As the urbanization process accelerates, the problem of traffic congestion is becoming increasingly severe. Efficient traffic flow prediction is crucial for traffic management and urban planning. This work proposes a spatiotemporal analysis model based on multi-order sampling neighbor aggregation, aiming to overcome the over-smoothing problem inherent in the traditional GCN multi-layer stacking. In the model construction, this work designs a spatial analysis module of multi-order sampling neighbor aggregation, which effectively solves the over smoothing problem and reduces the consumption of computing resources. In addition, this work also designs a time analysis module based on residual gated units, which uses a residual structure to complete the temporal analysis task of traffic data. The model is evaluated on real open-source datasets, and the results show that this model is superior to other comparative models, with a comprehensive error reduction of 6.34%.

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A Model of Multi-order Sampling Neighbor Aggregation for Traffic Flow Prediction

  • Shulan Guo,
  • Haoran Li,
  • Jianbo Li,
  • Zhiqiang Lv

摘要

As the urbanization process accelerates, the problem of traffic congestion is becoming increasingly severe. Efficient traffic flow prediction is crucial for traffic management and urban planning. This work proposes a spatiotemporal analysis model based on multi-order sampling neighbor aggregation, aiming to overcome the over-smoothing problem inherent in the traditional GCN multi-layer stacking. In the model construction, this work designs a spatial analysis module of multi-order sampling neighbor aggregation, which effectively solves the over smoothing problem and reduces the consumption of computing resources. In addition, this work also designs a time analysis module based on residual gated units, which uses a residual structure to complete the temporal analysis task of traffic data. The model is evaluated on real open-source datasets, and the results show that this model is superior to other comparative models, with a comprehensive error reduction of 6.34%.