Implementation of Cloud-Based Drone Navigation for Swarm Robot Coordination

Ja'far Shadiq Alatas, K. Priandana, Medria Kusuma Dewi Hardhienata, Wulandari
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引用次数: 1

Abstract

Smart agriculture 4.0 has recently been implemented in Indonesia to enhance agricultural productivity through the use of advance technology. Unmanned Autonomous Vehicle (UAVs) is one of the technologies that have been utilized in the agricultural sector to improve production quality and quantity. Although some advanced technology has been used, currently there are some challenges that remain to be solved to implement multi-UAV in the real environment. Some of these challenges include battery limitations in UAV and the long duration to queue at the charging station. To address this issue, a previous study has proposed Cloud Based Drone Navigation (CBDN) algorithm that can be employed to optimize multi-UAV coordination by selecting the best flight path for the UAV to reach a charging station. Such an approach has resulted in reducing the waiting time of UAVs to be charged. However, the algorithm has not considered swarm robot parameters. This study aims to analyze the use of CBDN algorithm with parameters derived from swarm robots. The performance of the CBDN algorithm will then be evaluated and compared to the Shortest Flight Time (SFT) and Individual Reservation Navigation System (IRN) algorithms as two benchmark algorithms, in terms of the total travel time. By considering real swarm robot parameters, the CBDN algorithm has resulted in an average total travel time of 17.44% less than the average total travel time of SFT and 17.25% less than the average total travel time of IRN.
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基于云的无人机导航在群机器人协调中的实现
智能农业4.0最近在印度尼西亚实施,通过使用先进技术提高农业生产力。无人驾驶汽车(uav)是农业部门用于提高生产质量和数量的技术之一。虽然已经采用了一些先进的技术,但目前要在真实环境中实现多无人机仍存在一些有待解决的挑战。其中一些挑战包括无人机的电池限制和在充电站排队的时间长。为了解决这一问题,已有研究提出了基于云的无人机导航(CBDN)算法,该算法可以通过选择无人机到达充电站的最佳飞行路径来优化多无人机协调。这种方法减少了无人机充电的等待时间。然而,该算法没有考虑群机器人的参数。本研究旨在分析基于群体机器人参数的CBDN算法的使用。然后,CBDN算法的性能将被评估,并与最短飞行时间(SFT)和个人预订导航系统(IRN)算法作为两种基准算法进行比较,以总旅行时间为标准。在考虑真实群体机器人参数的情况下,CBDN算法的平均总行程时间比SFT算法的平均总行程时间少17.44%,比IRN算法的平均总行程时间少17.25%。
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