110 ~ 750kv架空输电线路和电缆相域建模的特点

D.Yu. Vikharev, I. Ivanov, A. Murzin, N. A. Rodin, D.I. Gandzhaev, A.S. Lifshits
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引用次数: 0

摘要

电力系统稳态和暂态分析需要对运行在110 - 750kv的架空输电线路和电缆进行正确的建模。架空线路和电缆分段建模的主要困难是由于复杂的导体几何形状、它们的换位以及架空线路接地线和地下电缆屏蔽的接地方案。本文介绍了110-750架空线路和电缆建模中为获得可靠的相域数学模型所必须考虑的各个方面。现代软件不能提供确定线路参数的通用解决方案。110 - 500kv电缆线路的建模问题还没有得到很好的解决,需要仔细分析国外的专业文献。因此,考虑到这些线路在操作实践中可能出现的各种配置选项,开发计算架空和电缆电力线参数的算法的任务是相关的。利用电路理论和矩阵代数方法推导架空输电线路和电缆线路模型。使用ATP/ATPDraw和MATLAB/Simulink软件环境来研究可用的工具来确定线路参数,并验证一些计算结果。分析揭示了在ATP/ATPDraw和MATLAB/Simulink软件中可用的选项来计算相域中的线参数。本文提出并验证了一种计算架空线路参数的算法,该算法与并联电路的数目无关。概述了架空输电线路线性电阻矩阵计算的主要特点。介绍了110-500千伏现代电缆线路的主要特点。本文给出了在实际条件下可能的各种电缆布局,并提供了能够获得电缆线路导体系统的正确阻抗和导纳的表达式。对相位域中专用于架空线路参数计算的各种软件工具的选择的研究表明,这些工具不能被认为是通用的,以表示任何配置的架空线路。然而,所开发的算法是通用的,因为它允许计算线路参数,而不考虑接地线的接地方式。本文给出的表达式考虑了俄罗斯电力系统中可能遇到的110 - 500kv电缆线路的各种布局。
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Distinctive features of modeling 110–750 kV overhead transmission lines and cables in phase domain
Power system steady state and transient analysis require correct modeling of overhead transmission lines and cables operating at 110–750 kV. The key difficulties to model sections of overhead and cable lines are caused by complex conductor geometry, their transposition, as well as grounding schemes of ground wires of overhead lines and screens of underground cables. The paper covers various aspects of 110–750 overhead line and cable modeling that must be taken into consideration to obtain a reliable mathematical model in a phase domain. Modern software does not provide a universal solution to determine line parameters. The 110–500 kV cable line modeling issues have not been worked out properly and require careful analysis of specialized foreign literature. Thus, the task to develop the algorithms of calculating the parameters of overhead and cable power lines is relevant, taking into account the various configuration options of these lines which are possible in operational practice. To derive overhead transmission line and cable line models, electric circuit theory and matrix algebra methods have been used. The ATP/ATPDraw and MATLAB/Simulink software environment has been used to investigate what tools are available to determine line parameters, as well as to verify some of the calculation results. Analysis has been carried out to reveal the options available in the ATP/ATPDraw and MATLAB/Simulink software to compute line parameters in a phase domain. An algorithm has been developed and verified to calculate overhead line parameters regardless of the number of parallel circuits. The key features of the calculation of the matrix of linear resistances of overhead power transmission lines are outlined. The main features of modern cable lines operating at 110–500 kV are also described. The paper presents various cable layouts possible in real-field conditions, as well as provides expressions that allow obtaining correct impedances and admittances for a system of cable line conductors. Study of the options of various software tools dedicated to overhead line parameter calculation in a phase domain has revealed that these tools cannot be deemed universal to represent an overhead line of whatever configuration. However, the developed algorithm is universal as it allows computing line parameters regardless the ground wire grounding approach. The expressions presented in this paper consider various layouts of 110–500 kV cable lines that could be encountered in the Russian power system.
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