A Multi-Port Solid State Circuit Breaker for LVDC Protection: Towards A Lossless Design

IF 6.5 1区 工程技术 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC IEEE Transactions on Power Electronics Pub Date : 2024-12-20 DOI:10.1109/TPEL.2024.3520859
Yannal Nawafleh;Mohammad Dehan Rahman;Xiaoqing Song
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Abstract

Solid state circuit breakers (SSCBs) offer a promising solution for direct current (dc) system protection thanks to its ultrafast fault interruption speed, up to 100 times faster than conventional mechanical circuit breakers. SSCBs also provide enhanced safety, featuring arc-less fault current interruption and intelligent functionalities, such as status monitoring, communication, etc. However, large conduction losses in SSCBs remain a significant challenge, resulting in reduced efficiency and necessitating bulky, heavy cooling systems. In this article, a novel high-efficiency multiport SSCB (M-SSCB) for low voltage direct current (LVDC) and medium voltage direct current (MVDC) applications that significantly reduces conduction losses compared to conventional SSCBs is proposed. The operating principles and advantages of the proposed M-SSCB, particularly its ability to minimize power losses, are thoroughly analyzed. The feasibility and effectiveness of the design are demonstrated through a SiC mosfet-based hardware prototype. The results show that the proposed SSCB is an ideal protection solution for dc systems with multiple connected sources and loads.
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一种用于LVDC保护的多端口固态断路器:迈向无损设计
固态断路器(SSCBs)由于其超快的故障中断速度,比传统机械断路器快100倍,为直流(dc)系统保护提供了一种很有前途的解决方案。sscb还提供了增强的安全性,具有无电弧故障电流中断和智能功能,如状态监控,通信等。然而,sscb的大传导损失仍然是一个重大挑战,导致效率降低,需要笨重的冷却系统。本文提出了一种新型的高效多端口SSCB (M-SSCB),用于低压直流(LVDC)和中压直流(MVDC)应用,与传统的SSCB相比,它显著降低了传导损耗。详细分析了M-SSCB的工作原理和优点,特别是其最大限度地降低功率损耗的能力。通过一个基于SiC mosfet的硬件样机验证了该设计的可行性和有效性。结果表明,所提出的SSCB是一种理想的多源、多负载直流系统保护方案。
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来源期刊
IEEE Transactions on Power Electronics
IEEE Transactions on Power Electronics 工程技术-工程:电子与电气
CiteScore
15.20
自引率
20.90%
发文量
1099
审稿时长
3 months
期刊介绍: The IEEE Transactions on Power Electronics journal covers all issues of widespread or generic interest to engineers who work in the field of power electronics. The Journal editors will enforce standards and a review policy equivalent to the IEEE Transactions, and only papers of high technical quality will be accepted. Papers which treat new and novel device, circuit or system issues which are of generic interest to power electronics engineers are published. Papers which are not within the scope of this Journal will be forwarded to the appropriate IEEE Journal or Transactions editors. Examples of papers which would be more appropriately published in other Journals or Transactions include: 1) Papers describing semiconductor or electron device physics. These papers would be more appropriate for the IEEE Transactions on Electron Devices. 2) Papers describing applications in specific areas: e.g., industry, instrumentation, utility power systems, aerospace, industrial electronics, etc. These papers would be more appropriate for the Transactions of the Society which is concerned with these applications. 3) Papers describing magnetic materials and magnetic device physics. These papers would be more appropriate for the IEEE Transactions on Magnetics. 4) Papers on machine theory. These papers would be more appropriate for the IEEE Transactions on Power Systems. While original papers of significant technical content will comprise the major portion of the Journal, tutorial papers and papers of historical value are also reviewed for publication.
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