Technology Trade-Off Matrix (120 MW Site Basis)
Click any row to test in the simulator| Technology | CapEx ($/kW) | LCOE ($/MWh) | Heat Rate (Btu/kWh) | Lead Time | CO2e (kg/MWh) | Dispatch Flexibility |
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| Technology | CapEx ($/kW) | LCOE ($/MWh) | Heat Rate (Btu/kWh) | Lead Time | CO2e (kg/MWh) | Dispatch Flexibility |
|---|
As AI clusters scale beyond 100,000 GPUs, individual data center campus loads surge from 100 MW to over 1,000 MW (1 Gigawatt). In major US transmission hubs (such as PJM, ERCOT, and MISO), grid interconnect queues now routinely exceed 4 to 7 years. In response, AI infrastructure operators like Crusoe, CoreWeave, and hyperscalers evaluate islanded / off-grid stationary gas turbines and modular generation to energize facilities within 12–18 months.
Aeroderivatives (modified aircraft engines) ramp from cold-start to full 30+ MW output in under 5 minutes, handling sudden AI cluster burst loads. CCGTs are more thermally efficient (heat rate ~6,400 Btu/kWh vs 8,900) but require 36+ months for EPC construction and cannot cycle as rapidly.
Crusoe's "Digital Flare Mitigation" model taps stranded oilfield gas at lower fuel costs ($1.50–$2.50/MMBtu). However, transitioning to dedicated stationary generation for massive multi-hundred-megawatt enterprise facilities requires deep pipeline firm capacity, water permits, and strict NOx emissions SCR abatement.
Unlike intermittent renewable sources, large LLM training runs abort and waste checkpoint time if voltage dips or frequency shifts by more than 0.5 Hz. Redundancy design (N+1 or 2N spinning reserve) ensures planned maintenance on turbine hot sections does not throttle compute.
Total Demand: Facility Load (MW) = IT Load (MW) × PUE. With 100 MW IT load at 1.20 PUE, total facility draw is 120 MW.
Nameplate with Redundancy: With modular 24 MW aeroderivative turbines, base demand requires 5 units (120 MW). Under N+1 redundancy, 6 units (144 MW) are installed. Under 2N, 10 units (240 MW) are installed.
Levelized Cost of Electricity (LCOE): LCOE ($/MWh) = (Annualized CapEx + Fixed O&M + Fuel Cost + Variable O&M) / Annual MWh Generated. Fuel cost is calculated via Heat Rate × Fuel Price ($/MMBtu) / 1,000.