3-D Trajectory Tracking in the Image Frame for Autonomous Navigation of UAV in UAV-AGV Multi-Agent System

Ashok Kumar Sivarathri, Amit Shukla, Ayush Gupta
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Abstract

UAV-AGV multi-agent system is attracting the mobile robotics research community due to its applications in several engineering disciplines. It's a heterogeneous combination of UAV and AGV. Collaborative kinematics between both agents is necessity of the system for better utilization of independent capabilities. Vision-based method is most focused in the literature to build the collaboration between the agents which is of great use in the GPS denied environments. One of the collaborative tasks of UAV is to approach the AGV and hover over it at certain altitude. A trajectory tracking technique in the image frame is developed for the task in the present work. UAV detects the static target/AGV in the image plane and plans 3- dimensional trajectory to reach and hover at a desired depth from it. Minimum acceleration trajectories are designed using position and apparent size of the target in the image plane. Sliding mode control theory is applied for designing the controllers for approach, depth motion of UAV and validated with the simulations. The proposed image plane-based trajectory tracking technique is further validated in the Gazebo simulation environment. Simulation results shows that the method is useful in GPS denied environments for the UAV to plan its collaborative navigation in the image frame for smoothly reaching a desired position from the target/AGV.
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UAV- agv多智能体系统中无人机自主导航的图像帧三维轨迹跟踪
UAV-AGV多智能体系统因其在多个工程领域的应用而受到移动机器人研究界的广泛关注。它是无人机和AGV的异质组合。两个智能体之间的协同运动是系统更好地利用独立能力的必要条件。基于视觉的agent间协作方法是目前文献中研究最多的方法,在GPS拒绝环境下具有重要的应用价值。无人机的协同任务之一是接近AGV并在一定高度悬停。本文提出了一种基于图像帧的轨迹跟踪技术。UAV探测图像平面上的静态目标/AGV,并规划三维轨迹以到达并悬停在所需的深度。利用目标在图像平面上的位置和视尺寸来设计最小加速度轨迹。将滑模控制理论应用于无人机进近和深度运动控制器的设计,并通过仿真进行了验证。在Gazebo仿真环境中进一步验证了基于图像平面的轨迹跟踪技术。仿真结果表明,该方法可用于GPS拒绝环境下无人机在图像框架内规划协同导航,使其顺利到达目标/AGV的期望位置。
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