LBSA systems are designed to scale with your business. The Rhino IntelliFlex HV rack is modular and upgradeable — you can configure a rack from 23 kWh up to 88 kWh of installed capacity. Multiple racks can be paralleled to create very large battery banks for commercial and industrial sites.
What “60 racks” means in practice
If you connect up to 60 HV racks in parallel you can achieve a total stored energy capacity in the following ranges depending on rack configuration:
- Minimum (23 kWh per rack): 23 kWh × 60 = 1,380 kWh → 1.38 MWh
- Maximum (88 kWh per rack): 88 kWh × 60 = 5,280 kWh → 5.28 MWh
Important unit note: these numbers are **energy capacities** (kWh / MWh). The instantaneous power (kW or MW) the installation can deliver depends on the inverter/discharge rating and system configuration, so specify both energy and power requirements when planning a large installation.
How scalability is achieved
- Modular racks: add racks as demand grows — no rip-and-replace for the whole system.
- Distributed BMS topology: BMS and master controllers coordinate multiple racks for balanced operation and safe parallelisation.
- Parallel HV bus architecture: rack interconnects allow many units to act as a single logical battery bank.
- Inverter & power electronics scaling: add or uprate inverters and power cabinets to match increased energy capacity with desired discharge power.
- Phased deployment: deploy in stages (e.g., 10 racks now, 20 later) to spread CAPEX and validate operations before expanding further.
Site considerations for large deployments
- Structural & footprint planning: racks require floor space and load-bearing checks for installation and future growth.
- Thermal management: larger banks need robust ventilation, cooling strategies and thermal monitoring to maintain life expectancy.
- Electrical infrastructure: larger incoming feeders, protection coordination, transformer sizing and switchgear must be specified.
- Fire & safety systems: suppression, compartmentalisation and egress must scale with the installation size and local regulations.
- Commissioning & testing: staged commissioning, CT metering, and BMS/inverter integration checks are essential as capacity grows.
- O&M and monitoring: plan staffing, remote telemetry, spares and service contracts for multi-MWh systems.
Practical example — expansion path
Start: 5 racks × 23 kWh = 115 kWh (pilot for peak shaving and backup).
Phase 2: 20 racks × 23–44 kWh = 460–880 kWh (cover business growth).
Final: 60 racks × 88 kWh = 5.28 MWh (multi-hour backup and large-scale energy shifting).
Commercial & financial benefits of scaling
- Better peak reduction and demand management as capacity increases.
- Greater ability to shift load to low-tariff periods and capture solar generation.
- Improved resiliency and longer autonomous operation during outages.
- Phased CAPEX allows ROI tracking and expansion funding from energy savings.
Conclusion
In short: LBSA’s Rhino IntelliFlex HV is highly scalable. Individual racks are upgradeable from 23 kWh to 88 kWh, and up to 60 racks can be paralleled — yielding roughly **1.38 MWh to 5.28 MWh** of total installed energy. Ensure you specify both the **energy (kWh)** and **desired discharge power (kW)** so inverters, protection and site infrastructure are sized correctly as you grow.
Learn More
- LBSA Rhino IntelliFlex HV — Product Page
- Explore LBSA solutions for the Commercial Sector
- View Real Solar Projects by LBSA
- Download LBSA manuals & datasheets
