Battery modules + BMS
Store energy and monitor voltage, current, temperature and local operating limits.
Store the energy. Unlock the flexibility.
A battery energy storage system connects battery modules, power conversion, cooling and local protection. See what happens inside—and where intelligent decisions add value.
PCS · AC ↔ DCBattery racks · DCCooling + BMS
3D cutaway · drag to rotateFollow the energy through the system.
Play the explanation or select a step. Drag the 3D cutaway to inspect the converter, battery racks and cooling equipment.
Inside battery storage
PCS · AC ↔ DCBattery racks · DCCooling + BMS
3D cutaway · drag to rotateEnergy directionInto storage
Step 1 of 4
Turn incoming power into stored energy.
AC electricity from the grid or an AC-coupled renewable plant passes through the power conversion system (PCS). It becomes DC power that charges the battery modules.
AC from grid / renewablesDC into battery racks
Conceptual equipment layout and illustrative operation. Equipment-specific limits and controls vary by installation.
The hardware stores energy. SPARKO decides how to use it.
Physical power flows through electrical equipment. Forecasts, models and approved instructions flow through the software layer.
PCS + site equipment
Convert between AC and DC, follow permitted setpoints and preserve local protection.
SPARKO intelligence
Forecast conditions, predict asset capability and choose a feasible plan for the customer’s objective.
One asset. Several reasons to move energy.
Shift renewable generation, reduce peak purchases or participate in eligible markets. The objective changes; the physical constraints remain.
Engineering references: US DOE BESS evaluation method · DOE: how batteries work. This is a conceptual system explanation, not installation guidance.
Model the decisions before you move the energy.
Bring the asset, site and objective. We will map the data boundary, twin and commercial decision flow.