Design and implementation of attitude stabilization on Ganefly flapping wings micro aerial vehicle using Paparazzi

M. A. Nugroho, A. Sepri, R. Benyamin, B. Trilaksono, Agoes Moelyadi
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引用次数: 2

Abstract

Flapping Wings Micro Aerial Vehicle (FWMAV) is developed from MAV (Micro Aerial Vehicle) technology, which uses flapping wing mechanism to fly rather than rotors. MAV itself is a branch of UAV (Unmanned Aerial Vehicle) technology, and focuses on minimizing size and weight of the aircraft. Ganefly is an FWMAV with capability to fly autonomously based on GPS readings and waypoints input from the user. This autopilot system works in conjunction with other parts of the control systems in Ganefly, which also includes attitude stabilization system. Ganefly uses yaw control loop for horizontal attitude stabilization, because Ganefly does not use aileron to control roll, unlike usual aircrafts. The stabilization system is implemented using standard PID control and Paparazzi UAV firmware, on a Lisa/S autopilot board. Testing for stabilization system was done in Manual and Stabilization mode, and testing for autopilot mode was done in Autopilot mode. Results gathered from testing indicate that Ganefly in its flight is not horizontally stable in both Manual and Stabilization mode, and thus was not able to be tested on Autopilot mode.
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基于Paparazzi的Ganefly扑翼微型飞行器姿态稳定设计与实现
扑翼微型飞行器(FWMAV)是在微型飞行器(MAV)技术的基础上发展起来的,利用扑翼机构代替旋翼进行飞行。MAV本身是无人机(UAV)技术的一个分支,其重点是最小化飞机的尺寸和重量。Ganefly是一种FWMAV,能够根据用户输入的GPS读数和航路点自主飞行。这种自动驾驶系统与Ganefly控制系统的其他部分一起工作,其中还包括姿态稳定系统。Ganefly使用偏航控制回路来稳定水平姿态,因为Ganefly不像普通飞机那样使用副翼来控制滚转。稳定系统在Lisa/S自动驾驶板上使用标准PID控制和Paparazzi无人机固件实现。稳定系统测试在手动和稳定模式下进行,自动驾驶模式测试在自动驾驶模式下进行。测试结果表明,Ganefly在手动和稳定模式下的飞行水平不稳定,因此无法在自动驾驶模式下进行测试。
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