Simulations and Flight Test of AR. Drone Quadrotor using Lab VIEW

F. Raheemah, M. Hussein
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Abstract

Quadrotors are unmanned aerial vehicles capable of vertical takeoff, hovering, and landing. The quadrotor is distinguished by its small size, flexibility, and maneuverability. The small sensors and actuators used in these systems are effective enough in comparison with the larger systems. Quadrotor dynamic modeling was derived using the Newton-Euler formalization including aerodynamic effects. Also, a dynamic model has been identified that accurately describes the behavior of the quadrotor and can be applied to comparable configurations of multiengine aerial vehicles. The dynamic model and controllers (where used PID controller) established on the quadrotor. That are considered to be a trustworthy foundation for further complex applications. as well, this article outlines the technique of identifying and controlling a Parrot AR. Drone in a closed loop. The goal of the research is to establish position control movement of quadrotor (AR. Drone) by using the program LabVIEW. Here, the quadrotor will be controlled in two ways by using the joystick and the use of the keyboard. AR. Drone has been shaped in the hover path. The simulation results showed the correct path tracking and the success of the proposed controller unit by using MATLAB/SIMULINK. While the laboratory results showed the efficiency of using the LabView program in controlling this type of quadrotor.
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基于Lab VIEW的AR无人机四旋翼仿真与飞行试验
四旋翼飞行器是一种能够垂直起飞、悬停和着陆的无人驾驶飞行器。四旋翼飞行器的特点是体积小、灵活、机动性强。与大型系统相比,这些系统中使用的小型传感器和执行器足够有效。采用牛顿-欧拉形式化方法建立了包含气动效应的四旋翼动力学模型。此外,已经确定了一个动态模型,准确地描述了四旋翼飞行器的行为,可以应用于多引擎飞行器的可比配置。在四旋翼飞行器上建立了动力学模型和控制器(其中采用PID控制器)。它们被认为是进一步复杂应用程序的可靠基础。此外,本文还概述了在闭环中识别和控制鹦鹉AR无人机的技术。研究的目的是利用LabVIEW程序建立四旋翼无人机的位置控制运动。在这里,四旋翼将通过使用操纵杆和键盘的使用两种方式进行控制。增强现实:无人机在悬停路径上被塑造。利用MATLAB/SIMULINK进行了仿真,结果表明所设计的控制单元路径跟踪正确,控制效果良好。而实验结果表明,使用LabView程序控制这种类型的四旋翼飞行器的效率。
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