Start with the minimum capacity required and incrementally add modules as power demand grows, without the need to build large-scale facilities sized for maximum load from the outset. This effectively reduces the burden of upfront capital expenditure (CAPEX).

The standardized slot-based design enables rapid capacity expansion without complex wiring redesign or large-scale civil works. This allows fast and flexible adaptation to changing business environments and evolving operational demands.

Leveraging the advantages of a parallel architecture, new modules can be added or faulty modules replaced while the existing system remains in operation. This prevents power supply gaps during expansion and ensures uninterrupted operational continuity.

Rack placement can be optimized not only for battery capacity, but also to secure maintenance access routes and align with the airflow direction of the HVAC system. This enhances both operational efficiency and ease of maintenance.

The elimination of heavy components such as coolant, pumps, radiators, and piping significantly reduces the overall rack weight. This lowers the structural load on buildings, minimizing installation constraints for locations such as rooftops and indoor environments.

With no risk of leakage and a simplified structure, the number of potential failure points is minimized. The elimination of coolant replacement and complex piping inspections significantly reduces ongoing operational expenditure (OPEX).

Instead of running large-scale cooling equipment continuously, individual fan speeds are precisely controlled based on the internal rack temperature. This effectively manages parasitic load consumed by cooling and improves overall energy efficiency.