AI DATA CENTER · 02

The data center facility
that keeps infrastructure from stopping

GPU infrastructure demands conditions entirely different from conventional servers. Power per rack climbs several times over, and all of that heat is generated in the same space. Can you supply the power? Can you handle the heat? Those are the starting points of any configuration.

High Density

How AI infrastructure has changed the requirements for a data center

Having room to place the equipment and being able to actually run it are two different things. In a high-density environment, three conditions must be met at once.

• CONDITION 01

  Power density

  A GPU rack draws far more power than a standard server rack. With the existing floor's distribution capacity, you may not be able to fully populate a rack.

• CONDITION 02

  Heat rejection

  Most of the power consumed turns into heat. If cooling can't keep up, equipment throttles itself or shuts down — and the compute resources you invested in go unused.

• CONDITION 03

  Floor space and load

  High-density equipment is heavy, and depending on the cooling method it may require piping or additional space. Floor load and delivery access paths must be reviewed as well.

Cooling

Air vs. liquid: the basis for choosing

Neither method is categorically better. The right approach depends on heat output per rack, the conditions of the existing facility, and the scale of the deployment.

• COOLING 01

  Air Cooling

  Heat is rejected through the air as the medium. Most data centers already have this structure in place, so it can be applied without separate facility investment.

  Key components

  • Hot-aisle · cold-aisle containment
  • Rack-level airflow containment and alignment
  • Airflow control using blanking panels
  • Review of HVAC (temperature/humidity) integration
  • Rack placement accounting for intake and exhaust direction

  Best fit

  low-to-medium density racks · reuse of existing floor space · phased expansion plans

• COOLING 02

  Liquid Cooling

  A liquid medium absorbs heat directly at the heat source. Because liquid transfers heat far more efficiently than air, it is the choice for high-density configurations.

  Key components

  • Direct cooling applied at the heat source
  • Rack-level cooling distribution units
  • Coolant piping and circulation-path design
  • Leak detection and shutoff systems
  • Review of existing cooling-infrastructure integration

  Best fit

  high-density GPU clusters · configurations beyond air-cooling limits · large-scale deployments

Power

Power is a question of continuity, not just capacity

Securing the power you need is not enough on its own. It must not be interrupted, and it must carry you through to the point of expansion.

• POWER 01

  Capacity planning

  We calculate the power your infrastructure will actually consume. By computing both today's required capacity and the capacity at the point of expansion, you avoid having to relocate the floor space later.

  • Power consumption per rack
  • Total configuration load calculation
  • Headroom reserved for expansion
  • Review of existing incoming-power capacity
  • Allocation plan per floor area
  • Peak-load conditions factored in

• POWER 02

  Distribution and redundancy

  We configure the path that delivers power to the rack. We design a redundant structure so that compute doesn't stop even if one path fails.

  • Rack-level power distribution
  • Dual power-path configuration
  • UPS integration
  • Load balancing across circuits
  • Separated power-system design
  • Review of emergency-power transfer

• POWER 03

  Efficiency and monitoring

  We track how the supplied power is used. The ratio of power spent on compute versus cooling feeds directly into operating cost.

  • Power usage efficiency review
  • Per-rack power-usage observation
  • Integrated temperature and power monitoring
  • Threshold-based alerting
  • Cooling-load correlation analysis
  • Operating-cost trend reporting

How We Work

From conditions to construction

Rather than locking in the equipment first and then hunting for floor space, we confirm what conditions can be accommodated, then derive the optimal configuration within them.

• STEP 01

  Confirm site conditions

  We assess the existing floor's power capacity, cooling method, and load conditions.

• STEP 02

  Review the capacity envelope

  We calculate the scale of infrastructure that can be built under those conditions.

• STEP 03

  Layout and installation

  We build to a rack layout that reflects the power and cooling paths.

• STEP 04

  Hand over operating conditions

  We set up power and temperature monitoring and connect it into the operations phase.

We'll confirm how far your current floor space can take you.