Electrical Equipment Lead Times Are Now the Real Constraint

In 2026, the number that kills data center projects is not cost per square foot. It is the delivery date on a transformer. Industry estimates suggest 30 to 50% of planned 2026 US data center capacity will slip or cancel for lack of electrical equipment, not for lack of capital, land, or chips.

Long-lead electrical equipment quoted lead times, mid-2026. Verify against current vendor quotes before committing a schedule.
EquipmentLead TimeNotes
Generator step-up transformers (>50 MVA)100–150+ weeksHigh-capacity units quoted at four to five years in some channels
Substation transformers (5–50 MVA)75–110 weeksUp from roughly 140 weeks system-wide in 2023 to 160+ weeks in 2026
Medium-voltage switchgear (15kV class)52–80 weeksSold out through 2028 in many manufacturer channels
Standby generators (2MW+)52–80 weeksAllocation-based ordering common
UPS systems and PDUs30–52 weeksImproving relative to 2024, still elevated
Chillers and CRAH units26–52 weeksLiquid cooling CDUs run longer

Read those numbers against the construction timeline and the implication is obvious. A Tier III facility takes 20 to 28 months to build. A generator step-up transformer takes up to 150 weeks, which is roughly 34 months. If equipment procurement does not start before design is complete, the equipment becomes the critical path and the entire construction schedule is a downstream victim of it.

The practical response is to decouple equipment procurement from construction procurement. That means issuing early release packages for long-lead electrical equipment during design development, locking allocation with manufacturers before drawings are 100%, and building the construction schedule backward from equipment delivery dates rather than forward from notice to proceed. We cover the full picture in our 2026 switchgear, transformer, and generator lead time guide and our commercial construction material lead times report.

This is where TCG's equipment procurement and preconstruction services earn their keep. We front-load long-lead identification during preconstruction so owners can place orders while the design is still moving, rather than discovering a 34-month transformer after the GMP is signed.

Regional Pricing

Data Center Construction Cost by Region

Geographic concentration is extreme. Over the trailing 12 months, Virginia, Texas, Louisiana, Illinois, and North Carolina captured nearly 60% of all US data center starts spending. New England and the entire Western US together account for roughly 6%.

Virginia / Mid-Atlantic
$900–$1,400+/SF
Data Center Alley. Densest market globally. Highest land and labor premium in the country.
Richmond · Washington DC
Texas
$700–$1,000/SF
Leads the near-term national pipeline. Strong power, competitive labor cost, fast permitting.
Dallas · Houston · Austin · San Antonio
Carolinas / Southeast
$700–$950/SF
North Carolina now a top-five state. Right-to-work labor and available power.
Charlotte · Raleigh · Atlanta · Charleston
Gulf South
$650–$900/SF
Louisiana is a top-five state on the back of very large single projects. Low cost basis.
Shreveport · Jackson
Midwest
$750–$1,050/SF
Illinois now a top-five state. Ohio and Indiana lead the near-term pipeline.
Chicago · Columbus · Minneapolis
Mountain West
$800–$1,100/SF
Cool climate advantage on cooling load. Utah leads the Western pipeline.
Denver · Phoenix
Southeast / Florida
$750–$1,050/SF
Growing secondary market. Wind load and hurricane hardening add envelope cost.
Orlando · Tampa · Nashville
Northeast
$1,000–$1,500+/SF
Highest costs nationally. Land scarcity, union labor, complex permitting, constrained grid.
Albany · NYC · Boston
Building Envelope & Structure

IMP and PEMB in Data Center Construction

Insulated metal panels are increasingly specified for data center building envelopes because they provide continuous insulation, moisture control, and fire-rated assembly in a single integrated panel, reducing envelope installation time by 30 to 40% versus conventional construction. For data centers, IMP systems also offer superior air-tightness, which is critical for maintaining pressurization and contamination control in server environments and for meeting IECC 2024 envelope requirements. We cover the detail in our guide to IMP installation for data centers.

Pre-engineered metal building structural systems can be used for edge and enterprise data center shells, offering 15 to 25% structural savings and faster timelines. Hyperscale facilities with heavy rack floor loads and complex MEP infrastructure typically require conventional structural steel, but PEMB remains cost-effective for ancillary buildings such as generator enclosures, battery storage, and cooling plant structures within a data center campus. See our PEMB vs. conventional steel comparison.

TCG's integrated capability to provide IMP installation, PEMB procurement and erection, and commercial roofing as coordinated scopes, along with equipment procurement for HVAC and cooling systems through our Carrier and Trane national accounts, creates a delivery model that eliminates the coordination failures that drive cost overruns on data center projects. The IMP Install Estimator provides envelope-specific pricing in minutes.

Timeline

How Long Does It Take to Build a Data Center?

Data center construction timelines range from 6 months for modular edge deployments to 36+ months for hyperscale campuses. Edge facilities using modular or containerized construction can be deployed in 6 to 12 months. Enterprise Tier II and Tier III facilities typically take 18 to 28 months from design through commissioning. Hyperscale and Tier IV campuses take 24 to 36+ months, with commissioning alone requiring 3 to 6 months of systematic testing. For general benchmarks across building types, see how long ground-up commercial construction takes.

The most common schedule constraint is electrical infrastructure. Utility interconnection, substation construction, and switchgear procurement all carry lead times that now exceed the construction duration itself, as detailed in the equipment lead time section above. TCG's AI-powered scheduling and preconstruction services are designed to identify and front-load these long-lead items before they become critical-path delays, and our owner's representative services keep that sequencing enforced through construction.

Looking Ahead

2027 Outlook: Where Data Center Costs Go From Here

The pipeline is real, but the constraint has moved. ConstructConnect is tracking nearly 100 data center projects worth more than $101 billion in preconstruction with anticipated start dates before the end of 2026, and that figure excludes the separately monitored $100 billion Project Kestrel development. The demand is not the question heading into 2027. Whether the electrical supply chain can deliver against it is.

Power infrastructure is the growth story behind the growth story. ConstructConnect forecasts power infrastructure construction starts to finish 2026 up 30.8% over 2025. That is the grid catching up to the load. Expect substation, transmission, and on-site generation scopes to become a routine part of data center project budgets rather than a utility problem happening somewhere else.

Cost per SF should decelerate, not fall. Cushman & Wakefield already notes that building and construction cost increases, while continuing, are rising at a slower pace than in prior years. The blended per-SF number will likely keep drifting up in 2027 because mix is shifting toward high-density AI facilities, not because conventional construction is getting more expensive at the same rate.

Site selection keeps moving to power, not to markets. With land for 50+ acre parcels up 23% year over year and the average transaction at 224 acres, the deciding variable is an executed power commitment. Expect more activity in rural and tertiary markets across the South and Midwest, and continued underrepresentation of New England and the West, which together account for roughly 6% of recent starts.

We refresh this page quarterly as ConstructConnect, Cushman & Wakefield, and Turner & Townsend release updated data. If you are budgeting a 2027 data center project now, a preconstruction engagement that locks equipment allocation this year is worth more than a tighter estimate.

Planning a Data Center Project?

TCG provides general contracting, design-build, IMP envelope, and equipment procurement for data center and critical infrastructure projects nationwide. Licensed in all 50 states.

FAQ

Common Questions

Data center construction costs $650 to $1,250+ per square foot in 2026. Enterprise Tier II: $650–$800/SF. Tier III: $800–$1,000/SF. Tier IV and hyperscale: $1,000–$1,250+/SF. AI-optimized with liquid cooling: $1,200–$1,800+/SF. ConstructConnect's July 2026 report places the 2026 median at $473/SF and the average at $784/SF across all tracked projects over 2,000 SF, a spread that reflects how many powered-shell projects are counted alongside fully fitted facilities. Use TCG's AI estimator for project-specific pricing.

Standard: $10 to $13 million per MW of critical IT load in 2026, up from roughly $10.7 million per MW in 2025. AI-optimized: $20 to $37 million per deliverable MW all-in, roughly 3x a conventional facility, driven by liquid cooling, higher power density, and substantially larger electrical infrastructure.

Electrical and power infrastructure at 40 to 45% of total cost, including utility interconnection, switchgear, UPS, generators, and power distribution. Cooling is second at 15 to 25%. The building shell and envelope account for only 10 to 15%, an inversion of every other commercial building type.

Edge: 6 to 12 months. Enterprise Tier II and III: 18 to 28 months. Hyperscale and Tier IV: 24 to 36+ months. In 2026 the binding constraint is usually equipment, not construction. Substation transformers run 100 to 150+ weeks and medium-voltage switchgear is sold out through 2028 in many channels.

Electrical equipment procurement. Substation transformers (5–50 MVA) quote at 75 to 110 weeks, generator step-up transformers (>50 MVA) at 100 to 150+ weeks, and 15kV medium-voltage switchgear at 52 to 80 weeks with many manufacturers sold out through 2028. Industry estimates suggest 30 to 50% of planned 2026 US capacity will slip or cancel for lack of equipment rather than lack of capital, land, or chips. See our full lead time guide.

Tier I: basic, no redundancy. Tier II: redundant capacity components. Tier III: concurrently maintainable, 99.982% uptime. Tier IV: fault tolerant, 99.995% uptime. Each tier adds 15 to 25% to construction cost. See our detailed Tier III vs. Tier IV comparison.

Over the trailing 12 months through May 2026, Virginia, Texas, Louisiana, Illinois, and North Carolina captured nearly 60% of all new US data center starts spending. The near-term pipeline is concentrated in the South, led by Texas, North Carolina, and Virginia, with the Midwest second on the strength of North Dakota, Indiana, and Ohio. New England and the entire Western US together account for roughly 6%.

US data center construction starts reached $58.1 billion year to date through May 2026, more than four times the record pace set over the same period in 2025. Data center starts now account for more than one fifth of all US nonresidential building starts. Nearly 100 additional projects worth over $101 billion sit in preconstruction with anticipated 2026 start dates.

AI workloads require 30 to 50+ kW per rack, with newest deployments pushing past 100 kW, versus 5 to 10 kW standard. That drives direct-to-chip or immersion liquid cooling, reinforced floors, and substantially larger electrical infrastructure. AI-optimized facilities run roughly 3x the cost per deliverable megawatt of a conventional build.

IMP panels provide continuous insulation, moisture control, fire rating, and superior air-tightness in a single integrated system, reducing envelope installation time by 30 to 40%. TCG installs IMP panels on data center projects nationwide through our IMP division. See our guide to IMP installation for data centers.

Yes for edge and enterprise facilities, offering 15 to 25% structural savings. Hyperscale facilities typically require conventional steel for heavy rack loads. PEMB works well for ancillary campus buildings such as generator enclosures, battery storage, and cooling plants. See our PEMB vs. conventional steel comparison.

TCG's AI construction estimator provides preliminary data center cost estimates in under two minutes. For formal preconstruction budgeting including power infrastructure analysis and long-lead equipment sequencing, schedule a 30-minute conversation with TCG's team.

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