2018年WASA组委会寄语

Darko Durisic, Yaping Luo, M. Staron, Y. Dajsuren
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引用次数: 0

摘要

随着软件和电子技术的出现,汽车公司正在进行创新,以提高安全性、安全性、驾驶员体验和驾驶自动化。此外,由于未来的创新,软件的复杂性和规模不断增长,例如自适应巡航控制,车道保持,自学习算法等,这些都导致了自动驾驶的最终目标。因此,随着多年来软件使用的增加,要求汽车公司使用架构和基于模型的技术来开发他们的系统,从而引入了范式转变。尽管基于模型的技术(例如MATLAB/Simulink和Stateflow)作为开发汽车控制软件的标准语言和工具在汽车工业中被接受,但系统和软件架构技术仍远未被广泛接受。这并不包括AUTOSAR标准,AUTOSAR标准定义了设计和配置汽车软件架构的语言,并确定了汽车系统的主要架构组件。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Message from the WASA 2018 Organizing Committee
With the advent of software and electronics, automotive companies are enabling innovation to improve safety, security, driver experience, and driving automation. Moreover, the complexity and size of software keep growing because of future innovations, such as adaptive cruise control, lane keeping, self-learning algorithms, etc, which all leads to the ultimate goal of autonomous driving. Consequently, increasing use of software over the years, introduced the paradigm shift by requiring automotive companies to develop their systems using architecture and model-based techniques. Although model-based techniques using e.g. MATLAB/Simulink and Stateflow are being accepted in the automotive industry as standard languages and tooling for developing automotive control software, the techniques for system and software architecture are still far from being widely accepted. This is excluding the AUTOSAR standard, which defines the language for designing and configuring automotive software architectures and identifies major architectural components of automotive systems.
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