Power in from the Grid, Heat Out to the Loop — the Plant That Decides Whether an AI Site Works.
Utility interconnect strategy, on-site substations, bridge generation, 800 VDC-ready distribution and direct-to-chip cooling plants with warm-water free cooling and heat reuse — designed and delivered for your site, at the scale your GPUs actually draw.
Who This Is For
- Developers converting powered land or an industrial building into an AI site
- Enterprises whose utility feed is the bottleneck between them and a GPU cluster
- Operators planning for 800 VDC racks and want distribution that will not need replacing
- Anyone who has been quoted a multi-year utility timeline and needs a bridge
What's Included
Utility Interconnect Strategy
Load studies, utility applications, substation siting and the negotiation path to a firm interconnect date.
Substations and MV Switchgear
Dedicated substations, medium-voltage switchgear, transformers and protection coordination for 1 MW to 60 MW.
Bridge and Behind-The-Meter Generation
Natural gas reciprocating or turbine, fuel cells and battery storage to bring load online ahead of the utility or firm up supply.
Distribution to the Rack
415 V and 800 VDC-ready overhead busway, N+1 to 2N UPS topologies, OCP power shelves and rack PDUs.
Cooling Plant
Row and facility CDUs, warm-water free cooling with dry coolers, chillers for peak, heat reuse to campus hot water.
Controls and Monitoring
BMS and DCIM integration from breaker to cold plate, with alarms surfaced in the cluster's own observability stack.
Reference Specifications
Starting points. Every engagement is engineered to the workload, site and budget in front of us.
| Interconnect | Load studies and applications for 1–60 MW; substation design 12.47 kV to 138 kV |
|---|---|
| Generation | Gas reciprocating and turbine sets, fuel cells, BESS; islanded and grid-parallel operation |
| Distribution | MV switchgear, 415 V 3-phase and 800 VDC-ready busway, N+1 / 2N UPS, OCP power shelves |
| Cooling | CDUs to 1.5 MW per row unit, W32/W45 warm-water loops, dry coolers, chillers, heat reuse |
| Efficiency | PUE 1.1 design target; WUE minimised through closed-loop dry cooling |
| Resilience | Concurrently maintainable designs (Tier III+), generator and fuel autonomy sized to your SLA |
How We Deliver
- 1
Feasibility
Weeks 2–4Utility engagement, load and site studies, generation options, budgetary estimate and schedule.
- 2
Design and Permitting
Weeks 4–12Electrical and mechanical packages, utility coordination, AHJ and environmental submissions, long-lead orders.
- 3
Construction
Weeks 12–40Substation, generation, switchgear, busway, cooling plant and pipework installed and tied in.
- 4
Commissioning
Weeks final 4–6L1–L5 commissioning of power and cooling systems, integrated systems testing, handover.
Questions We Get Asked
Our utility says 2028. What can you do now?
Behind-the-meter gas generation with battery storage can bring 2–20 MW online in months, run as the primary supply, and move to backup once the utility feed lands.
Should we build for 800 VDC today?
Build distribution that is 800 VDC-ready — busway and switchgear ratings, pathway and clearances — while running 415 V to today's racks. The incremental cost is small and it avoids a second fit-out when Vera Rubin-generation racks arrive.
Can waste heat be reused?
Yes. 45 °C return water is usable for building heating, domestic hot water and some industrial processes; we design the heat-reuse interface where a taker exists.
Request a Quotation
Pre-tagged as Power & cooling infrastructure. A solutions engineer responds the same business day.
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