AUV Path Planning for Target Search Using Bioinspired Neural Network

Peng Yao, Xin Wei, Liyan Qiu, Yuhui Liu
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引用次数: 3

Abstract

The bio-inspired neural network is utilized and improved to solve the autonomous underwater vehicle (AUV) path planning problem for target search mission in ocean environment. First, the standard model of Glasius bio-inspired neural network (GBNN) is constructed to reflect the characteristics of the searching region. The activity value of each neuron is updated by the value propagation among neighbors, as well as the stimulus of itself from the detection reward and the constraint of obstacle avoidance. On the basis of activity distribution, the AUV’ s next waypoint is chosen greedily. Second, the standard GBNN is modified to further enhance the searching efficiency. The connection weight between neighbor neurons is modified by the voyage time considering ocean current. The future reward attracted from all the areas with peak probability is introduced into the neuron activity. In addition, when multiple AUVs perform the search mission, the whole region can be divided into parts with the same size by the Voronoi diagrams. The simulation results demonstrate the high efficiency and strong robustness of our method.
基于生物神经网络的AUV目标搜索路径规划
利用改进的仿生神经网络来解决海洋环境下自主水下航行器(AUV)目标搜索任务的路径规划问题。首先,构建Glasius仿生神经网络(GBNN)的标准模型,以反映搜索区域的特征;每个神经元的活动值通过相邻神经元之间的值传播以及自身受到检测奖励和避障约束的刺激而更新。在活动分布的基础上,贪婪地选择AUV的下一个航点。其次,对标准GBNN进行修改,进一步提高搜索效率。在考虑海流的情况下,通过航行时间对相邻神经元之间的连接权进行修正。从所有具有峰值概率的区域吸引来的未来奖励被引入神经元活动。此外,当多个auv执行搜索任务时,可以通过Voronoi图将整个区域划分为大小相同的部分。仿真结果表明了该方法的有效性和较强的鲁棒性。
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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