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AI Data Center

Built for the loads that melt ordinary rooms

GPU clusters turn electricity into heat faster than air can carry it away. FIBER OCEAN engineers the AI hall as one system: dual-path Tier III power, closed containment, and a liquid heat path from cold plate to immersion, with the PUE proven live instead of promised.

The solution

Density is a system problem

Four disciplines that must hold at once when the racks run hot. We engineer all four from our own lines, sized to the cluster.

Feed it

Dual A / B paths from the MDB to every rack PDU, with hot-swap modular UPS running dual-bus in parallel.

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Drain it

The liquid heat path: cold plate at 50 to 100 kW per cabinet, CDUs to 4×400 kW, immersion where density demands it.

Contain it

Closed hot-aisle containment with N+1 in-row cooling, concurrently maintainable: any unit can be serviced without dropping the room.

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Prove it

An edge DCIM host streams live PUE and energy analytics, so efficiency is a dashboard number, not a brochure number.

1.1–1.4
PUE across the liquid path
50–200 kW
Per cabinet on cold plate
4×400 kW
CDU capacity
30 kW
Per in-row unit, N+1
A / B
Dual-path power to every rack
24/7
NOC & customer support
The AI hall as one system

Anatomy of a FIBER OCEAN AI build

Eight layers, one supplier, one supervision plane, shown here in the containerized format; the same stack lands as containment pods and prefab halls.

Cutaway anatomy of a FIBER OCEAN liquid-cooled AI data center container: modular UPS and battery bay, contained row of liquid-cooled server cabinets with coolant distribution units, pump and piping bay, rooftop dry coolers, monitoring touchscreen and fire-suppression cabinet, with numbered callouts matching the table below
LayerWhat we deployProduct line
1. The high-density buildContainment pods in the hall you have, prefab blocks, or 20ft and 40ft AIDC container modules on the padAquaCore Data Centers
2. The liquid heat pathCold plate at 50 to 100 kW per cabinet with CDUs to 4×400 kW, and fluid immersion beyond itLiquid Cooling & AIDC
3. Containment & in-rowClosed hot-aisle containment with in-row units to 30 kW each in N+1, concurrently maintainable under loadIn-Row Cooling
4. Dual-path powerTier III A / B paths from MDB to rack PDU, hot-swap modular UPS in dual-bus parallel operationUPS Systems
5. Battery autonomyVRLA strings with the lithium option, sized to carry utility events and the generator transferBatteries
6. White spaceMetered or switched rack PDUs with per-outlet power, voltage, current and energy, and remote on / offIT Racks & Smart PDU
7. ConnectivityMPO/MTP trunks to 100G keep the GPU fabric patched, not re-pulled, as the cluster growsFiber Optics and Accessories
8. The live PUEAn edge DCIM host streams PUE and energy analytics with power, cooling, environment, video and access on one planeDCIM & Monitoring
Documented build envelope

What the AI build is specified to do

The engineering envelope of the high-density build, as documented. Every cluster is configured inside it.

ParameterValue
FormatHigh-density AI / GPU data center (containment or prefab build)
Cooling approachClosed hot-aisle containment with in-row precision and liquid cooling
Rack power density (kW/rack)High-density in-row / liquid cooling, sized per GPU platform and confirmed per project
In-row cooling capacityUp to 30 kW per in-row unit (rated); room-level CRAC complement for base load and redundancy
Cooling redundancyN+1, concurrently maintainable; any in-row or CRAC unit can be isolated for service without dropping cooling
Heat rejectionAir-cooled condensers (no site water required); refrigerant R410A
Power architectureTier III dual-path (A/B) from MDB to rack PDU, with modular hot-swap UPS and dual-bus parallel operation
Battery autonomyVRLA strings with lithium option; sized to ride through utility events and generator transfer
Rack PDUMetered or switched; per-outlet monitoring of power, voltage, current and energy with remote on / off
Design PUE≤ 1.4 (closed-aisle containment + in-row cooling)
MonitoringEdge DCIM host with live PUE & energy analytics; power, cooling, environment, video and access (Modbus RTU / RS-485 / SNMP / dry contact)
Environmental sensorsTemperature & humidity, photoelectric smoke and water-leak / flood detection; optional hydrogen (battery off-gas) and dust sensing
Fire protectionFM200 / Novec 1230 clean-agent suppression with heat & smoke detection, alarm and automatic gas activation; containment fire interlock
CabinetServer racks up to 42U; matte-black finish; IP20, anti-static, RoHS, fire-retardant
Reference standardsDesigned to TIA-942 / Uptime Institute Tier III principles, applied per project
CertificationsISO 9001:2015 (QMS); product-scoped certifications confirmed per project
Build scenarios

From a pod to a plant

The same eight layers, composed for how the cluster actually arrives.

Existing hall

The GPU pod

A contained, liquid-ready island inside the room you already run: dual-path power and in-row N+1 without rebuilding the building.

Greenfield pad

The AIDC container

20ft and 40ft factory-built modules with cold plate at 50 to 100 kW per cabinet: the training hall arrives on a truck.

Maximum density

The immersion room

Fluid immersion with CDUs behind it takes the estate past what air and cold plate carry, with PUE approaching 1.1.

Growing cluster

The scale-out plan

Dual-bus UPS grows in hot-swap modules, containment adds pods, containers add halls: the fabric stays patched, not re-pulled.

Why dense builds hold

Engineered for heat, audited for uptime

The details that keep a GPU estate training while its cooling is being serviced.

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Liquid without site water

Air-cooled condensers reject the heat with no site water required, on R410A refrigerant: the liquid loop stays inside the system.

Serviceable under load

N+1 concurrently maintainable cooling: any in-row or CRAC unit can be isolated for service without dropping the room.

A / B all the way down

Tier III dual paths run from the MDB to the rack PDU, with the UPS growing in hot-swap modules on a dual bus.

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Fire logic that knows the aisle

FM200 / Novec 1230 clean-agent suppression with heat and smoke detection and a containment fire interlock, plus optional hydrogen off-gas sensing at the batteries.

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Every outlet accounted

Per-outlet power, voltage, current and energy on metered or switched PDUs, with remote on / off per feed.

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PUE as a live number

The edge DCIM host streams PUE and energy analytics over Modbus, RS-485 and SNMP, next to power, cooling, video and access.

Inside the hall

A training day, fully supervised

Illustrative feed. Every event type is documented capability of the build: N+1 concurrently maintainable cooling, per-outlet metering with remote switching, access and video on the DCIM plane, and live PUE and energy analytics, with 24/7 support behind it.

Bring us your cluster profile

GPUs per rack, kW per cabinet, growth curve and where it all has to stand. Our engineers return a heat-path design, a dual-path power plan, a supervision plan and a quotation.

Request a Solution Proposal