深海采矿综合海试系统虚拟样机建模与快速动态仿真

Yu Dai, Shaojun Liu, Li Li, Yan Li, G. Wang, Xi-Ren Cao
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引用次数: 1

摘要

基于海底履带式采煤机的单机模型和管道系统的离散元模型,建立了用于深海采矿综合海试系统快速仿真分析的虚拟样机模型。考虑到各子系统与相应复杂海洋环境的相互作用,进行了动态仿真分析。针对履带式采煤机和管道系统,考虑了两种不同的建模和仿真方法,并在计算效率和求解精度方面进行了比较。主要着眼于整个采矿系统动态仿真的完整性和快速性,建议将海底采矿机建模为具有6个自由度的单一体,从而实现实时仿真,同时基于地质体力学理论,考虑海底土壤的特殊力学特性,建立了海底采矿机与海底软粘性土的相互作用模型。选取提升管、泵、缓冲器和柔性软管等管道子系统作为三维离散单元模型,将其划分为由柔性连接件连接的刚性单元,并考虑海流所产生的水动力、作用在柔性软管上的离散位置的浮力等外力。仿真分析结果在一定程度上反映了深海采矿系统的实际工况,为实际深海采矿系统的设计和作业提供了有益的指导和参考。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Virtual Prototype Modeling and Fast Dynamic Simulation of the Complete Integrated Sea Trial System for Deep-Ocean Mining
The virtual prototype model for fast simulation analysis of the complete integrated sea trial system for deep ocean mining is built up based on single-body model of the seafloor tracked miner and discrete element model of the pipeline system. Dynamic simulation analysis is performed and investigated taking into account the interactions between each subsystem and corresponding complex ocean environment. Both for the tracked miner and the pipeline system, two different modeling and simulation methods are considered and compared with regard to computational efficiency and solution accuracy. Focusing mainly on the integrity and rapidity of the dynamic simulation of the total mining system, the seafloor miner is preferred to be modeled as a single-body with 6 degrees of freedom, which allows real-time simulation, while the interaction model between the miner and seafloor soft cohesive soil is built based on the theory of terramechanics and with consideration of seafloor soil special mechanical characteristics. The pipeline subsystem including the lifting pipe, pumps, the buffer and the flexible hose is chosen to be built as 3-D discrete element model which is divided into rigid elements linked by flexible connectors, and external forces such as the hydrodynamic forces due to the maritime sea current, the buoyancy forces acting at discrete locations on the flexible hose are considered. The simulation analysis results are obtained and discussed, which in a way can reflect the actual working conditions and provide useful guidance and reference for the practical deep ocean mining system design and operation.
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