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Service Overview:

Solar generation does not necessarily occur when electricity demand is highest. Battery storage allows generated energy to be stored and used later, shifting energy across time, smoothing solar variability and improving resilience.

Battery systems can provide energy shifting, backup power, peak shaving, load shifting, frequency support, voltage support, solar smoothing, renewable-energy integration, grid services and black-start support in certain configurations.

What's Included in Battery Energy Storage:

Technology selection: lithium-ion chemistries including lithium iron phosphate (LFP) and NMC, lead-acid and flow batteries, with LFP particularly important for stationary storage because of its safety characteristics, cycle life and suitability.

Sizing and specification: kW versus kWh (power versus energy), state of charge, depth of discharge, round-trip efficiency, cycle life and C-rate.

Battery management systems (BMS): cell voltage, current, temperature, state of charge and state of health monitoring, with cell balancing and over-voltage, under-voltage, over-current and thermal protection.

Energy management systems (EMS): controlling how solar, battery, grid, generator and loads interact across daytime, night-time, low-solar and high-solar periods.

Solar-Plus-Storage:

A properly configured solar-plus-storage system can support resilience, and sufficiently large systems with grid-forming inverters can restart or establish a local grid after disruptions.

Example: a 100 kW / 400 kWh BESS can theoretically deliver 100 kW for approximately 4 hours under simplified conditions.

Store, shift, manage.

Storage is what turns variable generation into dependable supply: engineered capacity, managed cells and intelligent dispatch.