No air-cooling retrofit trap
Built natively for high-density liquid-cooled clusters, without legacy constraints or downtime-heavy upgrades.
- Liquid-ready from day one
- Overhead services sized for density
- No stranded legacy floor
Technology · Compute · Cooling · Power
Built for the rack that comes next.
A native high-density baseline: hot-water liquid cooling, 800V DC distribution and redundant paths from the generation plant to the GPU.
1.15–1.25Target PUE, against an ASEAN average of 1.55
45°CSupply water, maximising free cooling
800V DCNative distribution to the rack
136–230kWPer-rack envelope, GB300 to Rubin
GPU generations
One hall envelope, more than one GPU cycle.
Conventional 10–20kW rooms cannot host 40kW+ accelerator racks without long, costly retrofits. These halls skip that step.
GB300 NVL72 ready
136kW per rack, 72 GPUs and 800G InfiniBand, with power and liquid distribution pre-installed.
- 800A rack distribution
- CDU manifolds in place
- Rack-and-power-on handover
Rubin VR200 & Kyber
Building and M&E natively support 230kW fanless racks at 45°C, with pipe capacity reserved for 600kW Kyber.
- Floor loading ≥20kN/m²
- Transport routes ≥25kN/m²
- 600kW per-rack pipe reserve
Cooling
Move heat at the chip, not through the room.
Cold plates take 80–100% of the heat straight off the silicon. Water leaves the CDU at 45°C, so dry coolers handle most of the rejection without chillers, even in a tropical climate.
Each rack has independent A and B supply and return loops for concurrent maintenance.
- Target PUE
- 1.15–1.25 (ASEAN avg 1.55)
- Energy saved
- ~170 GWh per year at 200MW
- Design WUE
- ≤0.15–1.0 L/kWh
- Liquid share
- 80–100% direct-to-chip
- CDU redundancy
- 2N, A/B loops per rack
- Air filtration
- ISA 71.04 G1, ≥5Pa positive pressure
Power architecture
800V DC from the plant to the rack.
A single coordinated chain matched to next-generation GPU power specs, with fewer conversion steps and less copper.
- 01 / Source640MWCaptive generation plant
- 02 / FeedDual linesDedicated transmission routes
- 03 / Campus220kVDual-route substation
- 04 / ConvertSiC SSTSolid-state transformers, >97%
- 05 / Distribute800V DCHigh-voltage busway, 1,500A
- 06 / RackBBURack-level ride-through
1.8%End-to-end loss
Down from about 5% with conventional AC distribution.
-45%Copper
Busbar current falls to 1,500A at 800V DC.
-70%Transformer footprint
Silicon-carbide SSTs at over 97% efficiency.
20MW / 40MWhBESS buffer
Absorbs millisecond AI training load steps on the island grid.
Beyond Phase One
Greener power and colder water at scale.
Three forward-looking pillars prepare the campus for ESG audits and gigawatt-scale efficiency.
Integrated storage
Rooftop and ground PV with 20MW/40MWh batteries for peak shaving and stable islanded operation.
Auditable green power
International renewable energy certificates for hyperscaler ESG and carbon-neutral reporting.
Deep seawater cooling
Interfaces reserved beyond 1GW for seawater air conditioning, targeting near-zero freshwater use.
Engineering review
Bring your rack spec.
Our team will map your power density, cooling interface and network fabric to the hall design.