Bionic Multiscale Grid Cell Model for Robot Localization and Navigation

Tao Geng, Bo Zhu, Xiaofei Sun, Jia Zhang
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Abstract

The bionic localization method based on animal spatial cognition and positioning mechanism provides a new research direction for mobile robot navigation. It also provides the possibility to break through the limitations of existing mobile robot navigation. This paper studied the construction of grid cell model for robot spatial localization, and built the training environment of rat brain spatial cell network model. The grid cell model is achieved, and the network model is trained by Adam optimization algorithm, which learned the spatial cell activities under different parameters. According to the results of space cell simulation, a self-learning multi-scale space cell model is established. In the experiment, firstly, the space cell model training set is collected and synchronized to ensure that the speed and pose information of the time synchronized robot in the experimental environment can be collected. After completing the training of the spatial cell model, we obtained the spatial cognitive activity map of the robot for the experimental environment.
机器人定位与导航的仿生多尺度网格单元模型
基于动物空间认知和定位机制的仿生定位方法为移动机器人导航提供了新的研究方向。这也为突破现有移动机器人导航的局限性提供了可能。研究了机器人空间定位网格细胞模型的构建,建立了训练环境下的大鼠脑空间细胞网络模型。建立网格细胞模型,利用Adam优化算法对网络模型进行训练,学习不同参数下的空间细胞活动。根据空间单元仿真结果,建立了自学习的多尺度空间单元模型。在实验中,首先对空间单元模型训练集进行采集和同步,确保能够采集到时间同步机器人在实验环境中的速度和位姿信息。在完成空间细胞模型的训练后,我们得到了机器人在实验环境下的空间认知活动图。
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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