SKIIP 10 B6U Search Results

semikron skiip 2403

Abstract: semikron skiip 2013 semikron skiip 1242 semikron skiip 400 gb semikron B6C SEMISTACK IGBT 2403 GB 123 semikron skiip 942 SEMISTACK 1803 GB 123
Contextual Info: Power Electronics Systems – SEMISTACK SEMISTACK with Diodes and Thyristors: SEMIPACK® 150 A - 1300 A up to 1 MW Mains voltage Topology Nominal current A kW B2U 50 - 570 30 - 380 B6U 50 - 1270 40 - 850 B2HK 20 - 660 15 - 440 B6HK 20 - 880 15 - 580 B2C

thyristor driver

Abstract: skiip t1 SKiiP 10 B6U 08 T1 D2E diode D2E133 sk 1560 b6u 500 semikron SkiiP 10 B6u
Contextual Info: s e MIKROn SKiiP = SEMIKRON integrated intelligent Power Converters SKiiP-Thyristor 3phase AC Controller W3C SKHP-3phase Thyristor/Diode Rectifier (B6C, B6HK, B6U) Type (options)21 ÍRM8, Id V m n /100 A V SK1ÌR 320 TAT 08 SKÜP 320 TAT 14 SKIIP 320 TAT 16

SkiiP 10 B6u

Abstract: ptc s6 SKIIP 125 b6u semikron semikron skiip semikron skiip 81 semikron snubber SKIIP CASE semikron fan ac bridge
Contextual Info: SKiiP 430 ANA . - SKiiP 580 ANA . VRMS V VDRM VRRM V IRMS for continous operation, Tamb = 35 °C, mounted on heatsink P16/260F with radial fan SKF 16B-230-01 500 A 600 A recom. RC snubber SKiiP SKiiP R/Ω C/µF 230 800 430 ANA 08 580 ANA 08 47 0.22 400

SkiiP 10 B6u

Abstract: by semikron b6u semikron B6u 08
Contextual Info: se MIKRDn SKiiP 430 ANA . - SKiiP 580 ANA . V rmS V drm V V rrm V lRMS for continous operation, Tamb = 35 °C, mounted on heatsink P16/260F with radial fan SKF 16B-230-01 500 A 600 A recom. RC snubber SKiiP SKiiP R /n C/^iF 230 800 430 ANA 08 580 ANA 08

Contextual Info: se MIKRON SKÜP 430 ANA . - SKiiP 580 ANA . V rm s V drm V V rrm V l RM s f ° r continous operation, Tamb = 35 °C, mounted on heatsink P16/260F with radial fan SKF 16B-230-01 500 A 600 A recom. RC snubber SKiiP SKiiP R/£2 C/nF 230 800 430 ANA 08 580 ANA 08

skiip 613 gb

Abstract: semikron skiip 613 skiip 513 gb semikron B6U 690 930 semikron skch b2hkf Semikron B2HKF SEMISTACK IGBT semikron skiip 513 gb B2HKF semikron B6C
Contextual Info: Section 12: SEMISTACK Thyristor, Rectifier Diode and IGBT Assemblies Summary of Types 3 SEMISTACK® Converter Assemblies using thyristors and diodes 2) Circuit 1) Page B2U Non-controllable rectifier stacks in two-pulse bridge connection. . . . . . . . . . . . . . . . . . . . . B 12 – 2

skiip 613 gb

Abstract: semikron skiip 613 642GB120-208 B2HKF semikron skiip 513 gb semikron skch b2hkf semikron skt 140 semikron B6U 690 930 SEMISTACK IGBT Semikron SKB 15/12
Contextual Info: back zurück Section 12: SEMISTACK Thyristor, Rectifier Diode and IGBT Assemblies Summary of Types 3 SEMISTACK® Converter Assemblies using thyristors and diodes 2) Circuit 1) Page B2U Non-controllable rectifier stacks in two-pulse bridge connection. . . . . . . . . . . . . . . . . . . . . B 12 – 2

B6U 380

Abstract: semikron skiip 81 AN 15 T Module SKDH 146 16 Semikron semipont b6u SKDH 115 semikron skd 146 skiip 83 T-sensor 16L1 semikron skd 75
Contextual Info: SEMIPONT 5 SEMIPONT 6 45 mm Compared to SEMIPONT 5, SEMIPONT 6 additionally contains a brake chopper and temperature sensor. 45 mm 17 mm 81 mm 17 mm 100 mm ID = up to 140 A VRRM = up to 1800 V SEMIPONT 5/6 – new innovative packaging with SKiiP technology for bridge rectifier and softstarter.

SEMISTACK IGBT

Abstract: semikron B6C SKN 21 DIODE Semikron Silicon Controlled Rectifier w3c2 SkiiP 10 B6u b2hk semikron diode skn 21 three phase fully controlled bridge converter Semikron semipont b6u
Contextual Info: ID Tcase = . °C, full conduction VDRM VRSM VRRM V 40 A (92 °C) 40 A (92 °C) 100 A (84 °C) 60 A (86 °C) 100 A (84°C) 400 800 1200 1400 1600 SKCH 40/04 40/08 40/12 40/14 40/16 SKBT – 40/08 40/12 40/14 – SKDH – 100/08 100/12 100/14 – SKDT 60/04

SKiip 83 EC 125 T1

Abstract: SKiiP 82 AC 12 T1 SKiiP 81 AN 15 T1 semikron SKHI 22 SPICE MODEL semikron skiip 32 nab 12 T7 SKiip 83 EC 12 1 T1 SKiiP 24 NAB 063 T12 skiip 83 ac 128 BUZ78 equivalent SKIIP 81 AC 12 I T1
Contextual Info: 0 Betriebsweise von Leistungshalbleitern Betriebsweise von Leistungshalbleitern 0.1 Elementare Schaltvorgänge Leistungshalbleiter arbeiten bis auf wenige Sonderanwendungen im Schalterbetrieb. Daraus resultieren grundlegende Prinzipien und Funktionsweisen, die in allen leistungselektronischen