Autor(en)
Gonzalez, Jose Ortiz; Wu, Ruizhu; Jahdi, Saeed; Alatise, Olayiwola
Titel
Performance and Reliability Review of 650 V and 900 V Silicon and SiC Devices: MOSFETs, Cascode JFETs and IGBTs
Teil von
  • IEEE transactions on industrial electronics (1982), 2020-09, Vol.67 (9), p.7375-7385
Ort / Verlag
PISCATAWAY: IEEE
Links zum Volltext
Quelle
IEEE Open Access Journals and Conferences
Beschreibungen
The future of power conversion at low-to-medium voltages (around 650 V) poses a very interesting debate. At low voltages (below 100 V), the silicon (Si) MOSFET reigns supreme and at the higher end of the automotive medium-voltage application spectrum (approximately 1 kV and above) the SiC power MOSFET looks set to topple the dominance of the Si insulated-gate bipolar transistor (IGBT). At very high voltages (4.5 kV, 6.5 kV and above) used for grid applications, the press-pack thyristor remains undisputed for current source converters and the press-pack IGBTs for voltage source converters. However, around 650 V, there does not seem to be a clear choice with all the major device manufacturers releasing different technology variants ranging from SiC Trench MOSFETs, SiC Planar MOSFETs, cascode-driven WBG FETs, silicon NPT and Field-stop IGBTs, silicon super-junction MOSFETs, standard silicon MOSFETs, and enhancement mode GaN high electron mobility transistors (HEMTs). Each technology comes with its unique selling point with gallium nitride (GaN) being well known for ultrahigh speed and compact integration, SiC is well known for high temperature, electro-thermal ruggedness, and fast switching while silicon remains clearly dominant in cost and proven reliability. This article comparatively assesses the performance of some of these technologies, investigates their body diodes, discusses device reliability, and avalanche ruggedness.

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