A. Wijenayake, T. McNutt, K. Olejniczak, B. Passmore, A. Lostetter, J. Hayes, Yusi Liu, H. Mantooth
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引用次数: 10
摘要
美国海军下一代综合电力系统(NGIPS)技术发展路线图确立了未来军舰的中压直流(MVDC)综合电力系统(IPS)技术。这需要更高的中压(MV)额定功率器件,这是一种半导体技术,可以实现紧凑和重量轻,并易于集成到经过验证的模块化功率转换架构中。这个设想的系统将产生的4.16-13.8 kV, 60 Hz的交流电源整流到MVDC。整流后的MVDC将被隔离,然后分布到整个船舶,在不同的交流和直流负载下进行转换。这可以通过基于碳化硅(SiC)的功率转换拓扑实现,开关频率>20 kHz,从而消除船上笨重的隔离变压器,并将IPS功率密度提高到下一代军舰的预期水平。本文提出了一种基于通用电力电子构建块(CPEBB)的IPS新方法,在优化的行业标准XHP™3封装中使用6.5 kV / 200 a SiC h桥,在优化的定制封装中使用10 kV / 240 a SiC双路。该架构采用功率密集的MV变换器/逆变器,通过SiC技术的更高阻断电压和更高开关频率实现。所提出的多辅助固态变压器(MSSST)是实现这种高性能MVDC IPS的基本构建块。
Next-generation MVDC architecture based on 6.5 kV / 200 A, 12.5 mΩ SiC H-bridge and 10 kV / 240 A, 20 mΩ SiC dual power modules
The Navy's Next Generation Integrated Power System (NGIPS) Technology Development Roadmap establishes Medium Voltage DC (MVDC) Integrated Power System (IPS) technology in future warships. This requires a higher medium voltage (MV)-rated power device, a semiconductor technology that enables compactness and light weight, and easily integrated into modular proven power conversion architectures. This envisioned system takes the generated 4.16–13.8 kV, 60 Hz, AC power and rectifies it to MVDC. The rectified MVDC is then isolated before being distributed throughout the ship where it is converted at diverse AC and DC loads. This can be accomplished using silicon carbide (SiC)-based power conversion topologies switching at >20 kHz, thereby eliminating heavy and bulky isolation transformers onboard and improving the IPS power density to that expected from next-generation warships. This paper presents a new approach for an IPS, based on a Common Power Electronics Building Block (CPEBB), using both 6.5 kV / 200 A SiC H-bridge in an optimized industry-standard XHP™ 3 package and a 10 kV / 240 A SiC dual in an optimized custom package. This architecture, with power dense MV converters/inverters, is enabled by the higher blocking voltage and higher switching frequency of the SiC technology. The proposed Multi-Secondary Solid-State Transformer (MSSST) is the fundamental building block which enables this high performance MVDC IPS.