Power System Visualization Enhancement Technology Guided by Force-oriented Algorithms

In response to the problems of a large number of congested areas, chaotic power lines, and low visualization level in the topology diagram of the power system, this article focuses on the force-oriented algorithm and explores its application in the field of power system visualization. The aim is to enhance the visualization effect of the power system by optimizing layout, improving readability, and aesthetics. Firstly, the force-oriented algorithm is used to construct the power grid model of the power system, calculating the number of iterations of the force-oriented algorithm and the local density of the grid model. Finally, the balance of the power lines in the power grid system is found through attraction and repulsion, avoiding overlap between power stations and other lines, and achieving optimization of power line routing between power stations. The experiment showed that the congested areas in the power system topology map were reduced by 65.4%, and duplicate elements were reduced to 0%. The results indicate that this method can effectively improve the visualization effect of power topology maps for large-scale power systems, while adhering to the true geographical location of power elements. It greatly enhances the interaction between the power system and humans, as well as the visualization of the power system.

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Publication Details

Published
2024-08-14
DOI
https://doi.org/10.1109/peeec63877.2024.00016
Primary Topic
Power Systems and Technologies
Type
article
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article

Power System Visualization Enhancement Technology Guided by Force-oriented Algorithms

Dongzhu Duan, Yunjie Qin, X. T. Huang, Siyu Chen et al.
Power Systems and Technologies
article

Power System Visualization Enhancement Technology Guided by Force-oriented Algorithms

Dongzhu Duan, Yunjie Qin, X. T. Huang, Siyu Chen, Rui Chen, Pei Xie
article en

Abstract

In response to the problems of a large number of congested areas, chaotic power lines, and low visualization level in the topology diagram of the power system, this article focuses on the force-oriented algorithm and explores its application in the field of power system visualization. The aim is to enhance the visualization effect of the power system by optimizing layout, improving readability, and aesthetics. Firstly, the force-oriented algorithm is used to construct the power grid model of the power system, calculating the number of iterations of the force-oriented algorithm and the local density of the grid model. Finally, the balance of the power lines in the power grid system is found through attraction and repulsion, avoiding overlap between power stations and other lines, and achieving optimization of power line routing between power stations. The experiment showed that the congested areas in the power system topology map were reduced by 65.4%, and duplicate elements were reduced to 0%. The results indicate that this method can effectively improve the visualization effect of power topology maps for large-scale power systems, while adhering to the true geographical location of power elements. It greatly enhances the interaction between the power system and humans, as well as the visualization of the power system.

State Grid Corporation of China (China) (CN), China Southern Power Grid (China) (CN)
Openalex Percentile: Top 76%
Power Systems and Technologies
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Power System Visualization Enhancement Technology Guided by Force-oriented Algorithms — Dongzhu Duan, Yunjie Qin, et al. · (2024) | TGRS Research Map | TGRS