Optimization of energy acquisition system in smart grid based on artificial intelligence and digital twin technology

Q2 Energy
Zhen Jing, Qing Wang, Zhiru Chen, Tong Cao, Kun Zhang
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引用次数: 0

Abstract

In response to the low operating speed and poor stability of energy harvesting systems in smart grids, an energy harvesting optimization method based on improved convolutional neural networks and digital twin technology is proposed in the experiment. Firstly, a smart grid data transmission framework integrating digital twin technology is proposed. A digital twin mapping method based on time, data, and topology structure is used to realize the digital twin mapping at the device level of power grid. Through data synchronization and interaction between the physical power grid and the digital twin model, the operational efficiency and reliability of the power grid are improved. Then, the classical convolutional neural network and attention mechanism are used to comprehensively analyze the physical topology data in the smart grid energy acquisition system. The improved lightweight target detection model is combined to monitor the equipment status of the smart grid and extract key features. Simultaneously utilizing convolutional attention mechanism to dynamically adjust the feature weights of channels or spaces, completing the preprocessing of energy harvesting data. Finally, combined with energy harvesting and power grid switching system, the process of energy harvesting and power grid operation are optimized together. On the training and validation sets, when the channels exceeded 60, the proposed method achieved a system energy efficiency of 55% during operation. The system energy efficiency of the other three comparative algorithms was all less than 40%. In practical applications, as the energy transfer loss increased to 1.0, the system throughput increased to 50 bits. The electricity needs of different users were met, and the difference between power allocation and optimal power allocation was small, which was very reasonable. This proves that the research has effectively optimized the energy harvesting system in the smart grid, improving the efficiency and reliability of the system in practical applications of the smart grid. At the same time, in the increasingly severe energy problem, this system can further provide technical references for the utilization of renewable energy and help achieve the goal of sustainable energy.

基于人工智能和数字孪生技术的智能电网能源采集系统优化
针对智能电网中能量采集系统运行速度低、稳定性差的问题,本实验提出了一种基于改进卷积神经网络和数字孪生技术的能量采集优化方法。首先,提出了融合数字孪生技术的智能电网数据传输框架。采用基于时间、数据和拓扑结构的数字孪生映射方法,实现电网设备层面的数字孪生映射。通过物理电网与数字孪生模型之间的数据同步和交互,提高了电网的运行效率和可靠性。然后,利用经典卷积神经网络和注意力机制对智能电网能量采集系统中的物理拓扑数据进行综合分析。结合改进的轻量级目标检测模型,监控智能电网的设备状态并提取关键特征。同时利用卷积注意力机制动态调整通道或空间的特征权重,完成能量采集数据的预处理。最后,结合能量采集和电网切换系统,共同优化能量采集和电网运行过程。在训练集和验证集上,当通道超过 60 个时,所提出的方法在运行过程中实现了 55% 的系统能效。而其他三种比较算法的系统能效都低于 40%。在实际应用中,当能量传递损耗增加到 1.0 时,系统吞吐量增加到 50 比特。不同用户的用电需求都得到了满足,而且功率分配与最优功率分配之间的差异很小,非常合理。这证明该研究有效优化了智能电网中的能量采集系统,提高了系统在智能电网实际应用中的效率和可靠性。同时,在能源问题日益严峻的情况下,该系统能进一步为可再生能源的利用提供技术参考,有助于实现可持续能源的目标。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Energy Informatics
Energy Informatics Computer Science-Computer Networks and Communications
CiteScore
5.50
自引率
0.00%
发文量
34
审稿时长
5 weeks
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