TL;DR
Alberta data center construction just entered a new phase. Meta’s CA$13 billion, 1-gigawatt facility in Sturgeon County will put roughly 3,000 workers on site at peak. It also demands the same heavy-industrial discipline as a mine or an energy plant: deep site works, thousands of tonnes of structural steel, mass concrete, substation power, and liquid cooling, all built to schedule.
Why does this project matter to industrial owners and builders?
It matters because a hyperscale campus is heavy-industrial work at its core. For Canadian owners and contractors, it signals years of demand for steel, concrete, site works, and power infrastructure.
On July 8, 2026, Meta broke ground on its first data center in Canada. The company values the project at more than CA$13 billion. At that scale, it behaves like a resource megaproject, and the construction sector should plan for it that way. The 1-gigawatt campus sits in Sturgeon County, in the Alberta Industrial Heartland north of Edmonton. It is therefore a civil, structural, mechanical, and electrical undertaking on a scale most Canadian regions rarely see.
We have delivered structural and industrial work across some of Canada’s most demanding sites. In particular, that work spans remote mines and energy facilities, so the pattern here is familiar. The compute is new. The ground conditions, the steel tonnage, the concrete pours, and the site logistics are not. For owners and contractors weighing this market, the useful question is practical. What does a build of this magnitude actually require?
How big is the Meta build, really?
It is large enough to rank among the biggest private-sector investments in Canadian history. Meta reports the campus will draw 1 gigawatt of electricity, employ about 3,000 construction workers at peak, and support more than 300 permanent jobs once it runs.
To put the numbers in one place, the table below summarizes the published parameters. These figures come straight from Meta and corroborating national coverage, not from estimates.
| Attribute | Published figure |
|---|---|
| Total investment | More than CA$13 billion (about US$9 billion) |
| Power capacity | 1 gigawatt (1,000 MW) |
| Location | Sturgeon County, Alberta Industrial Heartland |
| Construction workforce | About 3,000 at peak |
| Permanent jobs | More than 300 |
| Local infrastructure spend | About CA$60 million (roads, water) |
| Cooling | Closed-loop, liquid-cooled with dry cooling |
For context, a hyperscale facility is generally defined as one exceeding 100 megawatts of power capacity. Moreover, its power densities run many times those of a conventional office building. A gigawatt campus sits at the extreme end of that range. Consequently, it behaves like industrial infrastructure rather than a commercial building.
What does gigawatt-scale construction actually involve?
It involves the same core disciplines as a heavy-industrial plant, executed at unusual density and pace. Site preparation, structural steel, mass concrete, power, and cooling all have to land on an aggressive schedule.
Meanwhile, a single late trade can stall the next. Several workstreams define a project like this. For the most part, they run in parallel rather than in a tidy sequence:
- Site works and civil. Clearing, grading, deep foundations, and stormwater for a large footprint. Also included are the roads and water infrastructure that Meta is funding with about CA$60 million locally.
- Structural steel. The frames, mezzanines, equipment platforms, and support structures that carry servers, electrical gear, and mechanical systems. In particular, steel speed and erection sequencing often set the critical path.
- Concrete. Slabs engineered for dense equipment loads, plus transformer pads and containment. Moreover, later trades depend on tight pour tolerances.
- Power and substation. Delivering a gigawatt means high-voltage connections, substation works, switchgear, and backup systems. Consequently, utility coordination starts early.
- Cooling and mechanical. A closed-loop, liquid-cooled system with dry cooling needs extensive piping, pumps, and mechanical rooms. Then it all integrates with the electrical and structural packages.
None of this is exotic to an experienced industrial contractor. Rather, the demanding part is the compression. A two-to-three-year window. Thousands of trades. Long-lead equipment that has to arrive in the right order. Thus it is a planning and logistics problem before it is a construction problem.
Where does the schedule risk actually sit?
It sits in structural steel and in power. Both carry long lead times and long dependency chains, so a slip in either one ripples through every trade behind it.
Consider the structural-steel package alone. The building has to carry immense equipment loads, so the frame, the platforms, and the connections all get designed for weight and vibration first. Then fabrication has to keep pace with erection, because a stalled steel sequence delays the mechanical and electrical trades that follow it. Moreover, the electrical rooms and cable trays need clear routes through that steel, so the coordination happens on the model long before it happens in the field. For a builder, this is core industrial work, and it rewards early clash detection and disciplined shop drawings.
Power delivery adds its own layer. A gigawatt of load means transformers, switchgear, and substation works that carry long lead times and demand tight utility coordination. Therefore the smart move is to lock the electrical scope and the equipment orders early, then build the structure around them. In practice, the power and cooling systems drive the schedule, and the building follows.
How is the facility powered and cooled?
It is designed to run on renewable-matched electricity and to use almost no water in cooling. Meta says the campus will match its electricity use with 100% clean and renewable energy.
Its closed-loop system also results in no operational water use for cooling. Still, precision matters on both points, because owners and communities will ask. “Renewable-matched” is not the same as “powered only by renewables on the wire.” Meta’s energy arrangements, for example, involve partners such as Greenlight Limited Partnership, AltaLink, Capital Power, and the Alberta Electric System Operator. National coverage has also noted associated natural-gas generation in the mix. On water, the closed-loop design means the plant will not draw from surrounding supply to cool servers. Instead, on-site water use covers domestic needs, fire protection, and equipment maintenance. Global News confirmed the closed-loop cooling and the roughly 3,000 construction jobs in its coverage of the groundbreaking.
What does a 3,000-worker megaproject demand from a builder?
It demands mine-grade logistics and workforce planning, not just trade skill. Indeed, keeping 3,000 people safe and productive on one site resembles remote resource work more than commercial construction.
Feeding, moving, and sequencing that many trades is a program in itself. We have run large crews in some of Canada’s most remote and weather-exposed environments. The lessons transfer directly as a result. Alberta winters compress the schedule and complicate concrete and steel work. Cold-weather methods, heating, and enclosure planning therefore become part of the critical path. Long-lead electrical and mechanical equipment has to be ordered early and tracked closely. After all, a delayed transformer or chiller can idle hundreds of workers. Coordinating the utility connection, the substation, and grid requirements alongside the vertical build is its own program. It also rewards contractors who plan the interfaces up front.
Is this a one-off, or the start of a construction wave?
It looks like the start of a wave. Meta’s campus is the largest project, yet it sits within a broader Alberta pipeline of planned data center capacity.
As a result, demand for industrial site works, steel, concrete, and power infrastructure will stay elevated for years. Alberta offers available industrial land, existing energy infrastructure, a cool climate, and a workforce experienced in large capital projects. Together, that mix has made the province a magnet for this kind of investment. In fact, analysts increasingly describe Alberta data center construction as a national growth engine, with the province emerging as a hub for compute infrastructure. For Canadian industrial owners, the near-term takeaway is simple. The trades, fabricators, and contractors who serve mines and energy plants are the same ones this sector will lean on. Meta’s own newsroom details the investment, capacity, cooling, and jobs behind the Sturgeon County campus. In effect, it reads like a blueprint for the projects likely to follow.
What should owners and contractors do now?
They should treat data center work as heavy industrial work and plan accordingly. The disciplines that de-risk a mine or an energy build are the same ones that keep a gigawatt campus on schedule.
Those disciplines are clear. First, engineer early. Then lock in long-lead procurement. Next, sequence the structural steel. Finally, integrate power and cooling from day one. The Alberta data center construction boom is, at its core, a structural-steel, concrete, and power story. Therefore it will be won by teams who plan the interfaces early and execute at pace. Owners weighing adjacent facilities should scope power and cooling first, because those systems drive the building. For builders, the work is steady and years deep. Above all, it favors contractors who already know how to deliver complex industrial work on tight timelines.