论文研究核心目标是评估改进动态多种群粒子群算法(DMPG)在无人机路径规划中的应用效果,特别是在动态环境下的性能表现。该算法通过引入动态权重调整机制和多种群策略,旨在增强算法在动态环境下的适应性和优化性能。此外,本文还结合了...论文研究核心目标是评估改进动态多种群粒子群算法(DMPG)在无人机路径规划中的应用效果,特别是在动态环境下的性能表现。该算法通过引入动态权重调整机制和多种群策略,旨在增强算法在动态环境下的适应性和优化性能。此外,本文还结合了深度强化学习(DRL)技术,以提高无人机在复杂环境中的自主决策能力。通过构建详细的仿真环境,我们对DMPG算法进行了全面的性能评估,包括其避障能力、路径规划的效率以及对动态变化的响应速度。仿真结果显示,DMPG算法在动态环境中表现出色,不仅能够有效规避障碍物,而且在路径规划的全局性和鲁棒性方面均取得了显著提升。与现有的静态和动态路径规划算法进行比较,DMPG算法在平均路径长度、避障成功率以及任务完成时间等关键性能指标上均展现出了卓越的性能。这些发现为无人机路径规划的研究提供了新的见解,并为未来相关领域的研究和应用提供了有价值的参考。The core objective of this paper is to evaluate the application effect of improved Dynamic Multi Swarm Particle Swarm Optimization (DMPG) algorithm in UAV path planning, especially its performance in dynamic environments. This algorithm aims to enhance its adaptability and optimization performance in dynamic environments by introducing dynamic weight adjustment mechanisms and various swarm strategies. In addition, this article also combines deep reinforcement learning (DRL) technology to improve the autonomous decision-making ability of drones in complex environments. By constructing a detailed simulation environment, we conducted a comprehensive performance evaluation of the DMPG algorithm, including its obstacle avoidance ability, path planning efficiency, and response speed to dynamic changes. The simulation results show that the DMPG algorithm performs well in dynamic environments, not only effectively avoiding obstacles, but also achieving significant improvements in the global and robust aspects of path planning. Compared with existing static and dynamic path planning algorithms, the DMPG algorithm has demonstrated excellent performance in key performance indicators such as average path length, obstacle avoidance success rate, and task completion time. These findings provide new insights for the study of drone path planning and valuable references for future research and applications in related fields.展开更多
针对遗传算法全局搜索能力强和粒子群优化收敛速度快的特点,本文从种群个体组织结构上着手,进行优势互补,提出了一种遗传算法和粒子群优化的多子群分层混合算法(multi-subgroup hierarchical hybrid of genetic algorithm and particle ...针对遗传算法全局搜索能力强和粒子群优化收敛速度快的特点,本文从种群个体组织结构上着手,进行优势互补,提出了一种遗传算法和粒子群优化的多子群分层混合算法(multi-subgroup hierarchical hybrid of genetic algorithm and particle swarm optimization,HGA–PSO).算法采用分层结构,底层由一系列的遗传算法子群组成,贡献算法的全局搜索能力;上层是由每个子群的最优个体组成的精英群,采用钳制了初始速度的粒子群算法进行精确局部搜索.文中分析论证了HGA–PSO算法具有全局收敛性,并采用7个典型高维Benchmark函数进行测试,实验结果显示该算法的优化性能显著优于其他测试算法.展开更多
文摘论文研究核心目标是评估改进动态多种群粒子群算法(DMPG)在无人机路径规划中的应用效果,特别是在动态环境下的性能表现。该算法通过引入动态权重调整机制和多种群策略,旨在增强算法在动态环境下的适应性和优化性能。此外,本文还结合了深度强化学习(DRL)技术,以提高无人机在复杂环境中的自主决策能力。通过构建详细的仿真环境,我们对DMPG算法进行了全面的性能评估,包括其避障能力、路径规划的效率以及对动态变化的响应速度。仿真结果显示,DMPG算法在动态环境中表现出色,不仅能够有效规避障碍物,而且在路径规划的全局性和鲁棒性方面均取得了显著提升。与现有的静态和动态路径规划算法进行比较,DMPG算法在平均路径长度、避障成功率以及任务完成时间等关键性能指标上均展现出了卓越的性能。这些发现为无人机路径规划的研究提供了新的见解,并为未来相关领域的研究和应用提供了有价值的参考。The core objective of this paper is to evaluate the application effect of improved Dynamic Multi Swarm Particle Swarm Optimization (DMPG) algorithm in UAV path planning, especially its performance in dynamic environments. This algorithm aims to enhance its adaptability and optimization performance in dynamic environments by introducing dynamic weight adjustment mechanisms and various swarm strategies. In addition, this article also combines deep reinforcement learning (DRL) technology to improve the autonomous decision-making ability of drones in complex environments. By constructing a detailed simulation environment, we conducted a comprehensive performance evaluation of the DMPG algorithm, including its obstacle avoidance ability, path planning efficiency, and response speed to dynamic changes. The simulation results show that the DMPG algorithm performs well in dynamic environments, not only effectively avoiding obstacles, but also achieving significant improvements in the global and robust aspects of path planning. Compared with existing static and dynamic path planning algorithms, the DMPG algorithm has demonstrated excellent performance in key performance indicators such as average path length, obstacle avoidance success rate, and task completion time. These findings provide new insights for the study of drone path planning and valuable references for future research and applications in related fields.
文摘针对遗传算法全局搜索能力强和粒子群优化收敛速度快的特点,本文从种群个体组织结构上着手,进行优势互补,提出了一种遗传算法和粒子群优化的多子群分层混合算法(multi-subgroup hierarchical hybrid of genetic algorithm and particle swarm optimization,HGA–PSO).算法采用分层结构,底层由一系列的遗传算法子群组成,贡献算法的全局搜索能力;上层是由每个子群的最优个体组成的精英群,采用钳制了初始速度的粒子群算法进行精确局部搜索.文中分析论证了HGA–PSO算法具有全局收敛性,并采用7个典型高维Benchmark函数进行测试,实验结果显示该算法的优化性能显著优于其他测试算法.
