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KERLOUD_FLYINGROVER
  • Kerloud Flying Rover Main Page
  • 📗User Guide
    • Introduction
    • System Overview
    • Hardware Options
      • Scorpion Options
      • Falcon Options
    • Gallery
    • Quick Start
    • Application Programming Interface
    • Tutorials
      • Powering and Programming Interface
      • Mission Management via Qgroundcontrol Software
      • Offboard Control Example (ROS C++)
      • Offboard Control Example (ROS python)
      • Indoor SLAM with a Laser Scanner
      • Autonomous Indoor Localization with a Tracking Camera
      • Virtual Simulation
    • Video Instructions
  • 📘使用说明
    • 介绍
    • 系统总览
    • 硬件选项
      • Scorpion系列
      • Falcon系列
    • 展示区
    • 快速启动
    • 应用程序接口 (API)
    • 使用教程
      • 供电和编程界面
      • 地面站任务管理
      • Offboard Control 例程 (ROS C++)
      • Offboard Control 例程 (ROS python)
      • 室内激光SLAM
      • 基于跟踪摄像头的自主室内定位
      • 虚拟仿真空间
    • 视频指导
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  • Hardware Components
  • System Schematics

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  1. User Guide

System Overview

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Last updated 2 years ago

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Hardware Components

The Kerloud flying rover is a hybrid platform combining a multirotor UAV (Unmanned Aerial Vehicle) and a rover, and the first configuration can be viewed as a tricopter rover. Here we take the scorpion series as an example, and main components are depicted in the figure below:

  • Kerloud autopilot and GPS: the core unit for flight stabilization and rover maneuvering.

  • Steering servo: a high torque servo unit responsible for rover steering operation.

  • Brushless motor: the propulsion unit for flight in the multicopter mode.

  • Rover motor: the main motor for rover propulsion.

  • Motor driving board: the driving unit for the main motor that accepts an PWM signal input from the autopilot.

  • Telemetry: the communication device connecting the onboard autopilot with a ground control station.

  • Tilt motor mechanism: a mechanism at the rear responsible for yaw torque generation.

System Schematics

A typical schematics for the flying rover system can be presented as:

An onboard computer can be employed as a companion computer for high level application development. The Kerloud autopilot generates control signals for low level actuators. The methodology behind this setup is the same with that from the PX4 community.

📌 Details for the Kerloud autopilot can be found in

📌 Details for the PX4 companion computer setup can be found in

📗
http://cloudkernel-tech.gitee.io/kerloud-autopilot
https://docs.px4.io/master/en/companion_computer/pixhawk_companion.html