FALCON: Fast Autonomous Aerial Exploration Using Coverage Path Guidance

IF 10.5 1区 计算机科学 Q1 ROBOTICS IEEE Transactions on Robotics Pub Date : 2024-12-25 DOI:10.1109/TRO.2024.3522148
Yichen Zhang;Xinyi Chen;Chen Feng;Boyu Zhou;Shaojie Shen
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Abstract

In this article, we introduce a novel Fast Autonomous expLoration framework using COverage path guidaNce (FALCON), which aims at setting a new performance benchmark in the field of autonomous aerial exploration. Despite recent advancements in the domain, existing exploration planners often suffer from inefficiencies, such as frequent revisitations of previously explored regions. FALCON effectively harnesses the full potential of online generated coverage paths in enhancing exploration efficiency. The framework begins with an incremental connectivity-aware space decomposition and connectivity graph construction, which facilitate efficient coverage path planning. Subsequently, a hierarchical planner generates a coverage path spanning the entire unexplored space, serving as a global guidance. Then, a local planner optimizes the frontier visitation order, minimizing traversal time while consciously incorporating the intention of the global guidance. Finally, minimum-time smooth and safe trajectories are produced to visit the frontier viewpoints. For fair and comprehensive benchmark experiments, we introduce a lightweight exploration planner evaluation environment that allows for comparing exploration planners across a variety of testing scenarios using an identical quadrotor simulator. In addition, an in-depth analysis and evaluation is conducted to highlight the significant performance advantages of FALCON in comparison with the state-of-the-art exploration planners based on objective criteria. Extensive ablation studies demonstrate the effectiveness of each component in the proposed framework. Real-world experiments conducted fully onboard further validate FALCON’s practical capability in complex and challenging environments. The source code of both the exploration planner FALCON and the exploration planner evaluation environment has been released to benefit the community.
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猎鹰:使用覆盖路径制导的快速自主空中探测
本文提出了一种基于覆盖路径制导(FALCON)的快速自主探测框架,旨在为自主航空探测领域树立新的性能标杆。尽管该领域最近取得了进展,但现有的勘探计划者经常受到效率低下的困扰,例如频繁地重访以前勘探过的区域。FALCON有效地利用了在线生成覆盖路径的全部潜力,以提高勘探效率。该框架从增量的连接感知空间分解和连接图构建开始,这有利于有效的覆盖路径规划。随后,分层规划器生成一条覆盖路径,覆盖整个未开发空间,作为全局指导。然后,局部规划者对边界访问顺序进行优化,使穿越时间最小化,同时有意识地融入全局引导的意图。最后,生成最小时间平滑和安全的轨迹来访问边界视点。为了公平和全面的基准实验,我们引入了一个轻量级的勘探规划器评估环境,允许使用相同的四旋翼模拟器在各种测试场景中比较勘探规划器。此外,还进行了深入的分析和评估,以突出与基于客观标准的最先进的勘探规划器相比,猎鹰的显著性能优势。广泛的消融研究证明了所提出框架中每个组成部分的有效性。真实世界的实验进一步验证了FALCON在复杂和具有挑战性的环境中的实际能力。已经发布了勘探规划器FALCON和勘探规划器评估环境的源代码,以使社区受益。
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来源期刊
IEEE Transactions on Robotics
IEEE Transactions on Robotics 工程技术-机器人学
CiteScore
14.90
自引率
5.10%
发文量
259
审稿时长
6.0 months
期刊介绍: The IEEE Transactions on Robotics (T-RO) is dedicated to publishing fundamental papers covering all facets of robotics, drawing on interdisciplinary approaches from computer science, control systems, electrical engineering, mathematics, mechanical engineering, and beyond. From industrial applications to service and personal assistants, surgical operations to space, underwater, and remote exploration, robots and intelligent machines play pivotal roles across various domains, including entertainment, safety, search and rescue, military applications, agriculture, and intelligent vehicles. Special emphasis is placed on intelligent machines and systems designed for unstructured environments, where a significant portion of the environment remains unknown and beyond direct sensing or control.
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