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Factory-built AI infrastructure

We go where the power is.

Nawa holds positions on power in four countries and ships manufactured compute to sit on it. The unit travels to the megawatt.

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Image pending

Three docked containers on a concrete pad at an industrial site, three-quarter view from ground level, camera slightly below the roofline. A person or a parked vehicle in frame for scale. Overcast daylight, no lens flare. Utility service and a fence visible behind. The units read as equipment, not as a building.

Render Yard 400 on a prepared pad.

The portfolio

Where the power sits.

Wind on a coast the transmission cannot clear. An allocation written for one large load. Two energised services in the United States. Each card says what stage it is at.

Where the power sits North-west coast, Sri Lanka: 100 MW, In development. Undisclosed, Kazakhstan: 100 MW, In development. Ankara region, Türkiye: Under study, Concept. Dallas–Fort Worth, United States: 500 kW, Power available. San Francisco Bay Area, United States: 5 MW, Power available. 100 MW 100 MW Under study 500 kW 5 MW
  • Sri Lanka 100 MW
  • Kazakhstan 100 MW
  • Türkiye Under study
  • United States 500 kW
  • United States 5 MW

Open the portfolio

Two sides

Find your side of this.

  • You hold power

    Idle capacity earns nothing.

    A service sits under-drawn, or generation gets curtailed because the lines out are full. The capacity is real and it earns nothing while it waits.

    Tell us what your service carries

  • You need compute

    Capacity where the power already is.

    Queues for large loads run years in the markets everyone is bidding into. A compliance date or a launch does not move to match a queue position.

    Tell us what you need to run

  • You own silicon

    An idle accelerator is a melting asset.

    Accelerators lose a large share of their value across three years. Every month one sits unpowered, a slice of that value goes with no work done against it.

    Tell us what you are holding

Configurations

Three reference designs.

Each one is drawn, not built. Every figure below repeats in that model's specification with its source attached.

  • Campus 7.5

    Multi-cluster hall

    7536 kW

    Electrical design envelope

    Plan of a hall holding three cluster blocks with a service spine, and the chiller plant standing outside the wall.

    A chilled-water hall drawn to a published reference topology, with the power and cooling plant built as modules and set on a prepared slab.

    Electrical design envelope
    7536 kW
    Compute clusters
    3
    Topology
    Tier III
    Rack cooling
    Direct to chip
    Campus 7.5 specification

  • Yard 400

    Three-container yard

    448

    Accelerators

    Plan of three docked containers. Storage and supply blocks fill the long unit, racks and distribution the middle, plant and pumps the last.

    Power in a 40 ft unit, compute and coolant distribution in the first 20 ft, heat rejection in the second. The three dock in line on one pad.

    Accelerators
    448
    Uninterruptible supply
    2 × 400 kVA
    Heat rejection
    500 kW
    Overall length
    24308 mm
    Yard 400 specification

  • Module 20

    Single container

    480 kW

    Coolant capacity

    Plan of one container holding three rack bays, a coolant distribution block, and an in-row cooling block.

    Racks, coolant distribution, in-row cooling, and life safety inside a single 20 ft unit. It connects to power and water the site already runs.

    Coolant capacity
    480 kW
    Racks
    3
    Shell length
    6058 mm
    In-row cooling
    3 × 30.5 kW
    Module 20 specification

System boundary

What the site brings, what Nawa builds.

  1. Site

    Site inputs

    Everything the site brings. The service sets the configuration, and the jurisdiction sets the schedule.

    • Land and pad
    • Electrical service
    • Fibre
    • Permits
  2. Power

    Nawa infrastructure

    The manufactured part. Built, wired, plumbed, and tested on a factory floor, then shipped as units.

    • Power distribution
    • Coolant distribution
    • Heat rejection
    • Racks
    • Controls
  3. Controls

    Operations layer

    What the assembly reports about itself. Its condition and the energy it draws, plus a log of who opened which door.

    • Monitoring
    • Alerting
    • Metering
    • Access control
  4. Compute

    Outputs

    The workloads the racks carry once the assembly is commissioned.

    • Inference
    • Training
    • Fine-tuning
    • Private capacity

Yard 400

The reference configuration.

Yard 400 carries the full scope: power, compute, and heat rejection. Its page holds the exploded assembly, where the three units separate and every component is labelled.

Yard 400 at a glance

Accelerators

448

Across 5 racks

Uninterruptible supply

2 × 400 kVA

N+1

Heat rejection

500 kW

Supply 20 °C, return 36.5 °C

Overall length

24308 mm

40 ft, 20 ft, 20 ft docked

Open the Yard 400 assembly

Scale

One shell, a yard, or a hall.

The campus is a separate design basis. It repeats no yards, and its envelope comes from a published reference topology.

  1. Single unit

    Units
    1 × Module 20
    Capacity
    480 kW coolant capacity
    Footprint
    One 20 ft shell

    Connects to a service and a rejection path the site already runs.

  2. Yard

    Units
    3 units, docked
    Capacity
    448 accelerators
    Footprint
    24308 mm overall

    Power, compute, and heat rejection all inside the Nawa scope.

  3. Multiple yards

    Units
    2 or more yards
    Capacity
    Repeats the yard configuration
    Footprint
    Set by the pad layout

    Each yard stays electrically independent. The network is stitched across them.

    Indicative, not a fixed configuration

  4. Campus

    Units
    Hall with three clusters
    Capacity
    7536 kW design envelope
    Footprint
    Set once a site is selected

    A different design basis, not a stack of yards. Chilled-water plant and a slab.

Site profiles

Where a manufactured system fits.

  • Plant running under its own service

    Condition
    An industrial site holds an electrical service larger than the load it draws.
    Problem
    The unused capacity earns nothing and the site has no reason to build a data hall.
    Configuration
    Module 20 where a rejection path exists, Yard 400 where it does not.
    What changes
    The spare service turns into rack load without a new interconnection.
    • Assumes: The service agreement permits the added load
    • Assumes: Space on the property for a pad

  • Tail of a hydro line

    Condition
    Generation sits at the end of a line with a few megawatts nobody takes.
    Problem
    Moving the power out costs more than the power is worth.
    Configuration
    Yard 400, sited at the generation itself.
    What changes
    The energy is consumed where it is made.
    • Assumes: Road access for a permit load
    • Assumes: Network path from the site

  • Industrial park that overbuilt

    Condition
    A park was serviced for tenants who have not arrived.
    Problem
    The service sits idle while the park waits out a long absorption curve.
    Configuration
    Yard 400, or several yards as the park fills.
    What changes
    Capacity arrives against the service the park already holds.
    • Assumes: The park operator can allocate service
    • Assumes: Pad and access inside the park

  • Wellhead flaring gas

    Condition
    Gas is burned off because there is no buyer and no pipeline.
    Problem
    The energy is destroyed and the flare is a liability.
    Configuration
    Yard 400, behind generation the site owner supplies.
    What changes
    The gas runs a load.
    • Assumes: Generation is the site owner scope
    • Assumes: Emissions treatment meets the jurisdiction
    • Assumes: Network path from a remote site

Next

Bring a service and a location.

The conversation starts from what a site holds today: available or planned power, jurisdiction, network position, and the capacity you want to reach.

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