摘要
现代智能化煤矿井下运输机车调度系统是实现煤矿安全、高效生产的主要环节,具有多终端处理器、信息网络化传输和信息智能决策的特点。研究调度系统终端处理器在调度过程中的信息交互过程,优化不同网络节点终端处理器的功能,提高调度系统中信息传输的可靠性,减少信息传输的延迟时间,构建调度系统中的机车进路切换调度等的快速性和可靠性模型,有助于实现安全高效的自动调度。基于KJ654系统调度信息传输的网络拓扑结构,运用信息物理系统理论和统一建模语言,创建机车调度系统的多终端控制器协调控制信息物理交互模型。首先,运用信息物理化系统理论建立机车调度系统终端信息层和物理层交互的分布式结构,规划信息层和物理层的组成和功能,基于机车进路自动安全快速切换功能研究各个终端处理器完成的任务和需要交换传输信息,从控制器任务执行的角度建立机车进路切换过程中控制器之间的信息交互顺序图,合并机车调度中任务优先级和减少执行时间需求,构建了不同区域之间控制器协同控制的信息物理交互模型。最后,通过实验和仿真得到不同区域机车的信息交互规模和不同进路切换的信息交互时间。结果表明,基于物理信息交互模型编写KJ654终端处理器程序后运行在网络架构不变调度系统,与原系统相比较,进路切换请求响应时间减少,机车运行时间明显减少,处理器运行的可靠性提高,区域分布式控制决策能力增强。该建模方式清晰描述控制器之间的信息交互过程,保证了模型逻辑严谨性,优化调度系统终端控制器的任务和信息传输内容,为机车调度的多处理器协调控制提供方法。
The scheduling system of modern intelligent coal mine underground transportation locomotives is the main link to realize coal mine safety and efficient production.It has the characteristics of multi⁃terminal processor,informa⁃tion network transmission and information intelligent decision⁃making.It is helpful to realize a safe and efficient auto⁃matic scheduling by studying the information interaction process of the terminal processor of the scheduling system in the scheduling process,optimizing the functions of the terminal processors of different network nodes,improving the reliability of information transmission in the scheduling system,reducing the delay time of information transmission,and constructing a rapidity and reliability model of locomotive route switching scheduling in the scheduling system.Based on the network topology of KJ654 system dispatching information transmission,the cyber⁃physical system theory and unified modeling language are used to create the cyber⁃physical interaction model of multi⁃terminal controller coor⁃dinated control of locomotive dispatching system.Firstly,the distributed structure of the interaction between the termi⁃nal information layer and the physical layer of the locomotive dispatching system is established by using the theory of cyber physical system,and the composition and function of the information layer and the physical layer are planned.Based on the automatic safe and fast switching function of the locomotive route,the tasks completed by each terminal processor and the need to exchange transmission information are studied.From the perspective of controller task execu⁃tion,the information interaction sequence diagram between controllers in the process of locomotive route switching is established,and the task priority and execution time requirement in locomotive dispatching are merged.The cyber physical interaction model of controller cooperative control between different regions is constructed.Finally,the infor⁃mation interaction scale of locomotives in different areas and the information interaction time of different route switc⁃hing are obtained by experiment and simulation.The results show that the KJ654 terminal processor program written based on the physical information interaction model runs in the network architecture invariant scheduling system.Com⁃pared with the original system,the response time of route switching request is reduced,the locomotive running time is significantly reduced,the reliability of processor operation is improved,and the regional distributed control deci⁃sion⁃making ability is enhanced.This modeling method clearly describes the information interaction process be⁃tween controllers,ensures the logical rigor of the model,optimizes the task and information transmission content of the terminal controller of the scheduling system,and provides a method for the multi⁃processor coordinated control of locomotive scheduling.
作者
马金羽
李文宏
孙彦良
MA Jinyu;LI Wenhong;SUN Yanliang(College of Ocean Science and Engineering,Shandong University of Science and Technology,Qingdao 266510,China;Zaozhuang Mining Group Co.,Ltd.,Zaozhuang 277000,China)
出处
《煤炭学报》
EI
CAS
CSCD
北大核心
2023年第S02期837-844,共8页
Journal of China Coal Society
关键词
运输调度系统
信息物理系统
统一建模语言
交互模型
协同控制
transportation scheduling system
cyber⁃physical system
unified modeling language
interactive model
collaborative control