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Heuristic Knowledge-Driven Spatio-Temporal Forecasting via Multigraph

delete2026-02-27
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PRE
AI
X
Xiao Xiao
X
Xufeng Xiang
杨馨越 cover
杨馨越 (Xinyue Yang)
Z
Zhiling Jin
J
Jing Xu
S
Shuo Wang
G
Guoqiang Mao
W
Wei Shao
DOI:10.1109/tnnls.2026.3656372delete
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Abstract

Abstract

En 中文
The importance of precise long-term forecasting in practical applications continues to rise. Extensive scenarios, including parking resource prediction and environmental quality monitoring, rely significantly on LSTF’s accurate spatio-temporal forecasting capabilities. This technology strengthens prediction effectiveness by combining interaction relationships between spatial-temporal dimensions with contextual data integration. Over time, graph neural networks (GNNs) have proven highly effective in capturing spatial interdependencies. Recent advances have introduced multi-GNNs (MGNNs), which incorporate more contextual insights to improve predictive accuracy. However, when MGNNs are applied to long-term spatio-temporal forecasting (LSTF), they encounter challenges such as limited generality, under-utilization of context, static graph merging methods, and overlooking dynamic interrelations. To address these issues, we propose novel graph structures that encode each node’s contextual information while fully exploiting long-term spatio-temporal dependencies. Furthermore, this research designs a dynamic multigraph fusion architecture that integrates spatial dimensions, temporal features, and graph attention mechanisms to simultaneously capture intragraph node correlations and cross-graph interactions. To strengthen relational analysis, trainable weight tensors are employed for quantitative evaluation of node importance across graphs. Systematic experiments on three large-scale benchmark datasets confirm that this approach achieves significant performance enhancement for existing GNNs in LSTF tasks.
Keywords:
Attention mechanisms
deep learning
graph neural networks (GNNs)
long-term spatio-temporal forecasting (LSTF)

Journal

IEEE Transactions on Neural Networks and Learning Systems cover
IEEE Transactions on Neural Networks and Learning Systems
IF:
8.9
Papers:
7.5K
Citations:
7.2W

Organization

X
xidian university
Scholars:
5.1K
Papers: 1.8K
Citations: 0
B
beijing normal university
Scholars:
4.1K
Papers: 1.7K
Citations: 0
C
csiro
Scholars:
893
Papers: 455
Citations: 0
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