High-performance 25.6V lithium iron phosphate battery systems built for solar storage, off-grid power and professional energy projects where 12V current is too high and 48V is unnecessary.
Two 25.6V 200Ah configurations for wall-mounted or general solar-energy storage.
LiFePO4 Battery
The 25.6V 200Ah solar liFePO4 battery offers a high-capacity, compact, and efficient energy storage solution designed to meet the demands of solar energy systems for both reside…
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LiFePO4 Battery
This 24V 200Ah lithium ion battery pack is a high-performance deep cycle lithium battery designed for solar power storage, residential backup systems, RVs, marine use, and off-g…
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A 24V LiFePO4 battery is designed for a nominal 24V-class system. Many packs use eight LiFePO4 cells in series, giving approximately 25.6V nominal voltage.
Choose this architecture when a 12V system would draw excessive current but the intended load and inverter do not require a 48V battery bank. Common uses include medium off-grid solar, residential backup and custom energy projects.
Scale nominal energy while retaining a 24V-class system architecture.
Small off-grid loads, compact backup and solar systems.
Medium daily loads and custom equipment projects.
Residential solar, off-grid homes and larger backup.
Expandable storage where a 24V architecture must be retained.
Expansion support and maximum unit count depend on the selected model and BMS architecture.
At the same power, a 24V system draws roughly half the current of a comparable 12V system.
A 25.6V 200Ah configuration provides about 5.12kWh nominal energy.
Integrated monitoring helps manage charge, discharge, current and temperature limits.
Wall-mounted and project-oriented formats support different space and service requirements.
24V-class storage occupies the middle ground between compact 12V systems and higher-power 48V energy storage.
Medium household loads and targeted backup where a 24V inverter architecture is already selected.
Solar storage sized from daily energy use, autonomy and seasonal generation.
Selected field systems with compatible DC architecture, cabinet and environmental protection.
Parallel expansion is usually the direct route to more energy at the same system voltage; every method remains model-specific.
Keeps nominal voltage at 25.6V while increasing total amp-hours and energy.
Raises nominal voltage toward a 51.2V-class bank only when series connection is approved.
Requires balanced strings, matched protection and a documented design.
A typical eight-cell pack may charge to approximately 29.2V, but the exact product specification always takes priority.
Confirm the inverter accepts the battery's minimum, nominal and maximum voltage.
Use the battery manufacturer's specified charge voltage and lithium profile; do not rely on a generic value.
Coordinate BMS charge/discharge limits with inverter and solar-controller settings.
Check CAN or RS485 protocol compatibility where closed-loop control is required.
Size DC isolators, fuses, cable and grounding for the calculated current and fault level.
Select voltage from the DC architecture, inverter operating range and load current—not from energy capacity alone.
| Voltage class | Typical scale | Common fit | Design note |
|---|---|---|---|
| 12V / 12.8V | Small DC loads | Portable, compact and low-power systems | Higher current at equal power |
| 24V / 25.6V | Medium DC loads | Off-grid homes and mid-size backup | Lower current than 12V |
| 48V / 51.2V | Solar ESS | Home storage, telecom and larger systems | Efficient for higher-power loads |
Final selection must be checked against the exact battery, inverter, charger, cable and protection specifications.
Use the system definition and destination-market requirements to structure the inquiry.
Confirm inverter compatibility, protection, cabling and commissioning settings.
Position 24V battery options by capacity, enclosure and target application.
Align technical documentation, labels, interfaces, packaging and delivery with the project scope.
Eight LiFePO4 cells at about 3.2V nominal each produce approximately 25.6V. The market still commonly calls this a 24V-class battery.
Nominal energy is approximately 5.12kWh before accounting for operating limits, reserve, temperature and conversion losses.
24V can reduce DC current for the same power and is often practical for medium loads. Use the inverter architecture and cable-current calculations to decide.
Yes for models that explicitly support it. Match model, firmware, age and state-of-charge, and follow the stated maximum unit count.
Only if the specific batteries permit series operation and the inverter, BMS and protection design support the resulting voltage.
Use a lithium-compatible charger whose voltage and current settings match the exact battery datasheet. A generic 24V lead-acid profile may not be suitable.
Confirm specifications, communication protocol, approvals, warranty, technical files, packaging, MOQ, delivery and after-sales support for the intended market.
Share the system voltage, daily energy demand, inverter model, installation environment and required backup duration for a project-based recommendation.
