DocumentCode
150897
Title
All-SiC power module for delta-type current source rectifier
Author
Ben Guo ; Wang, F. ; Aeloiza, Eddy ; Ning, Peng ; Zhenxian Liang
Author_Institution
Dept. of EECS, Univ. of Tennessee, Knoxville, TN, USA
fYear
2014
fDate
14-18 Sept. 2014
Firstpage
4388
Lastpage
4394
Abstract
To reduce the conduction loss, a novel three-phase current source rectifier, named Delta-type Current Source Rectifier (DCSR), has been proposed in previous paper. This rectifier has delta-type connection on its input side, and its dc-link current can be shared by multiple devices at a time to reduce up to 20% conduction loss. The SiC devices are expected to be the next-generation power devices due to their low conduction and switching losses. In this paper, an all-SiC power module is built to realize a high-density DCSR. The switching performance of the power module is characterized under different operation conditions. Then DCSR is compared with the traditional CSR on both switching speed and switching loss. It is shown that the turn-on speed is accelerated and the switching energy is lower in DCSR. The equivalent parasitic inductance is also lower in DCSR with two paralleled minor commutation loops. The switches can operate at higher switching speed without serious resonance in DCSR.
Keywords
elemental semiconductors; power semiconductor switches; rectifiers; DCSR; all-silicon carbide power module; conduction loss reduction; dc-link current sharing; delta-type connection; equivalent parasitic inductance; next-generation power devices; paralleled minor commutation loops; switching energy; switching losses; switching performance characterization; three-phase delta-type current source rectifier; Modulation; Multichip modules; Rectifiers; Silicon carbide; Switches; Switching loss; Vectors; Three-phase current source rectifier; all-SiC; conduction loss; delta type; power module;
fLanguage
English
Publisher
ieee
Conference_Titel
Energy Conversion Congress and Exposition (ECCE), 2014 IEEE
Conference_Location
Pittsburgh, PA
Type
conf
DOI
10.1109/ECCE.2014.6953721
Filename
6953721
Link To Document