Geographically distributed thermo-electric co-simulation of all-electric ship

M. Faruque, V. Dinavahi, M. Sloderbeck, M. Steurer
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引用次数: 19

Abstract

In this paper, a thermo-electric co-simulation of an all-electric ship type notional system using two geographically distributed heterogeneous real-time simulators is presented. The two real-time simulators, from RTDS and OPAL-RT, are used for modeling the electrical system and the thermal system of an all-electric ship, respectively. RTDS is located at the Center for Advanced Power Systems, Florida State University, Tallahassee, Florida, USA whereas the OPAL-RT simulator is located in the RTX-Lab at the University of Alberta, Edmonton, Canada. The two simulators separated by approximately 3500 km, exchange data through an asynchronous link over the Internet utilizing the TCP/IP and UDP protocols. The electrical model was developed using RSCAD and simulated on RTDS while the thermal model was developed using SIMULINK and simulated in the RT-LAB environment. RTDS sends the electrical power losses to the OPAL-RT simulator, which computes the temperatures of the thermal systems and sends the data back to the RTDS simulator. Simulation results indicate that despite the large physical distance between the two simulators, the co-simulation is accurate and stable. A low latency of 0.208 s was observed which is within acceptable limits for a slow system response expected from the thermal system, which has time constants in the range of seconds. Results indicate that co-simulation of different types of systems is a viable and may be a cost-effective option to perform remote hardware-in-the-loop simulation of complex multi-engineering models.
全电动船舶地理分布热电联合仿真
本文利用两个地理分布异构实时模拟器对全电船型概念系统进行了热电联合仿真。RTDS和OPAL-RT两种实时模拟器分别用于全电动船舶的电气系统和热系统建模。RTDS位于美国佛罗里达州塔拉哈西佛罗里达州立大学先进电力系统中心,而OPAL-RT模拟器位于加拿大埃德蒙顿阿尔伯塔大学的rtx实验室。这两个模拟器相距约3500公里,通过互联网上利用TCP/IP和UDP协议的异步链路交换数据。电模型采用RSCAD开发,在RTDS上进行仿真;热模型采用SIMULINK开发,在RT-LAB环境下进行仿真。RTDS将电力损耗发送给OPAL-RT模拟器,OPAL-RT模拟器计算热系统的温度,并将数据发送回RTDS模拟器。仿真结果表明,尽管两个模拟器之间的物理距离较大,但联合仿真是准确和稳定的。观察到0.208 s的低延迟,这在热系统预期的缓慢系统响应的可接受范围内,其时间常数在秒范围内。结果表明,不同类型系统的联合仿真是一种可行的方法,并且可能是一种经济有效的方法,可以对复杂的多工程模型进行远程硬件在环仿真。
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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