Vehicle-to-Everything (V2X) Communication and Autonomous Driving

Report on Recent Developments in Vehicle-to-Everything (V2X) Communication and Autonomous Driving

General Direction of the Field

The recent advancements in the field of Vehicle-to-Everything (V2X) communication and autonomous driving are significantly shaping the future of transportation systems. The integration of V2X technology with autonomous vehicles (AVs) is leading to more intelligent, connected, and safer urban environments. Key developments include the implementation of adaptive intersection control systems, cooperative perception strategies, and context-aware agent-based models for long-distance transport. These innovations are not only enhancing road safety and fuel efficiency but also paving the way for more sustainable and efficient transportation networks.

One of the major trends is the shift towards situation-aware decision-making in autonomous driving. This involves leveraging extended perception ranges through cooperative perception on demand (CPoD) to improve vehicle decision-making performance. The use of Partially Observable Markov Decision Processes (POMDPs) for modeling and solving these complex scenarios in an online manner is proving to be a robust approach for ensuring safe and efficient autonomous operations in urban settings.

Another significant area of focus is the development of rule-adherence motion planners based on extended Responsibility-Sensitive Safety (eRSS) frameworks. These planners are designed to enhance safety and responsibility determination in autonomous driving, particularly in scenarios involving interaction uncertainty and emergency collision avoidance. The integration of eRSS with motion planning is addressing the limitations of current frameworks and offering more stable and smoother steering maneuvers.

The field is also witnessing advancements in multi-agent path finding for mixed autonomy traffic coordination. As Connected and Automated Vehicles (CAVs) increasingly interact with Human-Driven Vehicles (HDVs), there is a growing need for sophisticated algorithms that can predict and accommodate the behaviors of HDVs. The Behavior Prediction Kinematic Priority Based Search (BK-PBS) algorithm, which integrates offline-trained conditional prediction models with priority-based search, is emerging as a promising solution for reducing collision rates and enhancing system-level travel delay in mixed-traffic environments.

Noteworthy Papers

  • Adaptive Intersection Control Systems: Demonstrates significant fuel efficiency improvements through reduced acceleration and braking, offering a cost-effective solution for intelligent intersection control.

  • Cooperative Perception on Demand (CPoD): Enhances autonomous driving decision-making by leveraging extended perception ranges only when necessary, ensuring safer and more efficient urban driving.

  • Rule-Adherence Motion Planner (RAMP) Based on eRSS: Achieves faster and safer lane merging and smoother emergency collision avoidance, significantly improving driving safety and stability.

  • Multi-agent Path Finding for Mixed Autonomy Traffic: Proposes a novel algorithm for coordinating CAVs and HDVs, reducing collision rates and improving travel efficiency in mixed-traffic scenarios.

Sources

Vehicle-to-Everything (V2X) Communication: A Roadside Unit for Adaptive Intersection Control of Autonomous Electric Vehicles

Situation-aware Autonomous Driving Decision Making with Cooperative Perception on Demand

Context-Aware Agent-based Model for Smart Long Distance Transport System

eRSS-RAMP: A Rule-Adherence Motion Planner Based on Extended Responsibility-Sensitive Safety for Autonomous Driving

Developing, Analyzing, and Evaluating Self-Drive Algorithms Using Drive-by-Wire Electric Vehicles

Multi-agent Path Finding for Mixed Autonomy Traffic Coordination