MA040E12_EVAL - Isolated Gate Driver Power Supply and Logic Interface for MIPAQ™ Serve

Application Note AN 2010-04
V1.0, March 2010
AN2010-04
MA040E12_EVAL – Isolated Gate Driver Power Supply
and Logic Interface for MIPAQTM Serve
IFAG IMM INP M AE
N 2010-03
r 2009
Application Note AN 2010-04
V1.0, March 2010
Edition 2010-05-07
Published by
Infineon Technologies AG
59568 Warstein, Germany
© Infineon Technologies AG 2010.
All Rights Reserved.
Attention please!
THE INFORMATION GIVEN IN THIS APPLICATION NOTE IS GIVEN AS A HINT FOR THE
IMPLEMENTATION OF THE INFINEON TECHNOLOGIES COMPONENT ONLY AND SHALL NOT BE
REGARDED AS ANY DESCRIPTION OR WARRANTY OF A CERTAIN FUNCTIONALITY, CONDITION OR
QUALITY OF THE INFINEON TECHNOLOGIES COMPONENT. THE RECIPIENT OF THIS APPLICATION
NOTE MUST VERIFY ANY FUNCTION DESCRIBED HEREIN IN THE REAL APPLICATION. INFINEON
TECHNOLOGIES HEREBY DISCLAIMS ANY AND ALL WARRANTIES AND LIABILITIES OF ANY KIND
(INCLUDING WITHOUT LIMITATION WARRANTIES OF NON-INFRINGEMENT OF INTELLECTUAL
PROPERTY RIGHTS OF ANY THIRD PARTY) WITH RESPECT TO ANY AND ALL INFORMATION GIVEN
IN THIS APPLICATION NOTE.
Information
For further information on technology, delivery terms and conditions and prices please contact your nearest
Infineon Technologies Office (www.infineon.com).
Warnings
Due to technical requirements components may contain dangerous substances. For information on the types
in question please contact your nearest Infineon Technologies Office. Infineon Technologies Components
may only be used in life-support devices or systems with the express written approval of Infineon
Technologies, if a failure of such components can reasonably be expected to cause the failure of that lifesupport device or system, or to affect the safety or effectiveness of that device or system. Life support
devices or systems are intended to be implanted in the human body, or to support and/or maintain and
sustain and/or protect human life. If they fail, it is reasonable to assume that the health of the user or other
persons may be endangered.
AN2010-04
Revision History: 2010-04, V1.0
Previous Version: none
Page: Subjects (major changes since last revision)
all: First release
Author: Alain Siani(IFAG IMM INP M AE)
We Listen to Your Comments
Any information within this document that you feel is wrong, unclear or missing at all? Your feedback will
help us to continuously improve the quality of this document. Please send your proposal (including a
reference to this document) to: [[email protected]]
2
N 2010-03
r 2009
MA040E12_EVAL – Isolate Gate Driver Power Supply
Application Note AN 2010-04
V1.0, March 2010
and Logic Interface for MIPAQTM Serve
Table of contents
1
INTRODUCTION ........................................................................................................................ 4
1.1
Part number explanation ......................................................................................................... 5
2
DESIGN FEATURES ................................................................................................................. 5
2.1
Main features ............................................................................................................................ 5
2.2
Key data..................................................................................................................................... 6
2.3
Mechanical dimensions ........................................................................................................... 6
2.4
Interconnections between MA040E12_EVAL Board and MIPAQTM serve........................... 7
2.5
Logic Signal Connections to MIPAQTM serve ........................................................................ 7
2.6
Power Signal Connections to MIPAQTM serve ....................................................................... 8
2.7
Main Connector for external control unit............................................................................... 9
3
FUNCTIONALITY OF THE BOARD ........................................................................................ 10
3.1
Building blocks....................................................................................................................... 10
3.1.1
The DC-DC converter......................................................................................................... 11
3.1.2
Isolation Capabilities ......................................................................................................... 11
3.1.3
Locking mechanism........................................................................................................... 12
3.1.4
Output characteristics of the voltage source.................................................................. 12
3.1.5
On Board LEDs................................................................................................................... 14
3.1.6
Further Features................................................................................................................. 15
4
SCHEMATIC AND LAYOUT OF MA040E12 .......................................................................... 15
4.1
Schematics.............................................................................................................................. 16
4.2
Layout ...................................................................................................................................... 19
4.3
Bill of Material - MA040E12_EVAL ........................................................................................ 20
5
HOW TO ORDER EVALUATION BOARDS............................................................................ 22
6
REFERENCES ......................................................................................................................... 22
3
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
and Logic Interface for MIPAQTM Serve
1
Application Note AN 2010-04
V1.0, March 2010
Introduction
The MA040E12_EVAL isolated gate driver power supply and logic interface board as shown in
Figure1 was developed to support customers during their first steps designing applications with the
MIPAQTM serve modules.
The MA040E12 module power supply boards are available from Infineon in small quantities. Functions
and properties of these parts are described in the datasheet chapter of this document whereas the
remaining paragraphs provide information intended to enable the customer to copy, modify and qualify
the design described in this application note for production.
The design of the MA040E12 was performed with respect to the environmental conditions described
as main features in this document. The requirements for lead-free reflow soldering have been
considered when components were selected. The design was tested as described in this
documentation but not qualified regarding manufacturing and operation in the whole ambient
temperature operating range or lifetime.
The boards provided by Infineon are subjected to functional testing only.
Due to their purpose, the evaluation boards are not subjected to the same procedures regarding
Returned Material Analysis (RMA), Process Change Notification (PCN) and Product Discontinuation
(PD) as regular products.
See legal disclaimer and warnings for further restrictions on Infineon warranty and liability.
Figure 1
The Module Power supply board
4
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
and Logic Interface for MIPAQTM Serve
1.1
V1.0, March 2010
Part number explanation
The notation of this evaluation has to be interpreted as explained in the following table
MA 040 E12_EVAL
MA
Module Adapter board
040
Four voltage sources
E12
Maximum blocking voltage 1200V
EVAL
2
Evaluation Board
Design features
Electrical features of the evaluation board and mechanical dimensions including necessary interface
connections are presented in following sections.
2.1
Main features
The MA040E12_EVAL module Power supply board offers the following features:
•
•
•
•
•
Four isolated unsymmetrical voltage sources, -8V, GND, +16V each
One logic interface with:
• 6 PWM-Channels
• Fault signal for desaturation monitoring
• Ready signal for under voltage monitoring
• Reset via connector X2 or push button S1
• Output of the temperature measurement signal
Safety off to avoid accidentally turn on during the standby of the equipment
Possibility to control each IGBT with optional DIP switch array
PCB is designed to fulfill the requirements of IEC61800-5-1, pollution degree 2, overvoltage
category III
5
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
V1.0, March 2010
and Logic Interface for MIPAQTM Serve
2.2
Key data
All values given in the table bellow are typical values, measured at ambient temperature TA = 25 °C.
Table 1
General key data and characteristic values
min
Parameter
Main DC voltage supply VCC
Main input current IG
Positive output driver supply voltage
Negative output driver supply voltage
Positive output driver supply current
Negative output driver supply current
Operating temperature, Top
Storage temperature, Tsto
2.3
-40
-40
Typ
15
550
16
-8
90
100
Max
17
+85
+85
Mechanical dimensions
The MA040E12_EVAL board integrates the power supply and logic interface combined on one PCB. It
is also possible to use the power supply part or the logical part independently.
Figure 2
Dimensions of the MA040E12 MIPAQTM Serve Power supply board
6
Unit
V
mA
V
V
mA
mA
°C
°C
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
V1.0, March 2010
and Logic Interface for MIPAQTM Serve
2.4
Interconnections between MA040E12_EVAL Board and MIPAQTM
serve
Interconnections between the MA040E12_EVAL Board and MIPAQTM serve as shown in Figure 3 are
also depicted in section 5 of AN2009-07. To simplify the first steps of designing, one set of connecting
wires is included in the evaluation kit.
Figure 3
2.5
Assembly of MA040E12_EVAL and MIPAQTM serve
Logic Signal Connections to MIPAQTM serve
Connector X3 as shown in Figure 4 is for the logical connection between the power supply board and
the MIPAQTM serve. Detailed information about the pins are given in Table 2.
22
2
Figure 4
21
1
Logic connections between MA040E12 and MIPAQTM serve
Pin
X1.1
X1.2
X1.3
X1.4
X1.5
X1.6
X1.7
X1.8
X1.9
X1.10
X1.11
Table 2
Label
IN+_B1
IN+_B2
/RST
IN+_B3
GND
/FLT_B
GND
RDY_B
GND
Temp
GND
Pin
X1.12
X1.13
X1.14
X1.15
X1.16
X1.17
X1.18
X1.19
X1.20
X1.21
X1.22
Label
+ 5V
GND
RDY_T
GND
/FLT_T
GND
IN+_T3
GND
IN+_T2
GND
IN+_T1
Logic connector signals description
7
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
V1.0, March 2010
and Logic Interface for MIPAQTM Serve
2.6
Power Signal Connections to MIPAQTM serve
1) The connector X1 as shown in Figure 5 is the power supply output to the MIPAQTM serve.
Detailed information about the pins are given in Table 3.
21
1
Figure 5
22
2
Power supply connections between MA040E12 and MIPAQTM Serve
Pin
X1.1
X1.2
X1.3
X1.4
X1.5
X1.6
X1.7
X1.8
X1.9
X1.10
X1.11
Table 3
Label
GND_T3
NC
- 8V_T3
+16V_T3
NC
NC
GND_T2
+16V_T2
-8V_T2
NC
NC
Pin
X1.12
X1.13
X1.14
X1.15
X1.16
X1.17
X1.18
X1.19
X1.20
X1.21
X1.22
Label
NC
GND_T1
+16V_T1
- 8V_T1
NC
NC
NC
+ 16V_B
- 8V_B
GND_B
NC
Power connector signals description
8
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
V1.0, March 2010
and Logic Interface for MIPAQTM Serve
2.7
Main Connector for external control unit
Connector X2 as shown in the Figure 6 is for the logical connection between the external control unit
and the power supply board. Further information about the pins are given in Table 4.
2
16
Figure 6
Main connector from external control unit to MA040E12
Pin
X2.1
X2.2
X2.3
X2.4
X2.5
X2.6
X2.7
X2.8
Table 4
Label
U_TOP
U_BOT
V_TOP
V_BOT
W_TOP
W_BOT
/T_FLT
Pin
X2.9
X2.10
X2.11
X2.12
X2.13
X2.14
X2.15
X2.16
T_RDY
Label
/B_FLT
B_RDY
T_B_/RST
TEMP
+ 5V
GND_S
T_PWR_OFF T_PWR_OFF
+
Main connector signals description
9
1
15
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
and Logic Interface for MIPAQTM Serve
3
Functionality of the Board
3.1
Building blocks
Application Note AN 2010-04
V1.0, March 2010
The important functional blocks of the MA040E12 as shown in Figure 7 are described in Table 5.
The MA040E12 is especially designed to work in conjunction with the MIPAQTM serve modules.
A
B
C
H
D
E
F
G
I
J
K
L
Linear regulator for internal 5V power supply for the logic primary side. This can be
used if an external +5V supply does not exist.
Jumper to be set in case the internal 5V supply is used.
Connector for the main power supply.
Safety relay.
Connector for the control of the safety relay.
Connector to the microcontroller unit.
Channel selection utilizing DIL switch.
Reset switch.
DC-DC converter.
Functional Isolation using ADUM1210.
Logic connector to MIPAQTM serve.
Connector of the power supply to MIPAQTM serve.
Table 5
Description of building blocks Figure 7
Figure 7
Location of building blocks
10
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
V1.0, March 2010
and Logic Interface for MIPAQTM Serve
3.1.1
The DC-DC converter
The MA040E12_EVAL offers five separated voltage sources, which are galvanically isolated from the
primary side and from each neighboring voltage source.
Three separated unsymmetrical voltage sources supplies the three top IGBTs. One unsymmetrical
voltage source supplies the three bottom IGBTs and one unipolar voltage source supplies the primary
logic side of MIPAQTM serve. The isolation characteristic of the transformers Tr1, Tr2 and Tr3 meet the
Isolation requirement for 1200V application according to IEC61800-5-1. Each transformer allows a
power transmission up to 2.2W and delivers two unsymmetrical voltage sources of -8V / +16V on the
secondary side.
Power
supply
TR1
+5V
Isolated logic supply
+16V Bottom
GND Bottom
-8V Bottom
Relay for locking
mechanism
TR2
+16V_TopW
GND_TopW
-8V_TopW
TR3
Linear Voltage
regulators on
positive output
voltage.
Figure 8
3.1.2
+16V_TopV
GND TopV
-8V_TopV
+16V TopU
GND_TopU
-8V_TopU
Architecture of the DC-DC power supply
Isolation Capabilities
The configuration of the MIPAQTM serve offers a functional isolation.
Depending on the isolation needed for a given application, a further basic isolation has to be
implemented on the MA040E12_EVAL increasing the isolation to higher safety degree like reinforced
isolation.
The isolation between the primary and the secondary side of the DC-DC converter is achieved through
the transformers Tr1, Tr2 and Tr3.
11
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
V1.0, March 2010
and Logic Interface for MIPAQTM Serve
3.1.3
Locking mechanism
For some applications it is necessary to avoid the accidental operation of equipment during the
standby. One way to achieve this is to cut off the power supply of the top IGBT drivers by the safety
relay contact P1 Figure 9. The jumper J1 is set as default. Jumper J1 needs to be removed if this
functionality is used. The status of P1 can be observed over the contact P2 for an external monitoring.
P2 is available on pin 215 and 216 of connector X2
The relay of K1 can be activated by 15V / 60mA using the connector X5.
Figure 9
3.1.4
Circuit of locking mechanism
Output characteristics of the voltage source
The output power and output voltage of the MA040E12 board as shown in Figures 10 and 13 are
varying as a function of the switching frequency of the IGBT at 125°C MIPAQTM serve base plate
temperature.
The variation of the negative output voltage shown on Figure 10 has no influence on the switching
behavior of the MIPAQTM serve.
MA040E12 negative output voltages vs. switching frequency
0
5
10
fsw [kHz]
15
20
25
-vout [V]
-8,3
-8,5
-8,7
V-_T1 [V]
V-_T2 [V]
Figure 10
V-_T3 [V]
V-_B1 [V]
V-_B2 [V]
Negative output voltages vs. switching frequency
12
V-_B3 [V]
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
and Logic Interface for MIPAQTM Serve
V1.0, March 2010
The positive output voltages of the top channel IGBTs are maintained constant at +16V through
adjustable linear regulator as depicted in Figure 11. The negative output voltages are not regulated.
Figure 11
Voltage regulators for High-Side Supply, T1 as an example
The positive output voltages of the bottom channel IGBTs are maintained constant at +16V through
adjustable linear regulator as depicted in Figure 12. The negative output voltages are not regulated.
Figure 12
One voltage source for the three Bottom IGBTs
13
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
V1.0, March 2010
and Logic Interface for MIPAQTM Serve
The power requirement of the bottom side as shown in Figure 13 is higher than the power dissipation
of the high side drivers. The reason is that the circuit of the temperature measurement is also supplied
by the power supply of the bottom side drivers. For the analysis of the base plate temperature of
MIPAQTM serve please refer to the AN2009-07.
MA040E12 output power vs. switching frequency
1,2
1
Pout [W]
0,8
0,6
0,4
0,2
0
0
5
P_T1 [W]
10
P_T2 [W]
Figure 13
3.1.5
15
fsw [kHz]
P_T3 [W]
P_B1 [W]
20
P_B2 [W]
25
P_B3 [W]
Output power vs. switching frequency
On Board LEDs
The MA040E12_EVAL Board provides 6 yellow LEDs VCC_T1, VEE_T1, VCC_T2, VEE_T2,
VCC_T3, VEE_T3, VCC_B, VEE_B to indicate that the power is turned on. The desaturation
monitoring of the top and bottom channel diodes /FLT_T, /FLT_B are switched on if desaturation
failure occurs on one of the 6 IGBTs. The RDY_T and RDY_B LEDs are ON if the MIPAQTM serve is
sufficiently powered.
Figure 14
Indicators of power and driver status
14
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
and Logic Interface for MIPAQTM Serve
3.1.6
Application Note AN 2010-04
V1.0, March 2010
Further Features
The MA040E12_EVAL offers the possibility to switch each IGBT separately using the SMT DIL switch.
In this case the switching signal has to be supplied by jumper JP1. This is intended to allow simple
double pulse testing. The DIL switch is not included by default.
Figure 15
Channel selection
The primary logic supply voltage of the power supply board can be supplied from the main supply
voltage +15V shown on Figure 17 or can be externally applied to the connector X2 pins 213 and 214.
In case of internal supply, Jumpers J2 and J3 have to be set.
Figure 16
4
Supply of primary Logic
Schematic and Layout of MA040E12
To meet the individual customer requirements and make the evaluation board a basis for further
developments or modifications, all necessary technical data like schematic, layout and components
are included in this chapter.
15
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
and Logic Interface for MIPAQTM Serve
4.1
Schematics
Figure 17
Power supply bottom and logical output side
16
V1.0, March 2010
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
and Logic Interface for MIPAQTM Serve
Figure 18
Power supply bottom and Top_U
17
V1.0, March 2010
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
and Logic Interface for MIPAQTM Serve
Figure 19
Power supply Top_V and Top_W
Figure 20
Power supply Top_V and Top_W
18
Application Note AN 2010-04
V1.0, March 2010
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
and Logic Interface for MIPAQTM Serve
4.2
Layout
Figure 21
Figure 22
Top layer
Bottom layer
19
Application Note AN 2010-04
V1.0, March 2010
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
and Logic Interface for MIPAQTM Serve
4.3
Figure 23
Vcc layer
Figure 24
GND layer
Application Note AN 2010-04
V1.0, March 2010
Bill of Material - MA040E12_EVAL
The tolerances for resistors should be less or equal ±1 %, for capacitors of the type C0G less or equal
±5 % and for capacitors of the type X7R less or equal ±10 %.
20
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
Application Note AN 2010-04
V1.0, March 2010
and Logic Interface for MIPAQTM Serve
Type
Value / Type
Package
QTY
capacitor
100n/25V/X7R
C603
14
capacitor
100n/50V/X7R
C603
2
capacitor
100p/50V/C0G
C603
8
capacitor
4µ7/25V/X7R
C1206
32
capacitor
3µ3/25V/X7R
C1206
3
diode
BAT165
SOD323R
23
Recommended
Manufacturer
Diode
GF1G
DO-214BA
1
C22, C23, C24, C25,
C26, C27, C28, C31,
C32, C33, C34, C35,
C36, C37
C4, C12
C4T1, C4T2, C4T3, C7,
C7B, C9, C15, C17
C1, C1B1, C1L, C1T1,
C1T2, C2B, C2L,C2T1,
C2T2, C3B,C3T1, C3T2,
C4B, C5B, C6, C6B, C8,
C9T1, C10, C10T1, C11,
C11T1, C14, C16, C18,
C19, C20, C21, C2, C3,
C29, C30
C38, C39, C40
D1, D1B, D1L, D1R1,
D1R2, D1T1, D1T2, D2,
D2B, D2L, D2T1, D2T2,
D2T3, D3B, D3T1,
D3T2, D3T3, D4B,
D4T1, D5B, D6B
D3
capacitor
1µ/25V/X7R
C805
2
C5, C13
safety relay
V23047-A1012-A501
1
K1
resistor
0R15
R805
3
R7, R12, R49
Murata
Tyco
Electronics
-
resistor
56k
R603
1
R1B
-
resistor
10k
R805
5
R32, R33,R34, R36, R37
-
resistor
330R
R603
1
R4B
-
resistor
100k
R603
3
-
resistor
10k
R603
16
JP1
1
R1T1, R1T2, R1T3
R4T1, R4T2, R4T3, R13,
R14, R15, R16, R31,
R35, R38, R39, R40,
R41, R42, R43, R3B
JP1Q
resistor
10R
R603
1
R30
-
resistor
47R
R603
3
R5T1, R5T2, R5T3
-
jumper
Murata
Murata
Murata
Murata
Murata
Infineon
-
-
resistor
120k
R603
3
R3T1, R3T2, R3T3
-
resistor
150R
R1206
1
R44
-
resistor
15R
R603
4
R4, R5, R9, R10
-
resistor
2k
R805
4
-
resistor
1k
R805
-
resistor
100R
R1206
1
R21, R23, R25, R27
R17, R18, R19, R20,
R22, R24, R26, R28,
R29
R46
transformer
T60403-D4615-X054
D4615-X054
3
TR1, TR2, TR3
VAC
resistor
2k2
R603
2
-
resistor
0R
R805
8
resistor
68k
R603
2
semiconductor
ADUM1210
SOIC08
7
R6, R11
R1, R2, R45, R48, R2B,
R2T1, R2T2, R2T3
R3, R8
IC3, IC4, IC5, IC6, IC7,
IC8, IC9
S1
Analog
Devices
-
switch
semiconductor
surface mount
DIP switch series
1
Name Part
9
B3W-1000
SN7002N
CTS-219-06J_NC
1
-
-
SOT23
1
T9
Infineon
219-06J
1
S2
-
Not connected
21
N 2010-03
MA040E12_EVAL – Isolate Gate Driver Power Supply
r 2009
and Logic Interface for MIPAQ
TM
Application Note AN 2010-04
V1.0, March 2010
Serve
219 SMT
connector
connector
2)
connector
Molex Microfit 22 pins
43045-2215
1
X1
Molex
Tyco
Electronics
Molex
connector
MPT2
2POL254
2
X4, X5
Phoenix
transistor
BC846
SOT23
2
T7, T8
-
transistor
BC856
SOT23
2
T5, T6
-
transistor
BSL302SN
TSOP6
4
T1, T2, T3, T4
Infineon
voltage regulator
IFX25401
IR2085STR_PBF or
AUIR2085S
TO252-5
1
IC2B
SO08
2
Infineon
International
rectifier
semiconductor
Molex MilliGrid 22 pins
Tyco Micro-Match 16 pins
3)
4)
087832-2220
1
X3
8-188275-0
1
X2
IC1, IC2
LEDCHIPLED_0805_YELLOW
0805
8
semiconductor
LEDCHIPLED_0805_RED
0805
2
+16V_B, +16V_T1,
+16V_T2, +16V_T3, 8V_B, -8V_T1, -8V_T2, 8V_T3
/FLT_B, /FLT_T
semiconductor
LEDCHIPLED_0805_GREEN
0805
2
RDY_B, RDY_T
-
semiconductor
-
semiconductor
LP2951CM
SOIC08
3
IC1T1, IC1T2, IC1T3
National
voltage regulator
ZSR500G
SOT223
2
U1, U2
Zetex
mechanical
Corner Part
4
CP1, CP2, CP3, CP4
-
jumper
2
J2, J3
-
jumper
1
JP1
-
Size: 89x116,5x121mm;
material:FR4;
PCB
1
Layers - Cu : 4x35ìm;
-
Isolation: 3x0,5mm;
flammability: UV94V0
5
How to order Evaluation Boards
Every Evaluation Board has its own IFX order number and can be ordered via your Infineon Sales
Partner.
Information can also be found at the Infineons Web Page: www.infineon.com
CAD-data for the board described here are available on request. The use of these data is subjected to
the disclaimer given in this AN. Please contact: [email protected]
IFX order number for MA040E12_EVAL: 34680
6
References
1) AN2009-07: MIPAQ™ serve Module with adapted driver electronics Infineon AG Warstein
(Germany)
2
The corresponding parts can be found by Molex as IDT connector and optionaly strain relief.
Part number 087682293 resp. 0875691022
3
4
The corresponding connector can be found by Tyco Electronics. Part number 0430252200
The corresponding parts can be found by Molex as crimp Housing and crimp terminal.
Part number 0430252200 resp. 0430300003
22