下一代舰船电力系统应具备快速自重构和自愈能力，如何在舰船受到损伤情况下，实现电力系统高韧性运行具有重要意义。本文采用Matlab建立舰船电力系统网络Simulink仿真模型，对电网及设备运行性能进行模拟，采用Java建立JSON文件格式的电网拓扑结构图，采用舰船电网量化性能指标，对电网受损后的运行能力进行整体评估，建立基于遗传算法的电网损伤重构模型，分析舰船电力系统在典型损伤场景下的可重构性。本文研究为提高舰船电力系统的可靠性和韧性建立了基础。
The next generation of ship power systems should have fast self reconstruction and self-healing capabilities. It is of great significance to achieve high resilience operation of power systems in the event of damage to ships. This article uses Matlab to establish a Simulink simulation model for ship power system network, simulate the operation performance of the power grid and equipment, use Java to establish a JSON file format power grid topology diagram, use ship power grid quantitative performance indicators to evaluate the overall operation ability of the power grid after damage, establish a genetic algorithm based power grid damage reconstruction model, and analyze the reconfigurability of ship power system in typical damage scenarios. This study establishes a foundation for improving the reliability and resilience of ship power systems.
2024,46(22): 130-135 收稿日期：2024-1-31
DOI：10.3404/j.issn.1672-7649.2024.22.023
分类号：TK421
作者简介：柯强军(1998-),男,硕士研究生,研究方向为舰船动力装置仿真
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