4.8 Article

Modular DC Circuit Breaker With Master-Slave Concept for Gate Driver Simplification: Topology and Implementation

Journal

IEEE TRANSACTIONS ON INDUSTRIAL ELECTRONICS
Volume 69, Issue 9, Pages 8915-8925

Publisher

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TIE.2021.3116550

Keywords

Circuit breakers; Logic gates; Gate drivers; Voltage control; Power supplies; Topology; Insulated gate bipolar transistors; DC circuit breaker; gate driver; modular concept; series connection; silicon carbide (SiC); voltage equalization

Funding

  1. Fund of the Natural Science Foundation of China [52007150]
  2. Power Electronics Science and Education Development Program of Delta Group
  3. Applied Basic Research Program of Shanxi Province [201901D211042]
  4. Shanxi Scholarship Council of China [HGKY2019019]
  5. Scientific and Technological Innovation Programs of Higher Education Institutions in Shanxi [2019L0154]

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This article proposes a master-slave concept based modular circuit breaker to simplify the gate driver topology of DC circuit breakers, and achieve gate control and voltage equalization. The proposed topology has high flexibility and low cost, and its effectiveness has been demonstrated through simulation and experimental tests.
DC circuit breaker is the key equipment to deal with the interruption of short-circuit current. Compared with the mechanical switch, the solid circuit breaker and the hybrid circuit breaker using the semiconductor device to interrupt the short-circuit current exhibit superiorities in response duration and arc-less characteristics. Massive power devices controlled by corresponding gate drivers which make the semiconductors-based dc circuit breaker bulky and costly are required to withstand the high dc-bus voltage. In this article, the master-slave concept based modular circuit breaker is proposed to simplify the gate driver topology. Only one single gate driver is required to control highly compact modular submodules consisting of power devices, passive components, and diodes. Moreover, the proposed topology can be easily implemented with high flexibility and low cost. Specifically, the gate control function and voltage equalization for series-connected devices can be realized reliably. The master-slave concept and operation principle of the proposed topology are elaborated and the effectiveness has been demonstrated by both simulation and experimental test.

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