DocumentCode
1162323
Title
Characterization of high power IGBTs with sinewave current
Author
Johansen, John K. ; Jenset, Frode ; Rogne, Terje
Author_Institution
Dept. of Dev., ELVA/Induksjon a/s, Skien, Norway
Volume
30
Issue
5
fYear
1994
Firstpage
1142
Lastpage
1148
Abstract
The IGBTs characteristics are examined in a single-pulse series resonant circuit under controlled temperature. The aim being to reach the highest possible switching frequency for IGBTs with ratings suitable for industrial use, it is found that both switching energy and on-state losses must be measured, as on-state losses also vary with frequency. It is also found that IGBTs, though having the same datasheet rating, can have properties depending on the manufacturers philosophy giving them totally different behavior at high frequencies. The time needed for the conductivity modulation mechanism to get into action is crucial, giving advantages to devices from manufacturers using low carrier lifetime and high bipolar emitter efficiency, such as Toshiba. The same datasheet ratings both in current, voltage and switching speed can be achieved with high carrier lifetime and low bipolar emitter efficiency, like Siemens devices, which in the resonant circuit will have their advantages under other modes of operation than Toshiba
Keywords
carrier lifetime; circuit resonance; insulated gate bipolar transistors; losses; power transistors; semiconductor switches; switching circuits; Siemens devices; Toshiba; conductivity modulation mechanism; controlled temperature; current; high bipolar emitter efficiency; high carrier lifetime; high power IGBT; low bipolar emitter efficiency; low carrier lifetime; on-state losses; resonant circuit; sinewave current; single-pulse series resonant circuit; switching energy; switching frequency; switching speed; turn-off snubber; voltage; Charge carrier lifetime; Conductivity; Energy measurement; Frequency measurement; Insulated gate bipolar transistors; Loss measurement; Manufacturing industries; RLC circuits; Switching frequency; Temperature control;
fLanguage
English
Journal_Title
Industry Applications, IEEE Transactions on
Publisher
ieee
ISSN
0093-9994
Type
jour
DOI
10.1109/28.315224
Filename
315224
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