IRF M3G5012D Hybrid-high reliability radiation hardened dc-dc converter Datasheet

PD-94558O
M3G-SERIES
50V Input, Single/Dual Output
HYBRID-HIGH RELIABILITY
RADIATION HARDENED
DC-DC CONVERTER
Description
The M3G-Series of DC-DC converters are radiation hardened,
high reliability converters designed for extended operation in hostile
environments. Their small size and low weight make them
ideal for applications such as geostationary earth orbit satellites
and deep space probes. They exhibit a high tolerance to
total ionizing dose, single event effects and environmental
stresses such as temperature extremes, mechanical shock, and
vibration.
The converters incorporate a fixed frequency single ended
forward topology with magnetic feedback and an internal
EMI filter that utilizes multilayer ceramic capacitors that are
subjected to extensive lot screening for optimum reliability. By
using two stage filtering these converters produce low input
and output noise. External inhibit and synchronization input and
output allow these converters to be easily incorporated into
larger power systems. They are enclosed in a hermetic
3" x 2" x 0.475" package constructed of an AluminumSilicon-Carbide (AlSiC) base and an Alloy 48 ring frame
and they weigh less than 110 grams. The package utilizes
rugged ceramic feed-through copper core pins and is
sealed using parallel seam welding.
Manufactured in a facility fully qualified to MIL-PRF-38534,
these converters are fabricated utilizing DLA Land and
Maritime qualified processes. For available screening
options, refer to device screening table in the data sheet.
Non-flight versions of the M3G-Series converters are available
for system development purposes. Variations in electrical
specifications and screening to meet custom requirements
can be accommodated.
1
M3G
Features



















Total Dose > 200 kRads(Si)
typically usable to > 300 kRads(Si)
SEE Hardened to LET up to 82 MeV.cm2/mg
Low Weight < 110 grams
Low Input & Output Noise
Magnetically Coupled Feedback
38V to 60V DC Input Range
Up to 40W Output Power
Single and Dual Output Models Include
3.3, 5, 12, 15, ±5, ±12 and ±15V
High Efficiency - to 82%
-55°C to +125°C Operating Temperature Range
100M @ 500VDC Isolation
Under-Voltage Lockout
Short Circuit and Overload Protection
Output Over Voltage Limiter
Remote Sense on Single Output Models
Adjustable Output Voltage
Synchronization Input and Output
External Inhibit
> 5,000,000 hour MTBF
Applications



Geostationary Earth Orbit Satellites (GEO)
Deep Space Satellites / Probes
Strategic Weapons and Communication System
2016-06-30
M3G-SERIES
(50V Input, Single/Dual Output)
Circuit Description
The M3G-Series converters utilize a single-ended forward
topology with resonant reset. The nominal switching frequency
is 500 kHz. Electrical isolation and tight output regulation
are achieved through the use of a magnetically coupled
feedback. Voltage feed-forward with duty factor limiting
provides high line rejection.
An internal EMI filter reduces the conducted emissions to
less than 5mArms on the input power leads. A two-stage
output filter reduces the typical output ripple to less than
20mVpeak-to-peak.
Output current is limited under any load fault condition to
approximately 125% of rated. An overload condition causes the
converter output to behave like a constant current source
with the output voltage dropping below nominal. The converter
will resume normal operation when the load current is reduced
below the current limit point. This protects the converter
from both overload and short circuit conditions. The current
limit point exhibits a slightly negative temperature coefficient to
reduce the possibility of thermal runaway.
An under-voltage lockout circuit prohibits the converter
from operating when the line voltage is too low to maintain
the output voltage. The converter will not start until the line
voltage rises to approximately 36 volts and will shut down
when the input voltage drops below 34 volts. The two volts
of hysteresis reduces the possibility of line noise interfering with
the converter’s start-up and shut down.
2
An external inhibit port is provided to control converter
operation. The nominal threshold relative to the input
return (pin 2) is 1.4V. If 2.0 volts or greater are applied
to the Inhibit pin (pin 3) then the converter will operate
normally. A voltage of 0.8V or less will cause the converter to
shut-down. The pin may be left open for normal operation
and has a nominal open circuit voltage of 4.0V.
Synchronization input and output allow multiple converters to
operate at a common switching frequency. Converters
can be synchronized to one another or to an externally
provided clock. This can be used to eliminate beat frequency
noise or to avoid creating noise at certain frequencies for
sensitive systems.
Remote sense is provided on the single output models to
compensate for voltage drops in the interconnects between the
converter and the load. The output voltage of dual output
models can be adjusted by a single external resistor.
Design Methodology
The M3G-Series was developed using a proven conservative
design methodology which includes selecting radiation
tolerant and established reliability components and fully
de-rating to the requirements of MIL-STD-975 and MILSTD-1547 except for the CDR type ceramic capacitors, a
capacitor with 50V rating is used for in-circuit voltage
stress of less than 10V. Careful sizing of decoupling
capacitors and current limiting resistors minimizes the
possibility of photo-current burn-out. Heavy de-rating of
the radiation hardened power MOSFET virtually eliminates the
possibility of SEGR and SEB. A magnetic feedback circuit is
utilized instead of opto-couplers to minimize temperature,
radiation and aging sensitivity. PSPICE and Rad SPICE
were used extensively to predict and optimize circuit performance
for both beginning and end-of-life. Thorough design analyses
include Radiation Susceptibility (TREE), Worst Case,
Stress, Thermal, Failure Modes and Effects (FMEA) and
Reliability (MTBF).
2016-06-30
M3G-SERIES
(50V Input, Single/Dual Output)
Specifications
Absolute Maximum Ratings
Input Voltage
Output power
Lead Temperature
Operating temperature
Storage temperature
Recommended Operating Conditions
-0.5Vdc to +80VDC
Internally limited
+300°C for 10 seconds
-55°C to +135°C
-55°C to +135°C
Input Voltage
Output power
+38VDC to +60VDC
0 to Max. Rated
Operating case temperature1
1
-55°C to +125°C
For operation at +125°C see table Note 13
Electrical Performance Characteristics
Parameter
Group A
Subgroup
Conditions
-55°C  TC  +85°C
VIN = 50V DC ± 5%, CL = 0
unless otherwise specified
Input Voltage
Output Voltage (VOUT)
M3G5003R3S
M3G5005S
M3G5012S
M3G5015S
M3G5005D
M3G5012D
M3G5015D
M3G5003R3S
M3G5005S
M3G5012S
M3G5015S
M3G5005D
M3G5012D
M3G5015D
Output power (POUT)
M3G5003R3S
All Others
Output current (IOUT)
M3G5003R3S
M3G5005S
M3G5012S
M3G5015S
M3G5005D
M3G5012D
M3G5015D
1
1
1
1
1
1
1
2,3
2,3
2,3
2,3
2,3
2,3
2,3
1,2,3
IOUT = 100% rated load
Note 4
Limits
Min
Nom
Max
38
50
60
3.28
4.98
11.95
14.94
±4.98
±11.95
±14.94
3.30
5.00
12.00
15.00
±5.00
±12.00
±15.00
3.32
5.02
12.05
15.06
±5.02
±12.05
±15.06
Unit
V
V
3.24
4.93
11.84
14.80
±4.93
±11.84
±14.80
3.36
5.07
12.16
15.20
±5.07
±12.16
±15.20
VIN = 38, 50, 60 Volts, Note 2
0
0
30
40
VIN = 38, 50, 60 Volts, Note 2
0
0
0
0
0
0
0
9.1
8.0
3.34
2.67
6.4
2.67
2.14
-10
10
mV
-0.5
0.5
%
-5.0
-3.0
-3.0
5.0
3.0
3.0
%
IOUT = 100% rated load
Note 4
1,2,3
Either Output, Note 3
Either Output, Note 3
Either Output, Note 3
VIN = 38, 50, 60 Volts
IOUT = 0, 50%, 100% rated, Note 4
Line regulation (VRLINE)
1,2,3
Load regulation (VRLOAD)
1,2,3
IOUT = 0, 50%, 100% rated, Note 4
VIN = 38, 50, 60 Volts
Cross regulation (VRCROSS)
M3G5005D
M3G5012D
M3G5015D
1,2,3
Duals only, Note 5
VIN = 38, 50, 60 Volts
W
A
For Notes to Electrical Performance Characteristics, refer to page 5
3
2016-06-30
M3G-SERIES
(50V Input, Single/Dual Output)
Electrical Performance Characteristics (continued)
Parameter
Input current (IIN)
M3G5003R3S
M3G5005S
M3G5012S
M3G5015S
M3G5005D
M3G5012D
M3G5015D
Group A
Subgroup
Conditions
-55°C  TC +85°C
VIN = 50V DC ± 5%, CL = 0
unless otherwise specified
Limits
Unit
Min
IOUT = 0, Pin 3 open
1,2,3
Pin 3 shorted to pin 2
Nom
Max
30
30
30
30
30
30
30
2.0
80
80
50
80
50
80
80
5.0
35
50
60
80
50
60
60
mA
Output ripple (VRIP)
M3G5003R3S
M3G5005S
M3G5012S
M3G5015S
M3G5005D
M3G5012D
M3G5015D
1,2,3
VIN = 38, 50, 60 Volts
IOUT = 100% rated load
Notes 4, 6
15
20
25
25
20
30
30
Input ripple current
1,2,3
IOUT = 100% rated load
2.0
5.0
mArms
Switching frequency (FS)
1,2,3
Sync. Input (Pin 4) open
450
500
550
kHz
1,2,3
IOUT = 100% rated load
Note 4
68
72
78
75
77
76
72
75
81
82
83
81
82
83
1,2,3
Note 1
Efficiency (EFF)
M3G5003R3S
M3G5005S
M3G5012S
M3G5015S
M3G5005D
M3G5012D
M3G5015D
Inhibit Input
open circuit voltage
drive current (sink)
voltage range
Synchronization Input
frequency range
pulse high level
pulse low level
pulse transition time
pulse duty cycle
Current limit point
Expressed as a percentage
of full rated load current
Power dissipation, load fault (PD)
3.0
-0.5
1,2,3
Ext. Clock on Sync. Input (Pin 4)
Note 1
450
4.0
-0.5
40
20
mVp-p
%
5.0
100
50
V
A
V
600
10
0.5
80
kHz
V
V
V/s
%
1,2,3
VOUT= 90% of Nominal, Note 4
135
%
1,2,3
Short Circuit, Overload, Note 8
20
W
For Notes to Electrical Performance Characteristics, refer to page 5
4
2016-06-30
M3G-SERIES
(50V Input, Single/Dual Output)
Electrical Performance Characteristics (continued)
Parameter
Group A
Subgroup
Conditions
-55°C  TC  +85°C
VIN = 50V DC ± 5%, CL = 0
unless otherwise specified
Half Load to/from Full Load,
Notes 4,9
Output response to
step load changes (VTLD)
4,5,6
Recovery time,
step load changes (TTLD)
4,5,6
Half Load to/from Full Load,
Notes 4,9,10
Output response to
step line changes (VTLN)
4,5,6
40V to/from 60V
IOUT = 100% rated load, Notes 1, 4,11
Recovery time,
step line changes (TTLN)
4,5,6
40V to/from 60V
IOUT = 100% rated load,
Notes 1,4,10,11
Capacitive load (CL)
M3G5003R3S
M3G5005S
M3G5012S
M3G5015S
M3G5005D
M3G5012D
M3G5015D
Turn –on Response
Overshoot (VOS)
Turn-on Delay (TDLY)
Min
Nom
-300
1
200
s
-300
300
mVpk
50
200
s
50
2200
1000
180
120
500
90
60
No Load, Full Load
Notes 4, 12
1.0
IOUT = 100% rated load
DC to 50 kHz, Notes 1, 4
40
Input to Output or Any Pin to Case
except Pin 6, test @ 500VDC
100
10
5.0
60
6.0 x 10
%
ms
dB
110
MIL-HDBK-217F2, SF, 35°C
µF
M
Device Weight
MTBF
Unit
mVpk
Each output on duals
4,5,6
Max
300
IOUT = 100% rated load
No effect on DC performance
Notes 1, 4, 7
Line Rejection
Isolation
Limits
6
g
Hrs
Notes: Electrical Performance Characteristics Table
1.
2.
3.
4.
5.
6.
7.
Parameter is tested as part of design characterization or after design changes. Thereafter, parameter shall be guaranteed to the limits specified.
Parameter verified during line and load regulation tests.
Output load current must be distributed such that at least 20% of the total load current is being provided by one of the outputs.
Load current split equally between outputs on dual output models.
Cross regulation is measured with 20% rated load on output under test while changing the load on the other output from 20% to 80% of rated.
Guaranteed for a D.C. to 20 MHz bandwidth. Tested using a 20 kHz to 10 MHz bandwidth.
Capacitive load may be any value from 0 to the maximum limit without compromising dc performance. A capacitive load in excess of the maximum
limit may interfere with the proper operation of the converter’s overload protection, causing erratic behavior during turn-on.
8. Overload power dissipation is defined as the device power dissipation with the load set such that VOUT = 90% of nominal.
9. Load step transition time 10 s.
10 Recovery time is measured from the initiation of the transient to where VOUT has returned to within ±1% of its steady state value.
11. Line step transition time 100 s.
12. Turn-on delay time from either a step application of input power or a logic low to a logic high transition on the inhibit pin (pin 3) to the point where
VOUT = 90% of nominal.
13. Although operation at temperatures between +85°C and +125°C is guaranteed, no parametric limits are specified.
5
2016-06-30
M3G-SERIES
(50V Input, Single/Dual Output)
Fig 1. Block Diagram - Single Output
Vin
EMI
FILTER
1
UNDER VOLTAGE
LOCKOUT
& INHIBIT
INHIBIT 3
+10.5V
BIAS
SUPPLY
+5V
13
+OUTPUT
12
RETURN
10
+SENSE
9
-SENSE
6
CASE
GROUND
13
+O UTPU T
12
RE TURN
11
-OU TPU T
SHORT CIRCUIT
&
OVERLOAD
LEVEL
TRANSLATOR
& FET DRIVE
RETURN
2
+
+5V
+
+5V
RS
-
EA
-
SYNC.
INPUT
4
RAMP
GENERATOR
+
OSCILLATOR
SYNC.
OUTPUT
SAMPLE
&
HOLD
PWM
5
-
FEEDBACK
TRIGGER
Fig 2. Block Diagram - Dual Output
Vin
INH IBIT
1
3
EMI
FILTER
+10.5V
UN DER VOLTAGE
LO CKOU T
& INHIB IT
BIA S
SU PPLY
+5V
SH ORT CIRC UIT
&
OVER LOA D
LE VEL
TR ANSLATO R
& FET D RIVE
RE TURN
2
+5V
+
+5V
8
-
EA
AD JUST
+
SY NC.
INP UT
4
OS CILLA TOR
SY NC.
OU TPUT
5
+
PW M
-
RA MP
GE NER ATOR
SA MPLE
&
HO LD
6
FE EDBA CK
TR IGGE R
6
CA SE
GR OUN D
2016-06-30
M3G-SERIES
(50V Input, Single/Dual Output)
Radiation Performance Characteristics
Test
Conditions
Min
Typ
Unit
Total Ionizing Dose (Gamma)
MIL-STD-883, Method 1019
Operating bias applied during exposure
Full Rated Load VIN = 50V
200
300
kRads (Si)
Dose Rate (Gamma Dot)
Temporary Saturation
Survival
MIL-STD-883, Method 1023
Operating bias applied during exposure
Full Rated Load VIN = 50V
1E8
4E10
1E11
Rads (Si)/sec
MIL-STD-883, Method 1017
8E12
1E13
Neutrons/cm2
Neutron Fluence
Single Event Effects
SEU, SEL, SEGR, SEB
Heavy ions (LET)
Operating bias applied during exposure
Full Rated Load VIN = 50V
Test lab: Brookhaven National Laboratory,
Tandem Van De Graaff Generator
82
MeVcm2 /mg
IR HiRel currently does not have a DLA Land and Maritime certified Radiation Hardness Assurance Program.
Application Notes:
A) Attachment of the Converter
The following procedure is recommended for mounting the converter for optimum cooling and to circumvent any potential
damage to the converter.
Ensure that flatness of the plate where M3G converter to be mounted is no greater than 0.003” per linear inch.
It is recommended that a thermally conductive gasket is used to promote the thermal transfer and to fill any voids existing
between the two surfaces. IR HiRel recommends Sil-Pad 2000 with the thickness of 0.010". The shape of the gasket
should match the footprint of the converter including the mounting flanges. The gasket is available from IR HiRel . The
M3G-series converter requires either M3 or 4-40 size screws for attachment purposes.
The procedure for mounting the converter is as follows:
1. Check all mounting surfaces and remove foreign material, burrs, if any or anything that may interfere with the
attachment of the converter.
2. Place the gasket on the surface reserved for the converter and line it up with the mounting holes.
3. Place the converter on the gasket and line both up with mounting holes.
4. Install screws using appropriate washers and tighten by hand (~ 4 in·oz) in the sequence shown below.
5. Tighten the screws with an appropriate torque driver. Torque the screws up to 6 in·lb in the sequence shown above.
7
2016-06-30
M3G-SERIES
(50V Input, Single/Dual Output)
B) Output Voltage Adjustment.
Single Output:
Adjustment of the output voltage requires the +Sense pin be connected in one of two ways as shown in Fig 3 and 4 below.
Use the equations and circuit configurations provided to calculate the required resistance (RADJ) for the applicable voltage adjust
range. The output adjustment is limited to 0 to +10% range for reliable operation.
Fig 3. Configuration for Adjusting Single Output Voltage from +0.25V to +10%
+Out
13
Out
12
Return
M3G
(single output)
Radj
+Sense 10
-Sense
9
Fig 4. Configuration for Adjusting Single Output Voltage from 0 to +0.25V
+Out
13
Out
12
Return
M3G
(single output)
Radj
+Sense 10
-Sense
8
9
2016-06-30
M3G-SERIES
(50V Input, Single/Dual Output)
For M3GXX03R3S:
Using the configuration of Fig 3 and where RADJ is in Ohms and 3.513 < VOUT < 3.630
RADJ 
495
VOUT  3.513
Using the configuration of Fig 4 and where RADJ is in Ohms and 3.300 < VOUT < 3.513
RADJ  150
VOUT  3.300
3.513 VOUT 
For M3GXX05S:
Using the configuration of Fig 3 and where RADJ is in Ohms and 5.250 < VOUT < 5.500
R ADJ 
750
VOUT  5.25
Using the configuration of Fig 4 and where RADJ is in Ohms and 5.500 < VOUT < 5.250
R AD J  150
V O U T  5 .000 
5 .250  V O U T 
For M3GXX12S:
Using the configuration of Fig 3 and where RADJ is in Ohms and 12.312 < VOUT < 13.200
RADJ 
1800
VOUT  12.312
Using the configuration of Fig 4 and where RADJ is in Ohms and 12.000 < VOUT < 12.312
RADJ  150
VOUT 12.000
12.312 VOUT 
For M3GXX15S:
Using the configuration of Fig 3 and where RADJ is in Ohms and 15.315 < VOUT < 16.500
RADJ 
2250
VOUT  15.315
Using the configuration of Fig 4 and where RADJ is in Ohms and 15.000 < VOUT < 15.315
RADJ  150
9
VOUT 15.000
15.315  VOUT 
2016-06-30
M3G-SERIES
(50V Input, Single/Dual Output)
Dual Output:
The dual output models have an Adjust pin which can be connected through a resistor (RADJ) to either output. This allows the
outputs to be reliably adjusted by approximately +10% to -25% of the nominal output voltage. Refer to Fig 5 and use
equations provided to calculate the required resistance (RADJ).
Fig 5. Configuration for Adjusting Dual Output Voltage
+Out
13
Note 1
Out
12
Return
M3G
(Dual Output)
-Out
11
Notes:
1. For Vout < Vnom
2. For Vout > Vnom
Note 2
Radj
Adjust
8
For all Dual Output Models, to adjust the output voltage higher:
R ADJ 
3.48 1.64V NOM  1
 51
VOUT  VNOM
where: RADJ is in kOhms
RADJ is connected to -Out pin and VNOM < VOUT < 1.1VNOM (Fig. 5, Note 2)
VNOM is the nominal output voltage with the Adjust pin left open
VOUT is the desired output voltage
For all Dual Output Models, to adjust the output voltage lower:
R ADJ 
3.48 1.64V NOM  1 1.64VOUT  1
 51
V NOM  VOUT
where:RADJ is in kOhms
RADJ is connected to +Out pin and 0.75VNOM < VOUT < VNOM (Fig. 5, Note 1)
VNOM is the nominal output voltage with the Adjust pin left open
VOUT is the desired output voltage
10
2016-06-30
M3G-SERIES
(50V Input, Single/Dual Output)
Mechanical Outline
3.055 MAX.
0.500
0.080
Max.
2.00
R0.0625
4 places
0.30
0.50
0.20
13
1
12
2
11
10
0.60
2.055
MAX.
9
3
8
4
7
5
6
2.30
0.200 Typ.
Noncum.
1.400
Ref.
2.500
Pin
Ø0.040
0.45
1.10
0.260
FLANGE DETAIL
3.50
Ref.
.
R0
0.25
0.25
0.475
MAX.
25
06
0.14
0.40
Tolerance :
.XX
.XXX
±0.01
±0.005
Pin Designation (Single/Dual)
11
Pin #
Designation
Pin #
Designation
1
+ Input
8
NC/ Adjust
2
Input Return
9
- Sense / NC
3
Inhibit
10
+ Sense / NC
4
Sync. Input
11
NC / - Output
5
Sync. Output
12
Output Return
6
Case Ground
13
+ Output
7
NC
2016-06-30
M3G-SERIES
(50V Input, Single/Dual Output)
Device Screening
Requirement
MIL-STD-883 Method
No Suffix 
CK 
EM 
Temperature Range
—
-55°C to +85°C
-55°C to +85°C
-55°C to +85°C
Element Evaluation
MIL-PRF-38534
Class K
Class K
N/A
Non-Destructive Bond Pull
2023
Yes
Yes
N/A
Internal Visual
2017
Yes
Yes

Temperature Cycle
1010
Cond C
Cond C
Cond C
Constant Acceleration
2001, Y1 Axis
3000 Gs
3000 Gs
3000 Gs
PIND
2020
1015
Final Electrical
(Group A)
PDA
MIL-PRF-38534
& Specification
MIL-PRF-38534
Cond A
320 hrs @ 125°C
(2 x 160 hrs)
-55°C, +25°C,
+85°C
2%
N/A
Burn-In
Cond A
320 hrs @ 125°C
(2 x 160 hrs)
-55°C, +25°C,
+85°C
2%
Seal, Fine and Gross
1014
Cond A, C
Cond A, C
Cond A
Radiographic
2012
Yes
Yes
N/A
External Visual
2009
Yes
Yes

48 hrs @ 125°C
-55°C, +25°C,
+85°C
N/A
Notes:
 Best commercial practice.
 CK is a DLA Land and Maritime (formerly DSCC) part marking used to designate a Class K compliant hybrid.
The CK marking does not indicate the hybrid is radiation certified.
No Suffix is a radiation rated device but not available as a DLA Land and Maritime qualified SMD per MIL-PRF-38534.
 Any Engineering Model (EM) build with the “EM” Suffix shall only be form, fit and functional equivalent to its
Flight Model (FM) counterpart, and it may not meet the radiation performance. The EM Model shall not be expected
comply with MIL-PRF-38534 flight quality/workmanship standards, and configuration control. An EM build may use
electrical equivalent commercial grade components. IR HiRel will provide a list of non-compliance items upon request.
Part Numbering
IR HiRel Headquarters: 101 N. Sepulveda Blvd., El Segundo, California 90245, USA Tel: (310) 252-7105
IR HiRel Leominster: 205 Crawford St., Leominster, Massachusetts 01453, USA Tel: (978) 534-5776
IR HiRel San Jose: 2520 Junction Avenue, San Jose, California 95134, USA Tel: (408) 434-5000
Data and specifications subject to change without notice.
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M3G-SERIES
(50V Input, Single/Dual Output)
IMPORTANT NOTICE
The information given in this document shall be in no event regarded as guarantee of conditions or characteristic. The
data contained herein is a characterization of the component based on internal standards and is intended to
demonstrate and provide guidance for typical part performance. It will require further evaluation, qualification and
analysis to determine suitability in the application environment to confirm compliance to your system requirements.
With respect to any example hints or any typical values stated herein and/or any information regarding the application of
the product, Infineon Technologies hereby disclaims any and all warranties and liabilities of any kind including without
limitation warranties on non- infringement of intellectual property rights and any third party.
In addition, any information given in this document is subject to customer’s compliance with its obligations stated in this
document and any applicable legal requirements, norms and standards concerning customer’s product and any use of
the product of Infineon Technologies in customer’s applications.
The data contained in this document is exclusively intended for technically trained staff. It is the responsibility of any
customer’s technical departments to evaluate the suitability of the product for the intended applications and the
completeness of the product information given in this document with respect to applications.
For further information on the product, technology, delivery terms and conditions and prices, please contact your local
sales representative or go to (www.infineon.com/hirel).
WARNING
Due to technical requirements products may contain dangerous substances. For information on the types in question,
please contact your nearest Infineon Technologies office.
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