10-Inch AI-Guided FPV Drone Platform with Auto Flight Module - GEB Custom Engineering

GEB 10-Inch AI-Guided Industrial FPV Inspection Drone Platform with Auto Flight Module

Name: GEB 10-Inch AI-Guided Industrial FPV Inspection Drone Platform with Auto Flight Module
Brand: GEB
Price: 15.00 USD
Availability: PreOrder

Industrial 10-inch AI-guided inspection FPV drone platform (450mm wheelbase, 3.5kg payload, dual 6S battery bay) with auto-flight optical flow module for powerline and facility monitoring.

Industrial Drone Platforms & Tethered Systems

B2B Engineering Review & Pricing

Direct manufacturer supply, custom BMS telemetry, and CAD fit validation for OEM/ODM projects.

⚡ Send Inquiry 📄 Request Datasheet & Pinout

✔ Response target: Target response within 12 business hours during business hours; timing varies by inquiry complexity and working hours.

✔ Typical Lead Time: 7–10 business days for prototypes; 15–20 business days for mass production after final specification approval. Final timing is confirmed after tooling, testing, and order review.

✔ Shipping documentation: Applicable UN38.3 test documentation, MSDS/SDS, CE and Class 9 dangerous-goods requirements are confirmed per selected configuration and shipment.

Product Details

Direct Answer / Engineering Summary

The GEB 10-Inch AI-Guided Industrial FPV Inspection Drone Platform is an industrial unmanned aerial vehicle (UAV) airframe system engineered for infrastructure inspection, transmission line tracking, tunnel surveying, and tactical situational awareness. Featuring a rigid 450mm carbon fiber quadcopter frame powered by 3115 heavy-duty brushless motors and 10-inch high-efficiency propellers, this platform integrates an edge-AI computing module for real-time visual tracking, autonomous waypoint cruise, and auto-return telemetry. Designed with a dual battery tray supporting 6S 4500mAh–6000mAh battery packs, it carries payloads up to 3.5kg with operational flight times up to 25 minutes.

Engineering Overview

Product Overview

Constructed with 3K high-modulus carbon fiber arms and CNC aluminum brackets, this 10-inch inspection platform eliminates mechanical vibration during high-speed cruise and gusty environments (Level 6 wind resistance). The onboard flight controller integrates triple-redundant IMUs and optical flow LiDAR positioning for stable flight in GPS-denied environments such as culverts, indoor warehouses, and bridge piers.

Critical Parameters

Key Platform & Hardware Specifications

Feature	Technical Specification
Airframe Architecture & Wheelbase	10-inch Quadcopter Frame / 450mm Diagonal Wheelbase
Propulsion Power System	3115 900KV Brushless Motors + 60A 4-in-1 ESC + 10×4.5 Props
Max Takeoff Weight (MTOW) / Payload	MTOW 4.8 kg / Max Payload Capacity: 3.5 kg
Airframe Net Weight (without battery)	Approx. 1.25 kg ± 0.05 kg
Power Input Architecture	Dual 6S LiPo Battery Bay (22.2V–25.2V operating range)
AI Navigation & Autonomy Module	Edge-AI Optical Flow + LiDAR Rangefinder + Waypoint Cruise
Operational Endurance & Speed	15–25 min (Payload dependent) / Max Speed 110 km/h

Engineering Data

Technical Specifications

Parameter	Value	Test Conditions & Tolerances
Flight Controller Redundancy	Dual STM32H7 Core / Triple IMU damping	Operating firmware: ArduPilot / Betaflight
Environmental Wind Resistance	Class 6 (12 m/s continuous wind)	Tested at 100m AGL inspection altitude
Video Transmission / Telemetry	Digital HD Video (1080p 60fps) / 10km Range	5.8GHz / 2.4GHz dual-band anti-jamming
Recommended Battery Pairing	Dual 22.2V 6S 4500mAh–6000mAh 50C LiPo	XT90 connectors with balance telemetry
Operating Temperature Envelope	-10°C to +50°C (IP54 splash-resistant)	Industrial field qualification standard

Engineering Validation

Equipment Compatibility & Engineering Fit Check

Before deploying GEB 10-Inch AI-Guided Industrial FPV Inspection Drone Platform with Auto Flight Module, verify these verified electrical and mechanical boundary requirements:

☑

Voltage & Charge Cutoff: Nominal 22.2V - 25.2V (Dual 6S LiPo); confirm charger algorithm strictly matches this chemistry.

☑

Capacity & Energy Budget: Rated at Dual 6S 4500-6000mAh Bay; verify system run-time calculations under planned discharge currents.

☑

Physical Envelope: Specified at 450mm Wheelbase (Diagonal); allow 5–10mm buffer in battery tray for expansion and lead harness.

☑

Cycle Reliability: Verified for Industrial Airframe (MTBF ≥ 3,000 Flight Hours) under controlled DOD and thermal management.

💡 Custom Engineering Fit: Contact our Shenzhen engineering team to verify CAD models, custom wire leads, or BMS CANbus telemetry for this product.

Operational Suitability

Operational Boundary Conditions

✔ Recommended Fit & Use Cases:

Industrial UAVs, FPV platforms, and robotics requiring rapid burst response at 22.2V - 25.2V (Dual 6S LiPo).
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 rated limit.
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 Standards

First-Party Manufacturing SOP & Export Compliance

🏭 Automated Grading & Matching Cells classified via automated OCV/ACIR sorting (ΔV ≤ 2–3mV, ΔR ≤ 1.2mΩ) for tight pack balance.

🔬 Joint Integrity & Testing Laser or ultrasonic busbar welding with destructive pull test validation ≥ 5.0–8.0 kgf per terminal.

📦 Full Cycle Aging Verification 100% full charge-discharge cycle screening and thermal imaging prior to warehouse dispatch.

🌐 Export & Regulatory Clearance Supplied with certified UN38.3 test summaries, MSDS, 1.2m drop reports, and Class 9 DG shipping documentation.

Turnaround: 7–10 days prototypes; 15–20 days mass production per custom tooling requirements. View Verified Manufacturing Equipment & Testing Facility →

Decision Support

Technical Whitepapers & Engineering Guides

Selection Guide Read Guide →

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.

Engineering Calc Read Guide →

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.

Chemistry Comparison Read Guide →

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.

⚙ Engineering FAQ & B2B Procurement Specifications

What is the turnaround time for custom battery pack prototypes and mass production for GEB 10-Inch AI-Guided Industrial FPV Inspection Drone Platform with Auto Flight Module?

Custom prototype development typically requires 7 to 10 business days after CAD drawing approval and technical specification freeze. Commercial mass production turnaround is typically 15 to 20 business days. Standard OEM minimum order quantities (MOQ) start at 50 to 100 units depending on cell chemistry, custom mold tooling, and casing complexity.

Does GEB provide UN38.3 test summaries, MSDS, and Class 9 dangerous goods export compliance?

Yes. General Electronics Technology (GEB) provides complete first-party compliance verification for all industrial battery packs, including UN38.3 test reports, 1.2m drop test appraisal certificates, MSDS/SDS sheets, and certified dangerous goods packaging compliant with IATA air transport and IMDG maritime shipping regulations.

What smart telemetry protocols and BMS protection features are supported?

Our custom smart BMS architectures support industry-standard communication protocols including UAVCAN, CANbus 2.0B, SMBus, UART, and RS485. Integrated hardware protections include multi-tier over-voltage, over-discharge, continuous over-current, short-circuit, and dual-channel NTC thermal cutoff safeties with active cell balancing options.

What are the recommended continuous and peak burst discharge margins?

To maximize lifecycle endurance and electrochemical stability, we recommend designing with a 15% to 20% continuous discharge headroom margin under typical operating loads. Peak burst discharge ratings should strictly adhere to specified duration windows (typically ≤10 seconds) while ensuring pack operating temperatures remain below 65°C.