Global OEM delivery
Cell supply, pack engineering, BMS integration, production testing, and export documents are planned around each buyer's shipping country, application, and volume schedule.
Decide when lithium iron phosphate is the right chemistry—cycle life, thermal stability, predictable safety behavior, and lifetime cost—then continue with deep-cycle, ESS, or custom pack options.
These are chemistry-level review points. Concrete voltage, capacity, and enclosure options continue on deep-cycle, ESS, or Custom OEM pages.
LiFePO4 product entries
After chemistry selection is clear, continue with current 12V deep-cycle capacity products, 48V / 51.2V rack and wall-mounted ESS, lead-acid replacement fit, and custom LFP packs that still need design development.
Deep-cycle catalog
Current 12V 100Ah and 12V 200Ah deep-cycle capacity products for RV, marine, and backup projects.
Open 12V LiFePO4 deep-cycle batteries →ESS catalog
Server rack, wall-mounted, stacked, solar storage, UPS, and commercial ESS projects.
Open 48V / 51.2V ESS battery systems →Drop-in solution
Charger, terminals, bay fit, and voltage-platform compatibility review before capacity selection.
Open Lead-acid replacement fit review →Portable OEM module
Internal modules for portable power-station OEM hosts with inverter interface, BMS, and enclosure planning.
Open Portable power-station battery modules →Custom LFP packs
Custom OEM for 24V / 36V or other project-configured LFP packs that still need architecture, BMS, enclosure, or validation development.
Open Custom LiFePO4 pack design (OEM/ODM) →Global delivery and project documentation
Staricell plans cell supply, pack engineering, BMS integration, test records, and shipment documents around each shipping country, application duty cycle, certification target, and production schedule.
Cell supply, pack engineering, BMS integration, production testing, and export documents are planned around each buyer's shipping country, application, and volume schedule.
Project files can cover UN38.3, MSDS / SDS, shipment labels, test summaries, and documentation paths for CE, IEC, UL, RoHS / REACH, and other requirements.
Operating temperature, continuous / peak current, enclosure protection, connectors, chargers, communication interfaces, and field-service needs are reviewed before mass production.
Cell batch data, matching records, BMS settings, inspection results, and aging summaries can be aligned before sampling or pilot production.
LiFePO4 is often selected for longer cycle-life design targets (commonly planned around 2,000+ cycles, duty dependent), better thermal stability, safer chemistry with lower thermal runaway risk, and more predictable aging behavior compared with many other lithium chemistries. Final cycle life depends on cells, depth of discharge, temperature, and duty cycle.
Choose LiFePO4 when cycle life, thermal stability, and safety behavior matter more than maximum Wh/kg. Choose NMC or high-energy routes when weight and energy density dominate and the duty cycle accepts that tradeoff.
12V 100Ah / 200Ah deep-cycle products are in the deep-cycle catalog. 48V / 51.2V rack and wall-mounted systems are in the ESS catalog. This page focuses on chemistry selection.
LiFePO4 batteries can operate in cold environments with reduced available capacity. Low-temperature projects may need heating, insulation, or charge-current limits confirmed during pack design.
Project quote
Share voltage, capacity, application, quantity, target market, enclosure needs, and certification targets. Our team will map the pack architecture and quote path.