A panel-based building enclosure system built around the CorCell™ matrix, for AI and hyperscale data center construction.
A data center program is measured against the day the building takes power. Between the slab and that day stands the enclosure, and everything inside it waits on it. CorPanel™ arrives as one element — load-carrying, enclosing, and finish-ready on both faces — and every assembly is stamped by the engineer of record.
AI and hyperscale developers build against long equipment lead times and a constrained skilled workforce. The building enclosure sits on the path to power.
Every additional month on the construction critical path delays the revenue clock by a month of contracted capacity. On a facility supporting tens of megawatts of IT load, delay is measured against revenue, not against a construction line item.
Tilt-up and other site-cast envelopes need casting beds, forming and cure time before a wall can stand. In a northern winter, that work runs under heated enclosures and cold-weather provisions.
A conventional enclosure is delivered by several trades on separate schedules. Each interface is a coordination cost and a schedule dependency.
Multi-building campuses repeat the same hall many times over. The enclosure that serves them is one that is drawn once and set the same way on every phase.
Corvea operates from Alberta, where the case for data center development is among the strongest on the continent.
Alberta’s deregulated electricity market and natural gas generation base, together with active interest in attracting AI infrastructure, give developers a strong basis for power.
A cold climate extends the part of the year in which outside air carries the cooling load.
CorPanel™ is manufactured in a controlled production environment and shipped to site as a finished-faced panel. No casting bed, forming or curing sits on the site schedule.
Designed and specified in Alberta, produced to Corvea’s specification under controlled manufacture, and supplied across North America with the same engineering coordination on every project.
The product, the schedule, the delivery and the engineering behind it.
CorPanel™ is a composite sandwich panel. Calcium-silicate facing boards are bonded to both faces of the CorCell™ matrix, a cementitious matrix incorporating expanded polystyrene. The panel face is 610 mm × 2270 mm, 1.3847 m², at every thickness: 2 inch / 60 mm, 4 inch / 100 mm, 6 inch / 150 mm and 8 inch / 200 mm.
CorPanel™ ships from a controlled production environment to site, finish-faced. No casting bed, no forming and no cure window sit on the site schedule. CorPanel™ Standard at 150 mm weighs 85 kg/m² ±5 — 117 kg per panel — so the wall line does not queue behind the crane, and the handling method, hand-set or lifted, is set per project. Deployment draws on the skillset the construction workforce already holds: crews are trained and licensed to the system, not recruited from a new trade. On a multi-building campus, the same module and the same crew method carry from one phase to the next.
Construction cost is additive because construction is additive. Every scope layered onto a wall — structure, sheathing, insulation, substrate, board — is a trade, a mobilisation and an interface. CorPanel™ consolidates load-carrying, enclosure and a finish-ready face into one element, which removes scopes rather than removing building.
The panel arrives with calcium-silicate on both faces. Joints are either taped or meshed over, as the engineer of record specifies, and the wall is then open to any finish the project calls for. Drywall is optional.
Every deployment is reviewed and stamped by the licensed structural engineer of record, or the authorized project engineer, at that project’s details. Corvea’s engineer of record coordinates with the project engineer from the first section to the sealed submission.
Tilt-up concrete is the incumbent enclosure for hyperscale construction in North America, and steel stud is the default behind it. Set side by side, this is where the trade-offs fall.
| Criterion | CorPanel™ | Tilt-up concrete | Steel stud and mineral wool |
|---|---|---|---|
| Construction | The CorCell™ matrix — a solid cementitious core — with calcium-silicate faces both sides. No cavity. | Solid site-cast concrete. Interior furring and finish follow as separate trades. | Hollow stud cavity, closed by sheathing, insulation and board trades. |
| On-site casting | None. Panels ship finish-faced. | Casting beds on the slab or adjacent ground, forming, and cure before tilt. | None. |
| Weight and handling | CorPanel™ Standard at 150 mm: 85 kg/m² ±5, 117 kg per panel. Hand-set or lifted as the project defines. | Heavy-crane lifts at every panel, with rigging crew, bracing and an exclusion zone. | Light components, assembled piece by piece in place. |
| Northern winter | No casting and no cure window on site. | Cold-weather provisions — hoarding and heat — with casting often paused or de-rated. | Close-in still needs weather protection before the interior trades start. |
| Trades to close one wall | One element carries load, encloses, and presents a finish-ready face on both sides. | Concrete shell, then separate furring and finish trades. | Five or more: framing, sheathing, insulation, substrate, cladding and interior finish. |
| Structural role | CorPanel™ Standard and Reinforced are load-bearing. CorPanel™ Thermal is a non-load-bearing infill panel. | Load-bearing, designed to project loads. | Non-load-bearing; the primary structure is carried by the steel frame. |
Tilt-up and steel-stud entries describe typical industry practice and vary with project-specific design.
Construction cost is additive because construction is additive. Remove a scope and you remove its crew, its mobilisation, its interface and its place on the critical path.
On a data center program, that is not a line-item saving. It is weeks returned to the date the building takes power.
Each has its own role in the enclosure. The engineer of record sets which one goes where.
| Construction | Build-up | Role |
|---|---|---|
| CorPanel™ Standard | Calcium-silicate faces over the CorCell™ matrix. | Load-bearing wall panel system. |
| CorPanel™ Reinforced | As Standard, with four glass fibre-reinforced polymer (GFRP) reinforcing bars at 6 inches on centre. | Load-bearing wall panel system. |
| CorPanel™ Thermal | CorPanel™ Thermal is a non-load-bearing infill panel: as Standard, with a 3-inch polystyrene slab at the mid-plane of the core. | Non-load-bearing infill panel, set within a structural frame in the manner of a glass curtain wall. |
From the foundation to the roof, the application is set by the engineer of record.
Below-grade walls, as the project engineer details them.
The shell of data halls, support buildings and ancillary structures.
Partitions across data halls, support areas and offices.
Beneath the floor build-up, where the project calls for it.
Beneath the roof build-up, where the project calls for it.
CorPanel™ Thermal, a non-load-bearing infill panel, set within the structural frame.
A steel-framed light-industrial facility in Alberta, enclosed and compartmentalized with CorPanel™: frame first, panels infilled to the structure.
Steel frame erected and decked, with CorPanel™ infilled to the structure behind it. Panel bundles are staged at grade; there is no casting bed and no on-site forming.
Full-height panels carried and placed by hand. The wall line does not queue behind the crane, which stays assigned to structure and equipment.
Each panel is set to the line and plumbed against the frame, faced on both sides as it arrives.
The enclosure closes to a primary column. On a data center shell this interface repeats along every grid line, and it is detailed by the project engineer.
Upper panels set by a two-person crew from an aerial work platform, rather than a rigging operation with signaller, spreader bar and exclusion zone below.
Panels are measured and cut on site to resolve openings, closures and trims.
A three-storey steel frame closed on the panel module. The finished face reads as one plane from grade to parapet; the joints are set by the module.
Infill proceeding in an Alberta winter: scaffold on the finished elevation, panel bundles staged at grade, steel frame ahead of the wall line. No casting bed and no cure window on the site.
Panels staged on the floor plate inside the frame and set outward to the column line. The corner returns as a solid section; bracing and deck edge stay clear of the wall trade.
One supply scope, coordinated with the project engineer through to close-in.
Campus programs. Single-building projects and multi-phase campuses sequenced over several years are both planned with Corvea at procurement. Allocation, sequencing and supply commitments are confirmed in direct procurement conversations under appropriate confidentiality.
The assembly is signed for where it is built.
On every project, the assembly is reviewed and stamped by the licensed structural engineer of record — or the authorized project engineer — at that project's details, under that engineer's own seal, to the code in force where it is built.
That is the standard we hold ourselves to, and it is the foundation of liability protection for the developer, the operator, the insurer, and the authority having jurisdiction. It also means the envelope you specify is the envelope an engineer has signed for, on your project, at your details.
Where a developer brings his own engineer, which is most projects, Corvea's engineer of record coordinates with his — from the first section through to the sealed submission.
How a data center program moves with Corvea.
If your AI or hyperscale data center project is in active development anywhere in North America, we would welcome a conversation about how CorPanel™ maps onto your project conditions, schedule and phasing.