Zizheng Liu, Y. Chu, Guoyuan Li, H. P. Hildre, Houxiang Zhang
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引用次数: 0
摘要
船用起重机是海事领域最重要的工业设备之一。船用起重机的底座随着船舶六个自由度的运动而动态运动,并受到近海环境负荷的影响。起重机与船舶之间存在耦合关系,即起重机的运行与船舶的运动相互影响。本文采用协同仿真技术构建了虚拟海洋作业系统,该系统由不同的功能模拟单元(FMU)组成,使用功能模拟接口(FMI)标准和系统结构与参数化(SSP)标准导出,以协同仿真平台 Vico 为基础定义结构和参数。使用 A* 算法实现了 Palfinger 起重机的路径规划案例。起重机的物理三维工作空间被离散化为有限数量的关节空间节点。成本由船舶运动变量定义,以优化海上作业。对得到的离散节点进行平滑处理,以得到执行器的速度作为控制信号。在虚拟操作系统中,按照规划的路径对起重机的运行进行模拟。
A co-simulation approach to onboard support of marine operation: a Palfinger crane path planning case
Marine cranes are one of the most important industrial equipment in the maritime field. The base of a marine crane is dynamically moving as the motion of the ship’s six degrees of freedom that is affected by offshore environmental loads. There is a coupling between the crane and the ship, which means the crane operation and the ship motion affect each other. In this paper, co-simulation technology is employed to construct the virtual marine operation system which is composed of diverse Functional Mock-Up Units (FMUs) exported using the Functional Mock-Up Interface (FMI) standard and System Structure and Parameterization (SSP) standard to define the structure and parameters based on the co-simulation platform Vico. A path planning case for the Palfinger crane is implemented using the A* algorithm. The physical three-dimensional working space of the crane is discretized into a finite number of nodes in joint space. The cost is defined by the variable of the ship motion to optimize the marine operation. The obtained discrete nodes are smoothed to get the velocity of the actuators as control signals. Simulation of the crane operation is carried out in the virtual operating system following the planned path.