DSETA Improves Real-Time Travel Time Prediction in Dynamic Traffic

Yanming Lyu, Yue Cheng, Lingkun Li, Ruipeng Gao, Xinyue Liu, Hui Gao, Qiang Ni· August 4, 2026 View original

Key takeaways

  • DSETA uses a dual-stage continual learning approach for robust ETA prediction.
  • It effectively adapts to both short-term traffic events and long-term pattern shifts.
  • A knowledge consolidation module prevents catastrophic forgetting of regular patterns.
  • The framework has demonstrated significant real-world performance improvements and is deployed in production.

Who benefits

TransportationLogisticsRide-HailingUrban PlanningE-commerce

Summary

This paper introduces DSETA, a dual-stage continual learning framework for Estimated Time of Arrival (ETA) prediction that adapts to dynamic traffic patterns. It disentangles long-term trends from short-term fluctuations, achieving significant accuracy improvements in real-world ride-hailing platforms.

Predicting Estimated Time of Arrival (ETA) accurately is fundamental for intelligent transportation systems, especially in large, congested cities where traffic patterns are highly dynamic. Existing prediction models often struggle to adapt to sudden congestion or irregular events like holidays, leading to degraded performance. This research addresses these limitations by proposing DSETA, a Dual-Stage ETA prediction framework that employs continual learning. DSETA's innovation lies in its two-stage learning process: an "intra-day" stage that uses real-time data for immediate adaptation to short-term events, and an "inter-day" stage that leverages aggregated historical data to capture long-term distribution shifts such as seasonal trends. To prevent "catastrophic forgetting" of regular patterns, a Historical Traffic Knowledge Consolidation module is integrated. Extensive offline and online experiments on DiDi's platform across major Chinese cities demonstrated significant Mean Absolute Error (MAE) reductions, confirming DSETA's effectiveness and robustness. The framework is already deployed in production, handling hundreds of millions of daily requests.

Why it matters

Accurate real-time ETA prediction is critical for logistics, ride-hailing, and urban planning, directly impacting customer satisfaction, operational efficiency, and resource allocation.

How to implement this in your domain

  1. 1Evaluate DSETA's dual-stage continual learning approach for your own logistics or transportation prediction models.
  2. 2Implement a similar intra-day and inter-day learning architecture to adapt to dynamic real-time data.
  3. 3Develop a knowledge consolidation module to prevent model degradation from concept drift.
  4. 4Conduct A/B tests in production environments to validate performance gains in real-world scenarios.

Original post by Yanming Lyu, Yue Cheng, Lingkun Li, Ruipeng Gao, Xinyue Liu, Hui Gao, Qiang Ni

"arXiv:2608.00402v1 Announce Type: new Abstract: Estimated Time of Arrival (ETA) prediction is a core component of intelligent transportation systems. As traffic congestion patterns become increasingly dynamic in large cities, maintaining high prediction accuracy poses a major cha…"

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Originally posted by Yanming Lyu, Yue Cheng, Lingkun Li, Ruipeng Gao, Xinyue Liu, Hui Gao, Qiang Ni on X · view source

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