6.6 kW On-Vehicle Charger with a Hybrid Si IGBTs and SiC SBDs Based Booster Power Module

다국어 초록 (Multilingual Abstract)

In this paper, a hybrid booster power module with Si IGBT and Silicon Carbide (SiC) Schottky Barrier Diode (SBDs) is presented. The switching characteristics of the hybrid booster module are compared with commercial Silicon IGBT/Si PIN diode based modules. We applied the booster power module into a non-isolated on board vehicle charger with a simple buck-booster topology. The performances of the on-vehicle charger are analyzed and measured with different power modules. The test data is measured in the same system, at the same points of operation, using the conventional Si and hybrid Si/SiC power modules. The measured power conversion efficiency of the proposed on-vehicle charger is 96.4 % with the SiC SBD based hybrid booster module. The conversion efficiency gain of 1.4 % is realizable by replacing the Si-based booster module with the Si IGBT/SiC SBD hybrid boost module in the 6.6 kW on-vehicle chargers.

목차 (Table of Contents)

• Abstract
• I. INTRODUCTION
• II. HYBRID BOOSTER POWER MODULE
• III. 6.6 KWON-VEHICLE CHARGER
• IV. EXPERIMENTAL RESULTS
• V. CONCLUSIONS
• REFERENCES

참고문헌 (Reference)

1 "Vishay Si IGBT/ Si PIN booster power module datasheet of Part Number GB50LA120UX"

2 "Trinno Technology IGBT datasheet of Part Number TGAN25N120ND"

3 D. Jiang, "Temperature dependent characteristics of SiC devices: Performance evaluation and loss calculation" 27 (27): 1013-1024, 2012

4 A. Elasser, "Silicon carbide benefits and advantages for power electronics circuits and systems" 90 (90): 969-986, 2002

5 A. Emadi, "Power electronics and motor drives in electric, hybrid electric, and plug-in hybrid electric vehicles" 55 (55): 2237-2245, 2008

6 F. R. Kalhammer, "Plug-in hybrid electrical vehicles : promise, issues, and prospects" 1-11, 2009

7 K. Morrow, "Plug-in hybrid electrical vehicle charging infrastructure review" 2008

8 "MicroSemi Si IGBT/ Si PIN booster power module datasheet of Part Number APT75GT120JU2"

9 F. Xu, "High temperature packaging of 50 kw three-phase sic power module" 2427-2433, 2011

10 D. P. Tuttle, "Electrified vehicle technology trends, infrastructure implications, and cost comparisons" 51 (51): 35-51, 2012

11 J. S. Kim, "Design and implementation of a high-efficiency on-board battery charger for electric vehicles with frequency control strategy" 1-6, 2010

12 M. Alam, "A zero voltage switching semi-bridgeless boost power factor corrected converter for plug-in hybrid electric vehicle battery chargers" 2625-2630, 2012

13 F. Musavi, "A high performance single-phase bridgeless interleaved PFC converter for plug-in hybrid electric vehicle battery chargers" 47 (47): 1833-1843, 2011

14 H. Tsai, "A family of zero voltage-transition bridgeless power-factor-correction circuits with a zero-current-switching auxiliary switch" 58 (58): 1848-1855, 2011