SERVICE MANUAL VHF AIR BAND TRANSCEIVERS

Transcript

1 SERVICE MANUAL VHF AIR BAND TRANSCEIVERS S-20HZ-C May. 2005

2 INTRODUCTION This service manual describes the latest service information for the IC-A22/E and IC-A3/E VHF AIR BAND TRANSCEIVERS at the time of publication. 6 versions of the IC-A22/E and 5 versions of the IC-A3/E have been designed. This service manual covers each version. MODEL VERSION VERSION SYMBOL IC-A22 #0 U.S.A. USA #07 U.S.A. USA- #03 Europe EUR IC-A22E #0 Europe EUR- #05 Australia AUS #06 U.K. UK IC-A3 #0 U.S.A. USA #03 Europe EUR IC-A3E #0 Europe EUR- #05 Australia AUS #06 U.K. UK To upgrade quality, all electrical or mechanical parts and internal circuits are subject to change without notice or obligation. DANGER NEVER connect the transceiver to an AC outlet or to a DC power supply that uses more than 5 V. Such a connection could cause a fire or electric hazard. DO NOT expose the transceiver to rain, snow or any liquids. DO NOT reverse the polarities of the power supply when connecting the transceiver. DO NOT apply an RF signal of more than 20 dbm (00 mw) to the antenna connector. This could damage the transceiver's front end. ING PARTS REPAIR NOTES Be sure to include the following four points when ordering replacement parts:. 0-digit order numbers 2. Component part number and name 3. Equipment model name and unit name. Quantity required <SAMPLE > IC SC303 IC-A22 RF unit 5 pieces 0000 Screw PH BT M2 29 ZK IC-A22 Chassis 0 pieces Addresses are provided on the inside back cover for your convenience.. Make sure the problem is internal before disassembling the transceiver. 2. DO NOT open the transceiver until the transceiver is disconnected from its power source. 3. DO NOT force any of the variable components. Turn them slowly and smoothly.. DO NOT short any circuits or electronic parts. An insulated turning tool MUST be used for all adjustments. 5. DO NOT keep power ON for a long time when the transceiver is defective. 6. DO NOT transmit power into a signal generator or a sweep generator. 7. ALWAYS connect a 0 db to 50 db attenuator between the transceiver and a deviation meter or spectrum analyzer when using such test equipment.. READ the instructions of test equipment thoroughly before connecting equipment to the transceiver. Icom, Icom Inc. and logo are registered trademarks of Icom Incorporated (Japan) in the United States, the United Kingdom, Germany, France, Spain, Russia and/or other countries.

3 TABLE OF CONTENTS SECTION SPECIFICATIONS SECTION 2 INSIDE VIEWS SECTION 3 CIRCUIT 3 - RECEIVER CIRCUITS TRANSMITTER CIRCUITS PLL CIRCUITS POWER SUPPLY CIRCUITS CPU PORT ALLOCATIONS SECTION ADJUSTMENT PROCEDURES - PLL AND TRANSMITTER ADJUSTMENTS RECIEVER ADJUSTMENT SECTION 5 PARTS LIST SECTION 6 MECHANICAL PARTS AND DISASSEMBLY SECTION 7 BLOCK DIAGRAM SECTION SEMICONDUCTOR INFORMATION SECTION 9 BOARD LAYOUTS 9 - PLL UNIT PRT UNIT VCO BOARD RF UNIT MAIN UNIT LOGIC UNIT [IC-A22/E] LOGIC UNIT [IC-A3/E] SECTION 0 VOLTAGE DIAGRAMS 0 - MAIN UNIT RF UNIT (inc. PRT UNIT and VCO BOARD) LOGIC UNIT (inc. PTT UNIT)

4 SECTION SPECIFICATIONS M GENERAL Frequency coverage (Unit; MHz) : IC-A22 IC-A22E IC-A3 IC-A3E TX Communications Communications RX Navigation Weather Mode : Tx/Rx AM (6K00A3E) Rx FM (6K0G3E; for weather channel/u.s.a versions only) Number of memory channels : 50 Channel spacing : 25 khz Frequency stability : ±20 ppm ( 0ºC to +50ºC; ºF to +22ºF) Antenna impedance : 50 Ω (Nominal) Power supply requirement : 2 5 V DC (negative ground) Operating temperature range : 0ºC to +50ºC; ºF to +22ºF Current drain : Transmitting.0 A typical (at 2 V DC ; approx.) Receiving (max. audio) 00 ma max. (stand-by) 55 ma typical Dimensions : 57 (W) 53 (H) 35 (D) mm; 2 / (W) 6 /32 (H) 3 / (D) in (Projections not included, battery pack included) Weight (Approx.) : 65 g (6 3 /32 oz) with battery pack and anntena M TRANSMITTER Output power (at 2 V DC)* Modulation Microphone impedance Spurious emissions* : 5.0 W typical (PEP power).5 W typical (Carrier power) : Low level modulation : 50 Ω : Less than 60 db M RECEIVER Receive system : Double conversion superheterodyne system Intermediate frequencies : st; 35. MHz, 2nd; 55 khz Sensitivity* : AM; Less than µv at 6 db S/N (with khz, 30% modulation) FM; Less than µv at 2 db SINAD (with khz, 70% modulation) Squelch sensitivity* : Less than 6.3 µv Selectivity* : More than khz/ 6 db Less than 25 khz/ 60 db Spurious response rejection* : Less than 60 db Hum and Noise : Less than 25 db Audio output power* (at 2 V DC) : More than 600 mw at 0% distortion with an Ω load Audio output impedance : Ω *Specifications guaranteed at a transceiver temperature of +25ºC (+77ºF). All stated specifications are subject to change without notice or obligation. -

5 SECTION 2 INSIDE VIEWS RF UNIT MAIN UNIT (BOTTOM) Rx amplifier (Q00: 3SK230) located under this side Rx BPF's st IF filters FI00: FL-22 [IC-A22/E] FL-203 [IC-A3/E] VCO board RF power amplifier (IC002: SC-303) PLL reference oscillator 2. MHz (X00: CR-56) Reference regulator (IC5006: S-250SG) AF power regulator (Q5006: 2SB20) FM IF IC (IC500: TA336F) AF selector (IC5002: TCW53F) Buffer amplifier/lpf (IC5005: TC75W5FU) PRT unit MAIN UNIT (TOP) LOGIC UNIT Reset IC (IC6003: S-075SL) AF power amplifier (IC5003: TA736P) 2nd IF filter (FI500: CFWS55D) CPU IC600: HD029B96TF except [IC-A3] HD0729TF [IC-A3] only Initial matrix CPU system clock 3.97 MHz (X600: CR-33) 2nd local oscillator MHz (X500: CR-5) Discriminator (X5002: CDBM55C2) VOR circuit [IC-A22/E] only ALC amplifier (IC500: BA330F) 2 -

6 SECTION 3 CIRCUIT 3- RECEIVER CIRCUITS 3-- ANTENNA SWITCHING CIRCUIT (RF UNIT) The antenna switching circuit functions as a low-pass fi lter while receiving and a resonator circuit while transmitting. The circuit does not allow transmit signals to enter receiver circuits. Received signals enter the RF unit from the antenna connector (J300), and then pass through the low-pass fi lter (L00 L003, C00 C005) to suppress out-of-band signals. The fi ltered signals are passed through the λ / type antenna switching circuit (D00 D003) with a low-pass fi lter (L00, L005), and are then applied to the RF circuit RF CIRCUIT (RF UNIT) The signals from the antenna switching circuit are passed through the tunable bandpass fi lter (D006, D007, L00, L009) and amplified at the RF amplifier (Q00). The amplified signals are passed through the bandpass filter (D00, D009, L00, L0) again, and applied to the st mixer circuit. D006 D009 are varactor diodes and are controlled by the PLL lock voltage. The voltage is buffer-amplified at Q0 and is then applied to the varactor diodes. These varactor diodes tune the center frequency of an RF passband for wide bandwidth receiving and good image response rejection. For weather channel receiving, the tune voltage control circuit (Q07, Q09) supplies the bias voltage ST MIXER AND ST IF CIRCUITS (RF UNIT) The signals from the bandpass fi lter are mixed with a st LO signal from the VCO board, and are converted to a 35. MHz st IF signal. The st IF signal is applied to a pair of crystal fi lters (FI00) to suppress out-of-band signals, and is then amplifi ed at the st IF amplifi er (Q003) ND MIXER AND 2ND IF CIRCUITS (MAIN UNIT) The 2nd mixer circuit converts the st IF signal to a 2nd IF signal. A double-conversion superheterodyne system improves the image rejection ratio and obtains stable receiver gain. The st IF signal from the RF unit is applied to a 2nd mixer section of IC500 (pin 6). The signal is then mixed with a 2nd LO signal for conversion to a 55 khz 2nd IF signal. IC500 contains the 2nd mixer, local oscillator, limiter amplifier and quadrature detector. The local oscillator section generates MHz using X500. The 2nd IF signal from the 2nd mixer (IC500, pin 3) passes through the ceramic filter (FI500) to remove unwanted heterodyned frequencies. It is then amplified at the 2nd IF amplifi er (Q5002) AM DETECTOR CIRCUIT (MAIN UNIT) The AM detector circuit demodulates an AM signal on the communication band or navigation band. The 2nd IF signal from Q5002 is amplifi ed at IF amplifi ers (Q5003, Q5030) again, and applied to the AM detector (Q500). It is then detected for conversion to an AF signal FM DETECTOR CIRCUIT (MAIN UNIT) The FM detector circuit demodulates an FM signal for weather channel receiving. When receiving a weather channel, the 2nd IF signal from Q5002 is applied to the limiter amplifier section (IC500, pin 5). To demodulate into AF signals, the 2nd IF signal is then applied to the quadrature detector section (IC500, pins 0, ) and the discriminator (X5002). The AF signal (detector signal) is output from the FM IF IC (IC500, pin 9) SQUELCH CIRCUIT (MAIN UNIT) The squelch circuit cuts out AF signals when no RF signal is received. A portion of the 2nd IF signal (from Q5002) is applied to the limiter amplifier section (IC500, pin 5). Then the FM IF IC (IC500) outputs a detected (IF level) signal from pin 2. This signal is applied to the comparator (IC5007), and is then compared with preset squelch voltage. Output from the comparator is applied to the AF selector (IC5002) as an "SQL" signal, and controls the AF signal line. BLOCK DIAGRAM OF RECEIVER CIRCUIT IN THE RF UNIT To MAIN unit IC500 pin 6 IF amp. Q003 FI00 st IF filter st mixer Q002 D00, D009 BPF RF amp. Q00 D006, D007 BPF D00 D003 Antenna switch LPF [ANT] From AGC From VCO through TX/RX switch From BPF control From RF-AGC 3 -

7 3-- AF CIRCUIT (MAIN UNIT) The AF circuit drives the speaker. AF signals from the detector circuit are selected at the AF selector (IC5002), and are passed through the AF filter (Q5026, Q5005) and volume control (R502). The signals are amplifi ed at the AF power amplifi er (IC5003) to a level needed to drive the speaker (SP300) AGC CIRCUIT (MAIN UNIT) The AGC (Automatic Gain Control) circuit reduces signal fading and keeps the audio output level constant. AF signals from the AM detector circuit (Q500) are converted into DC voltage at integral circuits (R5030/C5026, R505/C5025), and are then applied to inversion amplifi ers (Q500/Q503). These amplifiers reduce the amplifier gain of IF amplifiers (Q5002, Q5003, Q003) and the RF amplifi er (Q00) while receiving a strong signal VOR CIRCUIT (LOGIC UNIT) [IC-A22/E only] The VOR circuit detects a variable signal (VORC) and reference signal (VORS) from a VOR station. The VOR circuit sends these signals to the CPU (IC600). When the transceiver is set in the navigation band ( MHz), the NAV port (IC600, pin 3) becomes HIGH turning the VOR circuit ON via Q60. Q60 controls a 5 V power source for the VOR circuit. The signal from the AM detector (DETO) is buffer amplifi ed at the buffer amplifi er (IC605b). The 9960 Hz component passes through the 0 khz bandpass filter (IC605c). These components are FM modulated with 0 Hz deviation and 30 Hz modulation. Signals are then amplifi ed at a limiter amplifi er (IC606a), and detected at an FM detector (IC606b) to obtain a 30 Hz reference signal. The 30 Hz signal is compensated on phase at IC607a. This signal is passed through the 30 Hz low-pass fi lter (IC607b) and is converted to a square-wave signal at the VORS comparator (IC60b). This signal is applied to IC600 (pin 27) as a reference signal (VORS). A portion of output from IC605c is applied to the VOR sensor (Q609, Q60). When VOR signal level is low, the output from IC605c is reduced. Q60 cannot be turned ON, then IC600 (pin 29) receives HIGH to indicate OFF FLAG indicator. 3-- ANL CIRCUIT (MAIN UNIT) The ANL (Automatic Noise Limiter) circuit (D5003, Q500, R505 R50) reduces pulse noises. The AM detector output signal (DETO) from Q500 is applied to the cathode of D5003 passing through R505 where it is divided by R505 and R506. The DETO signal is also applied to the anode of D5003, passing through R507 and R50. When the ANL function is activated (Q500 is ON), C502 is grounded. The detector output, including pulse noise, is applied to the cathode of D5003 only. If pulse noises are received, the cathode voltage of D5003 becomes higher than the anode voltage and D5003 turns OFF. Thus, while pulse noises are received, the detected signal is not applied to IC5002. The DETO signal includes 30 Hz variable phase components and 9960 Hz reference phase components. The 30 Hz component passes through the 30 Hz bandpass fi lter (IC605d), and is converted to a square-wave signal at the VORC comparator (IC60a). The square-wave signal is then applied to IC600 (pin 2) as a variable signal (VORC). ANL CIRCUIT To IC5002 Q500 + C502 D5003 R50 00 k R k R k R k AF signal from Q500 VOR CIRCUIT BLOCK DIAGRAM VORC to IC600 pin 2 VORS to IC600 pin 27 Comparator IC60a Comparator IC60b LPF IC607b Phase shift IC607a FM detector IC606b Limiter amp. IC606a BPF IC605d 30 Hz BPF IC605c Buffer amp. IC605b DETO VORO to IC600 pin Hz Inversion amp. Q60 VOR sensor Q609, D60 0 khz 3-2

8 3-2 TRANSMITTER CIRCUITS 3-2- MICROPHONE AMPLIFIER CIRCUIT (MAIN UNIT) AF signals from the microphone or from the [MIC] jack are applied to the ALC amplifi er (IC500, pin 9) through R507. R507 adjusts the microphone input level. The output signal from IC500 (pin 7) are amplified at the buffer amplifi er (lc5005b) and low-pass fi lter (IC5005a). The signal (MOD) is applied to the AM modulator (D02) on the RF unit. When using a headset, the SIDET signal from Q020 becomes HIGH, turning IC500 ON. Then a portion of amplified signal from IC5005b is applied to the AF power amplifi er (IC5003) as a monitor signal MODULATION CIRCUIT (RF UNIT) Using the MOD signal from the microphone amplifi er circuit, the modulation circuit modulates Tx LO signal from the VCO. During transmission, the LO signal from the VCO board is output through buffer amplifiers (Q00, Q005) and Tx/Rx switch (D00). This signal is then applied to the AM modulator (D02). Q006 amplifi es the LO signal with a gain controlled by an AF signal (MOD) to make low level modulation DRIVE/POWER AMPLIFIER CIRCUITS (RF UNIT) The modulated RF signal from Q006 is amplified by the pre-drive amplifi er (Q007) and the power amplifi er (IC002) in sequence to obtain 5 W (at 2 V DC) of transmit output power. The amplifi ed signal is passed through the antenna switching circuit (D003) and low-pass fi lter (L00 L003, C00 C005) and is then applied to the antenna connector (J300) APC CIRCUIT (MAIN UNIT) The APC circuit protects the power amplifi er (IC002) from a mismatched output load. The APC detector circuit (D005, D00, L006) detects forward signals and rectified signals at D005 and D00 respectively. The combined voltage is at a minimum level when the antenna is matched at 50 Ω, and is increased when it is mismatched. The detected voltage is applied to one of the differential amplifier input (Q00) and a power setting voltage is applied to the other input. When the antenna impedance is mismatched, the detected voltage exceeds the APC output current via Q0 to decrease the output power. The current of the APC attenuator (D03) is controlled by the APC circuit to protect the power amplifier from a mismatched condition as well as stabilize the output power. 3-3 PLL CIRCUITS 3-3- GENERAL (RF UNIT) A PLL circuit provides stable oscillation of the transmitting frequency and the receiving frequency. The PLL output frequency is controlled by the divided ratio (N-data) of the programmable divider VCO CIRCUIT (VCO BOARD) The VCO (Q700, Q7002, D700) employs an oscillation circuit. Frequency shifting for transmitting (or weather channel receiving) and receiving is performed by changing the bias voltage of D7002. LO signals generated by the VCO are amplifi ed at the buffer amplifier (Q7003), and are then applied to the st mixer (Q002) or AM modulator (D02) through buffer amplifi ers (Q00, Q005) and Tx/Rx switch (D00, D02). Signals from Q7003 are also applied to the PLL IC (IC00) through a buffer amplifi er (Q05) PROGRAMMABLE DIVIDER (RF UNIT) Signals from Q05 are input into the PLL IC (IC00, pin 2), and divided N times at the programmable divider section. The divided signals are detected on phase at the phase detector section using the reference frequency. The output signal from the phase detector is passed through the charge pump, and is output from pin. The output signal (error pulse) from pin passes through a loop fi lter (R06, R065, C02, C0) and changes DC voltage. This signal is applied to the VCO board as the PLL lock voltage (LV). The output signal from pin is also applied to the BPF control circuit (Q0, D09) to change the center frequency of the receiver bandpass fi lters. APC CIRCUIT RF signal from buffer amp. APC attenuator D03 Pre-drive amp. Reference voltage Q0 Q007 Current controller Power amp. IC002 D005 T +5 Differential amp. Q00 L006 To antenna D00 PLL CIRCUIT BLOCK DIAGRAM Q0 Data from the CPU PLL IC IC00 BPF control Loop filter Buffer amp. Q X00 2. MHz LV To Rx BPF (D006 D009) VCO Q700, Q7002 VCO board Buffer amp. Q00, Q005 D7002 Shift control Buffer amp. From the CPU SHIFT Q7003 OUT To st mixer (Q002) or AM modulator (D02) through Tx/Rx switch (D00, D02) 3-3

9 3- POWER SUPPLY CIRCUITS LINE HV +5 R5 T+5 PIN Voltage line from the attached battery pack or the [DC 2V] jack. The same voltage as the HV line which is controlled by [POWER] switch (R5052). Common 5 V converted from the line by the regulator circuit (Q50, Q505, D5005) using the reference regulator (IC5006) on the MAIN unit. Common 5 V converted from the line by the +5 regulator circuit (Q506, Q507, D5006) using line as the reference voltage. 5 V for receiver circuit converted from the line by the R5 regulator circuit (Q50, Q509, Q5020, D5007). R5 is controlled by Q50 using TRC signal from the CPU(IC600). 5 V for transmitter circuit controlled by the TMUT signal from the CPU (IC600). T+5 regulator circuit is located on the RF unit and consists of Q02, Q03 and D CPU PORT ALLOCATIONS PORT NAME 2 LBATT 3 SQL LOK Input port for detecting the connected battery (or external DC input) voltage for "LOW BATT" or "OVER V" indication. Input port for the squelch condition. When squelch open: Low Input port for the PLL condition. When PLL in unlocked: High CLK Outputs a clock signal to the PLL IC (IC00). 5 DATA Outputs N-data to the PLL IC. 6 ENB Outputs a strobe signal to the PLL IC. 7 SCL Outputs a clock signal to the EEPROM (IC6002). SDA Outputs data to the EEPROM. 9 UP Input port for the tuning dial "UP" clock. 20 DOWN Input port for the tuning dial "DOWN" clock. 2 LIGHT Outputs a backlit control signal for the LCD and keypad. High: for lighting 22 BEEP Outputs beep signals. 23 CLONE Outputs clone data. 2 PTT Input port for the PTT switch. When PTT is pushed: High 25 CLONE Input port for the clone reading. 26 BACK UP Input port for the CPU backup signal. 27 VORS* Input port for the VOR reference signal. 2 VORC* Input port for the VOR variable signal. 29 VORO* Input port for the VOR level signal. PIN PORT NAME R0 R3 Output ports for the key matrix. R20 R30 Input port for the key matrix. R3 R33 Input port for the initial matrix. 2 WX 3 NAV* ANL 6 AFON Outputs the WX control signal. High: when a WX channel is selected. Outputs the navigation channel signal. High: when a NAV channel is selected. Outputs the ANL signal. High: to activate the ANL function Outputs the AF power amplifier control signal. High: to activate the amplifi er 7 TRC Outputs a Tx/Rx control signal. High: for Tx TMUT Outputs a Tx mute signal. Low: for muting Outputs a "shift" signal for VCO oscillating 9 SHIFT frequency. Note: * for IC-A22/E only 3 -

10 SECTION ADJUSTMENT PROCEDURES - PLL AND TRANSMITTER ADJUSTMENTS ADJUSTMENT TUNE VOLTAGE REFERENCE FREQUENCY POWER MODULATION SIDE TONE ADJUSTMENT CONDITIONS Displayed frequency :.025 MHz Receiving Displayed frequency : MHz Connect the RF power meter or a 50 Ω dummy load to the antenna connector. Transmitting Displayed frequency :.025 MHz Apply no AF signal to the [MIC] jack. Transmitting Displayed frequency : MHz R507, R509 : Center Connect the AG to the [MIC] jack and set as; Frequency : khz Level : 200 mv Transmitting 2 Set the AG as; Level : 20 mv Connect the AG to the [MIC] jack and set as; Frequency : khz Level : 200 mv Transmitting ADJUSTMENT MEASUREMENT VALUE POINT UNIT LOCATION UNIT ADJUST RF Top pannel Top pannel Top pannel Top pannel Connect the digital multimeter or oscilloscope to CP2 (TUNE). Loosely couple the frequency counter to the antenna connector. Connect the RF power meter to the antenna connector. Connect the modulation analyzer to the antenna connector via an attenuator. Connect the AC millivoltmeter with an Ω dummy load to the [SP] jack...6 V RF R MHz ±00 Hz.5 W (Carrier power) RF RF C0 R057 5% MAIN R509 30% MAIN R mw (0. V) MAIN R507 -

11 RF UNIT RF POWER METER 50 Ω/ 0 W ATTENUATOR 0 or 50 db MODULATION ANALYZER FREQUENCY COUNTER to [ANT] to [SP] DUMMY LOAD Ω to [MIC] AC MILLIVOLTMETER AUDIO GENERATOR Hz R057 Power adjustment CP2 R06 Tune voltage check point Tune voltage adjustment to [DC 2V] C0 Reference frequency adjustment DC POWER SUPPLY 2 V/2 A or more MAIN UNIT R507 R507 Modulation adjustment R509-2

12 -2 RECEIVER ADJUSTMENT ADJUSTMENT SENSITIVITY WEATHER CHANNEL SENSITIVITY (USA version only) SQUELCH VOR (IC-A22/E only) 2 ADJUSTMENT CONDITIONS Displayed frequency :.025 MHz Connect the SSG to the antenna connector and set as; Frequency Level :.025 MHz : 0 dbµ* ( 07 dbm) Modulation : AM, khz, 30% Receiving Displayed frequency Set the SSG as; Frequency FM deviation Modulation Receiving : MHz : MHz Displayed frequency : MHz Weather ch. : 0 Connect the SSG to the antenna connector and set as; Frequency Level Receiving : MHz : 0.56 µv* ( 2 dbm) : ±3.5 khz : khz Displayed frequency :.025 MHz Connect the SSG to the antenna connector and set as; Frequency :.025 MHz Level : 2.0 µv* ( 0 dbm) Modulation : AM, khz, 30% [SQL] control : Max.counterclockwise While pushing [] and [9], turn power ON to enter the VOR setting mode. Displayed frequency : MHz Connect the SSG to the antenna connector and set as; Frequency : MHz Level : 0.22 mv* ( 60 dbm) ADJUSTMENT MEASUREMENT VALUE POINT UNIT LOCATION UNIT ADJUST Top pannel Top pannel Top pannel Top pannel Connect the AC millivoltmeter with an Ω dummy load to the [SP] jack. Connect the distortion meter to the [SP] jack. Speaker Maximum audio output Minimum distortion Squelch just closes RF L00 L0 (Repeat two times) RF MAIN R06, L02 R067 R5 Function display "FROM, 90 " ±3 LOGIC R65 Modulation : 9960 Hz, 30% 30 Hz, 30% 2 Bearing R650 Receiving : "FROM, 90 " : Center "FROM, 90 " R650 3 set the SSG as; Level : 7. µv* ( 90 dbm) Modulation : 9960 Hz, 0% [#06] only 9960 Hz, 5% Except [#06] 30 Hz, 30% *This output level of the standard signal generator (SSG) is indicated as SSG's open circuit. Course indicator just appears. R635-3

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14 SECTION 5 PARTS LIST IC-A22/E [RF UNIT] REF IC S.IC µpd30gs-e (DS) IC IC M672/SC303 Q S.FET 3SK230-T2 UB Q S.FET 3SK5-Y (TE5L) Q S.TR 2SC25-O (TE5R) Q S.TR 2SC03-3-TL Q S.TR 2SC03-3-TL Q S.TR 2SC03-3-TL Q S.TR 2SC3357-T RF Q S.TR XP0-(TX) AB Q S.TR UNR920J-(TX) Q S.TR 2SC2-6-TL Q S.TR 2SB32 T00 R Q S.TR 2SC2-6-TL Q S.TR 2SC03-3-TL Q S.TR UNR920J-(TX) Q S.TR UNR90J-(TX) Q S.TR XP60 (TX) Q S.TR UNR920J-(TX) Q S.TR XP60 (TX) Q S.TR 2SC6-BL (TE5R) D00 D002 D003 D00 D005 D006 D007 D00 D009 D00 D02 D03 D06 D07 D0 D09 D020 D02 D022 D S.DIO MA77 (TX) S.DIO MA77 (TX) S.DIO MA77 (TX) S.DIO MA72 (TX) S.DIO MA72 (TX) S.VCP MA30 (TX) S.VCP MA30 (TX) S.VCP MA30 (TX) S.VCP MA30 (TX) S.DIO MA77 (TX) S.DIO SV26-TL S.DIO SV26-TL S.DIO MA (TX) S.ZEN MA02-M (TX) S.DIO MA32WK (TX) S.DIO MA33 (TX) S.DIO SB30-03P-TD S.DIO MA77 (TX) S.ZEN MA036-L (TX) S.DIO SB30-03P-TD FI FIL FL-22 ( MHz) X XTL CR-56 L S.COL LQW3HN7NJ0L L S.COL LQW3HN6NJ0L L S.COL LQW3HN6NJ0L L S.COL LQW3HN56NJ0L L S.COL LQW3HN7NJ0L L S.COL LQW3HN56NJ0L L S.COL MLF202D R2K-T L COL LB-70 L COL LB-72 L COL LB-326 L COL LB-72 L S.COL LS-92 L S.COL ELJNC R5K-F L S.COL ELJNC R5K-F L S.COL ELJNC R0K-F L S.COL LQW3HN6NJ0L L S.COL MLF202A R7K-T L S.COL MLF202A R7K-T L S.COL MLF60A R7K-T [RF UNIT] REF R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 73 V (7 kω) R S.RES ERJ3GEYJ 70 V (7 Ω) R S.RES ERJ3GEYJ 70 V (7 Ω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 7 V (70 kω) [AUS], [UK], [USA-] only R S.RES ERJ3GEYJ 23 V (2 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 00 V (0 Ω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 0 V (00 Ω) R S.RES ERJ3GEYJ 56 V (560 Ω) R S.RES ERJ3GEYJ 56 V (560 kω) [AUS], [UK], [USA-] only R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 332 V (3.3 kω) R S.RES ERJ3GEYJ 50 V (5 Ω) R S.RES ERJ3GEYJ 50 V (5 Ω) R S.RES ERJ3GEYJ 52 V (.5 kω) R S.RES ERJ3GEYJ 273 V (27 kω) R S.RES ERJ3GEYJ 5 V (50 Ω) R S.RES ERJ3GEYJ 273 V (27 kω) R S.RES ERJ3GEYJ 5 V (50 Ω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 333 V (33 kω) R S.RES ERJ3GEYJ 53 V (5 kω) R S.RES ERJ3GEYJ 22 V (220 Ω) R S.RES ERJ3GEYJ 02 V ( kω) R S.RES ERJ3GEYJ 02 V ( kω) R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 02 V ( kω) R S.RES ERJ3GEYJ 560 V (56 Ω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 63 V (6 kω) R S.TRI EVM-2WSX0 B5 (503) R S.RES ERJ3GEYJ 223 V (22 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 563 V (56 kω) R S.RES ERJ3GEYJ 02 V ( kω) R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 02 V ( kω) R S.TRI EVM-2WSX0 B (03) R S.TRI EVM-2WSX0 B (03) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 6 V (60 Ω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 22 V (220 Ω) R S.RES ERJ3GEYJ 73 V (7 kω) R S.RES ERJ3GEYJ 7 V (70 kω) R S.RES ERJ3GEYJ 7 V (70 Ω) R S.RES ERJ3GEYJ 7 V (70 Ω) R S.RES ERJ3GEYJ 2 V (20 Ω) R S.RES ERJ3GEYJ 2 V (20 Ω) R S.RES ERJ3GEYJ 560 V (56 Ω) R S.RES ERJ3GEYJ 0 V (00 Ω) R S.RES ERJ3GEYJ 0 V (00 Ω) R S.RES ERJ3GEYJ 2 V (20 Ω) R S.RES ERJ3GEYJ 60 V (6 Ω) R S.RES ERJ3GEYJ 60 V (6 Ω) R S.RES ERJ3GEYJ 22 V (220 Ω) R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 56 V (560 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 333 V (33 kω) R S.RES ERJ3GEYJ 70 V (7 Ω) R S.RES ERJ3GEYJ 7 V (70 Ω) R S.RES ERJ3GEYJ 56 V (560 kω) R S.RES ERJ3GEYJ 05 V ( MΩ) [AUS], [UK], [USA-] only R S.RES ERJ3GEYJ 0 V (00 Ω) R S.RES ERJ3GEYJ 27 V (270 Ω) R S.RES ERJ3GEYJ 27 V (270 Ω) R S.RES ERJ3GEYJ 333 V (33 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 22 V (220 kω) C00 C002 C003 C00 C005 C S.CER C60 CH H 220J-T S.CER C60 CH H 070D-T S.CER C60 CH H 300J-T S.CER C60 CH H 030C-T S.CER C60 CH H 0J-T S.CER C60 JB H 02K-T S.=Surface mount 5 -

15 [RF UNIT] REF C S.CER C60 CH H 220J-T C S.CER C60 CH H 390J-T C S.CER C60 CH H 50J-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 50J-T C S.CER C60 CH H 50J-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 00C-T C S.CER C60 CH H 60J-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 60J-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 60J-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 60J-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 390J-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 070D-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 0J-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 220J-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 00D-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 390J-T C S.ELE ECEVCA00SR C S.ELE ECEVHA2R2SR C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.ELE ECEVCA00SR C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 390J-T C S.CER C60 CH H 090D-T C S.TRI ECR-KN00 C6X C S.TAN ECSTCY05R C S.TAN ECSTVY0R C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 0J-T C S.CER C60 CH H 390J-T [EUR-], [AUS], [USA-] only C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.ELE ECEVHA00SR C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.ELE ECEVCA00SR C S.CER C60 JB H 02K-T [RF UNIT] REF C C3 C C5 C6 C7 C C9 C50 C5 C52 C53 C55 C56 C5 C59 C60 C6 C62 C63 C S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.TAN TEESVA 0J 56ML S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.CER C60 CH H 00B-T S.CER C60 CH H 020B-T S.CER C60 CH H 0R3B-T S.CER C60 CH H 00B-T S.CER C60 CH H 330J-T S.CER C60 CH H 0J-T J CNR HEC J CNR HSJ J CNR HSJ J CNR PI2A-0M J S.CNR IL-FPR-30S-VF-E500 W S.RES ERJ3GE JPW V W S.RES ERJ3GE JPW V W S.RES ERJ3GE JPW V W S.RES ERJ3GE JPW V W S.RES ERJ3GE JPW V W S.RES ERJ3GE JPW V W JMP JPW 0 R-0 W FFC OPC-59 (N:30 L:55) W S.RES ERJ3GE JPW V W S.RES ERJ3GE JPW V W S.RES ERJ3GE JPW V EP TUB SR tube 2.9 X CP (L=M) [USA-] only [MAIN UNIT] REF IC S.IC TA336FN (D,EL) IC S.IC TCW53F (TE2L) IC IC TA736P IC S.IC BA330F-E2 IC S.IC TC75W5FU (TE2L) IC S.IC S-2C50AMC-C3E-T2 IC S.IC TA75S393F (TE5R) IC S.IC TCS66F (TE5R) Q S.TR 2SC25-O (TE5R) Q S.TR 2SC25-O (TE5R) Q S.TR 2SC2-6-TL Q S.TR 2SC2-6-TL Q S.TR 2SB20-S-TL Q S.TR 2SC2-6-TL Q S.TR UNR920J-(TX) Q S.TR UNR920J-(TX) Q S.TR 2SD9A (TX) R [AUS], [UK], [USA-] only Q S.TR XP35 (TX) Q S.TR 2SB32 T00 R Q S.TR 2SC2-6-TL Q S.TR 2SB32 T00 R Q S.TR 2SC2-6-TL Q S.TR UNR90J-(TX) Q S.TR 2SB32 T00 R Q S.TR 2SC2-6-TL Q S.TR 2SC2-6-TL Q S.TR 2SA622-6-TL Q S.TR 2SB32 T00 R Q S.TR UNR92J-(TX) Q S.TR 2SC25-O (TE5R) Q S.TR 2SD9A (TX) R [AUS], [UK], [USA-] only D S.DIO MA (TX) D S.DIO MA (TX) S.=Surface mount 5-2

16 [MAIN UNIT] REF D S.DIO MA (TX) D S.DIO MA (TX) D S.DIO MA (TX) D S.DIO MA33 (TX) D S.DIO MA (TX) D S.ZEN MA036-L (TX) D S.DIO MA (TX) D S.DIO MA (TX) D S.DIO MA33 (TX) [AUS], [UK], [USA-] only FI CER CFWLA55KDFA-B0 (CFWS55D) X XTL CR-5 (35.35 MHz) X DCR CDBLB55KCAY2-B0 R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 332 V (3.3 kω) R S.RES ERJ3GEYJ 72 V (.7 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 332 V (3.3 kω) R S.RES ERJ3GEYJ 27 V (270 kω) R S.RES ERJ3GEYJ 72 V (.7 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 33 V (330 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 72 V (.7 kω) R S.RES ERJ3GEYJ 393 V (39 kω) R S.RES ERJ3GEYJ 20 V (2 Ω) R S.RES ERJ3GEYJ 00 V (0 Ω) R S.RES ERJ3GEYJ 6 V (60 Ω) R S.RES ERJ3GEYJ 7 V (70 Ω) R S.RES ERJ3GEYJ 3 V ( kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 563 V (56 kω) [AUS], [UK], [USA-] only R S.RES ERJ3GEYJ 563 V (56 kω) R S.RES ERJ3GEYJ 52 V (.5 kω) R S.RES ERJ3GEYJ 7 V (70 Ω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 392 V (3.9 kω) R S.RES ERJ3GEYJ 73 V (7 kω) R S.TRI EVM-2WSX0 B (03) R S.RES ERJ3GEYJ 390 V (39 Ω) R S.RES ERJ3GEYJ 53 V (5 kω) R S.RES ERJ3GEYJ 05 V ( MΩ) R S.RES ERJ3GEYJ 0 V (00 kω) [AUS], [UK], [USA-] only R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 393 V (39 kω) R S.RES ERJ3GEYJ 393 V (39 kω) R S.RES ERJ3GEYJ 393 V (39 kω) R S.RES ERJ3GEYJ 7 V (70 Ω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 563 V (56 kω) R S.RES ERJ3GEYJ 73 V (7 kω) R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 72 V (.7 kω) R S.RES ERJ3GEYJ 393 V (39 kω) R VAR RV-29 (TP96D00N5F0KB0KA) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 02 V ( kω) R S.RES ERJ3GEYJ 223 V (22 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.TRI EVM-2WSX0 B3 (02) R S.RES ERJ3GEYJ 02 V ( kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 02 V ( kω) R S.RES ERJ3GEYJ 333 V (33 kω) R S.RES MCR0EZHJ Ω (0) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.TRI EVM-2WSX0 B55 (50) R S.RES ERJ3GEYJ 7 V (70 kω) R S.RES ERJ3GEYJ 7 V (70 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 0 V (00 Ω) R S.RES ERJ3GEYJ 332 V (3.3 kω) [MAIN UNIT] REF R S.RES ERJ3GEYJ 62 V (6. kω) R S.RES ERJ3GEYJ 5 V (50 kω) R S.RES ERJ3GEYJ 2 V (20 kω) [AUS], [UK], [USA-] only R S.RES ERJ3GEYJ 5 V (50 kω) R S.RES ERJ3GEYJ 52 V (.5 kω) R S.RES ERJ3GEYJ 5 V (50 kω) R S.RES ERJ3GEYJ 223 V (22 kω) [AUS], [UK], [USA-] only R S.TRI EVM-2WSX0 BQ (73) R S.RES ERJ3GEYJ 3 V ( kω) [AUS], [UK], [USA-] only R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 5 V (50 Ω) R S.RES ERJ3GEYJ 7 V (70 kω) R S.TMR TBPSR5K75H5Q [AUS], [UK], [USA-] only R S.RES ERJ3GEYJ 7 V (70 kω) [AUS], [UK], [USA-] only R S.TMR TBPSR62K0H5Q R S.RES ERJ3GEYJ 52 V (.5 kω) R S.RES ERJ3GEYJ V (0 kω) R S.RES ERJ3GEYJ V (0 kω) R S.RES ERJ3GEYJ 05 V ( MΩ) [AUS], [UK], [USA-] only R S.RES ERJ3GEYJ 63 V (6 kω) R S.RES ERJ3GEYJ 563 V (56 kω) [AUS], [UK], [USA-] only R S.RES ERJ3GEYJ 56 V (560 kω) [AUS], [UK], [USA-] only C S.CER C60 CH H 50J-T C S.CER C60 CH H 50J-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 222K-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 02K-T C S.ELE ECEVHA00SR C S.ELE ECEVHAR7R C S.CER C60 JB H 7K-T C S.ELE ECEVHA3R3SR C S.ELE ECEV0JA0SP C S.CER C60 JB H 73K-T C S.ELE ECEVAA22P C S.ELE ECEVHA2R2SR C S.ELE ECEVHAR22SR C S.ELE ECEVCA00SR C S.ELE ECEVHAR7R C S.CER C60 CH H 0J-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 73K-T [AUS], [UK], [USA-] only C S.TAN TEESVA 0J 56ML C S.ELE ECEVHA2R2SR C S.ELE ECEVCA00SR C S.CER C60 JB H 332K-T C S.CER C60 JB H 03K-T C S.CER C60 CH H J-T C S.TAN ECSTCY05R C S.ELE ECEVEA330SP C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.ELE ECEV0JA220SR C S.ELE ECEV0JA220SR C S.ELE ECEV0JA220SR C S.ELE ECEV0JA220SR C S.ELE ECEV0JA220SR C S.CER C60 JB H 03K-T C S.ELE ECEVCA00SR C S.CER C60 JB H 03K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 03K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.TAN ECST0JX226R C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 72K-T [AUS], [UK], [USA-] only C S.ELE ECEVCA00SR C S.CER C60 JB H 7K-T C S.CER C60 JB H 7K-T C S.CER C60 JB H 03K-T C S.TAN TEESVA 0J 56ML C S.TAN ECSTVY0R C S.ELE ECEVCA0P C S.ELE ECEVCA0P C S.ELE ECEVHA00SR C S.CER C60 JB H 02K-T S.=Surface mount 5-3

17 [MAIN UNIT] REF C509 C S.CER C60 JB H 02K-T S.ELE ECEVEAR7SR J S.CNR IL-WX-PB-VF-B-E900 J S.CNR IL-WX-PB-VF-B-E900 J S.CNR IL-FPR-30S-HF-E3000 J CNR PI2A-02M S SW SW-57 (RH0970HH) W5002 W S.RES ERJ3GE JPW V S.RES ERJ3GE JPW V [LOGIC UNIT] REF IC S.IC HD029B96TF IC S.IC 2LC0BTI/SN IC S.IC S-05CLMC-B66-T2 IC S.IC TCS69F (TE5R) IC S.IC NJM2902V-TE IC S.IC NJM2903V-TE IC S.IC NJM290V-TE IC S.IC NJM2903V-TE Q S.TR XN60 (TX) Q S.TR 2SC2-6-TL Q S.TR 2SC2-6-TL Q S.TR 2SB32 T00 R Q S.TR 2SC2-6-TL Q S.TR UNR92J-(TX) Q S.TR 2SA622-6-TL Q S.TR XP35 (TX) Q S.TR 2SC2-6-TL Q S.TR UNR923J-(TX) D S.DIO MA (TX) D S.DIO MA (TX) D S.DIO MA (TX) D S.DIO MA (TX) D S.DIO MA6S2 (TX) D S.DIO MA32A (TX) D S.DIO DAP202U T06 [IC-A22E] only D S.ZEN MA05-H (TX) D S.DIO MA (TX) D S.DIO MA (TX) X XTL CR-33 (3.97 MHz) R S.RES ERJ3GEYJ 73 V (7 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 3 V ( kω) R S.RES ERJ3GEYJ 393 V (39 kω) R S.RES ERJ3GEYJ 33 V (330 kω) R S.RES ERJ3GEYF 22 V (220 kω) R S.RES ERJ3GEYF 33 V (3 kω) R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 392 V (3.9 kω) R S.RES ERJ3GEYJ 2 V (20 Ω) R S.RES ERJ3GEYJ 2 V (20 Ω) R S.RES ERJ3GEYJ 33 V (330 Ω) R S.RES ERJ3GEYJ 73 V (7 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 73 V (7 kω) R S.RES ERJ3GEYJ 62 V (6. kω) R S.RES ERJ3GEYJ 333 V (33 kω) R S.RES ERJ3GEYJ 3 V ( kω) R S.RES ERJ3GEYJ 333 V (33 kω) R S.RES ERJ3GEYJ 05 V ( MΩ) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 05 V ( MΩ) R S.ARY EXB-VV 73JV (7 kω) R S.RES ERJ3GEYJ 220 V (22 Ω) R S.RES ERJ3GEYJ 3 V ( kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 563 V (56 kω) [LOGIC UNIT] REF R S.RES ERJ3GEYJ 333 V (33 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 62 V (6. kω) R S.RES ERJ3GEYJ 5 V (50 kω) R S.RES ERJ3GEYJ 2 V (. kω) R S.RES ERJ3GEYJ 393 V (39 kω) R S.RES ERJ3GEYJ 73 V (7 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 393 V (39 kω) R S.TRI EVM-2WSX0 BQ (73) R S.RES ERJ3GEYJ 39 V (390 kω) R S.RES ERJ3GEYJ 33 V (330 kω) R S.RES ERJ3GEYJ 73 V (7 kω) R S.RES ERJ3GEYJ 3 V ( kω) R S.RES ERJ3GEYJ 72 V (.7 kω) R S.TMR TBPSR333K60H5Q R S.RES ERJ3GEYJ 333 V (33 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 53 V (5 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 3 V ( kω) R S.RES ERJ3GEYJ V (0 kω) R S.RES ERJ3GEYJ 3 V ( kω) R S.TRI EVM-2WSX0 B2 (203) R S.TRI EVM-2WSX0 B55 (50) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 73 V (7 kω) R S.RES ERJ3GEYJ 7 V (70 Ω) R S.RES ERJ3GEYJ 72 V (.7 kω) R S.RES ERJ3GEYJ 72 V (.7 kω) R S.RES ERJ3GEYJ 72 V (.7 kω) R S.RES ERJ3GEYJ 72 V (.7 kω) R S.RES ERJ3GEYJ 72 V (.7 kω) R S.RES ERJ3GEYJ 72 V (.7 kω) C600 C6002 C6003 C600 C6005 C6006 C6007 C600 C6009 C60 C62 C63 C6 C65 C66 C67 C6 C69 C620 C62 C622 C623 C62 C625 C626 C62 C629 C630 C S.TAN ECST0JX226R S.TAN ECST0JY65R S.CER C60 CH H 50J-T S.CER C60 CH H 50J-T S.CER C60 CH H 0J-T S.CER C60 CH H 0J-T S.CER C60 CH H 0J-T S.CER C60 CH H 0J-T S.CER C60 JB H 03K-T S.CER C60 JB H 02K-T S.TAN ECST0JY06R S.TAN ECSTCY05R S.TAN ECST0JY06R S.CER C60 CH H 0J-T S.CER C60 JB H 02K-T S.CER C60 JB H 02K-T S.TAN ECSTVY0R S.CER C60 JB H 03K-T S.CER C60 CH H 0J-T S.TAN ECSTAY335R S.TAN ECSTVY0R S.TAN ECSTVY0R S.CER C60 JB H 7K-T S.TAN ECSTVY0R S.TAN ECSTVY0R S.TAN ECSTVY0R S.CER C60 JB H 72K-T S.TAN ECST0JX226R S.TAN ECST0JY06R J S.CNR IL-WX-SB-VF-H.75-B-E00 J S.CNR IL-WX-SB-VF-H.75-B-E00 J CNR DS LCD TTR560 UPFDHW DS S.LED LN37G-(TR) DS S.LED LN37G-(TR) DS S.LED LN37G-(TR) DS S.LED LN37G-(TR) DS S.LED SML-0MT T6 DS S.LED SML-0MT T6 MC MIC W60 EM S.RES ERJ3GE JPW V EP LCT SRCN-5-SP-N-W EP TUB SR tube 2.9 X CP (L=M) [USA-] only S.=Surface mount 5 -

18 [VCO UNIT] REF Q S.TR 2SC226-T R25 Q S.TR 2SC226-T R25 Q S.TR 2SC03-3-TL D700 D S.VCP MA30 (TX) S.DIO MA77 (TX) L S.COL MLF202D R2K-T L COL LA-7 L S.COL ELJNC R0K-F R S.RES ERJ3GEYJ 22 V (.2 kω) R S.RES ERJ3GEYJ 22 V (220 Ω) R S.RES ERJ3GEYJ 22 V (.2 kω) R S.RES ERJ3GEYJ 22 V (220 Ω) R S.RES ERJ3GEYJ 0 V (00 Ω) R S.RES ERJ3GEYJ 273 V (27 kω) R S.RES ERJ3GEYJ 0 V (00 Ω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 03 V (0 kω) C S.CER C60 CH H 70J-T [USA-] only C S.CER C60 CH H 20J-T C S.CER C60 CH H R5B-T C S.CER C60 CH H R5B-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 CH H 0R5B-T C S.CER C60 CH H 0J-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T C S.CER C60 JB H 02K-T J CNR IPS-323 J CNR IPS-323 J CNR IPS-323 J CNR IPS-323 [PTT UNIT] REF J S.CNR S S.SW EVQ-PLM A5 S S.SW SKQDPB S S.SW SKQDPB S.=Surface mount 5-5

19 IC-A3/E [RF UNIT] REF IC S.IC µpd30gs-e (DS) IC IC M672/SC303 Q S.FET 3SK230-T2 UB Q S.FET 3SK5-Y (TE5L) Q S.TR 2SC25-O (TE5R) Q S.TR 2SC03-3-TL Q S.TR 2SC03-3-TL Q S.TR 2SC03-3-TL Q S.TR 2SC3357-T RF Q S.TR XP0-(TX).AB Q S.TR UN920 (TX) Q S.TR UNR920J-(TX) Q S.TR 2SC2-6-TL Q S.TR 2SB32 T00 R Q S.TR 2SC2-6-TL Q S.TR 2SC03-3-TL Q S.TR UN920 (TX) Q S.TR UNR920J-(TX) Q S.TR UN90 (TX) Q S.TR UNR90J-(TX) Q S.TR XP60 (TX) Q S.TR UN920 (TX) Q S.TR UNR920J-(TX) Q S.TR XP60 (TX) Q S.TR 2SC6-BL (TE5R) D S.DIO MA77 (TX) D S.DIO MA77 (TX) D S.DIO MA77 (TX) D S.DIO MA72 (TX) D S.DIO MA72 (TX) D S.VCP MA30 (TX) D S.VCP MA30 (TX) D S.VCP MA30 (TX) D S.VCP MA30 (TX) D S.DIO MA77 (TX) D S.DIO SV26-TL D S.DIO SV26-TL D S.DIO MA (TX) D S.ZEN MA02-M (TX) D S.DIO MA32WK (TX) D S.DIO MA33 (TX) D S.DIO SB30-03P-TD D S.DIO MA77 (TX) D S.ZEN MA036-L (TX) D S.DIO SB30-03P-TD FI FIL FL-203 X XTL CR-56 L S.COL LQW3HN7NJ0L (LQN A 7NJ0) L S.COL LQW3HN6NJ0L (LQN A 6NJ0) L S.COL LQW3HN6NJ0L (LQN A 6NJ0) L S.COL LQW3HN56NJ0L (LQN A 56NJ0) L S.COL LQW3HN7NJ0L (LQN A 7NJ0) L S.COL LQW3HN56NJ0L (LQN A 56NJ0) L S.COL MLF202D R2K-T L COL LB-70 L COL LB-72 L COL LB-326 L COL LB-72 L S.COL LS-92 L S.COL ELJNC R5K-F L S.COL ELJNC R5K-F L S.COL ELJNC R0K-F L S.COL LQW3HN6NJ0L (LQN A 6NJ0) L S.COL MLF202A R7K-T L S.COL MLF202A R7K-T L S.COL MLF60A R7K-T R S.RES ERJ3GEYJ 0 V (00 Ω) R S.RES ERJ3GEYJ 27 V (270 Ω) R S.RES ERJ3GEYJ 27 V (270 Ω) R S.RES ERJ3GEYJ 333 V (33 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 73 V (7 kω) [RF UNIT] REF R S.RES ERJ3GEYJ 70 V (7 Ω) R S.RES ERJ3GEYJ 70 V (7 Ω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 22 V (220 kω) R S.RES ERJ3GEYJ 7 V (70 kω) [AUS], [UK] S.RES ERJ3GEYJ 6 V (60 kω) [EUR], [EUR-] R S.RES ERJ3GEYJ 63 V (6 kω) [IC-A3] S.RES ERJ3GEYJ 23 V (2 kω) [AUS], [UK] S.RES ERJ3GEYJ 0 V (00 kω) [EUR], [EUR-] R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 00 V (0 Ω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 0 V (00 Ω) R S.RES ERJ3GEYJ 39 V (390 Ω) R S.RES ERJ3GEYJ 0 V (00 kω) [IC-A3], [EUR], [EUR-] S.RES ERJ3GEYJ 56 V (560 kω) [AUS], [UK] R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 332 V (3.3 kω) R S.RES ERJ3GEYJ 50 V (5 Ω) R S.RES ERJ3GEYJ 50 V (5 Ω) R S.RES ERJ3GEYJ 52 V (.5 kω) [AUS], [UK] S.RES ERJ3GEYJ 332 V (3.3 kω) [IC-A3], [EUR], [EUR-] R S.RES ERJ3GEYJ 273 V (27 kω) R S.RES ERJ3GEYJ 5 V (50 Ω) R S.RES ERJ3GEYJ 273 V (27 kω) R S.RES ERJ3GEYJ 5 V (50 Ω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 333 V (33 kω) R S.RES ERJ3GEYJ 53 V (5 kω) R S.RES ERJ3GEYJ 22 V (220 Ω) R S.RES ERJ3GEYJ 02 V ( kω) R S.RES ERJ3GEYJ 02 V ( kω) R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 02 V ( kω) R S.RES ERJ3GEYJ 560 V (56 Ω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 63 V (6 kω) R S.TRI EVM-XSX50 B5 (503) [IC-A3], [EUR], [UK] S.TRI EVM-2WSX0 B5 (503) [EUR-], [AUS] R S.RES ERJ3GEYJ 223 V (22 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 563 V (56 kω) R S.RES ERJ3GEYJ 02 V ( kω) R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 02 V ( kω) R S.TRI EVM-XSX50 B (03) [IC-A3], [EUR], [UK] S.TRI EVM-2WSX0 B (03) [EUR-], [AUS] R S.TRI EVM-XSX50 B (03) [IC-A3], [EUR], [UK] S.TRI EVM-2WSX0 B (03) [EUR-], [AUS] R S.RES ERJ3GEYJ 03 V (0 kω) R S.RES ERJ3GEYJ 6 V (60 Ω) R S.RES ERJ3GEYJ 73 V (7 kω) [EUR], [EUR-] S.RES ERJ3GEYJ 0 V (00 kω) [IC-A3], [AUS], [UK] R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 22 V (220 Ω) R S.RES ERJ3GEYJ 73 V (7 kω) R S.RES ERJ3GEYJ 7 V (70 kω) R S.RES ERJ3GEYJ 7 V (70 Ω) R S.RES ERJ3GEYJ 7 V (70 Ω) R S.RES ERJ3GEYJ 2 V (20 Ω) R S.RES ERJ3GEYJ 2 V (20 Ω) R S.RES ERJ3GEYJ 560 V (56 Ω) R S.RES ERJ3GEYJ 0 V (00 Ω) R S.RES ERJ3GEYJ 0 V (00 Ω) R S.RES ERJ3GEYJ 2 V (20 Ω) R S.RES ERJ3GEYJ 60 V (6 Ω) [AUS], [UK] S.RES ERJ3GEYJ 20 V (2 Ω) [IC-A3], [EUR], [EUR-] R S.RES ERJ3GEYJ 60 V (6 Ω) [AUS], [UK] S.RES ERJ3GEYJ 20 V (2 Ω) [IC-A3], [EUR], [EUR-] R S.RES ERJ3GEYJ 2 V (20 Ω) [IC-A3], [EUR], [EUR-] S.RES ERJ3GEYJ 22 V (220 Ω) [AUS], [UK] R S.RES ERJ3GEYJ 222 V (2.2 kω) R S.RES ERJ3GEYJ 56 V (560 kω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 333 V (33 kω) R S.RES ERJ3GEYJ 70 V (7 Ω) R S.RES ERJ3GEYJ 7 V (70 Ω) R S.RES ERJ3GEYJ 0 V (00 kω) R S.RES ERJ3GEYJ 05 V ( MΩ) [AUS], [UK] S.RES ERJ3GEYJ 5 V (. MΩ) [EUR], [EUR-] C S.CER C60 CH H 220J-T S.=Surface mount 5-6