An infrastructure problem disguised as a real estate problem

Critical load at first energization and at each ramp step, campus buildout target over ten to fifteen years, redundancy and tier requirements, and the cooling architecture — because cooling is not a design detail here. It determines water demand, WUE, mechanical capital, and in water-constrained geographies it determines whether the site is viable at all. We also fix the energization date you're actually holding, the sustainability commitments you have to meet, and the contractual or regulatory constraints on how you can procure power.

Substation headroom and feeder configuration at your load with contingency redundancy, not at average conditions. Interconnection queue position and realistic study timelines in the relevant ISO/RTO or vertically integrated territory. Transformer and long-lead equipment procurement — a market where large power transformers have recently quoted past three years and where the lead time, not the engineering, sets the schedule. The utility's capital improvement plan, and whether it puts steel in the ground near your corridor inside your window. Transmission constraints upstream of the substation. And the emerging large-load tariff and curtailment regimes that increasingly govern what a project your size can even request. Then the number that matters: a defensible energization date per candidate, with the assumptions that produce it written down so you can argue with them.

Where the grid date misses the project date, we scope and cost the alternatives: on-site natural gas generation, battery storage, hybrid configurations, and grid-bridging structures that hand back capacity as the utility catches up. Each carries real friction — air permitting thresholds and the review path they trigger, fuel supply and firm transport, emissions and sustainability accounting, islanding and interconnect requirements, O&M, and capital cost. Small modular reactors belong in a ten-year campus conversation, not in a bridge plan for a near-term energization. We'll tell you where that line is rather than putting it in a deck because it's interesting. The output is a comparison, not a recommendation dressed as one: BTM cost and schedule against the fully loaded cost of the delay it avoids. Sometimes the honest answer is that waiting is cheaper.

Water: source, allocation or rights, municipal capacity at your cooling demand, discharge permitting, and drought and curtailment exposure over the campus horizon. Fiber: diverse physical route count, provider redundancy, latency to the relevant cloud on-ramps or peering exchanges, and validated route maps rather than a coverage claim. Land: net developable acreage, configuration for phased buildout, adjacent control for campus expansion, and setback and noise exposure at your mechanical design. Entitlement and political reality: zoning path, who holds each approval and how long they take, existing or pending large-load moratoria, and a candid read on local tolerance.

The incentive conversation on these projects tends to fixate on sales and use tax exemption for equipment. That's real money and we'll capture it. It is not where the value is. The terms that move campus economics over a fifteen-to-twenty-year horizon are the power terms — negotiated industrial rate structures, demand charge treatment, PPA and long-term supply structures — and the infrastructure terms: who funds the substation upgrade, the transmission extension, the water main. Expedited permitting is an incentive too; compressing an eighteen-month path to nine is worth real money in avoided carrying cost, and it rarely appears in an incentive offer as a number. We run these negotiations in parallel across finalists while more than one party still believes it can win, then deliver the recommendation: scored comparison, total cost of project model, sensitivity showing what would have to be true for the answer to change, and a written risk register.