首页> 外文会议>ASME international mechanical engineering congress and exposition;IMECE2011 >Simulation and Visualization of Dynamic Systems using MATLAB, Simulink, Simulink 3D Animation, and SolidWorks
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Simulation and Visualization of Dynamic Systems using MATLAB, Simulink, Simulink 3D Animation, and SolidWorks

机译:使用MATLAB,Simulink,Simulink 3D Animation和SolidWorks对动态系统进行仿真和可视化

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There are many approaches to simulating and visualizing a dynamic system. Our focus is on developing/understanding and trading-off three different approaches that are relatively easy to implement with inexpensive, commonly available software using combinations of MATLAB, Simulink, Simulink 3D Animation, SolidWorks (basic), SolidWorks (Motion Manager) in addition to several common animation players such as Windows (Live) Movie Maker or the resident animation capability within MATLAB. The "SolidWorks Design Table" approach entails creating MATLAB/Simulink driven time-dependent assembly configurations, associated graphics files (e.g. JPG, TIFF) and then effectively "playing" them sequentially with animation software. The "SolidWorks Motor" approach utilizes SolidWorks' Motion Manager capability (an add-on), whereby each spatially time-dependent geometric system variable is driven by a "motor" based on MATLAB/Simulink time-dependent data and an animation file can be generated from within Motion Manager. Lastly, in the "Simulink 3D Animation" approach, SolidWorks data is brought into the MATLAB environment and modified with V-Realm Builder (VRML Editor) supplied within the Simulink 3D Animation toolbox to define geometric constraints prior to inclusion as an animation VR Sink block within the Simulink model of the dynamic system. In each case, detailed procedures are provided. To exercise these three different approaches and permit comparisons, a benchmark problem was posed: parallel-parking of a four-wheeled vehicle possessing front wheel steering. Comparisons were then made and the recommended approach depends on such issues as the software background of the developer, the animation quality standard (e.g. framerate), and relative ease of implementation.
机译:有许多方法可以模拟和可视化动态系统。我们的重点是开发/理解和权衡三种相对容易实现的方法,这些方法使用MATLAB,Simulink,Simulink 3D动画,SolidWorks(基本),SolidWorks(运动管理器)的组合以及相对便宜的常用软件即可轻松实现。几种常见的动画播放器,例如Windows(Live)Movie Maker或MATLAB中的驻留动画功能。 “ SolidWorks Design Table”方法需要创建MATLAB / Simulink驱动的时间相关的装配配置,关联的图形文件(例如JPG,TIFF),然后使用动画软件有效地依次“播放”它们。 “ SolidWorks Motor”方法利用了SolidWorks的运动管理器功能(一个附加组件),从而每个时空相关的几何系统变量都由基于MATLAB / Simulink时相关数据的“电动机”驱动,并且可以创建动画文件。从Motion Manager中生成。最后,采用“ Simulink 3D动画”方法,将SolidWorks数据带入MATLAB环境,并使用Simulink 3D Animation工具箱中提供的V-Realm Builder(VRML编辑器)进行修改,以定义几何约束,然后将其包含为动画VR Sink块。在动态系统的Simulink模型中。在每种情况下,都提供了详细的过程。为了实施这三种不同的方法并允许进行比较,提出了一个基准问题:具有前轮转向的四轮车辆的平行停车。然后进行比较,推荐的方法取决于诸如开发人员的软件背景,动画质量标准(例如帧速率)和相对容易实现等问题。

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