Phase 1
Load & Generation Profile Analysis
Energy demand modelling, solar yield assessment, tariff structure review, and use-case definition (peak shaving, arbitrage, backup, grid services).
System Architecture & Sizing
Battery chemistry selection, PCS sizing, round-trip efficiency modelling, financial modelling and bankability analysis.
Phase 2
Engineering & Integration Design
Single-line diagrams, protection coordination, EMS logic design, interconnection studies, and integration with existing PV or grid infrastructure.
Procurement & Logistics
Tier-1 battery, PCS and transformer sourcing. Container, fire suppression and HVAC specification. Cold-chain logistics for cells.
Phase 3
Installation & Commissioning
Civil works, container placement, MV cabling, PCS integration, EMS configuration, and grid synchronisation under utility witness testing.
Performance Validation & Handover
Capacity testing, round-trip efficiency verification, dispatch trials, warranty registration, and O&M transition.
Dispatchable clean power
Convert intermittent solar into firm, schedulable energy. Shift midday generation to evening peak, ride through grid outages, and unlock new revenue streams.
Multi-use case stacking
One asset, multiple revenue layers: peak shaving, frequency regulation, capacity firming, and arbitrage. Designed to maximise lifetime value, not single-purpose deployment.
Technology-neutral integration
Vendor-agnostic on battery chemistry (LFP, NMC), PCS, and EMS. We specify based on cycle life, safety profile, and project economics, not supplier relationships.
Bankable safety & compliance
IEC 62933, UL 9540A, and NFPA 855 alignment. Fire detection, thermal runaway mitigation, and warranty management built into design from day one.
