MPD2T28125-700-W - Aeroflex / Metelics

Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

PIN Diode Driver (Positive Voltage)

MPD2T28125-700 Series Datasheet

Description

The MPD2T28125-700 Surface Mount PIN Diode Driver is designed to provide high voltage and high

current bias signals to high power PIN diode single pole double throw (SPDT or SP2T) switches. This PIN

diode driver is intended to operate with Aeroflex / Metelics MSW2000, MSW2010, MSW2030, MSW2040

and MSW2050 series of surface mount, high power SP2T transmit-receive and symmetrical switches, as

well as with switch designs employing discrete PIN diodes. The driver operates with positive supply volt-

ages only.

This driver can supply voltages from 10 V to 125 V for reverse biasing switching PIN diodes to enable

PIN diode switches, such as those described above, to handle up to 100 W CW RF signals. The

MPD2T28125-700 driver can source current up to 200 mA to enable PIN diode switches to produce low

insertion loss and high isolation. The driver can be controlled via one or two TTL-compatible control

ports. Two complementary outputs are available which can drive the four bias ports which are required

for a typical SP2T PIN diode switch which employs the series-shunt topology, or for asymmetrical switch

designs. Switching time is approximately 1 μs.

The PIN driver is available in a 1.3 (W) x 1.3 (L) x 0.33 (H) inches (33 x 33 x 8.4 mm) surface mount

package. The device is available in tube and tape-reel packaging for high volume pick and place

automated assembly. It is RoHS compliant.

Applications

The MPD2T28125-700 Switch Driver is designed to provide high voltage and high current bias to high

power PIN diode SP2T switches. This driver is compatible with high volume, surface mount, solder reflow

manufacturing. The product is durable, reliable, and capable of operating reliably in military, commercial

and industrial environments.

Environmental Capabilities

The MPD2T28125-700 Switch Driver is capable of meeting the environmental requirements of

MIL-STD-202 and MIL-STD-750.

ESD and Moisture Sensitivity Level Rating

All semiconductor devices are susceptible to damage from ESD events. Proper precautions must be

taken to protect this product from such events. The ESD rating for this device is Class 1A, HBM. The

moisture sensitivity level rating for this device is MSL 1.

Features

• High Output Voltage and High Output Current

PIN Diode Driver in Surface Mount Package

• Usable with MSW2000, 2010, 2030, 2040 and 2050 Series

T-R and Symmetrical High Power SP2T Switches.

• Operates from Positive Voltage Only: +5 V and +28 V to +125 V

• High Output Currents ( 200 mA ) for Low Switch Loss

and High Isolation

• Single or Separate TTL Input Controls, 2 Outputs

• RoHS Complaint

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Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

MPD2T28125-700 Electrical Specifications

TA= +25 ºC (Unless Otherwise Defined)

MPD2T28125-700

PIN Diode Driver

Notes:

1. Switching time is measured using the Aeroflex / Metelics MSW2031-203 Symmetrical SP2T switch,

fRF = 500 MHz, +VCC1 = 5 V and +VCC2 = 50 V in the commutating switching mode.

Block Diagram

Parameter Symbol Test Conditions Minimum

Value

Typical

Value

Maximum

Value Unit

Operating

Frequency PRF +VCC1 = 5 V, +VCC2 = 28 V to 125 V 0100 500 kHz

Supply Voltage 1 +VCC1 4.5 5 5.5 V

Supply Voltage 2 +VCC2 10 28 125 V

Quiescent

Current, +VCC1 IQ1 +VCC1 = 5 V, +VCC2 = 28 V to 125 V,

no load connected to Output A and Output B 510 20 mA

Quiescent

Current, +VCC2 IQ2 +VCC1 = 5 V, +VCC2 = 28 V to 125 V,

no load connected to Output A and Output B 30 40 50 mA

TTL Input Voltage VTTL Logic 0: sink current = 20 μA

Logic 1: source current = 500 μA

0.8

5.0 V

Low Level Output

Voltage, Output A

or Output B

VOUTL

+VCC1 = 5 V, +VCC2 = 28 V to 125 V,

sink current = 200 mA 0.05 0.1 0.2 V

High Level Output

Voltage, Output A

or Output B

VOUTH

+VCC1 = 5 V, +VCC2 = 28 V to 125 V,

source current = 20 mA +VCC2 -1 +VCC2

- 0.3

+VCC2 -

0.1 V

Switching Time

(Note 1)

TON

TOFF

VCC1 = 5 V, +VCC2 = 28 V to 125 V,

f = 10 kHz, 50% TTL to 10% or 90%

RF output voltage

1.5 2μs

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Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

MPD2T28125-700

PIN Diode Driver

$5;

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CTL 1

Output A

CTL 2

CTL 0

Output BVCC2

VCC1

GND

Top View

Pin 1 Pin 5

Absolute Maximum Ratings Specifications

TA = 25 °C (unless otherwise noted)

Parameter Conditions Absolute Maximum Value

Input Voltage, +VCC 1 -0.5 V to 6.0 V

Input Voltage, +VCC 2 -0.5 V to 130 V

Control Port Input Voltage -0.5 V to 5.5 V

Output Sink Current VOUT = 0 V 200 mA

Output Source Current VOUT ≈+VCC2 V25 mA

Operating Temperature - 65 ºC to 125 ºC

Storage Temperature - 65 ºC to 150 ºC

Junction Temperature 175 ºC

Assembly Temperature t ≤10 s 260 ºC

Total Dissipated Power TCASE = 85 ºC 2.0 W

Pin Pin Name Input/Output

(I/O) Description

1 CTL1 I TTL control input to driver section A

2GND +VCC1 & +VCC2 ground return

3 CTL2 I TTL control input to driver section A

4 CTL0 O

Complement of control signal applied to CTL1. May be

connected to CTL2 for single control port operation via

CTL1.

5GND +VCC1 & +VCC2 ground return

6Output A OBias voltage/current output from driver section A

7GND +VCC1 & +VCC2 ground return

8Output B OBias voltage/current output from driver section B

9GND +VCC1 & +VCC2 ground return

10 GND +VCC1 & +VCC2 ground return

11 GND +VCC1 & +VCC2 ground return

12 GND +VCC1 & +VCC2 ground return

13 +VCC2 IHigh voltage (28 V to 125 V) input

14 GND +VCC1 & +VCC2 ground return

15 +VCC1 I5 V supply voltage input

16 GND +VCC1 & +VCC2 ground return

Pinout & Pin Description

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Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

MPD2T28125-700

PIN Diode Driver

Truth Table

CTL1

(notes 1, 2)

CTL2

(notes 1, 2) Output A Output B

VHIGH VLOW VOUT = 0 V, current sinking mode VOUT ≈+VCC2, current sourcing mode

VLOW VHIGH VOUT ≈+VCC2, current sourcing mode VOUT = 0 V, current sinking mode

VHIGH VHIGH Not recommended (note 3)

VLOW VLOW Not recommended (note 3)

Notes:

1. 2 V ≤VHIGH ≤5 V

2. 0 V ≤VLOW ≤0.8 V

3. Operation in these modes may not be compatible with the design of the PIN switch being controlled.

Applications

The MPD2T28125-700 Surface Mount PIN Diode Driver

is optimized for use with Aeroflex Metelics families of

SP2T switches. It can also be used to control other PIN

diode SPST or SP2T switches. The driver comprises two

driver sections, each of which is capable of providing

either a forward-bias current or a reverse-bias, high volt-

age to a PIN diode, depending upon the TTL-compatible

control voltage applied to its control port. Each section

of the driver has a dedicated control port, so these

sections are controlled and may be operated independ-

ently. In typical applications the control inputs and con-

sequently their driver section outputs are complements of

each other. Provisions are also made to enable single

control signal operation by externally connecting CTL0 to

CTL2.

The driver evaluation board includes a parallel R-C

network on the output of each driver section (R1-C3 on

the Driver A output, R2–C4 on the Driver B output). Each

network produces a current spike on the transitions of

the driver state, which rapidly extracts stored charge from

PIN diodes which are being forced from the conduction

to the non-conduction state, as well as to rapidly inject

charge into PIN diodes which are being forced from the

non-conduction to the conduction state. These current

spikes accelerate the transition of the switch from one

state to the other.

Control of Symmetrical SP2T Switch

The MPD2T28125-700 is fully capable of controlling a

SP2T switch comprising a series-shunt topology. Each

driver section is connected to bias a series diode on one

side of the switch and the shunt diode on the opposite

side of the switch. For example, in the configuration

described below for the control of a symmetrical SP2T

switch, Driver Section A biases the series diode connect-

ed between switch ports J0 and J1, as well as the shunt

diode connected between switch ports J2 and B2. Driver

Section B is connected to control the remaining two

diodes.

A typical symmetric switch/driver application circuit is

shown below. In this circuit, the MPD2T28125-700

driver is used to control the Aeroflex / Metelics

MSW2031-203 symmetrical SP2T switch. The switch may

be controlled to one of two operational states, which are

called State 1 and State 2. In the descriptions of States 1

and 2 (below), it is assumed that +VCC1 = 5 V and

+VCC2 = 28 V.

State 1

In State 1, the series PIN diode between the J0 and J1

ports is forward biased by applying 0 V to the J1 bias

input port (P1-J1). The magnitude of the resultant bias

current through the diode is primarily determined by the

voltage applied to the J0 bias port (P1-J0), the magnitude

of the forward voltage across the PIN diode and the

resistance of R1. This current is nominally 100 mA. At

the same time, the PIN diode connected between J2 and

B2 ports is also forward biased by applying a high bias

voltage, nominally 28 V, to the J2 bias port (P1-J2) and 0

V to the B2 bias port (P1-B2). Under this condition, the

PIN diode connected between the J0 and J2 ports is

reverse biased and the PIN diode connected between

the J2 and B2 ports is forward biased. The magnitude of

the bias current through this diode is primarily

determined by the voltage applied to the J2 bias port, the

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Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

MPD2T28125-700

PIN Diode Driver

CTL1

(note 2)

CTL2

(notes 1, 2) RF State Path

J0 to J1

Path

J0 to J2

Output A Output B

J1 Bias B2 Bias J2 Bias B1 Bias

VHIGH VLOW 1Low Loss High Isolation 0 V

-100 mA

0 V

-25 mA

27 V

25 mA

27 V

0 mA

VLOW VHIGH 2High Isolation Low Loss 27 V

25 mA

27 V

0 mA

0 V

-100 mA

0 V

-25 mA

Truth Table for Control of Symmetrical SP2T Switch, MSW2030-203

+VCC1 = 5 V and +VCC2 = 28 V (Unless otherwise noted)

Notes:

1. All other combinations not recommended.

2. For single control, connect CTL0 to CTL2 and apply control signal to CTL1 only.

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Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

MPD2T28125-700

PIN Diode Driver

magnitude of the forward voltage across the PIN diode

and the resistance of R4. This current is nominally 25

mA.

The series PIN diode which is connected between the J0

and J2 ports must be reverse biased during State 1. The

reverse bias voltage must be sufficiently large to maintain

the diode in its non-conducting, high impedance state

when a large RF signal voltage may be present in the J0-

to-J1 path. The reverse voltage across this diode is the

arithmetic difference of the bias voltage applied to the J2

bias port and the DC forward voltage of the forward-

biased J0-to-J1 series PIN diode.

The minimum voltage required to maintain the series

diode between J0 and J2 out of conduction is a function

of the magnitude of the RF voltage present, the standing

wave present at the series diode’s anode, the frequency

of the RF signal and the characteristics of the series

diode, among other factors. Minimum control voltages

for several signal frequencies are shown in the table

“Minimum Reverse Bias Voltage”, assuming the input

power to the J0 or J1 port to be 100 W CW and the VSWR

on the J0-J1 path to be 1.5:1. For other conditions,

please contact the Aeroflex Metelics applications engi-

neering team for assistance in determining the required

bias voltage.

State 2

In State 2, the series PIN diode between the J0 and J2

ports is forward biased by applying 0 V to the J2 bias

input port (P1-J2). The magnitude of the resultant bias

current through the diode is primarily determined by the

voltage applied to the J0 bias port (P1-J0), the magnitude

of the forward voltage across the PIN diode and the

resistance of R1. This current is nominally 100 mA. At

the same time, the PIN diode connected between J2 and

B2 ports is reverse biased by applying a high bias voltage,

nominally 28 V, to the B2 bias port (P1-B2). A high volt-

age, nominally 28 V, is also applied to the J1 bias port

(P1-J1). Under this condition, the PIN diode connected

between the J0 and J1 ports is reverse biased thus

isolating the J1 RF port from the RF signal path between

J0 and J2. The reverse voltage across this diode is the

arithmetic difference of the bias voltage applied to the J1

bias port and the DC forward voltage of the

forward-biased J0-to-J2 series PIN diode. As described

above, the minimum voltage required to maintain the

series diode on the J0-to-J1 side of the switch out of

conduction is a function of the magnitude of the RF

voltage present, the standing wave present at the diode’s

anode, the frequency of the RF signal and the character-

istics of the series diode, among other factors.

Calculation of Resistor Values

The magnitude of the forward bias current applied to the

series diode is set by the magnitude of the supply voltage

+VCC1, which is nominally 5 V, the value of resistor R1

and the forward voltage of the series diode, VDIODE,

among other factors. Given the desired current value, the

resistance is given by the formula:

The magnitude of the current through the shunt diode is

set by the magnitude of the supply voltage +VCC2, the

value of resistor in series with the shunt diode (R2 or R4)

and the forward voltage of the shunt diode, VDIODE,

among other factors. Given the desired current value,

this resistance is given by the formula:

Single Control Operation

The logic level available at output CTL0 is the comple-

ment of the control voltage applied to input CTL1. For

single control operation via input CTL1, connect CTL0

directly to control input CTL2.

Control of Asymmetrical SP2T Switch

The MPD2T28125-700 can control an SP2T T/R switch

comprising a series diode on the Transmit (Tx) side of the

switch and a series shunt topology on the Receive (Rx)

side of the switch. Each driver section is connected to

bias a series diode on one side of the switch. The output

of Driver Section A, which controls the series diode on

the Tx side of the switch, also controls the shunt diode on

the Rx side of the switch. Driver Section B controls the

series diode on the Rx side of the switch only.

A typical asymmetric switch/driver application circuit is

shown below. In this circuit, the MPD2T28125-700

driver is used to control the Aeroflex / Metelics

MSW2000-200 asymmetrical SP2T switch. The switch

may be controlled to one of two operational states, which

are called Transmit State and Receive State. In the

descriptions of these states, it is assumed that +VCC1 =

5 V and +VCC2 = 28 V.

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Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

MPD2T28125-700

PIN Diode Driver

CTL1

(note 2)

CTL2

(notes 1, 2) RF State

Path

TX (J1)

to ANT (J2)

Path

ANT (J2)

to RX (J3)

Output A Output B

TX (J1) Bias DC Bias RX (J3) Bias

VHIGH VLOW RX Low Loss High Isolation 0 V

-100 mA

0 V

-25 mA

27 V

25 mA

VLOW VHIGH TX High Isolation Low Loss 27 V

25 mA

27 V

0 mA

0 V

-100 mA

Notes:

1. All other combinations not recommended.

2. For single control, connect CTL0 to CTL2 and apply control signal to CTL1 only.

Truth Table for Control of Asymmetrical SP2T Switch, MSW200x-200

+VCC1 = 5 V and +VCC2 = 28 V (Unless otherwise noted)

Transmit State

In the TX state, the series PIN diode between the ANT

and TX ports is forward biased by applying 0 V to the TX

bias input port (pin 1 of multi-pin connector P1). The

magnitude of the resultant bias current through the diode

is primarily determined by the voltage applied to the ANT

bias port (pin 3 of P1), the magnitude of the forward volt-

age across the PIN diode and the resistance of R1. This

current is nominally 100 mA. At the same time, the PIN

diode connected between RX and DC ports is also for-

ward biased by applying a higher bias voltage, nominally

28 V, to the RX bias port (pin 7 of P1) and 0 V to the DC

bias port (pin 5 of P1). Under this condition, the PIN

diode connected between the ANT and RX port is

reverse biased and the PIN diode connected between

the RX and DC ports is forward biased. The magnitude

of the bias current through this diode is primarily deter-

mined by the voltage applied to the RX bias port, the

magnitude of the forward voltage across the PIN diode

and the resistance of R2. This current is nominally

25 mA.

The RX series PIN diode, which is connected between

the ANT and RX ports, must be reverse biased during the

transmit state. The reverse bias voltage must be suffi-

ciently large to maintain the diode in its non-conducting,

high impedance state when large RF signal voltage may

be present in the ANT-to-TX path. The reverse voltage

across this diode is the arithmetic difference of the bias

voltage applied to the RX bias port and the DC forward

voltage of the forward-biased transmit series PIN diode.

The minimum voltage required to maintain the series

diode on the RX side of the switch out of conduction is a

function of the magnitude of the RF voltage present, the

standing wave present at the RX series diode’s anode, the

frequency of the RF signal and the characteristics of the

RX series diode, among other factors. Minimum control

voltages for several signal frequencies are shown in the

table “Minimum Reverse Bias Voltage”, assuming the

input power to the RX or ANT port to be 100 W CW and

the VSWR on the ANT-TX path to be 1.5:1.

Caution: The evaluation board, as supplied from the

factory, is not capable of handling RF input signals

larger than 45 dBm.

If performance of the switch under larger input signals is

to be evaluated, an adequate heat sink must be properly

attached to the evaluation board, and several of the pas-

sive components on the board must be changed in order

to safely handle the dissipated power as well as the high

bias voltage necessary for proper performance. Contact

the factory for recommended components and heat sink.

Receive State

In the RX state, the series PIN diode between the ANT

and RX ports is forward biased by applying 0 V to the RX

bias input port (pin 7 of multi-pin connector P1). The

magnitude of the resultant bias current through the diode

is primarily determined by the voltage applied to the ANT

bias port (pin 3 of P1), the magnitude of the forward

voltage across the PIN diode and the resistance of R1.

This current is nominally 100 mA. At the same time, the

PIN diode connected between RX and DC ports is

reverse biased by applying a high bias voltage, nominally

28 V, to the DC bias port (pin 5 of P1). A high voltage,

nominally 28 V, is also applied to the TX bias port (pin 1

of P1). Under this condition, the PIN diode connected

between the ANT and TX port is reverse biased thus iso-

lating the TX RF port from the RX signal path. The reverse

voltage across this diode is the arithmetic difference of

the bias voltage applied to the TX bias port and the DC

forward voltage of the forward-biased receive series PIN

diode. The minimum voltage required to maintain the

series diode on the TX side of the switch out of conduc-

tion is a function of the magnitude of the RF voltage pres-

ent, the standing wave present at the RX series diode’s

anode, the frequency of the RF signal and the character-

istics of the TX series diode, among other factors. For typ-

ical receive-level signals, this diode is held out of conduc-

tion with a relatively small reverse bias voltage.

The values of the reactive components which comprise

the bias decoupling networks as well as the signal path

DC blocking are shown in the table RF Bias Network

Component Values.

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Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

MPD2T28125-700

PIN Diode Driver

The evaluation board for the MPD2T28125-700 allows

for full exercise of the driver, as well as to utilize the

driver to control symmetrical or asymmetrical Aeroflex /

Metelics SP2T switch evaluation circuits.

In addition to the MPD2T28125-700 driver, the evalua-

tion board contains several passive components. C1 and

C2 are bypass capacitors for the +VCC2 and +VCC1

supply voltages, respectively. R1 and C3 form a parallel

RC network which can be used to decrease switching

time for the diodes which are driven by the Output A

output of the MPD2T28125-700 driver. R2 and C4 may

be used to perform the same function for the Output B

output.

There are three multi-pin connectors on the board. P1 is

a DB-9 male connector which facilitates connection of

the TTL control signal(s), supply voltages and ground to

the evaluation board. J1 is a 16-pin female header which

can be used to connect directly to the male header on

Aeroflex Metelics asymmetrical switch evaluation

boards. J2 is a 16-pin female header which can be used

to connect directly to the male header on Aeroflex

Metelics symmetrical switch evaluation boards. The

pinouts for these connectors are shown in the tables

below. Please note that the MPD2T28125-700 evalua-

tion board is intended to operate only one high power

PIN diode switch at a time. It is not recommended to

simultaneously connect evaluation boards to J1 and J2.

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Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

MPD2T28125-700

PIN Diode Driver

Evaluation Board

Pinout – P1 Connector - MPD2T28125-700 Eval Board

DB-9

Connector

Pin Number

Connects to

MPD2T28125-700

Pin Number

MPD2T28125-700

Pin Name Function

1 1 CTL1 TTL logic input for driver section A

213 +VCC2 High voltage bias supply (28 V ≤+VCC2

≤125 V )

315 +VCC1 Logic supply voltage (5 V)

4 4 CTL0

Complement of logic level applied to CTL1

(may be connected to CTL2 for single control

operation via CTL1)

5 3 CTL2 TTL logic input for driver section B

6, 7, 8 2, 5, 7, 9, 10, 11, 12, 14, 16 GND Supply return for +VCC1 and +VCC2

9no connection n/a n/a

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Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

Pinout – J1 Connector - MPD2T28125-700 Eval Board (Asymmetric Switches)

J2 Connector Pin Number

Connects to

Asymmetric

Switch Pin Name

Function

1 (hardwired to pin 5 of J1) P1-Tx Bias signal to bias RF Tx port (J1)

2, 4, 6, 8 - 16 GND Supply return for +VCC1 and +VCC2

3 ANT +VCC1 supply (% V typical) to ANT port

5 (hardwired to pin 1 of J1) P1-DC Bias signal to bias port DC

7P1-Rx Bias signal to bias RF Rx port (J2)

Pinout – J2 Connector - MPD2T28125-700 Eval Board (Symmetric Switches)

J2 Connector Pin Number

Connects to

Symmetric

Switch Pin Name

Function

1 (hardwired to pin 5 of J2) P1-J1 Bias signal to bias RF port J1

2 (hardwired to pin 7 of J2) P1-B1 Bias signal to bias port B1

3P1-J0 +VCC1 (5 V typical) supply voltage to bias RF port J0

4, 6, 8 - 16 GND Supply return for +VCC1 and +VCC2

5 (hardwired to pin 1 of J2) P1-B2 Bias signal to bias port B2

7 (hardwired to pin 1 of J2) P1-J2 Bias signal to bias RF port J2

Assembly Instructions

The MPD2T28125-700 PIN Diode Drivers are capable of being placed onto circuit boards with pick and place

manufacturing equipment from tube or tape-reel dispensing. The devices are attached to the circuit board using

conventional solder re-flow or wave soldering procedures with RoHS type or Sn 60 / Pb 40 type solders per Table I

and Graph I Time-Temperature recommended profile.

Table 1: Time-Temperature Profile for Sn 60/Pb 40 or RoHS Type Solders

Profile Feature Sn-Pb Solder Assembly Pb-Free Solder Assembly

Average ramp-up rate 3°C/second maximum 3°C/second maximum

(TLto TP)

Preheat

- Temperature Minimum (TSMIN) 100°C 150°C

- Temperature Maximum (TSMAX) 150°C 200°C

- Time (Minimum to maximum) (ts) 60-120 seconds 60-180 seconds

TSMAX to TL

- Ramp-up Rate 3°C/second maximum

Time Maintained above:

- Temperature (TL) 183°C 217°C

- Time (tL) 60-150 seconds 60-150 seconds

Peak Temperature (TP) 225 +0 / -5°C 245 +0/-5°C

Time within 5°C of actual

Peak Temperature (TP) 10-30 seconds 20-40 seconds

Ramp-down Rate 6°C/second maximum 6°C/second maximum

Time 25°C to Peak Temperature 6 minutes maximum 8 minutes maximum

Figure 1: Solder Re-Flow Time-Temperature Function

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Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

PIN Diode Driver

Our passion for performance is defined by three

attributes represented by these three icons:

solution-minded, performance-driven and customer-focused.

Aeroflex / Metelics, Inc.

54 Grenier Field Road, Londonderry, NH 03053

Tel: (603) 641-3800

Sales: (888) 641-SEMI (7364)

Fax: (603)-641-3500

975 Stewart Drive, Sunnyvale, CA 94085

Tel: (408) 737-8181

Fax: (408) 733-7645

Aeroflex / Metelics, Inc. reserves the right to make changes to any products and

services herein at any time without notice. Consult Aeroflex or an authorized

sales representative to verify that the information in this data sheet is current

before using this product. Aeroflex does not assume any responsibility or liabili-

ty arising out of the application or use of any product or service described here-

in, except as expressly agreed to in writing by Aeroflex; nor does the purchase,

lease, or use of a product or service from Aeroflex convey a license under any

patent rights, copyrights, trademark rights, or any other of the intellectual rights

of Aeroflex or of third parties.

www.aeroflex.com/metelics metelics-sales@aeroflex.com

Document No. DS13649 Rev. C, ECN 11508

Revision Date: 4/3/2012

ISO 9001:2008 certified companies

Outline Drawing Case Style 700 (CS700)

Part Number Ordering Information:

Part Number Packaging

MPD2T28125-700-T Tube Packaging

MPD2T28125-700-R Tape-Reel Packaging

(Quantities of 250 or 500)

MPD2T28125-700-W Waffle Packaging

MPD2T28125-700-E Evaluation Board