Adaptive Graph Convolutional Network Framework for Multidimensional Time Series Prediction
Ning Wang

TL;DR
This paper proposes an adaptive graph convolutional network framework that enhances multidimensional time series prediction by better capturing inter-dimensional relationships, significantly improving accuracy over existing models.
Contribution
It introduces an adaptive graph neural network into the Informer architecture to effectively model dependencies between different data dimensions in long sequence forecasting.
Findings
Accuracy improved by about 10% with the new framework.
The method effectively captures inter-dimensional relationships.
Experimental results validate the framework's superiority.
Abstract
In the real world, long sequence time-series forecasting (LSTF) is needed in many cases, such as power consumption prediction and air quality prediction.Multi-dimensional long time series model has more strict requirements on the model, which not only needs to effectively capture the accurate long-term dependence between input and output, but also needs to capture the relationship between data of different dimensions.Recent research shows that the Informer model based on Transformer has achieved excellent performance in long time series prediction.However, this model still has some deficiencies in multidimensional prediction,it cannot capture the relationship between different dimensions well. We improved Informer to address its shortcomings in multidimensional forecasting. First,we introduce an adaptive graph neural network to capture hidden dimension dependencies in mostly time series…
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Taxonomy
TopicsEnergy Load and Power Forecasting · Neural Networks and Applications · Traffic Prediction and Management Techniques
MethodsMulti-Head Attention · Attention Is All You Need · Graph Neural Network · Linear Layer · Layer Normalization · Byte Pair Encoding · Absolute Position Encodings · Residual Connection · Position-Wise Feed-Forward Layer · Dense Connections
