Avnet Electronics Marketing presents power devices for solar inverters from STMicroelectronics. Presentation includes: ST 600 vs. SiC diodes, Power MOSFET families, MDmesh series. Choosing the ideal switches for solar inverters and more.
5. Reliability-test boards SiC repetitive I FSM reliability board Repetitive I F of 40 A on STPSC1006D SiC high dV/dt reliability board (dV/dt)off = 120 kV/ s Turn-on of the SiC diode 100 V/div 0V Turn-off of the SiC diode
6. Key performance information Key features at 25 °C, for all 600 V devices STPSC406D I Fav 4 A Q c 3 nC V F (typ/max) 1.55 V/1.90 V I FRM 14 A STPSC606D I Fav 6 A Q c 6 nC V F (typ/max) 1.40 V/1.70 V I FRM 27 A STPSC806D I Fav 8 A Q c 10 nC V F (typ/max) 1.40 V/1.70 V I FRM 30 A STPSC1006D I Fav 10 A Q c 12 nC V F (typ/max) 1.40 V/1.70 V I FRM 40 A STPSC1206D I Fav 12 A Q c 12 nC V F (typ/max) 1.40 V/1.70 V I FRM 65 A
7. ST 600 V SiC diode roadmap February 08 Range extension Package extension Product qualification Range and package extension April 08 8/10 A diodes Qualification April 09 4, 6 and 12 A diodes Qualification May 09 SMD: DPAK, D²PAK 2010 20 A TO-247 2010/11 1200v Extension
13. MDmesh series: continuous improvement 2006 MDmesh/FDmesh II - 45% 2000 MDmesh/FDmesh 2009 MDmesh/FDmesh V - 65% R DS(on) x area [normalized]
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16. MDmesh V extending to medium voltage *Coming soon VDS (V) Part number R DS(on) (m Ω) Package Application 650 STY112N65M5 22 Max-247 PV inverter (400 V DC bus) 650 STW77N65M5 38 TO-247 PV inverter (400 V DC bus) 650 STW60N65M5 57 TO-247*/TO-3PF* PV inverter (400 V DC bus) 650 STx42N65M5 79 TO-220/TO-T20FP/ D2PAK/I2PAK/TO-247 PV inverter (400 V DC bus) 250 STB50N25M5 65 D2PAK PV micro inverter (110 V mains) 200 STP80N20M5 20 TO-220*/D2PAK* PV micro inverter (110 V mains)
17. SuperMESH 5 900 to 1200 V MOSFET series 2007 SuperMESH3 -30% 2001 SuperMESH 2009 SuperMESH 5 -70% STP21N90K5: best R DS(on) in TO-220 R DS(on) x area [normalized]
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22. * Coming soon IGBT ultra-fast W series Part number I C @ 100 °C (A) V CE(sat) @ V GE = 15 V (V) Switching frequency (kHz) Anti-parallel diode Package STGF19NC60WD 19 2.1 Up to 70 Yes TO-220FP STGP19NC60W(D) 22 2.1 Up to 70 No (Yes) TO-220 STGW19NC60W(D) 23 2.1 Up to 70 No (Yes) TO-247 STGW35HF60WD 35 1.9 Over 100 Yes TO-247 STGW45HF60WD* 45 1.9 Over 100 Yes TO-247
23. * Coming soon IGBT very low drop S and XS series Part number IC @ 100 °C (A) V CE(sat) @ V GE = 15 V (V) Anti-parallel diode Package STGF20NB60S 13 1.25 @ Ic = 20 A No TO-220FP STGW35NB60S(D) 35 1.25 @ Ic = 20 A No (Yes) TO-247 STGW50NC60XSD 50 1.1 @ Ic = 30 A Yes – Ultra fast TO-247 STGW50NC60XSCD* 50 1.1 @ Ic = 30 A Yes - SiC TO-247
24. Ideal combo for mixed frequency Example 1 Topology: Full-bridge mixed frequency High-frequency leg Low-frequency leg Ultra-fast IGBT W series with ultra-fast or SiC anti-parallel diodes XS or S low drop IGBT series with standard anti-parallel diode MDmesh + Schottky + ultra-fast or SiC anti-parallel diode MDmesh High-frequency leg Low-frequency leg
25. Topology: Full-bridge mixed frequency Ideal combo for mixed frequency Example 2 High side Low side Ultra-fast IGBT W series and fast anti-parallel diode XS or S low drop IGBT series with ultra-fast or SiC anti-parallel diodes Low drop IGBT Fast IGBT High-frequency low side Low-frequency high side
26. Topology: Three level Ideal combo for mixed frequency Example 3 Inner switches Outer switches Clamp diodes, D5 and D6 XS or S low drop IGBT series and standard anti-parallel diode Ultra-fast IGBT W series with ultra-fast anti-parallel diode Ultra-fast or SiC diodes XS or S low drop IGBT series and standard anti parallel diode MOSFETs – Fast diode Ultra-fast or SiC diodes Low drop IGBT Fast IGBT Fast IGBT Low drop IGBT
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30. ESBT driving network The suggested driving network for full compatibility with a standard 3-pin voltage-driven device .
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32. ESBT versus IGBT Solar inverter setup for evaluation of the performance gain Two identical 15 kW solar inverters with ESBT or IGBT boost stage Input current up to 40 A High-efficiency three-level technology AC stage in IGBT technology
33. ESBT versus IGBT Solar inverter efficiency and losses compared for ESBT and lGBT ESBT boost stage efficiency gain of 0.7 % is approved Reduced losses of up to 70 W by using ESBTs Reduced cooling requirements with ESBT usage
Notes de l'éditeur
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Could you please send me a HR of graphic, the resolution is very bad for an LCD presentation?
Could you please send me a HR of graphic, the resolution is very bad for an LCD presentation?