Structure of Simulation Systems for Structural-Dynamic Systems

F. Breitenecker, N. Popper
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引用次数: 1

Abstract

This contribution presents developments and trend for the structure of new simulation systems, or for extensions of existing simulation systems, in order to handle structural-dynamics systems in an adequate manner. The paper first introduces the CSSL standard for continuous system simulation and its consequences. In the following, discrete elements in continuous modelling and simulation; in more detail event structures are discussed and state events are classified. Thereby, the class of structural-dynamic systems is introduced: state events, changing the dimension of the state space, generate structural-dynamic systems. The paper continues with recent modelling standards in continuous modelling and simulation. There, Modelica and VHDL-AMS are leaving the classic input/output minus; related modelling methods and introduce non-causal modelling on a high level, including implicit models and state events associated with state events. Both new standards, extending and replacing the CSSL standard for the model frame, emphasise on continuous and hybrid modelling; but also especially Modelica allows defining pure discrete model constructs based on events, state charts, and Petri nets. The main chapter concentrates on new proposals for extending model frame and experimental frame of simulation systems, mainly in order to handle structural-dynamic systems properly. There, features of two competing 'philosophies' are sketched, maximal state space versus hybrid decomposition. The paper concludes with a concept for generalisation of the experimental frame, leaving the limits of pure time domain analysis
结构动力系统仿真系统的结构
这篇文章提出了新的仿真系统结构的发展和趋势,或现有仿真系统的扩展,以便以适当的方式处理结构动力学系统。本文首先介绍了用于连续系统仿真的CSSL标准及其影响。下面,对离散元进行连续建模和仿真;更详细地讨论了事件结构并对状态事件进行了分类。由此,引入了结构-动力系统的一类:状态事件,改变状态空间的维数,生成结构-动力系统。本文继续介绍了连续建模和仿真的最新建模标准。在这里,Modelica和VHDL-AMS摆脱了传统的输入/输出负;相关的建模方法,并在高层次上引入非因果建模,包括隐含模型和与状态事件相关的状态事件。这两个新标准都扩展和取代了CSSL模型框架标准,强调连续和混合建模;特别是Modelica允许定义基于事件、状态图和Petri网的纯离散模型构造。主要章节集中讨论了扩展仿真系统模型框架和实验框架的新建议,主要是为了更好地处理结构动力系统。在那里,两种相互竞争的“哲学”的特征被概述,最大状态空间与混合分解。本文最后提出了一个推广实验框架的概念,摆脱了纯时域分析的局限性
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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