Texas Instruments TRF2443 User Manual

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AGC

CNTL

0/90TXPLL

RXAGC

VCCs

GNDs

RXPLL

TXQ_IN

TX_OUT

TXI_IN

RX_IN

RX VGA

TX VGA

IFAMP

From SPI

from RXPLL

XPIC_IN

XPIC OUT

XPIC AGC

XPIC_BBI

XPIC_BBQ

Level

Detect

IF SAW

IF_OUT

IF_IN

TX_PWD

Temperature

Sensor

CLKSPI DATASPI LESPI

RXBBI

RXBBQ

TEMPOUT

0/90

S P

User's Guide

SLWU065 – September 2009

TRF2443 Integrated IF Transceiver Evaluation Module

This document provides an easy guide for evaluating the TRF2443 integrated IF transceiver for broadband wireless applications. Included in this guide are equipment setup procedures, software GUI configurations, and test procedures that allow a user to quickly and accurately measure the TRF2443 performance.

The TRF2443 is a fully integrated IF transceiver operating at a transmitter IF of 340 MHz (or 170 MHz) and a receiver IF of 140 MHz (or 280MHz). The IF transceiver is used to for up-conversion of signals from the transmit chain digital-to-analog convertor (DAC) to the RF upconverter device and for down-conversion of received IF signals to baseband for processing by the analog-to-digital convertor (ADC). The receiver allows for switching in an external SAW filter if needed or by-passing this filter and processing the signal completely internally. The TRF2443 also provides an Auxiliary Receiver which can be used for cross-polarization interference cancellation (XPIC). This document describes how to test the TRF2443 as well as the many options for trimming the device configuration to meet your application needs.

SLWU065 – September 2009 TRF2443 Integrated IF Transceiver Evaluation Module 1

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Figure 1. TRF2443 Block Diagram

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Contents

1 EVM Circuit Overview ....................................................................................................... 4

1.1 DC POWER ......................................................................................................... 4

1.2 Reference Clock .................................................................................................... 5

1.3 Communications .................................................................................................... 5

1.4 Transmitter ........................................................................................................... 5

1.5 Receiver .............................................................................................................. 6

1.6 XPIC Receiver....................................................................................................... 9

2 GUI Overview ............................................................................................................... 10

2.1 GUI for Synthesizers .............................................................................................. 12

2.2 GUI for Receiver ................................................................................................... 14

2.3 GUI Transmitter.................................................................................................... 15

2.4 GUI for XPIC Receiver ........................................................................................... 15

3 TRF2443 EVM Operating Procedures ................................................................................... 16

3.1 Power Up ........................................................................................................... 16

3.2 Receiver ............................................................................................................ 17

3.3 XPICOUT Amplifier ............................................................................................... 18

3.4 Transmitter ......................................................................................................... 19

3.5 EEPROM ........................................................................................................... 20

3.6 XPIC RECEIVER .................................................................................................. 21

4 Physical Description ....................................................................................................... 23

4.1 EVM Top Layer Drawing ......................................................................................... 23

4.2 Bill of Materials .................................................................................................... 24

4.3 Schematics ......................................................................................................... 26

List of Figures

1 TRF2443 Block Diagram .................................................................................................... 1

2 TXPWD Header JP1 Schematic ........................................................................................... 4

3 EVM DC Power: J1, J2, and JP1 .......................................................................................... 4

4 EVM Reference Clock J3 and USB Port J5 .............................................................................. 5

5 TX Baseband Inputs ......................................................................................................... 6

6 J7 (RXIN) ..................................................................................................................... 6

7 RX Baseband Outputs ...................................................................................................... 7

8 SAW Filter Path .............................................................................................................. 8

9 XPIC RX ...................................................................................................................... 9

10 TRF2443 GUI Quick-Set Tab ............................................................................................. 10

11 TRF2443 GUI Advanced Tab ............................................................................................. 11

12 Load All Registers .......................................................................................................... 12

13 Reset USB .................................................................................................................. 12

14 Synthesizer Programming ................................................................................................. 12

15 RX GUI ...................................................................................................................... 14

16 RX AGC GUI ................................................................................................................ 14

17 Transmitter GUI............................................................................................................. 15

18 XPIC Receiver GUI ........................................................................................................ 15

19 XPIC AGC GUI ............................................................................................................. 15

20 Programmed ICC GUI Settings ........................................................................................... 16

21 Load All Registers .......................................................................................................... 16

22 Receiver SAW Disabled GUI Settings ................................................................................... 17

23 Receiver SAW Enabled GUI Settings ................................................................................... 18

24 Receiver XPICOUT GUI Settings ........................................................................................ 19

25 TX Max Gain GUI Settings ................................................................................................ 19

26 GUI Settings for TX Carrier Leakage .................................................................................... 20

27 GUI Show Readback ...................................................................................................... 20

2 List of Figures SLWU065 – September 2009

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28 GUI Select EEPROM Readback ......................................................................................... 20

29 Read I/Q Carrier Leakage Trim Values B < 10,5> ...................................................................... 21

30 TX Carrier Leakage Trim .................................................................................................. 21

31 XPIC Receiver Max Gain GUI ............................................................................................ 22

32 XPIC Receiver Min Gain GUI ............................................................................................. 22

33 TRF2443 EVM Top Layer ................................................................................................. 23

34 Schematic (1 of 5) .......................................................................................................... 26

35 Schematic (2 of 5) .......................................................................................................... 27

36 Schematic (3 of 5) .......................................................................................................... 28

37 Schematic (4 of 5) .......................................................................................................... 29

38 Schematic (5 of 5) .......................................................................................................... 30

List of Tables

1 Bill of Materials ............................................................................................................. 24

SLWU065 – September 2009 List of Tables 3

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GND

+3.3V

JP1

TXPWD

SHUNT 2-3

S006

EVM Circuit Overview

1 EVM Circuit Overview

1.1 DC POWER

The TRF2443 EVM requires a 3.3V dc power-supply connected to between J1 (3.3V) and J2 (GND). The TRF2443 allows for analog or digital control of the transmitter power supply. Pin 1 (TXPWD) of the device provides the analog control and is connected to header JP1 (TXPWD) on the EVM. When pins 1 and 2 of header JP1 are shorted, 3.3V is fed to the TXPWD pin and the transmitter is disabled. When pins 2 and 3 of header JP1 are shorted, 0V is fed to the TXPWD pin and the transmitter is enabled (see Figure 2 and

Figure 3 ). With header JP1 enabling the transmitter, it is still possible for the transmitter to be off due to

the state of the digital TX control.

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Figure 2. TXPWD Header JP1 Schematic

List of Tables4 SLWU065 – September 2009

Figure 3. EVM DC Power: J1, J2, and JP1

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1.2 Reference Clock

The TRF2443 EVM allows for either an external reference chosen by the user or an internal oscillator at 20 MHz provided on the EVM board. If an external reference is to be used the signal should be fed into SMA connector J3 (EXTREF) and jumpers W1 and W12 should be removed (see Figure 4 ).

EVM Circuit Overview

Figure 4. EVM Reference Clock J3 and USB Port J5

1.3 Communications

The EVM is equipped with USB communications which provide the interface between a computer's USB port and the TRF2443s SPI port via J5 as shown in Figure 4 . A CD containing the GUI to control the TRF2443 is provided within the EVM kit. An overview of the GUI is provided in this document

1.4 Transmitter

The EVM is configured for differential I/Q input signals via four SMA connectors. For the upper sideband, the I signals are connected to J12 (TXBBIP) and J17 (TXBBIN). The Q signals are connected to J23 (TXBBQN) and J20 (TXBBQP) (see Figure 5 ). SMA connector J6 (TXOUT), not shown below, is used to monitor the RF output signal from the transmitter.

SLWU065 – September 2009 List of Tables 5

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RXIN

50 OHM DIFF

50 OHM

220pF220pF

RXINP

RXINN

GNDRX

VCCRX

220pF

S007

EVM Circuit Overview

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1.5 Receiver

The EVM is configured for single ended RX input signal via SMA connector J7 (RXIN). This input is taken through a 1:1 balun to provide differential inputs to the device. The device presents 50 so no external termination resistor is required.

6 List of Tables SLWU065 – September 2009

Figure 5. TX Baseband Inputs

Figure 6. J7 (RXIN)

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EVM Circuit Overview

The baseband I/Q signals can be measured balanced or unbalanced. The I output is taken from the unbalanced port J15 (RXBBI) through balun T5 or from the balanced ports of J13 (I+) and J18 (I-). Likewise, the Q output is taken from the unbalanced port J24 (RXBBQ) through balun T7 or the balanced ports of J21 (Q+) and J26 (Q-). For balanced mode measurements, jumpers W3, W5, W7 and W9 must be removed.

SLWU065 – September 2009 List of Tables 7

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Figure 7. RX Baseband Outputs

EVM Circuit Overview

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The TRF2443 RX path allows the use of an external SAW filter. An internal switch, which is programmable through the serial interface, gives the flexibility to utilize the external filter (see Figure 1 ). The internal switch is controlled via the serial programming interface through bit EN_SAW. By programming EN_SAW to 1, the external path is selected, whereas a 0 engages the internal bypass switch. When EN_SAW is set to 1 the IF signal will be routed out of the IC to SMA connector J30 (IFOUT) (see Figure 8 ). At this point, the user has the flexibility to insert a filter of choice outside the TRF2443 EVM. (The board does contain a place holder (FL1) for a SAW filter but is not populated. In this way, the user has the flexibility to use a filter of his choice). For initial evaluation, an 8-10 dB pad can be used in lieu of a filter to emulate the insertion loss of a typical filter. The user must route the signal from J30 (IFOUT) to J31 (IFIN) with the filter or pad included.

List of Tables8 SLWU065 – September 2009

Figure 8. SAW Filter Path

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1.6 XPIC Receiver

EVM Circuit Overview

The TRF2443 provides an auxiliary receiver chain that can be used for cross-polarization interference cancellation purposes. The EVM is configured for a single-ended output signal (intended for the secondary XPIC RX path) at J33 (XPICOUT). The input to the XPIC receiver (from the XPICOUT of the secondary XPIC RX path) is available at SMA connector J32 (XPICIN). This input is taken through a 1:1.5 balun to provide differential inputs to the device. The device presents 75 so no external termination resistor is required. The XPIC baseband I and Q signals can be measured balanced or unbalanced. The I output is taken from the unbalanced port J16 (XPICI) through balun T6 or from the balanced ports of J14 (I+) and J19 (I-). Likewise, the Q output is taken from the unbalanced port J25 (XPICQ) through balun T8 or the balanced ports of J22 (Q+) and J27 (Q-). For balanced mode measurements, jumpers W4, W6, W8, and W10 must be removed (see Figure 9 ).

SLWU065 – September 2009 List of Tables 9

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Figure 9. XPIC RX

GUI Overview

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2 GUI Overview

The TRF2443 EVM kit includes a graphical user interface for controlling the device. The GUI contains two tabs labeled "Quick-set" and "Advanced" (see Figure 10 and Figure 11 )

10 List of Tables SLWU065 – September 2009

Figure 10. TRF2443 GUI Quick-Set Tab

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GUI Overview

Evaluation and testing of the device can be done entirely using on the "Quick-set" tab. The "Advanced" tab is used for debugging and specific optimization of the device if required by an application. Using the "Advanced" tab without an understanding of what is being controlled can result in an unrecoverable state of the IC whereby a power reset would be required.

SLWU065 – September 2009 List of Tables 11

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Figure 11. TRF2443 GUI Advanced Tab

GUI Overview

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When an input to the GUI is changed, the GUI should send this new value to the device automatically once the cursor has clicked on another field besides the field being changed. It is good practice, however, to reload all registers once changes to inputs have been made. This can be achieved by clicking on the "OFF" button below "Load All" in the bottom right corner of the GUI (see Figure 12 ).

Figure 12. Load All Registers

If there is ever a doubt as to the integrity of the communications between the GUI and the device, a USB reset is in order. Press the Reset USB button near the top left corner of the GUI and then reload all registers again (see Figure 13 ).

Figure 13. Reset USB

An explanation of all the fields within the Quick-set tab is provided by device functionality beginning with the synthesizers.

2.1 GUI for Synthesizers

The TX and RX synthesizers are controlled using the group of dialog boxes under "Quick-Synth" (see

Figure 14 ).

12 List of Tables SLWU065 – September 2009

Figure 14. Synthesizer Programming

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GUI Overview

Ref Freq[MHz]

Specify the reference frequency being provided to the EVM. If the on-board oscillator is used, this will be 20MHz. If an external oscillator is to be used, specify its frequency in this field.

TX VCO [MHz]

This field is a calculation based on the other inputs provided. The TX VCO is guaranteed to operate between 2640MHz and 2800MHz.

TX Freq. [MHz]

The TX LO Frequency can be programmed to a frequency within the TX Synth Range selected previously. Entering a value outside of this range is not permitted and will default to the closest value within this range. When TX Freq. is specified, the corresponding TX VCO will be calculated.

PFD_TX [MHz]

Specify the channel resolution desired of the LO by selecting the PFD frequency. Note that the PLL loop filters are optimized for a PFD frequency of 20MHz. Deviating from 20MHz will impact the phase noise of the system.

RX VCO [MHz]

This field is a calculation based on the other inputs provided. The RX VCO is guaranteed to operate between 2240MHz and 2640MHz.

RX Freq. [MHz]

The RX LO Frequency can be programmed to a frequency within the RX Synth Range selected previously. Entering a value outside of this range is not permitted and will default to the closest value within this range. When RX Freq. is specified, the corresponding RX VCO will be calculated.

PFD_RX [MHz]

Specify the channel resolution desired of the LO by selecting the PFD frequency. Note that the PLL loop filters on the EVM are optimized for a PFD frequency of 20MHz. Deviating from 20MHz will impact the stability and phase noise of the system.

T/RX Cal Enable

Toggling this invokes a calibration of the RX and TX PLLs and initiates locking the synthesizers. This field must be toggled ON in order to lock the synthesizers. Loading all registers using the button on the bottom right corner of the GUI does not perform this task.

TX Synth Range

The TRF2443 transmitter LO can be programmed to a frequency between 165–175MHz or 330–350MHz. Select the range that covers the desired to program the appropriate dividers.

RX Synth Range

The TRF2243 receiver LO can be programmed to a frequency between 140–165MHz or 280–330MHz. Select the range that covers the desired application to program the appropriate dividers.

SLWU065 – September 2009 List of Tables 13

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GUI Overview

2.2 GUI for Receiver

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The TRF2243 receiver is controlled using the group of dialog boxes to the left half of the Quick-TRX section (see Figure 15 ).

Figure 15. RX GUI

LNA Attn [dB]

Specifies the LNA attenuation desired in dB.

Enable SAW

Specifies whether the external SAW filter path or the internal bypass path is used for the receiver.

RX BB Gain Set

Specifies the gain setting for the RX baseband section. The value entered here is a gain setting and not gain in dB. This value is 9 dB less than the actual gain (i.e., enter 0 for 9dB of gain; enter 24 for 33dB of gain on the RX baseband).

RX DC Offset En

Toggling this button invokes a DC offset calibration of the RX baseband circuitry. This is recommended after changing the RX BB Gain.

RX LPF Bypass

Specify whether to bypass the internal low pass filter or not.

LPF BW Adj

If RX LPF Bypass is OFF then the low pass filter is enabled and its corner frequency can be programmed to any of 128 states specified to cover 2 MHz to 11MHz corner frequency [see TRF2443 datasheet for detailed explanation (SLWS217 )]

RX BB 3dB Attn

Specify whether to enable a 3 dB attenuator at the output of the device. This can be used to tradeoff noise and IP3 in some configurations.

RX AGC

The analog gain control of the receiver chain is located in the upper right corner of the GUI and is in mV (see Figure 16 ) .

List of Tables14 SLWU065 – September 2009

Figure 16. RX AGC GUI

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2.3 GUI Transmitter

Control of the transmitter is located in the second column within the Quick-TRX section (see Figure 17 ).

TX Attn [dB]

Controls the attenuation from maximum gain of the transmitter chain.

T/RX Loopback

Enables the path for looping back the TX signal into the receiver with a 0 dB loss or a 20 dB loss in the path depending on selection. This can be used for calibrating the RX baseband low pass filter corner frequency or calibrating the TX modulator LO leakage calibration [see TRF2443 datasheet for detailed explanation (SLWS217 )].

2.4 GUI for XPIC Receiver

Control of the XPIC receiver is located in the second column within the Quick-TRX section (see

Figure 18 ).

GUI Overview

Figure 17. Transmitter GUI

Figure 18. XPIC Receiver GUI

XPIC BB Gain [dB]

Specifies the gain setting for the XPIC RX baseband section. The value entered here is a gain setting and not gain in dB. This value is 9 dB less than the actual gain (i.e., enter 0 for 9dB of gain or enter 5 for 14dB of gain).

XPIC DC Offset En

Toggling this button invokes a DC offset calibration of the XPIC RX baseband circuitry. This is recommended after changed the XPIC BB Gain.

RX AGC

The analog gain control of the XPIC receiver chain is located in the upper right corner of the GUI and is in mV (see Figure 19 ).

Figure 19. XPIC AGC GUI

SLWU065 – September 2009 List of Tables 15

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TRF2443 EVM Operating Procedures

3 TRF2443 EVM Operating Procedures

This section will outline step by step the procedures necessary to test the following functions of the TRF2443:

3.1 Power Up

a. Initial ICC

i. Apply 3.3V DC between J1 and J2 connections on board. ii. Approximately 760mA should be drawn from the power supply.

b. Programmed ICC

i. Apply reference clock either externally or using on board oscillator (see section Reference Clock) ii. Apply USB connection between computer with loaded GUI and USB port J5 on the EVM and press

the Reset USB button in the upper left corner of the GUI.

iii. Change the GUI inputs as shown in Figure 20 .

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Figure 20. Programmed ICC GUI Settings

empty para to keep v. from separating

iv. Load all registers by pressing the OFF button below Load All in the bottom right corner of the GUI

to load all registers to the device (see Figure 21 ).

Figure 21. Load All Registers

v. Toggle the T/Rx Cal Enable button to lock the synthesizers. vi. Approximately 1070mA of current should be drawn from the power supply with this device

configuration.

List of Tables16 SLWU065 – September 2009

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TRF2443 EVM Operating Procedures

3.2 Receiver

a. SAW path disabled

i. Program GUI as shown in Figure 22 . ii. Toggle the T/Rx Cal Enable button to lock the synthesizers.

Figure 22. Receiver SAW Disabled GUI Settings

iii. Apply CW signal to J7-RXIN port at 140.1MHz, -88dBm. iv. Measure output on spectrum analyzer at J15 (RXBBI) or J24 (RXBBQ) at 100kHz. v. In this configuration, the chip typically shows about 84dB gain. Therefore, one should typically see

-4dBm at the output of the TRF2443. However, transformers T5 and T7 at the RX baseband outputs transform 800-ohms to 50-ohms resulting in a 12dB loss factor. There is an additional 1-dB of losses in the path. Therefore, -4dBm at the output of the TRF2443 will be -17dBm at the 50-ohm input of the spectrum analyzer. Gain is calculated as Power at the spectrum analyzer + 13dB - Pin.

SLWU065 – September 2009 List of Tables 17

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TRF2443 EVM Operating Procedures

2. SAW path enabled i. Configure EVM with a cable connecting J30 (IFOUT) to J31 (IFIN). Insert a SAW filter or a 10dB

ii. Program GUI as shown in Figure 23 . iii. Toggle the T/Rx Cal Enable button to lock the synthesizers.

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pad if desired (see Section 1.5 ).

3.3 XPICOUT Amplifier

Figure 23. Receiver SAW Enabled GUI Settings

iv. Apply CW signal to J7(RXIN) port at 140.1MHz, -90dBm. v. Measure output on spectrum analyzer at J15(RXBBI) or J24(RXBBQ) at 100kHz. vi. In this configuration, the chip typically shows about 86dB gain. Therefore, one should typically see

-4dBm at the output of the TRF2443. However, transformers T5 and T7 at the RX baseband outputs transform 800- Ω to 50- Ω resulting in a 12dB loss factor. There is an additional 1-dB of losses in the path. Therefore, -4dBm at the output of the TRF2443 will be -17dBm at the 50- Ω input of the spectrum analyzer. Gain is calculated as Power at the spectrum analyzer + 13dB - Pin.

a. GAIN

i. Program GUI as shown in Figure 24 . ii. Toggle the T/Rx Cal Enable button to lock the synthesizers.

18 List of Tables SLWU065 – September 2009

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TRF2443 EVM Operating Procedures

Figure 24. Receiver XPICOUT GUI Settings

iii. Apply CW signal to J7 (RXIN) port at 140MHz, -32dBm. iv. Measure output on spectrum analyzer at J15 (RXBBI) or J24 (RXBBQ) at 100kHz. v. Adjust RX AGC voltage until -17dBm is measured at spectrum analyzer (corresponds to -4dBm at

TRF2443 output).

vi. Once this is achieved measure J33 (XPICOUT) port with a spectrum analyzer. Power out should

be between -10dBm and -14dBm.

3.4 Transmitter

a. GAIN

i. Program GUI as shown in Figure 25 . ii. Toggle the T/Rx Cal Enable button to lock the synthesizers.

Figure 25. TX Max Gain GUI Settings

iii. Using a DAC or Arbitrary Waveform generator to create IQ baseband signals, apply IQ signals to

J23 (TXBBQN), J20 (TXBBQP), J17 (TXBBIN), J12 (TXBBIP). Set instrument to 50- Ω output impedance. Each of the four IQ signals should be 1MHz, -16dBm (corresponding to -13dBm differentially on 100- Ω differentially, or, -23dBVrms-diff.)

iv. Measure output on spectrum analyzer at J6 (TXOUT) at 341MHz. The chip typically shows 4dBm

SLWU065 – September 2009 List of Tables 19

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TRF2443 EVM Operating Procedures

b. GAIN RANGE

i. Change the TX ATTN [dB] setting in the GUI to determine that the output power is dropping

3.5 EEPROM

a. The purpose of this section is to Readback EEPROM content and verify EEPROM contains the stored

trim values to optimize TX Carrier leakage. See TRF2443 EEPROM User's Guide for detailed explanation of the EEPROM within the TRF2443 (SLWU064 )].

i. Program GUI as shown in Figure 26 .

output power.

approximately 1.0 every 2

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step.

Figure 26. GUI Settings for TX Carrier Leakage

ii. At bottom of GUI on Quick-set page, click on Show Readback Button as shown in Figure 27 .

Figure 27. GUI Show Readback

iii. Set the RdBk Reg field to EEPROM and click the Readback Button. iv. The contents of EEPROM register 1 and 2 will be shown as is evident by the first five address bits

(LSB) to the left as shown in Figure 28 .

Figure 28. GUI Select EEPROM Readback

v. The data from REG 1 < 10,5> is Q-trim data and from REG2 < 10,5> is the I-trim data. One can scroll

to bit 5 by using the bottom scroll dialog box as shown in Figure 29 below.

20 List of Tables SLWU065 – September 2009

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TRF2443 EVM Operating Procedures

Figure 29. Read I/Q Carrier Leakage Trim Values B < 10,5>

vi. Record the decimal equivalent of REG 1 < 10,5> as the Q-trim data and the decimal equivalent of

REG2 < 10,5> as the I-trim data (in this example I=45 and Q=2).

vii. The two decimal trim values obtained above must be translated. If the decimal value is between 0

and 31, no translation is necessary and the decimal value is the value needed for the subsequent operation. However, if the decimal value is between 32 and 63, translate the value by 31 - Decimal Trim Value (ie. in this example, I=-14 and Q=2).

viii. Click the Advanced tab at the top of the GUI. The second subsection of the first column contains

two fields called TX DC OFFSET I and TX DC OFFSET Q. Set these two fields to the corresponding values that were translated in the previous step. Figure 30 shows a value of -14 for the I-trim value and 2 for the Q-trim value. Determine that the data has been written to the device by clicking the mouse in some other field other than these two fields.

ix. With the input signal setup as in 4.a.iii, measure the carrier leakage at SMA connector J6

(TXOUT). The typical value should be lower than -40dBm.

3.6 XPIC RECEIVER

a. GAIN Max

i. Program GUI as shown in Figure 31 . ii. Toggle the T/Rx Cal Enable button to lock the synthesizers.

SLWU065 – September 2009 List of Tables 21

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Figure 30. TX Carrier Leakage Trim

TRF2443 EVM Operating Procedures

iii. Apply CW signal to J32 (XPICIN) of 140.1 MHz, -32dBm. iv. Measure output at 100kHz at J16 (XPICI) or J25 (XPICQ) on a spectrum analyzer. v. Calculate Gain = (Pout at spectrum analyzer + 13) - Pin. Typical gain value should be greater than

b. MIN GAIN

i. Change XPIC AGC voltage from 700mV to 0mV as shown in Figure 32 .

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Figure 31. XPIC Receiver Max Gain GUI

25dB.

ii. Adjust Pin until -17dBm is measured on output spectrum analyzer. iii. Calculate Gain = (Pout at spectrum analyzer +13) - Pin. Typical value should be around 4dB.

List of Tables22 SLWU065 – September 2009

Figure 32. XPIC Receiver Min Gain GUI

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J16 XPICBBI

J25 XPICBBQ

J1 VCC

J2 GND

J32 XPICIN

RXIN

TXOUT

USB

J28

TXLOTEST

REFIN

J23

TXBBQN

J20

TXBBQP

J17

TXBBIN

J12

TXBBIP

J29

RXLOTEST

J31

IFIN

J33

XPICOUT

J15

RXBBI

J24

RXBBQ

J30

IFOUT

ASSEMBLY TOP

TRF2443 REV C

COMPONENT SIDE (S01)

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4 Physical Description

4.1 EVM Top Layer Drawing

Physical Description

Figure 33. TRF2443 EVM Top Layer

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Physical Description

4.2 Bill of Materials

Table 1. Bill of Materials

Item QTY Part Reference Value PCB Footprint Mfr_Name Mfr_Part_Number Note

No.

1 17 C1 C14 C18 C21 0.1 µ F 0402 PANASONIC ECJ-0EB1C104K

2 1 C2 680pF 0402 MURATA GRM1555C1H681JA01D 3 1 C3 47pF 0402 MURATA GRM1555C1H470JZ01D 4 1 C4 22pF 0402 MURATA GRM1555C1H220JZ01D 5 1 C6 560pF 0402 MURATA GRM1555C1H561JA01D 6 2 C8 C9 56pF 0402 MURATA GRM1555C1H560JD01D 7 5 C11 C38 C41 C44 1 µ F 0402 PANASONIC ECJ-0EB1A105M

8 9 C15 C26 C30 C31 1000pF 0402 MURATA GRM1555C1H102JA01D

9 1 C17 0.01 µ F 0402 PANASONIC ECJ-0EB1E103K 10 2 C19 C20 47pF 0402 PANASONIC ECJ-0EC1H470J 11 3 C22 C24 C71 100pF 0402 MURATA GRM1555C1H101JZ01D 12 13 C23 C25 C53 C54 220pF 0402 MURATA GRM1555C1H221JA01D

13 5 C27 C28 C35 C37 4.7pF 0402 MURATA GRM1555C1H4R7CZ01D

14 8 C39 C40 C42 C43 2.2 µ F 0402 KEMET C0402C225M9PAC

15 0 C94 C95 4.7pF 0402 MURATA GRM1555C1H4R7CZ01D_ DNI

16 4 C96 C97 C98 C99 15pF 0402 PANASONIC ECJ-0EC1H150J 17 0 C100 C101 470pF IND_0402 MURATA GRM155R71H471KA01D_ DNI

18 2 C102 C103 150 0402 PANASONIC ERJ-2RKF1500X_DNI DNI 19 1 C104 47 µ F TANT_D NIC COMPONENTS NTC-T476K10TRD

20 1 D1 BLUE LED_0805 PANASONIC LNJ906W5BUX 21 2 D2 D3 GREEN LED_1206 LITE-ON LTST-C150KGKT 22 15 FB1 FB2 FB3 FB4 120 0402 MURATA BLM15AG121SNIB

23 0 FL1 140MHz SM_FILTER_197X275_10 TAI-SAW TECHNOLOGY TB0364A_DNI DNI 24 1 J1 RED JACK_THVT_BANANA_500DIA ALLIED ELECTRONICS ST-351A 25 1 J2 BLK JACK_THVT_BANANA_500DIA ALLIED ELECTRONICS ST-351B 26 17 J3 J6 J7 J12 J15 SMA_END_LAUNCH SMA_ALT_2 Johnson Components 142-0701-851

27 1 J5 USB_B_S_F_B_TH CON_THRT_USB_B_F SAMTEC USB-B-S-F-B-TH 28 8 J13 J14 J18 J19 SMA_THVT SMA_THVT_320X320 Johnson Components 142-0701-231

29 1 JP1 JUMPER_1X3_100 HDR_THVT_1x3_100_M SAMTEC TSW-103-07-L-S (SHUNT 2-3) 30 0 L1 L2 560nH IND_0402 COILCRAFT 0402AF-561XJLB_DNI DNI 31 2 L3 L4 68nH IND_0402 COILCRAFT 0402CS-68NXJLU 32 4 L5 L6 L7 L8 82nH ind_0402 COILCRAFT 0402CS-82NXJLW 33 0 L11 L12 36 ind_0402 PANASONIC ERJ-2RKF36R0X_DNI DNI 34 0 L13 L14 0 ind_0402 PANASONIC ERJ-2GE0R00X_DNI DNI 35 2 L15 L16 39nH 0402 COILCRAFT 0402CS-39NXGL 36 4 MT2 MT4 MT6 STANDOFF mfg125_plated KEYSTONE 3480

37 1 R1 1.0K 0402 PANASONIC ERJ-2RKF1001X

C29 C33 C36 C51 C52 C61 C64 C65 C66 C67 C72 C73 C74

C45

C32 C34 C50 C62 C75

C55 C56 C57 C58 C59 C60 C68 C69 C70

C63

C46 C47 C48 C49

FB5 FB6 FB7 FB8 FB9 FB10 FB11 FB12 FB13 FB14 FB15

J16 J17 J20 J23 J24 J25 J28 J29 J30 J31 J32 J33

J21 J22 J26 J27

MT8

DNI

CORPS

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24 List of Tables SLWU065 – September 2009

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Physical Description

Table 1. Bill of Materials (continued)

Item QTY Part Reference Value PCB Footprint Mfr_Name Mfr_Part_Number Note

No.

38 29 R2 R11 R19 R30 0 0402 PANASONIC ERJ-2GE0R00X

39 1 R3 4.02K 0402 PANASONIC ERJ-2RKF4021X 40 1 R4 1.24K 0402 PANASONIC ERJ-2RKF1241X 41 2 R5 R8 5K POT VAR_RES_SMVT_3214W BOURNS 3214W-1-502E 42 1 R6 4.99K 0402 PANASONIC ERJ-2RKF4991X 43 2 R7 R29 10K 0402 PANASONIC ERJ-2GEJ103X 44 0 R12 R15 R16 49.9 0402 PANASONIC ERJ-2RKF49R9X_DNI DNI 45 0 R51 R54 0 0402 PANASONIC ERJ-2GE0R00X_DNI DNI 46 1 R14 15K 0402 PANASONIC ERJ-2GEJ153X 47 1 R18 49.9 0402 PANASONIC ERJ-2RKF49R9X 48 0 R22 R23 100 0402 PANASONIC ERJ-2RKF1000X_DNI DNI 49 2 R33 R34 1K 0402 PANASONIC ERJ-2GEJ102X 50 2 R52 R53 12K 0402 PANASONIC ERJ-2GEJ123X 51 0 R55 R62 75 0402 PANASONIC ERJ-2RKF75R0X_DNI DNI 52 3 R57 R58 R59 10 0402 PANASONIC ERJ-2RKF10R0X 53 1 R66 0 0402 PANASONIC ERJ-EGE0R00X 54 2 R68 R69 0 0805 PANASONIC ERJ-2GEY0R00V 55 1 R77 590 0402 PANASONIC ERJ-2RKF5900X 56 2 R78 R79 100 0402 PANASONIC ERJ-2RKF1000X 57 1 T1 ADT1-1 TRANS_SMVT_CD542_6 MINI-CIRCUITS ADT1-1 58 2 T2 T4 TC1-1 XFMR_5_150X150_50 MINI-CIRCUITS TC1-1 59 1 T3 ADT4-1T TRANS_SMVT_CD542_6 MINI-CIRCUITS ADT4-1T 60 4 T5 T6 T7 T8 TTWB-16-BL TRANS_SMVT_TTWB_6 CoilCraft TTWB-16-BL 61 2 T9 T10 TC1.5-52T XFMR_5_150X150_50 MINI-CIRCUITS TC1.5-52T+ 62 4 TP1 TP2 TP3 TP4 BLK TP_THVT_100_RND KEYSTONE 5001 63 18 TP5 TP6 TP7 TP8 RED TP_THVT_100_RND KEYSTONE 5000

64 1 U1 TRF2443 SOCKET QFP QFP_80_OZTEK_0P50MM_CUSTOM Texas Instruments TRF2443 65 1 U2 FT245RL ssop_28_413x220_26 FTDI Chip FT245RL 66 1 U3 TLV5638-EP SOIC_8_197X157_50 TI TLV5638QDREP 67 12 W1 W2 W3 W4 JUMPER - 2 PIN HDR_THVT_1x2_100_M SAMTEC HTSW-102-07-L-S

68 1 Y1 20MHz OSC_4_SM_205X134 FOX ELECTRONICS FOX924B-20 69 4 FOR THE SCREW PANHEAD Building Fasteners PMSSS 440 0038 PH OR

70 12 FOR ITEM 67 SHUNT KELTRON MJ-5.97-G OR SHUNT FOR

71 1 FOR ITEM 29 SHUNT2-3 KELTRON MJ-5.97-G OR SEE NOTES

72 1 TRF2443 REV D TI TRF2443 REV D

Notes: 1. USE WATER SOLUBABLE FLUX DURING BOARD ASSEMBLY.

R31 R32 R35 R36 R37 R39 R41 R42 R43 R45 R46 R47 R49 R50 R56 R60 R61 R63 R64 R65 R67 R72 R73 R74 R75

TP9 TP12 TP13 TP14 TP15 TP16 TP17 TP18 TP19 TP20 TP21 TP22 TP23 TP24

W5 W6 W7 W8 W9 W10 W11 W12

STANDOFFS 4-40 3/8 EQUIVALENT

EQUIVALENT JUMPER

EQUIVALENT

BARE BOARDS

2. DNI = DO NOT INSTALL COMPONENT.

3. INSTALL ITEM 71 JP1 SHUNT 2-3

4. RoHS COMPLIANT AND LEAD FREE ASSEMBLY.

SLWU065 – September 2009 List of Tables 25

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GND

+3.3V

GND

+3.3V

GND

+3.3V

GND

+3.3V

GND

+3.3V

GND

CPOUTRXSH4

VTUNERX

SH4

CPOUTTXSH4

VTUNETX SH4

TXLOTEST SH4

RXLOTEST SH4

XPICBBCM

SH4

RXBBCM SH4

RXAGC SH4

DATASH3,4

CLOCKSH3,4

AGCLESH3

XPICAGC SH4

Title

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TRF2443 EVM

1 5

Monday,August 24, 2009

Title

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TRF2443 EVM - SCH

TRF2443 EVM

1 5

Monday,August 24, 2009

Title

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TRF2443 EVM - SCH

TRF2443 EVM

1 5

Monday,August 24, 2009

RX VCO SELECT

TX VCO SELECT

F=2240 MHZ

LBW=100KHZ

F=2720 MHz

LBW=100 kHz

RJ HOPPENSTEIN

Engineer:

Drawn By:

JV SMITH

DC POWER PORT

ISOLATE THESE GNDS

WITH U1-51 AND

C27's GND

ISOLATE THESE GNDS

WITH U1-8 AND

C37

's GND

NOTES:

1. ASSEMBLY MUST BE RoHS COMPLIANT AND LEAD FREE.

2. DNI - DO NOT INSTALL COMPONENT.

120

FB1

120

FB1

56pFC856pF

1 2

BLK

GNDJ2BLK

GND

R52

12K

R52

12K

R56

0 OHM

R56

0 OHM

C11

1uF

C11

1uF

1.0KR11.0K

TP1

BLK

GND

TP1

BLK

GND

C63

4.7pF

C63

4.7pF

1 2

R53

12K

R53

12K

4.02KR34.02K

1 2

TP2

BLK

GND

TP2

BLK

GND

56pFC956pF

1 2

TP3

BLK

GND

TP3

BLK

GND

C61

0.1uF

C61

0.1uF

0 OHMR20 OHM

R61

0 OHM

R61

0 OHM

R51

0 OHM

DNI

R51

0 OHM

DNI

10KR710K

22pFC422pF

4.99KR64.99K

1 2

MS A

DEN

J29

SMA_END_LAUNCH

MS A

DEN

J29

SMA_END_LAUNCH

5234

R5910R59

W11W11

1 2

R5710R57

R60

0 OHM

R60

0 OHM

DEN

J28

SMA_END_LAUNCH

DEN

J28

SMA_END_LAUNCH

5234

C104

47uF

10V+C104

47uF

10V

SHUNTSHUNT

TLV5638-EPU3TLV5638-EP

DIN1SCLK2CS3OUTA

OUTB

VDD

AGND

REF

120

FB15

120

FB15

R63

0 OHM

R63

0 OHM

560pFC6560pF

C62

1000pF

C62

1000pF

1 2

W2W2

1 2

680pFC2680pF

1.24KR41.24K

47pFC347pF

1 2

TP4

BLK

GND

TP4

BLK

GND

R5810R58

SHUNTSHUNT

R54

0 OHM

DNI

R54

0 OHM

DNI

R29

10K

R29

10K

5K POTR85K POT

1 3

TP20

RED

TP20

RED

R30

0 OHM

R30

0 OHM

RED

+3.3VinJ1RED

+3.3Vin

TP21

RED

TP21

RED

5K POTR55K POT

1 3

S001

Physical Description

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4.3 Schematics

26 List of Tables SLWU065 – September 2009

Figure 34. Schematic (1 of 5)

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+3.3V

GND

+3.3V

GND

REFIN SH4

IFOUTPSH4

IFOUTNSH4

IFINP

SH4

IFINN SH4

Title

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TRF2443 EVM

2 5

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Title

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Date: Sheet

TRF2443 EVM - SCH

TRF2443 EVM

2 5

Monday,August 24, 2009

Title

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TRF2443 EVM - SCH

TRF2443 EVM

2 5

Monday,August 24, 2009

RF/IF FREQ REF

INTERFACE

50 OHM

50 OHM DIFF

L12

DNI

L12

DNI

R32

0 OHM

R32

0 OHM

1 2

MSA

D EN

J31

SMA_END_LAUNCH

IFIN

MSA

D EN

J31

SMA_END_LAUNCH

IFIN

5234

R16

49.9

DNI

R16

49.9

DNI

1 2

FL1

140MHz

DNI

FL1

140MHz

DNI

GND1

INP

OUTP

INN

OUTN

GND2

GND3

GND4

GND5

GND6

C102

150

DNI

C102

150

DNI

R75

0 OHM

R75

0 OHM

TC1-1T2TC1-1

514

C54 220pFC54 220pF

C66

0.1uF

C66

0.1uF

R73

0 OHM

R73

0 OHM

1 2

C68 220pFC68 220pF

C53 220pFC53 220pF

R67

0 OHM

R67

0 OHM

MS A

DE N

SMA_END_LAUNCH

EXT_REF

MS A

DE N

SMA_END_LAUNCH

EXT_REF

5234

C97

15pF

C97

15pF

L14

DNI

L14

DNI

SHUNTSHUNT

R15

49.9

DNI

R15

49.9

DNI

1 2

SHUNTSHUNT

82nHL782nH

R66

0 OHM

R66

0 OHM

R11

0 OHM

R11

0 OHM

1 2

C14

0.1uF

C14

0.1uF

R74

0 OHM

R74

0 OHM

82nHL882nH

20MHzY120MHz

VDD

GND

OUT

C103

150

DNI

C103

150

DNI

R72

0 OHM

R72

0 OHM

1 2

C98

15pF

C98

15pF

MSA

D EN

J30

SMA_END_LAUNCH

IFOUT

MSA

D EN

J30

SMA_END_LAUNCH

IFOUT

5234

R64

0 OHM

R64

0 OHM

1 2

L13

DNI

L13

DNI

W12W12

1 2

C69 220pFC69 220pF

W1W1

1 2

R65

0 OHM

R65

0 OHM

1 2

R31

0 OHM

R31

0 OHM

1 2

C15

1000pF

C15

1000pF

R12

49.9

DNI

R12

49.9

DNI

1 2

TC1-1T4TC1-1

514

S002

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Physical Description

SLWU065 – September 2009 List of Tables 27

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Figure 35. Schematic (2 of 5)

TXOUTVCC

GND

+3.3V

GND

RXINPSH4

RXINNSH4

TXOUTPSH4

TXOUTNSH4

CLOCK SH1,4

DATA SH1,4

LE SH4

RDBK SH4

AGCLE SH1

Title

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TRF2443 EVM

3 5

Monday,August 24, 2009

Title

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Date: Sheet

TRF2443 EVM - SCH

TRF2443 EVM

3 5

Monday,August 24, 2009

Title

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TRF2443 EVM - SCH

TRF2443 EVM

3 5

Monday,August 24, 2009

50 OHM DIFF

USB INTERFACE

50 OHM

STANDOFFS AND THEIR SCREWS

200 OHM DIFF

TXOUTVCC

MT8MT8

C95

4.7pF

DNI

C95

4.7pF

DNI

C20

47pF

C20

47pF

TP6

RED

TP6

RED

MT2MT2

R23

100

DNI

R23

100

DNI

1 2

SCREW P

ANHEAD #4-40 x 3/8"

SCREW P

ANHEAD #4-40 x 3/8"

TP23

RED

TP23

RED

R18

49.9

R18

49.9

1 2

C94

4.7pF

DNI

C94

4.7pF

DNI

FT245RLU2FT245RL

USBDM16USBDP15VCCIO4NC18RESET19NC224OSCI27OSCO283V3OUT17AGND25GND7GND18GND21TEST

PWREN

12WR14

6D59D610

TXE

D42D3

RXF

VCC

SCREW PANHEAD #4-40 x 3/8"SCREW PANHEAD #4-40 x 3/8"

USB_B_S_F_B_TH

USB_CONN

USB_B_S_F_B_TH

USB_CONN

VCC

-DATA

+DA

GND

GND15GND2

C22

100pF

C22

100pF

C71

100pF

C71

100pF

C52

0.1uF

C52

0.1uF

C17

.01uF

C17

.01uF

ADT4-1TT3ADT4-1T

516

C24 100pFC24 100pF

C21

0.1uF

C21

0.1uF

L15

39nH

L15

39nH

1 2

560nH

DNI

560nH

DNI

BLUED1BLUE

MSA

E N

RXINP

MSA

E N

RXINP

5234

SCREW PANHEAD #4-40 x 3/8"SCREW PANHEAD #4-40 x 3/8"

120

FB2

120

FB2

R68

0 OHM

R68

0 OHM

560nH

DNI

560nH

DNI

R22

100

DNI

R22

100

DNI

1 2

TP8

RED

TP8

RED

R14

15K

R14

15K

TP5

RED

TP5

RED

C23 220pFC23 220pF

L16

39nH

L16

39nH

1 2

MT6MT6

SCREW PANHEAD #4-40 x 3/8"SCREW PANHEAD #4-40 x 3/8"

C51

0.1uF

C51

0.1uF

R19

0 OHM

R19

0 OHM

C65

0.1uF

C65

0.1uF

TP7

RED

TP7

RED

0.1uFC10.1uF

C25 220pFC25 220pF

C19

47pF

C19

47pF

C70 220pFC70 220pF

ADT1-1T1ADT1-1

516

MT4MT4

C18

0.1uF

C18

0.1uF

MSA

D EN

TXOUTP

MSA

D EN

TXOUTP

5234

S003

Physical Description

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List of Tables28 SLWU065 – September 2009

Figure 36. Schematic (3 of 5)

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GND

+3.3V

GND

+3.3V

GND

+3.3V

GND

+3.3V

GND

+3.3V

GND

+3.3V

GND

TXLOTESTSH1

VTUNETXSH1

CPOUTTXSH1

REFIN SH2

TXBBQN SH5

TXBBQP

SH5

TXBBIN

SH5

TXBBIP SH5

XPICBBQNSH5

XPICBBQPSH5

XPICBBINSH5

XPICBBIP

SH5

XPICINN

SH5

XPICINP

SH5

RXBBQN SH5

RXBBQP SH5

RXBBIN SH5

RXBBIP SH5

CPOUTRX

SH1

VTUNERX SH1

RXLOTESTSH1

XPICOUTNSH5

XPICOUTPSH5

IFINNSH2

IFINPSH2

RXBBCM SH1

XPICBBCMSH1

XPICAGC SH1

RXAGCSH1

RDBKSH3

IFOUTPSH2

IFOUTNSH2

RXINPSH3

RXINNSH3

CLOCKSH1,3

LESH3

TASH1,3

TXOUTPSH3

TXOUTNSH3

Title

Size Document Number Rev

Date: Sheet

TRF2443 EVM - SCH

TRF2443 EVM

4 5

Tuesday,August 25, 2009

Title

Size Document Number Rev

Date: Sheet

TRF2443 EVM - SCH

TRF2443 EVM

4 5

Tuesday,August 25, 2009

Title

Size Document Number Rev

Date: Sheet

TRF2443 EVM - SCH

TRF2443 EVM

4 5

Tuesday,August 25, 2009

MXRVCC

C74

0.1uF

C74

0.1uF

C30

1000pF

C30

1000pF

1 2

C67

0.1uF

C67

0.1uF

120

FB1

120

FB1

TP24

RED

TP24

RED

JP1

TXPWD

JP1

TXPWD

R77

590

R77

590

R341KR34

C33

0.1uF

C33

0.1uF

GREEND2GREEN

C100 470pF

DNI

C100 470pF

DNI

R331KR33

C28

4.7pF

C28

4.7pF

TRF2443 SOCKET QFPU1TRF2443 SOCKET QFP

IFOUTN62IFOUTP63RDBKSPI64RXAGC65GND66RXINP68RXINN69GNDRX70GNDRX71CLKSPI73DATASPI74VCCSPI75VCCTX76TXOUTP77TXOUTN78GNDTX

TXPWD

MIXINDN

MIXINDP

PWRDET

LOCKDET

TXLOTEST

VCCVCOTX

VTUNETX

CPOUTTX

VCCPLLTX

VCCDIGTX

VCCREF

REFIN

GNDREF

TXBBQN

TXBBQP

TXBBIN

TXBBIP

GNDXPIC

XPICBBCM

XPICBBQN

XPICBBQP

XPICBBIN

XPICBBIP

VCCXPIC

XPICAGC

VCCXPIC2

XPICINN

XPICINP

TEMPOUT

LDCAP

RXBBCM

RXBBQN

RXBBQP

RXBBIN

RXBBIP

VCCDIGRX

XPICOUTP

VCCIFIN

IFINP

IFINN

VCCPLLRX

CPOUTRX

VTUNERX

VCCVCORX

RXLOTEST

XPICOUTN

GNDIFIN2

GND

GNDRX3

VCCRX

LESPI

GND

GNDTX2

GNDVCOTX

GNDPLLTX

GND

GNDIFIN

GNDVCORX

GNDPLLRX

GNDDIGRX

GNDDIGTX

GND

MH182MH283MH384MH4

PWRPAD

C101 470pF

DNI

C101 470pF

DNI

120

FB4

120

FB4

120

FB9

120

FB9

C35

4.7pF

C35

4.7pF

C36

0.1uF

C36

0.1uF

120

FB12

120

FB12

120

FB13

120

FB13

GREEND3GREEN

120

FB7

120

FB7

C31

1000pF

C31

1000pF

1 2

C26

1000pF

C26

1000pF

TP22

RED

TP22

RED

C37

4.7pF

C37

4.7pF

120

FB6

120

FB6

SHUNT 2-3SHUNT 2-3

R69

0 OHM

R69

0 OHM

120

FB3

120

FB3

C32

1000pF

C32

1000pF

1 2

120

FB8

120

FB8

C50

1000pF

C50

1000pF

1 2

C73

0.1uF

C73

0.1uF

120

FB5

120

FB5

C29

0.1uF

C29

0.1uF

C72

0.1uF

C72

0.1uF

C34

1000pF

C34

1000pF

C75

1000pF

C75

1000pF

120

FB10

120

FB10

68nHL468nH

68nHL368nH

C27

4.7pF

C27

4.7pF

1 2

TP9

RED

TP9

RED

120

FB14

120

FB14

S004

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Physical Description

SLWU065 – September 2009 List of Tables 29

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Figure 37. Schematic (4 of 5)

GND

+3.3V

TXBBIPSH4

TXBBINSH4

TXBBQPSH4

TXBBQNSH4

RXBBIPSH4

RXBBINSH4

RXBBQPSH4

RXBBQNSH4

XPICBBIPSH4

XPICBBINSH4

XPICBBQPSH4

XPICBBQNSH4

XPICINPSH4

XPICINNSH4

XPICOUTPSH4

XPICOUTNSH4

Title

Size Document Number Rev

Date: Sheet

TRF2443 EVM - SCH

TRF2443 EVM

5 5

Monday,August 24, 2009

Title

Size Document Number Rev

Date: Sheet

TRF2443 EVM - SCH

TRF2443 EVM

5 5

Monday,August 24, 2009

Title

Size Document Number Rev

Date: Sheet

TRF2443 EVM - SCH

TRF2443 EVM

5 5

Monday,August 24, 2009

50 OHM

75 OHM DIFF

50 OHM

MSA

D EN

J14

SMA_THVT

MSA

D EN

J14

SMA_THVT

5234

SHUNTSHUNT

C58 220pFC58 220pF

R47

0 OHM

R47

0 OHM

W6W6

TTWB-16-BL

163

TTWB-16-BL

163

TP17

RED

TP17

RED

R50

0 OHM

R50

0 OHM

MSA

D EN

J20

SMA_END_LAUNCH

TXBBQP

MSA

D EN

J20

SMA_END_LAUNCH

TXBBQP

5234

C96

15pF

C96

15pF

C42

2.2uF

C42

2.2uF

SHUNTSHUNT

MSA

D EN

J15

SMA_END_LAUNCH

RXBBI

MSA

D EN

J15

SMA_END_LAUNCH

RXBBI

5234

R78

100

R78

100

1 2

R5575DNI

1 2

TP12

RED

TP12

RED

W7W7

W4W4

T10

TC1.5-52T

T10

TC1.5-52T

514

SHUNTSHUNT

MSA

D EN

J23

SMA_END_LAUNCH

TXBBQN

MSA

D EN

J23

SMA_END_LAUNCH

TXBBQN

5234

MSA

E N

J26

SMA_THVT

MSA

E N

J26

SMA_THVT

5234

TP18

RED

TP18

RED

82nHL682nH

SHUNTSHUNT

C57 220pFC57 220pF

C41 1uFC41 1uF

MSA

D EN

J19

SMA_THVT

MSA

D EN

J19

SMA_THVT

5234

TP15

RED

TP15

RED

R43

0 OHM

R43

0 OHM

MSA

D EN

J24

SMA_END_LAUNCH

RXBBQ

MSA

D EN

J24

SMA_END_LAUNCH

RXBBQ

5234

MSA

D EN

J18

SMA_THVT

MSA

D EN

J18

SMA_THVT

5234

TP13

RED

TP13

RED

MSA

D EN

J16

SMA_END_LAUNCH

XPICI

MSA

D EN

J16

SMA_END_LAUNCH

XPICI

5234

W8W8

82nHL582nH

C44 1uFC44 1uF

W10W10

R35

0 OHM

R35

0 OHM

SHUNTSHUNT

W5W5

MSA

E N

J32

SMA_END_LAUNCH

XPICIN

MSA

E N

J32

SMA_END_LAUNCH

XPICIN

5234

SHUNTSHUNT

C48

2.2uF

C48

2.2uF

TP19

RED

TP19

RED

C99

15pF

C99

15pF

R79

100

R79

100

1 2

TTWB-16-BL

163

C46

2.2uF

C46

2.2uF

MSA

D EN

J25

SMA_END_LAUNCH

XPICQ

MSA

D EN

J25

SMA_END_LAUNCH

XPICQ

5234

C39

2.2uF

C39

2.2uF

TP16

RED

TP16

RED

C43

2.2uF

C43

2.2uF

R46 0 OHMR46 0 OHM

W3W3

C64

0.1uF

C64

0.1uF

C56 220pFC56 220pF

R6275DNI

1 2

MSA

D EN

J22

SMA_THVT

MSA

D EN

J22

SMA_THVT

5234

C38 1uFC38 1uF

TTWB-16-BL

163

C40

2.2uF

C40

2.2uF

C55 220pFC55 220pF

TP14

RED

TP14

RED

C45 1uFC45 1uF

R37 0 OHMR37 0 OHM

R39

0 OHM

R39

0 OHM

SHUNTSHUNT

R45 0 OHMR45 0 OHM

MSA

E N

J27

SMA_THVT

MSA

E N

J27

SMA_THVT

5234

R41

0 OHM

R41

0 OHM

C49

2.2uF

C49

2.2uF

D EN

J12

SMA_END_LAUNCH

TXBBIP

D EN

J12

SMA_END_LAUNCH

TXBBIP

5234

MSA

D EN

J13

SMA_THVT

MSA

D EN

J13

SMA_THVT

5234

SHUNTSHUNT

C47

2.2uF

C47

2.2uF

C60 220pFC60 220pF

R36 0 OHMR36 0 OHM

MSA

E N

J17

SMA_END_LAUNCH

TXBBIN

MSA

E N

J17

SMA_END_LAUNCH

TXBBIN

5234

C59 220pFC59 220pF

R49

0 OHM

R49

0 OHM

MSA

E N

J33

SMA_END_LAUNCH

XPICOUT

MSA

E N

J33

SMA_END_LAUNCH

XPICOUT

5234

W9W9

R42

0 OHM

R42

0 OHM

TC1.5-52TT9TC1.5-52T

514

MSA

D EN

J21

SMA_THVT

MSA

D EN

J21

SMA_THVT

5234

S005

Physical Description

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List of Tables30 SLWU065 – September 2009

Figure 38. Schematic (5 of 5)

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