为自动驾驶系统设计五层协同学习架构,提升安全与性能持续保障能力。
A Five-Layer MLOps Architecture for Connected Automated Driving
- 构建五层MLOps架构,支持多车多车队数据协同学习。
- 通过多层级自评估机制识别并减少罕见场景与黑天鹅事件。
- 适合自动驾驶车队运营方及系统设计者参考落地。
自动驾驶系统(ADS)在复杂动态开放环境中持续保障安全与性能面临巨大挑战。这些系统运行于涵盖各种罕见或未预见场景的环境中。尽管人工智能和机器学习技术使系统能从运行中收集的数据中学习并随时间适应,但同时也带来新问题。相比人类驾驶员,自动驾驶系统具备跨车队甚至跨企业车辆集体数据采集的能力,从而实现集体学习。车辆可通过共享与整合数据,发现个体车辆遗漏的学习机会。这为解决持续保障难题提供了新可能,但也需要支持集体学习的架构。本文基于成熟的MLOps原则及现有研究,提出一种面向自动驾驶系统的五层协同学习型MLOps架构。该架构旨在为车队运营商及其他相关方提供设计与实施MLOps流程的概念蓝图。论文详细描述了各层的主要职责、相互作用,以及如何通过多层级自评估机制支持对边缘案例(包括黑天鹅事件)的检测与缓解。
原文摘要 · Abstract (English)
The continual assurance of safety and performance of automated driving systems (ADSs) poses significant challenges. ADSs operate in complex, dynamic, open-world environments allowing a wide range of scenarios, including ones that are rare or not foreseen during initial development. While the incorporation of artificial intelligence (AI) and machine learning (ML) technology allows ADSs to learn from data gathered during operation and thus enables them to adapt over time, these approaches come with their own challenges. A key advantage of ADSs compared to human drivers is their greater ability to gather data collectively across a fleet of vehicles, or even across multiple fleets operated by different entities, and to learn from this data collectively. Vehicles can share and combine their data to identify additional learning opportunities otherwise missed by individual vehicles. This creates new opportunities to tackle the challenges of continual assurance of safety and performance, but requires the implementation of architectures that leverage the collective learning potential. Based on established MLOps principles and existing work in the field of connected automated driving, this paper presents a five-layer architecture for collective learning-enabled MLOps processes for ADSs. The goal of this architecture is to provide a conceptual blueprint for the design and implementation of MLOps processes by fleet operators and other relevant stakeholders. The paper describes the main responsibilities of each layer, their interactions, and how multi-level self-assessments enabled by the architecture can support the detection and reduction of edge cases including black swan events.
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