MAPPING DRONE BATTERY
High-Voltage High-Rate Pouch Battery Solutions for Surveying, LiDAR Mapping & Industrial VTOL UAVs
PKNERGY Mapping Drone Battery Solutions
PKNERGY provides customized battery solutions for surveying, mapping, LiDAR applications, multispectral imaging, and professional fixed-wing VTOL UAVs. Designed around demanding propulsion loads, vertical takeoff power, and professional payload requirements, our battery solutions support reliable power delivery for diverse aerial mapping missions.
High-voltage high-rate pouch batteries are particularly suitable for mapping VTOLs and heavy-payload UAVs that require strong peak power during vertical takeoff, climbing, and maneuvering. Customized voltage, capacity, discharge capability, and pack configurations help match different aircraft platforms, installation spaces, and mission profiles.
For long-endurance fixed-wing mapping drones, battery selection may prioritize energy density, cruise efficiency, low self-discharge, and overall pack weight. PKNERGY can tailor battery configurations to the specific requirements of each platform, including power demand, flight duration, environmental conditions, and battery monitoring.
● High-Voltage Power & High Discharge Capability
Powerful output for demanding mapping missions High-voltage high-rate pouch battery solutions support compatible UAV platforms with demanding power requirements, including vertical takeoff, climbing, and heavy-payload flight operations. Customized pack configurations help deliver the required current while matching the aircraft’s electrical system.
● Lightweight Design & Payload Optimization
Balance battery weight, endurance, and payload capacity Compact pouch-cell configurations help optimize battery weight and installation space. For professional mapping drones, the right balance of battery energy, discharge performance, and total system weight can help preserve useful payload capacity and flight efficiency.
● Reliable Power for Precision Mapping
Stable power delivery and dependable energy monitoring Stable power delivery supports propulsion systems and power-intensive mapping payloads throughout demanding missions. Application-specific battery monitoring and state-of-charge estimation can help operators plan flights, assess remaining energy, and maintain appropriate return-to-home reserves.
● Customized Battery Configurations
Flexible solutions for different mapping platforms PKNERGY supports customized voltage, capacity, continuous and peak discharge current, connectors, pack structures, and monitoring features. From lightweight fixed-wing mapping platforms to LiDAR-equipped VTOL drones, battery configurations can be tailored to the aircraft’s power system and operating conditions.
Battery Requirements for Different Mapping Applications
Lightweight Fixed-Wing Mapping Drone Battery Solutions
Battery Requirements
- High energy density to support extended surveying and mapping missions.
- Low self-discharge for reliable battery storage and scheduled field operations.
- Accurate state-of-charge (SOC) estimation to support flight planning and return-to-home decisions.
- Compact dimensions for integration into limited wing and fuselage compartments.
- Stable cruise power delivery with sufficient reserve for takeoff and climbing.
Recommended Battery Configuration
Voltage Platform: 4S–6S
Energy Range: 80–200 Wh
Cruise Current: 10–30 A
Takeoff / Climb Peak Current: 40–80 A
Recommended Battery Type: High-energy pouch battery or customized high-rate pouch battery, depending on the flight profile.
Design Priorities: High energy density, low self-discharge, accurate SOC monitoring, and wing-compartment integration.
VTOL Mapping Drone Battery Solutions
Battery Requirements
- High peak power for vertical takeoff, transition, and climbing.
- Efficient power delivery during fixed-wing cruise to balance takeoff performance and endurance.
- Secure battery locking and reliable electrical connections under vibration.
- Consistent performance across dual-battery configurations.
- Suitable battery monitoring and redundancy design for the aircraft’s electrical architecture.
Recommended Battery Configuration
Voltage Platform: 6S–12S
Battery Configuration: Single-pack or dual-pack system
Total Energy Range: 160–400 Wh
Cruise Current: 20–50 A
Vertical Takeoff Peak Current: 80–160 A
Recommended Battery Type: High-voltage high-rate pouch battery
Design Priorities: High peak power, cruise efficiency, battery redundancy, secure locking, and pack-to-pack consistency.
Long-Endurance Li-ion Fixed-Wing Mapping Drone Battery Solutions
Battery Requirements
- High watt-hour-per-kilogram performance to extend flight time while controlling aircraft weight.
- Stable continuous output for long-duration cruise and mapping data collection.
- Carefully matched cylindrical cells for consistent capacity and electrical performance.
- Thermal management and cold-weather considerations for extended outdoor missions.
- Sufficient remaining battery energy for return-to-home and unexpected flight conditions.
Recommended Battery Configuration
Voltage Platform: 6S–12S
Energy Range: 300–1,000 Wh
Continuous Discharge Current: 20–60 A
Peak Discharge Current: 80–140 A
Recommended Battery Type: High-energy cylindrical Li-ion battery pack; alternative chemistries and pouch configurations can be evaluated against the flight profile.
Design Priorities: High Wh/kg, cell matching, thermal management, low-temperature performance, and return-to-home energy reserves.
LiDAR / Heavy-Payload Mapping VTOL Drone Battery Solutions
Battery Requirements
- High peak current capability for vertical takeoff and climbing under heavy payload conditions.
- Reliable continuous power for propulsion systems and demanding LiDAR mapping missions.
- Suitable payload power interfaces where required by the aircraft architecture.
- Accurate SOC monitoring to improve flight planning and remaining-energy estimation.
- Secure battery mounting and vibration-resistant pack integration.
- Dual-battery configurations where supported by the aircraft’s electrical and safety design.
Recommended Battery Configuration
Voltage Platform: 8S–12S
Energy Range: 300–800 Wh
Continuous Discharge Current: 50–120 A
Peak Discharge Current: Up to 180 A, subject to validation
Recommended Battery Type: High-voltage high-rate pouch battery
Design Priorities: Vertical takeoff power, heavy-payload support, payload power integration, dual-battery compatibility, SOC accuracy, and vibration resistance.
Multispectral / Agricultural Mapping Drone Battery Solutions
Battery Requirements
- Stable propulsion power for repeatable surveying and agricultural monitoring missions.
- Suitable power interfaces for multispectral cameras and agricultural sensors.
- Consistent battery performance across repeated flights and scheduled data collection.
- Consideration of low-temperature operating conditions during outdoor operations.
- Consistent pack specifications across production batches for fleet deployment.
Recommended Battery Configuration
Voltage Platform: 4S–8S
Energy Range: 100–300 Wh
Continuous Discharge Current: 20–70 A
Recommended Battery Type: High-rate pouch battery or high-voltage high-rate pouch battery, depending on the propulsion platform.
Design Priorities: Sensor power integration, repeatable mission performance, low-temperature operation, and batch consistency.
High-Altitude / Cold-Climate Mapping Platform Solutions
Battery Requirements
- Cold-weather performance suited to the intended operating temperature range.
- Battery preheating or thermal management where required by the cell specification.
- Power-system sizing that accounts for increased propulsion demand under high-altitude operating conditions.
- Altitude-related current and power derating based on validated battery and aircraft performance.
- Accurate SOC monitoring and sufficient energy reserves for safe return-to-home.
Recommended Battery Configuration
Voltage Platform: 6S–12S
Energy Range: 150–600 Wh
Continuous Discharge Current: 30–100 A
Peak Discharge Current: To be determined after altitude and temperature derating validation
Recommended Battery Type: Customized high-rate pouch battery or high-voltage high-rate pouch battery, selected according to the platform’s power requirements.
Design Priorities: Low-temperature preheating, altitude-related power derating, thermal management, SOC accuracy, and flight-energy reserves.
Dual 99 Wh Travel-Friendly Mapping Platform Solutions
Battery Requirements
- Two independent 99 Wh smart battery packs, subject to the aircraft’s electrical design.
- Accurate fuel-gauge reporting for battery status and remaining-energy estimation.
- Secure locking mechanisms and connection detection to reduce the risk of improper installation.
- Pack-to-pack consistency and coordinated monitoring during dual-battery operation.
- Battery transport and airline carriage arrangements must comply with the applicable carrier rules and regulations.
Recommended Battery Configuration
Battery Configuration: 2 × 99 Wh smart battery packs
Energy per Pack: 99 Wh
Continuous Discharge Current: 25–50 A per pack
Recommended Battery Type: Customized smart pouch battery pack, subject to voltage and system requirements.
Design Priorities: Dual-pack redundancy where supported, airline transport compliance, locking detection, fuel-gauge accuracy, and pack consistency.
High-Voltage High-Rate Pouch UAV Battery Specifications
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