| 1 | Lithium Iron Phosphate Home Battery | Daily solar self-consumption and backup | 10–15 kWh | 8–13.5 kWh | 48–51.2 V DC | 80–90% | 90–95% | 4,000–8,000 cycles | 5–10 kW | High safety, long service life, and strong thermal stability | Higher initial cost than lead-acid systems |
| 2 | Modular Lithium Iron Phosphate Battery | Expandable homes, small offices, and multi-phase properties | 15–30 kWh | 12–27 kWh | 48–51.2 V DC or high-voltage stack | 80–90% | 90–95% | 4,000–8,000 cycles | 8–20 kW | Capacity can be expanded as energy demand increases | Requires compatible battery-management and inverter systems |
| 3 | High-Voltage Lithium Iron Phosphate Battery | Large homes, agricultural sites, and high-power backup | 20–50 kWh | 16–45 kWh | 150–600 V DC | 80–90% | 92–97% | 4,000–8,000 cycles | 10–30 kW | Lower current at higher power and efficient inverter integration | Installation and servicing require qualified professionals |
| 4 | All-in-One Solar Storage System | Residential solar, backup, and energy management | 10–30 kWh | 8–27 kWh | 48–450 V DC | 80–90% | 88–95% | 4,000–7,000 cycles | 5–15 kW | Battery, inverter, controls, and protection in one coordinated package | Less flexible when individual components need replacement |
| 5 | Lithium-Nickel-Manganese-Cobalt Battery | Space-constrained homes and high-energy-density installations | 10–30 kWh | 8–27 kWh | 48–400 V DC | 80–90% | 90–96% | 2,000–5,000 cycles | 5–20 kW | High energy density and compact physical footprint | Generally needs stronger thermal management than LFP chemistry |
| 6 | Lead-Acid AGM Battery Bank | Occasional backup, cabins, and budget-conscious installations | 5–20 kWh | 2.5–10 kWh | 12, 24, or 48 V DC | 40–50% | 70–85% | 500–1,200 cycles | 2–10 kW | Simple technology with broad availability and low upfront cost | Heavy, less efficient, and shorter-lived than lithium batteries |
| 7 | Lead-Acid Gel Battery Bank | Small off-grid systems and low-maintenance backup | 5–20 kWh | 2.5–10 kWh | 12, 24, or 48 V DC | 40–50% | 70–85% | 600–1,500 cycles | 2–10 kW | Sealed construction and low routine maintenance requirements | Charging must be carefully controlled to prevent reduced service life |
| 8 | Commercial Lithium Iron Phosphate Rack System | Retail stores, offices, workshops, and peak-demand reduction | 50–200 kWh | 40–180 kWh | 400–800 V DC | 80–90% | 90–95% | 4,000–8,000 cycles | 25–100 kW | Scalable rack architecture with strong safety characteristics | Needs space, fire-safety planning, and professional commissioning |
| 9 | Containerized Lithium Battery Energy Storage System | Factories, logistics facilities, microgrids, and renewable integration | 500 kWh–5 MWh | 400 kWh–4.5 MWh | 600–1,500 V DC | 80–90% | 85–95% | 4,000–8,000 cycles | 250 kW–2.5 MW | Large capacity, integrated monitoring, and rapid deployment | Requires engineered site infrastructure and substantial capital investment |
| 10 | Flow Battery System | Long-duration commercial storage and renewable firming | 100 kWh–10 MWh+ | 80–95% of nominal capacity | System-dependent DC voltage | 80–100% | 65–85% | 10,000–20,000+ cycles | 50 kW–5 MW+ | Very long cycle life and independent power-to-energy sizing | Larger footprint and lower efficiency than most lithium systems |