Data Center Power

With selectable voltage outputs of 34.5kV, 13.8kV, or 4.16kV, our solution connects directly to your medium-voltage infrastructure without altering your original data center design.

Our solution accelerates permitting by ensuring the power plant’s emissions stay below the “major source” thresholds, which are the primary trigger for lengthy and complex reviews. This is achieved through our MPG units’ ultra-low emissions of less than 9 ppm NOx untreated (<2 ppm treated). For sites in Attainment Areas, these low emissions allow for significant deployment—up to 260 MW—while staying below the 250 TPY threshold that triggers a Prevention of Significant Deterioration (PSD) review. This advantage is even more critical in Non-Attainment Areas, where regulations are much stricter. In these zones, our technology allows you to build out the maximum possible power density on-site without triggering the more stringent and costly requirements. In both scenarios, the result is a faster, more predictable path to securing your permit to operate.

Our modular solution allows you to meet your precise uptime target, from 99.9% to 99.999%. Individual power block size is selected to minimize excess capacity, which saves on initial project costs (CAPEX). Instead of relying on simplistic N+1 or N+2 redundancy, we use probabilistic modeling to calculate and guarantee the exact reliability your mission-critical infrastructure demands.

Our MPG power generation units are designed for maximum availability with a major overhaul interval of 40,000 hours. To ensure zero operational downtime during this service, we can perform a full core turbine swap in under 48 hours. This allows your data center to continue running uninterrupted while the original turbine undergoes its overhaul offsite.

Gas turbines operate at their highest fuel efficiency when running at or near their full load capacity. Operating them at a partial load to match lower power demands is inefficient and consumes more fuel per megawatt-hour produced, which directly increases operating costs. The METIS data centers power solution is engineered to avoid this inefficiency through its modular design. By dispatching individual gas turbines as needed, our system ensures that each running unit operates close to its full-load setpoint, minimizing inefficient partial load operation. This strategy significantly reduces fuel consumption and directly lowers overall OPEX—a critical advantage given that fuel is often the largest portion of operating expenses.

Traditional power infrastructure is a fixed asset tied to a single property. Our solution is engineered as a self-contained, transportable unit, which reclassifies it as a movable capital asset. This distinction provides significant financial advantages, including improved risk management (assets can be redeployed), flexibility in long-term site strategy, and benefits for financial modeling and depreciation that are not possible with fixed infrastructure.

Forcing a traditional thermal power unit into a fast-start places immense stress on the equipment, shortening its lifespan and increasing maintenance costs. The METIS Microgrid is engineered to eliminate this damaging tradeoff.
Upon startup, our integrated MPS units supply the initial load in sub-seconds, creating a seamless power buffer. This allows the main MPG units to ramp up to their optimal speed safely and without thermal stress. This synergy provides true fast-start capability with response times tailored to your needs—a critical advantage for demanding industries where performance and long-term asset health are paramount.

Conventional thermal engines, particularly gas turbines operating at high temperatures, are susceptible to damage from the thermal stress of frequent shutdowns and restarts.
A key differentiator of the MPG product line is its unique design, engineered to withstand daily cycling without compromising the turbine’s operational life. This durability is critical for applications with fluctuating loads, such as data centers. It allows individual units to be taken offline during low demand, ensuring the remaining turbines operate near 100% capacity. This strategy drastically improves load management while reducing both fuel consumption and total emissions