Robust Learning-Based Trajectory Planning for Emerging Mobility Systems
Behdad Chalaki, Andreas A. Malikopoulos

TL;DR
This paper presents a robust trajectory planning framework for connected and automated vehicles at intersections, incorporating uncertainty via Gaussian process regression to ensure safety constraints are met despite noisy observations.
Contribution
It extends existing CAV coordination frameworks by integrating online uncertainty estimation and robust optimization, enhancing safety and reliability.
Findings
Framework successfully accounts for trajectory deviations
Simulation shows improved safety margins
Robust planning maintains constraints under uncertainty
Abstract
In this paper, we extend a framework that we developed earlier for coordination of connected and automated vehicles (CAVs) at a signal-free intersection to incorporate uncertainty. Using the possibly noisy observations of actual time trajectories and leveraging Gaussian process regression, we learn the bounded confidence intervals for deviations from the nominal trajectories of CAVs online. Incorporating these confidence intervals, we reformulate the trajectory planning as a robust coordination problem, the solution of which guarantees that constraints in the system are satisfied in the presence of bounded deviations from the nominal trajectories. We demonstrate the effectiveness of our extended framework through a numerical simulation.
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Taxonomy
TopicsGaussian Processes and Bayesian Inference · Advanced Control Systems Optimization · Bayesian Modeling and Causal Inference
