燃气涡轮发动机与电、热系统动态交互作用的评价

E. Thirunavukarasu, R. Fang, J. Khan, R. Dougal
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引用次数: 3

摘要

在海军未来的全电动舰船设计中,燃气涡轮发动机是专门用于发电的。然后将电力发送到公共电气总线,以分配给推进和非推进电气负载。因此,燃气涡轮发动机与电气系统,甚至与热系统是动态耦合的,这通常是电气系统设计的关键。了解发动机运行与电气和热系统行为之间存在的相互作用变得越来越重要。本文提出了一种跨学科仿真的联合仿真方法。这种方法是通过集成双轴燃气轮机模型、发电和配电系统以及热系统来实现的。在本研究中,热系统主要用于管理电力系统中电源转换器产生的热量。本文讨论了燃料流在燃气涡轮发动机的动态扰动过程中可能发生的潜在相互作用。给出了燃气轮机发电动力学、负荷间功率再分配、功率变流器温度的初步仿真结果,以证明建模和仿真能力,并说明了进一步研究的机会。
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Evaluation of gas turbine engine dynamic interaction with electrical and thermal system
In navy's future all-electric ship design, the gas turbine engine is dedicated to electrical power generation. The power is then sent to a common electrical bus for allocation to both propulsion and non-propulsion electrical loads. Thus the gas turbine engine is dynamically coupled with the electrical system, and even with the thermal system, which is usually critical for the electrical system design. It has becoming increasingly important to understand the interactions that exist between the operation of the engine and the behavior of the electrical and thermal systems. This paper presents a co-simulation approach for cross-disciplinary simulations. Such an approach is implemented by integrating a twin-shaft gas turbine model, with a power generation and distribution system, and a thermal system. In this study, the thermal system is mainly used to manage the heat generated by the power converters in the electrical system. This paper discusses potential interactions that could take place during a dynamic disturbance of the fuel flow to the gas turbine engine. Preliminary simulation results for the dynamics of gas turbine power generation, power redistribution between the electrical loads, temperatures of power converters are presented to demonstrate the modeling and simulation capability, as well as illustrating the opportunities for further research.
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