A hybrid artificial bee colony algorithm with genetic augmented exploration mechanism toward safe and smooth path planning for mobile robot

IF 5.4 Biomimetic Intelligence and Robotics Pub Date : 2025-06-01 Epub Date: 2024-12-26 DOI:10.1016/j.birob.2024.100206
Fan Ye , Peng Duan , Leilei Meng , Lingyan Xue
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Abstract

Path planning is important for mobile robot to ensure safe and efficient navigation. This paper proposes a hybrid artificial bee colony with genetic augmented exploration mechanism (HABC-GA) that enables mobile robot to achieve safe and smooth path planning. Considering the characteristics of path planning problem, a mathematical model is constructed to balance three objectives: path length, path safety, and path smoothness. In the employed bee phase, a genetic augmented exploration mechanism is designed, which encompasses redesigned path crossover, adaptive obstacle-aware mutation, and dynamic elite selection operators. In the onlooker bee phase, an objective-guided optimization strategy is investigated to improve local search ability. In the scout bee phase, a dual exploration restart strategy is developed to increase the activity of individuals in the population, in which stagnant individuals in the evolution are replaced by more promising ones. Finally, the proposed HABC-GA is compared with five efficient algorithms in 24 instances of six representative environments. Simulation results demonstrate the effectiveness and high performance of HABC-GA in obtaining safe and smooth paths.
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基于遗传增强探索机制的混合人工蜂群算法求解移动机器人安全平滑路径规划
路径规划是保证移动机器人安全高效导航的重要环节。提出了一种具有遗传增强探索机制(HABC-GA)的混合人工蜂群,使移动机器人能够实现安全平滑的路径规划。考虑路径规划问题的特点,建立了路径长度、路径安全、路径平滑三个目标的数学模型。在受雇阶段,设计了一种遗传增强探索机制,包括重新设计的路径交叉、自适应障碍感知突变和动态精英选择算子。在围观者蜂群阶段,研究了一种目标导向优化策略,以提高局部搜索能力。在侦察蜂阶段,为了增加种群中个体的活动,发展了双重探索重启策略,在进化过程中停滞不前的个体被更有前途的个体取代。最后,在6种典型环境的24个实例中,与5种高效算法进行了比较。仿真结果证明了HABC-GA在获得安全光滑路径方面的有效性和高性能。
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