01 / Overview

Compute infrastructure,deployed at theenergy source.

Ninja Supplies configures, sources, and deploys modular data center infrastructure for computing operations sited at the power they run on.

  • FocusUnited States and the Americas
  • SystemsPower · Cooling · Enclosure · Logistics
  • EngagementConfiguration through commissioning
Start a conversation contact@ninjasupplies.us
Aerial view of a remote site: a containerized power module on a trailer with radiator units on its roof, a smaller generator alongside, heavy cabling running to a long row of open-top immersion-cooled computing tanks, on cleared desert ground.
Containerized power and immersion-cooled compute on a remote pad
Close aerial view of open-top immersion-cooling tanks filled with dielectric fluid, with distribution pipework running along the top of the row.
Immersion cooling

02 / Position

Conventional development starts with a building and looks for power.This work starts with the power and builds to it.

Energy is frequently available where conventional data center development is impractical (too remote, too slow to permit, too far from a grid connection, or mismatched to the load it would have to carry). That gap is where Ninja Supplies works: taking a site’s actual conditions and available power, and resolving them into infrastructure that can be procured, delivered, installed, and operated.

This is not procurement. Specifying a transformer is straightforward. Making the transformer, the cooling method, the enclosure, the transport route, and the commissioning sequence agree with one another, under the conditions of a specific site, is the work.

Ground-level view of a gas processing site: a row of storage tanks with an access stairway, two vertical separator vessels, connecting pipework and a control cabinet, on open desert ground.
Production infrastructure, where the available energy already is

03 / Integrated Systems

Five systems.One specification.

Power, cooling, enclosure, and logistics are not separate purchases. Each one sets the limits of the others, and a decision taken in isolation is usually reversed on site. We specify them together.

Select a system to see what it covers. The codes show direct dependencies. Hover or focus a row to see which systems it constrains.

  • MDCModular
  • PWRPower
  • CLGCooling
  • LOGLogistics
  • INTIntegration
  1. Aerial view of modular units arranged in rows on a prepared pad, each with side louvres and roof panels, connected by ground-level pipework and cabling.
    Modular units set out in rows on a prepared pad

    Covers

    • Containerized computing systems
    • Modular enclosure configurations
    • Structural and mounting provisions
    • Multi-unit and staged expansion

    Why it constrains the others

    Enclosure geometry follows from the cooling method and the power density it has to carry. It is a consequence of the system, not the starting point.

  2. A containerized power module on a trailer with roof-mounted radiators and a side air intake, a smaller generator set beside it, and bundled cables running out across the ground.
    Generation and distribution at the pad

    Covers

    • Electrical distribution
    • Transformers
    • Switchgear
    • Protection systems
    • Cabling and terminations
    • Power integration

    Why it constrains the others

    The characteristics of the source and the distance to the pad determine the distribution design, and with it, what the enclosure and the cooling can support.

  3. Close aerial view of a long row of open-top immersion-cooling tanks filled with dielectric fluid, with distribution pipework running along the top of the row and a cabinet at the near end.
    Immersion-cooled tanks and distribution pipework

    Covers

    • Air-cooled configurations
    • Liquid-cooled configurations
    • Density-matched selection
    • Climate and ambient conditions

    Why it constrains the others

    Cooling method is set by density and climate, and in turn sets enclosure dimensions, weight, and the electrical load the site has to carry.

  4. Aerial view of a site under build-out: rows of modular units on a graded pad beside a control container, with an access track running along the edge and materials laid down nearby.
    Access, laydown, and set-out on a working site

    Covers

    • Equipment sourcing
    • Transportation planning
    • Site coordination
    • Deployment sequencing
    • Installation support
    • Commissioning assistance

    Why it constrains the others

    Transport routes and lift constraints limit module dimensions and weight before a single unit has been specified.

  5. Wide aerial view of a remote site showing generation, a containerized power module, cable runs, and a row of immersion-cooled computing tanks working together on one pad.
    Power, cooling, and compute resolved onto one pad

    Covers

    • Requirement definition
    • System configuration
    • Supplier coordination
    • Interface resolution
    • Deployment planning

    Why it constrains the others

    Every constraint above competes with the others. Integration is the decision-making that makes them agree.

04 / Deployment Method

How a deploymentactually proceeds.

Five stages, each with something concrete at the end of it. The sequence matters: work done out of order tends to be work done twice.

Detail of production equipment on a working site: two vertical separator vessels with valves, gauges and connecting pipework, beside a control cabinet.
Reading the site before anything is specified

  1. Stage 01.Requirements and Site Conditions

    What the site actually provides: available power and its characteristics, ambient conditions, access, ground, and the operating requirement the infrastructure has to meet.

    OutputDefined constraints and load profile

  2. Stage 02.System Configuration

    Cooling method, enclosure format, electrical topology, and expansion path resolved against one another into a single coherent configuration.

    OutputConfigured system definition

  3. Stage 03.Sourcing and Integration

    Equipment specified and sourced, interfaces between suppliers resolved, and the package assembled as one scope rather than a set of separate orders.

    OutputProcured scope with resolved interfaces

  4. Stage 04.Logistics and Deployment

    Transport planning, delivery sequencing, site coordination, and installation in the order the site is able to accept it.

    OutputEquipment installed on site

  5. Stage 05.Commissioning and Support

    Systems energized, verified against the original requirement, and handed over with continuing operational support.

    OutputOperating capacity and ongoing support

05 / Operating Environments

The conditionsthis work is built for.

Not every deployment is difficult in the same way. These are the situations the approach is designed around.

  • 01

    Stranded or underutilized generation

    Power available at the wellhead, the plant, or behind the meter, with no economic path to market.

  • 02

    Remote and off-grid sites

    Locations with no grid connection, limited road access, or long and expensive supply lines.

  • 03

    Load co-located with generation

    Computing sited at the source to avoid transmission constraints and interconnection queues.

  • 04

    Staged capacity expansion

    Deployments that need to start small and grow in modules rather than in buildings.

  • 05

    Demanding climates

    Ambient extremes, dust, and humidity that determine which cooling method is viable at all.

  • 06

    Compressed timelines

    Requirements where a conventional construction schedule does not fit the opportunity.

06 / In the Field

Infrastructure is judgedon site, not on paper.

Equipment has to arrive, fit, connect, reject heat, and keep running in the conditions that are actually there.

Aerial view of a modular deployment: rows of modular units on a graded pad beside a control container, with production tanks and wellsite equipment to one side and an access road running past the site.
A modular deployment set out beside existing production infrastructure
  • Close aerial view of open-top immersion-cooling tanks filled with dielectric fluid, with pipework running along the top of the row.
    Immersion cooling
  • Aerial detail of modular units in rows, showing side louvres, roof panels, and the pipework connecting them at ground level.
    Modular set-out
  • Detail of two vertical separator vessels with valves, gauges, and connecting pipework on a production site.
    Source-side equipment

07 / Why Ninja Supplies

What working with usactually changes.

  1. Direct operating experience

    The company is built by people who have developed and run energy-intensive computing infrastructure, not by people who have only specified it.

  2. One party across the whole system

    Power, cooling, enclosure, and logistics resolved together, so the interfaces between them are somebody’s responsibility rather than nobody’s.

  3. Built to deployment constraints

    Transport limits, lift capacity, site access, and climate are treated as inputs to the design, not problems discovered during installation.

  4. Modular and stageable

    Configurations that can start at one module and grow, so capacity follows demand and available power instead of preceding both.

  5. Comfortable in difficult locations

    Remote sites, limited access, and demanding climates are the normal operating case rather than the exception.

  6. Present through commissioning

    Involvement continues past delivery, through installation, energization, and verification against the original requirement.

08 / Leadership

Founders

  • Portrait of Ariel Martin Perelman.

    Ariel Martin Perelman

    Co-Founder

    Energy infrastructure entrepreneur with direct experience developing and scaling off-grid computing operations.

  • Portrait of Bernardo Cabral Nonna.

    Bernardo Cabral Nonna

    Co-Founder

    Entrepreneur and executive focused on infrastructure development, strategic partnerships, and project execution.

09 / Contact

Planning a deployment?

Tell us the site, available power, capacity requirement and target timeline.

Email us directlycontact@ninjasupplies.us

Useful to include

  • Site location and access
  • Energy source, and how much is available
  • Capacity you are targeting
  • Timing and any fixed dates

Nothing formal required. A short description of the site is enough to start.