Frequently Asked Questions

Our semi-solid state battery cells achieve 280 to 440 Wh/kg at the pouch cell level, depending on chemistry (including High-Nickel Si-C, Mid-Ni NMC, and NMC-LCO). At the pack integration level, practical energy density spans 230 to 290+ Wh/kg depending on thermal management, enclosure ruggedness, and BMS telemetry requirements. Compared to standard 4.2V/4.35V LiPo batteries (typically 180–220 Wh/kg), this yields a 35% to 50%+ extension in airborne flight endurance under identical UAV takeoff weight limits.

Our drone battery platforms are divided into high-energy-density long-endurance series (3C–5C continuous, 5C–10C burst) and high-discharge series (7C–10C continuous, with instant peak bursts up to 25C–30C for 3 to 10 seconds). This ensures dependable power delivery for high-thrust vertical takeoff, aggressive wind-resistance counter-thrust, and emergency climbing maneuvers.

Standard semi-solid packs support 0.5C to 1C normal charging for optimal cycle longevity. For mission-critical commercial workflows (such as agricultural spraying or corridor mapping), our fast-charge cell variants support up to 2C to 3C charging, replenishing 20% to 80% State of Charge (SOC) in approximately 18–25 minutes when paired with temperature-controlled charging stations.

Our standard operational temperature range is 0°C to +45°C for charging, and -20°C to +60°C for discharge. Benefiting from our solid-liquid hybrid electrolyte and high ionic conductivity, discharge capacity retention exceeds 80% at -20°C with stable voltage output, preventing sudden voltage dropouts in winter survey missions. For arctic or high-altitude operations below -20°C, self-heating BMS pads or specialized wide-temperature formulations are available upon request.

Cycle life depends on duty cycle and discharge severity. Under typical commercial drone operations (0.5C charge / 2C–3C discharge at 25°C), our packs deliver 300 to 500 complete cycles to 70%–80% remaining capacity. For moderate cruising duty (such as pipeline surveillance or fixed-wing patrol), our long-cycle cell variants deliver 500 to 800+ cycles when adhering to recommended 20%–90% SOC operating guidelines.

Conventional LiPo batteries use volatile organic liquid solvents that easily vaporize and catch fire upon mechanical puncture or overcharging. Our semi-solid architecture replaces bulk volatile liquids with a solid polymer-gel network and ceramic-coated high-temperature separators. In standard nail penetration, crush, and overcharge safety qualification, the cells suppress thermal runaway propagation with zero open flame or explosion.

Yes. Our battery packs operate on industry-standard voltage architectures (nominal 3.7V/cell or 3.75V/cell, up to 3.95V nominal for specific chemistries), making them fully compatible with standard CC/CV intelligent drone charging systems. Our smart BMS modules provide CANbus, DroneCAN/UAVCAN, SMBus, and UART communication protocols natively supported by open-source autopilots (PX4, ArduPilot) and proprietary industrial flight controllers.

Each integrated battery system features an industrial/automotive-grade Smart BMS providing real-time cell-level voltage monitoring and balancing, multi-point temperature sensing across both cells and power MOSFETs, over-current/over-discharge protections, hardware-level short-circuit isolation, and high-precision State of Charge (SOC) and State of Health (SOH) telemetry output.

We provide complete turnkey battery engineering tailored to your airframe mechanical bay and payload power budget: standard platform configurations include 6S, 12S, 14S, and 18S (10Ah to 40Ah+), with higher-voltage series (up to 24S) or multi-parallel packs customizable on demand; custom structural enclosures (flame-retardant UL94-V0 PC/ABS, CNC aviation aluminum, or carbon fiber); terminal connectors (AS150, AS150U, XT90-S anti-spark, QS8, Anderson); and IP65/IP67 environmental ingress sealing.

Following 3D CAD envelope confirmation and electrical specification sign-off, bespoke prototype packs are typically fabricated, tested, and shipped in 15–20 business days. For volume mass production orders, standard lead times range from 3 to 5 weeks depending on custom tooling, batch size, and scheduled production runs.

For initial engineering validation, bench testing, and flight trials, we support prototype sample batches starting from 2 to 4 packs. For bespoke OEM series production involving custom injection tooling, proprietary BMS firmware builds, or custom wire harnesses, standard production MOQ starts at 20–50 packs depending on engineering complexity.

Our semi-solid cells and production facilities are fully compliant with major global standards, holding UN38.3 (air/sea transport safety), MSDS, CE, FCC, RoHS, UL1642, BIS, and ISO9001 Quality Management System certifications. Detailed test reports and DG transport declarations are supplied with all customer shipments.

All high-capacity battery shipments are handled strictly in compliance with IATA/ICAO and IMO dangerous goods regulations via certified Class 9 freight forwarders. We offer door-to-door DDP air and sea shipping services with comprehensive hazardous packaging, customs clearance, and insurance to North America, Europe, Australia, and Southeast Asia.