TEXAS INSTRUMENTS SLTS220 Technical data

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PT6510 Series

8-A 5-V/3.3-V Input Adjustable ISR
with Short-Circuit protection

Description

The PT6510 series of power modules
is the recommended direct replacement
for the PT6500 series in existing designs.
The modules have the same output cur­rent rating as the PT6500 series (8 A)
and were designed to be functionally iden­tical in as many aspects as possible. This
includes the input voltage range, on/off
standby control, and output voltage ad­justment.

When used as a replacement, a PT6510
series part exhibits a number of perfor­mance enhancements over its PT6500
series equivalent. These include improved
power dissipation and efficiency, signifi­cantly reduced inrush current, and better
line and load regulation.

The modules are housed in the same
14-Pin SIP (Single In-line Package), and
include the same package options.

Features

• 8-A Rated Output Current

• Replaces PT6500 Series

• High Efficiency (91% for PT6511)

• Small Footprint (0.75 in², Suffix ‘N’)

• Output On/Off Standby Control

• Output Short-Circuit Protection

• Over-Temperature Protection

• Adjustable Output Voltage

• Soft Startup

• 16-pin Mount Option (Suffixes L & F)

Ordering Information

PT6511¨ = 3.3 Volts

† PT6512¨ = 1.5 Volts

PT6513¨ = 2.5 Volts
PT6514¨ = 3.6 Volts

† PT6515¨ = 1.2 Volts
† PT6516¨ = 1.8 Volts

† 3.3V Input Bus Capable

PT Series Suffix

Case/Pin Order Package
Configuration Suffix Code *

Vertical N (EED)
Horizontal A (EEA)
SMD C (EEC)
Horizontal, Top Tab H (EEH)
SMD, 2-Pin Tab L (EEL)
SMD, 2-Pin Ext Tab F (EEF)
Vertical, Side Tab R (EEE)
Horizontal, Side Tab G (EEG)
SMD, Side Tab B (EEK)

* Previously known as package styles 400/410.

(Package availability varies with output voltage option.
Reference the applicable package code drawing for the
dimensions and PC board layout)

(PT1234x)

SLTS220 FEBRUARY 2004

Pin-Out Information

Pin Function

1Vo Sense
2 Do Not Connect
3 STBY*
4V

in

5V

in

6V

in

7 GND
8 GND

9 GND
10 GND
11 V

out

12 V

out

13 V

out

14 V

* For further information, see

application notes.

out

Adjust

Standard Application

VoADJ

V

IN

C

COM

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4,5,6

+

IN

14

PT6510

7–10

3

SENSE

V

o

1

V

11,12,13

C

OUT

OUT

+

COM

L
O
A
D

Cin= Required 330 µF electrolytic capacitor.
C

= Required 330 µF electrolytic capacitor.

out

PT6510 Series

8-A 5-V/3.3-V Input Adjustable ISR
with Short-Circuit protection

Specifications (Unless otherwise stated, T

=25 °C, Vin =5 V, Cin =330 µF, C

a

=330 µF, and Io =Iomax)

out

SLTS220 FEBRUARY 2004

PT6510 SERIES

Characteristic Symbol Conditions Min Typ Max Units

Output Current I
Input Voltage Range V

o

in

Over Vin range 0.1
Over Io Range V

≥ 2.5 V 4.5

o

≤ 1.8 V 3.1

V

o

Vo = 3.6 V 4.8

(1)

—8 A

(2)

—6

(2)

— 6 VDC

(2)

—6
Output Voltage Tolerance Vo tol Ta = –40 to +85 °C Vo – 0.1 — Vo + 0. 1 V
Line Regulation Reg
Load Regulation Reg

line

load

Efficiency η I

Vo Ripple (pk-pk) V

r

Over Vin range ±2 — ±10 mV
Over Io range ±2 — ±10 mV

=3 A Vo =3.3 V — 92 —

o

=8 A Vo =3.3 V — 91 —

I

o

Vo =2.5 V — 89 —

=1.8 V — 83 — %

V

o

=1.5 V — 80 —

V

o

Vo =1.2 V — 75 —

=2.5 V — 87 —

V

o

Vo =1.8 V — 81 — %

=1.5 V — 77 —

V

o

Vo =1.2 V — 72 —

20 MHz bandwidth — 15 — mV
Over-Current Threshold Io trip Reset, followed by auto-recovery — 15 — A
Transient Response t

Switching Frequency ƒ
On/Off Standby (Pin 3) Referenced to –Vin (pin 7)

Input High Voltage V

Input Low Voltage V

Input Low Current I

∆V

tr

tr

s

IH

IL

IL

1 A/µs load step, 50 % to 100 % Iomax — 100 — µs

Vo over/undershoot — ±150 — mV

Over Vin and Io range 475 550 725 kHz

— — Open
–0.1 — +0.4

(3)

— –0.5 – mA
Standby Input Current Iin stby Pins 3 & 7 connected — 1 5 mA
External Output Capacitance C
External Input Capacitance C
Operating Temperature Range T
Storage Temperature T

out

in

a

s

Reliability MTBF Per Bellcore TR-332

Mechanical Shock — Per Mil-Std-883D, method 2002.3,

Mechanical Vibration — Per Mil-Std-883D, method 2007.2,

Weight — Suffixes N, A, & C — 12.5 —

See application schematic 330 — 5,000
See application schematic 330

(5)

——µF
Over Vin range –40 — +85
— –40 — +125 °C

50 % stress, Ta =40 °C, ground benign

1 ms, half-sine, mounted to a fixture

20-2000 Hz

Suffixes R, G & B — 16.5 —
Suffix H — 18.5 — grams
Suffix L — 15.5 —
Suffix F — 22 —

6.4 — — 10

— 500 — G’s

—10—G’s

(4)

(6)

Flammability — Materials meet UL 94V-0

Notes: (1) The ISR will operate at no load with reduced specifications.

(2) The minimum input voltage required by the part is V
(3) The STBY* control (pin 3) has an internal pull-up and if it is left open circuit the module will operate when input power is applied. The open-circuit

voltage is the input voltage, Vin. Refer to the application notes for other interface considerations.

(4) The module requires a 330 µF output capacitor for proper operation in all applications. For transient or dynamic load applications, additional output

capacitance (Cout) may be necessary. The maximum allowable output capacitance is 5,000 µF.

(5) In addition, the input capacitance (C

application note on capacitor recommendations.

(6) See Safe Operating Area curves or contact the factory for the appropriate derating.

) must be rated for a minimum of 1.2 Arms ripple current rating. For more information consult the related

in

+ 1.2 V, or 3.1 V, whichever is greater.

out

(7) The tab pins on the 16-pin mount package types (suffix L) must be soldered. For more information see the applicable package outline drawing.

pp

V

µF

°C

6

Hrs

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PT6510 Series

)

)

)

)

)

)

Typical Characteristics

8-A 5-V/3.3-V Input Adjustable ISR
with Short-Circuit protection

Characteristic Data; Vin =5 V (See Note A) Characteristic Data; Vin =3.3 V (See Note A)

Efficiency vs Output Current Efficiency vs Output Current

100

90

80

70

Efficiency - (%)

60

50

02468

Output Ripple vs Output Current

40

30

20

Ripple Voltage - (mV)

10

I

- (A

OUT

V

OUT

3.6 V

3.3 V

2.5 V

1.8 V

1.5 V

1.2 V

V

OUT

1.8 V

2.5 V

3.3 V

1.5 V

3.6 V

1.2 V

100

90

80

70

Efficiency - (%)

60

50

02468

Output Ripple vs Output Current

40

30

20

Ripple Voltage - (mV)

10

I

- (A

OUT

SLTS220 FEBRUARY 2004

V

OUT

2.5 V

1.8 V

1.5 V

1.2 V

V

OUT

1.8 V

1.5 V

1.2 V

2.5 V

0

02468

Power Dissipation vs Output Current Power Dissipation Output Current

4

3

2

1

Power Dissipation - (W)

0

02468

I

- (A

OUT

V

OUT

1.2 V

1.5 V

1.8 V

2.5 V

3.3 V

3.6 V

I

- (A

OUT

0

02468

4

3

2

1

Power Dissipation - (W)

0

02468

I

- (A

OUT

I

- (A

OUT

V

OUT

1.2 V

1.5 V

1.8 V

2.5 V

Note A: Characteristic data has been developed from actual products tested at 25°C. This data is considered typical data for the Converter.

For technical support or further information, visit http://power.ti.com

)

)

)

PT6510 Series

Typical Characteristics

8-A 5-V/3.3-V Input Adjustable ISR
with Short-Circuit protection

in

PT6511; V

90

80

70

60

50

40

Ambient Temperature (°C)

30

20

012345678

PT6515; V

90

80

70

60

50

40

Ambient Temperature (°C)

30

20

012345678

= 3.3 V PT6515; V

OUT

I

(A

OUT

= 1.2 V

OUT

I

(A

OUT

=5 V (See Note B)

Airflow

200LFM
120LFM
60LFM
Nat Conv

Airflow

200LFM
120LFM
60LFM
Nat Conv

Safe Operating Area; 3.3 V (See Note B) Safe Operating Area; V

=1.2 V

90

80

70

60

50

40

Ambient Temperature (°C)

30

20

012345678

OUT

I

(A

OUT

SLTS220 FEBRUARY 2004

Airflow

200LFM
120LFM
60LFM
Nat Conv

Note B: SOA curves represent the conditions at which internal components are at or below the manufacturer’s maximum operating temperatures

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Application Notes

PT6510 Series

Using the PT6510 Series as a Replacement for the
PT6500 Series in Existing Designs

Scope

The PT6510 series of power modules is the recommended
plug-in replacement for PT6500 series parts. The PT6510
series uses the same single-in-line package (SIP) outlines
and footprint as the PT6500 series, and was designed to be
functionally identical to the PT6500. This application
note highlights the differences in electrical performance
between a PT6510 series replacement compared to an
original PT6500 series part.

Overview

The features that the PT6510 series share with the
PT6500 series includes the output current rating, thermal
shutdown, and on/off standby. The input voltage range,
output voltage adjustment, and output voltage options
are also the same. In addition, applications that use the
PT6510 series as a replacement will experience a number
of performance enhancements. These include improved
efficiency and power dissipation, lower in-rush current
and output ripple voltage. The ‘off’ standby current is
also significantly reduced. Table 1-1 provides a cross
reference between the current PT6500 series part num­bers and their equivalent PT6510 series part.

Table 1-1; PT6500 / PT6510 Series Equivalent Parts

PT6500 Series V

OUT

PT6510 Series

PT6501 3.3 V PT6511
PT6502 1.5 V PT6512
PT6503 2.5 V PT6513
PT6504 3.6 V PT6514
PT6505 1.2 V PT6515
PT6506 1.8 V PT6516

Electrical and Functional Differences

Although the PT6510 series was designed as a drop-in
replacement for PT6500 series, there are minor differences
in the electrical characteristics. These are described in the
following text and should be used to assess the replace­ment part’s compatibility with the system or end product.
A replacement part’s compatibility with the system can
be further verified with appropriate board-level tests.

On/Off Standby: The Standby input of the PT6510 series
is compatible with both the logic polarity and thresholds
of PT6500 series. One exception is the internal pull-up
voltage, which is slightly higher on the PT6510 parts.
The open-circuit voltage for the PT6510 series is the
input voltage, Vin, versus about 1 V for the PT6500 series.
This should not be a problem if the standby input is
controlled with an open-drain transistor with a sufficient
max-Vds rating.

Over-Current & Over-Temperature Protection:
To protect against short circuits and load impedance
faults, the PT6500 employs a constant output current
limit combined with over-temperature shutdown. The
PT6500 will feed a limited steady-state current into a
load fault. When limiting output current, the PT6500
exhibits higher power dissipation, which increases the
module's operating temperature. When its internal tem­perature rises above the over-temperature threshold, the
module will shut itself down for a few seconds. The
module will then continue to periodically shut down until
the load fault is removed.

The over-current protection mechanism of the PT6510
series is different. If the output current increases above
the modules over-current threshold, its output voltage
is momentarily turned off. It then attempts to recover
by executing a soft-start power up. The module will
continue in a rapid succession of shutdowns and restarts
until the load fault is removed. During this period the
output current is not steady state, but a series of short
high-amplitude pulses (frequency <100 Hz). However,
when operating into a short-circuit load fault, the average
output current and power dissipation are significantly
lower than under normal operation.

Power-Up Characteristic: Following the application of a
valid input source, the PT6510 series modules exhibit a
slightly longer time delay than the equivalent PT6500
series part. The PT6510 series has a soft-start power-up
feature, which lowers the in-rush current at its input.

Figure 1-1 and Figure 1-2 show the power-up charac­teristics of the PT6501 and PT6511 respectively. Both
modules have a 3.3-V regulated output, and rise to their
regulated output voltage in a similar period. Note that
the output voltage of the PT6501 begins to rise when
the input voltage reaches 2.2 V, whereas the output voltage
of the PT6511 doesn’t begin to rise until the input voltage
has reached 3.5 V.

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Application Notes

continued

PT6510 Series

Figure 1-1 PT6501 Power-Up Characteristics

HORIZ SCALE: 5 ms/Div

Vin (1 V/Div)

Vout (1 V/Div)

Figure 1-2; PT6511 Power-Up Characterstic

Vin (1 V/Div)

Vo (1 V/Div)

HORIZ SCALE: 5 ms/Div

Conclusion

The differences in electrical performance between the
PT6500 series and the PT6510 series are small. This
should result in only a few, if any, compatibility issues
when a PT6510 series part is used to replace a PT6500
series part in an existing application. In most cases, the
use of a PT6510 part will improve the performance of
the end product over the original PT6500. The perfor­mance differences are described to help customers work
through any compatibility issues, and thereby minimize
the impact to their end products. For additional infor­mation and questions call Texas Instrument's product
information center (PIC) and request application assis­tance for plug-in power products.

For technical support and further information, visit http://power.ti.com

Application Notes

PT6510 Series

Capacitor Recommendations for the PT6510 Series of

Integrated Switching Regulators

Input Capacitors:

The recommended input capacitance is determined by
330 µF minimum value (300 µF for Oscon or low-ESR
tantalum types), and 1 A minimum ripple current rating.

Ripple current and less than 100 mΩ equivalent series

resistance (ESR) are the major parameters, along with
temperature, when selecting an input capacitor. Tanta­lum capacitors have a recommended minimum voltage

rating of twice 2× (max. DC voltage + AC ripple). This

is standard practice to insure reliability.

Output Capacitors:

The ESR of the required output capacitor must not be

greater than 150 mΩ. Electrolytic capacitors have poor

ripple performance at frequencies greater than 400 kHz
but excellent low-frequency transient response. Above
the ripple frequency, ceramic capacitors are necessary to
improve the transient response and reduce any high
frequency noise components apparent during higher
current excursions. Preferred low-ESR type capacitor
part numbers are identified in Table 2-1.

Tantalum Capacitors

Tantalum type capacitors may be used for the output but
only the AVX TPS, Sprague 593D/594/595, or Kemet
T495/T510 series. These capacitors are recommended
over many other tantalum types due to their higher rated
surge, power dissipation, and ripple current capability.
As a caution the TAJ series by AVX is not recommended.
This series has considerably higher ESR, reduced power
dissipation, and lower ripple current capability. The TAJ
series is less reliable than the AVX TPS series when
determining power dissipation capability. Tantalum or
Oscon types are recommended for applications where
ambient temperatures fall below 0 °C.

Capacitor Table

Table 2-1 identifies the characteristics of capacitors from
a number of vendors with acceptable ESR and ripple
current (rms) ratings. The number of capacitors required
at both the input and output buses is identified for each
capacitor type.

This is not an extensive capacitor list. Capacitors from other
vendors are available with comparable specifications. Those listed
are for guidance. The RMS ripple current rating and ESR
(at 100 kHz) are critical parameters necessary to insure both
optimum regulator performance and long capacitor life.

Table 2-1: Suggested Input/Output Capacitors

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V01
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V01
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V01

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033Fµ

033Fµ

Fµ033

051Fµ

Fµ033
Fµ033
Fµ022

Fµ033
Fµ022

Fµ033

Fµ022

5600.0 Ω

560.0 Ω

711.0 Ω

021.0 Ω

250.0 Ω

520.0 Ω

030.0 ÷2 Ω

840.0 Ω

560.0 ÷2 Ω

640.0 Ω

340.0 Ω

560.0 Ω

051.0 Ω

520.0 Ω

520.0 Ω

420.0 ÷2 Ω

001.0 ÷2 Ω

001.0 ÷2 Ω

590.0 Ω

330.0 Ω

70.0 ÷Ω 530.0=2 Ω

540.0 Ω

560.0 Ω

N/R –Not recommended. The ripple current rating and ESR does not meet the requirements.

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For technical support or further information, visit http://power.ti.com

Application Notes

PT6510 Series

Using the Standby Function of the PT6510
Series of Integrated Switching Regulators

The PT6510 series of power modules incorporate a
Standby function. This may be used in applications that
require power-up/shutdown sequencing, and wherever
there is a requirement for the output status of the mod­ule to be controlled by external circuitry.

The standby function is provided by the STBY* control,
pin 3. If pin 3 is left open-circuit
normally, and provides a regulated output whenever a
valid supply voltage is present at applied to Vin (pins 4-6)
with respect to GND (pins 7–10). Applying a ground
signal to pin 3 disables the regulator’s output and reduces
the input current to about 1 mA 4. The standby control
may also be used to hold off the regulator output during
the period that input power is applied.

Pin 3 is ideally controlled with an open-drain discrete

1

transistor

(See Figure 3-1). It may also be driven directly
from a dedicated TTL 3 compatible gate. Table 3-1 gives
the circuit parameters for the control of this input.

Table 3-1 Standby Control Requirements

Parameter Min Typ Max

Input Low (VIL) –0.1 V 0.4 V
Input High (VIH) 2 V V
Input Low Current (IIL) –0.4 mA

Notes:

1 The standby control input is ideally controlled using an

open-drain discrete transistor. An external pull-up resistor
is not necessary. The open-circuit voltage of the STBY*
pin is the input voltage, V

2. To ensure the regulator output is disabled, the control pin

must be pulled to less than 0.4 Vdc with a low-level

0.5-mA sink to ground.

3. The STBY* input is also compatible with a differential

output from standard TTL logic, providing the IC
shares the same supply voltage as the module.

4. When the regulator output is disabled the current drawn

from the input source is typically reduced to about 1 mA.

1

the regulator operates

(2)

.

in

in

Figure 3-1

1

Vo (Sns)

V

in

COM

Inhibit

4,5,6

Vin Vo

PT6511

Vo Adj

GND

STBY

C

IN

Q1
BSS138

3

V

in

11–13

147–10

C

OUT

V

o

COM

Turn-On Time: In the circuit of Figure 3-1, turning Q1 on
applies a low voltage to the STBY control (pin 3) and
disables the regulator ouput. Correspondingly, turning

off removes the low-voltage signal and enables the

Q

1

output. Once enabled, the output will typically experience
a 10–15 ms delay followed by a predictable ramp-up of
voltage. The regulator should provide a fully regulated
output voltage within 40 ms. The waveform of Figure 3-2
shows the output voltage and input current waveforms of
a PT6511 (3.3 V) following the turn-off of Q
off of Q

corresponds to the rise in Vstby. The waveforms

1

. The turn

1

were measured with a 5 Vdc input voltage, and 4.5 A
resistive load.

Figure 3-2

Vstby (2 V/Div)

HORIZ SCALE: 2 ms/Div

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Vo (1 V/Div)

Application Notes

PT6510 Series

Adjusting the Output Voltage of the
PT6510 5V/3.3V Bus Converters

The output voltage of the PT6510 series switching regula­tors may be adjusted higher or lower than the factory
trimmed pre-set voltage with the addition of a single
external resistor. Table 4-1 gives the allowable adjust­ment range for each model in the series as Va (min) and
Va (max).

Adjust Up: An increase in the output voltage is obtained
by adding a resistor R

, between Vo Adjust (pin 14) and

2

GND (pins 7-10).

Adjust Down: Add a resistor (R
(pin 14) and V

(pins 11-13).

out

), between Vo Adjust

1

Refer to Figure 4-1 and Table 4-2 for both the placement and
value of the required resistor, either (R

) or R2 as appropriate.

1

Notes:

1. Use only a single 1 % resistor in either the (R1) or R

location. Place the resistor as close to the ISR as
possible.

2. Never connect capacitors from Vo Adjust to either

GND, V
added to the V

, or the Vo Sense pin. Any capacitance

out

Adjust pin will affect the stability of

o

the ISR.

3. If the remote sense feature is used, connecting the

resistor (R

) between Vo Adjust (pin 14) and Vo Sense

1

(pin 1) can benefit load regulation.

4. The minimum input voltage required by the part is

V

+ 1.2 or Vin(min) from Table 4-1, whichever is

out

higher.

Figure 4-1

1

Vin

4–6

V

in

STBY

+

C

in

COM

The values of (R1) [adjust down], and R2 [adjust up], can

2

also be calculated using the following formulae.

(R1) =

R

2

=

Vo(Sense)

PT6510

GND

3

Ro (Va – 1.0)

– Va)

(V

o

R

- V

V

a

11–13

V

out

(adj)

V

o

147–10

(R1)
Adj Down

R2
Adjust Up

– R

kΩ

s

o

– R

o

kΩ

s

Where: Vo= Original output voltage

Va= Adjusted output voltage

= The resistance value in Table 4-1

R

o

= The series resistance from Table 4-1

R

s

V

out

L

+

COM

O
A
D

C

out

Table 4-1

PT6510 ADJUSTMENT AND FORMULA PARAMETERS

Series Pt # PT6515 PT6512 PT6516 PT6513 PT6511 PT6514

Vo (nom) 1.2 1.5 1.8 2.5 3.3 3.6

Va (min) 1.14 1.27 1.4 1.8 2.25 2.5
Va (max) 2.35 2.65 2.95 3.5 4.2 4.3

ΩΩ

Ro (k

Ω) 2.49 2.49 2.49 4.99 12.1 10

ΩΩ

ΩΩ

Rs (k

Ω) 2 2 2 4.22 12.1 12.1

ΩΩ

Vin(min) 3.1 3.1 3.1 4.5 4.5 4.5

For technical support or further information, visit http://power.ti.com

Application Notes

continued

PT6510 Series

Table 4-2

PT6500 ADJUSTMENT RESISTOR VALUES

Series Pt # PT6515 PT6512 PT6516 PT6513 PT6511 PT6514
Vo (nom) 1.2 V 1.5 V 1.8 V 2.5 V 3.3 V 3.6 V
Va (req’d)

1.15 (5.5) kΩ

1.2

1.25 47.8 kΩ

1.3 22.9 kΩ (1.7) kΩ

1.35 14.6 kΩ (3.8) kΩ

1.4 10.5 kΩ (8.0) kΩ (0.5) kΩ

1.45 8.0 kΩ (20.4) kΩ (1.2) kΩ

1.5 6.3 kΩ (2.2) kΩ

1.55 5.1 kΩ 47.8 kΩ (3.5) kΩ

1.6 4.2 kΩ 22.9 kΩ (5.5) kΩ

1.65 3.5 kΩ 14.6 kΩ (8.8) kΩ

1.7 3.0 kΩ 10.5 kΩ (15.4) kΩ

1.75 2.5 kΩ 8.0 kΩ (35.4) kΩ

1.8 2.2 kΩ 6.3 kΩ (1.5) kΩ

1.85 1.8 kΩ 5.1 kΩ 47.8 kΩ (2.3) kΩ

1.9 1.6 kΩ 4.2 kΩ 22.9 kΩ (3.3) kΩ

1.95 1.3 kΩ 3.5 kΩ 14.6 kΩ (4.4) kΩ

2.0 1.1 kΩ 3.0 kΩ 10.5 kΩ (5.8) kΩ

2.05 0.9 kΩ 2.5 kΩ 8.0 kΩ (7.4) kΩ

2.1 0.8 kΩ 2.2 kΩ 6.3 kΩ (9.5) kΩ

2.15 0.6 kΩ 1.8 kΩ 5.1 kΩ (12.2) kΩ

2.2 0.5 kΩ 1.6 kΩ 4.2 kΩ (15.7) kΩ

2.25 0.4 kΩ 1.3 kΩ 3.5 kΩ (20.7) kΩ (2.3) kΩ

2.3 0.3 kΩ 1.1 kΩ 3.0 kΩ (28.2) kΩ (3.6) kΩ

2.35 0.2 kΩ 0.9 kΩ 2.5 kΩ (40.7) kΩ (5.1) kΩ

2.4 0.8 kΩ 2.2 kΩ (65.6) kΩ (6.7) kΩ

2.45 0.6 kΩ 1.8 kΩ (140.0) kΩ (8.5) kΩ

2.5 0.5 kΩ 1.6 kΩ (10.6) kΩ (1.5) kΩ

2.55 0.4 kΩ 1.3 kΩ 95.6 kΩ (12.9) kΩ (2.7) kΩ

2.6 0.3 kΩ 1.1 kΩ 45.7 kΩ (15.6) kΩ (3.9) kΩ

2.65 0.2 kΩ 6.9 kΩ 29.0 kΩ (18.6) kΩ (5.3) kΩ

2.7 0.8 kΩ 20.7 kΩ (22.2) kΩ (6.8) kΩ

2.75 0.6 kΩ 15.7 kΩ (26.4) kΩ (8.5) kΩ

2.8 0.5 kΩ 12.4 kΩ (31.5) kΩ (10.4) kΩ

2.85 0.4 kΩ 10.0 kΩ (37.6) kΩ (12.6) kΩ

2.9 0.3 kΩ 8.3 kΩ (45.4) kΩ (15.0) kΩ

2.95 0.2 kΩ 0.9 kΩ (55.3) kΩ (17.9) kΩ

3.0 5.8 kΩ (68.6) kΩ (21.2) kΩ

3.1 4.1 kΩ (115.0) kΩ (29.9) kΩ

3.2 2.9 kΩ (254.0) kΩ (42.9) kΩ

3.3 2.0 kΩ (64.6) kΩ

3.4 1.3 kΩ 109.0 kΩ (108.0) kΩ

3.5 0.8 kΩ 48.4 kΩ (238.0) kΩ

3.6 28.2 kΩ

3.7 18.2 kΩ 87.9 kΩ

3.8 12.1 kΩ 37.9 kΩ

3.9

4.0 5.2 kΩ 12.9 kΩ

4.1 3.0 kΩ 7.9 kΩ

4.2 1.3 kΩ 4.6 kΩ

4.3 2.2 kΩ
R1 = (Blue) R2 = Black

4/.

V

>3.8 Vdc requires Vin >5 Vdc ! 8.1 kΩ 21.2 kΩ

out

For technical support and further information, visit http://power.ti.com

MECHANICAL DATA

MPSI013 – MARCH 2001

EEA (R–PSIP–T14) PLASTIC SINGLE-IN-LINE MODULE

1.71 (43,43) MAX.

0.38 0.59

(9,65)

(14,98)

0.018 (0,45)

0.012 (0,30)

0.52

(13,20)

0.175

(4,44)

1.31

(33,27)

1

1

0.100 (2,54) TYP.

0.017 (0,43) TYP.

0.205 (5,20)

1.77 (44,95)

1.42 (36,06)

Note F

ø0.035 (0,88) MIN. 14 Places

Plated through

0.100 (2,54) 13 Places

0.235 (5,96)

1.22 (30,98)
MAX.

Note E

0.20 (5,08)

0.040

0.040 (1,01)

(1,77)0.07

(1,01)

0.42

(10,66)

MAX.

Note G

0.017 (0,43)
TYP.

0.140 (3,55)
MIN.

PC Layout

NOTES: A. All linear dimensions are in inches (mm).

B. This drawing is subject to change without notice.
C. 2-place decimals are
D. 3-place decimals are

E. Recommended mechanical keep-out area.

F. No copper, power or signal traces in this area.

" 0.030 (" 0,76 mm).

" 0.010 (" 0,25 mm).

POST OFFICE BOX 655303 • DALLAS, TEXAS 75265

4202005/A 02/01

G. D-suffix parts include a metal heat spreader.

No signal traces are allowed under the heat spreader area.
A solid copper island is recommended, which may be
grounded.
A-suffix does not include a metal heat spreader.

1

MECHANICAL DATA

MPSI014A – MARCH 2001 – REVISED FEBRUARY 2002

EEK (R–PSIP–G14) PLASTIC SINGLE-IN-LINE MODULE

0.325

(8,25)

0.52

(13,20)

0.205 (5,20)

0.350 (8,89)

0.175

(4,44)

2.36 (62,48) MAX.

2.000 (50,80)

1.71 (43,43) MAX.

0.38

(9,65)

(14,98)

1

1.77

1.42

0.59

0.100 (2,54) TYP.

0.017 (0,43) TYP.

(61,46)

2.42

2.000

(50,80)

(44,95)

(30,06)

ø0.187 (4,74)

2 Places

0.41

(10,41)

1.22 (30,98)

0.83

(21,08)

0.61 (15,49)

0.325
Note E, F

Hole for #6–32 screws

MAX.

0.19 (4,82)

(8,25)

0.080

(2,02)

MIN

0.42

(10,66)

MAX.

Suffix B

Note F

Seating Plane

0.006 (0,15) MAX.

0.10

(2,54)

0.17

(4,32)

0.150

(3,81)

NOTES: A. All linear dimensions are in inches (mm).

B. This drawing is subject to change without notice.
C.

2–place decimals are " 0.030 (" 0,76 mm).

D.

3–place decimals are " 0.010 (" 0,25 mm).

E. Recommended mechanical keep-out area.

F. The metal tab is isolated but electrically conductive.

No signal traces are allowed under the metal tab area.
A solid copper island is recommended, which may be
grounded.

Note H

Note G

0.040 (1,01) 14 Places

0.100 (2,54) 13 Places

0.235 (5,97)

0.350 (8,89)
PC LAYOUT

0.86

(21,84)

1.35

(34,29)

0.64 (16,25)

0.040 (1,01)

0°–7°

Gage Plane

G. Power pin connections should utilize two or more

vias per input, ground and output pin.

H. No copper , power or signal traces in this area.

0.017

TYP.

(0,43)

4202006/B 02/02

POST OFFICE BOX 655303 • DALLAS, TEXAS 75265

1

MECHANICAL DATA

MPSI015A – MARCH 2001 – REVISED JANUARY 2002

EEC (R–PSIP–G14) PLASTIC SINGLE-IN-LINE MODULE

0.52

(13,20)

0.175

(4,44)

1.71 (43,43) MAX.

0.38 0.59

(9,65)

1

(14,98)

0.017 (0,43) TYP.

0.205 (5,20)

1.77 (44,95)

0.100 (2,54) TYP.

1.42 (36,06)

1.22 (30,98)
MAX.

0.080 (2,02) MIN.

Note E, F

0.42

(10,66)

MAX.

Suffix E, C (Note F)

0.018 (0,45)

0.012 (0,30)

Note F

Seating Plane

0.006 (0,15) MAX.

Note H

1

0.150
(3,81)

0.235 (5,96)

NOTES: A. All linear dimensions are in inches (mm).

B. This drawing is subject to change without notice.
C.

2–place decimals are " 0.030 (" 0,76 mm).

D.

3–place decimals are " 0.010 (" 0,25 mm).

E. Recommended mechanical keep-out area.

F. E-suffix parts include a metal heat spreader.

No signal traces are allowed under the heat spreader area.
A solid copper island is recommended, which may be
grounded.
C-suffix does not include a metal heat spreader.

See Note G

0.040 (1,01) 14 Places

0.100 (2,54) 13 Places

PC LAYOUT

1.35

(34,29)

0°–7°

Gage Plane

0.10 (2,54)

0.17 (4,31)

G. Power pin connections should utilize two or more

vias per input, ground and output pin.

H. No copper , power or signal traces in this area.

0.040 (1,01)

TYP

(0,43)0.017

4202007/B 12/01

POST OFFICE BOX 655303 • DALLAS, TEXAS 75265

1

MECHANICAL DATA

MPSI016A – MARCH 2001 – REVISED FEBRUARY 2002

EEG (R–PSIP–T14) PLASTIC SINGLE-IN-LINE MODULE

0.325

(8,25)

0.52

(13,20)

0.205 (5,20)

0.350 (8,89)

0.175
(4,44)

2.36 (62,48) MAX.

2.000 (50,80)

1.71 (43,43) MAX.

0.59

(14,98)

1

2.42

2.000

1.77

1.42

0.38 (9,65)

0.100 (2,54) TYP.

0.017 (0,43) TYP.

(61,46)

(50,80)
(44,95)
(30,06)

ø0.187 (4,74)

2 Places

0.41 (10,41)

1.22 (30,98)

0.83

(21,08)

0.61

(15,49)

(8,25)

0.325
Note E, F
Hole for #6–32 screws

MAX.

0.19

(4,82)

0.040

(1,01)

0.42

(10,66)

MAX.

Suffix G

Note F

0.017

(0,43)

TYP.

0.140

(3,55)

MIN.

0.20

(5,08)

0.07

(1,77)

NOTES: A. All linear dimensions are in inches (mm).

B. This drawing is subject to change without notice.
C. 2-place decimals are
D. 3-place decimals are
E. Recommended mechanical keep-out area.

F. The metal tab is isolated but electrically conductive.

No signal traces are allowed under the metal tab area.
A solid copper island is recommended, which may be grounded.

G. No copper , power or signal traces in this area.

Note G

ø0.035 (0,88) MIN. 14 Places
Plated through

0.100 (2,54) 13 Places

0.235 (5,97)

0.350 (8,89)

PC LAYOUT

" 0.030 (" 0,76 mm).
" 0.010 (" 0,25 mm).

0.65

(16,51)

0.86

(21,84)

0.040 (1,01)

1.31

(33,27)

4202008/B 02/02

POST OFFICE BOX 655303 • DALLAS, TEXAS 75265

1

MECHANICAL DATA

MPSI017 – MARCH 2001

EED (R–PSIP–T14) PLASTIC SINGLE-IN-LINE MODULE

1.71 (43,43) MAX.

0.38 0.59

(9,65)

(14,98)

0.018 (0,45)

0.012 (0,30)

0.52

(13,20)

1

1

0.100 (2,54) TYP.

0.017 (0,43) TYP.

0.205 (5,20)

1.77 (44,95)

0.235 (5,96)

0.100 (2,54) 13 Places

ø0.035 (0,88) MIN. 14 Places

Plated through

1.22 (30,98)
MAX.

0.170 (4,31) MIN.

0.040 (1,01)

0.42

(10,66)

Note E

Note F

0.017 (0,43) TYP.

0.42

(10,66)

MAX.

PC LAYOUT

NOTES: A. All linear dimensions are in inches (mm).

B. This drawing is subject to change without notice.
C. 2-place decimals are
D. 3-place decimals are
E. Recommended mechanical keep-out area.

F. P-suffix parts include a metal heat spreader.

The heat spreader is isolated but electrically
conductive, it can be grounded.
N-suffix does not include a metal heat spreader.

" 0.030 (" 0,76 mm).
" 0.010 (" 0,25 mm).

POST OFFICE BOX 655303 • DALLAS, TEXAS 75265

4202009/A 02/01

1

MECHANICAL DATA

MPSI018A – MARCH 2001 – REVUSED FEBRUARY 2002

EEE (R–PSIP–T14) PLASTIC SINGLE-IN-LINE MODULE

Suffix R

2.36 (62,48) MAX.

2.000 (50,80)

1.71 (43,43) MAX.
ø0.187 (4,74)

2 Places

0.41 (10,41)

0.325

(8,25)

0.38 (9,65)

0.59

(14,98)

0.52

(13,20)

0.205 (5,20)

0.350 (8,89)

0.07

(1,77)

0.11

(2,79)

0.325
(8,25)

1

1

Note E

0.100 (2,54) TYP.

0.017 (0,43) TYP.

2.42 (61,46)

1.77 (44,95)

0.100 (2,54) 13 Places

0.235 (5,96)

ø0.035 (0,88) MIN. 14 Places

Plated through

PC LAYOUT

0.61

(15,49)

0.040 (1,01)

0.42

(10,66)

0.83

(21,08)

1.22 (30,98)
MAX.

0.19

(4,82)

0.170

(4,31)

MIN.

0.42

(10,66)

MAX.

Note F

0.017

(0,43)

TYP.

4202010/B 02/02

NOTES: A. All linear dimensions are in inches (mm).

B. This drawing is subject to change without notice.
C. 2-place decimals are
D. 3-place decimals are

E. Recommended mechanical keep-out area.

F. The metal tab is isolated but electrically

conductive, it can be grounded.

" 0.030 (" 0,76 mm).
" 0.010 (" 0,25 mm).

POST OFFICE BOX 655303 • DALLAS, TEXAS 75265

1

MECHANICAL DATA

MPSI019A – MARCH 2001 – REVISED FEBRUARY 2002

EEF (R–PSIP–G14) PLASTIC SINGLE-IN-LINE MODULE

0.325

(8,25)

0.87

(22,11)

0.52

(13,20)

0.205 (5,20)

0.350 (8,89)

0.175

(4,44)

2.36 (62,48) MAX.

2.000 (50,80)

1.71 (43,43) MAX.

0.38

(9,65)

1

0.59

(14,98)

2.42

2.000

1.77

1.42

0.71

(18,07)

0.100 (2,54) TYP.

0.017 (0,43) TYP.

(61,46)
(50,80)

(44,95)

(30,06)

ø0.187 (4,74)
2 Places

0.41 (10,41)

1.22 (30,98)

0.83

(21,08)

0.61

(15,49)

0.325 (8,25)

0.19 (4,82)

Note E,F
Hole for #6–32 screws

MAX.

0.040 (1,01)

0.19 (4,82)

0.210 (5,33)

0.080

(2,02)

MIN.

Gage Plane

0°–7°

0.42

(10,66)

MAX.

Suffix F

Note J

Note F

Seating Plane

0.006 (0,15) MAX.

0.040 (1,01)

0.017 (0,43) TYP.

0.10

(2,54)

0.17

(4,32)

0.150

(3,81)

NOTES: A. All linear dimensions are in inches (mm).

B. This drawing is subject to change without notice.
C. 2-place decimals are
D. 3–place decimal are
E. Recommended mechanical keep-out area.

F. The metal tab is isolated but electrically conductive.

No signal traces are allowed under the metal tab area.
A solid copper island is recommended, which may be
grounded.

G. Power pin connections should utilize two or more

vias per input, ground and output pin.

0.545

(13,84)

CtoC

L

L

Note L

Note G

0.040 (1,01) 14 Places

0.100 (2,54) 13 Places

0.235 (5,97)

0.350 (8,89)
PC LAYOUT

" 0.030 (" 0,76 mm).

" 0.010 (" 0,25 mm).

(21,84)

0.64

(16,25)

0.86

1.35

(34,29)

1.120

(28,44)

to

C

C

LL

H. Minimum copper land area required for solder tab.

Vias are recommended to improve copper adhesion
or connect land to other ground area.I

J. Underside solder tabs detail.

K. Solder mask openings to copper island for solder

joints to mechanical pins.

L. No copper, power or signal traces in this area.

0.33

(8,38)

0.280
(7,11)

0.085

(2,16)

0.080 (2,03) 2 Places
Note H

0.210

(5,33)

0.38

(9,65)

4202011/B 02/02

Note K

POST OFFICE BOX 655303 • DALLAS, TEXAS 75265

1

MECHANICAL DATA

MPSI020 – MARCH 2001

EEL (R–PSIP–G14) PLASTIC SINGLE-IN-LINE MODULE

0.87

(22,11)

0.52

(13,20)

0.205 (5,20)

0.175 (4,44)

1.71 (43,43) MAX.

0.38

(9,65)

(14,98)

1

1.42

0.59

1.77

(18,07)

0.100 (2,54) TYP.

0.017 (0,43) TYP.

(44,95)

(30,06)

0.71

1.22 (30,98)
MAX.

0.19 (4,82)

0.210 (5,33)

Note E

0.040 (1,01)

0.080 (2,02) MIN.

0°–7°

Gage Plane

Note J

0.42

(10,66)

MAX.

0.042

(1,06)

0.036(0,91)

Note F

Seating Plane

0.006 (0,15) MAX.

0.040
(1,01)

0.017

(0,43)

TYP.

0.10

(2,54)

0.17 (4,32)

0.150 (3,81)

NOTES: A. All linear dimensions are in inches (mm).

B. This drawing is subject to change without notice.

C.

2–place decimals are " 0.030 (" 0,76 mm).

D.

3–place decimals are " 0.010 (" 0,25 mm).
E. Recommended mechanical keep-out area.
F. The metal tab is isolated but electrically conductive.

No signal traces are allowed under the metal tab area.
A solid copper island is recommended, which may be
grounded.

G. Power pin connections should utilize two or more

vias per input, ground and output pin.

0.545

(13,84)

CtoC

L

L

Note L

Note G

0.035 (0,88) 14 Places

0.100 (2,54) 13 Places

0.235 (5,97)

PC LAYOUT

1.120

(28,44)

to

C

C

LL

1.35

(34,29)

0.080

0.280

0.33
(7,11)

(8,38)

0.085 (2,16)

H. Minimum copper land area required for solder tab.

Vias are recommended to improve copper adhesion
or connect land to other ground area.

J. Underside solder tabs detail

K. Solder mask openings to copper island for solder

joints to mechanical pins.

L. No copper, power or signal traces in this area.

0.210

(5,33)

0.38

(9,65)

2 Places

(2,03)

Note H

Note K

4202012/A 02/01

POST OFFICE BOX 655303 • DALLAS, TEXAS 75265

1

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