YAESU VX-6R-E Dual-Band Heavy Duty Submersible Transceiver Instruction Manual

: June 6, 2024
: YAESU

Table of Contents

VX-6R-E Dual-Band Heavy Duty Submersible Transceiver
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VX-6R-E Dual-Band Heavy Duty Submersible Transceiver

Dual-Band Heavy Duty Submersible Transceiver
VX-6R/E
Technical Supplement
©2010 VERTEX STANDARD CO., LTD. EH021M90C

VERTEX STANDARD CO., LTD.
4-8-8 Nakameguro, Meguro-Ku, Tokyo 153-8644, Japan
VERTEX STANDARD
US Headquarters 10900 Walker Street, Cypress, CA 90630, U.S.A.
YAESU UK LTD.
Unit 12, Sun Valley Business Park, Winnall Close Winchester, Hampshire, SO23 0LB, U.K.
VERTEX STANDARD HK LTD.
Unit 5, 20/F., Seaview Centre, 139-141 Hoi Bun Road, Kwun Tong, Kowloon, Hong Kong
VERTEX STANDARD (AUSTRALIA) PTY., LTD.
Normanby Business Park, Unit 14/45 Normanby Road Notting Hill 3168, Victoria, Australia

Introduction
This manual provides the technical information necessary for servicing the VX- 6R/E Dual-Band Heavy Duty Submersible Transceiver.
Servicing this equipment requires expertise in handing surface-mount chip components. Attempts by non-qualified persons to service this equipment may result in permanent damage not covered by the warranty, and may be illegal in some countries.
Two PCB layout diagrams provided for each double-sided board in this transceiver. Each side of the board is referred to by the type of the majority of components installed on that side (“Side A” or “Side B”). In most cases one side has only chip components, and the other has either a mixture of both chip and leaded components (trimmers, coils, electrolytic capacitors, ICs, etc.), or leaded components only.
While we believe the information in this manual to be correct, VERTEX STANDARD assumes no liability for damage that may occur as a result of typographical or other errors that may be present. Your cooperation in pointing out any inconsistencies in the technical information would be appreciated.

Contents
Specification ………………………………………………………………………………………………………………………….. 2 Exploded View & Miscellaneous Parts ………………………………………………………………………………… 4 Block Diagram ………………………………………………………………………………………………………………………. 5 Interconnection Diagram ………………………………………………………………………………………………………. 6 Circuit Description……………………………………………………………………………………………………………….. 7 Alignment ……………………………………………………………………………………………………………………………. 11 Board Unit (Schematics, Layouts & Parts)
CNTL Unit ………………………………………………………………………………………………………………………………………………….. 17 AF Unit ………………………………………………………………………………………………………………………………………………………. 29 RF Unit ……………………………………………………………………………………………………………………………………………………….. 39 VCO Unit ……………………………………………………………………………………………………………………………………………………. 57
1

Specifications
General
Frequency Ranges:
Channel Steps: Frequency Stability: Emission Type: Antenna Impedance: Supply Voltage: (Negative Ground) Current Consumption: (Approx. @7.4 V)
Operating Temperature: Case Size: Weight (Approx.):

Rx 0.5 – 1.8 MHz (BC Band) 1.8 – 30 MHz (SW Band) 30-76 (59) MHz (50 MHz HAM: USA version) 76 (59)-108 MHz (FM: USA version) 108-137 MHz (Air Band) 137-174 MHz (144 MHz HAM Band) 174-222 MHz (VHF-TV Band) 222-420 MHz (ACT1: Action Band 1: USA version) 420-470 MHz (430 MHz HAM Band) 470-800 (729) MHz (UHF-TV: EXP version) (758-774) MHz (ACT2: Action Band 2, cellular Blocked)
Tx: 144 – 146 (148) MHz 222-225 MHz (USA only) 430 – 440 (450) MHz
5/9/10/12.5/15/20/25/50/100 kHz ±5 ppm @ 14 °F to +122 °F (10 °C to +50 °C) F2D, F3E 50-ohm Nominal: 7.4 V DC Operating: 5 – 16.0 V DC (EXT DC jack)
11.0 – 16.0 V DC (EXT DC jack with Charging) 150 mA (Receive) 60 mA (Standby, Saver Off) 30 mA (Standby, Saver On) 900 A (ON Timer Activated) 200 A (Auto Power Off) 1.6 A (5 W TX, 144MHz) 1.5 A (1.5 W TX, 222 MHz: USA only) 1.8 A (5 W TX, 430 MHz) 4 °F to +140 °F (20°C to +60°C) 2.3″ (W) x 3.5″ (H) x 1.1″ (D) (58 x 89 x 28.5 mm) (w/o knob, antenna, and beltclip) 9.5 Oz (270 g) with FNB-80LI, and antenna

2

Transmitter
RF Power Output:
Modulation Type: Maximum Deviation: Spurious Emission: Microphone Impedance:

High

Low 3

144 MHz/430 MHz 5.0 W

2.5 W

220 MHz

1.5 W

1.0 W

Variable Reactance F2D, F3E

±5.0 kHz (F2D, F3E)

At least 60 dB below (@ High power)

2 k-ohm

Low 2 1.0 W 0.5 W

Specifications
Low 1 0.3 W 0.2 W

Receiver
Circuit Type: Intermediate Frequencies: Sensitivity: (Cellular Blocked)
Selectivity: AF Output:

AM, NFM: Double-Conversion Superheterodyne

WFM: Triple-Conversion Superheterodyne

1st

2nd

3rd

AM, NFM: 47.25 MHz 450 kHz

WFM:

45.8 MHz 10.7 MHz 1 MHz

1.5 V for 10 dB SN (0.5 – 1.8 MHz, AM)

1 V for 10 dB SN (1.8 – 30 MHz, AM)

0.35 V TYP for 12 dB SINAD (30 – 54 MHz, NFM)

0.5 V TYP for 12 dB SINAD (54 – 76 MHz, NFM)

0.5 V TYP for 12 dB SINAD (54 – 59 MHz, NFM:USA)

1 V TYP for 12 dB SINAD (76 – 108 MHz, WFM)

1 V TYP for 12 dB SINAD (59 – 108 MHz, WFM:USA)

1.5 V TYP for 10 dB SN (108 – 137 MHz, AM)

0.2 V for 12 dB SINAD (137 – 140 MHz, FM)

0.16 V for 12 dB SINAD (140 – 150 MHz, FM)

0.2 V for 12 dB SINAD (150 – 174 MHz, FM)

0.5 V TYP for 12 dB SINAD (174 – 250 MHz, WFM)

0.5 V for 12 dB SINAD (300 – 350 MHz, NFM)

0.2 V for 12 dB SINAD (350 – 420 MHz, NFM)

0.18 V for 12 dB SINAD (420 – 470 MHz, NFM)

1 V for 12 dB SINAD (470 – 540 MHz, WFM)

1 V TYP for 12 dB SINAD (580 – 800 MHz, WFM)

0.5 V TYP for 12 dB SINAD (800 – 999 MHz, NFM)

AM, NFM: 12 kHz/35 kHz (-6 dB/-60 dB)

WFM:

200 kHz/500 kHz (-6 dB/-20 dB)

200 mW @ 8 ohm for 10 % THD (@ 7.4V DC)

400 mW @ 8 ohm for 10 % THD (@ 13.8V DC)

Specifications are subject to change without notice, and are guaranteed within amateur bands only.

3

Exploded View & Miscellaneous Parts

No. VXSTD P/N

Description

Qty.

U44104002 TAPTITE SCREW M2X4NI

18

U9900180 TAPTITE SCREW 2X5SUS(O-RING) 4

U9900179 TAPTITE SCREW 2X22SUS(O-RING) 2

U9900181 TAPTITE SCREW 2X3.5(CAP)

1

Non-designated parts are available only as part of a designated assembly.

RA0653700 RA0645400 (Lot 1 ~ 43) WINDOW RA064540A (Lot 44 ~)
DOUBLE FACE TAPE
CP8159002 (DST:USA) CP8159003 (DST:EXP) CP8159004 (DST:EU) CP8159005 (DST:AUS) FRONT CASE ASSY

G6090164 LCD
RA0646600 LIGHT GUIDE(LCD)
RA0646800 INTER CONNECTOR

RA0646500 RUBBERKEY
RA0646700 REFLECTOR SHEET
CNTL Unit

RF Unit

RA0646000 EXT CAP

RA008890A O RING

RA0467600 (Lot 1 ~ 23) RA046760A (Lot 24 ~) O RING

RA0646400 KNOB B

RA0646300 KNOB A

RA0577900 KNOB SCREW
RA0646100 CAP

RA0653600
RING NUT

FR013010A FPC CABLE
AF Unit
S6000414 GAP PAD TMS-M-5 6X6 (2 pcs) RA0646200 (Lot 1 ~ 70) RA1219000 (Lot 71 ~) PACKING PAD
RA014030A LATCH NAIL
CP8155001 REAR CASE ASSY

RA0645300 HOLDER PTT
RA0645200 PTT KNOB
RA0140100 MASK SHEET
RA0141600 RUBBER PACKING

FNB-80LI

4

Block Diagram
5

Interconnection Diagram
6

The VX-6R/E consists of a RF-UNIT, a CNTL-UNIT and an AF-UNIT. The RF-UNIT contains the receiver front end, PLL IC, power and switching circuits, and the VCO-UNIT for transmit and receive local signal oscillation. The CNTLUNIT contains the CPU, and audio ICs, and the power circuitry for the LCD. The AF- UNIT contains the IF, and audio ICs.
Receiver Signal Flow
The VX-6R/E includes four receiver front ends, each optimized for a particular frequency range and mode combination.
(1) Triplexer Signals between 0.5 and 580 MHz received at the an-
tenna terminal pass through a first low-pass filter. Received 430 MHz band signals, after passing through
a low-pass filter to the UHF T/R switch circuit composed of diode switch D1046, D1047.
Received 145 MHz band signals, after passing through a low-pass filter to the VHF T/R switch circuit composed of diode switch D1049, D1050.
Received 50 MHz band signals, after passing through a low-pass filter to the 50MHz T/R switch circuit composed of diode switch D1051, D1052.
(2) 0.50-60 MHz Reception Received signals between 0.5 and 60 MHz pass through
the Triplexer circuit, low-pass filter circuit, T/R switch diode D1051 and D1052 before additional filtering by a band-pass filter prior to application to RF amplifier Q1008 (2SC5555ZD-TR). The amplified RF signal is pass through the band-pass filter to first mixer Q1009 (2SC5555ZD-TR). Meanwhile, 50MHz output from the VCO-UNIT is amplified by Q1019 (2SC5374-TL) and applied through diode switch D1034 (DAN222M-T2L) to mixer Q1009 (2SC5555ZD-TR) as the first local signal. The 47.25 MHz (Narrow, 45.8 MHz: Wide) intermediate frequency product of the mixer is delivered to the AF-UNIT. The TUNE voltage from the CPU on the CNTL-UNIT is amplified by DC amplifier Q3017 (NJU7007F2-TE1) and applied to varactor D1014 in the variable frequency band- pass filters. By changing the electrostatic capacitance of the varactors, optimum filter characteristics are provided for each specific operating frequency.

Circuit Description
(3) 60-300MHz Reception Received signals between 60 and 300 MHz pass
through the Triplexer circuit, low-pass filter/high-pass filter circuit, VHF T/R switch circuit and protector diode D1002 (1SS362-TE85R) before additional filtering by a band-pass filter prior to application to RF amplifier Q1002 (2SC5555ZD-TR). The amplified RF signal is pass through the band-pass filter to first mixer Q1007 (2SC5555ZD-TR). Meanwhile, VHF output from the VCO-UNIT is amplified by Q1018 (2SC5374-TL) and applied through diode T/R switch D1033 (DAN222M-T2L) to mixer Q1007 (2SC5555ZD-TR) as the first local signal. The 47.25 MHz (Narrow, 45.8 MHz: Wide) intermediate frequency product of the mixer is delivered to the AF-UNIT. The TUNE voltage from the CPU on the CNTL-UNIT is amplified by DC amplifier Q3017 (NJU7007F2-TE1) and applied to varactors D1008 and D1009, D1011, D1012, D1020, D1021, D1022, D1023, D1025 and D1026 in the variable frequency band-pass filters. By changing the electrostatic capacitance of the varactors, optimum filter characteristics are provided for each specific operating frequency.
(4) 300-580MHz Reception Received signals between 300 and 580 MHz pass
through the Triplexer circuit, low-pass filter/high-pass filter circuit, UHF T/R switch circuit and protector diode D1001 before additional filtering by a band-pass filter prior to application to RF amplifier Q1001 (2SC5555ZD-TR). The amplified RF signal is pass through the band-pass filter, RF amplifier Q1004 (2SC5555ZD-TR) and bandpass filter to first mixer Q1006 (2SC5555ZD-TR). Meanwhile, UHF output from the VCO-UNIT is amplified by Q1017 (2SC5374-TL) and applied through diode T/R switch D1035 (HN2D01FUTE85R) to mixer Q1006 as the first local signal. The 47.25 MHz (Narrow, 45.8 MHz: Wide) intermediate frequency product of the mixer is delivered to the AF-UNIT. The TUNE voltage from the CPU on the CNTL-UNIT is amplified by DC amplifier Q3017 (NJU7007F2-TE1) and applied to varactors D1006, D1007, D1018 and D1019 in the variable frequency bandpass filters. By changing the electrostatic capacitance of the varactors, optimum filter characteristics are provided for each specific operating frequency.
(5) 580 – 999 MHz Reception Received signals between 580 and 999 MHz pass
through the high-pass filter circuit, switch D1003 to ap-

7

Circuit Description
plication to RF amplifier Q1003 (2SC5277-D2-TL) and Q1005 (2SC5277-D2-TL). The amplified RF signal is pass through the band-pass filter to first mixer Q1010 (2SC5277-D2-TL). Meanwhile, UHF output from the VCO-UNIT is amplified by Q1017 (2SC5374-TL) and applied through diode T/R switch D1035 (HN2D01FUTE85R) to mixer Q1010 (2SC5277-D2-TL) as the first local signal. The (Narrow, 45.8 MHz: Wide) intermediate frequency product of the mixer is delivered to the AF-UNIT. The TUNE voltage from the CPU on the CNTL-UNIT is amplified by DC amplifier Q3017 (NJU7007F2-TE1) and applied to varactors D1016 and D1017 in the variable frequency band-pass filters. By changing the electrostatic capacitance of the varactors, optimum filter characteristics are provided for each specific operating frequency.
(6) 47.25 MHz First Intermediate Frequency The 47.25 MHz first intermediate frequency from first
mixers is delivered from the RF-UNIT to the AF-UNIT through jacks J1002 and J2002. On the AF-UNIT, the IF for AM and FM-narrow signals is passed through NAR/ WIDE switch D2001 (DAP222-TL) and D2003 (DAN222MT2L), and 47.25 MHz monolithic crystal filter (MCF) XF2001 to narrow IF amplifier Q2005 (2SC4915) for input to pin 16 of Narrow IF IC Q2010 (TA31136FN) after amplitude limiting by D2002 (DA221-TL). Meanwhile, a portion of the output of 11.7 MHz crystal X1001 on RFUNIT is multiplied fourfold by Q2008 (2SC4915) and Q2009 (2SC4915) to provide the 46.8 MHz second local signal, applied to the Narrow IF IC. Within the IC, this signal is mixed with the 47.25 MHz first intermediate frequency signal to produce the 450 kHz second intermediate frequency.
This second IF is filtered by ceramic filter CF2002 and amplified by the limiting amplifier within the Narrow IF IC before quadrate detection by ceramic discriminator CD2001. Demodulated audio is output from pin 9 of the Narrow IF IC through narrow mute analog switch Q2019 (2SJ364-R) and squelch gate Q2020 (2SC4617 TL R) before de-emphasis.
The resulting audio is amplified by AF amplifier Q2028 (TDA7233D-TR) and output through MIC/EAR jack J2001 to internal speaker SP3001 or an external earphone.

(7) Squelch Control Signal components in the neighborhood of 15 kHz con-
tained in the discriminator output pass through an active band-pass filter composed of R2041, R2043, R2044, C2049, C2055 and the operational amplifier between pins 7 and 8 within Narrow IF IC Q2010 (TA31136FN). They are then rectified by D2006 and D2007 (both DA221-TL) to obtain a DC voltage corresponding to the level of noise. This voltage is input to pin 51 of CPU Q3032 (HD64F2266TF13), which compares the input voltage with a previously set threshold. When the input voltage drops below the threshold, normally due to the presence of a carrier, turning on squelch gate Q2027 (2SJ364-R) and allowing any demodulated audio to pass. At the same time, Q3001 (DTC144EE TL) and/or Q3005 (DTC144EE TL) and/or Q3006 (DTC144EE TL) goes on, causing the BUSY/TX lamp D3001 and D3012 to light.
Transmitter Signal Flow
(1) Transmit/Receive Switching Closing PTT switch S2001 on the AF-UNIT pulls the
base of Q3007 (DTA144EE TL) low, causing the collector to go high. This signal is input to pin 45 (PTT) of CPU Q3032 (HD64F2266TF13), allowing the CPU to recognize that the PTT switch has been pushed. When the CPU detects closure of the PTT switch, pin 9 of Q3020 (TX) (BU2099FV-E2) goes high. This control signal is delivered to the RF-UNIT, where it switches Q1039 (2SA1774 TL R) and Q1040 (2SA1774 TL R) to produce the TX control signal that activates Q1031 (2SA1774 TL R). At the same time, PLL division data is input to PLL IC Q1020 (MB15A01PFV1-G-BND-EF) from the CPU, to disable the receiver power saver. Also, switching Q1030 (EMB3 T2R) to disable the receiver circuits. Then causing the red side of BUSY/TX lamp D3011 to light.
(2) Modulation Voice signal input from either built-in microphone
MC3001 on CNTL-UNIT or external jack J2001 on the AFUNIT is pre-emphasized by C3014 and R3031, and processed by microphone amplifier and IDC (instantaneous deviation control) circuit Q3008 (NJM3403AV-TE1) to prevent overmodulation, and active low-pass filter section of Q3008 (NJM3403AV-TE1).

8

During CTCSS operation, the voice signal is mixed with the TONE ENC subaudible tone signal from pin 43 of the CPU and delivered to the RF-UNIT through jacks J3003 and J1002. During DTMF operation, the DTMF tones from pin 55 of the CPU are input to the IDC stage.
(3) VHF Band (145/220 MHz (USA Only)) Transmission Modulating audio from the CNTL-UNIT passes
through deviation setting D/A converter Q3011 (M62364FP 600D) to VHF MOD of the VCO-UNIT mounted on the RF-UNIT. This signal is applied to varactor D4005 in the tank circuit of VHF VCO Q4004 (EC3H07B-TL), which oscillates at the desired VHF transmitting frequency. The modulated VCO signal is buffered by amplifier Q4006 (EC3H07B-TL) and Q1018 (2SC5555ZD-TR) and delivered through VHF T/R diode switch D1033 (DAN222M-T2L) to the RF-UNIT. The modulated low- level VHF transmit signal from the VCO is passed through diode switch D1029 (DAN222M-T2L) to amplifier Q1011 (2SC5226-5-TL). The modulated VHF transmit signal from the VCO is amplified by Q1015 (2SK3475) and RF power amplifier Q1023 (2SK3476) up to 5 W (depending on the power source). The RF output passes through TX diode switch D1049. RF output is passed by T/R switch and low-pass filter to suppress harmonics and spurious products before output to the antenna at the antenna terminal.
(4) UHF Band Transmission Modulating audio from the CNTL-UNIT passes
through deviation setting D/A converter Q3011 (M62364FP 600D) to UHF MOD of the VCO-UNIT mounted on the RF-UNIT. This signal is applied to varactor D4002 in the tank circuit of UHF VCO Q4002 (EC3H07B-TL), which oscillates at the desired UHF transmitting frequency. The modulated VCO signal is buffered by amplifier Q4006 (EC3H07B-TL) and Q1017 (2SC5555ZD-TR) and delivered through UHF T/R diode switch D1035 (HN2D01FUTE85R) to the RF-UNIT. The modulated low- level UHF transmit signal from the VCO is passed through diode switch D1029 (DAN222M-T2L) to amplifier Q1011 (2SC5226-5-TL). The modulated UHF transmit signal from the VCO is amplified by Q1015 (2SK3475) and RF power amplifier Q1023 (2SK3476) up to 5 W (depending on the power source). The RF output

Circuit Description
passes through TX diode switch D1046. RF output is passed by T/R switch and low-pass filter to suppress harmonics and spurious products before output to the antenna at the antenna terminal.
PLL Frequency Synthesizer
PLL IC Q1020 (MB15A01PFV1-G-BND-EF) on the RFUNIT consists of a data shift register, reference frequency divider, phase comparator, charge pump, intermittent operation circuit, and band selector switch. Serial PLL data from the CPU is converted into parallel data by the shift register in the PLL IC and is latched into the comparative frequency divider and reference frequency divider to set a frequency dividing ratio for each. An 11.7 MHz reference signal produced by X1001 is input to REF pin 1 of the PLL IC. The internal reference frequency divider divides the 11.7 MHz reference by 2,050 (or 1,640) to obtain a reference frequency of 5 kHz (or 6.25 kHz), which is applied to the phase comparator. Meanwhile, a sample of the output of VHF VCO Q4004 (EC3H07B-TL) or UHF VCO Q4002 (EC3H07B-TL) on the VCO-UNIT, buffered by Q4006 (EC3H07B-TL), is input to the PLL IC, where it is frequency-divided by the internal comparative frequency divider to produce a comparative frequency also applied to the phase comparator. The phase comparator compares the phase between the reference frequency and comparative frequency to output a pulse corresponding to the phase difference between them. This pulse is input to the charge pump, and the output from the charge pump passes through a loop filter composed of L1043, C1121, R1080, R1079, and either R1082, C1139, R1093 and C1145 for VHF, or R1081, C1138, R1092 and C1140 for UHF, which convert the pulse into a corresponding smoothed varactor control voltage (VCV). The VCV is applied to varactor D4004 and D4013 in the VHF VCO tank circuit, or to varactor D4001 in the UHF VCO tank circuit, to eliminate phase difference between the reference frequency and comparative frequency, and so locking the VCO oscillation frequency to the reference crystal. The VCO frequency is determined by the frequency-dividing ratio sent from the CPU to the PLL IC. During receiver power save operation, the PLL circuit operates intermittently to reduce current consumption, for which the intermittent operation control circuit reduces the lock-up time.

9

Circuit Description
Note:
10

Introduction
The VX-6R/E is carefully aligned at the factory for the specified performance across the amateur band. Realignment should therefore not be necessary except in the event of a component failure. Only an authorized VERTEX STANDARD representative should perform all component replacement and service, or the warranty policy may be void. The following procedures cover the adjustments that are not normally required once the transceiver has left the factory. However, if damage occurs and some parts subsequently are replaced, realignment may be required. If a sudden problem occurs during normal operation, it is likely due to component failure; realignment should not be done until after the faulty component has been replaced. We recommend that servicing be performed only by authorized VERTEX STANDARD service technicians who are experienced with the circuitry and fully equipped for repair and alignment. If a fault is suspected, contact the dealer from whom the transceiver was purchased for instructions regarding repair. Authorized VERTEX STANDARD service technicians realign all circuits and make complete performance checks to ensure compliance with factory specifications after replacing any faulty components. Those who do undertake any of the following alignments are cautioned to proceed at their own risk. Problems caused by unauthorized attempts at realignment are not covered by the warranty policy. Also, VERTEX STANDARD reserves the right to change circuits and alignment procedures in the interest of improved performance, without notifying owners.
Under no circumstances should any alignment be attempted unless the normal function and operation of the transceiver are clearly understood, the cause of the malfunction has been clearly pinpointed and any faulty components replaced, and realignment determined to be absolutely necessary.
The following test equipment (and familiarity with its use) is necessary for complete realignment. Correction of problems caused by misalignment resulting from use of improper test equipment is not covered under the warranty policy. While most steps do not require all of the equipment listed, the interactions of some adjustments may require that more complex adjustments be performed afterwards. Do not attempt to perform only a single step unless it is clearly isolated electrically from all other steps. Have all test equipment ready before beginning and, follow all of the steps in a section in the order presented.

Alignment

Required Test Equipment
RF Signal Generator with calibrated output level at 500 MHz Deviation Meter (linear detector) In-line Wattmeter with 5% accuracy at 500 MHz 50-ohm, 10-W RF Dummy Load 8-ohm AF Dummy Load Regulated DC Power Supply adjustable from 3 to 15 V DC, 3A Frequency Counter: 0.2-ppm accuracy at 500 MHz AF Signal Generator AC Voltmeter DC Voltmeter: high impedance UHF Sampling Coupler SINAD Meter

Alignment Preparation & Precautions
A 10 W RF dummy load and in-line wattmeter must be connected to the main antenna jack in all procedures that call for transmission, alignment is not possible with an antenna. After completing one step, read the next step to see if the same test equipment is required. If not, remove the test equipment (except dummy load and wattmeter, if connected) before proceeding.
Correct alignment requires that the ambient temperature be the same as that of the transceiver and test equipment, and that this temperature be held constant between 68 ~ 86 °F (20 ~ 30 °C). When the transceiver is brought into the shop from hot or cold air, it should be allowed some time to come to room temperature before alignment. Whenever possible, alignments should be made with oscillator shields and circuit boards firmly affixed in place. Also, the test equipment must be thoroughly warmed up before beginning. Note: Signal levels in dB referred to in the alignment procedure
are based on 0 dBµ=0.5 µV (closed circuit).

Test Setup
Set up the test equipment as shown below for transceiver alignment, and apply 8.9 V DC power to the transceiver. Refer to the drawings for Alignment Points.

RF Signal Generator
In-Line Wattmeter

Sampling Coupler

50-ohm RF Dummy Load

8-ohm AF Load SINAD
Meter

Deviation Meter

Frequency Counter

Alignment Setup
11

Alignment
Internal System Alignment Routine
This uses a programmed routine in the transceiver which simplifies many previously complex discrete component settings and adjustments with digitally- controlled settings via front panel buttons and LCD indications.
To begin, set the transceiver to the center of the 144 MHz, 220 MHz and 430 MHz bands. Next, select the 430 MHz band, then turn the transceiver off.
Now, press and hold the [BAND] , [ ] and [0] buttons (at the same time) while powering the radio on again. The display will show the first setting. Note: that the first few settings are not adjustable and are
left as set from the factory. In the alignment process, each adjustment is selected by rotating the DIAL. Alignment is performed by: Pressing the [V/M] button; Injecting a signal of the required frequency and level; then Pressing the [V/M] button after a level setting or adjustment is made. This second pressing of the [V/M] button stores the entry. To exit the alignment routine, press the [HOME] button. After performing the system alignment in its entirety, individual settings can be returned to and adjust should the need arise In the section to follow, typical default values (as set at the factory) are shown in brackets (e.g. [119]), to serve as a general guideline. As each transceiver is individually optimized at the factory, the precise settings for the transceiver on your bench may be slightly different.
PLL Reference Frequency (REF)
Press the [V/M] button, then transmit and adjust the counter frequency to 440.000 (±300 Hz) by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
430 MHz band Alignment
Squelch Preset Threshold (THL) [167] Press the [V/M] button, then inject a 12.0 dBµ RF signal
(1 kHz tone @ ±3.5 kHz deviation), then rotate the DIAL for minimum squelch hysteresis, then press the [V/M] button. Rotate the DIAL to select the next setting.
12

Squelch Preset Tight (TLG) [136] Press the [V/M] button, then adjust the generator level
to 4.0 dBµ, then press the [V/M] button. Rotate the DIAL to select the next setting.
S-Meter S-1 Adjustment (S1) [27] Press the [V/M] button, then adjust the generator level
to 8.0 dBµ (1 kHz tone @ ±3.5 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
S-Meter Full-Scale Adjustment (S9) [66] Press the [V/M] button, then adjust the generator level
to +20 dBµ (1 kHz tone @ ±3.5 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
Wide-FM S-Meter S-1 Adjustment (S1) [53] Press the [V/M] button, then adjust the generator level
to 0 dBµ (1 kHz tone @ ±20 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
Wide-FM S-Meter Full-Scale Adjustment (S9) [77] Press the [V/M] button, then adjust the generator level
to +20 dBµ (1 kHz tone @ ±20 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
High TX Power Adjustment (HP) [220] Press the [V/M] button, then transmit, and adjust the
output power level for 5.0 W ±0.3 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
LOW3 Tx Power Adjustment (LP3) [166] Press the [V/M] button, then transmit, and adjust the
output power level for 2.5 W ±0.2 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
L2 Tx Power Adjustment (LP2) [125] Press the [V/M] button, then transmit, and adjust the
output power level for 1.0 W ±0.1 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
L1 Tx Power Adjustment (LP1) [95] Press the [V/M] button, then transmit, and adjust the
output power level for 0.3 W ±0.1 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.

TX Deviation Adjustment (DEU) [65] Inject a 1 kHz audio tone at a level of 50mV (rms) to the
MIC jack. Press the [V/M] button, then transmit and adjust the deviation for 4.5 kHz ±0.2 kHz (USA Type: 4.2 kHz ±0.2 kHz) by rotating DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
CTCSS Tx Deviation Adjustment (100) [15] Press the [V/M] button, then transmit and adjust the de-
viation for 0.6 kHz ±0.05 kHz (USA Type: 0.8 kHz ±0.05 kHz) by rotating DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
DCS Tx Deviation Adjustment (DCS) [15] Press the [V/M] button, then transmit and adjust the de-
viation for 0.6 kHz ±0.05 kHz by rotating DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting. This completes the 430 MHz band internal alignment routine; press the [BAND] button to activate the 50 MHz band internal alignment routine.
50 MHz band Alignment
Squelch Preset Threshold (THL) [156] Press the [V/M] button, then inject a 8.0 dBµ RF signal
(1 kHz tone @ ±3.5 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
Squelch Preset Tight (TLG) [124] Press the [V/M] button, then adjust the generator level
to 0 dBµ, then press the [V/M] button. Rotate the DIAL to select the next setting.
S-Meter S-1 Adjustment (S1) [40] Press the [V/M] button, then adjust the generator level
to 3.0 dBµ (1 kHz tone @ ±3.5 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
S-Meter Full-Scale Adjustment (S9) [71] Press the [V/M] button, then adjust the generator level
to +20 dBµ (1 kHz tone @ ±3.5 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
Wide-FM S-Meter S-1 Adjustment (S1) [62] Press the [V/M] button, then adjust the generator level
to +8 dBµ (1 kHz tone @ ±20 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.

Alignment
Wide-FM S-Meter Full-Scale Adjustment (S9) [83] Press the [V/M] button, then adjust the generator level
to +25 dBµ (1 kHz tone @ ±20 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting. This completes the 50 MHz band internal alignment routine; press the [BAND] button to activate the 145 MHz band internal alignment routine.
144 MHz Band Alignment
Squelch Preset Threshold (THL) [171] Press the [V/M] button, then inject a 12.0 dBµ RF signal
(1 kHz tone @ ±3.5 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
Squelch Preset Tight (TLG) [142] Press the [V/M] button, then adjust the generator level
to 4.0 dBµ, then press the [V/M] button. Rotate the DIAL to select the next setting.
S-Meter S-1 Adjustment (S1) [27] Press the [V/M] button, then adjust the generator level
to 8.0 dBµ (1 kHz tone @ ±3.5 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
S-Meter Full-Scale Adjustment (S9) [65] Press the [V/M] button, then adjust the generator level
to +20 dBµ (1 kHz tone @ ±3.5 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
Wide-FM S-Meter S-1 Adjustment (S1) [55] Press the [V/M] button, then adjust the generator level
to 0 dBµ (1 kHz tone @ ±20 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
Wide-FM S-Meter Full-Scale Adjustment (S9) [79] Press the [V/M] button, then adjust the generator level
to +20 dBµ (1 kHz tone @ ±20 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
High TX Power Adjustment (HP) [198] Press the [V/M] button, then transmit, and adjust the
output power level for 5.0 W ±0.3 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
13

Alignment
L3 Tx Power Adjustment (LP3) [159] Press the [V/M] button, then transmit, and adjust the
output power level for 2.5 W ±0.2 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
L2 Tx Power Adjustment (LP2) [124] Press the [V/M] button, then transmit, and adjust the
output power level for 1.0 W ±0.1 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
L1 Tx Power Adjustment (LP1) [96] Press the [V/M] button, then transmit, and adjust the
output power level for 0.3 W ±0.1 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
TX Deviation Adjustment (DEU) [100] Inject a 1 kHz audio tone at a level of 50mV (rms) to the
MIC jack. Press the [V/M] button, then transmit and adjust the deviation for 4.5 kHz ±0.2 kHz (USA Type: 4.2 kHz ±0.2 kHz) by rotating DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
CTCSS Tx Deviation Adjustment (100) [18] Press the [V/M] button, then transmit and adjust the de-
viation for 0.6 kHz ±0.05 kHz (USA Type: 0.65 kHz ±0.05 kHz) by rotating DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
DCS Tx Deviation Adjustment (DCS) [56] Press the [V/M] button, then transmit and adjust the de-
viation for 0.6 kHz ±0.05 kHz by rotating DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting. This completes the 144 MHz band internal alignment routine; press the [BAND] button to activate the 220 MHz band internal alignment routine.
220 MHz Band Alignment (USA Only)
Squelch Preset Threshold (THL) [167] Press the [V/M] button, then inject a 12.0 dBµ RF signal
(1 kHz tone @ ±3.5 kHz deviation). Press the [V/M] button, then rotate the DIAL to select the next setting.
Squelch Preset Tight (TLG) [136] Press the [V/M] button, then adjust the generator level
to 4.0 dBµ, then press the [V/M] button. Rotate the DIAL to select the next setting.
14

S-Meter S-1 Adjustment (S1) [27] Press the [V/M] button, then adjust the generator level
to 8.0 dBµ (1 kHz tone @ ±3.5 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
S-Meter Full-Scale Adjustment (S9) [66] Press the [V/M] button, then adjust the generator level
to +20 dBµ (1 kHz tone @ ±3.5 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
Wide-FM S-Meter S-1 Adjustment (S1) [53] Press the [V/M] button, then adjust the generator level
to 0 dBµ (1 kHz tone @ ±20 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
Wide-FM S-Meter Full-Scale Adjustment (S9) [77] Press the [V/M] button, then adjust the generator level
to +20 dBµ (1 kHz tone @ ±20 kHz deviation), then press the [V/M] button. Rotate the DIAL to select the next setting.
High TX Power Adjustment (HP) [132] (USA version only) Press the [V/M] button, then transmit, and adjust the
output power level for 1.5 W ±0.3 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
LOW3 Tx Power Adjustment (LP3) [120] (USA version only)
Press the [V/M] button, then transmit, and adjust the output power level for 1.0 W ±0.2 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
L2 Tx Power Adjustment (LP2) [103] (USA version only) Press the [V/M] button, then transmit, and adjust the
output power level for 0.5 W ±0.1 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
L1 Tx Power Adjustment (LP1) [89] (USA version only) Press the [V/M] button, then transmit, and adjust the
output power level for 0.2 W ±0.1 W by rotating the DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.

TX Deviation Adjustment (DEU) [62] (USA version only)
Press the [V/M] button, then inject a 1 kHz audio tone at a level of 50mV (rms) to the MIC jack. Press the [V/M] button, then transmit and adjust the deviation for 4.2 kHz ±0.2 kHz by rotating DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
CTCSS Tx Deviation Adjustment (100) [29] (USA version only)
Press the [V/M] button, then transmit and adjust the deviation for 0.6 kHz ±0.05 kHz by rotating DIAL, then press the [V/M] button. Rotate the DIAL to select the next setting.
DCS Tx Deviation Adjustment (DCS) [30] (USA version only)
Press the [V/M] button, then transmit and adjust the deviation for 0.8 kHz ±0.05 kHz by rotating DIAL, then press the [V/M] button.
This completes the internal alignment routine for all bands. To save all settings and exit, press the [HM/RV] button.

Alignment

15

Alignment
Note:
16

Circuit Diagram

6.8V:LAMP on (6.3V):LAMP off

2.93V (2.93V)

2.98V (2.98V)

0.8V 0.46V (0.65V) (1.6V)

0.8V (0.8V)

6.8V:LAMP on (5.9V):LAMP off
0V:LAMP on (0.57V):LAMP off

1.99V:LAMP on (0.8V):LAMP off

0V (0V) 0V
(0.8V)

6.25V (6.6V)
2.95V (0V)
0.75V (0V)

6.9V 5.8V (6.4V) (5.7V) 0V (2.95V)

0V (1V)

0V (0V)

0V 0.8V (0.8V) (0.8V)
0.8V (0.8V)

1.4V (0.8V) 3.0V
(3.0V)

0.3V (0.63V) 0V (0.4V)

0V (0V)

2.15V (2.15V)

0.58V (0.33V)

1.89V (0V)

0.56V (0.32V)

0.42V (0V)
0.43V (0V)

0.8V 1.2V (1.7V) (1.2V) 1.2V(1.2V)

0V (0V) 0.6V (0.6V) 0V (0V)

0V (1.0V) 1.2V (0V)

1.2V (1.2V)

0V (1.4V) 0V (0.6V)
0V (1.7V)

1.2V(1.2V) 0V (0V)

1.1V (1.1V)

1.2V (1.2V) 0V (0V)

3.0V (3.0V)

3.0V (3.0V)
0V (0V)

8.0V(8.0V)

2.8V (2.8V)

8.3V (8.3V)

0V (0V)
6.5V (6.5V)
6.52V (6.52V)

3V (3V) 3.18V (3.18V)

8.2V (8.1V)

8.4V (8.3V)

3V (3V)
0V (0V)

3V (3V)

1.27V

0V(0V)

2.46V 7.63V (2.46V) (7.58V)

2.9V (2.9V)
8.2V (8.1V)

CNTL Unit (Lot. 1~2)

2.95V (2.95V)
0V(0V)
2.98V (2.98V)

2.79V (2.79V)

2.68V (2.68V)

3V(3V)
2.68V (2.68V)

1.0V (1.5V)

2.98V (0V)

1.3V

0V

(1.3V)

(0V)

3.0V (3.0V)
0V(0V)

3.0V (3.0V)

2.98V (1.3V)
2.98V (1.3V)

1.23V (1.23V)

2.98V (2.98V)

0V (2.95V)
2.95V (0V)

2.98V (1.3V)

0V (2.92V)

2.8V (2.8V)

1.27V (1.27V)

1.17V (1.17V)
0V 2.9V (0V) (2.9V)

1.0V (1.5V)

2.1V(2.1V)

0V(0V) 2.1V(6V)
2.5V(0V) 0V (2V)
0V (3V) 0V
(0.3V)

2.4V (0V) 0V (0V)

2V

0V

(6V)

(0V)

NOTE: RESISTOR VALUES ARE IN . 1/16W ; CAPACITOR VALUES ARE IN F. 50V ; (T) CAPACITOR VALUES ARE TANTALUM ; ELECTOROLYTIC CAPACITORS ARE IN F. 16V ; INDUCTOR VALUES ARE IN H ; COIL VALUES ARE IN H ; UNLESS OTHERWISE NOTED.

×× : RX (××) : TX

Frequency:145.000 MHz, TX Power:Low1, EXT DC:8.4 V

3V (3V)
3V (0.3V)

2V 3V (2V) (3V) 1V (1V)

1.5V (1.5V)

2.95V (2.95V)

0V (2V)

0V (0V)

2.9V (2.9V)

17

CNTL Unit (Lot. 1~2)

Parts Layout

A

B

C

a

b

c

HD64F2266TF13

M62364FP

BU4094BCFV-E2

BU2099FV-E2

(Q3032)

(Q3011)

(Q3016)

(Q3020)

LM2902PWR

1

(Q3004)

AT24C256N (Q3031)

LM2904PWR (Q3003, 3015)

NJM3403AV (Q3008)

NJU7231F30 (Q3021)

2

UMD2N (D2)

XC6371A650PR

2SD1801S

NJU7007F2-TE1

(Q3025)

(Q3024)

(Q3033)

(Q3017)

3
4
Side A

UMW1 (W1) (Q3026)

TAR5S30 (Q3027)

DTC124EE (25) (Q3035)

DTC143ZE (E23) (Q3029)

3

2SC5374 (NA) (Q3030) 2SC4617 (BR) (Q3009, 3018, 3019)

CPH6202 (CB) (Q3002)

DTA144EE (16) (Q3007)

DTC144EE (26) (Q3001, 3005, 3006,
3010, 3012, 3013, 3014, 3034, 3037,

4

Side B

DAN222 (N) (D3015)

UMP11N (P11) (D3029, 3030)

DA221 (K) (D3016, 3017, 3018,
3021)

18

Circuit Diagram

CNTL Unit (Lot. 3~)
19

CNTL Unit (Lot. 3~)

Parts Layout

A

B

C

a

b

c

HD64F2266TF13

M62364FP

BU4094BCFV-E2

BU2099FV-E2

(Q3032)

(Q3011)

(Q3016)

(Q3020)

LM2902PWR

1

(Q3004)

AT24C256N (Q3031)

LM2904PWR (Q3003, 3015)

NJM3403AV (Q3008)

NJU7231F30 (Q3021)

2

UMD2N (D2)

XC6371A650PR

CPH6102 (AB)

NJU7007F2-TE1

(Q3025)

(Q3024)

(Q3028)

(Q3017)

3
4
Side A

DTC124EE (25) (Q3035)

UMW1 (W1) (Q3026)

3

2SD1801S (Q3033)

TAR5S30 (Q3027)

2SC5374 (NA) (Q3030) 2SC4617 (BR) (Q3009, 3018, 3019)

DTC143ZE (E23) (Q3029)

DTA144EE (16) DTC144EE (26)

(Q3007)

(Q3001, 3005, 3006,

3010, 3012, 3013,

3014, 3034, 3037,

4

Side B

CPH6202 (CB) (Q3002)

DAN222 (N) (D3015)

UMP11N (P11) (D3029, 3030)

DA221 (K) (D3016, 3017, 3018,
3021)

20

Parts List

REF.

DESCRIPTION

VALUE

PCB with Components

V/W TOL.

MFR’S DESIG

Printed Circuit Board

C 3001 CHIP CAP. C 3002 CHIP TA.CAP. C 3003 CHIP CAP. C 3004 CHIP CAP. C 3005 CHIP CAP. C 3006 CHIP CAP. C 3007 CHIP CAP. C 3009 CHIP CAP. C 3010 CHIP CAP. C 3011 CHIP CAP. C 3011 CHIP CAP. C 3012 CHIP TA.CAP. C 3013 CHIP CAP. C 3014 CHIP CAP. C 3015 CHIP CAP. C 3016 CHIP CAP. C 3017 CHIP CAP. C 3018 CHIP CAP. C 3019 CHIP CAP. C 3020 CHIP CAP. C 3021 CHIP CAP. C 3022 CHIP CAP. C 3024 CHIP CAP. C 3025 CHIP CAP. C 3026 CHIP CAP. C 3027 CHIP CAP. C 3028 CHIP CAP. C 3028 CHIP CAP. C 3029 CHIP CAP. C 3029 CHIP CAP. C 3030 CHIP CAP. C 3031 CHIP CAP. C 3032 CHIP CAP. C 3033 CHIP TA.CAP. C 3034 CHIP CAP. C 3034 CHIP CAP. C 3035 CHIP CAP. C 3036 CHIP CAP. C 3037 CHIP CAP. C 3038 CHIP CAP. C 3039 CHIP CAP. C 3040 CHIP CAP. C 3041 CHIP CAP. C 3041 CHIP CAP. C 3042 CHIP CAP. C 3044 CHIP CAP.

1uF

6.3V B

4.7uF

6.3V

0.001uF 50V B

0.0047uF 25V B

0.0027uF 50V B

0.001uF 50V B

0.01uF 16V B

0.01uF 25V B

22uF

4V

0.022uF 16V B

0.0047uF 25V B

0.001uF 50V B

1uF

6.3V B

0.1uF

10V B

0.015uF 16V B

150pF 25V CH

560pF 50V B

0.022uF 16V B

0.01uF 16V B

0.01uF 25V B

0.01uF 16V B

0.01uF 25V B

0.1uF

10V B

0.001uF 50V B

180pF 25V CH

22uF

4V

0.01uF 16V B

0.01uF 25V B

1uF

6.3V B

1uF

6.3V B

0.015uF 16V B

150pF 25V CH

560pF 50V B

0.0033uF 50V B

0.01uF 16V B

0.01uF 25V B

0.0033uF 50V B

0.01uF 16V B

GRM188B10J105KA01D TEESVP0J475M8R GRM155B11H102KA01D GRM155B11H102KA01D GRM155B11H102KA01D TMK105B472KW-F TMK105B472KW-F UMK105B272KW-F GRM155B11H102KA01D GRM36B103K16PT GRM155B11E103KA01D TEESVA0G226M8R EMK105B223KW-F TMK105B472KW-F GRM155B11H102KA01D GRM155B11H102KA01D GRM155B11H102KA01D GRM155B11H102KA01D GRM155B11H102KA01D GRM155B11H102KA01D GRM188B10J105KA01D GRM155B11A104KA01D EMK105B153KW-F TMK105CH151JV-F UMK105B561KW-F EMK105B223KW-F GRM36B103K16PT GRM155B11E103KA01D GRM36B103K16PT GRM155B11E103KA01D GRM155B11A104KA01D GRM155B11H102KA01D TMK105CH181JV-F TEESVA0G226M8R GRM36B103K16PT GRM155B11E103KA01D GRM188B10J105KA01D GRM188B10J105KA01D EMK105B153KW-F TMK105CH151JV-F UMK105B561KW-F GRM155B11H332KA01D GRM36B103K16PT GRM155B11E103KA01D UMK105B332KW-F GRM36B103K16PT

CNTL Unit

VXSTD P/N

VERS.

LOT. SIDE LAY ADR.

CB2944002 DST:USA, TYP:AU2

CB2944003 DST:EXP, TYP:A1

CB2944004 DST:EXP, TYP:A2

CB2944005 DST:EXP, TYP:A3

CB2944006 DST:EU, TYP:B1

CB2944007 DST:EU, TYP:B2

CB2944008 DST:EXP, TYP:B3

CB2944009 DST:EU, TYP:C1

CB2944010 DST:EU, TYP:C2

CB2944011 DST:EXP, TYP:C3

CB2944012 DST:EU, TYP:D1

CB2944013 DST:EU, TYP:D2

CB2944014 DST:AUS, TYP:H1

CB2944015 DST:AUS, TYP:H2

FR012380C

1-

FR012380D

3-

K22084801

1- B

a2

K78080053

1- B

a2

K22178809

1- B

a2

K22178809

1- B

a2

K22178809

1- A

C3

K22148831

1- B

a2

K22148831

1- B

a1

K22178834

1- B

a2

K22178809

1- B

a2

K22128804

1- B

a2

K22148834

40- B

a2

K78060023

1- B

a2

K22128813

1- B

a2

K22148831

1- B

a4

K22178809

1- B

a2

K22178809

1- B

a4

K22178809

1- B

a4

K22178809

1- B

a4

K22178809

1- B

a3

K22178809

1- B

b4

K22084801

1- B

b4

K22108802

1- B

b4

K22128811

1- B

a2

K22148242

1- B

a2

K22178826

1- B

a2

K22128813

1- B

a2

K22128804

1- B

a4

K22148834

40- B

a4

K22128804

1- B

a4

K22148834

40- B

a4

K22108802

1- B

a4

K22178809

1- B

a4

K22148244

1- B

a4

K78060023

1- B

a4

K22128804

1- B

a4

K22148834

40- B

a4

K22084801

1- B

a4

K22084801

1- B

b4

K22128811

1- B

a2

K22148242

1- B

a2

K22178826

1- B

a2

K22178815

1- B

a4

K22128804

1- B

a4

K22148834

40- B

a4

K22178835

1- B

a4

K22128804

1- B

b4

21

CNTL Unit

REF.

DESCRIPTION

C 3044 CHIP CAP. C 3045 CHIP CAP. C 3046 CHIP CAP. C 3047 CHIP CAP. C 3048 CHIP CAP. C 3049 CHIP CAP. C 3050 CHIP TA.CAP. C 3050 CHIP TA.CAP. C 3051 CHIP CAP. C 3052 CHIP CAP. C 3053 CHIP CAP. C 3054 CHIP TA.CAP. C 3055 CHIP CAP. C 3056 CHIP TA.CAP. C 3057 CHIP CAP. C 3058 CHIP CAP. C 3059 CHIP CAP. C 3059 CHIP CAP. C 3060 CHIP CAP. C 3060 CHIP CAP. C 3061 CHIP CAP. C 3062 CHIP CAP. C 3063 CHIP CAP. C 3064 CHIP CAP. C 3065 CHIP CAP. C 3066 CHIP CAP. C 3068 CHIP TA.CAP. C 3069 CHIP CAP. C 3070 CHIP TA.CAP. C 3071 CHIP TA.CAP. C 3072 CHIP CAP. C 3073 AL.ELECTRO.CAP. C 3074 CHIP CAP. C 3074 CHIP CAP. C 3075 AL.ELECTRO.CAP. C 3076 CHIP CAP. C 3077 CHIP CAP. C 3077 CHIP CAP. C 3078 CHIP CAP. C 3078 CHIP CAP. C 3079 CHIP CAP. C 3080 CHIP CAP. C 3081 CHIP CAP. C 3082 CHIP CAP. C 3083 CHIP CAP. C 3084 CHIP CAP. C 3085 CHIP CAP. C 3086 CHIP CAP. C 3086 CHIP CAP. C 3086 CHIP CAP. C 3087 CHIP CAP. C 3088 CHIP CAP. C 3089 CHIP CAP. C 3089 CHIP CAP. C 3090 CHIP CAP. C 3091 CHIP CAP. C 3092 CHIP CAP. C 3092 CHIP CAP. C 3093 CHIP CAP. C 3094 CHIP CAP. C 3095 CHIP TA.CAP. C 3096 CHIP CAP.

22

VALUE
0.01uF 0.001uF 0.047uF 1uF 1uF 0.001uF 220uF 220uF 0.001uF 0.1uF 0.001uF 10uF 100pF 33uF 100pF 0.1uF 0.01uF 0.01uF 0.01uF 0.01uF 1uF 1uF 0.001uF 0.001uF 1uF 0.001uF 22uF 0.001uF 10uF 22uF 0.001uF 47uF 0.01uF 0.01uF 10uF 0.001uF 0.01uF 0.01uF 0.01uF 0.01uF 15pF 100pF 0.1uF 0.047uF 0.047uF 15pF 0.001uF 0.33uF 0.33uF 0.33uF 0.1uF 0.1uF 15pF 12pF 0.1uF 15pF 4pF 3pF 5pF 0.001uF 47uF 0.001uF

V/W
25V 50V 10V 6.3V 6.3V 50V 4V 4V 50V 10V 50V 10V 50V 10V 50V 10V 16V 25V 16V 25V 6.3V 6.3V 50V 50V 6.3V 50V 4V 50V 6.3V 4V 50V 16V 16V 25V 16V 50V 16V 25V 16V 25V 50V 50V 10V 10V 10V 50V 50V 6.3V 6.3V 6.3V 10V 10V 50V 50V 10V 50V 50V 50V 50V 50V 4V 50V

TOL.

MFR’S DESIG

B

GRM155B11E103KA01D

B

GRM155B11H102KA01D

B

GRM155B11A473KA01D

B

GRM188B10J105KA01D

B

GRM188B10J105KA01D

B

GRM155B11H102KA01D

SK4-0G227M-RD

TEESVC0G227M12R

B

GRM155B11H102KA01D

B

GRM155B11A104KA01D

B

GRM155B11H102KA01D

TEESVA1A106M8R

CH GRM1552C1H101JD01D

TEESVB21A336M8R

CH GRM1552C1H101JD01D

B

GRM155B11A104KA01D

B

GRM36B103K16PT

B

GRM155B11E103KA01D

B

GRM36B103K16PT

B

GRM155B11E103KA01D

B

GRM188B10J105KA01D

B

GRM188B10J105KA01D

B

GRM155B11H102KA01D

B

GRM155B11H102KA01D

B

GRM188B10J105KA01D

B

GRM155B11H102KA01D

TEESVA0G226M8R

B

GRM155B11H102KA01D

TEESVP0J106M8R

TEESVA0G226M8R

B

GRM155B11H102KA01D

RV4-16V470MF46-RR2

B

GRM36B103K16PT

B

GRM155B11E103KA01D

RV4-16V100MD46-RR2

B

GRM155B11H102KA01D

B

GRM36B103K16PT

B

GRM155B11E103KA01D

B

GRM36B103K16PT

B

GRM155B11E103KA01D

CH GRM1552C1H150JZ01D

CH GRM1552C1H101JD01D

B

GRM155B11A104KA01D

B

GRM155B11A473KA01D

B

GRM155B11A473KA01D

CH GRM1552C1H150JZ01D

B

GRM155B11H102KA01D

B

GRM155B10J334KE01D

B

GRM155B10J334KE01D

B

GRM155B10J334KE01D

B

GRM155B11A104KA01D

B

GRM155B11A104KA01D

CH GRM1552C1H150JZ01D

CH GRM1552C1H120JZ01D

B

GRM155B11A104KA01D

CH GRM1552C1H150JZ01D

CH UMK105CH040CV-F

CJ UMK105CJ030CV-F

CH UMK105CH050CV-F

B

GRM155B11H102KA01D

SK7-0G476M-RA

B

GRM155B11H102KA01D

VXSTD P/N

VERS.

K22148834 K22178809 K22108801 K22084801 K22084801 K22178809 K78060014 K78060053 K22178809 K22108802 K22178809 K78100028 K22178236 K78100047 K22178236 K22108802 K22128804 K22148834 K22128804 K22148834 K22084801 K22084801 K22178809 K22178809 K22084801 K22178809 K78060023 K22178809 K78080055 K78060023 K22178809 K48120019 K22128804 K22148834 K48120018 K22178809 K22128804 K22148834 K22128804 K22148834 K22178216 K22178236 K22108802 K22108801 K22108801 K22178216 K22178809 K22088801 K22088801 K22088801 K22108802 K22108802 K22178216 K22178214 K22108802 K22178216 K22178252 K22178251 K22178253 K22178809 K78060048 K22178809

AUSTRALIA EUROPE EXPORT

LOT. SIDE LAY ADR.

40- B

b4

1- B

b4

1- B

a2

1- B

b4

1- B

a4

1- B

a3

1- B

c1

39- B

c1

1- B

c1

1- B

c2

1- B

b4

1- B

b4

1- A

A3

1- B

b4

1- A

A2

1- B

a4

1- B

b4

40- B

b4

1- B

b4

40- B

b4

1- B

c1

1- B

c1

1- B

c1

1- B

c1

1- B

c1

1- B

c1

1- B

b4

1- B

b4

1- B

b1

1- B

b1

1- B

b1

1- B

c1

1- B

c1

40- B

c1

1- B

b1

1- B

c1

1- B

a1

40- B

a1

1- B

b1

40- B

b1

1- A

A2

1- A

A2

1- A

A2

1- B

a1

1- A

B2

1- A

A2

1- A

B1

4- A

A1

4- A

A1

4- A

A1

1- A

B1

1- A

B1

1- B

a1

4- B

a1

1- A

B1

1- B

a1

1- B

a1

4- B

a1

1- B

a1

1- B

c3

1- A

C2

1- B

c3

CNTL Unit

REF.

DESCRIPTION

VALUE

C 3097 CHIP CAP.

0.01uF

C 3097 CHIP CAP.

0.01uF

C 3098 CHIP CAP.

0.001uF

C 3099 CHIP TA.CAP.

22uF

C 3100 CHIP CAP.

1uF

C 3101 CHIP CAP.

0.001uF

C 3103 CHIP CAP.

0.1uF

C 3106 CHIP TA.CAP.

4.7uF

C 3107 CHIP TA.CAP.

22uF

C 3108 CHIP CAP.

0.001uF

C 3109 CHIP CAP.

33pF

D 3001 LED

D 3002 LED

D 3003 LED

D 3004 LED

D 3005 LED

D 3006 LED

D 3007 LED

D 3008 DIODE

D 3009 LED

D 3010 LED

D 3011 LED

D 3012 LED

D 3013 DIODE

D 3015 DIODE

D 3016 DIODE

D 3017 DIODE

D 3018 DIODE

D 3019 DIODE

D 3020 DIODE

D 3021 DIODE

D 3022 DIODE

D 3023 DIODE

D 3024 DIODE

D 3025 DIODE

D 3026 DIODE

D 3027 DIODE

D 3028 DIODE

D 3029 DIODE

D 3030 DIODE

D 3031 DIODE

D 3032 DIODE

DS3001 LCD

J 3001 SHIELD FINGER

J 3002 SHIELD FINGER

J 3003 CONNECTOR

J 3004 CONNECTOR

L 3001 M.RFC

150uH

L 3002 M.RFC

1uH

L 3003 M.RFC

150uH

MC3001 MICROPHONE ELEMENT

V/W
16V 25V 50V 4V 6.3V 50V 10V 6.3V 4V 50V 50V

TOL.

MFR’S DESIG

VXSTD P/N

VERS.

B

GRM36B103K16PT

K22128804

B

GRM155B11E103KA01D K22148834

B

GRM155B11H102KA01D K22178809

TEESVP0G226M8R

K78060047

B

GRM188B10J105KA01D K22084801

B

GRM155B11H102KA01D K22178809

B

GRM155B11A104KA01D K22108802

TEESVA0J475M8R

K78080017

TEESVP0G226M8R

K78060047

B

GRM155B11H102KA01D K22178809 W/ CE LABEL

CH GRM1552C1H330JZ01D K22178224