虚拟机和进程的设计与利用

Z. Bzymek
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引用次数: 1

摘要

虚拟模型(VMd)、虚拟机(VMn)和虚拟过程(VP)在产品制造设计、研究和开发中越来越成为有用的工具。它们提供了在建立机器的物理模型或原型之前调查制造和生产问题的可能性。虚拟机和虚拟过程是用于机械加工设备设计和观察生产过程的技术。它们由一组最近开发的技术和方法组成,这些技术和方法允许构建机器计算机模型和模拟制造过程。这组制造技术的特殊之处在于,它们允许在实际原型及其特定工具制造之前检查加工和生产参数。使用这些虚拟制造技术的可能性可以大大节省时间和金钱。一般来说,虚拟制造承诺更短的设计周期和更多的设计迭代,从而实现最佳设计和更好地利用资源。任何虚拟制造的最终目标都是产生一台机器的虚拟模型,该模型将从包含物理对象的几何描述的数据库文件中虚拟地制造零件,其中包含预定义的几何实体。实际的制造硬件提供了加工零件的物理手段,而虚拟加工允许将零件作为计算机模型进行加工。采用专门的软件搭建CAD数据与虚拟制造系统之间的桥梁。这样的软件应该控制各种参数,如定位系统进行的速度、刀具路径、要去除的材料层的厚度和/或路径的长度、切片长度等。虚拟制造为各种制造硬件的运动控制和简单操作提供了一种手段。本文描述的方法和软件允许创建不同种类的铣床和磨床,然后与实际存在的机器和由它们生产的零件进行比较。本文介绍了三种虚拟系统。其中一个系统与CAD&CAM和专家系统实验室的实际系统进行了比较,另一个系统设计用于立体视图实验。第三个是正在设计的新机器。文中还介绍了利用虚拟加工技术实现工件精加工的实例。在设计、测试演示、制造设备和工艺以及设计和制造教学方面,提出了扩展虚拟制造技术的努力。这项工作是在康涅狄格大学进行的,使用的是配备了inventor、GL库和C编译器的Silicon Graphics系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and Utilization of Virtual Machines and Processes
Virtual Models (VMd), Virtual Machines (VMn) and Virtual Processes (VP) are becoming more and more useful tools in manufacturing design, research and development of products. They give possibility to investigate manufacturing and production problems prior to building a physical model or prototype of the machine. Virtual Machines and Virtual Processes are technologies used in the design of machining equipment and in looking at production processes. They consist of a group of recently developed techniques and approaches that allow the construction of machine computer models and the simulation of the fabrication process. What makes this group of manufacturing technologies special is that they allow the checking of machining and production parameters before actual prototypes and their specific tooling are manufactured. The possibility of using these virtual manufacturing techniques could result in great savings of both time and money. In general, virtual manufacturing promises shorter design cycles with more design iterations, leading to an optimal design and better use of resources. The end goal of any virtual manufacturing is to produce a virtual model of a machine that will virtually make the part from its database file containing the geometrical description of a physical object in terms of pre-defined geometric entities. The actual manufacturing hardware provides the physical means to machine the part, which Virtual Machining allows making the as a computer model. Special software is employed to bridge the gap between the CAD data and the virtual manufacturing system. Such software should control various parameters such as the rate at which the positioning system proceeds, the tool path, the thickness of the layer of the material for removal and/or length of the path, the slice length, and others. Virtual manufacturing provides a means of motion control and easy manipulation of various manufacturing hardware. The methods and software described in this paper allow the creation of different kinds of milling and grinding machines which are later compared with the actual existing machines and the parts produced by them. Three virtual systems are presented in this paper. One system was compared to the actual system operating in the CAD&CAM and Expert Systems Laboratory, and another was designed for stereoscopic view experiment. The third is a new machine that is in the design process. Also some examples of workpiece finish produced by virtual machining are described. The work presents an effort to extend virtual manufacturing techniques in design, testing demonstration and manufacturing equipment and processes as well as the teaching of design and manufacturing. The work was conducted at the University of Connecticut using Silicon Graphics systems equipped with inventor, GL library and C compilers.
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