AFL12005SY/CH - International Rectifier

04/30/07

www.irf.com 1

AFL120XXS SERIES

The AFL Series of DC/DC converters feature high power

density with no derating over the full military temperature

range. This series is offered as part of a complete family

of converters providing single and dual output voltages

and operating from nominal +28V, +50V, +120V or +270 V

inputs with output power ranging from 80W to 120W.

For applications requiring higher output power, multiple

converters can be operated in parallel. The internal

current sharing circuits assure equal current distribution

among the paralleled converters. This series incorporates

International Rectifier’s proprietary magnetic pulse

feedback technology providing optimum dynamic line

and load regulation response. This feedback system

samples the output voltage at the pulse width modulator

fixed clock frequency, nominally 550KHz. Multiple

converters can be synchronized to a system clock in

the 500KHz to 700KHz range or to the synchronization

output of one converter. Undervoltage lockout, primary

and secondary referenced inhibit, soft-start and load

fault protection are provided on all models.

Description

n80V To 160V Input Range

n5, 7.5, 8, 9, 12, 15 and 28V Outputs Available

nHigh Power Density - up to 84W/in3

nUp To 120W Output Power

nParallel Operation with Stress and Current

Sharing

nLow Profile (0.380") Seam Welded Package

nCeramic Feedthru Copper Core Pins

nHigh Efficiency - to 87%

nFull Military Temperature Range

nContinuous Short Circuit and Overload

Protection

nRemote Sensing Terminals

nPrimary and Secondary Referenced

Inhibit Functions

nLine Rejection > 50dB - DC to 50KHz

nExternal Synchronization Port

nFault Tolerant Design

nDual Output Versions Available

nStandard Microcircuit Drawings Available

Features

AFL

120V Input, Single Output

HYBRID-HIGH RELIABILITY

DC/DC CONVERTER

These converters are hermetically packaged in two

enclosure variations, utilizing copper core pins to

minimize resistive DC losses. Three lead styles are

available, each fabricated with International Rectifier’s

rugged ceramic lead-to-package seal assuring long

term hermeticity in the most harsh environments.

Manufactured in a facility fully qualified to MIL-PRF-

38534, these converters are fabricated utilizing DSCC

qualified processes. For available screening options,

refer to device screening table in the data sheet.

Variations in electrical, mechanical and screening can

be accommodated. Contact IR Santa Clara for special

requirements.

PD-94447D

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AFL120XXS Series

Specifications

Static Characteristics -55°C < TCASE < +125°C, 80V< VIN < 160V unless otherwise specified.

For Notes to Specifications, refer to page 4

Input voltage -0.5V to +180VDC

Soldering temperature 300°C for 10 seconds

Operating case temperature -55°C to +125°C

Storage case temperature -65°C to +135°C

Absolute Maximum Ratings

Parameter

Group A

Subgroups

Test Conditions

Min

Nom

Max

Unit

INPUT VOLTAGE Note 6 80 120 160 V

OUTPUT VOLTAGE

AFL12005S

AFL12007R5S

AFL12008S

AFL12009S

AFL12012S

AFL12015S

AFL12028S

AFL12005S

AFL12007R5S

AFL12008S

AFL12009S

AFL12012S

AFL12015S

AFL12028S

2, 3

VIN = 120 Volts, 100% Load

4.95

7.42

7.92

8.91

11.88

14.85

27.72

4.90

7.35

7.84

8.82

11.76

14.70

27.44

5.00

7.50

8.00

9.00

12.00

15.00

28.00

5.05

7.58

8.08

9.09

12.12

15.15

28.28

5.10

7.65

8.16

9.18

12.24

15.30

28.56

OUTPUT CURRENT

AFL12005S

AFL12007R5S

AFL12008S

AFL12009S

AFL12012S

AFL12015S

AFL12028S

IN = 80, 120, 160 Volts - Note 6

16.0

10.67

10.0

9.0

8.0

4.0

OUTPUT POWER

AFL12005S

AFL12007R5S

AFL12008S

AFL12009S

AFL12012S

AFL12015S

AFL12028S

Note 6

108

120

112

MAXIMUM CAPACITIVE LOAD Note 1 10,000 µF

OUTPUT VOLTAGE

TEMPERATURE COEFFICIENT

IN = 120 Volts, 100% Load - Notes 1, 6 -0.015 +0.015 %/°C

OUTPUT VOLTAGE REGULATION

AFL12028S Line

All Others Line

Load

1, 2, 3

No Load, 50% Load, 100% Load

VIN = 80, 120, 160 Volts

-70

-20

-1.0

+70

+20

+1.0

OUTPUT RIPPLE VOLTAGE

AFL12005S

AFL12007R5S

AFL12008S

AFL12009S

AFL12012S

AFL12015S

AFL12028S

1, 2, 3

VIN = 80, 120, 160 Volts, 100% Load,

BW = 10MHz

100

mVpp

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AFL120XXS Series

Static Characteristics (Continued)

For Notes to Specifications, refer to page 4

Parameter

Group A

Subgroups

Test Conditions

Min

Nom

Max

Unit

INPUT CURRENT

No Load

Inhibit 1

Inhibit 2

2, 3

1, 2, 3

VIN = 120 Volts

IOUT = 0

Pin 4 Shorted to Pin 2

Pin 12 Shorted to Pin 8

5.0

INPUT RIPPLE CURRENT

AFL12005S

AFL12007R5S

AFL12008S

AFL12009S

AFL12012S

AFL12015S

AFL12028S

1, 2, 3

VIN = 120 Volts, 100% Load, BW =

10MHz

mApp

CURRENT LIMIT POINT

As a percentage of full rated load

VOUT = 90% VNOM , VIN = 120 Volts

Note 5

115

105

125

115

140

LOAD FAULT POWER

DISSIPATION

Overload or Short Circuit

1, 2, 3

VIN = 120 Volts

EFFICIENCY

AFL12005S

AFL12007R5S

AFL12008S

AFL12009S

AFL12012S

AFL12015S

AFL12028S

1, 2, 3

VIN = 120 Volts, 100% Load

ENABLE INPUTS (Inhibit Function)

Converter Off

Sink Current

Converter On

Sink Current

1, 2, 3

Logical Low on Pin 4 or Pin 12

Note 1

Logical High on Pin 4 and Pin 12 - Note 9

Note 1

-0.5

2.0

0.8

100

µA

SWITCHING FREQUENCY 1, 2, 3 500 550 600 KHz

SYNCHRONIZATION INPUT

Frequency Range

Pulse Amplitude, Hi

Pulse Amplitude, Lo

Pulse Rise Time

Pulse Duty Cycle

1, 2, 3

Note 1

500

2.0

-0.5

700

0.8

100

KHz

ISOLATION 1 Input to Output or Any Pin to Case

(except Pin 3). Test @ 500VDC

100 MΩ

DEVICE WEIGHT Slight Variations with Case Style 85 g

MTBF MIL-HDBK-217F, AIF @ TC = 70°C 300 KHrs

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AFL120XXS Series

Dynamic Characteristics -55°C < TCASE < +125°C, VIN=120V unless otherwise specified.

Notes to Specifications:

1. Parameters not 100% tested but are guaranteed to the limits specified in the table.

2. Recovery time is measured from the initiation of the transient to where VOUT has returned to within ±1.0%

of VOUT at 50% load.

3. Line transient transition time ≥ 100µs.

4. Turn-on delay is measured with an input voltage rise time of between 100V and 500V per millisecond.

5. Current limit point is that condition of excess load causing output voltage to drop to 90% of nominal.

6. Parameter verified as part of another test.

7. All electrical tests are performed with the remote sense leads connected to the output leads at the load.

8. Load transient transition time ≥ 10µs.

9. Enable inputs internally pulled high. Nominal open circuit voltage ≈ 4.0VDC.

Parameter

Group A

Subgroups

Test Conditions

Min

Nom

Max

Unit

LOAD TRANSIENT RESPONSE

AFL12005S Amplitude

Recovery

Amplitude

Recovery

AFL12007R5S Amplitude

Recovery

Amplitude

Recovery

AFL12009S Amplitude

Recovery

Amplitude

Recovery

AFL12012S Amplitude

Recovery

Amplitude

Recovery

AFL12015S Amplitude

Recovery

Amplitude

Recovery

AFL12028S Amplitude

Recovery

Amplitude

Recovery

4, 5, 6

Note 2, 8

Load Step 50% ⇔ 100%

Load Step 10% ⇔ 50%

Load Step 50% ⇔ 100%

Load Step 10% ⇔ 50%

Load Step 50% ⇔ 100%

Load Step 10% ⇔ 50%

Load Step 50% ⇔ 100%

Load Step 10% ⇔ 50%

Load Step 50% ⇔ 100%

Load Step 10% ⇔ 50%

Load Step 50% ⇔ 100%

Load Step 10% ⇔ 50%

-450

-500

-600

-750

-1200

450

200

450

300

500

200

500

300

600

200

600

300

750

200

750

300

750

200

750

300

1200

200

1200

300

µs

LINE TRANSIENT RESPONSE

Amplitude

Recovery

Note 1, 2, 3

VIN Step = 80 ⇔ 160 Volts

-500

500

µs

TURN-ON CHARACTERISTICS

Overshoot

Delay

4, 5, 6

VIN = 30, 50, 80 Volts. Note 4

Enable 1, 2 on. (Pins 4, 12 high or

open)

250

120

LOAD FAULT RECOVERY Same as Turn On Characteristics.

LINE REJECTION MIL-STD-461D, CS101, 30Hz to

50KHz

Note 1

60 70 dB

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AFL120XXS Series

Block Diagram

Figure I. AFL Single Output

Figure II. Enable Input Equivalent Circuit

Pin 4 or

Pin 12

1N4148

100K

290K

150K

2N3904

+5.6

Disable

Pin 2 or

Pin 8

Circuit Operation and Application Information

Remote Sensing

Inhibiting Converter Output (Enable)

The AFL series of converters employ a forward switched

mode converter topology. (refer to Figure I.) Operation of

the device is initiated when a DC voltage whose magnitude

is within the specified input limits is applied between pins 1

and 2. If pin 4 is enabled (at a logical 1 or open) the primary

bias supply will begin generating a regulated housekeeping

voltage bringing the circuitry on the primary side of the

converter to life. A power MOSFET is used to chop the DC

input voltage into a high frequency square wave, applying

this chopped voltage to the power transformer at the nominal

converter switching frequency. Maintaining a DC voltage

within the specified operating range at the input assures

continuous generation of the primary bias voltage.

The switched voltage impressed on the secondary output

transformer winding is rectified and filtered to generate the

converter DC output voltage. An error amplifier on the

secondary side compares the output voltage to a precision

reference and generates an error signal proportional to the

difference. This error signal is magnetically coupled through

the feedback transformer into the controller section of the

converter varying the pulse width of the square wave signal

driving the MOSFET, narrowing the width if the output voltage

is too high and widening it if it is too low, thereby regulating

the output voltage.

Connection of the + and - sense leads at a remotely located

load permits compensation for excessive resistance

between the converter output and the load when their

physical separation could cause undesirable voltage drop.

This connection allows regulation to the placard voltage at

the point of application. When the remote sensing feature is

not used, the sense should be connected to their respective

output terminals at the converter. Figure III. illustrates a

typical remotely sensed application.

As an alternative to application and removal of the DC voltage

to the input, the user can control the converter output by

providing TTL compatible, positive logic signals to either of

two enable pins (pin 4 or 12). The distinction between these

two signal ports is that enable 1 (pin 4) is referenced to the

input return (pin 2) while enable 2 (pin 12) is referenced to

the output return (pin 8). Thus, the user has access to an

inhibit function on either side of the isolation barrier. Each

port is internally pulled “high” so that when not used, an

open connection on both enable pins permits normal

converter operation. When their use is desired, a logical

“low” on either port will shut the converter down.

+ In

Enable 1 4

nc Out

Sync Input

Case 3

2 Input Return

Input

Filter

Primary

Bias Su

Control

Output

Filter

Current

Sense

Error

Amp

& Ref

lifier

Sense

lifier

7 +Output

+Sense

11 Share

Enable 2

9 Return Sense

8 Output Return

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AFL120XXS Series

Figure III. Preferred Connection for Parallel Operation

Optional

Synchronization

Connection

Power

Input

(Other Converters)

Share Bus

AFL

- Sense

Enable 2

+ Vout

Return

+ Sense

Vin

Rtn

Case

Enable 1

Sync Out

Sync In

AFL

- Sense

Enable 2

+ Vout

Return

+ Sense

Vin

Rtn

Case

Enable 1

Sync Out

Sync In

AFL

- Sense

Enable 2

+ Vout

Return

+ Sense

Vin

Rtn

Case

Enable 1

Sync Out

Sync In

to Load

AFL series operating in the parallel mode is that in addition

to sharing the current, the stress induced by temperature

will also be shared. Thus if one member of a paralleled set

is operating at a higher case temperature, the current it

provides to the load will be reduced as compensation for

the temperature induced stress on that device.

Synchronization of Multiple Converters

Parallel Operation-Current and Stress Sharing

Internally, these ports differ slightly in their function. In use,

a low on Enable 1 completely shuts down all circuits in the

converter while a low on Enable 2 shuts down the secondary

side while altering the controller duty cycle to near zero.

Externally, the use of either port is transparent to the user

save for minor differences in idle current. (See specification

table).

When operating multiple converters, system requirements

often dictate operation of the converters at a common

frequency. To accommodate this requirement, the AFL

series converters provide both a synchronization input and

output.

Figure III. illustrates the preferred connection scheme for

operation of a set of AFL converters with outputs operating

in parallel. Use of this connection permits equal sharing of

a load current exceeding the capacity of an individual AFL

among the members of the set. An important feature of the

than100ns, maximum low level of +0.8V and a minimum high

level of +2.0V. The sync output of another converter which

has been designated as the master oscillator provides a

convenient frequency source for this mode of operation.

When external synchronization is not required, the sync in

pin should be left unconnected thereby permitting the

converter to operate at its’ own internally set frequency.

The sync output signal is a continuous pulse train set at

550 ±50KHz, with a duty cycle of 15 ±5.0%. This signal is

referenced to the input return and has been tailored to be

compatible with the AFL sync input port. Transition times

are less than 100ns and the low level output impedance is

less than 50Ω. This signal is active when the DC input

voltage is within the specified operating range and the

converter is not inhibited. This output has adequate drive

reserve to synchronize at least five additional converters.

A typical synchronization connection option is illustrated in

Figure III.

The sync input port permits synchronization of an AFL

converter to any compatible external frequency source

operating between 500KHz and 700KHz. This input signal

should be referenced to the input return and have a 10% to

90% duty cycle. Compatibility requires transition times less

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AFL120XXS Series

A conservative aid to estimating the total heat sink surface

area (AHEAT SINK) required to set the maximum case

temperature rise (∆T) above ambient temperature is given

by the following expression:

A HEAT SINK ≈⎧

⎨

⎩

⎫

⎬

⎭−

−

∆T

P80 30

085

143

where

∆

Eff

OUT

==−

⎧

⎨

⎩

⎫

⎬

⎭

Case temperature rise above ambient

Device dissipation in Watts 11

∆T = 85 - 25 = 60°C

()

P=• −

⎧

⎨

⎩

⎫

⎬

⎭=• =120 1

83 1 120 0 205 24 6

...W

and the required heat sink area is

A = 60

80 24.6 inHEAT SINK 0.85

•

⎧

⎨

⎩

⎫

⎬

⎭−=

−143

30 71

From the Specification Table, the worst case full load

efficiency for this device is 83%; therefore the power

dissipation at full load is given by

Because of the incorporation of many innovative

technological concepts, the AFL series of converters is

capable of providing very high output power from a package

of very small volume. These magnitudes of power density

can only be obtained by combining high circuit efficiency

with effective methods of heat removal from the die junctions.

This requirement has been effectively addressed inside the

device; but when operating at maximum loads, a significant

amount of heat will be generated and this heat must be

conducted away from the case. To maintain the case

temperature at or below the specified maximum of 125°C,

this heat must be transferred by conduction to an

appropriate heat dissipater held in intimate contact with the

converter base-plate.

Because effectiveness of this heat transfer is dependent

on the intimacy of the baseplate/heatsink interface, it is

strongly recommended that a high thermal conductivity heat

transferance medium is inserted between the baseplate

and heatsink. The material most frequently utilized at the

factory during all testing and burn-in processes is sold under

the trade name of Sil-Pad® 4001. This particular product

is an insulator but electrically conductive versions are also

available. Use of these materials assures maximum surface

contact with the heat dissipator thereby compensating for

minor variations of either surface. While other available

types of heat conductive materials and compounds may

provide similar performance, these alternatives are often

less convenient and are frequently messy to use.

When operating in the shared mode, it is important that

symmetry of connection be maintained as an assurance of

optimum load sharing performance. Thus, converter outputs

should be connected to the load with equal lengths of wire of

the same gauge and sense leads from each converter should

be connected to a common physical point, preferably at the

load along with the converter output and return leads. All

converters in a paralleled set must have their share pins

connected together. This arrangement is diagrammatically

illustrated in Figure III. showing the outputs and sense pins

connected at a star point which is located close as possible

to the load.

As a consequence of the topology utilized in the current

sharing circuit, the share pin may be used for other functions.

In applications requiring a single converter, the voltage

appearing on the share pin may be used as a “current

monitor”. The share pin open circuit voltage is nominally

+1.00V at no load and increases linearly with increasing

output current to +2.20V at full load. The share pin voltage

is referenced to the output return pin.

Thus, a total heat sink surface area (including fins, if any) of

71 in2 in this example, would limit case rise to 60°C above

ambient. A flat aluminum plate, 0.25" thick and of

approximate dimension 4" by 9" (36 in2 per side) would

suffice for this application in a still air environment. Note

that to meet the criteria in this example, both sides of the

plate require unrestricted exposure to the ambient air.

1Sil-Pad is a registered Trade Mark of Bergquist, Minneapolis, MN

As an example, it is desired to maintain the case temperature

of this device at £ +85°C in an area where the ambient

temperature is held at a constant +25°C; then

Thermal Considerations

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AFL120XXS Series

R = 100 - -.025

adj

NOM

OUT NOM

•⎧

⎨

⎩

⎫

⎬

⎭

Where VNOM = device nominal output voltage, and

VOUT = desired output voltage

Figure V. Connection for VOUT Adjustment

Input Filter

Undervoltage Lockout

The AFL120XXS series converters incorporate a LC input

filter whose elements dominate the input load impedance

characteristic at turn-on. The input circuit is as shown in

Figure IV.

Figure IV. Input Filter Circuit

Pin 1

Pin 2

16.8uH

0.78uF

A minimum voltage is required at the input of the converter

to initiate operation. This voltage is set to 74V ± 4.0V. To

preclude the possibility of noise or other variations at the

input falsely initiating and halting converter operation, a

hysteresis of approximately 7.0V is incorporated in this

circuit. Thus if the input voltage droops to 67V ± 4.0V, the

converter will shut down and remain inoperative until the

input voltage returns to ≈ 74V.

Output Voltage Adjust

In addition to permitting close voltage regulation of remotely

located loads, it is possible to utilize the converter sense

pins to incrementally increase the output voltage over a

limited range. The adjustments made possible by this method

are intended as a means to “trim” the output to a voltage

setting for some particular application, but are not intended

to create an adjustable output converter. These output

voltage setting variations are obtained by connecting an

appropriate resistor value between the +sense and -sense

pins while connecting the -sense pin to the output return pin

as shown in Figure V. below. The range of adjustment and

corresponding range of resistance values can be determined

by use of the following equation.

Finding a resistor value for a particular output voltage, is

simply a matter of substituting the desired output voltage

and the nominal device voltage into the equation and solving

for the corresponding resistor value.

Enable 2

+ Sense

- Sense

Return

+ V

out

To Load

ADJ

AFL120xxS

Note: Radj must be set ≥ 500Ω

Attempts to adjust the output voltage to a value greater than

120% of nominal should be avoided because of the potential

of exceeding internal component stress ratings and

subsequent operation to failure. Under no circumstance

should the external setting resistor be made less than 500Ω.

By remaining within this specified range of values, completely

safe operation fully within normal component derating limits

is assured.

Examination of the equation relating output voltage and

resistor value reveals a special benefit of the circuit topology

utilized for remote sensing of output voltage in the

AFL120XXS series of converters. It is apparent that as the

resistance increases, the output voltage approaches the

nominal set value of the device. In fact the calculated limiting

value of output voltage as the adjusting resistor becomes

very large is ≈ 25mV above nominal device voltage.

The consequence is that if the +sense connection is

unintentionally broken, an AFL120XXS has a fail-safe output

voltage of Vout + 25mV, where the 25mV is independent of

the nominal output voltage. It can be further demonstrated

that in the event of both the + and - sense connections

being broken, the output will be limited to Vout + 440mV.

This 440mV is also essentially constant independent of the

nominal output voltage.

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AFL120XXS Series

General Application Information Table 1. Nominal Resistance of Cu Wire

The AFL120XXS series of converters are capable of

providing large transient currents to user loads on demand.

Because the nominal input voltage range in this series is

relatively low, the resulting input current demands will be

correspondingly large. It is important therefore, that the line

impedance be kept very low to prevent steady state and

transient input currents from degrading the supply voltage

between the voltage source and the converter input. In

applications requiring high static currents and large

transients, it is recommended that the input leads be made

of adequate size to minimize resistive losses, and that a

good quality capacitor of approximately 100µF be connected

directly across the input terminals to assure an adequately

low impedance at the input terminals. Table I relates nominal

resistance values and selected wire sizes.

Wire Size, AWG Resistance per ft

24 Ga 25.7 mΩ

22 Ga 16.2 mΩ

20 Ga 10.1 mΩ

18 Ga 6.4 mΩ

16 Ga 4.0 mΩ

14 Ga 2.5 mΩ

12 Ga 1.6 mΩ

Incorporation of a 100µF capacitor at the input terminals is

recommended as compensation for the dynamic effects

of the parasitic resistance of the input cable reacting with

the complex impedance of the converter input, and to

provide an energy reservoir for transient input current

requirements.

Figure VI. Problems of Parasitic Resistance in input Leads

(See text)

Vin

Rtn

Case

Enable 1

Sync Out

Sync In

Rtn

source

System Ground

Rtn

100

µfd

10 www.irf.com

AFL120XXS Series

Mechanical Outlines

Case X

Case W

Pin Variation of Case Y

1.260 1.500

2.500

2.760

3.000

ø 0.128

0.250

1.000

Ref 0.200 Typ

Non-cum

0.050

0.220

ø 0.040

0.238 max

0.380

Max

2.975 max

712

0.050

0.220

0.250

1.000

ø 0.040

0.525

0.380

Max

2.800

0.42

Case Y Case Z

Pin Variation of Case Y

1.500 1.750

2.500

0.25 typ

1.150

0.050

0.220

712

1.750 0.375

2.00

0.250

1.000

Ref 0.200 Typ

Non-cum

ø 0.040

0.300

ø 0.140

0.238 max

0.380

Max

2.975 max

0.050

0.220

0.250

1.000

Ref

ø 0.040

0.525

0.380

Max

2.800

0.36

BERYLLIA WARNING: These converters are hermetically sealed; however they contain BeO substrates and should not be ground or subjected to any other

operations including exposure to acids, which may produce Beryllium dust or fumes containing Beryllium

Tolerances, unless otherwise specified: .XX = ±0.010

.XXX = ±0.005

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AFL120XXS Series

Pin Designation

Standard Microcircuit Drawing Equivalence Table

Standard Microcircuit IR Standard

Drawing Number Part Number

5962-99608 AFL12005S

5962-02549 AFL12008S

5962-02550 AFL12009S

5962-02551 AFL12012S

5962-02552 AFL12015S

5962-02553 AFL12028S

Pin # Designation

1 + Input

2 Input Return

3 Case Ground

4 Enable 1

5 Sync Output

6 Sync Input

7 + Output

8 Output Return

9 Return Sense

10 + Sense

11 Share

12 Enable 2

12 www.irf.com

AFL120XXS Series

Part Numbering

WORLD HEADQUARTERS: 233 Kansas St., El Segundo, California 90245, Tel: (310) 322 3331

IR SANTA CLARA: 2270 Martin Av., Santa Clara, California 95050, Tel: (408) 727-0500

Visit us at www.irf.com for sales contact information.

Data and specifications subject to change without notice. 04/2007

Notes:

 Best commercial practice

 Sample tests at low and high temperatures

 -55°C to +105°C for AHE, ATO, ATW

Device Screening

Requirement MIL-STD-883 Method No Suffix ES

HB CH

Temperature Range -20°C to +85°C -55°C to +125°C

-55°C to +125°C -55°C to +125°C

Element Evaluation MIL-PRF-38534 N/A N/A N/A Class H

Non-Destructive

Bond Pull

Internal Visual 2017

Yes Yes Yes

Temperature Cycle 1010 N/A Cond B Cond C Cond C

Constant Acceleration 2001, Y1 Axis N/A 500 Gs 3000 Gs 3000 Gs

PIND 2020 N/A N/A N/A N/A

Burn-In 1015 N/A 48 hrs@hi temp 160 hrs@125°C 160 hrs@125°C

Final Electrical MIL-PRF-38534 25°C 25°C

-55°C, +25°C, -55°C, +25°C,

( Group A ) & Specification +125°C +125°C

PDA MIL-PRF-38534 N/A N/A N/A 10%

Seal, Fine and Gross 1014 Cond A Cond A, C Cond A, C Cond A, C

Radiographic 2012 N/A N/A N/A N/A

External Visual 2009

Yes Yes Yes

N/A N/A2023 N/A N/A

AFL 120 05 S X /CH

Model

Input Voltage

28 = 28V

50 = 50V

120 = 120V

270 = 270V

Output Voltage

05 = 5V, 06 = 6V

07 = 7V, 07R5 = 7.5V

08 = 8V, 09 = 9V

12 = 12V,15 = 15V

28 = 28V

Output

S = Single

Case Style

W, X, Y, Z

Screening Level

(Please refer to Screening Table)

No suffix, ES, HB, CH