纸质出版:2026
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王继东, 柴艺晗, 周越, 等. 基于深度可分离时间卷积与图卷积的综合能源系统负荷预测[J]. 电力系统保护与控制, 2026,54(14).
WANG Jidong, CHAI Yihan, ZHOU Yue, et al. A load forecasting method for integrated energy systems based on depthwise separable temporal convolution and graph convolution[J]. Power System Protection and Control, 2026, 54(14).
王继东, 柴艺晗, 周越, 等. 基于深度可分离时间卷积与图卷积的综合能源系统负荷预测[J]. 电力系统保护与控制, 2026,54(14). DOI: 10.19783/j.cnki.pspc.260039.
WANG Jidong, CHAI Yihan, ZHOU Yue, et al. A load forecasting method for integrated energy systems based on depthwise separable temporal convolution and graph convolution[J]. Power System Protection and Control, 2026, 54(14). DOI: 10.19783/j.cnki.pspc.260039.
在综合能源系统中,同一区域的多能负荷既存在跨能量耦合关系,又存在跨节点的时空依赖关系。针对传统独立建模难以刻画跨能量、跨节点依赖的问题,提出一种融合深度可分离时间卷积网络和图卷积网络的负荷预测方法。首先,根据用能特征相似性筛选用能单元,构建负荷数据集。然后,构建深度可分离时间卷积网络与图卷积网络的融合框架,并引入多头稀疏注意力模块以捕获关键时刻交互信息。最后,采用自适应门控机制融合深度可分离时间卷积网络和图卷积网络。实验结果表明,所提方法在综合能源系统的负荷预测中具有更高的精度,误差小于对比模型,并在单步与多步预测任务上均展现出有效性。
In integrated energy systems
multi-energy loads within the same region exhibit not only cross-energy coupling relationships but also cross-node spatiotemporal dependencies. To address the difficulty of capturing these cross-energy and cross-node dependencies using traditional independent modeling approaches
a load forecasting method that integrates a deep separable temporal convolutional network with a graph convolutional network is proposed. First
energy-consuming units are selected based on similarities of their energy consumption characteristics to construct the load dataset. Next
a fusion framework combining a deep separable temporal convolutional network and a graph convolutional network is established
incorporating a multi-head sparse attention module to capture key temporal interaction information at critical time steps. Finally
an adaptive gating mechanism is employed to integrate the deep separable temporal convolutional network and the graph convolutional network. Experimental results demonstrate that the proposed method achieves higher accuracy in load forecasting for integrated energy systems
with lower prediction errors
and exhibits superior performance in both single-step and multi-step forecasting tasks.
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