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VIRTUAL INSTRUMENTATION BASED SYSTEMS FOR REAL-TIME PATH PLANNING OF MOBILE ROBOTS USING BIO-INSPIRED NEURAL NETWORKS

机译:基于虚拟指令的生物启发式神经网络机器人运动路径实时规划系统

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摘要

In this paper, novel virtual instrumentation based systems for real-time collision-free path planning and tracking control of mobile robots are proposed. The developed virtual instruments are computationally simple and efficient in comparison to other approaches, which act as a new soft-computing platform to implement a biologically-inspired neural network. This neural network is topologically arranged with only local lateral connections among neurons. The dynamics of each neuron is described by a shunting equation with both excitatory and inhibitory connections. The neural network requires no off-line training or on-line learning, which is capable of planning a comfortable trajectory to the target without suffering from neither the too close nor the too far problems. LabVIEW is chosen as the software platform to build the proposed virtual instrumentation systems, as it is one of the most important industrial platforms. We take the initiative to develop the first neuro-dynamic application in LabVIEW. The developed virtual instruments could be easily used as educational and research tools for studying various robot path planning and tracking situations that could be easily understood and analyzed step by step. The effectiveness and efficiency of the developed virtual instruments are demonstrated through simulation and comparison studies.
机译:本文提出了一种新颖的基于虚拟仪器的移动机器人实时无碰撞路径规划和跟踪控制系统。与其他方法相比,已开发的虚拟仪器在计算上简单高效,这些方法可充当实现生物学启发的神经网络的新软计算平台。该神经网络在拓扑上仅具有神经元之间的局部横向连接。每个神经元的动力学由具有兴奋性和抑制性联系的分流方程来描述。神经网络不需要离线训练或在线学习,它能够规划到目标的舒适轨迹,而不会遭受太近或太远的问题。 LabVIEW被选为构建建议的虚拟仪器系统的软件平台,因为它是最重要的工业平台之一。我们主动开发了LabVIEW中的第一个神经动力学应用程序。所开发的虚拟仪器可以轻松用作教育和研究工具,用于研究各种机器人路径规划和跟踪情况,这些步骤可以轻松地逐步理解和分析。通过仿真和比较研究证明了开发的虚拟仪器的有效性和效率。

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