AI Data Center Campus Capital & Power Planner

TCS $7.4B Benchmark
Source: Reuters Report — TCS $7.4B AI Campus Deployment

Hyperscale AI Infrastructure Model Within TCS $7.4B Envelope

TOTAL ESTIMATED CAPEX
$7.12 B
$280 M Headroom under $7.4B
ACCELERATOR RACKS
5,312 Racks
~42,496 GPU Nodes (8-way HGX)
DESIGN CAMPUS PUE
1.15 PUE
425 MW Dedicated IT Power
EST. CIVIL FOOTPRINT
1,480,000 sq ft
337 W / sq ft Building Density
CAMPUS SINGLE-LINE POWER & THERMAL TOPOLOGY 220 kV Substation ➔ 500 MW Grid Ingest
HIGH-VOLTAGE 220 kV Substation Bay SWITCHGEAR 500 MW 2N Redundant MV AI COMPUTE HALLS 425.0 MW IT Load 5,312 Racks @ 80 kW COOLING PLANT 75.0 MW Thermal Direct-to-Chip DLC AI ACCELERATOR FABRIC 339,968 Tensor Cores / GPUs 800G RoCEv2 / InfiniBand Rail Efficiency: 1.15 PUE Phase 3: 100% Deployed
CAPITAL EXPENDITURE DISTRIBUTION (USD) 100% Allocated
Compute & Fabric: $4.13B (58%)
Electrical Plant: $1.21B (17%)
Cooling & CDUs: $0.78B (11%)
Civil & Land: $0.64B (9%)
Commissioning: $0.36B (5%)
System Category Specification Detail Units / Capacity Estimated CapEx

Power efficiency and fixed costs shape a local campus estimate

Read the explanation

The saved campus model assigns five hundred megawatts and a power usage effectiveness of one point one five. Dividing campus power by this ratio gives about four hundred thirty four point eight megawatts of IT load, leaving sixty five point two for overhead. At half a pixel per rounded megawatt campus five hundred measures two hundred fifty, IT four hundred thirty four point eight two hundred seventeen point four and overhead sixty five point two thirty two point six. The latter two sum to the campus bar. Eighty kilowatts per rack gives five thousand four hundred thirty four complete racks after flooring. Sixty four assumed GPUs per rack gives three hundred forty seven thousand seven hundred seventy six units. These are assigned design assumptions, not actual contracted power or server installations. Changing the phase to pilot multiplies active capacity by twenty percent: five hundred megawatts becomes one hundred, leaving four hundred not active. At half a pixel per megawatt full capacity measures two hundred fifty, pilot fifty and inactive two hundred. The electrical formula adds two point one five million dollars per active megawatt plus a fixed eighty five million dollar substation. Full electrical cost is one point one six billion dollars; pilot costs three hundred million. Multiplying pilot electrical cost by five gives one point five billion, not one point one six. The phasing table divides every category by phase factor, so it also scales the fixed substation and rack rounding into its implied full estimate. Preserve this inconsistency instead of calling all phases exact proportions of one physical budget. At full phase the model assigns eighty five percent annual load: five hundred times eight thousand seven hundred sixty times point eight five equals three point seven two three terawatt hours. Seventy five percent renewable coverage gives two point seven nine two two five terawatt hours. The source carbon formula rounds this quantity times one million times point zero zero zero four, yielding one thousand one hundred seventeen tons. Its comment says point four kilograms per kilowatt hour, which would instead imply one million one hundred sixteen thousand nine hundred tons. At point zero zero zero two pixels per ton the actual output measures point two two three four, comment implied output two hundred twenty three point three eight and difference two hundred twenty three point one five six six. Do not silently repair the thousandfold units mismatch. Native controls and JSON and CSV exports describe a local estimate; no current construction price, renewable contract, carbon certificate or reported news claim is independently verified.

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