An asymmetrical quadruple active bridge series resonant DC–DC converter for modular solid-state transformers

IF 1.9 4区 工程技术 Q3 ENGINEERING, ELECTRICAL & ELECTRONIC IET Power Electronics Pub Date : 2024-07-09 DOI:10.1049/pel2.12727
Saeid Khani, Seyed Hossein Hosseini, Mehran Sabahi
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Abstract

The DC–DC conversion stage of a three-stage solid-state transformer is the most challenging due to the combination of high power, medium voltage, and medium frequency. This combination also causes most of the losses in the DC–DC stage. To address this issue, a new asymmetrical quadruple active bridge series resonant DC–DC converter (AQAB-SRC) has been proposed as a building block for solid-state transformers. The converter achieves soft switching of all switches throughout the operating range by extending and using the half-cycle continuous conduction mode control strategy. It also has fewer high-frequency transformers compared to other converters, as more bridges are connected to the same multi-winding transformer. The optimal design of AQAB-SRC has been analyzed theoretically, and simulation and lab-scale experimental results have been obtained to validate the feasibility and validity of the proposed topology.

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用于模块化固态变压器的非对称四有源桥串联谐振 DC-DC 转换器
三级固态变压器的直流-直流转换阶段是最具挑战性的,因为它结合了高功率、中电压和中频率。这一组合也造成了 DC-DC 阶段的大部分损耗。为解决这一问题,我们提出了一种新型非对称四重有源桥串联谐振 DC-DC 转换器 (AQAB-SRC),作为固态变压器的构件。该转换器通过扩展和使用半周期连续导通模式控制策略,实现了所有开关在整个工作范围内的软开关。与其他转换器相比,它还减少了高频变压器的数量,因为更多的电桥被连接到同一个多绕组变压器上。对 AQAB-SRC 的优化设计进行了理论分析,并获得了仿真和实验室规模的实验结果,以验证所提拓扑结构的可行性和有效性。
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来源期刊
IET Power Electronics
IET Power Electronics ENGINEERING, ELECTRICAL & ELECTRONIC-
CiteScore
5.50
自引率
10.00%
发文量
195
审稿时长
5.1 months
期刊介绍: IET Power Electronics aims to attract original research papers, short communications, review articles and power electronics related educational studies. The scope covers applications and technologies in the field of power electronics with special focus on cost-effective, efficient, power dense, environmental friendly and robust solutions, which includes: Applications: Electric drives/generators, renewable energy, industrial and consumable applications (including lighting, welding, heating, sub-sea applications, drilling and others), medical and military apparatus, utility applications, transport and space application, energy harvesting, telecommunications, energy storage management systems, home appliances. Technologies: Circuits: all type of converter topologies for low and high power applications including but not limited to: inverter, rectifier, dc/dc converter, power supplies, UPS, ac/ac converter, resonant converter, high frequency converter, hybrid converter, multilevel converter, power factor correction circuits and other advanced topologies. Components and Materials: switching devices and their control, inductors, sensors, transformers, capacitors, resistors, thermal management, filters, fuses and protection elements and other novel low-cost efficient components/materials. Control: techniques for controlling, analysing, modelling and/or simulation of power electronics circuits and complete power electronics systems. Design/Manufacturing/Testing: new multi-domain modelling, assembling and packaging technologies, advanced testing techniques. Environmental Impact: Electromagnetic Interference (EMI) reduction techniques, Electromagnetic Compatibility (EMC), limiting acoustic noise and vibration, recycling techniques, use of non-rare material. Education: teaching methods, programme and course design, use of technology in power electronics teaching, virtual laboratory and e-learning and fields within the scope of interest. Special Issues. Current Call for papers: Harmonic Mitigation Techniques and Grid Robustness in Power Electronic-Based Power Systems - https://digital-library.theiet.org/files/IET_PEL_CFP_HMTGRPEPS.pdf
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