The tolerance of size between
terminals is assumed to ±0.4
45°
AE
AW
AL
AG
Division of Dimension Tolerance
0.5 to 3 ±0.2
over 3 to 6 ±0.3
over 6 to 30 ±0.5
over 30 to 120 ±0.8
over 120 to 400 ±1.2
AT
AQ
Outline Drawing and Circuit Diagram
Dimensions Inches Millimeters
A 5.98 152.0
B 2.44 62.0
C 0.67+0.04/-0.02 17.0+1.0/-0.5
D 5.39 137.0
E 4.79 121.7
F 4.33±0.02 110.0±0.5
G 3.72 94.5
H 0.60 15.14
J 0.53 13.5
K 0.31 7.75
L 1.33±0.012 33.91±0.3
M 2.28±0.012 57.95±0.3
N 1.54 39.0
P 0.87 22.0
Q 0.017±0.012 0.45±0.3
R 0.55 14.0
S 0.47 12.0
T 0.24 6.0
U 0.31 8.0
V 0.26 6.5
W 0.62 15.64
X 0.28±0.012 7.24±0.3
Y 0.15 3.81
Z 1.95±0.012 49.53±0.3
Dimensions Inches Millimeters
AA 0.9±0.012 22.86±0.3
AB 0.22 Dia. 5.5 Dia.
AC 1.97±0.02 50.0±0.5
AD 2.26 57.5
AE 0.15 3.75
AF M6 M6
AG 0.28 7.0
AH 0.14 3.5
AJ 0.03 0.8
AK 0.81 20.5
AL 0.70 17.0
AM 0.12 3.0
AN 0.65 16.5
AP 0.49 12.5
AQ 0.18 4.5
AR 0.102 Dia. 2.6 Dia.
AS 0.089 Dia. 2.25 Dia.
AT 0.05 1.2
AU 0.03 0.65
AV 0.05 1.15
AW 0.54 13.7
AX 0.52 13.0
AY 0.285 7.25
AZ 1.45±0.012 37.72±0.3
AQ
AR
AS
AP
DETAIL "A"
AV
AU
Y
DETAIL "B"
AM
Dual IGBT
NX-Series Module
150 Amperes/1700 Volts
Description:
Powerex IGBT Modules are
designed for use in switching
applications. Each module
consists of two IGBT Transistors
in a half-bridge configuration with
each transistor having a reverseconnected super-fast recovery
free-wheel diode. All components
and interconnects are isolated from
the heat sinking baseplate, offering
simplified system assembly and
thermal management.
Features:
£ Low Drive Power
£ Low V
£ Discrete Super-Fast Recovery
£ Isolated Baseplate for Easy
Applications:
£ AC Motor Control
£ Motion/Servo Control
£ Photovoltaic/Fuel Cell
Ordering Information:
Example: Select the complete
module number you desire from
the table below -i.e.
CM150DX-34SA is a 1700V
(V
Absolute Maximum Ratings, Tj = 25°C unless otherwise specied
Inverter Part IGBT/Diode
Characteristics Symbol Rating Units
Collector-Emitter Voltage (VGE = 0V) V
Gate-Emitter Voltage (VCE = 0V) V
Collector Current (DC, TC = 125°C)
*2,*4
IC 150 Amperes
Collector Current (Pulse, Repetitive)*3 I
Total Power Dissipation (TC = 25°C)
*2,*4
P
Emitter Current (DC)*2 I
Emitter Current (Pulse, Repetitive)*3 I
1700 Volts
CES
±20 Volts
GES
300 Amperes
CRM
1500 Watts
tot
*1
150 Amperes
E
*1
300 Amperes
ERM
Module
Characteristics Symbol Rating Units
Isolation Voltage (Terminals to Baseplate, RMS, f = 60Hz, AC 1 minute) V
Maximum Junction Temperature, Instantaneous Event (Overload) T
Maximum Case Temperature*4 T
Operating Junction Temperature T
Storage Temperature T
*1 Represent ratings and characteristics of the anti-parallel, emitter-to-collector free wheeling
diode (FWDi).
*2 Junction temperature (Tj) should not increase beyond maximum junction
temperature (T
*3 Pulse width and repetition rate should be such that device junction temperature (Tj)
does not exceed T
*4 Case temperature (TC) and heatsink temperature (Ts) is measured on the surface
(mounting side) of the baseplate and the heatsink side just under the chips.
Refer to the figure to the right for chip location.
The heatsink thermal resistance should be measured just under the chips.
j(max)
) rating.
j(max)
rating.
Tr2
Di2
Th
0
30.5
39.8
4000 Volts
ISO
175 °C
j(max)
125 °C
C(max)
-40 ~ +150 °C
j(op)
-40 ~ +125 °C
stg
34.0
27.2
26.8
25.3
0
44.7
Di1
Tr1
LABEL SIDE
76.8
89.5
Tr1, Tr2: IGBT, Di1, Di2: FWDi, Th: NTC Thermistor
Each mark points to the center position of each chip.
Turn-on Switching Energy per Pulse Eon VCC = 1000V, IC = IE = 150A, — 26 — mJ
Turn-off Switching Energy per Pulse E
Reverse Recovery Energy per Pulse E
Internal Lead Resistance R
Per Switch,TC = 25°C
Internal Gate Resistance rg Per Switch — 3.4 — Ω
*1 Represent ratings and characteristics of the anti-parallel, emitter-to-collector free wheeling
diode (FWDi).
*4 Case temperature (TC) and heatsink temperature (Ts) is measured on the surface
(mounting side) of the baseplate and the heatsink side just under the chips.
Refer to the figure to the right for chip location.
The heatsink thermal resistance should be measured just under the chips.
*5 Pulse width and repetition rate should be such as to cause negligible temperature rise.
VCE = V
CES
VGE = V
GES
IC = 15mA, VCE = 10V 5.4 6 6.6 Volts
GE(th)
IC = 150A, VGE = 15V, Tj = 25°C*5 — 2.0 2.5 Volts
CE(sat)
IC = 150A, VGE = 15V, Tj = 25°C*5 — 1.9 2.4 Volts
CE(sat)
— — 40 nF
ies
VCE = 10V, VGE = 0V — — 3.3 nF
oes
— — 0.73 nF
res
— — 400 ns
d(on)
RG = 0Ω, Inductive Load — — 700 ns
d(off)
*1
IE = 150A, VGE = 0V, Tj = 25°C*5 — 4.1 5.3 Volts
EC
*1
IE = 150A, VGE = 0V, Tj = 25°C*5 — 4.0 5.2 Volts
EC
*1
VCC = 1000V, IE = 150A, VGE = ±15V — — 300 ns
rr
*1
RG = 0Ω, Inductive Load — 5.0 — µC
rr
VGE = ±15V, RG = 0Ω, — 46 — mJ
off
*1
Tj = 150°C, Inductive Load — 32 — mJ
rr
CC' + EE'
Main Terminals-Chip, — — 1.4 mΩ
, VGE = 0V — — 1 mA
CES
, VCE = 0V — — 0.5 µA
GES
*4
Tr2
Di2
Th
0
30.5
39.8
44.7
Di1
Tr1
LABEL SIDE
76.8
89.5
34.0
27.2
26.8
25.3
0
02/14 Rev. 2
Tr1, Tr2: IGBT, Di1, Di2: FWDi, Th: NTC Thermistor
Each mark points to the center position of each chip.
Creepage Distance ds Terminal to Terminal 17.0 — — mm
Terminal to Baseplate 18.5 — — mm
Clearance da Terminal to Terminal 10.0 — — mm
Terminal to Baseplate 16.3 — — mm
Weight m — 350 — Grams
Flatness of Baseplate ec On Centerline X, Y*8 ±0 — +10 0 µm
Recommended Operating Conditions, Ta = 25°C
(DC) Supply Voltage VCC Applied Across C1-E2 — 1000 1200 Volts
Gate (-Emitter Drive) Voltage V
External Gate Resistance RG Per Switch 0 — 47 Ω
*4 Case temperature (TC) and heatsink temperature (Ts) is measured on the surface
(mounting side) of the baseplate and the heatsink side just under the chips.
Refer to the figure to the right for chip location.
The heatsink thermal resistance should be measured just under the chips.
*6 B
(25/50)
R
R25; Resistance at Absolute Temperature T25 [K]; T25 = 25 [°C] + 273.15 = 298.15 [K]
R50; Resistance at Absolute Temperature T50 [K]; T50 = 50 [°C] + 273.15 = 323.15 [K]
*7 Typical value is measured by using thermally conductive grease of λ = 0.9 [W/(m • K)].
*8 Baseplate (mounting side) flatness measurement points (X, Y) are shown in the figure below.
= In(
R
25
)/( 1 –
50 T25 T50
1
)
Applied Across G1-Es1 / G2-Es2 13.5 15.0 16.5 Volts