Per-MW pricing, regional variance, and cost drivers for owners scoping hyperscale & AI builds.
Salary benchmarks across the 14 mission-critical disciplines.
If you're budgeting a Texas commercial project in 2026, plan for hard costs from about $140 to $430 per square foot, plus 18% to 28% for soft costs. That’s the short answer.
I’d use these numbers as an early screen, not a bid. In this piece, I’d keep three things front and center: asset type, metro location, and project complexity. A warehouse in DFW is a very different cost story than a healthcare build in Austin or a flood-exposed site in Houston.
Here’s the article in plain English:
A few cost drivers show up again and again: taller clear heights, thicker slabs, kitchen MEP, podium parking, med-gas, redundant HVAC, flood control, tight urban staging, and labor pulled into data center work at about 30% above standard commercial rates.
Texas Commercial Construction Costs 2026: Per-SF Benchmarks by Building Type & Metro
So if I were underwriting, staffing, or buying out a Texas project on August 3, 2026, I’d treat these benchmarks as the first budget check, then adjust for scope, labor depth, site risk, and long-lead equipment.
Use the ranges below as DFW base costs. Then apply the metro adjustments from the introduction for Austin, Houston, and San Antonio. [1]
Data centers are often priced per MW too; shell/core runs about $11.3M per MW. [1][2]
The notes below show what tends to push each asset class toward the top of its range.
Office costs climb when projects use premium façade materials, larger elevator banks, and high-end tenant build-outs. If a project is going after LEED or WELL certification, that can add another 4% to 7% on top of base hard costs. [1]
Retail and restaurant costs can move up fast once kitchen MEP, HVAC load, and finish level change. A basic retail shell usually stays near the low end. A full-service restaurant, on the other hand, can get expensive in a hurry once you add commercial kitchen infrastructure and premium storefront glazing. [1]
Multifamily costs go up with podiums, balconies, amenity decks, and more complex unit mixes. Urban infill sites add even more because staging gets tighter and vertical logistics get harder. [1]
Industrial and warehouse is Texas’s lowest-cost asset class on a per-square-foot basis. Tilt-wall construction and standardized details help keep the low end within reach. Costs move toward the high end with high-bay distribution buildings that need 36- to 40-foot clear heights, thicker slabs, more dock doors, and ESFR sprinkler systems. Advanced manufacturing can land at or above the industrial high end once process systems and specialized project leadership for utilities enter the picture. [1]
Healthcare costs are pushed by med-gas systems, infection control rules, lead-lined walls, and fully redundant HVAC. Mission-critical projects climb for a similar reason: power, cooling, and redundancy demands. That strain shows up first in healthcare and mission-critical work, where electrical and mechanical trades are harder to swap out. Those scopes also bring the toughest labor gaps and the most schedule risk. [1]
Location changes these base costs next, with Austin, Houston, San Antonio, and secondary markets splitting in different directions.
Metro pricing can move the same project up or down in a hurry.
Use DFW as the reference point for the metro adjustments below. [1]
Apply these metro spreads on top of the building-type ranges above.
Austin comes in 8% to 15% above DFW, mostly because labor is tighter and permitting takes longer. [1] In Austin, schedule risk can hit just as hard as the base cost premium.
Houston runs 2% to 4% below DFW, but flood mitigation can wipe out that gap. [1] In many cases, site risk - not base pricing - is what changes the final number.
San Antonio runs 5% to 10% below DFW, with the biggest savings on simpler project types. [1] That gap starts to shrink on more complex scopes, where specialty crews are harder to find.
Across all four major metros, IECC 2021 code adoption is adding 1–3% to baseline costs through tighter HVAC and envelope requirements. [1]
Secondary markets aren't always cheaper. If labor has to come from outside the area or staging is tough, costs can end up above major metro rates.
Large projects can drain skilled trades from nearby jobs. In 2026, DataBank's Red Oak data center project near Dallas used 4,000 to 5,000 workers on a single campus and paid about 30% more than standard commercial construction rates. That created a local labor vacuum for nearby projects. [1]
And when specialty trades aren't available nearby, contractors may need to bring crews in from major metros. Per diem and travel costs can stack up fast. [1]
Urban infill work can add 10% to 15% because of staging limits, traffic control, and hoisting constraints. [1]
Before you lock the budget and schedule, check local subcontractor depth and mobilization costs. On healthcare and mission-critical work, local trade depth and mobilization time are often the next pressure points to review.
Once you have a benchmark range, the next move is simple: turn it into decisions about contingency, procurement, and staffing.
Use per-square-foot ranges early to set guardrails for cost, buying plans, and team needs. Say your pro forma assumes $190/SF for a healthcare clinic. If medical construction in your market is landing in the $270–$430/SF range, that tells you right away the deal doesn’t pencil out as scoped. [1]
The same goes for soft costs. In Texas, they now sit at 18% to 28% of hard costs, not the old 12% to 15% many teams still plug into early models. [1] If you miss that shift up front, the budget can drift fast.
Contingency needs a hard look too. Carry 5% to 7% construction contingency through buyout, plus 3% to 5% owner contingency for scope adds. For healthcare and mission-critical work, that number should be more like 7% to 8%. [1]
When a project is pricing near the top end of the range, delivery method is one of the first levers to check. In Texas, design-build has averaged 8% to 12% lower total delivered costs and schedules that finish 60 to 90 days faster than bid-build. [1] That’s not a small gap.
Procurement timing matters just as much. Switchgear, generators, and HVAC units should be ordered 6 to 9 months ahead, since lead times still run 26 to 52 weeks. [1] In plain English: if you wait to talk about this until later, the schedule may already be in trouble.
Those long lead times also shape hiring plans, especially for healthcare and mission-critical jobs. If major systems take that long to land, the people who coordinate them need to be in place early too.
Higher per-SF costs often point to denser MEP scope, tougher life-safety rules, and a much smaller margin for mistakes. On healthcare and mission-critical work, that usually means stronger specialized construction management, tighter cost tracking, and a dedicated MEP manager from the start. [1]
Labor pressure in Texas makes this harder. Data center work is pulling skilled electrical and mechanical trades into better-paying jobs at about 30% more than standard commercial rates, and that’s pushing top subcontractor backlogs out to 8.5 to 12 months. [1] So locking in MEP subs 90 to 120 days before mobilization isn’t overkill. It’s the floor. [1]
Projects at the top of the range usually need key roles engaged early:
One more budget pressure to carry through every forecast: 4% to 6% annual wage escalation. In Texas, electrical and mechanical trades may move even faster. [1]
The benchmark table above works best as a planning range, not a bid. In Texas, commercial construction costs in 2026 run from $140/SF for industrial and warehouse projects up to the top end for healthcare and mission-critical builds. That gap comes down to MEP intensity, life-safety needs, finish level, and metro pricing. [1]
Industrial tilt-wall stays near the low end because the building shape is repetitive and the systems are standardized. Healthcare and data centers land at the high end because they need redundant infrastructure and draw from a limited pool of highly skilled trades. [1] On top of that, metro premiums and site risk can move those ranges fast. [1]
Once the location and asset type are locked in, the next job is to test the scope and delivery assumptions. DFW still serves as the cleanest baseline for Texas underwriting. These benchmarks are most useful as an early screen for feasibility, underwriting, and workforce planning, but they still need to be adjusted for project scope, local labor conditions, and regional submarkets.
Higher per-square-foot projects usually need earlier MEP, commissioning, and QA/QC staffing. [1] That matters because budget pressure and staffing pressure tend to show up at the same time. Use these numbers as early guardrails, then confirm scope, site conditions, trade availability, and lead times with a project-specific estimate. For developers, contractors, and hiring leaders, these ranges shape both budget expectations and staffing strain.
Start with hard costs, then layer in soft costs like architectural fees, permitting, and owner contingencies. Those items usually add 15% to 25%. From there, use the benchmark for your asset type and adjust it for Texas labor and material pricing.
To tighten up the estimate, bring in a general contractor early. Carry a 5% to 7% construction contingency, price major risks as separate line items, and tie the estimate to the project schedule. It also helps to lock in long-lead equipment during preconstruction, before timing starts to work against you.
Per-square-foot benchmarks usually cover hard costs only. That means things like labor, materials, contractor overhead, and profit.
They usually leave out soft costs, and those can add 15% to 25% to the total budget. That gap matters. A project can look fine on paper at first glance, then end up costing far more once those extra line items show up.
Common exclusions include:
In plain English: if you're using a per-square-foot number to sketch out a budget, don't treat it as the full project cost. It's often just one part of the picture.
Plan early so the job doesn’t stall. A smart rule of thumb is to lock in MEP subcontractors 90 to 120 days before mobilization.
Long-lead equipment needs even more runway. For items with lead times of 26 weeks or longer - such as switchgear, generators, transformers, and RTUs - release fabrication orders before construction documents are 60% complete.
In mission-critical sectors, the timeline gets much tighter. Procurement may need to begin 18 to 22 months before construction starts, since some lead times can stretch to 144 weeks.
