Building and power done in one go,
and MEP picks up without a gap
and MEP picks up without a gap
Site infrastructure covers the data center building and the incoming-side works: structure, exterior and interior finishing, high-voltage power intake, main feeders, large generators, and water supply and drainage. The boundary with the MEP systems is the distribution panel: this stage handles everything from the primary side to the main low-voltage panel. Once the site is ready for handover, later stages take over directly without returning to the site.
Set rack power first, then derive load capacity, power intake, and cooling
Design starts from the final rack configuration. First fix the number of racks and the power per rack, then work out floor load capacity, power intake capacity, and cooling configuration from those two numbers. Structural and electrical design begin only after all three specifications are set. A GPU data center draws far more power than a typical IDC, and settling things in this order, once, removes the need for floor reinforcement and power intake expansion during construction.
The weight and power of one rack of equipment at the B300 level are where the load capacity and power intake calculations start. If the floor cannot carry the load, it must be reinforced or a different floor chosen.
At 20 kW per rack, 24 racks give an IT load of 480 kW, and adding cooling and line losses moves the requirement up one more tier.
The cooling towers and chillers of the chilled water system must be placed outdoors or on the roof, and their positions fixed during the structural design phase.
Site preparation through power cabling,
with the foundation and power done properly
with the foundation and
On-site work has two stages, site preparation and power cabling. Water piping and the cooling system move in only after both are finished.
Site preparation
Structural reinforcement, partitions, floor surfaces, and raised floor bases, plus clearing the route for equipment delivery.
Power cabling
High-voltage power intake, main feeder routing, generator and ATS installation, and main low-voltage panel positioning.
Eight work categories,
covering the build scope before construction begins
Structural calculations, the main frame, exterior and interior finishing, high-voltage power intake, main feeders, large generators, water supply and drainage, and temporary facilities: the data center is ready for move-in only after these eight categories are complete.
Design and planning
Scope of workStructural calculations, architectural drawings, specialist design
FunctionDefines load capacity, ceiling height, circulation, and equipment access routes
Main structure
Scope of workFoundation work, steel frame, and carpentry
FunctionBuilds the load-bearing structure and frame of the building
Building finishing
Scope of workExterior finishing, interior finishing, and door and window works
FunctionBuilding exterior surfaces, interior fit-out, and door and window installation
Power system
Scope of workElectrical equipment and main feeder cable works
FunctionPower supply and high-voltage feeder line routing
Backup system
Scope of workLarge generator installation works
FunctionKeeps the data center running during a power outage
Water supply and drainage
Scope of workWater supply, drainage, and sanitary fixture works
FunctionIndoor and outdoor water supply, drainage, and sanitary piping layout
Site works
Scope of workExterior works and temporary works
FunctionCleanup of the surrounding grounds, fencing, and temporary facilities during construction
Prepare the site all the way to where later stages can take over directly
The data center module design is fixed first, cabling starts only after the rack layout is settled, and long-lead items are ordered by working back from the schedule.
Overview of the three work stages
- 01Power and backup
Site power intake, UPS, and generator configuration.
- 02Cooling and MEP
Cooling design, power distribution, and water line preparation.
- 03Deployment and delivery
Rack installation, integration testing, and acceptance.
Five parts of site preparation
- 01Site and data center module
The IT room module design is finalized, and the site is prepared in parallel up to a handover-ready state.
- 02Rack and power planning
Plans the rack layout and single-tenant physical isolation, and prepares power and cooling (including liquid cooling) together.
- 03Cabling and aisles
A/B dual-path power is run to the racks, CDU interfaces are reserved, and the white space hot and cold aisles are contained.
- 04Documents and materials
Prepares construction specifications and coordinates the contractors, and orders long-lead items early to hold them.
- 05Capacity reservation
The contract reserves the specified IT capacity for the owner. Billing for the capacity starts on the reservation date and does not change with the equipment move-in schedule.
A utility power loss does not stop operations,
generators and UPS take over the supply
Generator capacity and the number of units are calculated from the IT load plus the cooling load. The New Taipei site pairs two 1000 kW generators with three ATS units, matching 1.5 MW of power and 900 kW of cooling capacity.
The redundancy level (N+1 or 2N) is decided in the design phase and affects both the number of distribution panels and the room area
The UPS covers the gap between the loss of utility power and stable generator power
Full-project, retrofit, and container sites all have actual projects
Turnkey new builds, conversions of existing buildings, and containerized deployments have all been delivered.
New Taipei site
The owner holds the site, and KONST takes on the end-to-end turnkey work from power intake and MEP to racks. The rack specifications can accommodate B300.
Yunlin site
Conversion of an existing building, with a scope that covers basic plumbing and electrical, partitions, electrical panels, and transformers.
Fukushima, Japan
Containerized deployment. The civil works scope is only site grading and power intake, so delivery is completed quickly.
FAQ
Is there a turnkey (EPC) contractor for building an AI data center?
Can my existing factory building be converted into an AI data center?
Does the time for the power intake application count toward the project schedule?
How does a high-power GPU data center differ from a regular one?
How are generator capacity and the number of units determined?
How do I choose between N+1 and 2N redundancy?
Services often evaluated together
Want to know how large a data center your site can support?
Send us the current site conditions, and we will reply with a preliminary data center size assessment.