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Joint Short-Term Origin-Destination Demand Prediction for Multimodal Transport Systems
Accurate short-term multimodal transportation demand prediction is challenging due to data limitations and intermodal influences. The proposed PD-MTSOD model effectively forecasts origin-destination demand by analyzing spatiotemporal features and intermodal correlations.
Area of Science:
- Transportation Science
- Data Science
- Applied Mathematics
Background:
- Short-term origin-destination (OD) demand prediction is vital for multimodal transportation systems.
- Existing methods struggle with real-time data availability, demand sparsity, high dimensionality, and intermodal influences.
Purpose of the Study:
- To develop a novel model for accurate short-term multimodal transportation OD demand prediction.
- To address challenges of data availability, sparsity, high dimensionality, and intermodal correlations.
Main Methods:
- Proposed a multitask learning and Partial-Differential-based model (PD-MTSOD).
- Incorporated an OD demand learner for real-time demand estimation.
- Utilized hypergraph attention for spatiotemporal feature aggregation.
- Decomposed OD demand and employed partial differential methods to model intermodal correlations.
Main Results:
- PD-MTSOD demonstrated superior performance compared to baseline models in tests on Beijing and New York City multimodal systems.
- Validated the benefits of jointly considering multiple transportation modes.
- Revealed significant correlations between different transportation modes.
Conclusions:
- The PD-MTSOD model offers a reliable approach for short-term multimodal transportation OD demand prediction.
- Jointly analyzing multiple transportation modes enhances prediction accuracy.
- Understanding intermodal correlations is crucial for effective transportation management.
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