Concept to capacity with certainty

Remove the uncertainty from AI deployment timelines with modular compute infrastructure, built on NVIDIA reference designs, customized to your needs, and delivered at scale. Power, cooling, networking, and IT integrated and tested as one system, so sitework is minimized. Delivered from concept to commissioning against full timelines you see before you sign.

The Challenge

Silicon is evolving faster than concrete sets

AI infrastructure deployments require that power and cooling systems be engineered around the GPUs and their specific requirements. Building a shell and then specifying the IT and critical infrastructure in parallel doesn't work anymore. In a market where each generation of GPU demonstrates huge performance gains vs. the last, it's important that the GPU you design for is still current on the day it's commissioned.

To keep up with current silicon roadmaps, AI capacity has to be specified, built and generating tokens inside twelve months to still be worth the capital on the day it goes live. Building with concrete, steel, and glass is now obsolete, as it is simply too slow.

Modular is not the convenient option anymore, it is the only one that works in an industry where demand outpaces supply and chips evolve every 12 months. This isn't an industry secret, every industrialized power and cooling provider is being pulled into this category, so why Corenix? Why now?

Because the capacity to build is not the same thing as the credibility to deliver.

Outdoor server container units with open doors showing rows of server racks at a construction site during sunset, with cranes and building frameworks in the background.

In the modular AI infrastructure market, hardware is table stakes. Compressing time to token is key, and trust in the timescales is the true value that separates providers.

THE SOLUTION

Customized NVIDIA reference-design modular data centers, factory-built and tested then commissioned on-site, taking AI infrastructure from concept to capacity with certainty.

Designing data center modules, means designing data center systems. More suppliers working on integration on site, means complexity at the point in the program where you have the least time to absorb delays. It is also where accountability and warranty handovers become complicated to manage, unless one supplier is accountable for everything.

Power, cooling, and IT are integrated on the production line under our design authority and our quality control, then the complete system is tested and witnessed before it leaves the building. Nothing arrives as parts for somebody else to assemble.

Isometric technical illustration of a large industrial cooling system with six large fans on top, connected piping, control panels, and a separate box-like unit on the left side.Isometric digital illustration of an industrial cooling system featuring six large cooling fans mounted on top of a rectangular base, connected by blue piping to various control units and equipment housed in black and blue enclosures.Isometric illustration of an industrial cooling system with six large fans mounted on top of a long rectangular unit connected by pipes to an adjacent control panel and machinery.Isometric illustration of a modular data center cooling system with six large fan units on top, connected to electrical and mechanical control panels, with multiple conduits and piping indicated by blue lines extending outward.Blue grid pattern forming a rounded diamond shape with a mesh texture on a black background with faint diagonal lines.A regular hexagon with six sides and vertices, each vertex marked with small purple squares, connected by thin black lines.
Power
Distribution, protection and switching, engineered to the redundancy your design basis requires and delivered on a skid or in a container.
Cooling
Direct to chip or immersion liquid cooling. The cooling engineering is ours, through a decade of Submer liquid cooling IP.
IT
Your servers, storage and networking racked, integrated and pre-commissioned with the power and the cooling that supports it, to a named NVIDIA reference design. We prove it before we move it.
Networking
Network infrastructure that scales inline with the physical structure. IT modules’ pre-installed leaf switches are connected to central physical spine modules.

Ask any supplier on your list where the racks go in, who is responsible for each sub-system if it doesn’t light up green first time, and who is standing there when the operating manual doesn’t provide the answer.

THE DIFFERENTIATOR

Buy a program, not a product

Every supplier on your list will tell you it can meet your milestones. Ask which of them will put a dated program plan on the table at proposal stage, before a contract exists, and stay accountable to it throughout a project.
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That is what we bring during early engagement meetings. Fixed dates against your target date, never ranges. Your obligations dated alongside ours at every milestone, because a date only holds water if it is clear to everyone what it depends on. An engineering team and program manager from day 1, and a single escalation route that ends with our CEO.

Three people sitting around a table reviewing architectural blueprints and an aerial photo of a building complex, with a laptop displaying a 3D model of a building in the background.
WEEKS 1-6
Design basis agreed
Senior engineers in the room. Site, power, density, redundancy, and interface analysis. Reference design selected. Customization options discussed.
Four professionals in an office meeting room discussing architectural plans on a table, with one person in a construction helmet and vest standing, two seated men engaged with a laptop and documents, and a woman also standing by the table, a digital blueprint displayed on a screen behind them.
Week 8
Design freeze and contract
Frozen design basis, fixed scope, your milestone plan issued with dates.
Man working at a desk with dual monitors displaying a 3D mechanical model and a project plan Gantt chart with timeline from March to September.
Month 3
Design released for manufacture
Released drawings, quality plan, configuration record.
Two technicians work inside a large industrial warehouse beside a long row of large silver battery units or energy storage modules housed in an open container, with one technician checking a tablet and the other using a tool on the equipment.
Month 6
First article validated
First unit built and validated against the reference design.
Technician wearing glasses and gloves connecting or inspecting thick black cables with colored labels inside an electrical or server panel.
Month 8
Full stack integration
Power, cooling and your IT integrated as one system on the line.
Man working on a laptop with two large monitors displaying data charts and server rack diagrams in a data center with multiple server racks in the background.
Month 9
Witnessed factory test
Complete system tested and witnessed before shipment. Digital record issued.
A technician wearing a white hard hat and yellow safety vest crouches on gravel while using a laptop next to large industrial electrical equipment outdoors under a cloudy sky.
Month 12
Acceptance and handover
On site testing, integrated system test, commissioning through L1 to L5, digital twin handover.
Three people sitting around a table reviewing architectural blueprints and an aerial photo of a building complex, with a laptop displaying a 3D model of a building in the background.
WEEKS 1-6
Design basis agreed
Senior engineers in the room. Site, power, density, redundancy and interface analysis. Reference design selected. Customization options discussed.
Four professionals in an office meeting room discussing architectural plans on a table, with one person in a construction helmet and vest standing, two seated men engaged with a laptop and documents, and a woman also standing by the table, a digital blueprint displayed on a screen behind them.
Week 8
Design freeze and contract
Frozen design basis, fixed scope, your milestone plan issued with dates.
Man working at a desk with dual monitors displaying a 3D mechanical model and a project plan Gantt chart with timeline from March to September.
Month 3
Design released for manufacture
Released drawings, quality plan, configuration record.
Two technicians work inside a large industrial warehouse beside a long row of large silver battery units or energy storage modules housed in an open container, with one technician checking a tablet and the other using a tool on the equipment.
Month 6
First article validated
First unit built and validated against the reference design.
Technician wearing glasses and gloves connecting or inspecting thick black cables with colored labels inside an electrical or server panel.
Month 8
Full stack integration
Power, cooling and your IT integrated as one system on the line.
Man working on a laptop with two large monitors displaying data charts and server rack diagrams in a data center with multiple server racks in the background.
Month 9
Witnessed factory test
Complete system tested and witnessed before shipment. Digital record issued.
A technician wearing a white hard hat and yellow safety vest crouches on gravel while using a laptop next to large industrial electrical equipment outdoors under a cloudy sky.
Month 12
Acceptance and handover
On site testing, integrated system test, commissioning through L1 to L5, digital twin handover.
Man working at a desk with dual monitors displaying a 3D mechanical model and a project plan Gantt chart with timeline from March to September.
ENGINEERED AT scale

Custom engineering.

Industrialized global supply chain.

Today, engaging with the modular data center supply chain means making a choice. Smaller, engineered-to-orser suppliers will put senior engineers in a room with you and develop bespoke designs, treat you as the most important client in the company, but don't have NVIDIA credibility and cannot deliver at the scale or in the geographies you need. The scaled incumbents can manufacture and service almost anywhere, but will show you pre-engineered configurations, because standardization is what makes their business model work, not your requirements.
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The Corenix strategy is to sit at the intersection of custom engineering and scale, with genuine world class strength in both. Reference platforms built around proven NVIDIA specifications, early design engagement with senior engineers, an industrial supply chain with group leverage on raw materials and long lead time items, and multi region production facilities.

Why Corenix?

We've done this before

Proven Delivery

400MW+ of high density compute, delivered in modular form and operating today

More than 500MW of high-density compute infrastructure has been delivered through Submer Group. As part of that, over 400MW was delivered in modular form, including a 300MW+ campus delivered as a fully modular crytpo workload buildout in nine months from order to delivery.

It proves industrial modular delivery at scale for high-density compute: a supply chain ecosystem that delivers against a hundreds-of-megawatts project on tight timescales, production and assembly capacity that can manage it, logistics that get it on site, and the program discipline to energize it inside a year. Those are the most complex strenghts to acquire in this business, and the workload does not dilute this.

Meet the team behind your time to token.

We believe in showing, not telling. Visit our HQ in Houston, walk the production lines, and talk real units with the engineers who designed them. Put your deadline in front of the people who would be held to it, and leave with a dated milestone plan set against your own target date.

We take on a small number of clients and we take them seriously, so the first conversation runs both ways. Bring us a target and if we cannot deliver against it, we will say so in that meeting rather than three months in.
Rows of industrial HVAC units numbered 341 to 346 aligned on both sides of a wide reflective walkway under a colorful sunrise sky with scattered clouds.