Flexible tap-off locations where the rack layout is changing.
Start with your
next capacity project.
From an operating colocation facility to a new AI data hall, the right distribution approach starts with the project constraints.
Expand an existing data center
Add racks or increase selected rack loads within an operating facility. Start with the existing electrical capacity, distribution layout and permitted work windows.
Branch distribution and monitoring where a panel-based layout fits the existing system.
Higher-current distribution runs where the upstream design supports the added load.
Bring these inputs to the review
Existing single-line diagram; spare upstream capacity; A/B power paths; fault levels; cable routes; shutdown and commissioning plan.
Adding distribution equipment does not create upstream capacity or establish a no-downtime installation plan.
Fit out the next colocation phase
Bring a new suite, cage or rack row into service as tenant demand becomes clearer. Coordinate each phase around committed loads, circuit allocation and the operator's metering requirements.
Tap-off placement that follows the tenant rack plan.
Defined connection points for repeatable layouts and constrained installation height.
Branch circuit allocation and electrical monitoring for the planned rack schedule.
Bring these inputs to the review
Tenant rack count and kW per rack; service voltage; A/B feeds; branch protection; monitoring points; operator billing-meter requirements; phase boundaries.
Monitoring options do not imply revenue-grade tenant billing. Meter accuracy, protocols and billing integration need separate confirmation.
Introduce high-density AI / HPC racks
Plan the path from the distribution backbone to the rack. Match bus current, tap-off or branch capacity, connectors and protection to the selected rack power architecture.
Higher-current main and IT distribution paths.
Row-level distribution with project-selected tap-off units.
Panel-based branch distribution where specified by the electrical design.
Bring these inputs to the review
Rack input voltage and power; connector schedule; load diversity; redundancy; fault duty; protection coordination; AC or DC architecture; cooling and service clearance.
A high current rating alone does not establish rack compatibility. DC suitability and any platform-specific requirements must be confirmed for the selected assembly.
Power a modular or containerized IT space
Coordinate the distribution equipment with a defined enclosure footprint, rack arrangement and mechanical interfaces before fabrication.
Fixed tap-off positions for layouts where installation height is constrained.
A project-defined enclosure for the electrical infrastructure scope.
Branch distribution where cabinet-based equipment is part of the module design.
Bring these inputs to the review
Clear internal height; equipment drawings; access and service zones; transport limits; cable entries; grounding; environment; factory and site test responsibilities.
An electrical power pod is distinct from a complete IT data center module. Confirm the equipment boundary and all site interfaces.
Build out a data hall in phases
Define the main distribution route, rack-level connections and electrical enclosure scope as part of a staged capacity plan.
The higher-current distribution backbone.
Row-level tap-off distribution as rack layouts develop.
Integrated electrical equipment within a project-defined enclosure.
Bring these inputs to the review
Capacity per phase; single-line architecture; utility interfaces; redundancy; installation sequence; commissioning scope; future connection allowances.
Future expansion depends on reserved electrical and physical capacity. Final module contents, qualification and delivery scope are project-specific.