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  • 712F Boyd Research and Education Center
  • 200 D.W. Brooks Drive, Athens, GA 30602
yunli.shao@uga.edu

Traffic Prediction for Control

Energy-efficient and safe driving depends on what traffic ahead will do next. We combine learned models for the next few seconds with queue and traffic-flow models for longer horizons, built to feed a controller.

Occupancy-flow prediction, 6 s ahead
Learned + queue theory, 15 s

Occupancy-flow prediction for the first 5 s, queue theory for the next 10 s. The joint prediction (red) stays on the true path where a queue-only baseline drifts. [1]

Connected vehicles, 10–15 s

A traffic-flow model with a Kalman filter estimates the road ahead from connected vehicles and predicts the car in front, now including cut-ins: up to 36% lower error. [3]

Along the corridor: neighbouring road segments
I-24 MOTION freeway segment, Nashville, satellite viewGround truth and predicted occupancy, 1 to 15 steps ahead

Occupancy on a freeway segment (I-24 MOTION), ground truth on top and predictions below, from 1 to 15 steps ahead. Adding context from neighbouring segments (TFA) keeps the long-horizon predictions closer to the truth. [2] Code

Where these predictions are used: Real-time optimal control of CAVs · on real campus traffic: Living Lab

Publications

  1. Z. Jia and Y. Shao, "Joint prediction of virtual leader from future occupancy and queueing theory in automated vehicles," Modeling, Estimation and Control Conference (MECC), 2026.
  2. H. Guo and Y. Shao, "Traffic flow aware occupancy prediction for energy and mobility centric connected and automated vehicles," Modeling, Estimation and Control Conference (MECC), 2025.
  3. S. He, S. Wang, Y. Shao, Z. Sun and M. W. Levin, "A connectivity-based real-time traffic prediction considering lane-changing maneuvers with application to eco-driving control of electric vehicles," IEEE Trans. Vehicular Technology, 2025.
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