3.2V 10000mAh 30C High-Rate LiFePO4 Pouch Cell for Custom Packs (Model: LF12078156)
Ultra-high-drain 3.2V 10000mAh 30C LiFePO4 pouch cell (Model: LF12078156, Approx. 260g) delivering 300A continuous discharge with superior thermal stability and 2000+ cycles for custom drone and racing power systems.
B2B Engineering Review & Pricing
Direct manufacturer supply, custom BMS telemetry, and CAD fit validation for OEM/ODM projects.
Product Details
The 3.2V 10000mAh 30C High-Rate LiFePO4 Pouch Cell for Custom Packs (Model: LF12078156) is a professional-grade high-reliability Lithium Iron Phosphate (LiFePO4) solution delivering a verified 3.2V nominal working voltage and 10,000mAh rated capacity with a continuous discharge capability of 30C. Formulated with intrinsically stable lithium iron phosphate (LiFePO4) chemistry, this cell delivers superior thermal runaway resistance, extended cycle endurance (>2,000 cycles at 80% DoD), and a flat 3.2V discharge plateau for energy storage systems, AGVs, and mission-critical backup power.
Product Overview
The 3.2V 10000mAh 30C High-Rate LiFePO4 Pouch Cell (Model: LF12078156) is an industrial high-discharge electrochemical cell designed for extreme-safety racing applications, custom multi-rotor packs, and high-current starter systems. Combining the inherent non-flammable safety of lithium iron phosphate chemistry with an ultra-high 30C continuous discharge rate (300A continuous), this 32Wh cell delivers rapid energy output without thermal runaway risks across 2,000+ deep cycles.
Product Specifications
| Feature / Attribute | Technical Specification |
|---|---|
| Model & Chemistry | LF12078156 / LiFePO4 (Lithium Iron Phosphate) |
| Nominal Voltage & Capacity | 3.2V / 10000mAh (32.0Wh) |
| Continuous Discharge Rating | 30C Continuous (300A) |
| Peak Burst Discharge Rating | 50C Peak Pulse (≤ 10s, 500A) |
| Physical Dimensions & Weight | Approx. 12.0 × 78.0 × 156.0 mm / Approx. 260g |
| Charge Cutoff / Discharge Cutoff | 3.65V ± 0.05V / 2.00V ± 0.10V |
| Internal AC Resistance | ≤ 1.2 mΩ (@ 1kHz) |
| Cycle Endurance | ≥ 2,000 Cycles (@ 1C/10C, 80% DoD) |
Integration & Operational Boundary Conditions
Operating Temperature Envelope: Standard charge operating range is 0°C to 45°C; continuous discharge operating range is -20°C to 60°C. Long-term storage target should be maintained at 3.25V–3.30V per cell (approx. 40%–50% SoC for LiFePO4) in a dry, climate-controlled environment.
BMS Protection Architecture: Compatible with custom smart BMS integrations supporting CANbus 2.0B, SMBus, UART, and RS485 telemetry protocols. Factory cutoff thresholds protect against over-charge, over-discharge, short-circuit, and cell thermal runaway.
B2B Procurement & Lead Times: Available for wholesale OEM/ODM procurement. Typical prototype sampling takes 7–10 business days, with mass production scaling within 15–20 business days. Standard Class 9 dangerous goods export packaging and UN38.3 test summaries provided with every shipment.
Equipment Compatibility & Engineering Fit Check
Before deploying 3.2V 10000mAh 30C High-Rate LiFePO4 Pouch Cell for Custom Packs (Model: LF12078156), verify these verified electrical and mechanical boundary requirements:
Operational Boundary Conditions
✔ Recommended Fit & Use Cases:
- Industrial UAVs, FPV platforms, and robotics requiring rapid burst response at 3.2V.
- Flight missions needing high energy density and stable voltage plateaus under heavy payload draw.
- Applications demanding verified Class 9 / UN38.3 compliance for commercial field logistics.
⚠ Operational Constraints & Limits:
- Do not discharge below minimum cutoff voltage or charge beyond 3.65V.
- Maintain operational surface temperature within -20°C to +60°C discharge (0°C to +45°C charge).
- Ensure connector polarity and pin assignment match system schematics prior to initial power-up.
First-Party Manufacturing SOP & Export Compliance
Technical Whitepapers & Engineering Guides
6S vs 12S LiPo Battery for Drones: Voltage, Current, Weight, and Flight Time
Comprehensive engineering analysis on wiring resistive losses (I²R), ESC compatibility, and payload endurance trade-offs.
Drone Battery Capacity Guide: How Many mAh and Wh Does Your UAV Need?
Step-by-step formula to calculate power budget, payload weight, C-rate margins, and usable flight minutes.
LiPo vs Li-ion Battery for Drones: Which Is Better for Commercial UAVs?
Gravimetric energy density vs burst discharge rate comparison for mapping, survey, and delivery multirotors.
