Experience of network modeling and mapping based on spatio-temporal database on the backbone electric networks

A. Karpachevskiy, G. Titov, N. Tulskaya, A. Prasolova
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Abstract

A unique spatio-temporal database of the backbone electric networks of the Moscow power system was previously based on various information sources and published as a cartographic web service. In this study, we consider some mapping possibilities based on calculated parameters, including network analysis methods. To represent the data correctly for each studied year from 1936 to 2020, we have developed algorithms for verifying data integrity, as well as for automated creation of a topologically correct network model. Bringing the network to a topologically correct form implies the snapping of the end vertices of the lines to the point objects of the power system, the elimination of hanging dangles, as well as the elimination of self-intersections. The integrity check is carried out in three stages: 1) coordination of the time frame for the existence of network segments; 2) checking the connectivity of each power line for each time slice; 3) checking the connectivity of the entire network as a whole for each year. The age of the network, betweenness centrality, electric grid centrality, closeness centrality in this paper are taken as an example of local parameters, i. e. indicators confined to specific elements of the network (edges or vertices). In addition, we have considered a global indicator characterizing the network as a whole—the average shortest path in the network, which can be calculated in three ways: without taking into account the weight, taking into account the length of the lines or taking into account its capacitance characteristics, depending on voltage.
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基于主干网时空数据库的网络建模与制图经验
莫斯科电力系统主干网的独特时空数据库以前是基于各种信息源并作为制图网络服务发布的。在本研究中,我们考虑了一些基于计算参数的映射可能性,包括网络分析方法。为了正确地表示从1936年到2020年的每个研究年份的数据,我们开发了验证数据完整性的算法,以及自动创建拓扑正确的网络模型的算法。使电网达到拓扑正确的形式意味着将线路的端点与电力系统的点对象连接起来,消除悬垂,以及消除自交叉。完整性检查分三个阶段进行:1)协调网段存在的时间框架;2)检查各时间片各电源线的连通性;3)每年检查整个网络的连通性。本文以网络的年龄、中间中心性、电网中心性、接近中心性等为局部参数,即局限于网络特定元素(边或顶点)的指标为例。此外,我们考虑了一个表征整个网络的全局指标——网络中的平均最短路径,它可以用三种方式计算:不考虑权重,考虑线路长度或考虑其电容特性,取决于电压。
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来源期刊
CiteScore
0.90
自引率
0.00%
发文量
2
审稿时长
8 weeks
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