EV-PEAK provides drone and UAV charging solutions for professional applications including agriculture, industrial operations, heavy-lift platforms and multi-battery fleet workflows.
Start with your application and actual removable battery pack, then evaluate cell count, battery capacity, chemistry, charging current, smart-battery or BMS requirements, battery quantity, turnaround and site power before selecting a charging platform.
Different drone operations can require very different battery and charging architectures. Explore EV-PEAK charging directions by application, battery platform and operating workflow.
Charging solutions for spraying, spreading, seeding, orchard operations and larger agricultural UAV platforms, covering conventional and smart batteries across different voltage ranges and battery-rotation workflows.
Priority Solution
Charging architectures for inspection, mapping, surveying, LiDAR, utilities, construction, mining and other professional UAV operations.
Charging directions for cargo, logistics, industrial lifting, large agriculture and other high-energy battery platforms.
Charging workflows designed around battery pools, simultaneous or sequential charging, pack rotation and required turnaround.
Engineering support for projects where battery, BMS, communication, charging logic, connector requirements and charger integration must be evaluated together.
A professional drone charging solution should be selected from the actual battery and operating workflow, not from aircraft name or cell count alone. Start with the mission, identify the removable battery pack, then confirm the electrical, battery-management and turnaround requirements.
Identify the mission, aircraft type and operating environment, such as agriculture, inspection, mapping, heavy-lift or fleet operations.
Confirm the removable battery pack that will actually be charged, including cell count, capacity, chemistry and maximum charging voltage.
Determine whether the battery is conventional or smart, whether balance charging is required, and whether BMS or communication integration is involved.
Check the battery manufacturer’s maximum permitted charging current or C-rate before comparing charger current and power capability.
Confirm packs per aircraft, battery pool size, simultaneous or sequential charging needs and the required battery turnaround during operation.
Compare supported battery range, channel architecture, charging current, smart-battery capability and site power only after the battery and workflow requirements are clear.
Important: Aircraft system voltage is not always the same as the voltage of the removable battery pack that must be charged. Charger selection should be based on the actual battery pack and charging requirement.
EV-PEAK charging platforms cover different professional workflows, from single-battery charging to multi-battery balance charging, smart-battery fleet turnaround and high-voltage charging. The right architecture depends on the actual battery pack and operating requirement rather than charger power alone.
For operations where one battery is charged at a time and additional channels are not required.
Typical direction: U1+
For professional UAV operations that require two independent charging channels and straightforward two-battery workflows.
Typical directions: U4, U4-HP
For projects using batteries with different capacities or charging-voltage requirements where adjustable current and charging parameters are important.
Typical direction: U4 Neo
For operations that keep multiple batteries connected and manage charging in sequence as part of a larger battery-rotation workflow.
Typical directions: U4-HP + UB4-Pro, U5+ + UB5PRO
For professional agricultural and industrial UAV operations that need simultaneous balance charging of multiple conventional LiPo or LiHV battery packs.
Typical direction: UD1
For smart-battery operations where multiple batteries must be returned to service quickly, including fleet and continuous UAV workflows. Conventional balance charging is supported on up to two channels.
Typical direction: U6Q
For higher-voltage UAV battery platforms where supported cell range, battery type, BMS communication and charging architecture must be evaluated together.
Typical directions: UD2, UD4, UD2-100
For high-energy smart-battery platforms where battery turnaround and available site power become central parts of the charging-system design.
Typical direction: M2
These are representative charging directions, not an automatic compatibility table. Battery voltage, chemistry, charging limits, connectors, BMS requirements and operating workflow must still be confirmed for each project.
Use these technical guides to evaluate battery voltage, charging current, smart-battery architecture, BMS communication and charging workflow before selecting a drone charging platform.
Learn how to evaluate a 14S battery by actual pack architecture, chemistry, maximum charging voltage, permitted charging current, smart-battery requirements and charging workflow.
Learn how to evaluate higher-voltage UAV battery platforms by cell count, charging voltage, charging current, smart-battery architecture, BMS communication and operating workflow.
Send us your battery specifications and operating requirements. EV-PEAK can help evaluate the battery platform, charging architecture, channel requirements, BMS communication and battery-turnaround needs before recommending a charging direction.
To help us understand your project, provide as much of the following information as available:
A battery datasheet, BMS specification or connector drawing can help us evaluate the charging requirement more accurately.
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