PKNERGY | Advanced UAV Battery Technology

Semi-Solid-State UAV Batteries for Long-Endurance Drone Platforms

In professional UAV applications, battery performance directly influences flight endurance, payload capacity, mission efficiency, and overall aircraft capability. PKNERGY develops high-energy-density semi-solid-state UAV batteries for drone manufacturers, UAV OEMs, and specialized aerial projects seeking advanced power solutions.

With energy density specifications of up to 450Wh/kg, capacities from 36Ah to 60Ah, and multiple voltage configurations, our semi-solid-state battery series supports long-endurance multirotors, agricultural drones, mapping platforms, industrial inspection UAVs, cargo drones, and VTOL aircraft. Custom battery design is also available to match specific flight profiles and aircraft integration requirements.

PKNERGY High Energy Density Semi-Solid-State UAV Battery

PKNERGY High Energy Density Semi-Solid-State UAV Battery

1. High Energy Density for Extended Flight Endurance

Semi-solid-state battery technology uses a semi-solid electrolyte approach to battery design. Combined with high-specific-energy cell chemistry, it provides a development pathway for UAV power systems where energy density, weight, and available installation space are critical.

PKNERGY’s semi-solid-state UAV battery series offers cell energy density specifications of up to 450Wh/kg. Higher specific energy can help aircraft designers optimize the balance between battery weight, onboard payload, and mission duration. Actual flight endurance depends on aircraft weight, propulsion efficiency, flight conditions, and mission profile.

ENERGY DENSITY

450Wh/kg

Up to the specified cell-level energy density

CAPACITY OPTIONS

36–60Ah

Multiple capacity configurations

VOLTAGE OPTIONS

4S–14S

For different UAV power architectures

2. Designed Around UAV Flight Performance

Selecting a UAV battery requires more than matching voltage and capacity. Battery discharge capability, power-to-weight ratio, peak current, and aircraft power consumption all influence flight performance.

Flight Endurance

Higher specific energy can help increase available onboard energy and support longer mission duration.

Discharge Performance

Continuous discharge ratings of 2C support defined propulsion and onboard power requirements.

Payload Optimization

Battery weight and dimensions can be evaluated alongside payload capacity and aircraft structural limits.

Power Integration

Voltage, current, connectors, BMS, and power interfaces can be considered during UAV integration.

3. UAV Applications & Compatible Drone Platforms

PKNERGY semi-solid-state UAV batteries are developed for professional drone applications where flight endurance, payload requirements, and battery integration are key design considerations.

Mapping & Surveying UAVs

For aerial surveying, photogrammetry, LiDAR mapping, and geospatial data collection. Battery capacity and weight can be optimized for extended flight missions and sensor payload integration.

Agricultural & Spraying Drones

For crop spraying, precision agriculture, and field operations. Battery selection should account for takeoff weight, liquid payload, motor demand, discharge current, and repeated flight cycles.

Industrial Inspection UAVs

For power line inspection, infrastructure monitoring, energy facilities, and industrial asset inspection. Long-endurance battery configurations help support mission planning and onboard equipment operation.

Cargo UAVs & Heavy-Lift Multirotors

For logistics drones and heavy-payload multirotor platforms. Higher-capacity battery options can be evaluated against thrust requirements, takeoff weight, payload, and peak power demand.

VTOL & Long-Endurance UAVs

For vertical takeoff and landing aircraft and other long-endurance UAV platforms. Battery design should consider transition flight, propulsion load, cruise power, and aircraft energy management.

Semi-Solid-State UAV Battery for Mapping Agriculture Inspection and VTOL Drones

Semi-solid-state battery solutions for professional UAV platforms

4. Semi-Solid-State UAV Battery Specifications

PKNERGY offers 36Ah, 40Ah, and 60Ah semi-solid-state UAV battery options across multiple series configurations. The following reference models cover different aircraft voltage platforms and payload requirements.

Cell Model Voltage Capacity Configuration Continuous Current Peak Current Weight Cycle Life
10975175GSH2 14.8V 36Ah 4S1P 72A 180A 1.15kg ≥200
10975175GSH2 22.2V 36Ah 6S1P 72A 180A 1.90kg ≥200
10975175GSH2 29.6V 36Ah 8S1P 72A 180A 2.50kg ≥200
10975175GSH2 44.4V 36Ah 12S1P 72A 180A 3.80kg ≥200
9587191GSH2 14.8V 40Ah 4S1P 80A 200A 1.40kg ≥150
9587191GSH2 22.2V 40Ah 6S1P 80A 200A 2.10kg ≥150
9587191GSH2 29.6V 40Ah 8S1P 80A 200A 2.80kg ≥150
9587191GSH2 44.4V 40Ah 12S1P 80A 200A 4.25kg ≥150
9587191GSH2 51.8V 40Ah 14S1P 80A 200A 5.00kg ≥150
93121220GSH 14.8V 60Ah 4S1P 120A 300A 3.30kg ≥100
93121220GSH 22.2V 60Ah 6S1P 120A 300A 3.30kg ≥100
93121220GSH 29.6V 60Ah 8S1P 120A 300A 3.30kg ≥100
93121220GSH 48.1V 60Ah 13S1P 120A 300A 3.30kg ≥100

Reference specifications based on supplied product data. Peak discharge current is rated for up to 15 seconds. Cycle life and performance depend on test conditions and actual operating profiles. Confirm final specifications before integration.

5. Custom UAV Battery Design & OEM Integration

Every UAV project has different electrical, mechanical, and flight-performance requirements. PKNERGY supports custom semi-solid-state battery development for drone manufacturers, UAV OEMs, system integrators, and project developers.

Customization can cover:

  • Voltage platform and series configuration (4S, 6S, 8S, 12S, 14S, and project-specific designs).
  • Battery capacity, energy requirements, and discharge current.
  • Battery dimensions, enclosure structure, and aircraft mounting interface.
  • Power connectors, wiring harness, and output interface.
  • BMS functions, voltage and temperature monitoring, and communication requirements.
  • Integration considerations for ESC, flight controller, charger, and onboard power systems.

From prototype development and engineering validation to customized battery packs for production programs, PKNERGY works with customers to align battery design with aircraft specifications and mission requirements.

6. How to Select a Battery for Your UAV Project

A suitable UAV battery must match the aircraft’s propulsion system and intended mission. During battery selection, engineering teams should evaluate:

1

Aircraft Voltage & Propulsion

Confirm the battery voltage range and compatibility with motors, ESCs, and power distribution systems.

2

Flight Time & Energy Consumption

Estimate mission energy demand, reserve capacity, hover time, and cruise power consumption.

3

Payload & Takeoff Weight

Evaluate battery mass against payload capacity, maximum takeoff weight, and aircraft balance.

4

Discharge Rate & Peak Power

Check continuous C-rate, peak discharge current, acceleration demand, and motor load.

5

Battery Integration & Safety

Verify BMS protection, connectors, mounting, temperature limits, and charging compatibility.

7. Why Choose PKNERGY for UAV Battery Projects?

PKNERGY focuses on application-oriented lithium battery development, providing UAV customers with battery options that address energy density, electrical performance, and aircraft integration.

High-Energy Battery Options

Multiple high-specific-energy battery models for endurance-focused UAV platforms.

Multiple Voltage Platforms

Battery configurations for different aircraft electrical architectures.

Custom Engineering

Project-oriented battery design for OEMs and specialized UAV applications.

8. Frequently Asked Questions

What is a semi-solid-state UAV battery?

It is a lithium battery developed using a semi-solid electrolyte approach. In UAV applications, high-specific-energy designs can help address aircraft weight and endurance requirements.

Can PKNERGY customize batteries for different drone platforms?

Yes. Battery voltage, capacity, dimensions, connectors, wiring, and BMS requirements can be evaluated according to the aircraft design and project specifications.

Can a higher energy density increase UAV flight time?

Higher specific energy can increase available battery energy at a given battery mass. Actual flight time also depends on propulsion efficiency, payload, aircraft weight, weather, and mission profile.

What information is needed for a custom UAV battery quotation?

Useful information includes target voltage, capacity, continuous and peak current, battery dimensions, weight limits, connector type, aircraft model, and intended flight mission.

PKNERGY UAV Battery Solutions

Building Your Next UAV Platform?

Whether you are developing a mapping drone, agricultural UAV, industrial inspection platform, cargo drone, or VTOL aircraft, PKNERGY can help evaluate a suitable semi-solid-state battery solution for your project.


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