Alpha

Turnkey compute.
Deployed within 180 days.

A modular data center for AI, with power, cooling and rack infrastructure integrated before delivery.

Concept visualization of a Teraplex Alpha cluster in clear daylight: two containers stacked vertically, one standalone container running parallel as the UPS enclosure and grouped cooling, with matching painted branding.
From factory integration to site commissioningExplore the system
2.5 MW
Reference IT peak per cluster
24
Rack positions
1,152 GPUs
GB300 NVL72 reference per cluster

Build in parallel.
Connect on site.

At the factory

Build and test the cluster.

Factory assembly concept: one enclosure with its roof partly open beneath a gantry.

At the site

Prepare foundations, power and connectivity.

Site preparation concept: an empty foundation pad, conduit stubs and a small excavator.

Then deliver, connect and commission.

Exploded architectural concept of an IT enclosure, showing rack bays, overhead services and removable cladding.

Factory integrated.
Faster to load.

  1. 01

    Rack infrastructure, coordinated.

    Rack positions and service access are planned as one layout, with space for equipment installation and ongoing maintenance.

  2. 02

    Power distribution, integrated.

    Overhead A/B busways bring distribution into the enclosure, aligning power connections with the rack layout before delivery.

  3. 03

    Cooling interfaces, defined.

    Supply and return headers bring liquid cooling to the rack row, with interfaces coordinated for the selected rack platform before site connection.

Faster to load.
Flexible to scale.

Add Alpha clusters as power and demand grow. Plan the first phase around your workload, then reserve land, electrical capacity and cooling connections for expansion.

1 illustrative clusters on a reserved campus plan, each with two stacked compute enclosures, a separate parallel UPS enclosure and external cooling.
2.5MWReference IT peak
1 cluster / 24 rack positions

Start with the site.
Design for the load.

01

Power and connectivity

Confirm available service, energization timing and network connectivity. The GB300 reference uses an approximately 3 MW gross facility interface per cluster.

02

Land and access

Allow space for the cluster, external cooling plant, delivery vehicles, lifting and maintenance. Reserve the land and interfaces needed for later phases.

03

Cooling and climate

The reference design uses liquid cooling and dry heat rejection. Hot conditions can require adiabatic assist using stored water; storage and replenishment follow the site climate.

04

Rack and operating needs

Set the rack platform, sustained load, redundancy and operating requirements. Final equipment interfaces and local approvals are part of project engineering.

Plan the first phase.
Prepare for what follows.

Share your target capacity, location and timing. We’ll review your site and capacity requirements, identify open questions and recommend who should join the engineering discussion.

Alpha
technical reference.

Review the GB300 reference below, or open the product overview for the system scope, site inputs and delivery sequence.

Compute

GB300 NVL72 rack positions
16
Network and support rack positions
8
GPUs, reference configuration
1,152
Grace CPUs, reference configuration
576
Modeled rack power, GB300 EDPp
≈155 kW

Power

Modeled electrical peak, IT
2.536 MW
Reference gross facility interface
≈3.0 MW
Busway provisioning per GB300 rack
192 kW
Distribution basis
Independent A/B paths; optional 2N UPS
UPS autonomy, budgetary basis
15 minutes

Cooling

Direct liquid cooling design capacity
2.100 MW
Air side design capacity
0.280 MW
Total thermal design basis
2.380 MW
Heat rejection duty capacity
2.500 MW
Facility water supply and return
41/51 °C

Water and footprint

Normal operating mode
Dry, no water
Adiabatic transition reference
≈39 °C ambient
Utility water connection
Not required
On site storage equivalent
100 m³
IT module envelope
16.2 m × 6.8 m

Electrical peak, thermal design and heat rejection duty describe different reference conditions. Project engineering must reconcile them for the intended sustained load. Installed feeder capability is not simultaneous IT consumption.

View technical overview