Simoco SRM9000, SRM9020, SRM9025, SRM9030, SRM9010 Service Manual

Page 1
SRM 9000 Series
FM VHF/UHF Mobile Radio Transceiver
SERVICE MANUAL
TNM-M-E-0001
October 2000
Draft D
abcde
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Revision History
Revision Editor Date Revision Details
1.0 J. McB 30/03/2000 Initial Release Draft A A.G. June 2000 Partial re-format to Simoco Europe standard. Draft B P.N. 04/07/2000 Rev6 Schematics, UW Band & Appendix
updates
Draft C P.N. 31/07/2000 Still in progress – not to be released!
Updated with E0,AC,TK,UW rev7 schematics & layouts
Revised Block Diagram.
9010 mic, corrected alignment instructions Draft C5 A.G. 17-07-2000 Update to Draft C from Simoco Pacific. Draft D A.G. 27-09-2000 Amended text: Variants; Tech Spec & App B.
List of Associated Publications
Document No. Description Issued By
TNM-I-E-0005 SRM9000 Series Installation Instructions Simoco Europe TNM-U-M-0001 SRM9010 PMR/Trunk Operating Instructions Simoco Europe TNM-U-E-0013 SRM9020 PMR Operating Instructions Simoco Europe TNM-U-E-0014 SRM9025 PMR Operating Instructions Simoco Europe TNM-U-E-0015 SRM9025 Trunk Operating Instructions Simoco Europe TNM-U-E-0003 SRM9030 PMR Operating Instructions Simoco Europe TNM-U-E-0004 SRM9030 Trunk Operating Instructions Simoco Europe
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Table of Contents
1. INTRODUCTION............................................................................................................1
1.1 GENERAL........................................................................................................................1
1.2 SCOPE ...........................................................................................................................1
1.3 DESCRIPTION..................................................................................................................1
1.4 PRODUCT VARIANTS AND FACILITIES ...............................................................................2
1.5 GLOSSARY......................................................................................................................5
2. SERVICE PHILOSOPHY ...............................................................................................6
2.1 SERVICE CONCEPT .........................................................................................................6
2.2 WARRANTY.....................................................................................................................6
2.2.1 Service within and out of warranty........................................................................6
2.2.2 Ancillary Items.......................................................................................................6
2.3 SOFTWARE POLICY.........................................................................................................6
2.4 ADJUSTMENT AND ALIGNMENT.........................................................................................7
2.5 TECHNICAL SPECIFICATION..............................................................................................8
2.5.1 General .................................................................................................................8
2.5.2 Transmitter............................................................................................................9
2.5.3 Receiver..............................................................................................................10
2.5.4 Signalling.............................................................................................................11
2.5.5 Environmental.....................................................................................................12
3. TECHNICAL DESCRIPTION .......................................................................................13
3.1 RECEIVER.....................................................................................................................13
3.1.1 Front End Filters and RF Amplifier......................................................................13
3.1.2 First Mixer and IF Section...................................................................................13
3.1.3 Quadrature Demodulator....................................................................................15
3.1.4 Receiver Audio Processing.................................................................................15
3.2 TRANSMITTER...............................................................................................................15
3.2.1 Drivers and PA Stages........................................................................................15
3.2.2 Power Control .....................................................................................................17
3.2.3 Antenna Changeover and Harmonic Filter..........................................................17
3.2.4 Transmitter Audio Processing.............................................................................17
3.3 FREQUENCY SYNTHESISER............................................................................................19
3.3.1 General ...............................................................................................................19
3.3.2 PLL......................................................................................................................19
3.3.3 VCO ....................................................................................................................19
3.3.4 Negative Bias Generator and Loop Filter............................................................19
3.3.5 Phase Modulator.................................................................................................19
3.3.6 Reference Oscillator ...........................................................................................20
3.4 CONTROL .....................................................................................................................20
3.4.1 DSP and FPGA...................................................................................................20
3.4.2 DSP Clock Oscillator...........................................................................................22
3.5 MEMORY ......................................................................................................................22
3.5.1 Multiplexer...........................................................................................................22
3.6 POWER SUPPLIES.........................................................................................................22
3.6.1 Power On Function .............................................................................................22
3.6.2 Power Supplies...................................................................................................23
4. ALIGNMENT ................................................................................................................25
4.1 TEST EQUIPMENT ....................................................................................................25
4.2 TEST SET UP .................................................................................................................27
4.2.1 COMMS Set up...................................................................................................28
4.2.2 Radio Preparation...............................................................................................29
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4.2.3 ALIGNMENT PROCEDURE...............................................................................30
5. REPLACEABLE PARTS..............................................................................................39
6. CIRCUIT DIAGRAMS AND PARTS LIST....................................................................41
6.1 LIST OF ILLUSTRATIONS.................................................................................................41
List of Figures
Figure 3-1 VHF/UHF Receiver Block Diagram .......................................................................14
Figure 3-2 VHF/UHF Transmitter Block Diagram ...................................................................16
Figure 3-3 VHF/UHF Synthesiser, Block Diagram.................................................................. 18
Figure 3-4 VHF/UHF Control Block Diagram .......................................................................... 21
Figure 4-1 SRM9000 Programming & Alignment Breakout Box ............................................. 26
Figure 4-2 SRM9000 Speaker Output Breakout Box.............................................................. 26
Figure 4-3 Test Set up ............................................................................................................ 27
Figure 5-1 Replaceable Parts ................................................................................................. 39
Figure 5-2 Band-Specific Parts ...............................................................................................40
Figure 6-1 SRM9000 Block Diagram ...................................................................................... 42
Figure 6-2 DSP and FGPA Schematic.................................................................................... 43
Figure 6-3 Power Supply Schematic....................................................................................... 44
Figure 6-4E0 Receiver Circuit Schematic ............................................................................... 45
Figure 6-5E0 Transmitte Circuit Schematic ............................................................................ 49
Figure 6-6E0 Synthesiser - VCO Schematic........................................................................... 53
Figure 6-7E0 Synthesiser - PLL Schematic ............................................................................57
Figure 6-8 A/D Converter Schematic ...................................................................................... 61
Figure 6-9 D/A Multiplexer Schematic ....................................................................................62
Figure 6-10 I/O Connections Schematic ................................................................................. 63
Figure 6-11 SRM9000 PCB Layout, Top (1/2)........................................................................ 64
Figure 6-12 SRM9000 PCB Layout, Top (2/2)........................................................................ 65
Figure 6-13 SRM9000 PCB Layout, Bottom (1/2)................................................................... 66
Figure 6-14 SRM9000 PCB Layout, Bottom (2/2)................................................................... 67
List of Tables
Table 1-1 Common Features for All Variants............................................................................ 2
Table 1-2 Conventional-PMR Variants .....................................................................................3
Table 1-3 Trunked Variants ......................................................................................................4
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1. INTRODUCTION
1.1 General
The SRM9000 series of FM mobile radio transceivers is designed for conventional PMR and Trunked operation in VHF and UHF radio systems.
The system is available in a number of functional variants. Each variant uses the standard SRM9000 mobile transceiver, which is software configured for different control ancillaries. The software configuration together with the type of controller (Basic or Enhanced microphone, Handset, or Alphanumeric Control Head) determines the radio features for the different variants as follows.
PMR/Trunked
Basic Telemetry Transceiver No Display or Control Head SRM9005 Low Range Version with Basic Control Microphone SRM9010 Mid Range Version with Enhanced Control Microphone SRM9020 Handset Version with Alpha Display Handset SRM9025 System Level Remote Version with Alpha Display Handset SRM9030
1.2 Scope
This manual provides technical specifications, description and servicing details for the SRM9000 series of mobile radio transceivers together with the related microphones and control heads.
Unless specifically stated otherwise, the text and illustrations refer to all versions in the series.
1.3 Description
The design concept utilises wide band analogue techniques for RF transmit and receive circuitry with digital signal processing for narrow and wideband modulation and demodulation. Electronic tuning is used throughout the mobile to eliminate manual tuning and level adjustment.
A Digital Signal Processor (DSP) and a Field Programmable Gate Array (FPGA) are used with other dedicated devices in the SRM9000 to perform the following functions under software control:
• Frequency Synthesis of all operating frequencies.
• Modulation and demodulation of 12.5/20/25kHz FM signals on a per channel basis.
• Modem functionality for specified data modulation schemes.
• Filtering, pre-emphasis, de-emphasis, limiting, compression, muting, CTCSS, Selcall
or any other frequency or level dependent signal modification.
• Serial communications with the Control Ancillaries and Alignment Tool.
• Tuning Control data for TX and RX.
The SRM9000 Transceiver comprises a rugged extruded aluminium sleeve which houses a single printed circuit board assembly and provides all heatsinking requirements. The sleeve housing is closed at each end by high-impact plastic end caps; all cable ports and mechanical interfaces are sealed against moisture and dust ingress.
The PCB assembly comprises a single, multi-layer PCB containing all the RF and control circuitry. The PCB seats on an extruded aluminium tray that slides into the outer aluminium sleeve where it is secured with screws accessed from the outside of the case. Provision is made under the main PCB tray assembly for additional hardware options.
There are two installation options available for the SRM9000. The outer aluminium extrusion has side flanges which allow the mobile to be bolted directly to any flat surface in the vehicle. A quick release cradle is also available.
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1.4 Product Variants And Facilities
Product variants and facilities are detailed in Table 1-1, Table 1-2 and Table 1-3
Table 1-1 Common Features for All Variants
Feature: Model: 9005 9010 9020 9025 9030
Control
None or Serial or Parallel if Option Brd
Display Microphone
Display Microphone
Display Handset
Control Unit with Microphone
Display
- 1 digit LED 6 digit LCD 2x12 char LCD 8x14 char graphic LCD
Adjustable Display Illumination
- Yes Yes - Yes
Buttons and Keys
- Vol Up/Down
Select 1 Function
Vol Up/Down 4 Function
Vol Up/Down 6 Function
12 Keypad Send/End Menu + Scroll
6 Function
Speaker
- Yes Yes Yes Yes
Frequency Bands
66-88MHz, 136-174MHz, 174-235MHz, 335-400MHz,
400-450MHz, 440-500MHz, 470-530MHz
Channel Spacing
12.5/20/25kHz
Menu driven
- - - Yes Yes
Customisable Menus
- - - Yes Yes
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Table 1-2 Conventional-PMR Variants
Feature: Model 9005 9010 9020 9025 9030
Channels
10 10 100 1000 1000
Signalling
CTCSS / DCS CTCSS / DCS
ANI
CTCSS / DCS Selcall
CTCSS / DCS Selcall + Phonebook
CTCSS / DCS Selcall + Phonebook
Attack Operation
- Yes Yes Yes Yes
DTMF Encode
- - - Yes Yes
PTT Limit Timer with warning beeps
Yes
PTT Inhibit on Busy
Yes
Voting
Yes
Scanning
8 fixed groups 8 fixed groups 7 fixed, 1
user
4 fixed, 4 user 4 fixed, 4 user
Priority Scanning
Yes
Nuisance Delete
- - - Yes Yes
Multiax
Yes
Mod/Demod Fctn
Option - - - -
Ignition Sense Input
Yes
VOX Handsfree
Option Option Option Yes Option
General External IO
Option Option Option Option Option
600 Ohm Interface
Option Option Option Option Option
Internal GPS
Option Option Option Option Option
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Table 1-3 Trunked Variants
Feature: Model: 9005 9010 9020 9025 9030
Channels
1024 channels in 50 sub-bands
Frequency Bands
Specifically : 136-174MHz, 400-450MHz (and possible in all other bands)
Background Hunt and Vote-Now
Yes Yes Yes Yes Yes
MPT1343 dialstrings
Yes Yes Yes Yes Yes
ANN Numbering
- Yes Yes Yes Yes
Memories
10 10 100 250 250
User Phonebook
- - - Yes Yes
Alpha Status List
- - - Yes Yes
SDM/EDMs
Yes - - Yes Yes
NPDs
Yes - - Yes Yes
Mod/Demod Fctn
Option - - - -
Attack Operation
- Yes Yes Yes Yes
Ignition Sense Input
Yes Yes Yes Yes Yes
VOX Handsfree
Option Option Option Yes Option
General External IO
Option Option Option Option Option
600 Ohm Interface
Option Option Option Option Option
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1.5 Glossary
The following specific abbreviations are used in this handbook:
ADC Analog to Digital Converter AFC Automatic Frequency Control AGC Automatic Gain Control CODEC COde (Analog to Digital Converter) / DECode (Digital to Analog
Converter) integrated circuit. CTCS Continuous Tone Controlled Squelch System DAC Digital to Analog Converter DSP Digital Signal Processor FPGA Field Programmable Gate Array I The In phase baseband signal produced by the internal “I” mixer of
demodulator U401. PLL Phase Locked Loop PSD Peak System Deviation PMR Private Mobile Radio Q The Quadrature baseband signal produced by the internal “Q” mixer of
demodulator U401. This signal is 90° out of phase with the I signal. RSSI Receiver Signal Strength Indicator TCXO Temperature Compensated Crystal Oscillator
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2. SERVICE PHILOSOPHY
2.1 Service Concept
The SRM9000 series has been designed to provide low cost trunked and non-trunked analogue, mobile transceivers, using common core electronics, software and interfacing. It is a requirement that once the customer has purchased equipment, Simoco can follow this by providing an ongoing, high level of customer support together with a competitive and professional servicing activity.
There are three levels of service available:
LEVEL ACTIVITY RECOMMENDED
SPARES
RECOMMENDED TEST EQUIPMENT
1 Replacement of complete
transceiver/antenna/fuses Reprogramming
Antennas, Fuses Ancillaries
Multimeter P.C. Radio software Programmer
2 Replacement of PCB or
mechanical component replacement, Cosmetic repair
Listed in Level 2 Spares Schedule
As above + service aids and test equipment
3 Repair by PCB or mechanical
component replacement, Cosmetic repair.
Repair of Radio PCB to component level in CRU.
Listed in Level 2 Spares Schedule
Radio PCB components only available to CRU.
As above + service aids and test equipment
2.2 Warranty
Initially, the normal 12-month warranty will apply to all radios and ancillaries.
2.2.1 Service within and out of warranty
The field Service Level for the SRM9000 mobile is LEVEL 2, PCB replacement. LEVEL 2 service, PCB (only) and case part replacement, will be carried out in field repair
workshops, or the Central Repair Unit (CRU) if required. LEVEL 3 Service (Radio PCB component level repair) will ONLY be carried out in the Central
Repair Unit. For this, the complete radio must be returned to the CRU. A PCB replacement program may be offered by the CRU in some countries.
2.2.2 Ancillary Items
All ancillary items (except remote alphanumeric control head) are Level 1 service. These items should be replaced if faulty; they are non-repairable, and non-returnable to the CRU.
2.3 Software Policy
Software provided by Simoco Europe shall remain the Company's property, or that of its licensors and the customer recognises the confidential nature of the rights owned by the Company.
The customer is granted a personal, non-exclusive, non-transferable limited right of use of such software in machine-readable form in direct connection with the equipment for which it was supplied only. In certain circumstances the customer may be required to enter into a separate licence agreement and pay a licence fee, which will be negotiated at the time of the contract.
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The customer undertakes not to disclose any part of the software to third parties without the Company's written consent, nor to copy or modify any software. The Company may, at its discretion, carry out minor modifications to software. Major modifications may be undertaken under a separate agreement, and will be charged separately.
All software is covered by a warranty of 3 months from delivery, and within this warranty period the Company will correct errors or defects, or at its option, arrange free-of-charge replacement against return of defective material.
Other than in clause above, the Company makes no representations or warranties, expressed or implied such, by way of example, but not of limitation regarding merchantable quality or fitness for any particular purpose, or that the software is error free, the Company does not accept liability with respect to any claims for loss of profits or of contracts, or of any other loss of any kind whatsoever on account of use of software and copies thereof.
2.4 Adjustment and Alignment
There are no internal adjustments in the SRM9000. Re-programming and alignment is done with the unit installed using software tools. For servicing, the radio PCB can be operated as a stand alone unit provided a temporary heatsink is fitted under the transmitter PA module for transmitter servicing and that the receiver audio output be kept below 100mW for receiver servicing. Radio performance is not adversely affected by operating without the outer sleeve but there will be some change to performance when the metal cans are removed from the RF sections of the board.
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2.5 Technical Specification
2.5.1 General
Operation Single or two frequency simplex
Modulation
Frequency modulation (phase) F3E
Supply Voltage Requirements
10.8 to 16.2V DC negative earth (13.8V nom.)
Current Consumption
Mobile With Control Mic
Mobile With Alpha Mic
Mobile With Alpha Head
Radio off
≤ 5mA ≤ 5mA ≤ 5mA
Standby(squelched):
≤ 200mA ≤ 210mA ≤ 210mA*
RX Audio O/P: 300mW (not bridged)
≤ 450mA ≤ 470mA ≤ 500mA *
4.0W
≤ 1200mA ≤ 1220mA ≤ 1250mA*
Transmit:
VHF UHF
25W
≤ 6.5A ≤ 7.5A
1W
≤ 2.0A ≤ 2.5A
*Add 250mA to current consumption for Alpha Head with backlight on.
Frequency Bands
Band Frequency Range Band Frequency Range
E0 66 - 88 MHz R1 335 - 375MHz
AC 136 - 174MHz R2 370 - 400MHz
K1 174 - 208MHz TK 400 - 450MHz
KM 208 -245MHz UW 440 - 500MHz
WR 470 - 530MHz
Switching Bandwidth
Radio covers the complete band without retuning
Channel Spacing
12.5 / 20 / 25kHz
Frequency Stability
Better than ±2.5 ppm
Operating Temperature
-30°C to +60°C ambient
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Dimensions (mm) Height Width Depth
Transceiver
9030 Alpha Control Head
9025 Alpha Display Handset
9020 Alpha Mic
9010/30 Microphone
56 65
165
96 82
170 188
52 68 57
165
45 30 44 38
Weight
Transceiver 1.8kg
2.5.2 Transmitter Power Output
High Power: 25W Adjustable down to 1W Low Power: 1W Adjustable up to 25W
Transmitter Rise Time
Less than 40 ms
Duty Cycle
1 minute transmit : 4 minutes receive
Spurious Emissions
< 0.25uW (9kHz to 1GHz) < 1.0uW (1GHz to 4GHz))
Residual Noise
60% deviation. CCITT Weighted 25kHz Channel Spacing >45dB
12.5kHz Channel Spacing >40dB
Audio Frequency Distortion
≤ 3% (at 60% deviation)
Audio Frequency Response
300 to 3000Hz* +1dB -3dB Figures apply for a flat audio signal or a 6dB/octave pre-emphasis curve (*2550Hz 12.5kHz channel spacing)
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2.5.3 Receiver
Sensitivity
≤ 0.3µV PD (-117.5dBm) for 12dB SINAD ≤0.4µV PD for 20 dB Quieting.
Adjacent Channel Selectivity
25kHz Channel Spacing >73dB
12.5kHz Channel Spacing > 65dB
Intermodulation Rejection
ETS Method > 65dB AS4295 Method> 70dB
Spurious Response Rejection
> 75dB
Blocking
> 95dB ( ±1MHz)
Conducted Spurious Emissions
< 2nW (-57dBm) 9kHz to 4GHz
FM Residual Noise (CCITT weighted)
25kHz : > 45dB
12.5kHz : > 40dB
Mute Range
Typically 6 to 25dB SINAD Typical setting 10 to 12dB SINAD
Mute Response Time
<30mS (no CTCSS) add 200mS for CTCSS
Voting Response Time
tba
Audio Distortion
< 3% (1W / 4ohm, 60% modulation) <5% (4W / 4ohm, 60% modulation)
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Audio Frequency Response
350 to 3000Hz*, +1dB to -3dB (no CTCSS) 360 to 3000Hz*, +1dB to -3dB (with CTCSS) Figures apply for a flat audio response or a 6dB/octave de-emphasis curve (*2550Hz for 12.5kHz channel spacing)
2.5.4 Signalling
CTCSS
38 standard CTCSS tones are supported plus any non prescribed tones in the range 67 to
241.8Hz.
Frequency (Hz) Frequency (Hz) Frequency (Hz)
67.0 Hz
71.9 Hz
74.4 Hz
77.0 Hz
79.7 Hz
82.5 Hz
85.4 Hz
88.5 Hz
91.5 Hz
94.8 Hz
97.4 Hz
100.0 Hz
103.5 Hz
107.2 Hz
110.9 Hz
114.8 Hz
118.8 Hz
123.0 Hz
127.3 Hz
131.8 Hz
136.5 Hz
141.3 Hz
146.2 Hz
151.4 Hz
156.7 Hz
250.3 Hz
162.2 Hz
167.9 Hz
173.8 Hz
179.9 Hz
186.2 Hz
192.8 Hz
203.5 Hz
210.7 Hz
218.1 Hz
225.7 Hz
233.6 Hz
241.8 Hz
CTCSS Encoder Tone Deviation
Channel Spacing
Deviation
25 kHz 20 kHz
12.5 kHz
500 to 750 Hz 400 to 600 Hz 250 to 375 Hz
SELCALL
The following tone sets are supported: ST-500: CCIR, EEA, ZVEI, DZVEI, EIA
ST500/CML: ZVEI_3, DZVEI CML: CCIR, EEA, ZVEI SIGTEC: CCIR, CCIRH, EEA, ZVEI_1, XVEI_2, ZVEI_3, NATEL, EIA SEPAC: CCIR, EEA, ZVEI_1, ZVEI_2, ZVEI_3, EIA Tone period: 20mS, 33mS 40mS, then 10mS steps to 2.55S.
Selcall Tone Deviation
6dB/octave pre-emphasis response, relative to 70% PSD at 2.4 kHz
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DTMF Tone Frequencies Tones 0-9, *, #. Tones 1209 Hz 1336 Hz 1477 Hz
697 Hz 770 Hz 852 Hz 941 Hz
1 4 7 *
2 5 8 0
3 6 9 #
2.5.5 Environmental Operational Temperature
-30°C to +60°C
Storage Temperature
-40°C to +80°C
Vibration Specification
IEC 68-2-6 with additional frequency acceleration from 60 – 150 Hz
Cold
IEC 68-2-1 Test 5 hours at -10°C
Dry Heat
IEC 68-2-2 Test 5 hours at +55°C
Damp Heat Cycle
IEC 68-2-30 Test 2 cycles at +40°C
Product Sealing
Main Radio Unit: IEC529 rating IP54 Microphones: IEC529 rating IP54 Remote Control Head IEC529 rating IP54
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3. Technical Description
3.1 Receiver
Refer Figure 3-1
3.1.1 Front End Filters and RF Amplifier
The receiver input signal from the antenna passes through the antenna filter comprising L10, L11, L12 and associated tuning capacitors. With the mobile in receive mode, diodes D3, D4 and D5 in the antenna switch are reverse biased allowing the receiver input signal to be coupled through to the front end with minimal loss. The overall insertion loss of the antenna filter and switch is approximately 0.8dB. Front end selectivity is provided by varactor tuned bandpass filters at the input and output of the RF amplifier.
Front end tuning voltages are derived from the alignment data stored in the radio. The DSP processes this data to optimise front end tuning relative to the programmed channel frequencies which may be changed at any time without re-aligning the radio.
To achieve the required varactor tuning range an arrangement of positive and negative bias power supplies is used to provide a total bias across the varactors of up to 14.0VDC. A fixed
2.5V positive bias derived from the 5.0V supply and voltage divider R425/426 is applied to the cathodes of the varactor diodes. The negative bias supply originates at the DSP/FPGA as a composite digital tuning signal (FE TUNE) containing the data for the four front end tuning values TUNE 1 to 4 for the particular channel frequency selected. The level is dependent on channel frequency and tuning and varies between +0.1 and +3.0V. This signal then passes through buffer U901A and level translator Q900 to Q903 where it is converted to a high level (-
0.5 to -11.5V) negative equivalent of the original signal. The -12.0V rail of the level translator is generated by U300B/C with D304 to D306 providing the required voltage multiplier effect. The high level negative signal is then split into the four individual front end negative DC values under software control by multiplexer U902 and associated storage capacitors C904 to C907 before being applied to the anodes of the front end tuning varactors.
The RF amplifier stage comprises a low noise transistor amplifier (Q400) which is compensated to maintain good linearity across the required frequency bands and temperature range. This provides excellent intermodulation and blocking performance across the full operating range. The gain of this stage is typically 17dB for both UHF and VHF versions.
3.1.2 First Mixer and IF Section
The output of the last front end bandpass filter is coupled into single balanced mixer T400/D413 which converts the RF signal to an IF frequency of 45MHz. The local oscillator injection level is typically +8dBm at T400 pin 1 with low side injection used for UHF and high side for VHF.
Following the mixer is IF amplifier Q401 which provides approximately 15dB of gain and in association with its output circuitry presents the required load conditions to the 4 pole 45MHz crystal filter Z401/402.
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Figure 3-1 VHF/UHF Receiver Block Diagram
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3.1.3 Quadrature Demodulator
Additional IF gain of approximately 30dB occurs at U401 which is a dedicated IF AGC amplifier/Quadrature Demodulator configured for single ended input and output operation. The AGC voltage for U401 is derived from the RSSI function of the DSP via AUX CTL and multiplexer U902. The onset of AGC operation occurs when RF input signal levels at the antenna exceed -90dBm.
Conversion of the 45MHz IF signal to I and Q baseband signals is carried out by the demodulator section of U401. The 90MHz local oscillator signal is generated by VCO Q402 which is phase locked by the auxiliary PLL output of U701 via feedback signal AUX LO2.
3.1.4 Receiver Audio Processing
All receiver audio processing and filtering functions are performed by the CODEC U800 under the control of the DSP. The receiver I and Q analog baseband signals are converted to digital signals by the CODEC ADC before being applied to a series of digital filters which provide the final stage of adjacent channel filtering, high pass and low pass filtering and mute noise processing for narrow and wideband operation. The processed signals are then converted to analog audio signals by the CODEC DAC and are applied to conventional audio amplifiers U803A/B and the speaker amplifier U5.
There are two speaker options available. A half bridged configuration using a speaker across balanced output SPKR OUT1 and 2 which provides an audio output level of up to 4 watts into 4 ohms. The other option is a full bridge configuration using a high power speaker across SPKR OUT1 and 2 and providing an audio output level of up to 10 watts into 8 ohms. The carrier and signalling mute functions are performed by Q810/811/813 under DSP control with additional receiver muting to U803B being applied by U103C when the mobile is in transmit mode. De­emphasis to the audio PA U5 is performed by R43 and capacitors C42 to C58. Flat audio is provided to S1-6 via amplifier U803A.
3.2 Transmitter
Refer Figure 3-2.
3.2.1 Drivers and PA Stages
The RF output level from the VCO buffer Q604 is typically +5dBm (UHF) and +8dBm (VHF). TX buffer Q606 increases this level by approximately 3dB (UHF) and 11dB (VHF) and also provides additional VCO isolation. The following section of the TX buffer Q612 is controlled by the transmitter power control loop and Q609. Q609 is normally saturated in transmit mode so there is no minimum gain control applied to this stage. The gain of Q612 is typically 10dB (UHF) and 15dB (VHF) but the output level is reduced by input and output resistive attenuators to limit the PA driver input level to typically +20dBm. The gain of PA driver Q12 is controlled by the power control loop to ensure that transmitter output power remains within defined limits. The PA driver output level is typically +25dBm. PA module U2 utilises three stages (UHF) and two stages (VHF) to achieve the required final RF output power level of +44dBm (25 watts). Power output settings are derived from alignment data stored in flash memory during the initial factory alignment. The DSP processes this data to optimise the power output level relative to the programmed channel frequencies which may be changed at any time without retuning the radio. .
Page 20
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Figure 3-2 VHF/UHF Transmitter Block Diagram
An active filter comprising Q14, 17,18 and 19 provides isolation to minimise power supply noise at the PA. This is achieved by maintaining a voltage differential of approximately 1V across Q14 and indirectly filtering its gate voltage. Q14 is switched on only during transmit via R523 to minimise receiver power requirements.
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3.2.2 Power Control
Output power is stabilised by a power control feedback loop. L1, R54, a printed circuit transmission line, D6 and associated components comprise the power detector with Q3/10, U3 and associated components providing the power setting and control sections. Forward and reverse power is sampled by the power detector and applied as a DC voltage to the inverting input of comparator U3A. The TX PWR SET voltage which is a DC voltage proportional to the programmed TX power setting is applied to the non-inverting input of the comparator. PA module output level changes due to supply voltage, load or temperature variations are detected and applied to the comparator which proportionally adjusts the PA driver (Q12) supply, and therefore the PA drive level, via Q10/Q3. High temperature protection is provided by thermistor R452 which progressively reduces the power level if the PA module temperature becomes excessive. Q15 and Q16 provide for dual power control time constants necessary for good power ramp and decay characteristics.
3.2.3 Antenna Changeover and Harmonic Filter
The antenna changeover circuit consisting of pin diodes D3/D4/D5 is switched by Q4/Q8/Q11 and associated circuitry allowing the transmitter output to be coupled to the antenna while providing isolation for the receiver input. With the transmitter switched on, the diodes are forward biased allowing power to be coupled through to the antenna and isolating the receiver by grounding its input at C28. The short circuit at the receiver input is transformed to an effective open circuit at D3 by L13, which minimises transmitter loading. With the transmitter switched off the diodes are reverse biased allowing the receiver input signal to reach the receiver front end with minimal loading and loss.
The harmonic rejection low pass filter comprises L10/11/12 and associated capacitors.
3.2.4 Transmitter Audio Processing
Microphone audio input signals of 40mV RMS with a source impedance of 470 ohms are provided at the microphone input (AUD IN1) by an external microphone unit comprising an electret microphone insert and a preamplifier with a gain of 18dB. U108 is a control gate for the microphone audio signals.
AUD IN2 is the external audio options and data input which is controlled by gate U107. Inverter Q20 ensures that the data or audio options signals are muted when the mic. audio gate is active. The AUD IN2 input level and source impedance is the same as the microphone input.
Q812 is a unity gain amplifier which provides buffering of the audio and data signals. U103B provides CODEC input switching which selects either the receiver I signal or transmitter audio/data signals depending on the TX/RX mode. All pre-emphasis, filtering, compression and limiting processes for narrow and wideband operation are carried out in the CODEC (U800) under the control of the DSP. The processed transmitter audio/data from the CODEC output at VOUTL is applied to the VCO as a modulation signal with a level of approximately 200mV P/P.
Page 22
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TNM-M-E-0001 Page 18
Figure 3-3 VHF/UHF Synthesiser, Block Diagram
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TNM-M-E-0001 Page 19
3.3 Frequency Synthesiser
3.3.1 General
Refer Figure 3-3 The SRM9000 frequency synthesiser consists of individual transmitter and receiver (local
oscillator) voltage controlled oscillators, loop filter, varactor negative bias generator, reference oscillator and an integrated, dual phase locked loop device U701.
3.3.2 PLL
The PLL device contains two prescalers, programmable dividers and phase comparators to provide a main and auxiliary PLL. The main PLL of U701 controls the frequency of the TX/RX VCOs via Control Voltage outputs at pins 2 and 3 and VCO Feedback to pin 6. The auxiliary PLL is used to control the receiver 90MHz second local oscillator via the Control Voltage output at pin 17 and VCO Feedback to pin 15. The PLL operation involves the division of the 14.4MHz reference oscillator frequency by divider U710 and the internal divider of U701 down to a lower frequency which corresponds to a sub-multiple of the radio channel spacing ie. 6.25kHz for
12.5/25kHz channel spacing or 5kHz for 20kHz channel spacing. The VCO frequency is sampled and divided down to the same frequency after which it is phase compared to the reference. Any error produces an offset to the Control Voltage output which is used to correct the VCO frequency. A valid lock detect output is derived from pin 20 and is sampled by the FPGA during transmit. If an unlocked signal is detected the radio will switch back to receive mode.
3.3.3 VCO
The transmitter and receiver VCOs use low noise JFET transistors (Q600 RX, Q602 TX) and inductors L602 (RX), L608 (TX) to generate the signals for the required band coverage. Electronic tuning is provided by varactor diodes D600 to D608 with their control voltages derived from the Loop Filter, PLL and Negative Bias Generator.
VCO selection and timing is controlled by the DSP via the RX and TX power supplies and applied through switches Q601 (RX) and Q603 (TX). VCO buffer Q604/605 isolates the VCO from load variations and active power supply filter Q615 minimises supply related noise. A PLL feedback signal is sampled from the VCO buffer output via buffer Q607.
3.3.4 Negative Bias Generator and Loop Filter
A positive and negative varactor bias supply similar to the front-end varactor arrangement has been used to achieve the required broadband tuning range of the VCOs. PLL device U701 is programmed to deliver a fixed nominal +2.5V output from phase detector/charge pump CPPF or CPP (selection depends on radio setup) regardless of the channel frequency selected. This voltage is filtered to remove synthesiser noise and reference products by loop filter C719/722/734 and R721/724/734. The resulting low noise voltage is applied to the cathode side of the VCO varactor tuning diodes as a positive bias voltage. The negative bias supply originates as a positive DC voltage (0.1V to 3.0V) at the DAC output of U701 (DOUT) with a level relative to the programmed state of the radio (eg. channel frequency, TX/RX state). The voltage is converted to a high level negative supply by VCO Varicap Negative Supply Q700 to Q703. The -17V rail of this supply is generated by U300B/C with D304 to D307 providing the voltage multiplying effect needed to achieve -17V. The output of the negative supply is applied directly to the VCO varactor anodes as the negative tuning voltage VCAP BIAS.
3.3.5 Phase Modulator
The modulation path for audio, data and higher frequency CTCSS signals is via D609 and its associated components in the TX VCO. The reference input to the PLL (FXTAL) provides the low frequency modulation path in conjunction with phase modulator Q714 to Q716. U711A is a low pass filter which provides 6dB per octave attenuation to frequencies above approximately 180Hz. Modulation balance adjustment is carried out using a CODEC generated 100Hz square wave applied to TX MOD1. A DAC output from the Alignment Tool is applied to buffer U711B and ramp generator Q711 to Q713 via the TUNE BAL line to adjust the low frequency modulation level.
Page 24
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TNM-M-E-0001 Page 20
3.3.6 Reference Oscillator
TCXO U700 determines the overall frequency stability and frequency setting of the radio. The frequency setting is achieved by adjusting its ADJ voltage with the Alignment Tool. In addition, the ADJ input is used in a frequency control loop with the receiver I and Q signals to provide receiver AFC. U700 operates at 14.4MHz and is specified at ±2.5ppm frequency stability over the temperature range -25° to +75°C.
3.4 Control
Refer Figure 3-4
3.4.1 DSP and FPGA
The SRM9000 transceiver operates under the control of a DSP (U102) and FPGA (U106) combination which together with a number of other dedicated devices perform all the operational and processing functions required by the radio. The FPGA is configured by the DSP under software control to provide the following functions:
• Channel set-up of all operating frequencies
• Modulation processing and filtering
• De-modulation processing and filtering
• TX power output reference
• Receiver front end tuning
• Serial communications with alignment tool, microphone and control head
• Modem functionality for data modulation
• All signalling / CTCSS generation and decoding
• CO control
• Receiver muting control
• TX / RX switching
• PLL detect
Page 25
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TNM-M-E-0001 Page 21
Figure 3-4 VHF/UHF Control Block Diagram
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TNM-M-E-0001 Page 22
3.4.2 DSP Clock Oscillator
The DSP is clocked by a 15.360MHz oscillator which consists of crystal X100 and an internal DSP oscillator. Q100 forms a crystal switching circuit with C117 which when activated by a command from the FPGA steers the oscillator away from potential interfering frequencies.
3.5 Memory
Memory consists of the internal DSP memory and an external 4MB non-volatile Flash Memory U104. When power is off, program and data is retained in Flash Memory. At power-on, a boot program downloads the DSP’s program from Flash Memory to its internal RAM for faster program execution and access to data.
3.5.1 Multiplexer
U902 contains 2 separate 4-channel multiplexers providing a total of 8 independently controlled analog switches. Under software control, the multiplexers produce tuning voltages from supplied data for the receiver front end (TUNE 1 to 4), TX power setting (TX PWR SET), receiver AGC (AGC-1), alert tone (A TONE) and FPGA ramp generator (ADC REF).
Buffer U802B is fed with a composite digital tuning signal (AUX CTL) from the DSP/FPGA containing the data for AGC, A TONE, ADC REF and TX PWR SET settings. The level is dependent on channel frequency and tuning and varies between 0.1 to 3.0V. This signal is applied to one group of 4 analog switches in U902 via a common input connected to pin 13. The second group of 4 switches is fed with the receiver front end tuning signal FE TUNE (to provide outputs for TUNE 1 to 4) via the second common input at pin 3 as described in the receiver front end section.
The 2 groups of analog switches are independently controlled by FPGA binary signals MUX A0 and A1 and enable line MUXEN to output the required tuning voltages as a series of pulses. These pulses are converted to steady state voltages by integration capacitors C904 to 911 and C921 to 925.
3.6 Power Supplies
3.6.1 Power On Function
The unregulated 13.8V DC input is routed directly to high current devices and is also switched via FET Q350. The output from Q350 feeds three, low drop out series regulators and associated switched and auxiliary supplies which along with a negative voltage generator provide all the switched power requirements of the transceiver.
Q315/316/317 and U313 form a power on/off latch circuit which is activated by a pulse from the control unit or microphone/handset via PWR ON or PWR OFF and controls the FET power switch Q350. A PWR OFF operation requires the button to be held down for more than 2 seconds. This is then sensed by the FPGA via the PWR SENSE line which turns the radio off by placing a positive pulse on the PWR OFF line thereby resetting U313B.
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3.6.2 Power Supplies
The following is a list of the SRM9000 power supplies and some of the devices and circuits they supply.
3.6.2.1 +8V Regulator U310
Regulated +8.0V supply (8V0 and +8V)
• TX buffer Q612
• VCOs and VCO buffers via active filter Q615
• RX second local oscillator via Q403
Regulated +8.0V switched supply (RX PSU)
• RX front end
• IF Amplifier
• Various switching functions
3.6.2.2 +5V Regulator U311
Regulated +5.0V supply (5V0 and +5V)
• RX front end varactor positive bias
• Synth. buffer Q607
• VCO varactor negative supply Q700 to Q703
• TCXO U700
• RX audio amplifiers U803A/B
• RX mute switch Q810/813
• Multiplexer U902
• FE TUNE level translator and buffer U901A, Q900/901
Regulated +5.0V switched supply (TX PSU and TX PSU+)
• TX power control U3
• TX buffer Q606
• Microphone amplifier Q812
• Various switching functions
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3.6.2.3 +3.3V Regulator U312
Regulated +3.3V supply (3N3)
• Digital supply for CODEC U800
• DSP U102
• FPGA U106
Regulated +3.3V supply (3Q3)
• I Q demodulator U401
Regulated +3.3V supply (3C3)
• Analog supply for CODEC U800
Regulated +3.3V supply (3P3)
• PLL U701
• TCXO divider U702
Unregulated 13.8V (13V8 UNSW)
• TX PA module U2
• TX PA power control circuit Q3
• Active filter Q14/17/18/19
• Antenna changeover switch Q4/8/11
• RX mute switch Q811
• RX speaker amplifier U5
3.6.2.4 Negative Power Supply U300B/C
Provides -17.0V output (-17V0)
• Negative rail for VCO Varicap Negative Supply Q700, 701, 702 and Q703
-12.0V Output (-12V0)
• Negative rail for FE TUNE level translator Q900, 901, 902, 903 and multiplexer U902
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4. Alignment
This procedure is applicable to all versions of SRM9000 mobile transceivers.
If the radio contains customer configuration data that must be retained, you must first use the SRM9000 Configuration Programmer (FPP) software to read the radio and store the data on an FPP file before commencing with the alignment procedure.
When the Alignment is completed, use the SRM9000 Configuration Programmer (FPP) software to retrieve this stored data from the FPP file and write it back to the radio.
It is preferred that the radio remain installed in its aluminium extruded case throughout this alignment procedure. If the radio is to be aligned when removed from the case, a temporary heat sink must be fitted under the Transmitter PA module and the receiver output must be kept below 100 mW.
4.1 TEST EQUIPMENT
1. Radio transceiver test set CMT, 52/82 or similar.
2. Variable DC power supply 10.8V to 16.2V at 10 amps
3. Oscilloscope 20 MHz bandwidth minimum
4. SRM9000 Programming & Alignment Breakout
Box
As detailed in Figure 4-1
5. SRM9000 Speaker O/P Breakout Box As detailed in Figure 4-2
6. Personal Computer 486 DX 66 or better.
Operating system Windows 95 or later. Minimum RAM - 16MB. 5MB free hard disk space. Floppy drive - 1.44MB. Mouse and serial port required
7. SRM9000 Alignment Tool Computer Software file
8. SRM9000 Configuration Programmer (FPP) Computer Software file
Caution
Preparing the radio will erase from the radio all customer PMR and Trunking
configuration data (channel, signalling information etc). The only data retained by
the Alignment Tool is the alignment data from the radio (DAC settings for TX power,
front-end tuning etc).
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Black Red
Yellow Blue Brown
Orange
Green(4)
White (8)
(Not Used)
+
470E
White
Green
Mic Audio in
Mic Ground
Ground Handset AF Output
13.8V Switched
On/Off Rx Data Tx Data
8
4
7
6 5
3 2
1
RJ45
PRM80 Programming Cable P/N 9525-001-00016
BNC (F)
Connector
22uF to 47uF
Tant. or Elect
DB25
Access and modify
cable as shown
9000_49/2
2
5
-
9
W
a
y
A
d
a
p
t
o
r
PC
To
SRM9000
S1
AF Generator
Figure 4-1 SRM9000 Programming & Alignment Breakout Box
Figure 4-2 SRM9000 Speaker Output Breakout Box
T1
600E 1:1
Line Matching
Transformer
To
Noise & Distortion Meter
&
CRO
To
SRM9000 P2
Pins 6 & 13
9000_49/3
R
R
= Audio Power Load (set as appropriate)
or Resistor 4E 4W for 1/2 Bridge Speaker option Resistor 8E 12W for full Bridge Speaker option
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4.2 test set up
7
6
5
4
3
2
1
8
15
14
13
12
11
10
9
SRM9000
P2
(DB15M)
PC
SRM9000
Programming
and
Alignment
Breakout
Box
S5
Antenna Skt
S1
RJ45
AF
Generator
13.8V DC
Power Supply
CRO
9000_49
+
-
Radio
Transceiver
Test
Set
Noise &
Distortion
Meter
SRM9000
Speaker O/P
Breakout
Box
Coax
(<200 mm)
Figure 4-3 Test Set up
1. Connect the radio to the test equipment as shown in Figure 4-3.
2. Switch on the DC Power Supply.
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4.2.1 COMMS Set up
1. Copy the SRM9000 Alignment Tool Computer Software file to the PC hard drive and run the program
The Alignment Tool Opening Menu is displayed.
2.
Go to the Options menu and choose Comms
Setup.
3.
The Comms Setup dialogue box is displayed. Select the Comms Port setting appropriate to the
configuration of your PC and choose üüOK. (Usually COM1)
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4.2.2 Radio Preparation
Radio parameters are to be aligned sequentially as detailed in this procedure.
1. At the Opening Menu, select the
Align Menu and choose Prepare/Read Radio.
2.
The WARNING is displayed. Choose No if you want to save the
configuration and use the FPP software to read and save the data to a file.
Choose Yes if you want to proceed and go to step 3.
3. The radio alignment data is read (indicated by percentage bar) and stored.
The test alignment data is downloaded into the radio.
Note: In test alignment mode the radio is configured only for 12.5 kHz channel
spacing, therefore all alignment is carried out at 12.5 kHz levels. When the radio is configured with the FPP for other channel spacings, the deviation related levels are calculated on a per channel basis by the radio software.
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4.2.3 ALIGNMENT PROCEDURE
Radio alignment must be done in the sequence detailed in the following paragraphs. This alignment assumes that the radio is functioning normally.
4.2.3.1 VCO DAC Alignment
1. Select the VCO DAC page and choose Channel 0. The channel number and frequency will be highlighted.
2.
Select the Synth DAC Rx slider (slider will be highlighted) and (using the left/right arrow keys or the mouse) adjust for a VCO reading as close to 145 as possible (must be between 140 and 150).
3. Repeat Step 2 for the remaining 3 Channels (1, 2, & 3, in turn)
4. Select Channel 0.
5.
Select PTT and adjust the Synth DAC Tx slider for a VCO reading as close to 145 as possible (must be between 140 and 150).
6. Repeat Step 5 for the remaining 3 Channels (1, 2, & 3).
7.
Release the PTT.
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4.2.3.2 TCXO (Radio Netting Adjustment)
1.
Select the Mute/TCXO page.
2.
Select PTT.
3.
Adjust the TCXO slider to ensure that the transmit frequency error is within normal tolerance for the selected channel (to be measured on the RF Test Set frequency counter).
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4.2.3.3 RX FRONT END
1. Ensure that the TCX0 Alignment has been done before proceeding with this section.
2.
Select the Mute/Channel page
3.
Select Mute Open.
4.
Set the Volume slider to 15. Speaker audio should now be visible on the CRO, if required readjust the Volume slider
to a suitable level.
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5.
Select the Rx Front End Page
6.
Select Channel 0
7. Set the Signal Generator to the Channel 0 carrier frequency, with a 1000Hz modulation signal, a deviation of ±1.5 kHz and a RF level of -90dBm.
The RSSI barchart display should now be (typically) well above a reading of 20 - if so, jump to step 9.
8. If the RSSI is not visible or is very low, Manual Tuning may be required. To do this, adjust the four Filter sliders (1-4) in combination for the maximum RSSI reading or for the best sinad reading. Proceed to step 9 when an RSSI of better than 20 is achieved.
Note: For optimum results, the sliders should be adjusted to be approximately in line.
9.
Select Auto Align. The front end will be tuned automatically.
10.Verify that the receiver sensitivity is better than -117.5dBm for 12dB sinad. (Sensitivity is typically -120dBm).
11.Repeat Steps 7 to 10 for the remaining 3 Channels (1, 2, & 3).
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4.2.3.4 MUTE ADJUSTMENT
1.
Select the Mute/Channel page, and ensure that the Mute Open option is selected.
2. Set the RF signal generator to the receiver alignment frequency, and adjust the RF level
such that the desired mute opening sinad (typically 10dB sinad) is achieved.
3.
Select Mute Closed and remove the RF input from the radio.
4.
Select the Mute/TCXO page
5.
Set the Squelch Open and Squelch Close sliders to the fully left position. This ensures the receiver will be muted.
6.
Set the Squelch Close slider to the fully right position.
7. Reconnect the RF input to the radio.
8.
Adjust the Squelch Open slider to the right until the mute opens.
9. Reduce the Signal Generator output level by approximately 2dB (or by an amount equal
to the desired mute hysteresis level).
10.
Adjust the Squelch Close slider to the left until the mute closes.
11. The mute should now open and closes at the desired RF levels.
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4.2.3.5 RSSI
1.
Select the RSSI Cal page.
2. Set the Signal Generator for a RF output level of -90dBm at the specified frequency.
3.
Activate the RSSI button. The receiver RSSI threshold setting is calibrated.
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4.2.3.6 TX POWER
1.
Select Tx Power/Mod page.
2.
Select Channel 0.
3.
Select the 25W-power level.
4.
Press the PTT button.
5.
Adjust the Tx Final Value slider for a power output of 25W. The supply current shall be less than 7.5A (UHF) and 6.5A (VHF).
6.
Select the 5W-power level.
7.
Adjust the Tx Final Value slider for a power output of 5W.
8.
Select the 1W power level.
9.
Adjust the Tx Final Value slider for a power output of 1W.
10.
Release the PTT button.
11. Repeat steps 2 to 10 inclusive for the remaining 3 Channels (1, 2, & 3).
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4.2.3.7 MODULATION
1.
Select Tx Power/Mod page.
2.
Select Channel 0.
3.
Select the 1W power level.
4. Set the microphone input signal from the Audio Generator to 1000Hz at 400 mV RMS.
5.
Adjust the VCO Modulation Limit slider for a deviation of ±2.05kHz
6. Reduce the microphone input level to 40mV RMS and check that the deviation is within
the range ±1.25 kHz to ±1.75 kHz.
7. Repeat steps 2 to 7 inclusive for the remaining 3 Channels (1, 2, & 3).
8. Remove the microphone audio input signal
9.
Select the Generate Square Wave function.
10.
Select PTT and, while viewing the de-modulated signal on the transceiver test set oscilloscope, adjust the Modulation Balance slider for the best square wave symmetry.
11. Repeat steps 8 to 11 inclusive for the remaining 3 Channels (1, 2, & 3).
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4.2.3.8 PROGRAMMING
When all channels have been aligned the radio is programmed with the new alignment data:
1.
Select Align and choose Write Alignment.
2. A warning message is displayed.
3.
Choose Yes. New alignment data is written to
the radio.
4.2.3.9 Customers Radio Configuration Data
If the Customers Radio Configuration Data was stored in an FPP file, use the SRM9000 Configuration Programmer to write this data to the radio.
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5. Replaceable Parts
1
2
9
4
7
3
4
5
6
8
10
9000_51
Figure 5-1 Replaceable Parts
Ident Description Quantity per Assembly Part Number
1 PCB E0-Band Transceiver 1 3513-570-13371 1 PCB AC-Band Transceiver 1 3513-570-13361 1 PCB KM-Band Transceiver 1 3513-570-13381 1 PCB TK-Band Transceiver 1 3513-570-13391 1 PCB UW-Band Transceiver 1 3513-570-13401 1 PCB WR-Band Transceiver 1 tba 2 Case 1 3513-901-70071 3 End Cap, Rear 1 3513-903-91081 4 Screw End Cap 12 PT Type DG 5 Screw Tray Retention 3 M3 x 16 6 Screw Tray Retention 2 M3 x 12 7 Label Transceiver Top 1 3513-903-8219A 8 End Cap, Front 1 3513-903-91071
9 Label Front End Cap 1 3513-903-8220A 10 Inner Tray 1 3502-310-63310 11 LT Lead - 5m 1 3502-350-11251 12 BNC Connector, Crimp 1 3513-505-05991 13 Fuse Holder 1 2422-088-00185 14 Fuse 10A Quickblow 1 2422-086-10096 15 TX PA Shield cover 3502-310-63221 16 RJ45 Connector 1 3513-999-99331 17 DB15 Connector 1 3513-999-02063 18 Antenna BNC connector 1 3513-505-05991 19 Audio PA Module U5 1 3513-999-52036 20 Voltage Regulator 8V, U310 1 3513-999-52031 21 Voltage Regulator U311 & U312 1 3513-999-52032 22 Temperature Controlled Crystal Oscillator U700 1 3513-999-99200 23 Transient Suppressor Diode D1 1 3513-999-24014 24 ALC Regulator Q3 1 3513-999-05031
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Ident Description Quantity per Assembly Part Number
25 Transmit Receive Switch Q4 1 3513-999-00006 26 Supply Regulator Switch Q14 1 3513-999-05032 27 Option Switch Q105 1 3513-999-00006 28 Output 0 Driver Q320 1 9336-630-70115 29 ON/OFF FET Q350 1 9336-630-05032
Figure 5-2 Band-Specific Parts
Ident Description Quantity per Assembly Part Number
1 Tx PA Module U2 (E0 Band) 1 tba
1 Tx PA Module U2 (AC Band) 1 tba
1 Tx PA Module U2 (KM Band) 1 tba
1 Tx PA Module U2 (TK Band) 1 tba
1 Tx PA Module U2 (UW Band) 1 3513-999-52033
1 Tx PA Module U2 (WR Band) 1 tba
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6. Circuit Diagrams and Parts List
This section contains circuit schematics and printed circuit board details.
6.1 List of Illustrations
Diagram Reference
Sheet Code
Description Comment
Figure 6.1 1 SRM9000 Block Diagram Illustration showing all sub-
section interconnections Figure 6.2 2 DSP and FGPA Schematic Figure 6.3 3 Power Supply Schematic Figure 6.4E0 4 Receiver Circuit Schematic E0 Band (66 - 88MHz) Figure 6.4AC 4 Receiver Circuit Schematic AC Band (136 - 174MHz) Figure 6.4TK 4 Receiver Circuit Schematic TK Band (400-450MHz) Figure 6.4UW 4 Receiver Circuit Schematic UW Band (440- 500MHz) Figure 6.5E0 5 Transmitter Circuit Schematic E0 Band (66 - 88MHz) Figure 6.5AC 5 Transmitter Circuit Schematic AC Band (136 - 174MHz) Figure 6.5TK 5 Transmitter Circuit Schematic TK Band (400-450MHz) Figure 6.5UW 5 Transmitter Circuit Schematic UW Band (440- 500MHz) Figure 6.6E0 6 Synthesiser - VCO Schematic E0 Band (66 - 88MHz) Figure 6.6AC 6 Synthesiser - VCO Schematic AC Band (136 - 174MHz) Figure 6.6TK 6 Synthesiser - VCO Schematic TK Band (400-450MHz) Figure 6.6UW 6 Synthesiser - VCO Schematic UW Band (440- 500MHz) Figure 6.7E0 7 Synthesiser - PLL Schematic E0 Band (66 - 88MHz) Figure 6.7AC 7 Synthesiser - PLL Schematic AC Band (136 - 174MHz) Figure 6.7TK 7 Synthesiser - PLL Schematic TK Band (400-450MHz) Figure 6.7UW 7 Synthesiser - PLL Schematic UW Band (440- 500MHz) Figure 6.8 8 A/D Converter Schematic Figure 6.9 9 D/A Multiplexer Schematic Figure 6.10 10 I/O Connections Schematic Figure 6.11 - SRM9000 PCB layout, Top 1 of 2 Figure 6.12 - SRM9000 PCB layout, Top 2 of 2 Figure 6.13 - SRM9000 PCB layout, Bottom 1 of 2 Figure 6.14 SRM9000 PCB layout, Bottom 2 of 2
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(10) I/O Diagram
(2) DSP/FGPA Diagram
(8) A/D Converter / Audio PA Diagram
(6) Synth. VCO Diagram
(7) Synth. PLL Diagram
(4) Receiver Diagram
(9) D/A Multiplexer Diagram
(3) Power Supply Diagram
(5) Transmitter Diagram
RESET
U101
EPF8282 FPGA
PWR_OFF
MUX CONTROL
PWR_SENSE IGN_SENSE
CONTROL
A_TONE
MASTER
15.360MHz
9
3
1 1 1
3
3
MOVE XTAL
FE_TUNE
LOOP_VOLTS
BATT_VOLTS
RF_DET
SPKR_ON
AFC/TX_MOD2
TX_MOD1
Buffer
Comparator
Buffer
AUX_CTL
CLK
CLOCK
ADSP-2185L
P1
U106
U100
U901a
U105
U901b
U802b
Q100
TEST PORT
OPTIONS
Connector
DB15
EXTERNAL
Connector
P3
P2
S1
FLASH
8
20
DATA
ADD
U104
U102
CLKOUT
26
15
26
5
RJ45
SKT
SDIN
IRQB
/RESET
SOFS
WR RD
5
8
1 1 1 1 1
ADD
DATA
POWER SUPPLY
DC
DISTRIBUTION
60651011a.cdr
Vehicle Battery
TCXO
SYN_FAST
CONTROL
TUNE_BAL
LOCK DETECT
Rx VCO
Tx VCO
Power Amp Preamp
Vbias
Buffer
Mute
Mic Amp
Tx Buffer
Buffer
TX _MOD1
Loop Filter
Synth Buffer
Q602
Q600
Q607
U103a
U103c
U103b
U107/U108/U109
U5
U803b
U802
Q810/813
Q812
D610/D611
Q606
Q604
U700
Q711 Q714
U710
U711a
U711b
Synthesizer
U701
FXTAL
PRI
DOUTCPA
AUX
Ramp Generator /Phase modulator
UMA1018
14.4MHz
Buffer
Buffer
Mic
H/Set Speaker
CODEC
VOUTR
VINR
VINLVOUTL
UDA1340
U800
IF Amp
Loop Filter
1st Mixer
RF Amp
TUNE1
TUNE2
TUNE3
TUNE4
I/Q
Demodulator
45MHz
In
LO
I
Q
AGC
VCO IQ LO
RF9957
90MHz
Q402
Q400
T400
Q401 Z401/Z402
U401
U3
Tx Buffer
Power Control
Tx Driver
Antenna
Tx Power Amp
Q612 Q12 U2
AGC-I
FE_TUNE4
FE_TUNE3
FE_TUNE2
FE_TUNE1
ADC_REF
TX_PWR_SET
A_TONE
Buffer
H/S Audio
U803a
Main Speaker
Figure 6-1 SRM9000 Block Diagram
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A0 A1 A2 A3 A4 A5 A6 A7 A8 A9 A10 A11 A12 A13
3N3
3N3
3N3
0VA
A0 A1 A2 A3 A4 A5 A6 A7 A8 A9 A10 A11 A12 A13 D16 D17 D18 D19
0VA 0VA
0VA
R108
2k2
C122
100n
C121
100n
R120
10k
R119
10k
R118
10k
C125
100n
X100
15.360MHz
R115
680k
Q100
BC849CW
C118
4p7
C116
4n7
R106
10k
MOVEX
A4/IAD3
1
A5/IAD4
2
Gnd
3
A6/IAD5
4
A7/IAD6
5
A8/IAD7
6
A9/IAD8
7
A10/IAD9
8
A11/IAD10
9
A12/IAD11
10
A13/IAD12
11
Gnd
12
CLKIN
13
XTAL
14
Vdd
15
CLKOUT
16
Gnd
17
Vdd
18
WR
19
RD
20
BMS
21
DMS
22
PMS
23
IOMS
24
CMS
25
IRQE +PF4
26
IRQLO +PF5
27
Gnd
28
IRQL1 + PF6
29
IRQ2 + PF7
30
DT0
31
TFS0
32
RFS0
33
DR0
34
SCLK0
35
Vdd
36
DT1
37
TFS1
38
RFS1
39
DR1
40
Gnd
41
SCLK1
42
ERESET
43
RESET
44
EMS
45
EE
46
ECLK
47
ELOUT
48
ELIN
49
EINT
50
EBR
51
BR
52
EBG
53
BG
54
D0/IAD13
55
D1/IAD14
56
D2/IAD15
57
D3/IACK
58
Vdd
59
Gnd
60
D4/IS
61
D5/IAL
62
D6/IRD
63
D7/IWR
64
D8
65
Gnd
66
Vdd
67
D9
68
D10
69
D11
70
Gnd
71
D12
72
D13
73
D14
74
D15
75
D16
76
D17
77
D18
78
D19
79
Gnd
80
D20
81
D21
82
D22
83
D23
84
FL2
85
FL1
86
FL0
87
PF3
88
Vdd
90
PWD
91
Gnd
92
PF1 (MODE B)
93
PF0 (MODE A)
94
BGH
95
PWDACK
96
A0
97
A1/IAD0
98
A2/IAD1
99
A3/IAD2
100
PF2 (MODE C)
89
U102 ADSP2185L-133
C119
18p
C120
18p
0VA0VA
R121
10k
R122
10k
R123
10k
R124
10k
3N3
D20
D8 D9 D10 D11 D12 D13 D14 D15
D16 D17 D18 D19 D20 D21 D22 D23
3N3
0VA
Vcc
6
Vcc
20
Vcc
37
Vcc
56
Gnd
2
Gnd
13
Gnd
30
Gnd
44
Gnd
52
Gnd
63
Gnd
80
Gnd
94
nSP
75
MSEL1
51
MSEL0
74
DCLK
100
DATA0
5
nCONFIG
25
CONF_DONE
1
nSTATUS
24
Vcc
70
Vcc
87
INPUT_1
3
INPUT_2
23
INPUT_3
53
I/O_1
4
I/O_2
7
I/O_3
8
I/O_4
9
I/O_6
12
I/O_7
14
I/O_8
15
I/O_5
10
I/O_62 (TMS)
11
I/O_9
16
I/O_10
17
I/O_63 (TDO)
18
I/O_71 (CS)
19
I/O_42 (ADD2)
71
I/O_66 (TCK)
72
I/O_43 (ADD1)
76
I/O_72 (RDYnBUSY)
77
I/O_44 (ADD0)
78
I/O_40 (ADD4)
68
I/O_41 (ADD3)
69
I/O_45
81
I/O_46
82
I/O_47
83
I/O_48
84
I/O_49
85
I/O_50
86
I/O_51
88
I/O_52
89
I/O_37 (ADD7)
65
I/O_38 (ADD6)
66
I/O_39 (ADD5)
67
I/O_53 (DATA7)
90
I/O_54 (DATA6)
91
I/O_55 (DATA5)
92
I/O_56
93
I/O_57 (DATA4)
95
I/O_27
48
I/O_28 (ADD17)
49
Gnd
50
I/O_65 (TDI)
54
I/O_29 (ADD15)
55
I/O_30 (ADD14)
57
I/O_31 (ADD13)
58
I/O_32 (ADD12)
59
I/O_70 (nCS)
21
I/O_67 (nWS)
22
I/O_11
26
I/O_12
27
I/O_13 (ADD16)
28
I/O_14
29
I/O_15
31
I/O_16
32
I/O_17
33
I/O_18
34
I/O_19
35
I/O_20
36
I/O_21
38
I/O_22
39
I/O_23
40
I/O_24
41
I/O_68 (nRS)
42
I/O_25
43
I/O_69 (RDCLK)
45
I/O_26
46
I/O_73 (CLKUSR)
47
I/O_58
96
I/O_59 (DATA3)
97
I/O_60
98
I/O_33 (ADD11)
60
I/O_34 (ADD10)
61
I/O_35 (ADD9)
62
I/O_36 (ADD8)
64
I/O_61 (DATA2)
99
NO_CONNECT (SDOUT)
79
NO_CONNECT (INPUT_4)
73
U106
EPF8282AVTC100-3
R150
12k
R149
24k
R151
24k
R152
12k
R153
24k
R154
12k
R155
24k
R156
12k
R157
24k
R158
12k
R159
24k
R160
12k
R161
24k
R162
12k
R163
24k
R164
24k
0VA
R165
24k
R166
12k
R167
24k
R168
12k
R169
24k
R170
12k
R171
24k
R172
12k
R173
24k
R174
12k
0VA
4
5
2
312
U105A
LM239
R131
220k
0VA
0VA
6
7
1
U105B
LM239
0VA
10
11
13
U105D
LM239
R136
N.F.
C131
10n
0VA
0VA
8
9
14
U105C
LM239
0VA
+5V
3N3
3N3
R145
100k
3N3
C132
100p
0VA
13V8_UNSW_F
R125
10k
3N3
LOCK
L3D
8
L3M
8
L3C
8
SYN_FAST
IRQ8
IRQ8
FSEN
S0FS
CSC
8
CDO
8
CDI
8
RX_PON
3
TX_PON
3
D8 D9 D10 D11 D12 D13 D14 D15
D8 D9 D10 D11 D12 D13 D14 D15
A0 A1 A2 A3 A4
/RD
/WR
GSEL
/WR
/RD
PSEL /RD /WR
PSEL
GSEL
0VA
EMS EE ECLK ELOUT ELIN EINT EBR EBG ERES
/BG
/BR
/BG
/BR
EBG
EINT
EBR
ELIN
ECLK ELOUT
EMS EE
ERES /RESET
/RESET
R114
4k7
3N3
9
10
8
147
&
U100C
74HC132PW
C0FL
8
S0FS
9
FE_TUNE
9
AUX_CTL
MUXEN
MUX_A1
MUX_A0
3N3
0VA
C133
100n
GCLK GDAT CONF
0VA
+5V
BATTERY VOLTAGE
R175
24k
R176
12k
R177
24k
R178
12k
R179
24k
R180
24k
9
ADC_REF
9
R182
10k
3N3
0VA
R113
4k7
3N3
XTAL1
SDIN
12 13
11
&
U100D
74HC132PW
C117
330p
9 9
R116
100k
LOOP_VOLTS
DONE
R105
22k
3N3
0VA
C134
100n
0VA
+
C126
10u 10V
E100
PWB
7
7
7
8
RF_DET
GDAT
GCLK
TFS RFS SCLK
CCLK
8
0VA
OC_SWITCH
0VA
TXD RXD
FC0
3N3
PTT
MOVEX
C115
100n
R109
1k
R7
10k
0VA 0VA
R9
10k
0VA
0VA
3N3
60651026.cdr rev6
R6
10k
0VA
A0
21
A1
20
A2
19
A3
18
A4
17
A5
16
A6
15
A7
14
A8
8
A9
7
A10
36
A11
6
A12
5
A13
4
A14
3
A15
2
A16
1
A17
40
A18
13
22 24
9
DQ0
25
DQ1
26
DQ2
27
DQ3
28
DQ4
32
DQ5
33
DQ6
34
DQ7
35
Vcc
30
Vss
23
CE OE WE
10
RESET
12
RY/BY
Vss
39
Vcc
31
A19
37
U104 TC58FVB004-10
0VA
Q103
BSN20
R139
22k
0VA
1 2
3
&
U100A
74HC132PW
4 5
6
&
U100B
74HC132PW
0VA 0VA
0VA 0VA
C137
100n
C136
100n
L100
L101 L102 L103
0VA
C94
10n
R75
100R
0VA
0VA
0VA
C90
100p
0VA
C91
100p
GDAT-F
GCLK-F
0VA
C92
100p
FSEN-F
C96
N.F.
0VA
R78
10k
R72
100R
R70
100R
R71
100R
E101
NOT FITTED
0VA
CONF
D6 D7
R185
4k7
R184
47k
3N3
8
SPKR_ON
PWR_OFF
3
R186
N.F.
R187
680R
RED LED
FPGA83
FPGA84
MOD1_ON
PF4
3N3
R198
10k
0VA
C114
100n
0VA
3N3
R192
10k
PF6
0VA
C99
10n
R1
10k
PA_ON
2
4
7
Vcc
PFI
RESET
3
Gnd
1
5
PFO
MR
8
6
NC
RESET
U101
ADM708SAR
R81
33k
R82
4k7
R83
680k
13V8_UNSW_F
Q104
BC849CW
R80
100k
+8V
0VA
0VA 0VA
FPGA76
FPGA76
0VA
R8
10k
IGN_SENSE
R5
47k
1 3
D7A
BAT54SW
8
3
PWR_SENSE
3
R138
N.F.
C93
10n
R73
10k
0VA
C153
100n
CLRC
SDIN
R214
10k
R215
100R
5
R201
1k
R200
10k
0VA
FPGA9
(/OFF)
TP7
GATE
0VA
PTT_ALC
5
0VA
IRESET
IRESET
PTT_IN
3N3
8
10
0VA
0VA
/RESET
PTT_IN
10
10 10 10 10 10 10 10 10 10 10 10 10
10
10
10
10
10
10
10
10
OC_SWITCH
FPGA83
FPGA84
FPGA9
PTT_IN
10 10 10 10 10
3N3
R197
2k2R210k
3N3
LOCK
SYN_FAST
RF_DET
LOOP_VOLTS
7
7
7
6
RX_PON TX_PON
TFS RFS SCLK
PF4
R87
10k
R86
N.F.
C84
10n
10
D21
C95
N.F.
C128
N.F.
C130
N.F.
R10
100k
R76
N.F.
R77
N.F.
R132
N.F.
R142
N.F.
R144
N.F.
Figure 6-2 DSP and FGPA Schematic
Page 48
DRAFT D
TNM-M-E-0001 Page 44
0VA
TX_PSU
5V0
C340
1u
C342
DC supply is distributed to all other schematics
1n0
3Q3
0VA
0VA
0VA
+
C337
N.F.
Q306
BC849CW
R352
4k7
R327
22k
0VA
2
TX_PON
R318
22k
C322
100p
32
D304B
BAT54SW
1 3
D304A
BAT54SW
C330
100n
C331
100n
C332
100n
32
D305B
BAT54SW
1 3
D305A
BAT54SW
C334
100n
32
D306B
BAT54SW
C333
100n
3 4
U300B
74HC04
5 6
U300C
74HC04
-12V0
9 8
U300D
74HC04
1 2
7 14
U300A
74HC04
+5V
0VA
0VA
0VA
R351
12R
Q309
BC849CW
Q305
BC859CW
R326
10k
R328
1k2
0VA
RX_PSU
0VA
+
C339
N.F.
Q308
BC849CW
R330
22k
0VA
2
RX_PON
Q307
BC859CW
R329
10k
R331
2k2
+
C351
22u 16V
C336
10n
0VA
C338
10n
0VA
Q310
BSN20
0VA
0VA
D1
1SMC17AT3
0VA
60651036.cdr rev6
13V8_UNSW
11 10
U300E
74HC04
0VA
13 12
U300F
74HC04
0VA
C51
N.F.
L15
1 3
D306A
BAT54SW
C346
100n
32
D307B
BAT54SW
13
D307A
BAT54SW
-17V0
+
C347
1u 25V
+
C345
1u 25V
IN
1
GND
2
OUT
3
GND
4
U310
LM2930S-8.0
IN4OUT
5
ADJ
1
ON/OFF
2
GND3GND
6
UREG
U311
LM2931CS
Q311
BSN20
0VA
+
C353
22u 16V
R350
10R
Q350
BSP090
0VA 0VA
0VA 0VA
0VA
0VA
0VA
IN4OUT
5
ADJ
1
ON/OFF
2
GND3GND
6
UREG
U312
LM2931CS
+
C355
22u 16V
0VA
0VA
0VA
0VA
3N3
8V0
R353
15k
R354
22k
R355
39k
R356
100R
R357
100R
C356
100n
0VA
13V8_SW
L21
L22
L23
L24
L25
C357
N.F.
R358
1k
6 3
1
147
S
C1
5 4 2
1D RQQ
U313A
MC14013B
+
C362
22u 16V
0VA
R366
22k
Q316
BC849CW
Q315
BC859CW
R362
22k
C361
100n
Q317
BC859CW
R363
100k
R364
100k
R365
100k
C360
10n
C359
100n
R360
220k
0VA
0VA
0VA
0VA
0VA
0VA
0VA
PWR_ON
PWR_OFF
10
2
R367
10k
R368
10k
R370
220R
R369
220R
Q351
BC849CW
C364
1u
C363
1n0
3C3
0VA
0VA
Q352
BC849CW
L26
R371
220R
C366
1u
C365
1n0
3P3
0VA
0VA
Q353
BC849CW
L27
R372
220R
13V8_UNSW_F
+5V
L20
FB
L300
N.F.
FUSABLE LINK
TP1 TP2
TP3
TP4
8
11
13
S
C1
9
10 12
1D RQQ
U313B
MC14013B
C350
100n
C352
100n
C354
100n
0VA
+
C144
10u 35V
0VA
+
C145
10u 35V
1 3
D18A
BAT54SW
IGN_SENSE
C147
1n0
0VA
TX_PSU+
0VA
0VA
R213
680k
13
D308A
BAV99W
0VA
+8V
32
D308B
BAV99W
R374
220R
R373
15k
R208
4k7
C146
10n
2
0VA
0VA
3N3
1 3
D22A
BAT54SW
R375
15k
R361
4k7
C368
10n
PWR_SENSE
2
3N3
0VA
+
C149
N.F.
+
C152
N.F.
0VA
+
C151
N.F.
0VA
0VA
+
C317
1u 25V
R376
10R
R377
47R
IGN
10
13V8_UNSW
R381
47R
10
0VA
R383
10k
Q354
BC849CW
R382
N.F.
Figure 6-3 Power Supply Schematic
Page 49
DRAFT D
TNM-M-E-0001 Page 45
L400
180n
C402
N.F.
C406
N.F.
L401
120n
D402
1SV242
C411
4p7
0VA
D401
N.F.
C412
100p
C413
N.F.
0VA
L402
82n
C417
N.F.
C416
N.F.
R403
4k7
R404
4k7
R401
100k
C403
1n0
C423
1n0
C408
220p
R406
100k
0VA
C420
470p
D405
N.F.
C421
39p
TUNE1 TUNE2
C422
1n0
Q400
BFR93A
R414
56R
R413
10R
R412
N.F.
R409
10k
R411
100R
C426
N.F.
C427
1n0
L405
N.F.
L404
680n
R410
4k7
0VA
L406
N.F.
C431
15p
D407
N.F.
C433
N.F.
C445
N.F.
L407
82n
C435
N.F.
0VA0VA
L408
150n
C437
N.F.
R419
4k7
R420
4k7
R418
100k
C430
1n0
C456
1n0
C448
82p
R422
100k
L409
330n
C451
N.F.
TUNE3 TUNE4
C450
1n0
C438
N.F.
L410
150n
C455
47p
C460
68p
L411
180n
R427
47R
1
2
5
4
3
T400
4:1
C463
10p
Q401
BFR92A
R432
68R
R431
39R
R430
4k7
R428
10k
C465
10n
C467
10n
L414
820n
R429
3k3
C462
15p
L413
820n
C461
5p6
C464
12p
L412
47n
0VA
LO1_RX
R433
1k2
C468
1n0
C469
10n
0VA
C470
12p
RX_PSU
L418
3u3
C493
1n0
Q402
BFR92A
R448
18k
C491
10n
R445
1k
R450
1k5
+
C492
1u 25V
0VA 0VA
C490
18p
C487
47p
C486
1n0
D414
1SV229
L417
100n
0VA
C488
10n
0VA0VA
AUX_CP
AUX_LO2
0VA
C497
100n
R451
10k
0VA
R447
27k
Q403
BC849CW
R408
47R
RX_PSU
SCREEN SCREEN
1st I.F. FILTER
1st MIXER
FRONT END
2nd LOCAL OSCILLATOR (90MHz)
SCREEN
8V0
E400
2nd LO SCREEN CAN
E401
IF FRONTEND SCREEN CAN
E402
IF FRONTEND SCREEN CAN
0VA 0VA 0VA
Vcc1
1
Vcc2
2
Vcc3
3
CDMA IN+
4
CDMA IN-
5
GND
6
GND
7
FM IN+
8
FM IN-
9
BG OUT
10
DEC
11
LO-
12
LO+
13
IN SEL
14
Q OUT-
15
Q OUT+
16
GND
17
FL-
18
FL+
19
GND
60651347.cdr EO Rev7
20
I OUT+
21
I OUT-
22
GC
23
PD
24
U401
RF9957A
C472
1n0
L415
1u
+
C479
1u 25V
C473
1n0
0VA
0VA
C474
1n0
0VA
C483
10p
L416
1u
C484
10p
3Q3
C485
10n
0VA
0VA
C480
1n0
0VA
3Q3
0VA 0VA 0VA 0VA
3Q3
3Q3
C476
10n
0VA
C477
10n
0VA
0VA
R434
47R
0VA
9
7
9
6
0VA
0VA
0VA
LO2
C457
100n
0VA
R425
100k
5V0
C489
18p
R446
2k2
C496
4p7
R449
220R
7
C494
22p
0VA
0VA
0VA
0VA0VA
R440
33k
0VA
R426
100k
0VA
I
Q
D415
1SV229
1 2
3
Z401
45F12B
1 2
3
Z402
45F12B
C481
10n
C482
10n
R443
4k7
R444
4k7
C478
10n
C471
N.F.
R439
1k
R441
470R
R442
470R
R438
0R
C495
N.F.
0VA
C425
N.F.
0VA
HOT2 HOT3
HOT4
HOT5
HOT6 HOT7
HOT8
HOT9
HOT10
HOT11
HOT12
HOT13
HOT14
HOT15
HOT16
HOT17
HOT18
HOT19
HOT20
HOT21
HOT22
HOT23
HOT24
HOT25
HOT26
HOT27
HOT28
HOT29
HOT30
HOT31
HOT32
HOT33
HOT34 HOT35
HOT36
HOT37
HOT38
HOT39
HOT40 HOT41 HOT42 HOT43
HOT44 HOT45 HOT46 HOT47
HOT48
HOT49
8
8
Q5
BSN20
5V0
R46
1k
TX_PSU
Q2
BC849CW
0VA
R47
10k
L420
N.F.
L421
N.F.
L423
N.F.
L422
N.F.
C500
1p5
AGC-1
R453
10R
R454
N.F.
13
D406A
BAT54SW
32
D406B
BAT54SW
L424
N.F.
R456
0R
C415
N.F.
0VA
5
0VA
C28
68p
50_7
RX IN
C404
N.F.
C409
N.F.
C405
1n0
D404
N.F.
D403
1SV242
C418
220p
C419
1n0
C424
1n0
C432
10n
C436
220p
C434
1n0
C449
1n0
D409
1SV242
C440
2p2
D408
N.F.
C441
100p
D411
N.F.
D410
1SV242
D412
N.F.
C452
N.F.
C444
N.F.
C446
N.F.
C453
N.F.
C454
15p
R424
0R
C459
56p
D400
N.F.
C407
5p6
C428
10n
C429
N.F.
R415
10R
13
D413A
BAS70-04
3 2
D413B
BAS70-04
C458
68p
NOTE 1: dBmr LEVELS ARE MEASURED WITH X10 HIGH IMPEDANCE PROBE AND ARE RELATIVE TO A 0dBm SOURCE TERMINATED IN 50 OHMS.
NOTE 2: dB LEVELS ARE MESURED AS IN NOTE 1 BUT ARE RELATIVE TO -20dBm AT THE ANTENNA CONNECTOR.
(+6dB)
(+20dB)
C439
2p2
C447
N.F.
(+15dB)
(+25dB)
(-5dBmr)
(+18dB)
(+8dBmr)
(+26dB)
(+7dB)
9 9 9
Q200
N.F.
R220
N.F.
R219
N.F.
C200
N.F.
C201
N.F.
L201
N.F.
L200
N.F.
C203
N.F.
R227
N.F.
R228
N.F.
Q201
N.F.
R223
N.F.
R224
N.F.
R221
N.F.
Q202
N.F.
R229
N.F.
1 3
D200A
N.F.
32
D201B
BAV99W
C205
N.F.
1 3
D201A
N.F.
32
D200B
BAV99W
C206
N.F.
R226
N.F.
R225
N.F.
C207
N.F.
R231
N.F.
R233
N.F.
R237
N.F.
R234
N.F.
R235
N.F.
Q203
N.F.
C209
N.F.
Q204
N.F.
R239
N.F.
Q205
N.F.
C210
N.F.
R232
N.F.
0VA
0VA
0VA
0VA 0VA
0VA
0VA
0VA
0VA 0VA 0VA
0VA
R222
N.F.
R236
N.F.
C202
N.F.
C208
N.F.
0VA
0VA
0VA
RX_PSU
RX_PSU
0VA
C204
N.F.
R230
N.F.
0VA
C211
N.F.
C400
N.F.
PROVISION FOR GROUNDPLANE BRIDGING
(+1dB)
(+3dB)
0VA
0VA
0VA
0VA
0VA
0VA
R4570RR4580RR459
0R
C213
N.F.
0VA
C212
N.F.
0VA
C401
N.F.
C498
1p5
C499
1p5
13
D416A
N.F.
3 2
D416B
N.F.
R400
N.F.
R407
N.F.
R417
N.F.
R423
N.F.
L403
330n
C414
4p7
Figure 6-4E0 Receiver Circuit Schematic
E0 Band (66-88MHz)
Page 50
DRAFT D
TNM-M-E-0001 Page 46
L400
56n
C401
3p3
C400
N.F.
R400
N.F.
D400
N.F.
C402
N.F.
C404
4p7
C406
N.F.
C409
N.F.
L401
39n
C407
N.F.
D402
1SV242
C411
6p8
0VA
D401
N.F.
C412
27p
C413
N.F.
0VA
L402
27n
C417
N.F.
D403
1SV242
C414
6p8
D404
N.F.
C416
4p7
R403
4k7
R404
4k7
R401
100k
R407
N.F.
C403
1n0
C423
1n0
C405
1n0
C408
68p
C418
56p
C419
1n0
R406
100k
0VA
L403
180n
C420
1n0
D405
N.F.
C421
N.F.
TUNE1 TUNE2
C422
1n0
Q400
BFR505
R414
150R
R415
68R
R413
47R
R412
N.F.
R409
10k
R411
1k
C429
N.F.
C428
1n0
C426
N.F.
C427
1n0
L405
27n
L404
680n
R410
4k7
0VA
L406
N.F.
C433
N.F.
C431
330p
R417
N.F.
D407
N.F.
C432
330p
C444
N.F.
C445
N.F.
C446
2p2
L407
22n
C435
N.F.
D409
1SV242
C439
3p3
0VA
D408
N.F.
C441
27p
0VA
L408
33n
C447
N.F.
D410
1SV242
C440
3p3
D411
N.F.
C437
2p2
R419
4k7
R420
4k7
R418
100k
R423
N.F.
C430
1n0
C456
1n0
C434
1n0
C436
68p
C448
56p
C449
1n0
R422
100k
L409
100n
D412
N.F.
C451
N.F.
TUNE3 TUNE4
C450
1n0
C452
N.F.
C438
N.F.
L410
82n
C455
15p
C453
N.F.
C454
N.F.
C460
68p
L411
180n
R424
N.F.
R427
47R
1
2
5
4
3
T400
4:1
C463
1n0
Q401
BFR92A
R432
68R
R431
39R
R430
4k7
R428
10k
C465
10n
C467
10n
L414
820n
R429
3k3
C464
12p
C466
N.F.
L413
820n
C461
5p6
C462
10p
C458
N.F.
C459
6p8
L412
10n
0VA
LO1_RX
R433
1k2
C468
1n0
C469
10n
0VA
C470
12p
RX_PSU
L418
3u3
C493
1n0
Q402
BFR92A
R448
18k
C491
10n
R445
1k
R450
1k5
+
C492
1u 25V
0VA 0VA
C490
18p
C487
47p
C486
1n0
D414
1SV229
L417
100n
0VA
C488
10n
0VA0VA
AUX_CP
AUX_LO2
0VA
RX_ANT
C497
100n
R451
10k
0VA
R447
27k
13
D413A
BAS70-04
3 2
D413B
BAS70-04
Q403
BC849CW
R408
47R
RX_PSU
SCREEN SCREEN
1st I.F. FILTER
1st MIXER
FRONT END
2nd LOCAL OSCILLATOR (90MHz)
SCREEN
8V0
E400
2nd LO SCREEN CAN
E401
IF FRONTEND SCREEN CAN
E402
IF FRONTEND SCREEN CAN
0VA 0VA 0VA
Vcc1
1
Vcc2
2
Vcc3
3
CDMA IN+
4
CDMA IN-
5
GND
6
GND
7
FM IN+
8
FM IN-
9
BG OUT
10
DEC
11
LO-
12
LO+
13
IN SEL
14
Q OUT-
15
Q OUT+
16
GND
17
FL-
18
FL+
19
GND
20
I OUT+
21
I OUT-
22
GC
23
PD
24
U401
RF9957A
C472
1n0
L415
1u
+
C479
1u 25V
C473
1n0
0VA
0VA
C474
1n0
0VA
C483
10p
L416
1u
C484
10p
3Q3
C485
10n
0VA
0VA
C480
1n0
0VA
3Q3
0VA 0VA 0VA 0VA
3Q3
3Q3
C476
10n
0VA
C477
10n
0VA
0VA
R434
47R
0VA
5
9
7
9
6
0VA
0VA
0VA
0VA
LO2
C457
100n
0VA
R425
100k
5V0
C489
18p
R446
2k2
C496
4p7
R449
220R
7
C494
22p
0VA
0VA
0VA
0VA0VA
R440
33k
0VA
R426
100k
0VA
I
Q
D415
1SV229
1 2
3
Z401
45F12B
1 2
3
Z402
45F12B
C481
10n
C482
10n
R443
4k7
R444
4k7
C478
10n
C471
N.F.
R439
1k
R441
470R
R442
470R
R438
0R
C495
N.F.
0VA
C425
N.F.
0VA
HOT2 HOT3
HOT4
HOT5
HOT6 HOT7
HOT8
HOT9
HOT10
HOT11
HOT12
HOT13
HOT14
HOT15
HOT16
HOT17
HOT18
HOT19
HOT20
HOT21
HOT22
HOT23
HOT24
HOT25
HOT26
HOT27
HOT28
HOT29
HOT30
HOT31
HOT32
HOT33
HOT34 HOT35
HOT36
HOT37
HOT38
HOT39
HOT40
HOT42
HOT43
HOT44 HOT45 HOT46 HOT47
HOT48
HOT49
8
8
Q5
BSN20
5V0
R46
1k
TX_PSU
Q2
BC849CW
0VA
R47
10k
60651246.cdr rev6
L420
N.F.
L421
N.F.
L423
N.F.
L422
N.F.
C500
1p5
C498
1p0
C499
1p0
AGC-1
R453
10R
C424
1n0
R454
N.F.
13
D406A
BAT54SW
32
D406B
BAT54SW
L424
N.F.
R456
0R
C415
N.F.
0VA
C28
68p
50_7
RX IN
9 9 9
Q200
N.F.
R220
N.F.
R219
N.F.
C200
N.F.
C201
N.F.
L201
N.F.
L200
N.F.
C203
N.F.
R227
N.F.
R228
N.F.
Q201
N.F.
R223
N.F.
R224
N.F.
R221
N.F.
Q202
N.F.
R229
N.F.
1 3
D200A
N.F.
32
D201B
BAV99W
C205
N.F.
1 3
D201A
N.F.
32
D200B
BAV99W
C206
N.F.
R226
N.F.
R225
N.F.
C207
N.F.
R231
N.F.
R233
N.F.
R237
N.F.
R234
N.F.
R235
N.F.
R240
N.F.
Q203
N.F.
C209
N.F.
Q204
N.F.
R239
N.F.
Q205
N.F.
C210
N.F.
L202
N.F.
L203
N.F.
R238
N.F.
C212
N.F.
C216
N.F.
C217
N.F.
C218
N.F.
C215
N.F.
C214
N.F.
C213
N.F.
C222
N.F.
C221
N.F.
C220
N.F.
C219
N.F.
R232
N.F.
CAP1
CAP1
0VA
0VA
0VA
0VA
0VA 0VA
0VA
0VA
0VA
0VA
0VA 0VA 0VA
0VA
R222
N.F.
R236
N.F.
C202
N.F.
C208
N.F.
0VA
0VA
0VA
RX_PSU
RX_PSU
0VA
C204
N.F.
R230
N.F.
0VA
C211
N.F.
PROVISION FOR GROUNDPLANE BRIDGING
0VA
0VA
0VA
0VA
0VA
0VA
R457
N.F.
R458
N.F.
R459
N.F.
Figure 6-4AC Receiver Circuit Schematic
AC Band (136 - 174MHz)
Page 51
DRAFT D
TNM-M-E-0001 Page 47
L400
N.F.
C401
N.F.
C400
5p6
R400
4k7
D400
1SV229
C402
N.F.
C404
5p6
C406
N.F.
C409
3p3
L401
8n0
C407
N.F.
D402
N.F.
C411
1p5
0VA
D401
1SV229
C412
22p
C413
N.F.
0VA
L402
8n0
C417
N.F.
D403
N.F.
C414
1p2
D404
1SV229
C416
N.F.
R403
4k7
R404
4k7
R401
100k
R407
4k7
C403
1n0
C423
1n0
C405
120p
C408
27p
C418
33p
C419
68p
R406
100k
0VA
L403
N.F.
C420
N.F.
D405
1SV229
TUNE1 TUNE2
C422
1n0
Q400
BFR505
R414
150R
R415
0R
R413
10R
R412
N.F.
R409
10k
R411
1k
C429
N.F.
C428
47p
C426
N.F.
C427
1n0
L405
N.F.
L404
68n
R410
4k7
0VA
L406
N.F.
C432
N.F.
C431
15p
R417
4k7
D407
1SV229
C433
N.F.
C444
1p5
C445
N.F.
C446
1p0
L407
8n0
C435
N.F.
D409
N.F.
C439
1p0
0VA
D408
1SV229
C441
22p
0VA
L408
8n0
C447
N.F.
D410
N.F.
C440
1p0
D411
1SV229
C437
N.F.
R419
4k7
R420
4k7
R418
100k
R423
4k7
C430
1n0
C456
1n0
C434
82p
C436
33p
C448
27p
C449
68p
R422
100k
L409 N.F. D412
1SV229
C451
N.F.
TUNE3 TUNE4
C450
1n0
C452
3p3
C438
N.F.
L410
22n
C453
5p6
C455
5p6
C454
N.F.
C460
68p
L411
180n
R424
N.F.
R427
47R
1
2
5
4
3
T400
4:1
Q401
BFR92A
R430
4k7
R428
10k
C465
10n
C467
10n
L414
820n
R429
3k3
C464
12p
C466
N.F.
L413
820n
C461
5p6
C462
10p
C458
N.F.
C459
6p8
L412
10n
0VA
LO1_RX
R433
1k2
C469
10n
0VA
C470
12p
RX_PSU
L418
3u3
C493
1n0
Q402
BFR92A
R448
18k
C491
10n
R445
1k
R450
1k5
+
C492
1u 25V
0VA 0VA
C490
18p
C487
47p
C486
1n0
D414
1SV229
L417
100n
0VA
C488
10n
0VA0VA
AUX_CP
AUX_LO2
0VA
C497
100n
R451
10k
0VA
R447
27k
13
D413A
BAS70-04
3 2
D413B
BAS70-04
Q403
BC849CW
R408
47R
RX_PSU
SCREEN SCREEN
1st I.F. FILTER
1st MIXER
FRONT END
2nd LOCAL OSCILLATOR (90MHz)
SCREEN
8V0
E400
2nd LO SCREEN CAN
E401
IF FRONTEND SCREEN CAN
E402
IF FRONTEND SCREEN CAN
0VA 0VA 0VA
Vcc1
1
Vcc2
2
Vcc3
3
CDMA IN+
4
CDMA IN-
5
GND
6
GND
7
FM IN+
8
FM IN-
9
BG OUT
10
DEC
11
LO-
12
LO+
13
IN SEL
14
Q OUT-
15
Q OUT+
16
GND
17
FL-
18
FL+
19
GND
60651147.cdr TK Rev7
20
I OUT+
21
I OUT-
22
GC
23
PD
24
U401
RF9957A
C472
1n0
L415
1u
+
C479
1u 25V
C473
1n0
0VA
0VA
C474
1n0
0VA
C483
10p
L416
1u
C484
10p
3Q3
C485
10n
0VA
0VA
C480
1n0
0VA
3Q3
0VA 0VA 0VA 0VA
3Q3
3Q3
C476
10n
0VA
C477
10n
0VA
0VA
R434
47R
0VA
9
7
9
6
0VA
0VA
0VA
LO2
C457
100n
0VA
R425
100k
5V0
C489
18p
R446
2k2
C496
4p7
R449
220R
7
C494
22p
0VA
0VA
0VA
0VA0VA
R440
33k
0VA
R426
100k
0VA
I
Q
D415
1SV229
1 2
3
Z401
45F12B
1 2
3
Z402
45F12B
C481
10n
C482
10n
R443
4k7
R444
4k7
C478
10n
C471
N.F.
R439
1k
R441
470R
R442
470R
R438
0R
C495
N.F.
0VA
C425
N.F.
0VA
HOT2 HOT3
HOT4
HOT5
HOT6 HOT7
HOT8
HOT9
HOT10
HOT11
HOT12
HOT13
HOT14
HOT15
HOT16
HOT17
HOT18
HOT19
HOT20
HOT21
HOT22
HOT23
HOT24
HOT25
HOT26
HOT27
HOT28
HOT29
HOT30
HOT31
HOT32
HOT33
HOT34 HOT35
HOT36
HOT37
HOT38
HOT39
HOT40 HOT41 HOT42 HOT43
HOT44 HOT45 HOT46 HOT47
HOT48
HOT49
8
8
Q5
BSN20
5V0
R46
1k
TX_PSU
Q2
BC849CW
0VA
R47
10k
L420
N.F.
L421
N.F.
L423
N.F.
L422
N.F.
C500
1p5
C498
1p5
C499
1p5
AGC-1
R453
10R
C424
10p
R454
N.F.
13
D406A
BAT54SW
32
D406B
BAT54SW
L424
N.F.
R456
0R
0VA
5
0VA
C28
27p
50_7
RX IN
C421
N.F.
9 9 9
32
D201B
BAV99W
32
D200B
BAV99W
0VA
0VA
0VA
0VA
0VA
0VA
R4570RR4580RR459
0R
C415
2p7
Q200
N.F.
R220
N.F.
R219
N.F.
C200
N.F.
C201
N.F.
L201
N.F.
L200
N.F.
C203
N.F.
R227
N.F.
R228
N.F.
Q201
N.F.
R223
N.F.
R224
N.F.
R221
N.F.
Q202
N.F.
R229
N.F.
1 3
D200A
N.F.
C205
N.F.
1 3
D201A
N.F.
C206
N.F.
R226
N.F.
R225
N.F.
C207
N.F.
R231
N.F.
R233
N.F.
R237
N.F.
R234
N.F.
R235
N.F.
Q203
N.F.
C209
N.F.
Q204
N.F.
R239
N.F.
Q205
N.F.
C210
N.F.
R232
N.F.
0VA
0VA
0VA
0VA 0VA
0VA
0VA
0VA
0VA 0VA 0VA
0VA
R222
N.F.
R236
N.F.
C202
N.F.
C208
N.F.
0VA
0VA
0VA
RX_PSU
RX_PSU
0VA
C204
N.F.
R230
N.F.
0VA
C211
N.F.
C213
N.F.
0VA
C212
N.F.
0VA
13
D416A
N.F.
3 2
D416B
N.F.
C463
10p
C468
470R
R432
100R
R431
0R
Figure 6-4TK Receiver Circuit Schematic
TK Band (400- 450MHz)
Page 52
DRAFT D
TNM-M-E-0001 Page 48
L400
N.F.
C401
N.F.
C400
3p9
R400
4k7
D400
1SV229
C402
N.F.
C404
1p5
C406
N.F.
C409
1p5
L401
8n0
C407
N.F.
D402
N.F.
C411
1p5
0VA
D401
1SV229
C412
18p
C413
N.F.
0VA
L402
8n0
C417
N.F.
D403
N.F.
C414
1p5
D404
1SV229
C416
N.F.
R403
4k7
R404
4k7
R401
100k
R407
4k7
C403
1n0
C423
1n0
C405
33p
C408
33p
C418
27p
C419
33p
R406
100k
0VA
L403
N.F.
C420
N.F.
D405
1SV229
C421
3p3
TUNE1 TUNE2
C422
1n0
Q400
BFR505
R414
150R
R415
0R
R413
10R
R412
N.F.
R409
10k
R411
1k
C429
N.F.
C428
47p
C426
N.F.
C427
1n0
L405
N.F.
L404
220n
R410
4k7
0VA
L406
N.F.
C432
N.F.
C431
8p2
R417
4k7
D407
1SV229
C433
N.F.
C444
1p8
C445
N.F.
C446
1p8
L407
8n0
C435
N.F.
D409
N.F.
C439
2p2
0VA
D408
1SV229
C441
22p
0VA
L408
8n0
C447
N.F.
D410
N.F.
C440
1p2
D411
1SV229
C437
N.F.
R419
4k7
R420
4k7
R418
100k
R423
4k7
C430
1n0
C456
1n0
C434
33p
C436
47p
C448
47p
C449
39p
R422
100k
L409 N.F.
D412
1SV229
C451
N.F.
TUNE3 TUNE4
C450
1n0
C452
3p3
C438
N.F.
60651046.cdr rev6
L410
22n
C453
5p6
C455
4p7
C454
N.F.
C460
68p
L411
180n
R424
N.F.
R427
47R
1
2
5
4
3
T400
4:1
C463
1n0
Q401
BFR92A
R432
68R
R431
39R
R430
4k7
R428
10k
C465
10n
C467
10n
L414
820n
R429
3k3
C464
12p
L413
820n
C461
5p6
C462
10p
C458
N.F.
C459
6p8
L412
10n
0VA
LO1_RX
R433
1k2
C468
1n0
C469
10n
0VA
C470
12p
RX_PSU
L418
3u3
C493
1n0
Q402
BFR92A
R448
18k
C491
10n
R445
1k
R450
1k5
+
C492
1u 25V
0VA 0VA
C490
18p
C487
47p
C486
1n0
D414
1SV229
L417
100n
0VA
C488
10n
0VA0VA
AUX_CP
AUX_LO2
0VA
C497
100n
R451
10k
0VA
R447
27k
13
D413A
BAS70-04
3 2
D413B
BAS70-04
Q403
BC849CW
R408
47R
RX_PSU
SCREEN SCREEN
1st I.F. FILTER
1st MIXER
FRONT END
2nd LOCAL OSCILLATOR (90MHz)
SCREEN
8V0
E400
2nd LO SCREEN CAN
E401
IF FRONTEND SCREEN CAN
E402
IF FRONTEND SCREEN CAN
0VA 0VA 0VA
Vcc1
1
Vcc2
2
Vcc3
3
CDMA IN+
4
CDMA IN-
5
GND
6
GND
7
FM IN+
8
FM IN-
9
BG OUT
10
DEC
11
LO-
12
LO+
13
IN SEL
14
Q OUT-
15
Q OUT+
16
GND
17
FL-
18
FL+
19
GND
20
I OUT+
21
I OUT-
22
GC
23
PD
24
U401
RF9957A
C472
1n0
L415
1u
+
C479
1u 25V
C473
1n0
0VA
0VA
C474
1n0
0VA
C483
10p
L416
1u
C484
10p
3Q3
C485
10n
0VA
0VA
C480
1n0
0VA
3Q3
0VA 0VA 0VA 0VA
3Q3
3Q3
C476
10n
0VA
C477
10n
0VA
0VA
R434
47R
0VA
7
9
6
0VA
0VA
0VA
LO2
C457
100n
0VA
R425
100k
5V0
C489
18p
R446
2k2
C496
4p7
R449
220R
7
C494
22p
0VA
0VA
0VA
0VA0VA
R440
33k
0VA
R426
100k
0VA
I
Q
D415
1SV229
1 2
3
Z401
45F12B
1 2
3
Z402
45F12B
C481
10n
C482
10n
R443
4k7
R444
4k7
C478
10n
C471
N.F.
R439
1k
R441
470R
R442
470R
R438
0R
C495
N.F.
0VA
C425
N.F.
0VA
HOT2 HOT3
HOT4
HOT5
HOT6 HOT7
HOT8
HOT9
HOT10
HOT11
HOT12
HOT13
HOT14
HOT15
HOT16
HOT17
HOT18
HOT19
HOT20
HOT21
HOT22
HOT23
HOT24
HOT25
HOT26
HOT27
HOT28
HOT29
HOT30
HOT31
HOT32
HOT33
HOT34 HOT35
HOT36
HOT37
HOT38
HOT39
HOT40 HOT41 HOT42 HOT43
HOT44 HOT45 HOT46 HOT47
HOT48
HOT49
8
8
Q5
BSN20
5V0
R46
1k
TX_PSU
Q2
BC849CW
0VA
R47
10k
L420
N.F.
L421
N.F.
L423
N.F.
L422
N.F.
C500
1p5
C498
1p0
C499
1p0
AGC-1
R453
10R
C424
10p
R454
N.F.
13
D406A
BAT54SW
32
D406B
BAT54SW
L424
N.F.
R456
0R
C415
N.F.
0VA
5
0VA
C28
27p
50_7
RX IN
Q200
N.F.
R220
N.F.
R219
N.F.
C200
N.F.
C201
N.F.
L201
N.F.
L200
N.F.
C203
N.F.
R227
N.F.
R228
N.F.
Q201
N.F.
9 9 9 9
R223
N.F.
R224
N.F.
R221
N.F.
Q202
N.F.
R229
N.F.
1 3
D200A
N.F.
32
D201B
BAV99W
C205
N.F.
1 3
D201A
N.F.
32
D200B
BAV99W
C206
N.F.
R226
N.F.
R225
N.F.
C207
N.F.
R231
N.F.
R233
N.F.
R237
N.F.
R234
N.F.
R235
N.F.
Q203
N.F.
C209
N.F.
Q204
N.F.
R239
N.F.
Q205
N.F.
C210
N.F.
R232
N.F.
0VA
0VA
0VA
0VA 0VA
0VA
0VA
0VA
0VA 0VA 0VA
0VA
R222
N.F.
R236
N.F.
C202
N.F.
C208
N.F.
0VA
0VA
0VA
RX_PSU
RX_PSU
0VA
C204
N.F.
R230
N.F.
0VA
C211
N.F.
C213
N.F.
0VA
C212
N.F.
0VA
PROVISION FOR GROUNDPLANE BRIDGING
0VA
0VA
0VA
0VA
0VA
0VA
R457
N.F.
R458
N.F.
R459
N.F.
Figure 6-4UW Receiver Circuit Schematic
UW Band (440- 500MHz)
Page 53
DRAFT D
TNM-M-E-0001 Page 49
D3
UM9401F
TXRF
4
6
C7
100p
C11
N.F.
R16
N.F.
R17
N.F.
R18
N.F. 0W25
L4
220n
R21
1k
0VA
0VA
0VA0VA
0VA
0VA0VA
R23
0R
0VA
C15
N.F.
0VA 0VA
L5
FB
C17
10n
0VA 0VA
L7
FB
C19
10n
0VA
C20
1n0
0VA
0VA 0VA
+
C5
N.F.
13V8_UNSW
L9
4u7
C23
1n0
0VA
L10
66n
L11
66n
L12
66n
R24
68k
L13
108n
C36
27p
0VA
0VA
0VA 0VA 0VA 0VA
0VA
Q9
N.F.
0VA
0VA
0VA
RF_DET
R28
22R 0W25
R29
1k
Q3
FZT749
Q10
BC849CW
R30
1k
R31
4k7
2
3
1
84
U3A
LMV358MX
C31
100n
0VA
0VA
TX_PSU
C32
10n
R33
4k7
+
C6
1u 25V
C33
10n
0VA
0VA0VA
0VA
0VA
13V8_UNSW
TX_DRV_PSU
R34
1k 0W25
R35
10R 0W25
Q4
BCX51
Q11
BC849CW
R36
150R
R37
4k7
13V8_UNSW
C37
39p
C39
27p
C40
18p
PA_2
PA_3
PA_4
0VA
R625
100R
R627
100R
R626
68R
C25
10p
0VA
C50
12p
0VA
Q612
BFR540
R630
470R
R631
470R
0VA
0VA
0VA
0VA 0VA
Q8
PMMT491A
0VA
13V8_UNSW
R26
2k2
0VA0VA
C650
10n
0VA
R635
100R
R19
N.F. 0W25
C652
10n
C24
15p
C654
68p
50_4
R637
82R
Q4C
R640
82R
50_6
R638
100R
50_5
L615
100n
50_7
C48
1n0
0VA
Q609
BC849CW
50_8
E502
PA FILTER CAN
8V0
E501
PA FILTER CAN
60651357.cdr EO Rev7
0VA
+
C649
1u
R45
22k
R40
N.F.
0VA
L1
820n
R54
100R
TX_DRV_PSU
C57
1p5
R53
3k3
C56
1n0
1 3
D6A
BAS70-04
32
D6B
BAS70-04
C55
1n0
R52
4k7
0VA
0VA
0VA
0VA
0VA
R57
100k
0VA
0VA 0VA0VA
L17
470n
R58
N.F.
R59
3k9
R63
22k
R62
1k
Q14
BSP090
C80
10n
0VA
13V8_UNSW
0VA
Q12
2SK2973
0VA
L18
10n
13V8_UNSW
R15
10k
6.6 2.0
6.3
2.2
5.0
S5
0VA
E503
TX DRIVER CAN
E504
TX PRE-DRIVER CAN
0VA
0VA
0VA
0VA
50_1 50_2
L32
N.F.
PA_2A
PA_ON
L500
4u7
R500
100R
R84
22R 0W25
C21
100n
R636
N.F.
R501
10R
R502
47R
R503
22R 0W25
0VA
R27
N.F.
C29
N.F.
C30
N.F.
2
(5dBmr Tx)
(11dBmr Tx)
(21dBmr - 25W Tx)
(45dBm)
(0dBm Rx)
Q18
BC849CW
Q19
BC859CW
R523
4k7
Q17
BC849CW
R517
4k7
R515
4k7
R522
100k
C511
27p
R513
100k
R514
0R
R519
15k
R521
100k
R520
0R
0VA
C509
1u
R516
15k
0VA
0VA
0VA
R518
100k
C510
N.F.
13V8_UNSW
13V8_UNSW
Q16
BSN20
R512
100k
+
C506
10u 10V
0VA
0VA
Q15
BC849CW
0VA
0VA
R509
22k
R511
47k
R25
4k7
PTT_ALC
2
0VA0VA0VA
E506
SHIELD, COVER, PA MODULE
E505
SHIELD, TRAY, PA MODULE
0VA0VA 0VA0VA0VA 0VA
R88
1k
R510
100R
R508
N.F.
TX_PSU
R507
N.F.
C651
100p
C653
100p
R632
1k
C504
N.F.
C606
100n
C8
N.F.
C81
N.F.
C10
1n0
C9
N.F.
R505
N.F.
L19
0R
C12
100n
C82
100n
L2
10n
C14
N.F.
C372
N.F.
C373
N.F.
C374
N.F.
C375
N.F.
C376
N.F.
C377
N.F.
C513
N.F.
C514
N.F.
C515
N.F.
C16
N.F.
1
2
5
4
U2
M67742
L6
N.F.
C18
N.F.
C77
39p
C78
47p
C54
1n
C26
2n2
C27
2n2
D4
BA592D5BA592
C49
15p
+
C516
1u 25V
0VA
0VA 0VA
+
C519
10u 35V
0VA
(44dBm - 25W Tx)
0VA
NOTE 1: dBmr LEVELS ARE MEASURED WITH X10 HIGH IMPEDANCE PROBE AND ARE RELATIVE TO A 0dBm SOURCE TERMINATED IN 50 OHMS.
NOTE 2: dB LEVELS ARE MESURED AS IN NOTE 1 BUT ARE RELATIVE TO -20dBm AT THE ANTENNA CONNECTOR.
C520
39p
C38
N.F.
C79
18p
R526
220k
R32
100k
C507
10n
C508
10n
ATT = 10dB
ATT = 12.5dB
L16
0R
R64
22R
C502
N.F.
R504
N.F.
0VA
C521
8p2
13
D500A
N.F.
32
D500B
N.F.
R525
0R
R524
4k7
R41
N.F.
R527
220k
RX OUT
C522
N.F.
C523
N.F.
TX_PWR_SET
9
C60
100n
R55
2k2
0VA
U
R452
6
5
7
U3B
LMV358MX
R66
6k8
0VA
+t 85
o
R506
5k6
C503
1n0
0VA
0VA
C504
N.F.
0VA
R530
N.F.
13
D501A
BAV99W
R529
100k
R532
100k
R531
0R
R528
0R
Q500
BC849CW
C524
100n
0VA 0VA
0VA
TX_PSU
R533
N.F.
R12
470R
C518
100n
C512
N.F.
+
C517
1u 25V
Figure 6-5E0 Transmitter Circuit Schematic
E0 Band (66-88MHz)
Page 54
DRAFT D
TNM-M-E-0001 Page 50
D3
UM9401F
TXRF
4
6
C7
39p
C8
15p
C11
N.F.
R16
N.F.
R17
N.F.
R18
N.F.L468n
0VA
0VA0VA
0VA
0VA0VA
C14
3p3
0VA
C15
N.F.
0VA
C16
N.F.
0VA
1
2
5
4
U2
M67741L
L5
FB
0VA
L6
N.F.
C18
N.F.
0VA
L7
FB
C19
10n
0VA
C20
1n0
0VA
0VA 0VA
+
C5
10u 35V
13V8_UNSW
L9
1u
C23
1n0
0VA
L10
36n
L11
36n
L12
36n
R24
68k
L13
50n
0VA
0VA
0VA 0VA 0VA 0VA
0VA
Q9
N.F.
0VA
0VA
0VA
RF_DET
R28
22R 0W25
R29
1k
Q3
FZT749
Q10
BC849CW
R30
1k
R31
4k7
2
3
1
84
U3A
LMV358MX
C31
100n
0VA
0VA
TX_PSU
+
C6
1u 25V
C33
10n
0VA
0VA0VA
0VA
0VA
13V8_UNSW
TX_DRV_PSU
TX_PWR_SET
9
R34
1k 0W25
R35
15R 0W25
Q4
BCX51
Q11
BC849CW
R36
150R
R37
4k7
13V8_UNSW
C37
27p
C77
27p
C39
27p
C40
10p
60651256.cdr rev6
PA_2
PA_3
PA_4
0VA
R625
100R
R627
100R
R626
68R
C25
8p2
0VA
C50
8p2
0VA
D4
BA592
Q612
BFR540
D5
BA592
R630
470R
C26
470p
R631
470R
C27
470p
0VA
0VA
0VA
0VA 0VA
Q8
PMMT491A
0VA
C651
39p
13V8_UNSW
R26
2k2
0VA0VA
C650
10n
0VA
R635
100R
C652
10n
C24
10p
C654
27p
50_4
R637
82R
Q4C
R640
82R
50_6
R638
100R
50_5
L615
27n
50_7
R632
N.F.
C48
1n0
C653
N.F.
0VA
C49
8p2
R524
4k7
Q609
BC849CW
50_8
E502
PA FILTER CAN
8V0
E501
PA FILTER CAN
0VA
C54
1n
+
C649
1u
R45
22k
R40
N.F.
0VA
L1
220n
R54
100R
TX_DRV_PSU
C57
1p5
R53
470R
C56
1n0
1 3
D6A
BAS70-04
32
D6B
BAS70-04
C55
1n0
R52
10k
0VA
0VA
0VA
0VA
0VA
L2
12R
C60
100n
R55
2k2
0VA
R57
100k
0VA
C38
N.F.
0VA 0VA
C78
N.F.
C79
N.F.
0VA
L17
39n
L16
0R
R58
N.F.
R59
3k9
R63
22k
R62
1k
Q14
BSP090
C80
10n
0VA
13V8_UNSW
0VA
C606
10n
Q12
2SK2973
L19
12R
0VA
L18
56n
13V8_UNSW
6.6 2.0
6.3
2.2
5.0
S5
0VA
E503
TX DRIVER CAN
E504
TX PRE-DRIVER CAN
0VA
0VA
0VA
0VA
50_1 50_2
U
R452
6
5
7
U3B
LMV358MX
R66
10k
0VA
L32
N.F.
PA_2A
PA_ON
+t 85
o
C501
22p
L500
1u
R500
100R
R12
N.F.
R84
22R 0W25
C21
100n
R636
N.F.
R501
10R
R502
47R
R503
15R 0W25
0VA
R27
N.F.
C29
N.F.
C30
N.F.
R506
3k3
C503
1n0
0VA
R505
N.F.
2
0VA
C504
N.F.
0VA
C505
N.F.
(12dBm)
(5dBm)
(26dBm)
(45dBm)
(44dBm)
Q18
N.F.
Q19
N.F.
R523
4k7
Q17
N.F.
R513
100k
R514
0R
0VA
C509
N.F.
0VA
0VA
0VA
C510
N.F.
13V8_UNSW
13V8_UNSW
Q16
BSN20
R512
100k
+
C506
10u 10V
0VA
0VA
Q15
BC849CW
0VA
0VA
R509
22k
R511
47k
R25
4k7
PTT_ALC
2
0VA0VA0VA
E506
SHIELD, COVER, PA MODULE
E505
SHIELD, TRAY, PA MODULE
R33
8k2
0VA0VA 0VA0VA 0VA
C32
10n
R32
150k
R88
1k
R510
100R
R508
N.F.
0VA
C372
N.F.
C373
N.F.
C374
N.F.
C375
N.F.
C376
N.F.
C377
N.F.
C513
N.F.
C514
N.F.
C515
N.F.
C507
10n
C508
10n
R19
N.F.
C9
N.F.
C10
1n0
C81
N.F.
R23
12R
R64
0R
C12
100n
C82
100n
R21
1k5
0VA
R15
10k
13
D500A
BAV99W
32
D500B
BAV99W
R525
N.F.
R41
N.F.
TX_PSU
R526
100k
R507
N.F.
C36
3p3
+
C516
1u 25V
0VA
+
C517
1u 25V
0VA
C17
100n
C518
100n
0VA
C511
N.F.
R518
N.F.
R519
N.F.
R520
N.F.
R516
N.F.
R522
N.F.
R521
N.F.
R517
N.F.
R515
N.F.
C512
N.F.
6db ATT.
12.4db ATT.
+
C519
10u 35V
0VA
C520
N.F.
0VA
C521
N.F.
0VA
C502
N.F.
R504
N.F.
R527
N.F.
C522
N.F.
C523
N.F.
Figure 6-5AC Transmitter Circuit Schematic
AC Band (136 - 174MHz)
Page 55
DRAFT D
TNM-M-E-0001 Page 51
D3
UM9401F
TXRF
4
6
C7
100p
C8
5p6
C9
1n0
C10
100p
C11
N.F.
R16
N.F.
R17
N.F.
R18
N.F. 0W25
L4
22n
R21
1k
0VA
0VA
0VA0VA
0VA
0VA
C12
1n0
0VA
R23
0R
C14
6p8
0VA
C15
N.F.
0VA
C16
10p
0VA
1
2
354
U2
M68762H
L5
FB
C17
10n
0VA
L6
FB
C18
10n
0VA
L7
FB
C19
10n
0VA
C20
1n0
0VA
0VA 0VA
+
C5
N.F.
13V8_UNSW
L9
330n
C23
1n0
0VA
L10
17n
L11
14n
L12
14n
R24
68k
L13
21n
C36
5p6
0VA
0VA
0VA 0VA 0VA 0VA
0VA
Q9
N.F.
0VA
0VA
0VA
RF_DET
R28
22R 0W25
R29
1k
Q3
FZT749
Q10
BC849CW
R30
1k
R31
4k7
2
3
1
84
U3A
LMV358MX
C31
100n
0VA
0VA
TX_PSU
C32
10n
R32
100k
R33
3k9
+
C6
1u 25V
C33
10n
0VA
0VA0VA
0VA
0VA
13V8_UNSW
TX_DRV_PSU
R34
1k 0W25
R35
15R 0W25
Q4
BCX51
Q11
BC849CW
R36
150R
R37
4k7
13V8_UNSW
C37
5p6
C38
8p2
C39
6p8
PA_2
PA_3
PA_4
0VA
R625
120R
R627
120R
R626
47R
0VA
C522
10p
0VA
D4
1SS314
Q612
BFR540
D5
1SS314
R630
470R
C26
56p
R631
470R
C27
56p
0VA
0VA
0VA
0VA 0VA
Q8
PMMT491A
0VA
C651
12p
13V8_UNSW
R26
2k2
0VA0VA
C650
10n
0VA
R635
100R
R19
N.F. 0W25
C652
10n
C654
12p
50_4
R637
270R
Q4C
R640
270R
50_6
R638
22R
50_5
L615
10n
50_7
R632
N.F.
C48
1n0
C653
N.F.
0VA
Q609
BC849CW
50_8
E502
60651157.cdr TK Rev7
PA FILTER CAN
8V0
E501
PA FILTER CAN
0VA
C54
15p
+
C649
1u
R45
22k
R40
N.F.
0VA
L1
47n
R54
100R
TX_DRV_PSU
C57
1p5
R53
470R
C56
1n0
1 3
D6A
BAS70-04
32
D6B
BAS70-04
C55
1n0
R52
10k
0VA
0VA
0VA
0VA
0VA
L2
0R
R57
100k
0VA
C77
N.F.
0VA 0VA
C78
N.F.
0VA
L17
18n
L16
10n
R58
N.F.
R59
3k9
R63
22k
R62
1k
Q14
BSP090
C80
10n
0VA
13V8_UNSW
0VA
C606
10n
Q12
2SK2973
C82
100p
L19
6n8
C81
8p2
0VA
L18
8n2
13V8_UNSW
R15
10k
6.6 2.0
6.3
2.2
5.0
S5
0VA
R64
10R
E503
TX DRIVER CAN
E504
TX PRE-DRIVER CAN
0VA
0VA
0VA
0VA
50_1 50_2
L32
N.F.
PA_2A
PA_ON
C501
4p7
L500
100n
R500
100R
R84
22R 0W25
C21
100n
R636
N.F.
R501
10R
R502
47R
R503
15R 0W25
0VA
R27
N.F.
C29
N.F.
C30
N.F.
R505
10R
2
(18dBm)
(20dBm)
(25dBm)
(45dBm)
(44dBm)
Q18
BC849CW
Q19
BC859CW
R523
4k7
C512
1n0
Q17
BC849CW
R517
4k7
R515
4k7
R522
100k
C511
27p
R513
100k
R514
0R
R519
15k
R521
100k
R520
0R
0VA
C509
1u
R516
15k
0VA
0VA
0VA
R518
100k
C510
N.F.
13V8_UNSW
13V8_UNSW
Q16
BSN20
R512
100k
+
C506
10u 10V
0VA
0VA
Q15
BC849CW
0VA
0VA
R509
22k
R511
47k
R25
4k7
PTT_ALC
2
0VA0VA0VA
E506
SHIELD, COVER, PA MODULE
E505
SHIELD, TRAY, PA MODULE
0VA0VA 0VA0VA0VA 0VA
C376
1n0
C377
100p
C375
10n
C514
1n0
C515
100p
C513
10n
C373
1n0
C374
100p
C372
10n
R88
1k
R510
100R
R508
N.F.
TX_PSU
13
D500A
N.F.
32
D500B
N.F.
R525
0R
R526
100k
R507
N.F.
+
C516
N.F.
0VA
+
C517
N.F.
0VA 0VA
+
C519
10u 35V
0VA
C520
N.F.
0VA
C521
N.F.
0VA
C502
N.F.
R504
N.F.
R524
4k7
R41
N.F.
R527
220k
C507
10n
C508
10n
C25
6p8
C40
N.F.
C49
1p5
C24
N.F.
C79
2p2
C50
N.F.
C523
3p3
TX_PWR_SET
9
C60
100n
R55
2k2
0VA
U
R452
6
5
7
U3B
LMV358MX
R66
10k
0VA
+t 85
o
R506
100R
C503
1n0
0VA
0VA
C504
N.F.
0VA
R530
N.F.
13
D501A
BAV99W
R529
100k
R532
100k
R531
0R
R528
0R
Q500
BC849CW
C524
100n
0VA 0VA
0VA
TX_PSU
R533
N.F.
R12
470R
C518
N.F.
Figure 6-5TK Transmitter Circuit Schematic
TK Band (400- 450MHz)
Page 56
DRAFT D
TNM-M-E-0001 Page 52
D3
UM9401F
60651056.cdr rev6
TXRF
4
6
C7
100p
C8
5p6
C9
1n0
C10
100p
C11
N.F.
R16
N.F.
R17
N.F.
R18
N.F. 0W25
L4
22n
R21
1k
0VA
0VA
0VA0VA
0VA
0VA
C12
1n0
0VA
R23
0R
C14
4p7
0VA
C15
N.F.
0VA
C16
10p
0VA
1
2
354
U2
M68762H
L5
FB
C17
10n
0VA
L6
FB
C18
10n
0VA
L7
FB
C19
10n
0VA
C20
1n0
0VA
0VA 0VA
+
C5
N.F.
13V8_UNSW
L9
330n
C23
1n0
0VA
L10
17n
L11
14n
L12
14n
R24
68k
L13
17n
C36
5p6
0VA
0VA
0VA 0VA 0VA 0VA
0VA
Q9
N.F.
0VA
0VA
0VA
RF_DET
R28
22R 0W25
R29
1k
Q3
FZT749
Q10
BC849CW
R30
1k
R31
4k7
2
3
1
84
U3A
LMV358MX
C31
100n
0VA
0VA
TX_PSU
C32
10n
R32
100k
R33
4k7
+
C6
1u 25V
C33
10n
0VA
0VA0VA
0VA
0VA
13V8_UNSW
TX_DRV_PSU
TX_PWR_SET
9
R34
1k 0W25
R35
15R 0W25
Q4
BCX51
Q11
BC849CW
R36
150R
R37
4k7
13V8_UNSW
C37
5p6
C38
8p2
C39
6p8
C40
1p8
PA_2
PA_3
PA_4
0VA
R625
150R
R627
150R
R626
47R
C25
5p6
0VA
C50
1p5
0VA
D4
1SS314
Q612
BFR540
D5
1SS314
R630
470R
C26
39p
R631
470R
C27
39p
0VA
0VA
0VA
0VA 0VA
Q8
PMMT491A
0VA
C651
12p
13V8_UNSW
R26
2k2
0VA0VA
C650
10n
0VA
R635
100R
R19
N.F. 0W25
C652
10n
C24
1p5
C654
12p
50_4
R637
270R
Q4C
R640
270R
50_6
R638
22R
50_5
L615
10n
50_7
R632
N.F.
C48
1n0
C653
N.F.
0VA
C49
N.F.
R41
4k7
Q609
BC849CW
50_8
E502
PA FILTER CAN
8V0
E501
PA FILTER CAN
0VA
C54
47p
+
C649
1u
R45
22k
R40
N.F.
0VA
L1
47n
R54
100R
TX_DRV_PSU
C57
1p5
R53
470R
C56
1n0
1 3
D6A
BAS70-04
32
D6B
BAS70-04
C55
1n0
R52
10k
0VA
0VA
0VA
0VA
0VA
L2
0R
C60
100n
R55
2k2
0VA
R57
100k
0VA
C77
N.F.
0VA 0VA
C78
N.F.
C79
N.F.
0VA
L17
18n
L16
6n8
R58
N.F.
R59
3k9
R63
22k
R62
1k
Q14
BSP090
C80
10n
0VA
13V8_UNSW
HEATSINK ON INNER LAYER
0VA
C606
10n
Q12
2SK2973
C82
100p
L19
8n2
C81
8p2
0VA
L18
8n2
13V8_UNSW
R15
10k
6.6 2.0
6.3
2.2
5.0
S5
0VA
R64
10R
E503
TX DRIVER CAN
E504
TX PRE-DRIVER CAN
0VA
0VA
0VA
0VA
50_1 50_2
U
R452
6
5
7
U3B
LMV358MX
R66
10k
0VA
L32
N.F.
PA_2A
PA_ON
+t 85
o
C501
4p7
L500
100n
R500
100R
R84
22R 0W25
C21
100n
R636
N.F.
R501
10R
R502
47R
R503
15R 0W25
0VA
R27
N.F.
C29
N.F.
C30
N.F.
R506
100R
C503
1n0
0VA
R505
10R
2
0VA
C504
N.F.
0VA
(18dBm)
(20dBm)
(25dBm)
(45dBm)
(44dBm)
Q18
BC849CW
Q19
BC859CW
R523
4k7
C512
1n0
Q17
BC849CW
R517
4k7
R515
4k7
R522
100k
C511
27p
R513
100k
R514
0R
R519
15k
R521
100k
R520
0R
0VA
C509
1u
R516
15k
0VA
0VA
0VA
R518
100k
C510
N.F.
13V8_UNSW
13V8_UNSW
C508
100n
Q16
BSN20
R512
100k
+
C506
10u 10V
0VA
0VA
Q15
BC849CW
0VA
0VA
R509
22k
R511
47k
R25
4k7
PTT_ALC
2
0VA0VA0VA
E506
SHIELD, COVER, PA MODULE
E505
SHIELD, TRAY, PA MODULE
0VA0VA 0VA0VA0VA 0VA
C376
1n0
C377
100p
C375
10n
C514
1n0
C515
100p
C513
10n
C373
1n0
C374
100p
C372
10n
R88
1k
R510
100R
C507
N.F.
R508
N.F.
R524
N.F.
TX_PSU
13
D500A
N.F.
32
D500B
N.F.
R525
0R
R526
22k
R507
N.F.
+
C516
N.F.
0VA
+
C517
N.F.
0VA 0VA
C518
N.F.
+
C519
10u 35V
0VA
C520
N.F.
0VA
C521
N.F.
0VA
R527
N.F.
C502
N.F.
R504
N.F.
C522
N.F.
C523
N.F.
R530
N.F.
13
D501A
BAV99W
R529
100k
R532
100k
R531
0R
R528
0R
Q500
BC849CW
C524
100n
0VA 0VA
0VA
TX_PSU
R533
N.F.
R12
470R
Figure 6-5UW Transmitter Circuit Schematic
UW Band (440- 500MHz)
Page 57
DRAFT D
TNM-M-E-0001 Page 53
Q600
MMBFU310
Q601
BSN20
R602
330R
C609
2p2
L602
56n
0VA
0VA
C605
10n
Q602
MMBFU310
Q603
BSN20
C627
4p7
0VA
C626
10n
C622
3p9
C621
3p9
D608
N.F.
C604
22p
C603
22p
D606
N.F.
L604
1u
D602
N.F.
L601
2u2
D601
N.F.
L600
2u2
0VA
0VA
0VA 0VA 0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA 0VA
R607
47R
Q604
BFR505
Q605
BFR93A
R611
100R
R610
3k3
R608
4k7
R609
1k
C630
1n0
L610
1u
L611
270n
0VA
0VA
0VA
0VA
0VA
0VA 0VA
0VA
0VA
0VA
0VA
C620
100p
0VA
Rx V.C.O.
Tx V.C.O.
V.C.O. BUFFER
Q607
BFR92A
C648
1n0
L614
N.F.
R624
270R
R622
100k
R623
1k5
C647
1n0
0VA
0VA
5V0
Q606
BFR93A
R620
100R
R614
1k
R616
470R
R613
4k7
R615
1k
R617
680R
R618
N.F.
C643
N.F.
L612
100n
D611
1SS314
D610
1SS314
0VA
0VA
0VA 0VA
0VA
0VA
0VA
0VA
0VA
LO1_RX
TXRF
R601
0R
TX_MOD1
RX_PSU
TX_PSU
0VA
0VA
SYNTH. BUFFER
SWITCH
TX BUFFER
SCREEN
M600
N.F.
0VA
MICROSTRIP
E600
VCO SCREEN CAN
60651367.cdr E0 Rev7
0VA
8
5
4
3
3
VCAP_BIAS
7
0VA
C642
10n
0VA
TX_PSU
RX_PSU
SYNTH
7
LOOP_FILTER
2
R600
10k
R605
2k2
0VA
R619
10R
+
C613
10u 10V
C619
1n0
0VA
R603
10k
13
D604A
N.F.
3 2
D604B
N.F.
HOT50 HOT51
HOT52
HOT53 HOT54
HOT55
L616
N.F.
0VA
+
C628
10u 10V
7
Q615
BC849CW
R641
1k
C666
10n
0VA
8V0
C719
6n8
R720
0R
R724
2k7
C721
N.F.
R723
0R
R722
0R
7
CPP
CPPF
LOOP_VOLTS
C638
100n
13
D12A
N.F.
32
D12B
N.F.
R202
22R
R206
10k
C636
N.F
C667
100p
C669
100p
C668
100p
0VA
0VA
C670
N.F.
R642
680k
0VA
PROVISION FOR GROUNDPLANE BRIDGING
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
C671
N.F.
E601
LOOP FILTER CAN
0VA
R606
330R
R455
N.F.
R659
3k3
+
C655
47u 10V
0VA
0VA
R660
10R
8V0
C646
10p
+
C672
1u
R721
6k8
C673
N.F.
TP6
(19dBr Rx)
(18dBm Tx)
R643
N.F.
0VA
0VA
0VA
0VA
0VA
0VA
L617
N.F.
L618
N.F.
0VA
0VA
C722
22n
R734
330R
C734
220n
C754
N.F.
R6440RR6450RR6460RR6470RR6480RR6490RR650
0R
C720
10n
C600
1n0
C601
10n
C614
10n
C602
10n
C616
10n
C618
10n
D605
1SV217
D607
1SV217
D600
1SV217
D603
1SV217
L6051uC615
68p
C617
68p
D609
1SV217
C624
15p
C625
15p
C607
18p
C608
18p
L609
2u2
L603
2u2
C610
10n
C612
10n
C611
10n
C614
10n
C632
10p
C633
10p
C634
47p
C635
47p
C639
22p
C640
N.F.
C641
100n
C644
100n
C645
100p
C631
10n
L613
100n
L608
150n
R604
N.F.
L607
N.F.
C623
12p
L606
330n
C637
6p8
R661
680R
R621
N.F.
R651
N.F.
R652
N.F.
R612
4k7
(15dBr Tx)
NOTE 1: dBmr LEVELS ARE MEASURED WITH X10 HIGH IMPEDANCE PROBE AND ARE RELATIVE TO A 0dBm SOURCE TERMINATED IN 50 OHMS.
NOTE 2: dB LEVELS ARE MESURED AS IN NOTE 1 BUT ARE RELATIVE TO -20dBm AT THE ANTENNA CONNECTOR.
Figure 6-6E0 Synthesiser - VCO Schematic
E0 Band (66-88MHz)
Page 58
DRAFT D
TNM-M-E-0001 Page 54
Q600
MMBFU310
Q601
BSN20
R602
220R
C609
2p2
C607
4p7
L603
1u
C608
4p7
L602
33n
0VA
0VA
C605
10n
Q602
MMBFU310
Q603
BSN20
C627
2p2
C624
10p
L609
1u
C625
10p
L608
39n
0VA
C626
10n
R604
N.F.
L607
N.F.
C622
2p2
C623
3p9
C621
2p7
D609
1SV217
C614
1n0
C616
1n0
C618
1n0
C617
27p
D608
N.F.
C604
18p
C603
18p
D607
1SV217
L6051uC615
27p
D606
N.F.
D605
1SV217
L604
1u
C601
1n0
C602
1n0
D603
1SV229
D602
N.F.
L601
1u
D601
N.F.
D600
1SV229
L600
1u
L606
1u
0VA
0VA
0VA 0VA 0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA 0VA
R607
47R
Q604
BFR93A
Q605
BFR93A
R611
180R
R610
3k3
R608
6k8
R612
N.F.
R609
1k5
C630
1n0
C610
100p
C612
100p
L610
220n
L611
100n
C631
220p
0VA
0VA
0VA
0VA
0VA
0VA 0VA
0VA
0VA
0VA
C632
5p6
C633
5p6
C634
18p
C635
18p
C600
330p
0VA
C620
100p
0VA
Rx V.C.O.
Tx V.C.O.
V.C.O. BUFFER
Q607
BFR92A
R621
680R
C648
1n0
L614
180n
R624
270R
R622
100k
R623
1k5
C647
1n0
0VA
0VA
5V0
Q606
BFR93A
R620
100R
R614
1k
R616
470R
R613
4k7
R615
1k
R617
680R
R618
N.F.
C639
N.F.
C640
N.F.
C641
100p
C644
1n0
C643
N.F.
C645
100p
L613
47n
L612
33n
D611
1SS314
D610
1SS314
0VA
0VA
0VA 0VA
0VA
0VA
0VA
0VA
0VA
LO1_RX
TXRF
R601
0R
TX_MOD1
RX_PSU
TX_PSU
C629
1n0
0VA
C611
10n
0VA
SYNTH. BUFFER
SWITCH
TX BUFFER
C637
1n0
SCREEN
M600
N.F.
0VA
MICROSTRIP
E600
VCO SCREEN CAN
0VA
8
5
4
3
3
VCAP_BIAS
7
0VA
C642
10n
0VA
TX_PSU
RX_PSU
SYNTH
7
LOOP_FILTER
2
R600
10k
R605
2k2
0VA
R619
10R
+
C613
10u 10V
C619
1n0
0VA
R603
10k
13
D604A
N.F.
3 2
D604B
N.F.
HOT50 HOT51
HOT52
HOT53 HOT54
HOT55
L616
N.F.
0VA
+
C628
10u 10V
7
60651266.cdr rev6
Q615
BC849CW
R641
1k
C666
10n
0VA
8V0
C719
6n8
R720
0R
R724
2k7
C721
N.F.
R723
0R
R722
0R
R734
680R
7
CPP
CPPF
LOOP_VOLTS
C638
100n
13
D12A
N.F.
32
D12B
N.F.
R202
22R
R206
10k
C636
N.F
C667
100p
C669
100p
C668
100p
0VA
0VA
C670
N.F.
R642
680k
0VA
PROVISION FOR GROUNDPLANE BRIDGING
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
C671
N.F.
R651
N.F.
R652
N.F.
E601
LOOP FILTER CAN
0VA
C754
N.F.
R606
180R
R455
N.F.
R659
3k3
+
C655
47u 10V
0VA
0VA
R660
100R
8V0
C646
100p
+
C672
1u
R661
N.F.
R721
6k8
C673
N.F.
TP6
(7dBm)
(12dBm)
0VA
0VA
0VA
0VA
0VA
0VA
L617
N.F.
L618
N.F.
0VA
0VA
C722
22n
C720
10n
C734
220n
R6430RR6440RR6450RR6460RR6470RR6480RR6490RR650
0R
Figure 6-6AC Synthesiser - VCO Schematic
AC Band (136 - 174MHz)
Page 59
DRAFT D
TNM-M-E-0001 Page 55
Q600
MMBFU310
Q601
BSN20
R602
270R
C609
1p0
C607
6p8
L603
330n
C608
6p8
L602
8n2
0VA
0VA
C605
10n
Q602
MMBFU310
Q603
BSN20
C627
1p0
C624
3p3
L609
330n
C625
3p3
L608
12n
0VA
C626
10n
R604
N.F.
L607
N.F.
C622
1p0
C623
6p8
C621
1p2
D609
1SV229
C614
100p
C616
100p
D608
N.F.
C604
18p
C603
18p
C615
8p2
D606
N.F.
D605
1SV229
L604
27n
C601
100p
C602
100p
D603
1SV229
D602
N.F.
L601
39n
D601
N.F.
D600
1SV229
L600
39n
L606
330n
0VA
0VA
0VA 0VA 0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA 0VA
R607
47R
Q604
BFR93A
Q605
BFR93A
R611
180R
R610
3k3
R608
6k8
R612
N.F.
R609
1k5
C630
1n0
C610
100p
C612
100p
L610
68n
L611
68n
C631
100p
0VA
0VA
0VA
0VA
0VA
0VA 0VA
0VA
0VA
0VA
C632
1p5
C633
1p5
C634
3p9
C635
6p8
C600
330p
0VA
C620
100p
0VA
Rx V.C.O.
Tx V.C.O.
V.C.O. BUFFER
Q607
BFR92A
R621
680R
C648
1n0
L614
22n
R624
270R
R622
100k
R623
1k5
C647
1n0
0VA
0VA
5V0
Q606
BFR93A
R620
100R
R614
1k
R616
470R
R613
4k7
R615
1k
R617
680R
R618
N.F.
C639
3p9
C640
10p
C641
100p
C644
1n0
C643
N.F.
C645
4p7
L613
27n
L612
10n
D611
1SS314
D610
1SS314
0VA
0VA
0VA 0VA
0VA
0VA
0VA
0VA
0VA
LO1_RX
TXRF
R601
0R
TX_MOD1
RX_PSU
TX_PSU
C629
100p
0VA
C611
100p
0VA
SYNTH. BUFFER
SWITCH
TX BUFFER
C637
100p
SCREEN
M600
N.F.
0VA
MICROSTRIP
E600
VCO SCREEN CAN
60651167.cdr TK Rev7
0VA
8
5
4
3
3
VCAP_BIAS
7
0VA
C642
10n
0VA
TX_PSU
RX_PSU
SYNTH
7
LOOP_FILTER
2
R600
10k
R605
2k2
0VA
R619
10R
+
C613
10u 10V
C619
1n0
0VA
R603
10k
13
D604A
N.F.
3 2
D604B
N.F.
HOT50 HOT51
HOT52
HOT53 HOT54
HOT55
L616
N.F.
0VA
+
C628
10u 10V
7
Q615
BC849CW
R641
1k
C666
10n
0VA
8V0
C719
6n8
R720
0R
R724
2k7
C721
N.F.
R723
0R
R722
0R
7
CPP
CPPF
LOOP_VOLTS
C638
100n
13
D12A
N.F.
32
D12B
N.F.
R202
22R
R206
10k
C636
N.F
C667
100p
C669
100p
C668
100p
0VA
0VA
C670
N.F.
R642
680k
0VA
PROVISION FOR GROUNDPLANE BRIDGING
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
C671
N.F.
E601
LOOP FILTER CAN
0VA
R606
330R
R455
N.F.
R659
3k3
+
C655
47u 10V
0VA
0VA
R660
100R
8V0
C646
100p
+
C672
1u
R661
N.F.
R721
6k8
C673
N.F.
TP6
(5dBm)
(18dBm)
R643
N.F.
0VA
0VA
0VA
0VA
0VA
0VA
C618
N.F.
L617
N.F.
L618
N.F.
0VA
0VA
C720
6n8
C722
22n
R734
2k2
C734
150n
C754
N.F.
R651
N.F.
R652
N.F.
R6440RR6450RR6460RR6470RR6480RR6490RR650
0R
C617
8p2
D607
1SV229
L605
27n
Figure 6-6TK Synthesiser – VCO Schematic
TK Band (400- 450MHz)
Page 60
DRAFT D
TNM-M-E-0001 Page 56
Q600
MMBFU310
Q601
BSN20
R602
180R
C609
1p0
C607
3p3
L603
330n
C608
3p3
L602
8n2
0VA
0VA
C605
10n
Q602
MMBFU310
Q603
BSN20
C627
1p0
C624
1p8
L609
330n
C625
1p8
L608
12n
0VA
C626
10n
R604
N.F.
L607
N.F.
C622
1p0
C623
10p
C621
1p0
D609
1SV229
C614
100p
C616
100p
C617
N.F.
D608
N.F.
C604
12p
C603
12p
D607
N.F.
L605
N.F.
C615
10p
D606
N.F.
D605
1SV229
L604
22n
C601
100p
C602
100p
D603
1SV229
D602
N.F.
L601
22n
D601
N.F.
D600
1SV229
L600
22n
L606
330n
0VA
0VA
0VA 0VA 0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA 0VA
R607
47R
Q604
BFR93A
Q605
BFR93A
R611
180R
R610
3k3
R608
6k8
R612
N.F.
R609
1k5
C630
1n0
C610
100p
C612
100p
L610
68n
L611
47n
C631
100p
0VA
0VA
0VA
0VA
0VA
0VA 0VA
0VA
0VA
0VA
C632
1p5
C633
1p5
C634
3p9
C635
6p8
C600
330p
0VA
C620
100p
0VA
Rx V.C.O.
Tx V.C.O.
V.C.O. BUFFER
Q607
BFR92A
R621
680R
C648
1n0
L614
22n
R624
270R
R622
100k
R623
1k5
C647
1n0
0VA
0VA
5V0
Q606
BFR93A
R620
100R
R614
1k
R616
470R
R613
4k7
R615
1k
R617
680R
R618
N.F.
C639
3p9
C640
10p
C641
100p
C644
1n0
C643
N.F.
C645
4p7
L613
27n
L612
10n
D611
1SS314
D610
1SS314
0VA
0VA
0VA 0VA
0VA
0VA
0VA
0VA
0VA
LO1_RX
TXRF
R601
0R
TX_MOD1
RX_PSU
TX_PSU
C629
100p
0VA
C611
100p
0VA
SYNTH. BUFFER
SWITCH
TX BUFFER
C637
100p
SCREEN
M600
N.F.
0VA
MICROSTRIP
E600
VCO SCREEN CAN
0VA
8
5
4
3
3
VCAP_BIAS
7
0VA
C642
10n
0VA
TX_PSU
RX_PSU
SYNTH
7
LOOP_FILTER
2
R600
10k
R605
2k2
0VA
R619
10R
+
C613
10u 10V
C619
1n0
0VA
R603
10k
13
D604A
N.F.
3 2
D604B
N.F.
HOT50 HOT51
HOT52
HOT53 HOT54
HOT55
L616
N.F.
0VA
+
C628
10u 10V
7
60651056.cdr rev6
Q615
BC849CW
R641
1k
C666
10n
0VA
8V0
C719
6n8
R720
0R
R724
2k7
C721
N.F.
R723
0R
R722
0R
7
CPP
CPPF
LOOP_VOLTS
C638
100n
13
D12A
N.F.
32
D12B
N.F.
R202
22R
R206
10k
C636
N.F
C667
100p
C669
100p
C668
100p
0VA
0VA
C670
N.F.
R642
680k
0VA
PROVISION FOR GROUNDPLANE BRIDGING
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
0VA
C671
N.F.
E601
LOOP FILTER CAN
0VA
R606
330R
R455
N.F.
R659
3k3
+
C655
47u 10V
0VA
0VA
R660
100R
8V0
C646
100p
+
C672
1u
R661
N.F.
R721
6k8
C673
N.F.
TP6
(5dBm)
(18dBm)
R643
N.F.
0VA
0VA
0VA
0VA
0VA
0VA
C618
N.F.
L617
N.F.
L618
N.F.
0VA
0VA
C720
6n8
C722
22n
R734
3k9
C734
150n
C754
N.F.
R651
N.F.
R652
N.F.
R6440RR6450RR6460RR6470RR6480RR6490RR650
0R
Figure 6-6UW Synthesiser – VCO Schematic
UW Band (440- 500MHz)
Page 61
DRAFT D
TNM-M-E-0001 Page 57
ADJ
7
OUT
5
1
GND
4
6
VCC
8
U700
TCO987
+
C704
1u 25V
0VA
5V0
0VA
0VA
0VA
R700
10k
REFERENCE OSCILLATOR
R712
10k
R715
10k
VDD1
4
VDD2
5
PON
9
AON
19
11
DATA
12
13
8
6
15
DGND7ISET
14
VCC
18
LOCK
20
CPP
3
CPPF
2
CPA
17
DOUT
10
AGND
16
CLK
E
FXTAL
PR1
AUX
FAST
1
U701
UMA1018
Q700
BC859CW
R733
N.F.
R730
10R
R731
10R
R727
27k
R729
100k
R728
100k
R726
100k
C724
3u3
C723
1n0
R725
15k
Q701
BC859CW
Q702
BC849CW
Q703
BC859CW
C725
10n
0VA
5V0
0VA
0VA
R716
10R
R717
47k
C715
3u3
C717
10n
R718
1k
R719
47R
0VA 0VA 0VA
C711
10n
R706
10R
0VA
R713
2k2
R714
10k
0VA
0VA 0VA
AUX_LO2
AUX_CP
0VA
0VA
5V0
V.C.O. VARICAP NEGATIVE SUPPLY
TUNE_DAC
3P3
0VA
R708
N.F.
C726
10n
0VA 0VA
R732
4k7
C712
10n
6
4
4
2
2
2
2
SYNTH
CPP
6
-17V0
6
VCAP_BIAS
2
SYN_FAST
GCLK-F
GDAT-F
FSEN-F
LOCK
R701
4k7
C701
33n
C702
33n
C700
33n
0VA 0VA
0VA
C728
10n
0VA
C714
100n
0VA
R709
0R
0VA
+
C713
N.F.
0VA
0VA
1 3
D700A
BAT54SW
32
D700B
BAT54SW
C706
N.F.
+
C729
1u 25V
8
AFC/TX_MOD2
R704
10k
0VA
R705
10k
0VA
0VA
0VA
C730
4p7
C731
1n0
10119
S
C1
12
13 8
1D RQQ
U702B
N.F.
3P3
0VA
0VA
0VA
0VA
435
147
S
C1
2
1 6
1D RQQ
U702A
N.F.
0VA
C716
3u3
CPPF
L702
10u
R745
N.F.
0VA 0VA
0VA
5V0
0VA
1
2
3
4 5 6
7 10 11 12 13
60651377.cdr E0 Rev7
8
14
16
9
15
CT-255 C3/G4 G2 EN1 1, 2, 4­2C3
1CT=0
0
7
3CT
U710
74HC40103PW
0VA
C742
N.F.
0VA
0VA
0VA 0VA 0VA
0VA
0VA
0VA
5V0
0VA
TUNE_BAL
9
REFERENCE OSC. MODULATOR
R752
N.F.
0VA 0VA 0VA
5V0
0VA
0VA
C746
220n
0VA
2
3
1
84
U711A
LMV358MX
C753
10u
0VA
5v0
C736
1u0VA
DIVIDER (/2)
DIVIDER (/72)
DIV_OUT
DIV_IN
+
C727
1u 25V
C703
N.F
R775
47R
R777
470R
R703
0R
R711
N.F.
L701
10u
6
L703
N.F.
C732
N.F
R737
N.F.
R735
N.F.
R736
N.F.
8
TX_MOD1
C733
N.F.
R710
N.F.
Q710
BC849CW
R753
10k
C740
10n
C741
10n
R744
3k3
R741
47k
R742
47k
R743
270R
R776
10R
R740
10R
R763
22k
R764
22k
C747
1u
R765
15k
R766
680k
R778
0R
R767
47k
R768
47k
R769
2k2
C735
10n
R758
100k
C743
27p
Q711
BC859CW
Q712
BC849CW
R759
470R
R761
330R
R760
10k
C744
390p
R762
10k
Q715
BFR93A
Q714
BFR93A
Q716
BFR93A
C750
10n
R770
10R
R772
220R
R771
680R
R773
100R
C752
47p
R774
10k
+
C751
10u 10V
6
5
7
U711B
LMV358MX
C749
27p
0VA
L704
N.F.
R781
0R
R783
47k
R782
27k
0VA
C748
220p
0VA
R756
10k
R751
10k
R757
N.F.
R750
N.F.
200kHz
(2dBmr)
NOTE 1: dBmr LEVELS ARE MEASURED WITH X10 HIGH IMPEDANCE PROBE AND ARE RELATIVE TO A 0dBm SOURCE TERMINATED IN 50 OHMS.
NOTE 2: dB LEVELS ARE MESURED AS IN NOTE 1 BUT ARE RELATIVE TO -20dBm AT THE ANTENNA CONNECTOR.
0VA
Q713
BC849CW
C745
100n
Q717
BSN20
R780
100k
0VA
C755
N.F.
R784
N.F.
13
D701A
N.F.
RX_PSU
RX_PSU
C705
100n
R746
N.F.
R754
N.F.
R749
N.F.
R748
10k
R747
10k
R755
10k
C756
N.F.
Figure 6-7E0 Synthesiser - PLL Schematic
E0 Band (66-88MHz)
Page 62
DRAFT D
TNM-M-E-0001 Page 58
ADJ
7
OUT
5
1
GND
4
6
VCC
8
U700
TCO987
+
C704
1u 25V
0VA
5V0
0VA
0VA
0VA
R700
10k
REFERENCE OSCILLATOR
R712
10k
R715
10k
VDD1
4
VDD2
5
PON
9
AON
19
11
DATA
12
13
8
6
15
DGND7ISET
14
VCC
18
LOCK
20
CPP
3
CPPF
2
CPA
17
DOUT
10
AGND
16
CLK
E
FXTAL
PR1
AUX
FAST
1
U701
UMA1018
Q700
BC859CW
R733
N.F.
R730
10R
R731
10R
R727
27k
R729
100k
R728
100k
R726
100k
C724
3u3
C723
1n0
R725
15k
Q701
BC859CW
Q702
BC849CW
Q703
BC859CW
C725
10n
0VA
5V0
0VA
0VA
R716
10R
R717
47k
C715
3u3
C717
10n
R718
1k
R719
47R
0VA 0VA 0VA
C711
10n
R706
10R
0VA
R713
2k2
R714
10k
0VA
0VA 0VA
AUX_LO2
AUX_CP
0VA
0VA
5V0
V.C.O. VARICAP NEGATIVE SUPPLY
TUNE_DAC
3P3
0VA
R708
N.F.
C726
10n
0VA 0VA
R732
4k7
C712
10n
6
4
4
2
2
2
2
SYNTH
CPP
6
-17V0
6
VCAP_BIAS
2
SYN_FAST
GCLK-F
GDAT-F
FSEN-F
LOCK
R701
4k7
C701
33n
C702
33n
C700
33n
0VA 0VA
0VA
C728
10n
0VA
C714
100n
0VA
R709
0R
0VA
+
C713
N.F.
0VA
0VA
1 3
D700A
BAT54SW
32
D700B
BAT54SW
C706
N.F.
+
C729
1u 25V
8
AFC/TX_MOD2
R704
10k
0VA
R705
10k
0VA
0VA
0VA
C730
4p7
C731
1n0
10119
S
C1
12
13 8
1D RQQ
U702B
N.F.
3P3
0VA
0VA
0VA
0VA
435
147
S
C1
2
1 6
1D RQQ
U702A
N.F.
0VA
60651276.cdr rev6
C716
3u3
CPPF
L702
10u
R745
N.F.
0VA 0VA
0VA
5V0
0VA
1
2
3
4 5 6
7 10 11 12 13 8
14
16
9
15
CT-255 C3/G4 G2 EN1 1, 2, 4­2C3
1CT=0
0
7
3CT
U710
74HC40103PW
0VA
C742
N.F.
0VA
0VA
R757
N.F.
R746
N.F.
0VA 0VA 0VA
0VA
0VA
0VA
5V0
0VA
REFERENCE OSC. MODULATOR
R754
N.F.
R752
N.F.
0VA 0VA 0VA
5V0
0VA
0VA
C746
220n
0VA
2
3
1
84
U711A
LMV358MX
C753
10u
0VA
5v0
C736
1u0VA
DIVIDER (/2)
DIVIDER (/72)
DIV_OUT
DIV_IN
+
C727
1u 25V
C703
N.F
R775
47R
R777
470R
R703
0R
R711
N.F.
L701
10u
6
L703
N.F.
C732
N.F
R737
N.F.
R735
N.F.
R736
N.F.
8
TX_MOD1
C733
N.F.
R710
N.F.
Q710
BC849CW
R753
10k
R747
10k
R756
10k
R755
10k
C740
10n
C741
10n
R744
3k3
R741
47k
R742
47k
R743
270R
R776
10R
R740
10R
R763
22k
C747
1u
R766
680k
R778
0R
R767
47k
R768
47k
R769
2k2
C735
10n
R758
100k
C743
27p
Q711
BC859CW
Q712
BC849CW
R759
560R
R760
10k
C744
390p
R762
6k8
Q715
BFR93A
Q714
BFR93A
Q716
BFR93A
C750
10n
R770
10R
+
C751
10u 10V
C749
10p
L704
N.F.
R749
N.F.
R748
10k
R750
N.F.
R751
10k
TUNE_BAL
9
6
5
7
U711B
LMV358MX
0VA
R781
0R
R783
47k
R782
27k
0VA
R764
22k
R765
33k
R761
330R
R772
220R
R771
680R
R773
100R
C752
47p
R774
10k
C748
220p
0VA
0VA
Q713
BC849CW
C745
100n
Q717
BSN20
R780
100k
0VA
C755
N.F.
R784
N.F.
13
D701A
N.F.
RX_PSU
RX_PSU
C705
100n
Figure 6-7AC Synthesiser – PLL Schematic
AC Band (136 - 174MHz)
Page 63
DRAFT D
TNM-M-E-0001 Page 59
ADJ
7
OUT
5
1
GND 4
6
VCC
8
U700
TCO987
+
C704
1u 25V
0VA
5V0
0VA
0VA
0VA
R700
10k
REFERENCE OSCILLATOR
R712
10k
R715
10k
VDD1
4
VDD2
5
PON
9
AON
19
11
DATA
12
13
8
6
15
DGND7ISET
14
VCC
18
LOCK
20
CPP
3
CPPF
2
CPA
17
DOUT
10
AGND
16
CLK
E
FXTAL
PR1
AUX
FAST
1
U701
UMA1018
Q700
BC859CW
R733
N.F.
R730
10R
R731
10R
R727
27k
R729
100k
R728
100k
R726
100k
C724
3u3
C723
1n0
R725
15k
Q701
BC859CW
Q702
BC849CW
Q703
BC859CW
C725
10n
0VA
5V0
0VA
0VA
R716
10R
R717
47k
C715
3u3
C717
10n
R718
1k
R719
47R
0VA 0VA 0VA
C711
10n
R706
10R
0VA
R713
2k2
R714
10k
0VA
0VA 0VA
AUX_LO2
AUX_CP
0VA
0VA
5V0
V.C.O. VARICAP NEGATIVE SUPPLY
TUNE_DAC
3P3
0VA
R708
N.F.
C726
10n
0VA 0VA
R732
4k7
C712
10n
6
4
4
2
2
2
2
SYNTH
CPP
6
-17V0
6
VCAP_BIAS
2
SYN_FAST
GCLK-F
GDAT-F
FSEN-F
LOCK
R701
4k7
C701
33n
C702
33n
C700
33n
0VA 0VA
0VA
C728
10n
0VA
C714
100n
0VA
R709
0R
0VA
+
C713
N.F.
0VA
0VA
1 3
D700A
BAT54SW
32
D700B
BAT54SW
C706
N.F.
+
C729
1u 25V
8
AFC/TX_MOD2
R704
10k
0VA
R705
10k
0VA
0VA
0VA
C730
4p7
C731
1n0
10119
S
C1
12
13 8
1D RQQ
U702B
N.F.
3P3
0VA
0VA
0VA
0VA
435
147
S
C1
2
1 6
1D RQQ
U702A
N.F.
0VA
C716
3u3
CPPF
L702
10u
R745
N.F.
0VA 0VA
0VA
5V0
0VA
1
2
3
4 5 6 7
10 11 12 13 8
14
16
9
15
CT-255 C3/G4 G2 EN1 1, 2, 4­2C3
1CT=0
0
7
3CT
U710
74HC40103PW
0VA
C742
N.F.
0VA
0VA
R756
N.F.
R748
N.F.
R746
N.F.
R751
N.F.
0VA 0VA 0VA
0VA
0VA
0VA
5V0
0VA
TUNE_BAL
9
REFERENCE OSC. MODULATOR
R754
N.F.
R752
N.F.
0VA 0VA 0VA
5V0
0VA
0VA
C746
220n
0VA
2
3
1
84
U711A
LMV358MX
C753
10u
0VA
5v0
C736
1u0VA
DIVIDER (/2)
DIVIDER (/36)
DIV_OUT
DIV_IN
+
C727
1u 25V
C703
N.F
R775
47R
R777
470R
R703
0R
R711
N.F.
L701
10u
6
L703
N.F.
C732
N.F
R737
N.F.
R735
N.F.
R736
N.F.
8
TX_MOD1
C733
N.F.
R710
N.F.
Q710
BC849CW
R753
10k
R750
10k
R747
10k
R749
10k
R757
10k
R755
10k
C740
10n
C741
10n
R744
3k3
R741
47k
R742
47k
R743
270R
R776
10R
R740
10R
R763
22k
R764
22k
C747
1u
R765
56k
R766
680k
R778
0R
R767
47k
R768
47k
R769
2k2
C735
10n
R758
100k
C743
27p
Q711
BC859CW
Q712
BC849CW
R759
680R
60651177.cdr TK Rev7
R761
330R
R760
10k
C744
150p
R762
6k8
Q715
BFR93A
Q714
BFR93A
Q716
BFR93A
C750
10n
R770
10R
R772
220R
R771
680R
R773
100R
C752
47p
R774
10k
+
C751
10u 10V
6
5
7
U711B
LMV358MX
C749
15p
0VA
L704
N.F.
R781
0R
R783
47k
R782
27k
0VA
C748
220p
0VA
0VA
Q713
BC849CW
C745
100n
Q717
BSN20
R780
100k
0VA
C755
N.F.
R784
N.F.
13
D701A
N.F.
RX_PSU
RX_PSU
C705
100n
C756
N.F.
Figure 6-7TK Synthesiser – PLL Schematic
TK Band (400- 450MHz)
Page 64
DRAFT D
TNM-M-E-0001 Page 60
ADJ
7
OUT
5
1
GND
4
6
VCC
8
U700
TCO987
+
C704
1u 25V
0VA
5V0
0VA
0VA
0VA
R700
10k
REFERENCE OSCILLATOR
6051076.cdr rev6
R712
10k
R715
10k
VDD1
4
VDD2
5
PON
9
AON
19
11
DATA
12
13
8
6
15
DGND7ISET
14
VCC
18
LOCK
20
CPP
3
CPPF
2
CPA
17
DOUT
10
AGND
16
CLK
E
FXTAL
PR1
AUX
FAST
1
U701
UMA1018
Q700
BC859CW
R733
N.F.
R730
10R
R731
10R
R727
27k
R729
100k
R728
100k
R726
100k
C724
3u3
C723
1n0
R725
15k
Q701
BC859CW
Q702
BC849CW
Q703
BC859CW
C725
10n
0VA
5V0
0VA
0VA
R716
10R
R717
47k
C715
3u3
C717
10n
R718
1k
R719
47R
0VA 0VA 0VA
C711
10n
R706
10R
0VA
R713
2k2
R714
10k
0VA
0VA 0VA
AUX_LO2
AUX_CP
0VA
0VA
5V0
V.C.O. VARICAP NEGATIVE SUPPLY
TUNE_DAC
3P3
0VA
R708
N.F.
C726
10n
0VA 0VA
R732
4k7
C712
10n
6
4
4
2
2
2
2
SYNTH
CPP
6
-17V0
6
VCAP_BIAS
2
SYN_FAST
GCLK-F
GDAT-F
FSEN-F
LOCK
R701
4k7
C701
33n
C702
33n
C700
33n
0VA 0VA
0VA
C728
10n
0VA
C714
100n
0VA
R709
0R
0VA
+
C713
N.F.
0VA
0VA
1 3
D700A
BAT54SW
32
D700B
BAT54SW
C706
N.F.
+
C729
1u 25V
8
AFC/TX_MOD2
R704
10k
0VA
R705
10k
0VA
0VA
0VA
C730
4p7
C731
1n0
10119
S
C1
12
13 8
1D RQQ
U702B
N.F.
3P3
0VA
0VA
0VA
0VA
435
147
S
C1
2
1 6
1D RQQ
U702A
N.F.
0VA
C716
3u3
CPPF
L702
10u
R745
N.F.
0VA 0VA
0VA
5V0
0VA
1
2
3
4 5 6
7 10 11 12 13 8
14
16
9
15
CT-255 C3/G4 G2 EN1 1, 2, 4­2C3
1CT=0
0
7
3CT
U710
74HC40103PW
0VA
C742
N.F.
0VA
0VA
R756
N.F.
R748
N.F.
R746
N.F.
R751
N.F.
0VA
0VA
0VA
0VA
0VA
0VA
0VA
5V0
0VA
TUNE_BAL
9
REFERENCE OSC. MODULATOR
R754
N.F.
R752
N.F.
0VA
0VA
0VA
5V0
0VA
0VA
C746
220n
0VA
2
3
1
84
U711A
LMV358MX
C753
10u
0VA
5v0
C736
1u0VA
DIVIDER (/2)
DIVIDER (/36)
DIV_OUT
DIV_IN
+
C727
1u 25V
C703
N.F
R775
47R
R777
470R
R703
0R
R711
N.F.
L701
10u
6
L703
N.F.
C732
N.F
R737
N.F.
R735
N.F.
R736
N.F.
8
TX_MOD1
C733
N.F.
R710
N.F.
Q710
BC849CW
R753
10k
R750
10k
R747
10k
R749
10k
R757
10k
R755
10k
C740
10n
C741
10n
R744
3k3
R741
47k
R742
47k
R743
270R
R776
10R
R740
10R
R763
22k
R764
22k
C747
1u
R765
56k
R766
680k
R778
0R
R767
47k
R768
47k
R769
2k2
C735
10n
R758
100k
C743
27p
Q711
BC859CW
Q713
BC849CW
Q712
BC849CW
R759
680R
R761
330R
R760
10k
C744
150p
C745
100n
R762
6k8
Q715
BFR93A
Q714
BFR93A
Q716
BFR93A
C750
10n
R770
10R
R772
220R
R771
680R
R773
100R
C752
47p
R774
10k
+
C751
10u 10V
6
5
7
U711B
LMV358MX
C749
15p
Q717
BSN20
0VA
R780
100k
L704
N.F.
R781
0R
0VA
C755
N.F.
R783
47k
R782
27k
0VA
C748
220p
0VA
C756
N.F.
R784
N.F.
13
D701A
N.F.
RX_PSU
RX_PSU
C705
100n
Figure 6-7UW Synthesiser – PLL Schematic
UW Band (440- 500MHz)
Page 65
DRAFT D
TNM-M-E-0001 Page 61
6
TX_MOD1
0VA
VssADC
1
VddADC
2
VINL
3
VrefADC
4
VINR
5
ADCref-
6
ADCref+
7
TEST1
8
OVERFL
9
VddD
10
VssD
11
12
L3MODE
13
L3CLK
14
L3DAT
15
SCLK
16
LRC
17
TXD
18
RXD
19
TEST3
20
TEST2
21
VssDAC
22
VddDAC
23
VOUTR
24
VddAMP
25
VOUTL
26
VssAMP
27
VrefDAC
28
MCLK
U800
UDA1340
C813
100n
R825
10k
C814
100n
0VA
C816
100n
0VA
0VA
3C3
3C3
C818
100n
0VA
+
C806
1u 25V
0VA
C807
100n
0VA
3N3
R816
10k
R815
10k
R814
10k
R819
10k
R818
10k
R817
10k
0VA
0VA0VA0VA
CCLK
CSC CDI CDO CLRC
L3C L3D L3M
C0FL
+
C812
N.F.
+
C815
10u 10V
+
C817
10u 10V
0VA 0VA 0VA
Y1c
3
Y0c
5
Zc
4
Sc
9
U103B
784HC4053D
0VA
0VA
C809
4n7
C811
4n7
R813
10k
R812
10k
0VA0VA
I
Q
R824
1k
4
4
AFC_IN
+5V
0VA
R834
18k
2
3
1
84
U802A
LMV358MX
0VA
R833
4k7
AFC/TX_MOD2
C824
10n
C825
100n
0VA
7
AUD_IN
60651086.cdr rev6
R43
10k
C44
10n
R49
22k
C45
1n0
R50
22k
0VA
13V8_UNSW_F
0VA 0VA
0VA
0VA0VA
1
9
4
6
RR
3
Vp7M/SS
8
Gnd1
2
Gnd2
5
U5
TDA1519B
Q810
BC849CW
13V8_UNSW_F
C831
100p
0VA
C832
100p
0VA
SPKR_OUT1
SPKR_OUT2
0VA
10
10
+
C3
N.F.
0VA
C843
10n
R843
10k
0VA
C842
1n0
0VA
C840
100p
R840
100R
0VA
C841
100p
R841
100R
Y1a
13
Y0a
12
Za
14
Sa
11
U103C
784HC4053D
Y1b
1
Y0b
2
Zb
15
Sb10Vdd
16
Vee
7
Vss
86
U103A
784HC4053D
0VA
0VA
R847
47k
C846
100n
+5V
0VA
R856
100k
2
3
1
84
U803A
LMV358MX
C854
100n
0VA
R855
100k
C852
1n0
0VA
R857
47k
R851
150k
6
5
7
U803B
LMV358MX
C849
100p
C848
1n0
R846
10k
C845
100n
R849
47k
R848
47k
R850
100k
0VA
0VA
0VA
0VA
C844
100n
+5V
0VA
Q811
BC859CW
R854
100k
R852
22k
+5V
AUD_OUT
10
A_TONE
9
MOD1_ON
2
SPKR_ON
2
R858
10k
R859
N.F.
0VA
+
C855
10u 10V
R860
0R
C857
1n0
0VA
R862
4k7
R863
1k2
0VA 0VA
Q812
BC849CW
R864
1k
R861
3k3
C858
10u
C47
100n
+
C859
10u 10V
+5V
R865
6k8
0VA
R853
10k
Q813
BC849CW
R868
100k
R867
100k
+5V
0VA
R866
100k
+5V
C860
N.F.
0VA
R869
220k
0VA
C861
1u
0VA
R870
470R
C862
10n
C853
100p
+
C830
1u 25V
C833
1n0
C863
N.F.
R845
680k
C847
100n
R871
680k
C856
1n0
10
1
4
3 5
2
U107
BU4S66
0VA
3N3
1
4
3 5
2
U109
74HC1G66W
0VA
3N3
Q20
BC849CW
0VA
R38
10k
3N3
R39
4k7
GATE
2
10
AUD_IN1
OPTION_AUDIO
+5V
CCLK CSC CDI CDO CLRC L3C L3D L3M C0FL
2 2 2 2 2 2 2 2 2
C41
100n
C42
10n
C43
10n
C46
10n
C58
10n
R872
N.F.
R873
N.F.
0VA
R874
N.F.
0VA
R875
N.F.
0VA
+
C864
10u 35V
0VA
+
C865
N.F.
0VA
1
4
3 5
2
U108
N.F.
0VA
3N3
Figure 6-8 A/D Converter Schematic
Page 66
DRAFT D
TNM-M-E-0001 Page 62
C904
100n
C905
100n
C906
100n
C907
100n
0VA 0VA 0VA 0VA
TUNE1 TUNE2 TUNE3 TUNE4
FE_TUNE
2
4
Q902
BC849CW
Q900
BC859CW
R903
10k
C901
N.F.
R908
10R
Q901
BC859CW
R904
100k
R906
100k
R905
27k
Q903
BC859CW
R909
10R
R907
47k
0VA
+5V
-12V0
-12V0-12V0
4 4 4
0VA
C908
100n
C909
100n
C910
100n
C911
100n
C902
100n
0VA
MUXEN MUX_A0 MUX_A1
+5V
0VA 0VA 0VA 0VA
ADC_REF
AGC-1
AUX_CTL
2
2
0VA
0VA
2
4
R901
10k
2 2
R910
100R
R902
100R
0VA
C900
100n
+5V
0VA
0VA
R900
27k
VDD
16
X
13
INH
6
A
10
B
9
VEE
7
X0
12
X1
14
X2
15
X3
11
Y0
1
Y1
5
Y2
2
Y3
4
VSS
8
Y
3
U902
14052
C903
100n
-12V0
2
3
1
84
U901A
LMV358MX
6
5
7
U802B
LMV358MX
60651096.cdr rev6
R920
10k
C920
10n
0VA
C921
100n
0VA
R921
100k
R922
100k
R923
100k
R924
100k
C922
100n
0VA
C923
100n
0VA
C924
100n
0VA
AGC
5
TX_PWR_SET
6
5
7
U901B
LMV358MX
R925
10k
0VA
8
A_TONE
R926
100R
R927
100R
TUNE_BAL
7
R911
100k
0VA
C912
10n
C925
10n
Figure 6-9 D/A Multiplexer Schematic
Page 67
DRAFT D
TNM-M-E-0001 Page 63
P3
TEST PORT
0VA
3N3
/BG
/BR
EBG
EINT
EBR
ELIN
ECLK
ELOUT
EMS
EE
ERES
/RESET
7 12 13
9
19
17
14 10 8
2
23
5
4
3
25
1 6
13V8_UNSW_F
3N3
0VA
AUD_OUT
OC_SWITCH TXD RXD
TFS RFS SCLK
18 FC0
1520PWR_ON
P1
OPTIONS CONNECTOR
60651106.cdr rev6
C61
100p
0VA
C62
100p
0VA
C66
100p
0VA
C67
100p
0VA
C68
100p
0VA
C69
100p
0VA
C75
100p
0VA
C76
100p
0VA
C70
100p
0VA
C71
100p
0VA
C72
100p
0VA
C73
100p
5
7
8
4
6
3
1
2
0VA
0VA
PWR_ON
R190
100R
R189
100R
R195
6k8
3N3
R188
100R
FPGA84
Q1
BC849CW
R191
4k7
0VA
PF6 PF4
24
16 26
22
11
21
C1
100p
0VA
C2
100p
0VA
C97
100p
0VA
C98
100p
0VA
1 2 3 4 5 6 7 8 9 10 11
12
13
14
15 16 17
18 19 20 21 22 23 24 25 26
R11
6k8
+5V
R85
22k
0VA
3 2
D13B
BAT54SW
STX
SRX
C140
100p
0VA
1 3
D13A
BAT54SW
3 2
D14B
BAT54SW
1 3
D14A
BAT54SW
0VA
+5V
R203
680R
C141
100p
0VA
R204
100R
FPGA83
3N3
0VA
0VA
R205
1k
0VA
C143
10n
0VA
0VA
0VA
0VA
3 2
D16B
BAT54SW
0VA
1 3
D16A
BAT54SW
13V8_UNSW_F
13
D9A
BAT54SW
13V8_UNSW_F
13
D8A
BAT54SW
L50FBL51
FB
L52
FB
C74
10n
L60
N.F.
R216
3k9
Q106
BC849CW
0VA
13V8_UNSW_F
FPGA9
R217
1k
0W25
Q105
BCX51
GROUND
MIC AUDIO
MIC GND
H/S AUDIO
ON/OFF
TxDATA
RxDATA
+5V
13V8
PWR ON
IRESET
SIN
SOUT
AUDIO OUT
AUD IN SW
SCLK
RFS
TFS
PF4/IRQE
PF6/IRQ1
RXD
TXD
CONF2
OPTIONS PTT
+5V
3N3
SWITCHED
AUD_OUT
AUD_IN1
OPTION AUDIO
OPTION_AUDIO
13V8 SWITCHED
IRESET
R3
150R C13
1n0
AUD_IN2A
0VA
AUD_IN2
OPTION_AUDIO
R89
0R
L8
FB
C22
1n0
0VA
BATT_IN
C52
100p
0VA
4
5
1
2
11
12
9
10
6
13
0VA
C83
100p
0VA
SPKR_OUT1
SPKR_OUT2
L3
N.F.
3
7 PTT
C100
100p
0VA
3 2
D19B
BAT54SW
1 3
D19A
BAT54SW
R207
680k
13V8_UNSW
0VA
0VA
L56
FB
L58
FB
L57
FB
L59
FB
R211
100R
R210
1k
3 2
D20B
BAT54SW
0VA
1 3
D20A
BAT54SW
15
0VA
R212
1k
13
D11A
BAT54SW
C367
100n
D309
MBR0520LT1
0VA
Q320
BCX54-10
R379
1k
0VA
R378
10k
8
0VA
OC_SWITCH
3Q3
C369
1n0
0VA
14
R380
330R
AUD_IN2A
IGN
PTT_IN
FCO
3N3
13V8_UNSW
2
S1
RJ CONNECTOR
P2
DB15 CONNECTOR
PWR_ON
13V8_UNSW
8
3
3
PWR_ON
1 3
D17A
BAV99W
3 2
D17B
BAV99W
1 2
P4
N.F.
0VA
1 3
D15A
BAV99W
3 2
D15B
BAV99W
3
IGN
0VA
13V8_UNSW
1 3
D21A
BAV99W
3 2
D21B
BAV99W
13
D23A
N.F.
R218
N.F.
5V0
3 2
D23B
N.F.
C358
N.F.
C148
N.F.
EXTERNAL INTERFACE
13.8V UNSWITCHED
GROUND
CONTROL HEAD/MIC.
DATA IN
EXT ON/OFF
BATTERY IN
GROUND
SPEAKER (+)
SPEAKER (-)
EXT. PTT
IGNITION
DATA OUT/EXT CONTROL
R240
220R
R241
330R
R242
270R
Figure 6-10 I/O Connections Schematic
Page 68
DRAFT D
TNM-M-E-0001 Page 64
Revision 7 PCB 9k_19.cdr
C523
C522
R617
R616
L612
C639
L603
R643
R601
C600
C726
R703
R775
C474
C520
C77
C24
C79
C40
C39
E502
C78
C49
C54
C213
Q203
Q200
C200
C201
R228
R220
R227
C203
D201
D200
R225
C205
R230 C207
R231
C206
R226
C202
R221
Q201
C204
R223R229
Q202
R222 R224 C212
C83
L417
R450
D19 D11
D309
C148
R212
R218
D23
D21
C742
C479
C480
R438
R439
C472
C755
C473 C476
R781
R783
R782
C471
C468
C464
R433 C469
R434
R428
C412 C408 C405
L401 L420
R219
Q204
R234
C209
R235 R233
C210
R232
C208
R236
C211
R237
R239
C403
R400
C400
C28
C402
D400
D401
C407
D402
R403
R404
C416
E402
C413 C411
C406 C404
C401
C409
C420
C414
D404
C417
D403
C418
C
4
1
9
L
4
0
2
L
4
2
1
R54
D3
C25
D5
C27
C26
D4
L9
C38
C50
C37
E501
C36
L2
C16
R23
C15
C518
C18 C19
C521
L407 L422
C434
C439
C438
E401
C437
Q10
L4
C12
C82
R18
R19
C14
L19
C81
C8
R505
R64
Q12
E503
C11
R16
R17
C9
L17
C10
R27
C29
R527
C31
C30
Q9
C644
R620
C640
R618
C643
C642
R619
E504
C641
C649
C650
R501
C501
C651
R627
R631
R630
C653
R632
C654
R640
R638
R637
C606
C652
R636
R635
Q609
R625 R626
C645
R41
R45
R40
R66
R55
C60
R33
R32
C32
R34
C33
C6
C516
R31
R30
R502
C20
C21
R29
L
4
0
8 L
4
2
3
D412
C452
C440
D411
C447
D410
C
4
4
9
C448
C441
R420
R419
C436
D409
C435
D408
C445
C433
R417
C462 C463
R429
R430
C465
C423
R407
C424
C421
D405
C430
D407
C432
C431
C460
C461
C635R613
C455
C454
R424
C456
R423
C453
C451
C444
C446
R427
Q205
R432
R431
C467
R773
Q716
C750
R771
C751
C747
C498
R454
C483
R441
C485R453
R442
C484
D20
Q320
R211 C100 R210
C367 R207
C491
R447
R448
Q402
C489
C496
L418
C490
C488
C487
D415
E400
D414
R446
C492
R777
C725
R727
Q701
R725
Q700
Q702
Q703
R728
R729
C727
L703
L701
C703
R711
R767
R778
C704
R766
C706
C736
R763
R764
C477
C495 C494 C493 R449
C705
R700
R765
C500
C470
C499
R770
C748
C752
R774
R772
R769
D604
R600
C605
Q601
C626
R206
C631 R611
R606
C612
C625
C627
C630
R607
R610
R609
C629
C634
C633
C632
R612 R608
C611
D603
D602
C614
L602
L617
C604
L616
C603
C601
D600
D601
R604
D608
D607
C618
R603
C620
C619
C623
D609
C622
C617
C621
E600
C624
C609
C608
R602
C607
Q600
C610
L608
L618
C615
D605
D606
C616
C602
C729
R733
D700
R732
C728
R731
R730 R726 C723
D416
L201
L403
L200
L400
Q3
R28
R84
L406
L409
L415
L416
Q603
L611
L604
U711
L414
L18
L16
L410
Q606
L613
L615
Q612
Q401
T400
D413
L411 L413
Q715
Q714
C746
U401
C724
C753
L609
Q604
Q605
L610
C628
C613
L601
L600
L607
L606
Q602
L605
M600
L11
L12
S5
C149
Z402
L13
L10
U2
P4
C151
C152
U3
C519
Z401
P2
U700
Figure 6-11 SRM9000 PCB Layout, Top (1/2)
Page 69
DRAFT D
TNM-M-E-0001 Page 65
R353
C115 R81
R118
C818
C817
R73
C96
R200
R165
R166
R167
R819
R825
R72
L100
C153
C90 R70
C92
C114
R818
C816
C813
C814
C806
R86
E101
R214
R121
R122
R124
D308
L23
R350
R352
R351
C352
U107
C143
TP2
L21
TP1
R873
1
2
R39
Q20
R38
C140
D13
R190
R188
R203
R205
C358
D15D8
D14
C141 R204
R11Q1R191
R85
R195
Q106
R217
R216
Q351
Q309
L25
C342
C340
TP4
C364
C363
L26
R370
R369
Q352
R371
L27
C365
C366
R372
Q353
TP3
R354
R355
R381
R377
R109
R83
R82
R817
R184
R185
R187
R186
L101
R182
L102
L103
R833
R1
R834
C824
C912
R164
R911
R903
C900
C825
R920
R925
R922
R924
R921
R923
R843
R840
R841
R824
R75
R78
R116
C93
R71
R170 R168 R169
R173
R172
R171
R176 R174 R175
R179
R178
R177
R180
R163
R162
R161
R160
R158
R159
R157
R156
R155
R152
R154
R153
R149
R150
R151
R910
2
1
R866
Q811
R852
Q813
R867
R868
R859
C856 C860
C830
C832
C831
C47
R854
C45
R865 R853 R49
Q810
R50
Revision 7 PCB 9k_20.cdr
S1
P1
C355
U106
U800
U100
U104
C144
C353
U311
U310
L50
L51
MATING CONNECTOR
Q105
U312
U101
U102
U5
U802
U902
U901
P3
C865
C864
C3
Figure 6-12 SRM9000 PCB Layout, Top (2/2)
Page 70
DRAFT D
TNM-M-E-0001 Page 66
Revision 7 PCB 9k_21.cdr
R533
R532
R531
R530
R529
R528
Q500
D501
C524
C503R506
C458
R455
R644
R645
R646
R650
D12
R202
R659
R649
R648
R647
R708
R776
C735
R24
R57
R35
C48
Q4
D1
R380
L56
C52
L59
C375 C376 C377
Q712
R759
C744
C756
R758
Q711
U710
R751
R753
C428
R414
R401
R426
C457
R425
L500
R500
Q8
R25
R26
R37
Q11
R36
R503
C374
C373
C372
C422
R406
C23
R452
R12
C504
R457
R418
L1
L7
L6
C5
L5
C80
C17
C517
R514
C7
R63
R62
R523
R522
C511
R513
R521
R518
R517
R519
C509
R520
C510
Q18
R516
Q17
R515
C512
Q19
Q14
R21
R58
R15
R525
D500
R59
Q16
R507
R88
R508
R509
Q15
R510
C506
R512
R605
R524
R511
C508
C507
R526
L32
R52
C502
R504
R422
C450
C55
R459
R458
D6
C56
C57
R53
C427
R408
C425
R456
L424
R413
Q400
C429
L405
R415
D406
R410
R409
R412
C426
L404
R411
C415
L412
C638C459
C637
R615
D610
D611
C636
R614
C515
C514
C513
C754 C671
R722
R720
R721
R734
R624
L614
C648
R622
Q717
R760
Q713
D701
R768
C749
R752
R750
R748
R746
C743
C481
C478
R440
R740
R443
R444
C482
C741
C740
L3
L8
C22
L300
L20
C356
L57
C700
C701
C486
R445
L58
C702
R701
C497
R46
Q403
Q2
R451
R47
Q5
R705
C730
R706
R719
C716
C711
U701
C715
C714
R716
R715
R709
R741
R742
Q710
L704
L702
R745
R756
R744
C713
R737
C732
R736
R735
C731
U702
R704
R714
R713
C712
R710
C733
R743
R754
R755
R757
R747
R749
R623
C647
R784
R761
C745
R762
R780
Q607
C646
C670 R642
R651
R652
R660
C672
R621
R661
C673
TP6
C666 R641
Q615
C655
C721
C734
E601
C669
C722
R724
R723
C668
C667
C720
C719
R712
R717
R718
C717
Figure 6-13 SRM9000 PCB Layout, Bottom (1/2)
Page 71
DRAFT D
TNM-M-E-0001 Page 67
U109
R242
R241
R213
R366
Q350
U300
C136
R644
R645
R646
R650
R202
R659
R649
R648
R647
L20
Q2
R451
R47
Q5
C730
R706
R719
C655
C811
R871
C861
R5
C122
R192
C134
R864
C95
R76
C809
U103
C846
R858
C844
C812
C347
D305
C357
D307
R358
C815
C807
R870
Q812
R861
R862
C862
R863
C859
C137
R108
C119
R115
X100
C126
C125
R9
R198
R197
R123
R812
R813
R119
C120 C121
R105 R106
Q100
C116
C117
C118
R120
R363
Q317
R364
C361
R368
C145
Q305
Q306
R326
C337
R357
L24
C76
C67
C70
C2
C73 C72 C68
R89
L22
D7
R189
D9
R240
L52
R331
C338
R330
L60
Q311
Q310
C351
Q308
R356
R329
Q307
C350
C339
C1
C98
C61
C66
C71
C69 C62
C97
C858
C863
R872
C74 R874
D17
D16
U108
R875
C75
R360
C359
D22
C368
R361
C360
R375
R365
R367
C147
R362
Q316
U313
R373
Q315
D18
C362
R208
C146
R328
C336
R327
R383
R382
Q354
C354
C84
R87
TP7
C317
C51
R376
C331
D304
C330
R318C322
L15
C345
C333
C332
C334
C346
D306
R374
R6
R114R125
R7
R2
R8
R215
R113
R814
R201
R906
R379
C369
R378
R3
C13
Q104
C99
Q103
R905
Q900
R904
R900
R901
R902
R80
C920
C925
C922
C924
C921
C923
C843
C840
C841
C842
C94
R142
C91
R145 R144 C132 R10 R136 C130 R77
C131
R138
U105
C128
R132 R131
C133
R815
R816
R907
C901
R139
C903
R927
C906
C904
C905
C907
R909
R908
Q902
Q901
Q903
R926 C902 C909 C910 C911 C908
C854
R869
C857
C833
C845
R846 R847
C849
R851
U803
C855
R860
C853
R856
R857
C852
R855
R849
C847
R845
R848
R43
C41
R850
C848
C58
C46
C43
C42
C44
Revision 7 PCB 9k_22.cdr
Figure 6-14 SRM9000 PCB Layout, Bottom (2/2)
Page 72
DRAFT D
TNM-M-E-0001 Page
68
APPENDIX A - TRANSCEIVER CONNECTIONS
A.1. MICROPHONE / HANDSET CONNECTOR
The Transceiver front end-cap has a 8 pin RJ45 Microphone / Control Unit / Serial Control / Programming connector:
1
RJ45 Socket
(view looking into transciever)
RJ45 Plug
9k_00
8
Figure A.1 SRM9000 RJ45 Pinout (S1)
Name Pin Number Comment
Tx-Data (0,5V) 1 Output.
Low = 50mA sink to GROUND, High = 6k8 Ohm pull-up to 5V 200 Ohm series Impedance Diode Clamped to 0 & +5V
Rx-Data (0,5V) 2 Input.
Low < 0.5V, High > 2.5V Internal 6k8 Ohm Pull-up to 3.3V 780 Ohm series Impedance Diode Clamped to 0 & +3.3V
On/Off input 3 Input.
Low < 5V, High > (Supply Volts – 1.5V) or O/C Internal 220kM Ohm Pull-up to Supply Voltage
680k Ohm series Impedance
Diode Clamped to 0 & Supply Voltage Mic Ground 4 Connected internally to GROUND (see below) +13.8V
(Switched OP)
5 Switched + Supply Voltage
250mA max source current Handset Audio
OP (Flat)
6 Output: * Note-1
AC coupled (10uF) to 0/5V OpAmp Output
245mVrms (nominal) for 60% RF deviation of 1000Hz
tone.
600 Ohm series Impedance
Diode Clamped to 0 & Supply Voltage GROUND 7 Internally connected to Transceiver –VE Supply Input. Mic Audio IP 8 Input : * Note-2
40mVrms at 1kHz = 60% RF Deviation
>1k Ohm series Impedance
Diode Clamped to 0 & Supply Voltage
Page 73
DRAFT D
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69
Note 1: The Handset Audio Output is same as passed to Loudspeaker, except that audio
response is always flat (no de-emphasis). The Audio level on this pin is determined as follows: – When Loudspeaker Muted: level is set by Data Volume setting (see Programmer parameters) – When Received Audio is present at Loudspeaker: level is determined by User Volume setting. – When an Alert is sounding: level is determined by Alert setting. The Alert Tone will also be present on this line.
Note 2: The Mic Audio Input may be either Pre-emphasised, or passed flat to the
Transmitter. This is determined by the type of PTT command that keys the Transmitter.
A.2. EXTERNAL INTERFACE CONNECTOR
The Transceiver rear end-cap is fitted with a male DB15 connector:
Figure A.2 SRM9000 External Interface Pinout (P2)
Name DB15 Pin numbers
-VE (Gnd) 1, 2, 9, 10 +VE (+13.8V) 4, 5, 11, 12 Speaker 6, 13 General Input-0 (PTT/RTS) 7 General Output-0 (CD/CTS) 8 Ignition_Sense Input 3 On/Off input 15
DB15(M) Plug
1 2
3
4
5 6
7
8
9 10 11 12
13
14 15
9k_01
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APPENDIX B - SRM9010 MICROPHONE
Select
On/Off
PTT
Microphone
Volume
Up
Volume
Down
Channel
Select
Channel
Number
Transmit Indicator
9k_36
Figure B.1 SRM9010 Microphone
The microphone is arranged for connection to the RJ45 connector on the front of the SRM9000 Transceiver, either directly or via the extension lead accessory.
There are no repairable electronic components in the Microphone. Only those items listed in Paragraph B1 are replaceable. If the Microphone PCB fails, the Microphone must be replaced in its entirety.
B.1 Replaceable Parts
Item Part Number
On/Off Switch 3502-445-00020 Volume Up/Down Switch 3502-445-00030 Channel Select Switch 3502-445-00030 PTT Switch 3502-445-00010 Curly cord 3502-310-63400 Mic Element 3502-310-63420
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P10/Ain012P11/Ain1
13
P1214P1315P14
16
P15
17
P1618P17
19
P30/RXD
2
P31/TXD
3
P32/INT0
6
P33/INT1
7
P34/T08P35/T1
9
P37
11
GND
10
VCC
20
XTAL24XTAL1
5
RST
1
U1
AT89C1051U-12SI
Y013Y114Y215Y3
12
Y41Y5
5
Y62Y7
4
S011S1
10S29
E
6
Z
3
GND8VCC
16
VEE
7
U2
74HC4051D
C
7
DP6E
4F2
G
1
B
9
A
10
D
5
A3A
8
DSPL1
ELS-432EWX
Vo1Sense2SD
3
GND
4
ERR
5
Vtap
6FB7Vi8
U3
LP2951CM
Q1
BC849CW
R1
82K
R2
NF R3
39R
R4
470R
C1
22u/16V
C2
1u/16V
C3
1u/16V
+5V
AGNDAGND
AGND
Q4
2SK2158
GND
Q5
2SK2158
GND
Q6
2SK2158
GND
Q7
2SK2158
GND
Q8
2SK2158
GND
Q9
2SK2158
GND
Q10
2SK2158
R5
10K
GND
Q11
2SK2158
R6
10K
GND
+5V +5V
SW1
SW2
SW3
SW4
SW5
+5V
GND
GND
C7
100n
GND
SW6
C4
1u/16V
GND
+5V
+5V
C5
1u/16V
GND
R7
10K
R10
100K
Q2
BC849CW
Y1
11M0592
C10
4p7
C11
30p
C12
30p
Q3
BC849CW
C13
330p
C14
4n7
GNDGND
GND
C8
100n
+5V
R8
10K
R12
22K
+5V
1234567
8
J1
GND
TXD
RXD
AUDIO
MIC1
AGND
XSHIFT
+13.8V
+13.8V
+5V
R9
10K
PTT
SELECT
UP
DOWN
Cradle SW
ON/OFF
R11
100K
AGND AGND
L1
L2
L3
L4
L5
C15
1000p
C16
1000p
C17
4n7
C18
1000p
C19
1000p
AGND
GND
GND
GND
R13
47R
D1
BAT54W
ON/OFF
9K_52.cdr
+13.8V
ON/OFF
R14
2K2
R15
2K7
R17
56R
R18
56R
R16
2K7
+5V
+5V
R19
56R
R20
56R
D2
BAV99
+5V
GND
D3
BAV99
+5V
GND
R23
100R
D4
BAV99
+5V
GND
R21
56R
R22
56R
GND
XSHIFT
R24
1K
C9
100n
GND
C6
1u/25V
GND
R25
1K2/0.25W
R26
1K2/0.25W
R27
1K2/0.25W
R28
1K2/0.25W
R29
1K2/0.25W
R30
1K2/0.25W
R31
1K2/0.25W
R32
1K2/0.25W
TxData
RxData
On/Off
Mic Gnd
+13.8V
Ground
Mic Audio
Figure B.2 SRM9010 Microphone Schematic
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Figure B.3 SRM9010 Microphone PCB Layout
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APPENDIX C - SRM9020 MICROPHONE
Figure C.1 SRM9020 Microphone
The microphone is arranged for connection to the RJ45 connector on the front of the SRM9000 Transceiver, either directly or via the extension lead accessory.
There are no repairable electronic components in the Microphone. Only those items listed in Paragraph C1 are replaceable. If the Microphone PCB fails, the Microphone must be replaced in its entirety.
C.1 REPLACEABLE PARTS
Item Part Number
On/Off Switch 3502-445-00020
Volume Switch tba
Front Face Switches 3502-445-00030 PTT Switch 3502-445-00010 Curly cord 3502-310-63400 Mic Element 3502-310-63420
F1
F2
F4
F3
M
S
O
N
/
O
F
F
PTT
Microphone
Volume
Up
Volume
Down
4 Programmable
Function Select
Buttons
Channel
Display
Channel
Up/Down
9k_40
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APPENDIX D - SRM9025 HANDSET
Figure D.1 SRM9025 Handset
The Handset is arranged for connection to the RJ45 connector on the front of the SRM9000 Transceiver, either directly or via the extension lead accessory.
There are no repairable electronic components in the Handset. Only those items listed in Paragraph D1 are replaceable. If the Handset PCB fails, the Handset must be replaced in its entirety.
D.1 REPLACEABLE PARTS
Item Part Number
On/Off Switch tba Volume Switch tba Front Face Switches tba PTT Switch tba Curly cord tba
PWR
SND
CLR
M FCN
*
O
#
9
8
7
4
5
6
1
2
3
SEL
ABC DEF
GHI
JKL MNO
PQRS
TUV
WXYZ
.,;
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APPENDIX E - SRM9030 CONTROL HEAD
Figure E.1 SRM9030 Control Head
The Control Head is arranged for connection to the RJ45 connector on the front of the SRM9000 Transceiver, either directly or via the extension lead accessory.
There are no repairable electronic components in the Microphone. Only those items listed in Paragraph E1 are replaceable. If the Control Head PCB fails, the Control Head must be replaced in its entirety.
E.1 REPLACEABLE PARTS
Item Part Number
Volume potentiometer tba RJ45 connector tba
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APPENDIX F - SRM9030 MICROPHONE
F.1 Replaceable Parts
Item Part Number Curly Cord 3502-310-63410 Function Switch 3502-445-00020 PTT Switch 3502-445-00010 Mic Element 3502-310-63420
R1
PCB Assembly
9k_49
Yellow Blue Red White Black
Function Key
S2
33nF
Mic
6K8
S1
Hookswitch
S3
PTT
9 8 7 3
2
4
PTT
Cradle
Function Key
Mic Ground
DF11 SKT
Mic Audio
Gnd
SRM9030 Microphone
3513-500-0926
Figure F.1 SRM9030 Microphone Schematic
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