Astralis: A High-Fidelity Simulator for Heterogeneous Robot and Human-Robot Teaming

Gong Chen, Duong Nguyen-Nam, Malika Meghjani, Phan Minh Tri, Marcel Bartholomeus Prasetyo, Mohammad Alif Daffa, Tony Q. S. Quek
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Abstract

We introduce Astralis simulator, a high-fidelity robot simulation platform for the development of multi-robot and human-robot coordination algorithms which can be seamlessly translated to real-world environments. The simulator provides novel features of dynamically initializing the virtual environment with real-world 3D point cloud data and a uniformly random arrangement of static and dynamic obstacles in the environment. This allows the user to generate several variants of a base scenario for strategic planning and algorithm validation. The simulator can receive high-level command inputs to control a team of Unmanned Aerial Vehicles (UAVs), Unmanned Ground Vehicles (UGVs), and human avatars. The simulated robot models are built with high fidelity control and navigation capabilities which can be readily deployed on real robot platforms. We use Astralis simulator to analyze human-robot coordination algorithms for tracking, following and leading targets in a search and rescue mission. The algorithm is validated using a UAV and a UGV in simulation and on physical platforms. Our simulator provides comparable results to the real-world experiments in terms of the executed trajectories by the robots.
Astralis:一个高保真的异构机器人和人-机器人团队模拟器
我们介绍Astralis模拟器,一个高保真机器人仿真平台,用于开发多机器人和人机协调算法,可以无缝地转化为现实世界的环境。该模拟器提供了动态初始化虚拟环境的新功能,包括真实世界的3D点云数据和环境中静态和动态障碍物的均匀随机排列。这允许用户为战略规划和算法验证生成基本场景的几个变体。模拟器可以接收高级命令输入来控制无人驾驶飞行器(uav)、无人驾驶地面车辆(ugv)和人类化身。仿真机器人模型具有高保真的控制和导航能力,可以很容易地部署在真实的机器人平台上。我们使用Astralis模拟器来分析在搜索和救援任务中跟踪、跟随和引导目标的人机协调算法。利用无人机和UGV在仿真和物理平台上对该算法进行了验证。我们的模拟器在机器人执行轨迹方面提供了与现实世界实验相当的结果。
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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