Section 02 · The Model

One design, engineered once, deployed in repeatable blocks.

Stratum delivers GPU-ready data center infrastructure: a proprietary immersion-cooled design in 2 MW and 5 MW engineered blocks, on a vetted site or on yours. We describe it the only way worth doing: outcomes, with the numbers attached.

"GPU-ready," precisely
Everything up to your hardware is done: site, structure, power, water, gas, the complete immersion tank system, immersion-ready server racks, controls, and commissioning. You bring the servers. We never supply, touch, or manage your compute. Shopping for GPUs or leased compute? We are not your vendor.
Why immersion

The immersion advantage, as outcomes

Three reasons, in the order they matter. First, necessity: AI hardware has outgrown air. Air cooling tops out around 40 kW per rack. AI racks want far more, and this design carries 100 kW per rack with no throttling. Second, the economics. Third, the calendar.

Rack Density
100 kW
Per rack, chiller-free, GPUs at full clock
Design PUE
~1.07
Versus the 1.58 air-cooled industry average (EIA/ASHRAE-sourced data)
Energy Savings
$2.2M/yr
Per 5 MW block vs air-cooled, at $0.10/kWh ($894K/yr per 2 MW)
Refrigerants
0
No chillers, no cooling towers; proprietary heat rejection systems
Honest read SAME DISCIPLINE AS OUR DESIGN DOCS
1.At 2 MW, immersion costs about $2.7M more upfront than an air-cooled equivalent, recovered in roughly 3.0 years of energy savings. At 5 MW, installed cost is roughly at parity on day one. And the savings do not stop at payback: the same energy delta arrives every year after, for the life of the facility.
2.Water use is climate-dependent: well under a million gallons a year for a designed block in a cool climate, several million in a hot desert running wet mode. We state it per site, never as a slogan.
3.The component ecosystem behind this design (immersion-born hardware, proprietary heat rejection) is globally deployed with thousands of installations and millions of run-hours.
Modular tiers

From 2 MW edge to hyperscale, and all the way through

Two engineered designs exist: the 2 MW edge block and the 5 MW block. Everything larger is those blocks, repeated in phases. That is the point. Each phase is a known quantity. Each phase stands on its own economics. No phase waits on new engineering. And a single 2 MW block is a complete deployment in its own right, not a down payment on a campus. The design needs about one acre for every two megawatts.

TierBasisIndicative installed CapExDeployment windowNotes
2 MW edge Engineered design $28M 6 to 9 months (design target) Under one acre; fits industrial parcels and existing buildings
5 MW block Engineered design $61.4M 6 to 9 months (design target) The core building block with dual-loop redundancy
10 MW Phased repetition $122.8M First block 6 to 9 months; campus phased Two 5 MW blocks, phased
25 MW Phased repetition $307M First block 6 to 9 months; campus phased Five 5 MW blocks, phased
50 MW+ Phased repetition $614M First block 6 to 9 months; campus phased Campus scale by repetition of the designed block

Directional estimates from conservative planning-grade assumptions. Engineered pro formas are prepared per site on request. Installed facility totals, not equipment-only figures; land and site acquisition are separate and site-specific. The 2 MW block runs a higher cost per MW than the 5 MW block because fixed power-plant and controls scope spreads over fewer megawatts. Figures are priced against a deliberately conservative, high-cost construction basis; engineered pro formas localize them.

Power architecture

A power plant that happens to serve a data center

The design default is an islanded microgrid: grid-forming battery storage with black start, dual-fuel generation, and roughly 14 days of on-site fuel. The utility connection stays normally open, there as insurance. That inverts the industry's biggest bottleneck. Most projects wait years in a utility interconnection queue; this design brings its own power plant instead. Bringing your own power plant has its own critical path: generation and storage lead times, gas supply, and air permitting are real workstreams, and our regional evaluation covers each one. Grid-primary operation is available where a site's power market makes it the better answer.

Design Default
Islanded
Microgrid-first; utility as backup, normally open
Storage
Grid-forming
Battery system with black start and sub-cycle ride-through
Generation
Dual-fuel
Gas primary with liquid-fuel backup
Fuel Autonomy
~14 days
On-site fuel independent of grid conditions
Deal structures

Buy it or finance it

Two leases, in plain language. A space lease for the ground under you. A build-out you either own outright or finance through Stratum. No clever structures. Your CFO should be able to read the whole deal in one sitting.

Path 01 · Purchase

Buy the build-out

Own your facility from day one. Direct clients commit through progress agreements tied to build milestones. Best when the capacity is core to your business and your capital position supports it.

Path 02 · Finance

Finance through Stratum

Keep your capital in hardware. Stratum finances the build-out over a roughly ten-year term: one predictable payment alongside the space lease. Best when GPUs, not buildings, are where your money earns.

Path 03 · Build on your site
Step 1.Already own a building or land? The 2 MW block was designed for exactly that: about one acre per two megawatts, or an existing industrial building. No portfolio site required.
Step 2.Check the fit: industrial zoning, structural capacity for dense equipment (we confirm from your drawings), and a workable power or gas path. Water needs depend on your climate, and we state them per site.
Step 3.Tell us you have a site and our reply includes the site checklist: address, electrical service details, building basics. We come back with a straight go or no-go read.
Deployment sequence

Designed for 6 to 9 months to power-on

Why so fast? The design is finished before the site is chosen. Vendors are pre-sourced. Equipment is picked for availability, not just spec. So the sequence below runs as a pipeline, not a relay race, and every schedule is stated as a design target with the work behind it.

01
Design done
The engineered block already exists; no per-project design cycle.
02
Site vetted
Power, permitting, water, and fiber screened before commitment.
03
Procure
Pre-sourced vendors and availability-selected equipment go on order.
04
Build
Modular construction executed by a team with decades of MEP delivery.
05
Energize
Commissioning, then your hardware moves in.