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GSPE Containerized Data Center

A data hall, inside a container.

Power, cooling, fire, security and DCIM built into an ISO container, witness-tested as one unit, shipped, and craned onto your pad. You bring the rack count and density. We bring a hall that powers on.

1.35
Design PUE at tropical ambient, contained airflow
50+
kW per rack ceiling with direct-to-chip liquid
99.98%
Target availability at 2N power and N+1 cooling
16wk
From frozen design to energized container, typical
One integrated build

Six subsystems, factory-married inside one container.

No general contractor stitching trades together on your site. White space, power, cooling, fire, security and monitoring arrive pre-coordinated and pre-tested inside the container, documented as a single line of responsibility.

Interior of a GSPE containerized data center with the door open, server racks lit blue and an engineer at the aisle 01 White space

IT white space, inside the container

A sealed, pressure-balanced contained aisle the length of the container. Cable management, busway and rack PDU layout fixed at design freeze.

EN 50600 zoning
02 Power

Integrated power train

Grid interface to rack PDU as one tested block: MV switchgear, transformer, LV distribution, modular UPS and storage. Delivered by our Power Train Unit line.

See the Power Train Unit →
03 Cooling

Precision cooling

Sized to total heat load with N+1 redundancy. Perimeter DX, in-row CRAH, rear-door heat exchangers or direct-to-chip liquid, matched to your rack density.

ASHRAE TC9.9 envelope
04 Fire

Detection & suppression

VESDA aspirating smoke detection with NOVEC 1230 or IG-55 clean-agent release. No water near the racks.

NFPA 2001
05 Security

Physical security

Mantrap entry, biometric and card access, internal and external CCTV, intrusion zones logged to the DCIM.

EN 50600 access tiers
A GSPE containerized data center with the side panel open, showing the racks and contained aisle inside Anatomy

Open the side, see the hall

Racks, walkway and plenum, all inside the ISO shell, exactly as tested on the floor.

ISO 668 footprint
GSPE DCIM dashboard showing live energy, power factor and load readings 06 Monitoring

Monitoring & DCIM

One pane of glass. Power, thermal, fire and access on open protocols, ready for your BMS.

Modbus · SNMP · BACnet
The unit

One ISO container. A whole data hall inside.

Racks, power, cooling and a walkway, engineered into a single standard footprint. What you crane onto the pad is exactly what we tested on the floor.

A single GSPE ISO container data center on a black studio background, blue-lit server racks visible through the cutaway side
The container. ISO footprint, factory-sealed, craned onto a prepared pad.
Exploded x-ray view of a GSPE container interior showing rack rows, the cooling plenum and the central walkway
Anatomy. Racks, cooling and walkway, exploded.
Isometric exploded schematic of the power and cooling chain: HV in red, MV orange, LV yellow, with chilled-water pipes and cyan data lines
Power and cooling chain. HV to rack, chilled water to the load.
Scale on your terms

Start at one container. Grow to a campus.

A shared central plant feeds independent containers. Add units to the pad as load arrives, without re-engineering what already runs.

Annotated isometric aerial render of a GSPE containerized data center campus, rows of ISO containers on a concrete pad fed by a shared central plant
Campus on a pad. Containers phased onto a shared plant, live across one DCIM.
20 ft

Edge container

A single contained row for edge and far-edge sites. Self-cooled, self-monitored, relocatable.

40 ft

Data hall container

A full hall of contained racks with dedicated power and cooling, the core building block.

N ×

Multi-container campus

Containers on a shared central plant, phased to demand.

live across one DCIM

Cooling chosen by density, not by habit.

Four cooling architectures, picked against your actual kW per rack. Mix them across containers on the same pad.

8kW
Perimeter DX
Room-level direct expansion for low-density rows. Simple, proven and forgiving where rack loads stay light.
≤ 8 kW / rack
20kW
In-row CRAH
Chilled-water handlers between racks, close-coupled to the load with contained aisles for tight thermal control.
≤ 20 kW / rack
40kW
Rear-door heat exchanger
Passive or active doors that pull heat at the rack face, neutralizing exhaust before it reaches the room.
≤ 40 kW / rack
50+
Direct-to-chip liquid
Cold plate loops to the silicon for AI and HPC racks, where air alone runs out of headroom.
50+ kW / rack
monitored 24/7

Power, thermal and capacity, watched around the clock.

Every container streams its own telemetry and camera feeds into one console. Power draw, inlet temperatures, fire zones and door state are logged continuously, so capacity and faults are visible the moment they move.

24/7
Telemetry and CCTV, continuously recorded
3s
Typical dashboard refresh on live readings
100%
Subsystems on open protocols, ready for your BMS
Two GSPE engineers in hi-vis vests inspecting a containerized data center module on the factory floor

Integrated in our factory. Proven before it ships.

Trades that usually collide on a live site are coordinated under one roof, inside the container. You witness the unit run on the floor before it is sealed, shipped, and craned onto your pad.

Witness FAT. Full-load functional test with your team present, before shipment.
Power continuity. Transfer and UPS ride-through verified on the factory floor.
Thermal pull-down. Cooling proven against simulated heat load at design density.
Fire and access. Suppression sequence and security interlocks commissioned and logged.
As-built handover. One documentation set, one warranty, one point of contact.
A GSPE engineer walking past a GSPE-branded containerized data center at golden hour

Craned onto the pad, powered on, handed over.

What we test on the factory floor is what lands on your site. One sealed container, one walk-around, one set of as-builts, ready to energize.

Resilience configured to the load that matters.

Pick the redundancy level per container and map it to the rating your stakeholders already speak.

N

Single path

Exactly the capacity the load needs, no concurrent maintenance margin. For dev, edge, and workloads that tolerate a maintenance window.

Maps to TIA-942 Rated 1 to 2 · Uptime Tier I to II
N+1

Concurrently maintainable

One redundant component per system, so any single unit can be serviced without dropping the load. The common production choice.

Maps to TIA-942 Rated 3 · Uptime Tier III
2N

Fault tolerant

Fully duplicated, independent power and cooling paths. A failure on one path never reaches the IT load. For mission-critical containers.

Maps to TIA-942 Rated 4 · Uptime Tier IV

Bring your rack count and density.

Tell us the load, the resilience target and the site. We will scope the containers, the cooling and the schedule to power-on.

TIA-942 Uptime Tier ASHRAE TC9.9 NFPA 2001 IEC 60529 EN 50600