Masanori Ishigaki, Koji Shigeuchi, Naoki Yanagizawa, Hiroki Nitta, Shuji Tomura
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引用次数: 0
摘要
提出了一种用于混合能源系统(HESS)的集成电感技术。该电感采用可变耦合系数集成电感(VCCII)技术,将HESS双升压变换器所需的两个电感集成在一起。VCCII采用两个电感的集成结构,可以根据两个电源的功率分配比来控制两个电感之间的耦合系数。在低功耗工作时,两个电感之间的耦合系数在结构上为零,这使得VCCII技术能够独立控制每个能量源的输出而不受干扰。在大功率运行中,利用磁芯的非线性特性,增大了两个绕组的耦合系数。这些耦合效应对电感电流的削峰,有助于降低损耗和提高最大功率能力。样机结果验证了在输入为20 V / 100 A和25 V / 40 A,输出为42 V的HESS下,峰值功率密度提高50%,最大功率能力提高15%。此外,在工作在100 khz开关,810 W输出的双升压转换器电路中,结果给出了1.9个点的效率改进。
Variable Coupling Coefficient Integrated Inductor for Hybrid Energy Source Systems
This paper proposes an innovative integrated inductor technology for hybrid energy source systems (HESS). The proposed inductor utilizes novel variable coupling coefficient integrated inductor (VCCII) technology to integrate two inductors that are required for a dual boost converter for HESS. VCCII has an integrated structure of two inductors, and enables control the coupling coefficient between the two inductors depending on the power distribution ratio of two power sources. In a low-power operation, the coupling coefficient between the two inductors is structurally zero, which enables the VCCII technology to independently control each output of energy sources without interference. In high-power operation, the coupling coefficient of the two windings increases by utilizing the non-linear characteristics of a magnetic core. These coupling effects peak shaving of the inductor current, which contributes to loss reduction and increase the maximum power capability. A prototype result verifies a 50% increase of peak power density and a 15% increase of maximum power capability under 20 V / 100 A and 25 V / 40 A inputs and 42 V output HESS. Additionally, the result gives 1.9 point of efficiency improvement in a double boost converter circuit operating at 100-kHz switching, 810 W output.
期刊介绍:
IEEJ Journal of Industry Applications: Power Electronics - AC/AC Conversion and DC/DC Conversion, - Power Semiconductor Devices and their Application, - Inverters and Rectifiers, - Power Supply System and its Application, - Power Electronics Modeling, Simulation, Design and Control, - Renewable Electric Energy Conversion Industrial System - Mechatronics and Robotics, - Industrial Instrumentation and Control, - Sensing, Actuation, Motion Control and Haptics, - Factory Automation and Production Facility Control, - Automobile Technology and ITS Technology, - Information Oriented Industrial System Electrical Machinery and Apparatus - Electric Machines Design, Modeling and Control, - Rotating Motor Drives and Linear Motor Drives, - Electric Vehicles and Hybrid Electric Vehicles, - Electric Railway and Traction Control, - Magnetic Levitation and Magnetic Bearing, - Static Apparatus and Superconductive Application Publishing Ethics of IEEJ Journal of Industry Applications: Code of Ethics on IEEJ IEEJ Journal of Industry Applications is a peer-reviewed journal of IEEJ (the Institute of Electrical Engineers of Japan). The publication of IEEJ Journal of Industry Applications is an essential building article in the development of a coherent and respected network of knowledge. It is a direct reflection of the quality of the work of the authors and the institutions that support them. IEEJ Journal of Industry Applications has "Peer-reviewed articles support." It is therefore important to agree upon standards of expected ethical behavior for all parties involved in the act of publishing: the author, the journal editor, the peer reviewer and IEEJ (the Institute of Electrical Engineers of Japan).