SKM 200 GAL 173 D - Fusibles y Semiconductores Profesionales
SKM 200 GAL 173 D - Fusibles y Semiconductores Profesionales
SKM 200 GAL 173 D - Fusibles y Semiconductores Profesionales
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Absolute Maximum Ratings<br />
Values<br />
Symbol Conditions 1) Units<br />
V CES 1700 V<br />
V CGR R GE = 20 kΩ 1700 V<br />
I C T case = 25/80 °C 220 / 150 A<br />
I CM T case = 25/80 °C; t p = 1 ms 440 / 300 A<br />
V GES ± 20 V<br />
P tot per IGBT, T case = 25 °C 1250 W<br />
T j , (T stg ) – 40 . . .+150 (125) °C<br />
V isol AC, 1 min. 4000 V<br />
humidity DIN 40 040 Class F<br />
climate DIN IEC 68 T.1 40/125/56<br />
Inverse Diode<br />
8)<br />
"FWD; D1" 6)<br />
I F = – I C T case = 25/80 °C 150 / 100 230 / 150 A<br />
I FM = – I CM T case = 25/80 °C; t p = 1 ms 400 / 300 400 / 300 A<br />
I FSM t p = 10 ms; sin.; T j = 150 °C 1450 2<strong>200</strong> A<br />
I 2 t t p = 10 ms; T j = 150 °C 10500 24000 A 2 s<br />
Characteristics<br />
Symbol Conditions 1) min. typ. max. Units<br />
V (BR)CES V GE = 0, I C = 3 mA ≥ V CES – – V<br />
V GE(th) V GE = V CE , I C = 10 mA 4,8 5,5 6,2 V<br />
I CES V GE = 0 ⎫ T j = 25 °C – – 1,5 mA<br />
⎬<br />
V CE = V CES ⎭ T j = 125 °C – – 4,5 mA<br />
I GES V GE = 20 V, V CE = 0 V – – 400 nA<br />
V CEsat I C = 150 A⎧<br />
V GE = 15 V; ⎫ – 3,4(4,5) 3,9(5) V<br />
⎨<br />
⎬<br />
V CEsat I C = <strong>200</strong> A⎩<br />
T j = 25 (125) °C ⎭ – 3,8(5,5) – V<br />
g fs V CE = 20 V, I C = 150 A 54 – – S<br />
C CHC per IGBT – – <strong>200</strong> pF<br />
C ies V GE = 0 – 20 – nF<br />
⎫<br />
C oes ⎬ V CE = 25 V – 2 – nF<br />
C res<br />
⎭ f = 1 MHz – 0,55 – nF<br />
L CE – – 20 nH<br />
t d(on)<br />
⎫ V CC = 1<strong>200</strong> V – 580 – ns<br />
t r V GE = + 15 V / - 15 V – 100 – ns<br />
t d(off)<br />
⎪<br />
⎬ I C = 150 A, ind. load – 750 – ns<br />
t f R Gon = R Goff = 4 Ω – 40 – ns<br />
E on<br />
⎪<br />
⎭ T j = 125 °C – 95 – mWs<br />
E off – 45 – mWs<br />
Inverse Diode 8)<br />
V F = V EC I F = 150 A⎧<br />
V GE = 0 V; ⎫ – 2,2(1,9) 2,7 V<br />
⎨<br />
⎬<br />
V F = V EC I F = <strong>200</strong> A⎩<br />
T j = 25 (125) °C ⎭ – 2,4(2,2) – V<br />
V TO T j = 125 °C – 1,3 1,5 V<br />
r T T j = 125 °C – 4,5 6,2 mΩ<br />
I RR I F = 150 A; T j = 25 (125) °C 2) – 60(85) – A<br />
Q rr I F = 150 A; T j = 25 (125) °C 2) – 15(38) – µC<br />
6) 8)<br />
FWD of types “<strong>GAL</strong>, GAR, D1 "<br />
V F = V EC I F = 150 A⎧<br />
V GE = 0 V; ⎫ – 2,0(1,8) 2,4 V<br />
⎨<br />
⎬<br />
V F = V EC I F = <strong>200</strong> A⎩<br />
T j = 25 (125) °C ⎭ – 2,2(2,0) – V<br />
V TO T j = 125 °C – 1,3 1,5 V<br />
r T T j = 125 °C – 3,5 4,5 mΩ<br />
I RR I F = 150 A; T j = 25 (125) °C 2) – 75(110) – A<br />
Q rr I F = 150 A; T j = 25 (125) °C 2) – 20(50) – µC<br />
Thermal Characteristics<br />
R thjc per IGBT – – 0,1 °C/W<br />
R thjc per diode D/"<strong>GAL</strong>, GAR, D1" – – 0,32/0,21 °C/W<br />
R thch per module – – 0,038 °C/W<br />
SEMITRANS ® M<br />
IGBT Modules<br />
<strong>SKM</strong> <strong>200</strong> GB <strong>173</strong> D<br />
<strong>SKM</strong> <strong>200</strong> GB <strong>173</strong> D1 6)<br />
<strong>SKM</strong> <strong>200</strong> <strong>GAL</strong> <strong>173</strong> D 6)<br />
<strong>SKM</strong> <strong>200</strong> GAR <strong>173</strong> D 6)<br />
SEMITRANS 3<br />
GB <strong>GAL</strong> GAR<br />
Features<br />
• MOS input (voltage controlled)<br />
• N channel, Homogeneous Si<br />
• Low inductance case<br />
• Very low tail current with low<br />
temperature dependence<br />
• High short circuit capability,<br />
self limiting to 6 * I cnom<br />
• Latch-up free<br />
• Fast & soft inverse CAL<br />
diodes 8)<br />
• Isolated copper baseplate<br />
using DCB Direct Copper Bonding<br />
• Large clearance (13 mm) and<br />
creepage distances (20 mm).<br />
Typical Applications:<br />
• AC inverter drives on mains<br />
575 - 750 V AC<br />
• DC bus voltage 750 - 1<strong>200</strong> V DC<br />
• Public transport (auxiliary syst.)<br />
• Switching (not for linear use)<br />
1)<br />
6)<br />
6)<br />
T case = 25 °C, unless otherwise<br />
specified<br />
2)<br />
I F = – I C , V R = 1<strong>200</strong> V,<br />
– di F /dt = 1000 A/µs, V GE = 0 V<br />
6)<br />
The free-wheeling diodes of the<br />
<strong>GAL</strong>, GAR and D1 types have<br />
the data of the inverse diodes<br />
of <strong>SKM</strong> 300 GA <strong>173</strong> D<br />
8)<br />
CAL = Controlled Axial Lifetime<br />
Technology.<br />
Cases and mech. data → B6-258<br />
© by SEMIKRON 0898 B 6 – 253
<strong>SKM</strong> <strong>200</strong> GB <strong>173</strong> D ...<br />
<br />
P:V<br />
<br />
0*%[OV<br />
(RQ<br />
T j = 125 °C<br />
V CE = 1<strong>200</strong> V<br />
V GE = + 15 V<br />
R G = 4 Ω<br />
<br />
(RII<br />
<br />
(<br />
Fig. 1 Rated power dissipation P tot = f (T C ) Fig. 2 Turn-on /-off energy = f (I C )<br />
<br />
,& $ <br />
<br />
P:V<br />
<br />
0*%[OV<br />
(RQ<br />
T j = 125 °C<br />
V CE = 1<strong>200</strong> V<br />
V GE = + 15 V<br />
I C = 150 A<br />
1 pulse<br />
T C = 25 °C<br />
T j < 150 °C<br />
<br />
<br />
(RII<br />
(<br />
<br />
5* Ω <br />
Fig. 3 Turn-on /-off energy = f (R G ) Fig. 4 Maximum safe operating area (SOA) I C = f (V CE )<br />
T j < 150 °C<br />
V GE = + 15 V<br />
R Goff = 4 Ω<br />
I C = 150 A<br />
T j < 150 °C<br />
V GE = + 15 V<br />
t sc < 10 µs<br />
L ext < 50 nH<br />
I C = 150 A<br />
Fig. 5 Turn-off safe operating area (RBSOA) Fig. 6 Safe operating area at short circuit I C = f (V CE )<br />
B 6 – 254 0898<br />
© by SEMIKRON