利用虚拟试验台进行分布式仿真及其实时扩展

J. Bastos, J. Wu, N. Schulz, R. Liu, A. Monti
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引用次数: 13

摘要

分布式仿真在系统设计的许多层面上都是可取的。大型复杂系统的建模和仿真、远程监视和控制以及设备的无损远程检测是分布式和实时分布式仿真具有优势的众多应用中的三个例子。分布式仿真允许将大型复杂系统划分为两个或多个较小的子系统,从而降低了仿真的复杂性。此外,分布式仿真允许计算资源共享并支持团队合作。虚拟试验台(VTB)及其实时扩展VTB- rt已经适应了非实时和实时的分布式仿真。密西西比州立大学和南卡罗来纳大学的努力使分布式仿真模型添加到VTB模型库中,以处理解耦点的自然耦合和信号耦合成为可能。这些努力的重点是用于在分布式环境中加强模拟稳定性和节能的算法。与分布式仿真环境中使用的不同通信体系结构相关的实现问题仅在本文中简要讨论。本文所描述的分布式仿真模型是使用一个简单的远程过程调用通信方案实现的,这足以证明所提出的算法。通过算例验证了所建立的VTB模型的适用性和准确性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Distributed simulation using the virtual test bed and its real-time extension
Distributed simulation is desirable at many levels of system design. Modeling and simulation of large complex systems, remote monitoring and control, and nondestructive remote testing of devices are three examples of the many applications in which both distributed and realtime distributed simulation are advantageous. Distributed simulation reduces simulation complexity by allowing the partitioning of a large complex system into two or more smaller subsystems. In addition, distributed simulation permits computational resource sharing and enables teamwork. The Virtual Test Bed (VTB) and its real-time extension, VTB-RT, have been adapted to deal with distributed simulation in both non-real-time and real-time. Efforts at Mississippi State University and the University of South Carolina have made possible the addition of models for distributed simulation to the VTB model library to handle both natural and signal coupling at the decoupling point. The focus of these efforts has been on the algorithms used to enforce simulation stability and energy conservation in a distributed environment. Implementation issues related to the different communication architectures used in distributed simulation environments are only briefly discussed in this paper. The models for distributed simulation described in this paper are implemented using a simple remote procedure call communication scheme, which is sufficient to demonstrate the proposed algorithms. Several examples presented in this paper demonstrate the applicability and accuracy of the developed VTB models.
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