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CausalPD: Joint Causal Discovery and Intervention for Large-Scale Pavement Distress Distribution Data
Summary
CausalPD accurately predicts pavement distress using causal discovery and transformer models, improving infrastructure maintenance. This framework enhances prediction accuracy and interpretability for pavement health monitoring.
Area of Science:
- Civil Engineering
- Data Science
- Infrastructure Management
Background:
- Pavement distress modeling is crucial for infrastructure resilience and maintenance planning.
- Existing methods struggle with sparse, non-stationary data and lack daily granularity.
- Infrequent inspections limit the effectiveness of current pavement inspection systems (PISs).
Purpose of the Study:
- To introduce CausalPD, a novel framework for predicting pavement distress distributions.
- To leverage joint causal discovery and intervention for enhanced pavement health monitoring.
- To improve the accuracy and interpretability of pavement degradation predictions.
Main Methods:
- Utilizing a transformer-based architecture to extract causal patches from historical pavement data.
- Integrating joint causal discovery and intervention to model pavement degradation.
- Mitigating confounding influences to isolate genuine causal signals from noise.
Main Results:
- CausalPD demonstrates superior performance compared to state-of-the-art methods on real-world datasets.
- The framework achieves high accuracy across various scenarios, forecasting horizons, and network configurations.
- Validation confirms robust inductive biases and generalization capabilities of the CausalPD model.
Conclusions:
- CausalPD establishes a promising causal modeling paradigm for infrastructure health monitoring.
- The framework supports proactive maintenance planning by providing accurate distress predictions.
- CausalPD enhances the optimization of pavement inspection systems and preventive maintenance strategies.
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