InfiniteBlade X8
Quick Start Guide
Version 1.0 | Published: 2023.1
Introduction
The InfiniteBlade X8 is Aviation's latest reliable X8 Coaxial configuration multicopter. It is specifically designed for large payload systems, offering fast response performance for applications such as lidar mapping with high pitch angle mission flight, as well as cinematography. Each arm is user serviceable, foldable, and easily replaceable, contributing to straightforward maintenance. The InfiniteBlade X8 is powerful, reliable, efficient, and features mechanical redundancy.
Functions
InfiniteBlade X8 features:
- Compatible with any flight controller systems, such as DJI A3pro or Pixhawk PX4, or industrial/military grade autopilot systems.
- Payload interchangeable: It can swap payload systems easily, including lidar mapping systems, nadir oblique mapping cameras, and cinematography cameras (e.g., RED).
- Durable custom-made carbon fiber components with a built-in power redundancy system.
- Smart payload adapter that can be installed on the top or bottom of the Falcon X8.
Specifications
The drone's physical dimensions are illustrated. The diagram shows a motor-to-motor distance of 1570mm. The overall width (rotor tip to rotor tip) is approximately 2230mm, and the depth is approximately 1510mm. The height from the ground to the top of the drone is 976mm, with a ground clearance of 815mm.
| Parameter | Value |
|---|---|
| Motor to motor | 1500mm |
| Size after folded | 800x800x980mm |
| Actual size | 1080x1080x980mm |
| MAX takeoff weight | 45kg |
| Copter weight (no battery no payload) | 13kg |
| Max payload | 20kg |
| Endurance | 30-70 mins (depends on payload) |
| Operation temperature | -10°C to 40°C |
| Recommend batteries | 4 units 6S 22000mAh 30-50C Lipo Batteries |
| Landing gear | Custom made TXG350 |
| Max ASL | 4500 meter |
| Maximum Pitch angle | 30° |
| Flight Controller | A3 Pro or Pixhawk |
| Propulsion system | Custom |
Main Components
The primary components of the InfiniteBlade X8 are identified as follows:
- 1. GPS Port: Located centrally on the top frame, used for satellite navigation.
- 2. Arm folding and lock: Mechanisms on each of the eight arms that allow them to fold and be secured in place.
- 3. Datalink (left): A communication module positioned on the left side of the drone's main body.
- 4. DC Multi distribution hub: A unit for distributing power from the battery to various systems.
- 5. QS8 power connection: High-current connectors for power delivery.
- 6. Landing gear: The structure that supports the drone on the ground.
- 7. Indicators LED lights: Visual signaling lights for status indication.
- 8. Battery mount plate (adjustable): A platform for securing the battery, which can be adjusted.
- 9. Datalink (right): A communication module positioned on the right side of the drone's main body.
- 10. Connection ports: Various interfaces for connecting external devices or modules.
- 11. Arm folding lock 2: An additional or alternative mechanism for securing folded arms.
- 12. Landing gear slip ring: A component integrated into the landing gear assembly, potentially for power or data transfer.
- 13. Landing gear linkage: The connecting parts that form the landing gear structure.
- 14. Gimbal and payload adapter: A mount designed to attach cameras, gimbals, or other mission payloads.
- 15. PTZ shock absorber: Dampening elements to reduce vibrations for the Pan-Tilt-Zoom (PTZ) camera or gimbal.
- 16. FPV reserved board: A circuit board designated for First Person View (FPV) system integration.
- 17. PTZ data cables reserved port: Dedicated ports for data transmission to and from the PTZ system.
- 18. Flight Control Parameter Adjustment Port (USB-C)/F1-F8: An interface, likely USB-C, for configuring flight control parameters, possibly with additional F1-F8 connections.
Battery Installation and Locking
The diagrams illustrate the process of securing batteries and folding/locking the drone's arms. This involves placing batteries into their designated mounts and fastening them with straps and locking clips. The arm folding mechanism allows for compact storage and transport, with specific steps shown for engaging and disengaging the locks. The process ensures a secure connection for power and structural integrity.
Compass Calibration
Compass calibration is a critical step for accurate navigation. The process involves rotating the drone to allow its sensors to map the local magnetic field. The diagrams show two primary phases: first, a complete horizontal rotation of the drone, and second, a vertical rotation where the drone is pitched and rolled. These movements help the flight controller establish a precise heading reference.
