Avionic system design Unmanned Aerial Vehicle for disaster area monitoring

G. Nugroho, M. Satrio, Ali Ashar Rafsanjani, Ridho Ramadhan Trio Sadewo
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引用次数: 12

Abstract

Unmanned Aerial Vehicle (UAV) Technology grew very fast. UAV is an aircraft that do not require cabin crew or a crew to operate it. Many developing countries were competing to develop this technology in a particular mission. UAV was originally developed for military purpose. Nowadays, it developed for civil purposes, such as for disaster area monitoring. Disaster area monitoring with an UAV is well suited for dangerous area that could not be reached safely. This research intends to design and discuss avionics system in an UAV that is used for disaster area monitoring mission. The first step of this research was identifying priority avionic system components for the UAV. The avionic components then were interfaced with autopilot system of the UAV. The avionic system was then installed in the UAV airframe. Performance of the avionic designed was tested with flight test. Wireless telemetry with Ground Control Station (GCS) was used for communication with UAV. It displayed real-time data on the UAVs such as the position, ground speed, altitude, airspeed, navigation and could be served as a “virtual cockpit”, by showing many of the same instruments as a real plane. Ground Control Station (GCS) is able to be used to control a UAV in flight, uploading new mission commands and setting parameters. It also used to monitor the live video streaming from the UAV's cameras. UAV flew by following the waypoint while taking video and photo. The obtained flight data shown that the UAV was able to track the given waypoint and it also able to fly in stable condition.
无人机灾区监测航电系统设计
无人机(UAV)技术发展非常迅速。无人机是一种不需要机组人员或机组人员操作的飞机。许多发展中国家都在竞争在一个特定的任务中开发这种技术。无人机最初为军事目的发展。如今,它发展为民用用途,如灾区监测。用无人机进行灾区监测非常适合于无法安全到达的危险地区。本研究旨在设计和讨论用于灾区监测任务的无人机航电系统。该研究的第一步是确定无人机的优先航空电子系统组件。然后将航电部件与无人机的自动驾驶系统对接。航空电子系统随后安装在UAV机身上。通过飞行试验对所设计的航电系统进行了性能测试。采用地面控制站(GCS)无线遥测技术与无人机通信。它可以显示无人机的实时数据,如位置、地面速度、高度、空速、导航,并可以作为一个“虚拟座舱”,通过显示许多与真实飞机相同的仪器。地面控制站(GCS)能够用于控制飞行中的无人机,上传新的任务命令和设置参数。它还用于监控无人机摄像机的实时视频流。无人机沿着航路点飞行,同时拍摄视频和照片。获得的飞行数据表明,无人机能够跟踪给定航路点,并且能够在稳定状态下飞行。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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