ST-Mamba: Spatial-Temporal Selective State Space Model for Traffic Flow Prediction
Zhiqi Shao, Michael G.H. Bell, Ze Wang, D. Glenn Geers, Haoning Xi and, Junbin Gao

TL;DR
The paper introduces ST-Mamba, a novel spatial-temporal model for traffic flow prediction that improves accuracy and computational efficiency without using graph modeling, effectively capturing long-range dependencies.
Contribution
It presents the first spatial-temporal learning model for traffic prediction that avoids graph modeling, enhancing efficiency and long-range dependency capture.
Findings
Achieves 61.11% faster computation than previous models.
Improves prediction accuracy by 0.67%.
Sets new benchmarks in traffic flow prediction efficiency.
Abstract
Traffic flow prediction, a critical aspect of intelligent transportation systems, has been increasingly popular in the field of artificial intelligence, driven by the availability of extensive traffic data. The current challenges of traffic flow prediction lie in integrating diverse factors while balancing the trade-off between computational complexity and the precision necessary for effective long-range and large-scale predictions. To address these challenges, we introduce a Spatial-Temporal Selective State Space (ST-Mamba) model, which is the first to leverage the power of spatial-temporal learning in traffic flow prediction without using graph modeling. The ST-Mamba model can effectively capture the long-range dependency for traffic flow data, thereby avoiding the issue of over-smoothing. The proposed ST-Mamba model incorporates an effective Spatial-Temporal Mixer (ST-Mixer) to…
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Taxonomy
TopicsTraffic Prediction and Management Techniques · Data Management and Algorithms · Transportation Planning and Optimization
MethodsSPEED: Separable Pyramidal Pooling EncodEr-Decoder for Real-Time Monocular Depth Estimation on Low-Resource Settings
