arXiv:2603.02683cs.RO2026-03

无人机实时感知环境,动态选最优路径规划模型。

MMH-Planner: Multi-Mode Hybrid Trajectory Planning Method for UAV Efficient Flight Based on Real-Time Spatial Awareness

  • 根据环境感知结果,动态选择最佳路径规划模型。
  • 平均规划迭代次数和每轮计算成本均优于现有方法。
  • 适合需要高效、自适应路径规划的智能无人机系统。

运动规划是智能无人系统实现复杂自主操作的关键组件。然而,现有规划算法因策略僵化和适应性弱,仍存在规划效率不足的问题。为此,本文提出一种基于实时环境感知的多模式混合轨迹规划方法,可根据环境变化动态选择最优规划模型,生成高质量飞行轨迹。首先,提出一种面向目标的空间感知方法,可快速评估未来飞行环境的安全性。其次,设计多模式混合轨迹规划机制,依据前置空间感知结果选择最优规划模型,提升规划效率。最后,采用懒惰重规划策略,仅在必要时触发重规划,有效降低计算资源消耗,同时保持飞行质量。为验证方法性能,我们在仿真环境中开展全面对比实验。结果表明,该方法在多项指标上超越现有最先进(SOTA)算法,尤其在平均规划迭代次数和每轮计算成本方面表现最佳。此外,通过集成自研智能无人机平台的实机飞行实验,进一步验证了该方法的有效性。

原文摘要 · Abstract (English)

Motion planning is a critical component of intelligent unmanned systems, enabling their complex autonomous operations. However, current planning algorithms still face limitations in planning efficiency due to inflexible strategies and weak adaptability. To address this, this paper proposes a multi-mode hybrid trajectory planning method for UAVs based on real-time environmental awareness, which dynamically selects the optimal planning model for high-quality trajectory generation in response to environmental changes. First, we introduce a goal-oriented spatial awareness method that rapidly assesses flight safety in the upcoming environments. Second, a multi-mode hybrid trajectory planning mechanism is proposed, which can enhance the planning efficiency by selecting the optimal planning model for trajectory generation based on prior spatial awareness. Finally, we design a lazy replanning strategy that triggers replanning only when necessary to reduce computational resource consumption while maintaining flight quality. To validate the performance of the proposed method, we conducted comprehensive comparative experiments in simulation environments. Results demonstrate that our approach outperforms existing state-of-the-art (SOTA) algorithms across multiple metrics, achieving the best performance particularly in terms of the average number of planning iterations and computational cost per iteration. Furthermore, the effectiveness of our approach is further verified through real-world flight experiments integrated with a self-developed intelligent UAV platform.

无人机路径规划实时感知智能系统

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