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储能系统技术 储能系统 三电平 ★ 5.0

电动飞机电池-燃料电池-电机直接集成的多目标矢量调制多端口逆变器

Multiport Inverter Implementing Multiobjective Vector Modulation for Direct Integration of Battery, Fuel-Cell, and Electric Motor in Electric Aircraft

作者 Rutger Kersjes · Prasanth Venugopal · Alte de Boer · Thiago Batista Soeiro
期刊 IEEE Journal of Emerging and Selected Topics in Power Electronics
出版日期 2025年5月
技术分类 储能系统技术
技术标签 储能系统 三电平
相关度评分 ★★★★★ 5.0 / 5.0
关键词 电动飞机 多源逆变器 能量管理 多目标矢量调制 功率传输角
语言:

中文摘要

针对Pipistrel Velis电动飞机提出功率分配系统,采用多源逆变器(MSI)集成电池储能系统和氢燃料电池增程器为电机供电。选择三相三电平T型逆变器处理两个独立直流电源和电机。针对储能系统和电机间功率传输管理挑战,引入多目标矢量调制(MOVM)策略,在变化条件下最大化燃料电池输出功率同时维持恒定电机功率。通过分离变换器输出矢量并引入可控功率传输角实现。描述该策略并提出计算最优功率传输角的方法。仿真和实验测试对比其他方案,在类似Pipistrel飞机典型飞行剖面条件下验证该方法。

English Abstract

This article proposes a power distribution system tailored for the Pipistrel Velis electric aircraft. It uses a multisource inverter (MSI), integrating a battery energy storage system and hydrogen fuel-cell range extender to power the electric motor. A three-phase three-level T-type inverter is chosen for its ability to handle two independent dc power sources and an electric motor. However, managing power transfer between the energy storage systems and motor poses a challenge. To address this, a multiobjective vector modulation (MOVM) strategy is introduced. This strategy aims to maximize fuel-cell output power while maintaining constant motor power, even under varying conditions. It involves separating converter output vectors and introducing controllable power transfer angles. This article describes this strategy and presents a method for calculating optimal power transfer angles. The method is compared with other solutions using simulations and experimental testing which validates the method under conditions similar to a typical Pipistrel aircraft flight profile.
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SunView 深度解读

该电动飞机多源逆变器技术对阳光电源航空电气化和多能源集成有创新启发。MOVM多目标矢量调制策略可应用于ST储能系统的混合能源管理,如电池-超级电容混合储能的功率分配优化。三电平T型逆变器多源集成技术对PowerTitan储能系统的多DC源协调控制有参考价值。该技术对阳光电源拓展新能源汽车和特种车辆领域的混合动力系统解决方案有借鉴意义,可提升能源利用效率和系统可靠性。