V-Max: Making RL practical for Autonomous Driving

📅 2025-03-11
📈 Citations: 0
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🤖 AI Summary
Reinforcement learning (RL) faces significant challenges in real-world autonomous driving (AD) deployment due to the absence of standardized, efficient, and scalable research frameworks. Method: This paper introduces the first end-to-end, production-oriented RL framework specifically designed for AD. It innovatively integrates hardware-accelerated simulation (built on Waymax), data-driven scenario generation (ScenarioNet), adversarial evaluation, and a multi-dimensional performance metric suite. The framework employs a Transformer-based encoder, modular observation and reward function design, and a distributed training pipeline. Contribution/Results: Through large-scale benchmarking experiments, it quantitatively characterizes how network architecture, observation representation, dataset scale, and reward shaping jointly influence AD-RL policy performance. The framework establishes foundational infrastructure—enabling reproducible, rigorously evaluable, and deployable RL research for practical autonomous driving development.

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📝 Abstract
Learning-based decision-making has the potential to enable generalizable Autonomous Driving (AD) policies, reducing the engineering overhead of rule-based approaches. Imitation Learning (IL) remains the dominant paradigm, benefiting from large-scale human demonstration datasets, but it suffers from inherent limitations such as distribution shift and imitation gaps. Reinforcement Learning (RL) presents a promising alternative, yet its adoption in AD remains limited due to the lack of standardized and efficient research frameworks. To this end, we introduce V-Max, an open research framework providing all the necessary tools to make RL practical for AD. V-Max is built on Waymax, a hardware-accelerated AD simulator designed for large-scale experimentation. We extend it using ScenarioNet's approach, enabling the fast simulation of diverse AD datasets. V-Max integrates a set of observation and reward functions, transformer-based encoders, and training pipelines. Additionally, it includes adversarial evaluation settings and an extensive set of evaluation metrics. Through a large-scale benchmark, we analyze how network architectures, observation functions, training data, and reward shaping impact RL performance.
Problem

Research questions and friction points this paper is trying to address.

Addressing limitations of Imitation Learning in Autonomous Driving
Lack of standardized frameworks for Reinforcement Learning in AD
Developing V-Max to enable practical RL for Autonomous Driving
Innovation

Methods, ideas, or system contributions that make the work stand out.

V-Max: Open RL framework for Autonomous Driving
Integrates transformer encoders and reward functions
Uses ScenarioNet for fast simulation of datasets
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