FAQ

The PCS is the core component. It functions as a high-power, bidirectional inverter that converts DC from the solar and batteries to AC for use. It replaces the need for separate solar and battery inverters, streamlining the large scale solar battery storage infrastructure.

Key advantages include higher overall system efficiency, a simplified system layout with fewer components, reduced balance of system (BOS) costs, and seamless integration for both on-grid and off-grid large scale solar battery storage systems.

DC coupling is more efficient because it avoids multiple DC-AC-DC conversion steps. Solar energy can directly charge the batteries in DC form, reducing energy losses. This higher efficiency is crucial for maximizing ROI in large scale solar battery storage applications.

DC coupling is a system architecture where solar panels and batteries are connected on the same Direct Current (DC) bus before being converted to Alternating Current (AC) by a single, centralized inverter. This is a highly efficient solution for large scale solar battery storage projects.

Primary benefits include reduced generator fuel consumption and maintenance, lower electricity costs through peak shaving, increased energy self-sufficiency, and a rapid return on investment for the large scale battery storage infrastructure.

The AC coupling design is inherently modular and scalable. You can easily expand the system's power and energy capacity by adding more battery units and inverters, allowing the large scale battery storage system to grow with your energy demands.

Yes, a key benefit is its ability to integrate with existing generators (like diesel gensets) and renewable sources. This hybrid approach optimizes fuel consumption and maximizes the use of clean energy in your large scale battery energy storage system.