AIROSYApr 25, 2022

Testing predictive automated driving systems: lessons learned and future recommendations

arXiv:2205.10115v112 citationsh-index: 46
Originality Synthesis-oriented
AI Analysis

This addresses testing challenges for automated driving systems, offering incremental improvements to certification methods.

The paper identifies limitations of current physical testing approaches for predictive automated driving systems, which fail to evaluate safety in critical and edge cases or long-term anticipation, and provides practical recommendations based on tests from the BRAVE project.

Conventional vehicles are certified through classical approaches, where different physical certification tests are set up on test tracks to assess required safety levels. These approaches are well suited for vehicles with limited complexity and limited interactions with other entities as last-second resources. However, these approaches do not allow to evaluate safety with real behaviors for critical and edge cases, nor to evaluate the ability to anticipate them in the mid or long term. This is particularly relevant for automated and autonomous driving functions that make use of advanced predictive systems to anticipate future actions and motions to be considered in the path planning layer. In this paper, we present and analyze the results of physical tests on proving grounds of several predictive systems in automated driving functions developed within the framework of the BRAVE project. Based on our experience in testing predictive automated driving functions, we identify the main limitations of current physical testing approaches when dealing with predictive systems, analyze the main challenges ahead, and provide a set of practical actions and recommendations to consider in future physical testing procedures for automated and autonomous driving functions.

Foundations

The foundational work for this paper's niche, ranked by how specifically the neighbourhood builds on it — not by global fame.

Your Notes