SGS Thomson Microelectronics L296-P, L296 Datasheet

L296

L296P

April1993

HIGH CURRENT SWITCHING REGULATORS

.4 A OUTPUT CURRENT

.5.1 V TO 40 V OUTPUT VOLTAGERANGE

.0 TO 100 % DUTY CYCLERANGE

.PRECISE(±2 %) ON-CHIPREFERENCE

.SWITCHINGFREQUENCYUP TO200KHz

.VERY HIGHEFFICIENCY(UPTO 90%)

.VERY FEWEXTERNAL COMPONENTS

.SOFT START

.RESETOUTPUT

.EXTERNALPROGRAMMABLE LIMITING

CURRENT (L296P)

.CONTROLCIRCUITFOR CROWBAR SCR

.INPUT FOR REMOTE INHIBIT AND

SYNCHRONUSPWM

.THERMALSHUTDOWN

DESCRIP TION

TheL296andL296Parestepdownpowerswitching
regulatorsdelivering4 Aat a voltage variablefrom

5.1 Vto40 V.
Featuresof thedevicesincludesoftstart,remotein-

hibit, thermal protection, a reset output for micro­processors and a PWM comparatorinput for syn­chronizationin multichip configurations.

TheL296Pincudesexternalprogrammablelimiting
current.

TheL296 andL296Paremountedina15-leadMul­tiwattplasticpowerpackageandrequiresveryfew
externalcomponents.

Efficient operation at switching frequencies up to
200 KHz allows a reductionin the size and costof
external filter components. A voltage sense input
and SCR drive output are provided for optional
crowbar overvoltage protection with an external
SCR.

Multiwatt



(15 lead)

ORDE RING NUM BERS :

L296 (Vertical) L296HT (Hor izontal)
L296P ( Vertical) L296PHT ( H ori zont a l)

PIN CONNE CTION (top view)

1/21

PIN FUNCTIONS

N° Name Function

1 CROWBAR INPUT Voltage Sense Input for Crowbar Overvoltage Protection. Normally connected to the

feedback input thus triggering the SCR when V

out

exceeds nominal by 20 %. May
also monitor the input and a voltage divider can be added to increase the threshold.
Connected to ground when SCR not used.

2 OUTPUT Regulator Output
3 SUPPLY VOLTAGE Unrergulated Voltage Input. An internal Regulator Powers the L296s Internal Logic.
4 CURRENT LIMIT A resistor connected between this terminal and ground sets the current limiter

threshold. If this terminal is left unconnected the threshold is internally set (see
electrical characteristics).

5 SOFT START Soft Start Time Constant. A capacitor is connected between this terminal and ground

to define the soft start time constant. This capacitor also determines the average
short circuit output current.

6 INHIBIT INPUT TTL – Level Remote Inhibit. A logic high level on this input disables the device.
7 SYNC INPUT Multiple L296s are synchronized by connecting the pin 7 inputs together and omitting

the oscillator RC network on all but one device.

8 GROUND Common Ground Terminal
9 FREQUENCY

COMPENSATION

A series RC network connected between this terminal and ground determines the
regulation loop gain characteristics.

10 FEEDBACK INPUT The Feedback Terminal on the Regulation Loop. The output is connected directly to

this terminal for 5.1V operation ; it is connected via a divider for higher voltages.

11 OSCILLATOR A parallel RC networki connected to this terminal determines the switching frequency.

This pin must be connected to pin 7 input when the internal oscillator is used.

12 RESET INPUT Input of the Reset Circuit. The threshold is roughly 5 V. It may be connected to the

feedback point or via a divider to the input.

13 RESET DELAY A capacitor connected between this terminal and ground determines the reset signal

delay time.

14 RESET OUTPUT Open collector reset signal output. This output is high when the supply is safe.
15 CROWBAR OUTPUT SCR gate drive output of the crowbar circuit.

BLOCK DIAGRAM

L296 - L296P

2/21

CIRCUIT OPERATION

(refer to the block diagram)
The L296 and L296P are monolithic stepdown

switchingregulatorsprovidingoutputvoltagesfrom

5.1Vto40Vand delivering 4A.
Theregulationloopconsistsofasawtoothoscillator,

erroramplifier,comparatorandtheoutputstage.An
error signal is produced by comparing the output
voltagewitha precise5.1Von-chipreference(zener
zaptrimmedto± 2%).Thiserrorsignalis thencom­paredwiththesawtoothsignalto generatethefixed
frequencypulsewidthmodulatedpulseswhichdrive
theoutputstage.Thegainandfrequencystabilityof
theloopcanbeadjustedbyan externalRC network
connectedtopin9.Closingtheloopdirectlygivesan
outputvoltageof5.1V.Highervoltagesareobtained
byinsertinga voltagedivider.

Outputovercurrentsat switchon are preventedby
the soft start function. The error amplifier outputis
initially clampedby the externalcapacitorCss and
allowedtorise, linearly,as thiscapacitorischarged
bya constantcurrentsource.

Outputoverloadprotectionis providedintheformof
a currentlimiter. The load currentis sensed by an
internalmetal resistor connectedto a comparator.
Whenthe load current exceedsa preset threshold
this comparator sets a flip flop which disables the
outputstageanddischargesthesoftstartcapacitor.
A second comparator resets the flip flop when the
voltageacrossthe soft startcapacitorhas fallen to

0.4V.The output stage is thus re-enabled and the
output voltage rises under control of the soft start
network.If theoverloadconditionis stillpresentthe
limiterwill triggeragainwhen the thresholdcurrent
isreached.The averageshort circuit current islim­itedtoa safe valueby the deadtimeintroduced by
the softstart network.

The reset circuit generatesan output signal when
the supply voltage exceeds a threshold pro­grammed byan externaldivider.The resetsignalis
generatedwitha delay timeprogrammedby an ex­ternal capacitor. When the supply falls below the
threshold the reset output goes low immediately.
Theresetoutputis an opencollector.

Thescrowbarcircuit sensestheoutput voltageand
the crowbaroutputcan providea currentof 100mA
toswitchon anexternalSCR. ThisSCRis triggered
when the output voltage exceeds the nominal by
20%. There is no internalconnection between the
outputandcrowbarsense inputthereforethe crow­bar canmonitor eitherthe input or the output.

ATTL-levelinhibitinputisprovidedforapplications
suchasremoteon/offcontrol.Thisinputisactivated
byhigh logiclevelanddisablescircuitoperation.Af­ter an inhibit the L296 restartsunder controlof the
soft startnetwork.

Thethermaloverloadcircuit disablescircuit opera­tion when the junctiontemperaturereachesabout
150 °Candhas hysteresisto preventunstablecon-
ditions.

Figure 1 : ResetOutput Waveforms

L296 - L296P

3/21

Figure 2 : SoftStartWaveforms

Figure 3 : CurrentLimiter Waveforms

ABSOLUTE MAXIMUM RATINGS

Symbol Parameter Value Unit

V

i

Input Voltage (pin 3) 50 V

V

i–V2

Input to Output Voltage Difference 50 V

V

2

Output DC Voltage
Output Peak Voltage at t = 0.1 µsec f = 200KHz

–1

–7

V
V

V

1,V12

Voltage at Pins 1, 12 10 V

V

15

Voltage at Pin 15 15 V

V

4,V5,V7,V9,V13

Voltage at Pins 4, 5, 7, 9 and 13 5.5 V

V

10,V6

Voltage at Pins 10 and 6 7 V

V

14

Voltage at Pin 14 (I14≤ 1 mA) V

i

I

9

Pin 9 Sink Current 1 mA

I

11

Pin 11 Source Current 20 mA

I

14

Pin 14 Sink Current (V14< 5 V) 50 mA

P

tot

Power Dissipation at T

case

≤ 90 °C20W

T

j

,T

stg

Junction and Storage Temperature – 40 to 150 °C

L296 - L296P

4/21

THERMAL DATA

Symbol Parameter Value Unit

R

th j-case

Thermal Resistance Junction-case Max. 3 °C/W

R

th j-amb

Thermal Resistance Junction-ambient Max. 35 °C/W

ELECTRICAL CHARACTERISTICS

(refer to the test circuits T

j

=25oC, Vi= 35V, unless otherwise specified)

Symbol Parameter Test Conditions Min. Typ. Max. Unit Fig.

DYNAMIC CHARACTERISTICS (pin 6 to GND unless otherwise specified)

V

o

Output Voltage Range Vi= 46V, Io=1A V

ref

40 V 4

V

i

Input Voltage Range Vo=V

ref

to 36V, Io≤ 3A 9 46 V 4

V

i

Input Voltage Range Note (1), Vo=V

REF

to 36V Io=4A 46 V 4

∆V

o

Line Regulation Vi=10V to 40V, Vo=V

ref,Io

=2A 15 50 mV 4

∆V

o

Load Regulation Vo=V

ref

Io=2Ato4A
I

o

= 0.5A to 4A

101530

45

mV 4

V

ref

Internal Reference Voltage (pin 10) Vi= 9V to 46V, Io= 2A 5 5.1 5.2 V 4

∆ V

ref

∆ T

Average Temperature Coefficient
of Reference Voltage

T

j

=0°C to 125°C, Io= 2A 0.4 mV/°C

V

d

Dropout Voltage Between Pin 2
and Pin 3

Io=4A
I

o

=2A

2

1.3

3.2

2.1

V
V

4
4

I

2L

Current Limiting Threshold (pin 2) L296 - Pin 4 Open,

V

i

= 9V to 40V, Vo=V

ref

to 36V

4.5 7.5 A 4

L296P - V

i

= 9V to 40V, Vo=V

ref

Pin 4 Open
R

Iim

= 22kΩ

5

2.5

7

4.5

A4

I

SH

Input Average Current Vi= 46V, Output Short-circuited 60 100 mA 4

η Efficiency I

o

=3A

V

o=Vref

Vo= 12V

75
85

%4

SVR Supply Voltage Ripple Rejection ∆V

i

=2V

rms,fripple

= 100Hz

V

o=Vref,Io

=2A

50 56 dB 4

f Switching Frequency 85 100 115 kHz 4

∆ f

∆ V

i

Voltage Stability of Switching
Frequency

Vi= 9V to 46V 0.5 % 4

∆ f

∆ T

j

Temperature Stability of Switching
Frequency

Tj=0°C to 125°C1%4

f

max

Maximum Operating Switching
Frequency

Vo=V

ref,Io

= 1A 200 kHz –

T

sd

Thermal Shutdown Junction
Temperature

Note (2) 135 145 °C–

DC CHARACTERISTICS

I

3Q

Quiescent Drain Current Vi= 46V, V7= 0V, S1 : B, S2 : B

V

6

=0V

V

6

=3V

66
30

85
40

mA

–I

2L

Output Leakage Current Vi= 46V, V6= 3V, S1 : B, S2 : A,

V

7

=0V

2mA

Note (1) : Using min. 7 A schottky diode.

(2) :Guaranteed by design,not 100% tested inproduction.

L296 - L296P

5/21

ELECTRICAL CHARACTERISTICS (continued)

Symbol Parameter Test Conditions Min. Typ. Max. Unit Fig.

SOFT START

I

5so

Source Current V6= 0V, V5= 3V 80 130 150 µA6b

I

5si

Sink Current V6= 3V, V5= 3V 50 70 120 µA6b

INHIBIT

V

6L

V

6H

Input Voltage

Low Level
High Level

V

i

= 9V to 46V, V7= 0V,

S1 : B, S2 : B – 0.3

2

0.8

5.5

V6a

–I

6L

–I

6H

Input Current
with Input Voltage

Low Level
High Level

V

i

= 9V to 46V, V7= 0V,

S1 : B, S2 : B

V

6

= 0.8V

V

6

=2V

10

3

µA6a

ERROR AMPLIFIER

V

9H

High Level Output Voltage V10= 4.7V, I9= 100µA,

S1 : A, S2 : A

3.5 V 6c

V

9L

Low Level Output Voltage V10= 5.3V, I9= 100µA,

S1 : A, S2 : E

0.5 V 6c

I

9si

Sink Output Current V10= 5.3V, S1 : A, S2 : B 100 150 µA6c

–I

9so

Source Output Current V10= 4.7V, S1 : A, S2 : D 100 150 µA6c

I

10

Input Bias Current V10= 5.2V, S1 : B

V

10

= 6.4V, S1 : B, L296P

2
2

10
10

µAµA6c

6c

G

v

DC Open Loop Gain V9= 1V to 3V, S1 : A, S2 : C 46 55 dB 6c

OSCILLATOR AND PWM COMPARATOR

–I

7

Input Bias Current of
PWM Comparator

V7= 0.5V to 3.5V 5 µA6a

–I

11

Oscillator Source Current V11= 2V, S1 : A, S2 : B 5 mA

RESET

V

12 R

Rising Threshold Voltage

V

i

= 9V to 46V,

S1 : B, S2 : B

V

ref

-150mV

V

ref

-100mV

V

ref

-50mV

V6d

V

12 F

Falling Threshold Voltage 4.75 V

ref

-150mV

V

ref

-100mV

V6d

V

13 D

Delay Thershold Voltage

V

12

= 5.3V, S1 : A, S2 : B

4.3 4.5 4.7 V 6d

V

13 H

Delay Threshold Voltage
Hysteresis

100 mV 6d

V

14 S

Output Saturation Voltage I14= 16mA, V12= 4.7V, S1, S2 : B 0.4 V 6d

I

12

Input Bias Current V12=0VtoV

ref

,S1:B,S2:B 1 3 µA6d

–I

13 so

I

13 si

Delay Source Current
Delay Sink Current

V

13

= 3V, S1 : A, S2 : B

V

12

= 5.3V

V

12

= 4.7V

70
10

110 140 µA

mA

6d

I

14

Output Leakage Current Vi= 46V, V12= 5.3V, S1 : B, S2 : A 100 µA6d

CROWBAR

V

1

Input Threshold Voltage S1 : B 5.5 6 6.4 V 6b

V

15

Output Saturation Voltage Vi= 9V to 46V, Vi= 5.4V,

I

15

= 5mA, S1 : A

0.2 0.4 V 6b

I

1

Input Bias Current V1= 6V, S1 : B 10 µA6b

–I

15

Output Source Current Vi= 9V to 46V, V1= 6.5V,

V

15

= 2V, S1 : B

70 100 mA 6b

L296 - L296P

6/21

Figure 4 : DynamicTest Circuit

C7,C8 : EKR(ROE)
L1 :L = 300 µH at8 A Coretype : MAGNETICS 58930 - A2 MPP

N°turns : 43 Wire Gauge :1 mm (18 AWG) COGEMA 946044

(*) Minimumsuggested value(10 µF) to avoid oscillations.Ripple consideration leads to typicalvalueof 1000 µF or higher.

Figure 5 : PC.Board and Component Layoutof the Circuit of Figure 4 (1:1scale)

L296 - L296P

7/21

Figure 6 : DCTestCircuits.
Figure 6a. Figure6b.

Figure 6c.

Figure 6d.

1 -Set V10FORV9=1V
2 -ChangeV

10

to obtain V9=3V

3-G

V

=

DV

9

=

2V

∆V

10

∆V

10

L296 - L296P

8/21

Figure 7 : QuienscentDrainCurrent vs. Supply

Voltage(0 %DutyCycle - see fig.6a).

Figure8 : QuienscentDrain Current vs.Supply

Voltage(100 % Duty Cycleseefig. 6a).

Figure 9 : QuiescentDrain Currentvs. Junction

Temperature(0 % DutyCycle -

seefig. 6a).

Figure10 : QuiescentDrain Current vs.Junction

Temperature(100 % Duty Cycle ­see fig. 6a).

Figure 11 : ReferenceVoltage(pin 10) vs. V

I

(seefig. 4).

Figure12: ReferenceVoltage(pin10)vs.Junction

Temperature(see fig. 4).

L296 - L296P

9/21

Figure 13 : Open LoopFrequencyand Phase

Responseof Error Amplifier
(seefig.6c).

Figure14 : SwitchingFrequencyvs. Input

Voltage(seefig.4).

Figure15 : SwitchingFrequency vs.Junction

Temperature(see fig. 4).

Figure 16 : SwitchingFrequencyvs. R1

(seefig.4).

Figure17 : LineTransientResponse(see fig. 4). Figure 18 : Load Transient Response(see fig.4).

L296 - L296P

10/21

Figure 19 : Supply Voltage Ripple Rejectionvs.

Frequency(seefig.4).

Figure20 : DropoutVoltageBetweenPin3 and

Pin2 vs. Current at Pin2.

Figure 21 : DropoutVoltage BetweenPin 3 and

Pin2 vs. Junction Temperature.

Figure22 : Power DissipationDerating Curve.

Figure 23 : Power Dissipation(device only)vs.

Input Voltage.

Figure24 : Power Dissipation(device only)vs.

Inputvoltage.

L296 - L296P

11/21

Figure 25 : Power Dissipation(device only)vs.

OutputVoltage(seefig. 4).

Figure26 : Power Dissipation(device only)vs.

OutputVoltage(see fig. 4).

Figure28 : Efficiencyvs.OutputCurrent.

Figure 29 : Efficiencyvs. OutputVoltage. Figure30 : Efficiencyvs.OutputVoltage.

Figure27: VoltageandCurrentWaveformsatPin2

(seefig. 4).

L296 - L296P

12/21

Figure 31 : CurrentLimitingThresholdvs. R

pin 4

(L296Ponly).

Figure32 : Current LimitingThresholdvs.Junction

Temperature.

Figure 33 : CurrentLimitingThresholdvs.

SupplyVoltage.

L296 - L296P

13/21

APPLICATION INFORMATION
Figure 34 : TypicalApplicationCircuit.

(*) Minimum value (10 µF) to avoidoscillations ; rippleconsideration leads to typicalvalue of1000µF orhigher L1 : 58930 - MPP COGEMA

946044 ; GUP 20 COGEMA 946045

SUGGESTEDINDUCTOR (L1)

Core Type No Turns Wire Gauge Air Gap

Magnetics 58930 – A2MPP 43 1.0 mm –
Thomson GUP 20 x 16 x 7 65 0.8 mm 1 mm
Siemens EC 35/17/10 (B6633& – G0500 – X127) 40 2 x 0.8 mm –
VOGT 250 µH Toroidal Coil, Part Number 5730501800

Resistor Values for Standard Output Voltages

V

0

R8 R7

12 V
15 V
18 V
24 V

4.7 KΩ

4.7 KΩ

4.7 KΩ

4.7 KΩ

6.2 KΩ

9.1 KΩ
12 KΩ
18 KΩ

L296 - L296P

14/21

Figure 35 : P.C. Boardand Component Layoutof the Circuit of fig. 34 (1:1scale)

SELECTIONOF COMPONENT VALUES (see fig. 34)

Component

Recommended

Value

Purpose

Allowed Rage

Notes

Min. Max.

R1
R2

–

100 kΩ

Set Input Voltage
Threshold for Reset.

–

220kΩ

R1/R2

V

i min

5

− 1

If output voltage is sensed R1 and
R2 may be limited and pin 12

connected to pin 10.
R3 4.3 kΩ Sets Switching Frequency 1 kΩ 100kΩ
R4 10 kΩ Pull-down Resistor 22kΩ May be omitted and pin 6 grounded

if inhibit not used.
R5 15 kΩ Frequency Compensation 10kΩ
R6 Collector Load For Reset

Output

V

O

0.05A

Omitted if reset function not used.

R7
R8

–

4.7 kΩ

Divider to Set Output
Voltage

–
–

–

1kΩ

R7/R8 =

V

O

− V

REF

V

REF

-

R

iim

– Sets Current Limit Level 7.5kΩ If R

iim

is omitted and pin 4 left open

the current limit is internally fixed.
C1 10 µF Stability 2.2µF
C2 2.2 µF Sets Reset Delay – – Omitted if reset function not used.
C3 2.2 nF Sets Switching Frequency 1 nF 3.3nF
C4 2.2 µF Soft Start 1 µF – Also determines average short

circuit current.
C5 33 nF Frequency Compensation
C6 390 pF High Frequency

Compensation

– – Not required for 5 V operation.

C7, C8

L1

100 µF
300 µH

Output Filter –

100µH

–

Q1 Crowbar Protection The SCR must be able to withstand

the peak discharge current of the

output capacitor and the short

circuit current of the device.
D1 Recirculation Diode 7A Schottky or 35 ns t

rr

Diode.

L296 - L296P

15/21

Figure 36 : A Minimal5.1V FixedRegulator.VeryFew Componentsare Required.

Figure 37 : 12 V/10 A Power Supply.

L296 - L296P

16/21

Figure38 : ProgrammablePowerSupply.

Vo= 5.1 to 15 V
I

o

= 4 A max. (min.load current= 100mA)
ripple≤ 20mV
loadregulation (1A to 4 A) = 10 mV (V

o

=5.1V)

lineregulation (220V ± 15% and to I

o

= 3A)= 15 mV(Vo= 5.1 V)

Figure 39 : PreregulatorforDistributedSupplies.

(*)L2 and C2are necessary to reducethe switching frequency spikes.

L296 - L296P

17/21

Figure 40 : In Multiple SuppliesSeveralL296s

canbe SynchronizedAs Shown.

Figure41 : VoltageSensingforRemoteLoad.

Figure 42 : A 5.1V/15 V/24 V Multiple Supply.Note the Synchronizationof the ThreeL296s.

L296 - L296P

18/21

Figure 43 : 5.1V/2APower SupplyusingExternal

Limiting CurrentResistorandCrow­bar ProtectionontheSupply Voltage
(L296Ponly)

SOFT-START AND REPETITIVEPOWER-ON

Whenthedeviceisrepetitivelypowered-on,thesoft­startcapacitor, C

SS

, must be dischargedrapidly to
ensurethateachstartis”soft”.Thiscanbeachieved
economicallyusingtheresetcircuit,asshowninFig­ure44.

In thiscircuit thedividerR1, R2connectedto pin 12
determines the minimum supply voltage, below
which theopencollectortransistoratthepin14out­put dischargesC

SS

.

Figure 44

Figure45

Figure46

Theapproximatedischargetimesobtainedwith this
circuit are :

CSS (µF) tDIS (µs)

2.2

4.7
10

200
300
600

Ifthesetimesarestilltoolong,anexternalPNPtran-

sistor may be added, as shownin Figure45 ; with
this circuit discharge times of a few microseconds
may be obtained.

HOW TO OBTAIN BOTH RESET AND
POWER FAIL

Figure46illustrateshowitispossibleto obtainatthe
same time both the power fail and reset functions
simply byaddingonediode(D) andoneresistor(R).

In this case the Reset delay time (pin 13) canonly
start whentheoutputvoltageis V

O

≥ V

REF

- 100mV

and thevoltageaccrossR2 is higherthan 4.5V.
Withthehysteresisresistoritispossibletofixthein-

put pin 12 hysteresisin order to increaseimmunity
to the 100Hzripple present onthe supplyvoltage.

Moreover,the power fail and reset delay time are
automaticallylockedtothesoft-start.Soft-startand
delayedreset are thustwo sequentialfunctions.

The hysteresis resistor should be In the range of
aboit 100kΩ andthe pull-up resistor of 1 to 2.2kΩ.

L296 - L296P

19/21

PMMUL15V.EPS

MULTIWATT15 VERTICALPACKAGE MECHANICAL DATA

Dimensions

Millimeters Inches

Min. Typ. Max. Min. Typ. Max.

A 5 0.197
B 2.65 0.104
C 1.6 0.063
D 1 0.039
E 0.49 0.55 0.019 0.022

F 0.66 0.75 0.026 0.030

G 1.14 1.27 1.4 0.045 0.050 0.055
G1 17.57 17.78 17.91 0.692 0.700 0.705
H1 19.6 0.772
H2 20.2 0.795

L 22.1 22.6 0.870 0.890
L1 22 22.5 0.866 0.886
L2 17.65 18.1 0.695 0.713
L3 17.25 17.5 17.75 0.679 0.689 0.699
L4 10.3 10.7 10.9 0.406 0.421 0.429
L7 2.65 2.9 0.104 0.114

M 4.2 4.3 4.6 0.165 0.169 0.181

M1 4.5 5.08 5.3 0.177 0.200 0.209

S 1.9 2.6 0.075 0.102

S1 1.9 2.6 0.075 0.102

Dia. 1 3.65 3.85 0.144 0.152

MUL15V.TBL

L296 - L296P

20/21

Information furnished is believed to be accurate and reliable. However, SGS-THOMSON Microelectronics assumes no responsibility for
the consequences of use of such information nor for any infringement of patents or other rights of third parties which may result from its
use. No license is granted by implication or otherwise under any patent or patent rights of SGS-THOMSON Microelectronics. Specifica­tions mentioned in this publication are subject to change without notice. This publication supersedes and replaces all information pre­viously supplied. SGS-THOMSON Microelectronics products are not authorized for use as critical components in life support devices or
systems without express written approval of SGS-THOMSON Microelectronics.

 1994 SGS-THOMSON Microelectronics - All Rights Reserved

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L296 - L296P

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