CN106228246A - Based on semantic unattended duty transformer substation monitoring system and method - Google Patents
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Abstract
Description
技术领域technical field
本发明属于一种变电站监测系统领域,尤其是涉及基于语义的无人职守变电站监测系统及方法。The invention belongs to the field of substation monitoring systems, in particular to a semantic-based unattended substation monitoring system and method.
背景技术Background technique
2009年5月国家电网提出建设坚强智能电网的发展目标,截止2015年,新建智能变电站已达5182座,变电站发展中也逐步开始从模拟电路保护走向现如今的数字化智能化。相比传统变电站采集资源重复且设计复杂,信息不标准不规范,智能变电站则是采用先进、可靠、集成、低碳、环保的智能设备,以全站信息数字化、通信平台网络化、信息共享标准化为基本要求、自动完成信息采集、测量、控制、保护、计量和监测等基本功能,并可根据需要支持电网实时自动控制、智能调节、在线分析决策、协同互动等高级动能,实现与相邻变电站、电网调度等互动的变电站。变电站的监控手段愈发多样化,无人职守更是成为其中一个热门的研究课题,其大大的降低了人为实地监控中的危险性。但是在无人职守的智能变电站中如何突破各个变电站之间的信息孤岛,实现基于大数据的综合分析一直没有得到解决。In May 2009, State Grid proposed the development goal of building a strong smart grid. As of 2015, 5,182 new smart substations have been built, and the development of substations has gradually begun to move from analog circuit protection to today's digital intelligence. Compared with traditional substations, which have repetitive collection resources and complex designs, and non-standard and non-standard information, smart substations use advanced, reliable, integrated, low-carbon, and environmentally-friendly smart equipment to digitize the entire station's information, network the communication platform, and standardize information sharing. To meet basic requirements, it can automatically complete basic functions such as information collection, measurement, control, protection, metering and monitoring, and can support advanced kinetic energy such as real-time automatic control, intelligent adjustment, online analysis and decision-making, and collaborative interaction of the power grid as needed, and realize the integration with adjacent substations. , power grid dispatching and other interactive substations. The monitoring methods of substations are becoming more and more diverse, and unmanned duty has become one of the hot research topics, which greatly reduces the danger of artificial on-site monitoring. However, in unattended smart substations, how to break through the information islands between substations and realize comprehensive analysis based on big data has not been resolved.
发明内容Contents of the invention
发明目的:本发明针对现有的无人职守检测系统,提出一种基于语义的无人职守变电站监测专家系统,采用语义技术实现推理来获取更加准确的设备状态预测。Purpose of the invention: The present invention proposes a semantic-based unattended substation monitoring expert system for the existing unattended detection system, and uses semantic technology to realize reasoning to obtain more accurate equipment status prediction.
发明内容:一种基于语义的无人职守变电站监测方法,包括如下的步骤:SUMMARY OF THE INVENTION: A semantic-based unattended substation monitoring method includes the following steps:
步骤1:通过电力设备监控器收集电力设备状态数据,按照不同设备的属性进行数据保存;Step 1: Collect the status data of the power equipment through the power equipment monitor, and save the data according to the attributes of different equipment;
步骤2:通过电力设备状态预警知识库确定领域本体的范围以及对象,并选择本体形式化描述语言描述并表示;Step 2: Determine the scope and objects of the domain ontology through the power equipment status warning knowledge base, and select the ontology formal description language to describe and represent;
步骤3:根据领域专家库提供的资料建立电力设备领域状态预测本体关系经验模型;Step 3: Based on the information provided by the domain expert database, establish an empirical model of ontology relationship for power equipment domain state prediction;
步骤4:根据步骤3预测的本体关系经验模型建立电力设备领域基于OWL的本体模型;Step 4: Establish an OWL-based ontology model in the field of electric equipment based on the ontology relationship empirical model predicted in step 3;
步骤5:根据预测条件及本体关系经验模型提供的推理规则,利用Jena推理引擎所构成的推理机引擎进行语义推理,得到预测结果;Step 5: According to the inference rules provided by the prediction conditions and the ontology relationship empirical model, use the inference engine engine composed of the Jena inference engine to perform semantic reasoning and obtain the prediction results;
步骤6:连接数据库驱动,创建数据库连接实例,通过servlet连接数据库;Step 6: Connect to the database driver, create a database connection instance, and connect to the database through a servlet;
步骤7:移动客户端访问servlet,并在servlet中将得到的数据转换成Json数据格式返回给移动客户端。Step 7: The mobile client accesses the servlet, and converts the obtained data into Json data format in the servlet and returns it to the mobile client.
一种基于语义的无人职守变电站监测系统,包括移动客户端、查询解析器、电力设备状态预警知识库、本体库、推理机引擎,电力设备状态预警知识库用于存储电力设备电力数据及其解析和推理的预测结果;查询解析器用于分析电力设备电力数据的结构,并从中提取有效数据;本体库用于储存电力设备状态本体模型及相关的实例数据;推理机引擎用于对本体进行信息推理,得出预测结论。A semantics-based unattended substation monitoring system, including a mobile client, a query parser, a power equipment status warning knowledge base, an ontology library, and an inference engine engine, and the power equipment status warning knowledge base is used to store power data of power equipment and its The prediction results of parsing and reasoning; the query parser is used to analyze the structure of electric power data of electric equipment and extract valid data from it; the ontology library is used to store the ontology model of electric equipment status and related instance data; reasoning and drawing conclusions.
有益效果:本发明基于语义推理技术,将多变电站的数据进行融合分析,根据经验模型提取的语义规则建立语义本体,训练出语义规则库。同时通过专家知识库和语义规则库进行数据的语义推理,能够较为准确的分析和预测电力设备状况,即时给予电力设备老化预警,并且在数据收集的过程中不断完备语义规则库,使得预警精准度不断提高。与现有技术相比本发明具有如下优点:Beneficial effects: based on the semantic reasoning technology, the present invention integrates and analyzes the data of multiple substations, establishes a semantic ontology according to the semantic rules extracted from the empirical model, and trains a semantic rule base. At the same time, the semantic reasoning of data is carried out through the expert knowledge base and semantic rule base, which can accurately analyze and predict the status of power equipment, give early warning of power equipment aging, and continuously complete the semantic rule base in the process of data collection, so that the accuracy of early warning can be improved. keep improving. Compared with the prior art, the present invention has the following advantages:
(1)本发明能够兼容已有的SCADA数据,采用多变电站的底层数据采集架构,破除了原来的各变电站数据信息孤岛,实现信息互联和共享;(1) The present invention is compatible with existing SCADA data, adopts the underlying data acquisition framework of multiple substations, breaks the original data information islands of each substation, and realizes information interconnection and sharing;
(2)本发明将语义与推理技术相结合,可以实现多源异构数据的融合,针对电力设备的数据语义推理预测,可以解决无人职守中对设备监控的精确度问题,提供精确的数据预测,实现无人职守的变电站中的设备老化预警;(2) The present invention combines semantics and reasoning technology, which can realize the fusion of multi-source heterogeneous data, and can solve the accuracy problem of equipment monitoring in unmanned duty, and provide accurate data for the data semantic reasoning prediction of electric power equipment Prediction, realizing early warning of equipment aging in unattended substations;
(3)本发明是基于多变电站的监控专家系统,相比较现有的SCADA等单机监测系统,能够将数据的利用率大大提升,实现一个系统,多个平台使用,由此获得更多的有效数据;(3) The present invention is based on the monitoring expert system of multiple substations. Compared with the existing stand-alone monitoring systems such as SCADA, the utilization rate of data can be greatly improved, and one system can be used on multiple platforms, thereby obtaining more effective data;
(4)本发明的设备状态预测采用语义技术,建立专家经验模型,将模型转换为语义规则,基于多变电站训练的语义规则库,随着数据量的不断增加,会使得规则库愈发的完备,数据的预测愈发的准确;(4) The equipment state prediction of the present invention adopts semantic technology, establishes an expert experience model, converts the model into semantic rules, and based on the semantic rule base trained by multiple substations, as the amount of data continues to increase, the rule base will become more and more complete , the data prediction becomes more and more accurate;
(5)本发明Android界面可视化显示使用户随时随地方便的查询与提取数据,为变电站管理人员提供了更加便捷的手持管理平台。(5) The visual display of the Android interface of the present invention enables users to conveniently inquire and extract data anytime and anywhere, and provides a more convenient handheld management platform for substation managers.
附图说明Description of drawings
图1为本发明系统示意图;Fig. 1 is a schematic diagram of the system of the present invention;
图2为本发明语义本体的建立框架图;Fig. 2 is a frame diagram of establishing a semantic ontology of the present invention;
图3为本发明的框架图。Fig. 3 is a frame diagram of the present invention.
具体实施方式detailed description
下面将结合附图,对本发明的实施案例进行详细的描述;Embodiments of the present invention will be described in detail below in conjunction with the accompanying drawings;
如图1所示,基于语义的无人职守变电站监测专家系统的整个框架图,由Android移动客户端、查询解析器、电力设备状态预警知识库、本体库、推理机引擎构成。As shown in Figure 1, the entire framework of the semantic-based unattended substation monitoring expert system consists of an Android mobile client, a query parser, a power equipment status warning knowledge base, an ontology database, and an inference engine.
电力设备状态预警知识库存储常见的电力数据及其解析和推理的预测结果;查询解析器主要负责分析电力设备电力数据的结构,并从中提取中有效数据;本体库主要用于储存电力设备状态本体模型及相关的实例数据。推理机引擎包括Jena推理引擎和其他推理引擎,负责对本体进行信息推理,得出预测结论。The power equipment status early warning knowledge base stores common power data and the prediction results of its analysis and reasoning; the query parser is mainly responsible for analyzing the structure of the power data of power equipment and extracting effective data from it; the ontology library is mainly used to store the power equipment status ontology Models and associated instance data. The reasoning engine includes Jena reasoning engine and other reasoning engines, which are responsible for information reasoning on the ontology and drawing prediction conclusions.
如图2所示,本发明的语义本体建立框架图。该本体的建立采用七步法的方法建立,(1)确定语义本体的专业领域和范畴(2)考虑复用现有语义本体的可能性(3)列出语义本体中的重要术语(4)定义类(Class)和类的等级体系(Hierarchy)(5)定义类的属性(6)定义属性的限制(7)创建实例。最后运用prolog语言编写推理规则,再运用SPARQL查询语言验证本体建立是否合理性。As shown in FIG. 2 , the semantic ontology establishment framework diagram of the present invention. The establishment of the ontology adopts a seven-step method, (1) determine the professional field and category of the semantic ontology (2) consider the possibility of reusing the existing semantic ontology (3) list the important terms in the semantic ontology (4) Define the class (Class) and the class hierarchy (Hierarchy) (5) define the attributes of the class (6) define the restrictions on the attributes (7) create an instance. Finally, use the prolog language to write the inference rules, and then use the SPARQL query language to verify the rationality of the ontology establishment.
如图3所示,本发明的框架图。Jena当前支持的数据库有PostgreSQL、Mysql和Oracle。首先要连接数据库驱动,并创建DBConnection实例。当本体文件持久化存储至数据库后,可对其进行推理查询。主要预测规则和专家经验知识库定义的推理规则,借用Jena工具包进行语义推理,得到预测结果,然后输出客户端显示界面。As shown in Figure 3, the frame diagram of the present invention. The databases currently supported by Jena are PostgreSQL, Mysql and Oracle. First, connect to the database driver and create a DBConnection instance. After the ontology file is persistently stored in the database, it can be inferred and queried. The main prediction rules and the inference rules defined by the expert experience knowledge base borrow the Jena toolkit for semantic reasoning to obtain the prediction results, and then output the client display interface.
步骤如下:Proceed as follows:
步骤1.:通过电力设备监控器收集相关的电力设备状态数据,按照不同设备的属性进行数据保存;Step 1.: Collect relevant power equipment status data through the power equipment monitor, and save data according to the attributes of different equipment;
步骤2.:确定领域本体的范围以及对象,选择本体形式化描述语言描述并表示;Step 2.: Determine the scope and objects of the domain ontology, select the ontology formal description language to describe and represent;
步骤3:根据领域专家库提供的资料和经验建立电力设备领域状态预测本体关系经验模型;Step 3: Based on the data and experience provided by the domain expert database, establish an empirical model of ontology relationship for power equipment domain state prediction;
步骤4:根据步骤3的经验模型建立电力设备领域OWL(Web Ontology Language,网络本体语言)本体模型;Step 4: Establish an OWL (Web Ontology Language, Network Ontology Language) ontology model in the field of electric equipment according to the empirical model in step 3;
步骤5:根据预测条件及经验模型提供的推理规则,利用Jena工具(Jena是一个java的API,用来支持语义网的有关应用)包进行语义推理,得到预测结果;Step 5: According to the prediction conditions and the inference rules provided by the empirical model, use the Jena tool (Jena is a java API, used to support related applications of the Semantic Web) package to perform semantic reasoning to obtain the prediction result;
步骤6:连接数据库驱动,创建数据库连接实例,采用servlet(servlet全称JavaServlet,是用Java编写的服务器端程序)技术连接数据库;Step 6: connect to the database driver, create a database connection instance, and use servlet (the full name of servlet is JavaServlet, which is a server-side program written in Java) technology to connect to the database;
步骤7:设计Android客户端,访问servlet,并在servlet中将得到的数据转换成Json数据格式返回给Android客户端显示界面。Step 7: Design the Android client, access the servlet, and convert the obtained data into Json data format in the servlet and return it to the Android client display interface.
本发明将语义大数据推理技术被引入到变电站系统中。采用基于元模型语义技术,并实现一种以专家知识库为中心的专家系统,基于多变电站数据共享,将不同变电站的电力设备所返回的庞大数据进行规则分析,通过专家系统进行准确的设备状态分析,提高数据的利用效率,改善设备状态预测的准确率和精度,能够更好的定位到某一个问题或即将出现问题的设备,降低了传统人工排查的难度,也降低了零部件更换的成本,为实现以无人职守为中心的变电站监控提供了更好的支持。The invention introduces the semantic big data reasoning technology into the substation system. Using meta-model-based semantic technology and implementing an expert system centered on the expert knowledge base, based on multi-substation data sharing, the huge data returned by power equipment in different substations is analyzed according to the rules, and the accurate equipment status is obtained through the expert system Analysis, improve the utilization efficiency of data, improve the accuracy and precision of equipment status prediction, better locate a certain problem or equipment that is about to have a problem, reduce the difficulty of traditional manual investigation, and also reduce the cost of parts replacement , providing better support for the realization of substation monitoring centered on unmanned duty.
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