FT-90R. Technical Supplement

Transcription

1 144/43 MHz Mobile Transceiver VERTEX STNDRD CO., LTD Nakameguro, Meguro-Ku, Tokyo , Japan VERTEX STNDRD US Headquarters 19 Walker Street, Cypress, C 963, U.S.. T-9R YESU EUROPE.V. P.O. ox 75525, 1118 ZN Schiphol, The Netherlands YESU UK LTD. Technical Supplement Unit 12, Sun Valley usiness Park, Winnall Close Winchester, Hampshire, SO23 L, U.K. VERTEX STNDRD HK LTD. 24 VERTEX STNDRD CO., LTD. Printed in Japan. Unit 5, 2/., Seaview Centre, Hoi un Road, Kwun Tong, Kowloon, Hong Kong Introduction This manual provides technical information necessary for servicing the Yaesu T-9R VH/UH Dual and M Mobile Transceiver. It does not include information on installation and operation, which are described in the T9R Operating Manual provided with the transceiver, or on accessories which are described in their manuals. The T-9R is carefully designed to allow the knowledgeable operator to make nearly all adjustments required for various station conditions, modes and operator preferences simply from the controls on the panels, without opening the case of the transceiver. The T-9R Operating Manual describes these adjustments, plus certain internal settings. Servicing this equipment requires expertise in handling surface mount chip components. ttempts by unqualified persons to service this equipment may result in permanent damage not covered by warranty. or the major circuit boards, each side of the board is identified by the type of the majority of components installed on that side. In most cases one side has only chip components, and the other has either a mixture of both chip and lead components (trimmers, coils, electrolytic capacitors, packaged s, etc.), or lead components only. While we believe the technical information in this manual is correct, Yaesu 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. Yaesu Musen reserves the right to make changes in this transceiver and the alignment procedures, in the interest of technological improvement, without notification of owners. Contents Specifications... 2 Exploded View & Miscellaneous Parts... 3 lock Diagram... 5 Circuit Description... 7 lignment... 1 Interconnection Diagram oard Unit (Schematics, Layouts & Parts) MIN Unit CNTL Unit Panel Unit VCO Unit Connector Unit

2 Specifications General requency Ranges: RX:1~23 MHz, 3~53 MHz, 81~ MHz* TX: MHz or MHz (144 MHz), MHz or MHz (43 MHz) Channel Steps: 5/1/12.5/15/2/25/5 khz Emission Type: 3, 2, 1 ntenna Impedance: 5 Ω, Unbalanced (ntenna Duplexer built-in) requency Stability: ±5 ppm ( 5 C to +6 C) Operating Temp. Range: 2 C to +6 C Supply Voltage: DC 13.8 V ±15 %, Negative Ground Current Consumption (approx): 35 m (Receive, Squelched) 9.5 (Tx, 144 MHz) 8.5 (Tx, 43 MHz) Case Size: 1(W) x 3(H) x 138(D) mm (w/o knobs) Weight: 64 g (1.41 lb.) * Cellular and digital telephone frequencies are blocked and cannot be restored. Transmitter R Power Output: Modulation Type: Maximum Deviation: Spurious Emissions: Microphone Impedance: 5/2/1/5 W (144 MHz), 35/2/1/5 W (43 MHz) Variable Reactance ±5 khz t least 6 d below fundamental 2 kω Receiver Circuit Type: Intermediate requencies: Sensitivity: Selectivity: Output: Output Impedance: Double-Conversion Superheterodyne 45.5 MHz and 455 khz.18 d SIND 12 khz/24 khz ( 6 d/ 6 d) 2 8 Ω for 1 % THD 4 Ω 16 Ω Specifications are subject to change without notice or obligation. Specifications guaranteed only within the 2m and 7cm amateur bands. requency range may very according to local requirements and regulations. 2

3 Exploded View & Miscellaneous Parts Ref. ➀ ➁ ➂ ➃ ➄ ➅ VXSTD P/N U24261 U U24361 U36257 U U9979 Description TPTITE SCREW M2.6X6 TPTITE SCREW M2.6X14 TPTITE SCREW M3X6 TPTITE SCREW M2.6X5 TPTITE SCREW M2X1 SUS PN HED SCREW M2.6X1 Qty Non-designated parts are available only as part of a designated assembly. VXSTD P/N T Q81 Description MROPHONE MH-366J (US) MROPHONE MH-426J DC CLE USE 15 ➃ Qty CP61674 CSE SS'Y ➃ M2927 N ➃ P19137 CONNECTOR (DST US) P19136 CONNECTOR (DST EXP, US) ➃ ➅ M49127 SPEKER T WIRE SS'Y R1184 RER PNEL R1186 SU PNEL R1215 RELESE KNO R1216 L R COIL SPRING ➂ ➂ ➅ R188 SP HOLDER CONNECTOR Unit T WIRE SS'Y R1278 KNO () R1277 KNO () R1174 KNO (VR) (2pcs) R189 SSIS ➄ ➄ ➂ ➂ MIN UNIT ➀ PNEL Unit ➀ R1281 KNO (PWR) R1195 KNO (RPT) R1279 KNO (C) R1276 RONT PNEL R1173 KNO (ENC) R1187 DOULE CE R128 WINDOW ➂ ➂ CNTL UNIT ➁ ➀ ➀ ➀ ➁ ➃ ➃ ➃ ➃ R186 OTTOM CSE 3

4 Exploded View & Miscellaneous Parts RE. 1 N1 N1 P 1 P 2 P 3 SP1 J 2 J 2 J 3 J 3 J 4 J 4 4 DESCRIPTION ERRITE EDS N N WIRE SSY WIRE SSY WIRE SSY SPEKER CONNECTOR CONNECTOR CONNECTOR CONNECTOR CONNECTOR CONNECTOR VLUE 8-ohm V/W 1.5W TOL. MR S DESIG *** MIN SSY *** -2L V 46-12V Speaker Cable lat Cable (MIN CNTL) Power Cable VS-45U28 M-R 128 M-R N-R 142 N-R N-R 142 N-R YESU P/N L91955 M2927 M2927 T T T M49127 P19137 P19137 P19136 P19136 P19136 P19136 VERS. US US USTRLI USTRLI LOT SIDE

5 lock Diagram 5

6 lock Diagram Notes: 6

7 Circuit Description RECEPTION Signal Path VH Signal Path The detected audio from CD11 delivered to the CNTL UNIT, where it passes through the de-emphasis network at Q215-2 (NJM292V), buffer amplifier Q215-3 (NJM292V), and the low-pass filter Q215-4 (NJM292V); the signal then is sent to the volume controller Q21 (M51132P). The processed signal is then amplified by the audio power amplifier Q24 (L4425), then delivered to the 8 Ω loudspeaker or the external speaker jack. Incoming VH R from the antenna jack is delivered to the MIN UNIT, and passes through the low-pass filter, antenna switching diode D12 (X1579HR), and the varactor-tuned band-pass filter, and is then delivered to the R amplifier Q154 (3SK131-V12). The amplified signal passes through a band-pass filter, then it is routed to the R port of the first mixer, Q144 (SGM216M). uffered output from the VH VCO is amplified by Q148 (T42) to provide a pure first local signal between and MHz for injection to the Local port of the first mixer. UH Signal Path Incoming UH R from the antenna jack is delivered to the MIN UNIT and passes through the high-pass filter, low-pass filter, antenna switching diode D11 (X1579HR), and the varactor-tuned band-pass filter, and is then delivered to the R amplifier Q155 (SGM216M). Squelch Control When no carrier is received, noise at the output of the detector stage in Q138 is amplified, band-pass filtered, and detected by D139 (M742). The resulting DC squelch control voltage is passed to pin 33 of Q221 (HD Y). While no carrier is received, pin 8 of Q221 remains high. This high signal is applied to SQL switch Q23 (2SC4617) and Q21 (TC4W53U) to hold the line low, thus blocking receiver audio. TRNSMISSION Signal Path The amplified signal passes through a band-pass filter, then it is routed to the R port of the first mixer, Q144. uffered output from the UH VCO is amplified by Q148 to provide a pure first local signal between and MHz for injection to the Local port of the first mixer. Speech input from the microphone is delivered to the CNTL UNIT, and passes through the M MUTE switch Q218 (TC4W53U), M amplifier Q214-1 (NJM292V), limiter amplifier Q214-2 (NJM292V), low-pass filter Q214-3 (NJM292V), and buffer amplifier Q214-4 (NJM292V) to the volume controller Q21 (M51132P), and is then applied to the VCO circuit on the MIN UNIT. I Signal Path VH Signal Path The 45.5 MHz first mixer product then passes through monolithic crystal filters X11 and X12 (both 45M155H) to strip away unwanted mixer products, and the I signal is then amplified by Q135 (2SC4215Y). The speech signal is applied to the VH VCO, consisting of Q42 (2SC56) and D44 (1SV286). The modulated signal from the VH VCO passes through a low-pass filter, buffer amplifier Q46 (T42), pre-drive amplifier Q12 (2SC3357-R), and drive amplifier Q114 (2SC2954) to the VH final amplifier Q17 (M67781L). The R signal then passes through the antenna switch, D114/D115 (both X1579HR), and is low-pass filtered to suppress harmonic radiation before delivery to the antenna. The amplified first I signal is applied to the M I subsystem Q138 (TK193V), which contains the second mixer, second local oscillator, limiter amplifier, noise amplifier, and M detector. The MHz second local signal is generated by Q138 to produce the 455 khz second I when mixed with the first I signal within Q138. The second I signal then passes through ceramic filter C11 (CWM455) to strip away all but the desired signal, and is then applied to the limiter amplifier section in Q138, which removes any amplitude variations in the 455 khz I before detection of speech by the ceramic discriminator, CD11 (CDM455C7). 7

8 Circuit Description UH Signal Path PLL REQUENCY SYNTHESIZER The speech signal is applied to the UH VCO, consisting of Q43 (2SC56) and D46 (1SV286). The modulated signal from the UH VCO passes through a low-pass filter, buffer amplifier Q46, pre-drive amplifier Q12, and drive amplifier Q116 (2SC2954) to the UH final amplifier Q18 (M57788MR). The R signal then passes through the antenna switch, D116/D117 (both X1579HR) and is low-pass filtered to suppress harmonic radiation before delivery to the antenna. PLL circuitry on the MIN UNIT consists of VH VCO Q42, UH VCO Q43, VCO buffers Q46, Q136 (2SC5226), and Q137 (2SC5226), and PLL subsystem Q139 (M6476GP), which contains a reference divider, serial-to-parallel data latch, programmable divider, phase comparator and charge pump. VH utomatic Transmit Power Control R power output from the VH final amplifier Q17 is rectified by D17 (M742). The resulting DC voltage is fed through the utomatic Power Controller, Q112 (2S1244) to the pre-drive amplifier Q12, drive amplifier Q114, and the VH final amplifier Q17, thus allowing control of the power output. UH utomatic Transmit Power Control R power output from the VH final amplifier Q18 is rectified by D18 (M742). The resulting DC voltage is fed through the utomatic Power Controller, Q112 (2S1244) to the pre-drive amplifier Q12, drive amplifier Q116, and the UH final amplifier Q18, thus allowing control of the power output. Push-To-Talk Transmit ctivation When the PTT switch is closed on a VH frequency, pin 3 of microprocessor Q221 goes low; as a result, pin 51 of Q221 goes high. This signal is applied to the TX/RX controllers, Q146 (IMD1) and Q152 (UMD2N), which activate the pre-drive amplifier Q12, drive amplifier Q116, and the VH final amplifier Q17. t same time, pins 54 and 55 of Q221 go low. This low signal is applied to TX/RX controllers Q15 and Q152 (both UMC5N), which disable the receiver circuit. When the PTT switch is closed on a UH frequency, pin 3 of microprocessor Q221 goes low, as a result, pin 5 of Q221 goes high. This signal is applied to the TX/RX controllers, Q151 (IMD1) and Q152, which activate the pre-drive amplifier Q12, drive amplifier Q116, and the UH final amplifier Q18. t same time, pins 53 and 55 of Q221 go low. This low signal is applied to TX/RX controllers Q11 and Q115 (both UMC5N), which disable the receiver circuit. 8 VH PLL Circuit The VH VCO output is buffered by Q137, and applied to the prescaler section of Q139. There the VCO signal is divided by 64 or 65, according to a control signal from the data latch section of Q139, before being applied to the programmable divider section of Q139. The data latch section of Q139 also receives serial dividing data from the microprocessor Q221 on the CNTL UNIT, which causes the pre-divided VH VCO signal to be further divided in the programmable divider section, depending upon the desired receive frequency, so as to produce a 5 khz or 6.25 khz derivative of the current VH VCO frequency. Meanwhile, the reference divider section of Q139 divides the 12.8 MHz crystal reference by 256 (or 248) to produce the 5 khz (or 6.25 khz) loop reference. The 5 khz or 6.25 khz signal from the programmable divider (derived from the VH VCO) and that derived from the crystal are applied to the phase detector section of Q139, which produces a pulsed output depending on the phase difference between the input signals. This pulse train is then converted to DC, low-pass filtered, then fed back to varactor diodes D42 and D43 (both 1SV281) in the VH VCO. Changes in the DC voltage applied to the varactor diodes affect the reactance in the tank circuit of the VH VCO, changing the oscillating frequency according to the phase difference between the signals derived from the VH VCO and crystal reference oscillator. The VH VCO is thus phase-locked to the reference frequency standard.

9 Circuit Description UH PLL Circuit The UH VCO output is buffered by Q136, and applied to the prescaler section of Q139. There the VCO signal is divided by 64 or 65, according to a control signal from the data latch section of Q139, before being applied to the programmable divider section of Q139. The data latch section of Q139 also receives serial dividing data from the microprocessor Q221 on the CNTL UNIT, which causes the pre-divided UH VCO signal to be further divided in the programmable divider section, depending upon the desired receive frequency, so as to produce a 5 khz or 6.25 khz derivative of the current UH VCO frequency. Meanwhile, the reference divider section of Q139 divides the 12.8 MHz crystal reference by 256 (or 248) to produce the 5 khz (or 6.25 khz) loop reference. The 5 khz or 6.25 khz signal from the programmable divider (derived from the UH VCO) and that derived from the crystal are applied to the phase detector section of Q139, which produces a pulsed output depending on the phase difference between the input signals. This pulse train is then converted to DC, low-pass filtered, then fed back to varactor diodes D41 and D45 (both 1SV281) in the UH VCO. Changes in the DC voltage applied to the varactor diodes affect the reactance in the tank circuit of the UH VCO, changing the oscillating frequency according to the phase difference between the signals derived from the UH VCO and crystal reference oscillator. The UH VCO is thus phase-locked to the reference frequency standard. POWER SUPPLY CONTROL When the PWR switch is pressed, pin 19 of microprocessor Q221 goes low; as a result, pin 48 of Q221 goes high. This high signal is applied to Q117 (2S131-ZQ) and regulator Q123 (9P), providing the required 9 volts for the TX and RX circuits. 9

10 lignment The T-9R has been carefully aligned at the factory for the specified performance across the 144 MHz and 43 MHz amateur bands. Realignment should therefore not be necessary except in the event of a component failure. ll component replacement and service should be performed only by an authorized Yaesu representative, or the warranty policy may be voided. The following procedures cover the sometimes critical and tedious adjustments that are not normally required once the transceiver has left the factory. However, if damage occurs and some parts 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 Yaesu service technicians, who are experienced with the circuitry and fully equipped for repair and alignment. Therefore, if a fault is suspected, contact the dealer from whom the transceiver was purchased for instructions regarding repair. uthorized Yaesu 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. lso, Yaesu must reserve 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 the need for realignment de- 1. R Signal Generator with calibrated output level at 5 MHz 2. Deviation Meter (linear detector) 3. Millivoltmeter 4. SIND Meter 5. Inline Wattmeter with accuracy at 5 MHz 6. Regulated DC Power Supply: adjustable from 1 to 17 VDC, ohm non-reactive Dummy Load: 1 W at 5 MHz 8. requency Counter: >.1 ppm accuracy at 5 MHz 9. Signal Generator 1. DC Voltmeter: high impedance 11. VH/UH Sampling Coupler 12. Dummy Load: 4 Ω, 5 W 13. Oscilloscope 14. Spectrum nalyzer lignment Preparation & Precautions termined to be absolutely necessary. dummy load and inline wattmeter must be connected to the main antenna jack in all procedures that call for transmission, except where specified otherwise. Correct alignment is not possible with an antenna. fter completing one step, read the following step to determine whether the same test equipment will be 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 2 and 3 C (68 ~ 86 ). When the transceiver is brought into the shop from hot or cold air it should be allowed some time for thermal equalization with the environment before alignment. If possible, alignments should be made with oscillator shields and circuit boards firmly affixed in place. lso, the test equipment must be thoroughly warmed up before beginning. Required Test Equipment Note: Signal levels in d referred to in this procedure are based on The following test equipment (and thorough familiarity with its correct 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 dµ =.5 µv(closed circuit). order presented. 1

11 lignment PLL & Transmitter Set up the test equipment as shown for transmitter alignment. Maintain the supply voltage at 13.8V DC for all steps. 5-ohm Dummy Load Inline Wattmeter Sampling Coupler Regulated 13.8V PSU req. Counter Deviation Meter If the alignment step requires that you key the transmitter, this may be accomplished by shorting pin 6 of the Mic jack to Ground (pin 4). Many adjustments, such as power output and deviation, can be customized for each amateur band. That is, you can set the VH Deviation and UH Deviation independently. e certain that the operating frequency is set to the correct band before making adjustments. To save all settings and exit to normal operation, press the button. C Voltmeter In order to expedite entry to the lignment Mode, keying of the transmitter, and injection of transmitter audio it may prove useful for you to build a test cable for connection to the Mic jack. The pin connections are shown below. Generator C Voltmeter PLL Reference requency With the wattmeter, dummy load and frequency counter connected to the antenna jack, and while tuned to 435. MHz, key the transmitter and adjust TC11 on the Main Unit, if necessary, so the counter frequency is within 1 Hz of 435. MHz. TC11 M Jack VH Transmitter Output Internal System lignment Routine This uses a programmed routine in the transceiver which simplifies many complex discrete component settings and adjustments using digitally-controlled settings via the front panel s buttons and LCD indications. To enter the lignment Mode, turn the transceiver off. Now short pins 1 and 6 of the Mic jack to Ground (pin 4). While these two pins are shorted to Ground, turn the radio on. Now disconnect the shorting of pins 1 and 6 of the Mic jack to Ground; the transceiver is now in the lignment mode. In the lignment Mode, each lignment Menu adjustment is selected by rotating the Dial. Once you have completed adjustment of each required lignment Menu item, pressing the Dial or the microphone s [VO/MR] button will lock in that setting. 1. rom the lignment Mode, press the and buttons on the panel to select HIPO (TX High Power), and rotate the Dial so as to achieve Watts on the wattmeter. Then press the Dial or the microphone s [VO/MR] button. 2. Press the and buttons on the panel to select MID1 (TX Mid-High Power) and rotate the Dial so as to achieve Watts on the wattmeter. Then press the Dial or the microphone s [VO/MR] button. 3. Press the and button on the panel to select MID2 (TX Mid-Low Power) and rotate the Dial so as to achieve Watts on the wattmeter. Then press the Dial or the microphone s [VO/MR] button. 4. Press the and button on the panel to select LOW (TX Low Power) and rotate the Dial so as to achieve Watts on the wattmeter. Then press the Dial or the microphone s [VO/MR] button. 5. If this is the last item to be aligned, press the button. If not, move on to the next section without pressing the button. 11

12 lignment VH Transmitter Deviation 1. While in the lignment Mode, inject a 1 khz audio signal at a level of 5 mv to pin 5 of the Mic jack (pin 4 is Ground). 2. Press the and buttons on the panel to select MOD (TX Modulation). Key the transmitter, and rotate the Dial so as to achieve ±4.5 khz deviation on the deviation meter. Then press the Dial or the microphone s [VO/MR] button. 3. If this is the last item to be aligned, press the button. If not, move on to the next section without pressing the MR] button. 3. If this is the last item to be aligned, press the button. If not, move on to the next section without pressing the button. Note: The lower deviation in the US version on UH allows for the likely injection of a CTCSS Encode tone on the transmitted signal; so as to keep the total (voice + tone) deviation below ±5 khz, set the voice deviation to ±4. khz. Depending on the owner s operating patterns, this lower deviation setting may also be required on VH, as well. button. See the Note following the UH Transmitter Deviation sec- Receiver tion below. Set up the test equipment as shown below for receiver alignment. UH Transmitter Output 1. Set the transceiver frequency to 44. MHz, and enter the lignment Mode. and buttons on the panel to 2. Press the select HIPO (TX High Power), and rotate the Dial so as to achieve Watts on the wattmeter. Then press the Dial or the microphone s [VO/MR] button. 3. Press the and buttons on the panel to select MID1 (TX Mid-High Power), and rotate the Dial so as to achieve Watts on the wattmeter. Then press the Dial or the microphone s [VO/MR] button. and buttons on the panel to 4. Press the select MID2 (TX Mid-Low Power), and rotate the Dial so as to achieve Watts on the wattmeter. Then press the Dial or the microphone s [VO/MR] button. 5. Press the and button on the panel to select LOW (TX Low Power), and rotate the Dial so as to achieve Watts on the wattmeter. Then press the Dial or the microphone s [VO/MR] button. 6. If this is the last item to be aligned, press the button. If not, move on to the next section without pressing the button. UH Transmitter Deviation 1. While in the lignment Mode, inject a 1 khz audio signal at a level of 5 mv to pin 5 of the Mic jack (pin 4 is Ground). 2. Key the transmitter and press the and buttons on the panel to select MOD (TX Modulation), and rotate the Selector Knob so as to achieve ±4.5 khz deviation (US Version: ±4. khz) on the deviation meter. Then press the Dial or the microphone s [VO/ 12 Speaker or 4-ohm Lead Resistor Regulated 13.8V PSU C Voltmeter R Signal Generator SIND Meter Distortion Meter VH S-Meter (S-1 Level) Calibration 1. Set the transceiver frequency to 146. MHz, and enter the lignment mode. 2. Set the R signal generator to the same frequency. Set the generator for ±3.5 khz deviation of a 1 khz modulation tone, and set the R output level from the signal generator to -2dµ. 3. Press the and buttons on the panel to select S-1 (S-1 signal). Then press the Dial or the microphone s [VO/MR] button. 4. If this is the last item to be aligned, press the button. If not, move on to the next section without pressing the button. VH S-Meter (ull Scale) Calibration 1. While in the lignment Mode, set the signal generator s R output level to +25 dµ, and leave the generator set for 1 khz audio at ±3.5 khz deviation. 2. Press the and buttons on the panel to select S- (S-Meter ull Scale). Then press the Dial or the microphone s [VO/MR] button. 3. If this is the last item to be aligned, press the button. If not, move on to the next section without pressing the button.

13 VH Squelch Threshold Calibration UH Squelch Threshold Calibration 1. With the frequency and modulation set as in the previous steps, set the signal generator s R output level to 11dµ. 2. Press the and buttons on the panel to select SQ-S (Squelch Threshold). Then press the Dial or the microphone s [VO/MR] button. The R level for the Squelch Threshold will be stored into memory. 3. If this is the last item to be aligned, press the button. If not, move on to the next section without 1. With the frequency and modulation set as in the previous steps, set the signal generator s R output level to 11dµ. 2. Press the and buttons on the panel to select SQ-S (Squelch Threshold). Then press the Dial or the microphone s [VO/MR] button. 3. If this is the last item to be aligned, press the button. If not, move on to the next section without pressing the button. pressing the button. UH Tight Squelch Calibration VH Tight Squelch Calibration 1. With the frequency and modulation set as in the previous steps, set the signal generator s R output level to 2dµ. and buttons on the panel to 2. Press the select SQ-T (Tight Squelch). Then press the Dial or the microphone s [VO/MR] button. The R level for the Tight Squelch setting will be store into memory. 3. If this is the last item to be aligned, press the button. If not, move on to the next section without pressing the 1. With the frequency and modulation set as in the previous steps, set the signal generator s R output level to 2dµ. 2. Press the and buttons on the panel to select SQ-T (Tight Squelch). Then press the Dial or the microphone s [VO/MR] button. 3. To complete the lignment Mode calibration process, press the button. button. UH S-Meter (S-1 Level) Calibration 1. Set the transceiver frequency to 44. MHz, and enter the lignment Mode. 2. Set the R signal generator to the same frequency, set the generator for ±3.5 khz deviation of a 1 khz modulation tone, and set the R output level for -2dµ. 3. Press the and buttons on the panel to select S-1 (S-1 signal). Then press the Dial or the microphone s [VO/MR] button. 4. If this is the last item to be aligned, press the button. If not, move on to the next section without pressing the button. UH S-Meter (ull Scale) Calibration 1. While in the lignment Mode, set the signal generator s R output level to +25 dµ, and leave the generator set for 1 khz audio at ±3.5 khz deviation. 2. Press the and buttons on the panel to select S- (S-Meter ull Scale). Then press the Dial or the microphone s [VO/MR] button. 3. If this is the last item to be aligned, press the button. If not, move on to the next section without pressing the button. 13

14 Interconnection Diagram 14

15 MINUnit VH RX: -1dm UH RX: -7dm 8M RX: -1dm Circuit Diagram VH RX: 8.7V VH RX: -7dµ VH RX: -9dµ VH TX:.8V VH RX: +7dµ VH RX: +2dµ VH RX: 4.1V 8.5V VH RX: +3dµ UH RX: +4dµ 8M RX: +7dµ VH RX:.3V VH RX: 3.3V NOISE ~1.2V -8dµ (45.5M) 1.4V.5V 5.6V.9V 4.3V RX: 2.5V 4.2V.7V VH RX: -26dm UH RX: -3dm 8M RX: -3dm +7dµ (45.5M) 1.4V.8V 12mVp-p 1.6V RX TUNE:.4~7.8V 3.8V 8mVp-p M: V 7.5V 1.2V 1.4V 8.1V 8.1V 2.8V.8V M: 4.V 8.1V UH RX: 3.3V 8M RX: 4.8V 8M RX: 3.3V 8M RX: 3.8V VH RX: 3.3V RX: 2.5V 8.2V M: 5V M: V 7.4V RX TUNE:.2~5.V 8M RX: -3dµ.8V VH RX ON: 9V UH RX ON: 9V VH RX: 5V UH RX: 3.3V 8M RX : 5V UH RX: 5V RX ON: 9V 8M RX ON: 9V RX: 2.5V M: 4.V N ON: 11.4V N O: 12.8V UH RX: -1dµ UH RX: +1dµ UH TX:.8V UH RX: +9dµ 8M RX: 3.3V 8.1V UH RX: -5dµ 13.7V 9V.5V 9V N ON: V N O: 7.7V 4.7V 13.V UH RX: -8dµ 2.V UH RX: +14dµ VH TX HIGH: 9.7V VH TX LOW: 5.4V VH: -9dµ UH: -9dµ 8M: dµ 5V VH TX HIGH: +3dm VH TX LOW: +1dm VH TX: 1.6V N ON: 5V N O: V STND Y: V POWER ON: 5V VH TX HIGH: 12.4V VH TX LOW: 7.1V 4.9V RX 3.3V VH TX: 3.3V VH TX:.7V VH TX HIGH: -5dµ VH TX LOW: -15dµ VH TX: 5V VH TX: 9V 4.5V.9V PLL DT H: 5V L: V TX: 2.5V VH TX: -1dm UH TX: -8dm TX:.6V TX: 7.4V VH TX: -25dm UH TX: -2dm TX: 1.2V VH TX: -19dm VH RX: -17dm UH TX: -2dm UH RX: -15dm UH: 2.V TX: 3.V 4.9V TX: 8.5V TX:.6V 8.7V VH: 3.6V UH: 1.8V VH: 2.V SHIT: 4.1V VH TX HIGH: 4.1V VH TX LOW: 1.1V VH TX HIGH: 4.V VH TX LOW:.9V UH TX HIGH: 3.6V UH TX LOW:.9V TX:.7V UH: 3.6V 2.7V 2.V.9V UH TX HIGH: +14dm UH TX LOW: +12dm UH TX HIGH: 1.V UH TX LOW: 6.2V VH: 2.6V UH TX: -6dm 4.8V 4.6V UH: 4.7V UH TX:.7V UH TX: 5V VH UNLOCK: 3.5V UH: 1.6V UNLOCK: 3.V 3.1V VH: 4.7V VH: 1.6V UH TX HIGH: 9.7V UH TX LOW: 6.3V UH UNLOCK: 3.5V UH TX:.8V UH TX: 1.6V UH TX: -3.3V 1.3V UH TX: 9V.6V 15

16 MIN Unit Notes: 16

17 MIN Unit Parts Layout C D E TK193V (Q138) M67781L (Lot 1-4) M (Lot 5-7) M (Lot 8-) Type 1, 2, 1, 2, C1, C2, D1, D2, H1, H2 (Q17) M57788MR (Q18) M6476GP (Q139) UMC5N (C5) (Q15, 11, 113, 115) UMG2N (G2) (Q13) 2SC5226 (R22) (Q136, 137) SGM216M (M) (Q144) 3SK131 (V12) (Q154) SGM216M (M) (Q155) T42 (U8) (Q148, 153) NJM78L5U (8C) (Q15) M742 (M1U) (D139) M8WK (M1Y) (D134, 135, 153, 159) 5 Side 17

18 MIN Unit a b c d e 1 NJM294V (Q143) MS1 (S1) (Q11) IMX1 (X1) (Q16) 2S1244Y (Q112) 2SC2954 (QK) (Q114, 116) 2SC3357 (R) (Q12) 2S131 (ZQ) (Q117) UN9212 (8) (Q119) 9P (Q123) 2SC5226 (R22) (Q125) 2SC4215Y (QY) (Q134, 135, 141) DTC343TK (H3) (Q142) IMD1 (D1) (Q146, 151) UMD2N (D2) (Q152) M742 (M1U) (D14, 15, 17, 18) M142WK (MU) (D14, 156, 179) M6S121 (M2D) (D141) Side 18

19 MIN Unit Parts List RE. DESCRIPTION VLUE V/W TOL. MR S DESIG VXSTD P/N VERS. LOT. SIDE LY DR *** MIN UNIT *** C 12 C 12 C 12 C 13 C 14 C 14 C 14 C 14 C 14 C 14 C 14 C 14 C 14 C 14 C 14 C 14 C 14 C 14 C 15 C 15 C 16 C 17 C 19 C 11 C 111 C 112 C 113 C 119 C 121 C 122 C 124 C 125 C 127 C 128 C 131 C 133 C 134 C 135 C 138 C 139 C 142 C 145 C 146 C 147 C 148 C 151 C 152 C 152 C 152 C 155 C 156 PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) PC with Components (w/ VCO Unit) Printed Circuit oard IP CP. 12p IP CP. 12p IP CP. 22p IP CP. 33p IP CP. 7p IP CP. 12p IP CP. 12p IP CP. 12p IP CP. 12p IP CP. 12p IP CP. 7p IP CP. 12p IP CP. 12p IP CP. 12p IP CP. 12p IP CP. 12p IP CP. 12p IP CP. 12p CERM CP. 47p CERM CP. 47p IP CP. 5p IP CP. 5p IP CP. 4p IP CP. 33p IP CP. IP CP. 7p IP CP. IP CP. IP CP. 1p IP CP. IP CP. 6p L.ELECTRO.CP. 1u IP CP. 22p IP CP. 22p L.ELECTRO.CP. 1u IP CP. IP CP. IP CP. IP CP. 1p IP CP. 1p IP CP. IP CP. 1p IP CP. 1p IP CP. IP CP. IP CP. 22p IP CP. 18p IP CP. 18p IP CP. 22p IP T.CP. 1u IP CP. 47p (US) (EXP) (EXP) (EXP) (EXP) (EXP) (EXP) (EXP) (EXP) (EXP) (EXP) (EXP) (US) (US) 1V CK CK CK CK GRM412J5PT GRM412J5PT GRM422J5PT GRM433J5PT GRM47D5PT GRM412J5PT GRM412J5PT GRM412J5PT GRM412J5PT GRM412J5PT GRM47D5PT GRM412J5PT GRM412J5PT GRM412J5PT GRM412J5PT GRM412J5PT GRM412J5PT GRM412J5PT DD1647J5 U5 47J6 GRM45C5PT GRM45C5PT GRM44C5PT GRM433J5PT GRM3912M5PT GRM47D5PT GRM3912M5PT GRM3612K5PT GRM41D5PT GRM3612K5PT GRM366D5PT ECEV1CS1SR GRM422J5PT GRM422J5PT ECEV1CS1SR GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM4CK1C5PT GRM4CK1C5PT GRM3612K5PT GRM4CK1C5PT GRM4CK1C5PT GRM3612K5PT GRM3612K5PT GRM422J5PT GRM418J5PT GRM418J5PT GRM422J5PT TEMSV116M-8R GRM447J5PT CP6379 CP6371 CP63711 CP63712 CP63713 CP63714 CP63715 CP63716 CP63717 CP63718 CP63719 CP6372 CP63721 CP63722 R411 K K K K K K K K K K K K K K K K K K K K K K K K K K K K K K48121 K K K48121 K K K K K K K K K78128 K VERSION 2 VERSION 1 VERSION 2 VERSION 3 VERSION 1 VERSION 2 VERSION 3 VERSION C1 VERSION C2 VERSION C3 VERSION D1 VERSION D2 VERSION H1 VERSION H2 USTRLI US VERSION 1 73VERSION 2 73VERSION 3 73VERSION 1 73VERSION 2 73VERSION 3 73VERSION C1 73VERSION C2 73VERSION C3 73VERSION D1 73VERSION D2 73VERSION H1 73VERSION H USTRLI 1 1US

20 MIN Unit RE. C 158 C 161 C 163 C 164 C 165 C 166 C 17 C 171 C 172 C 173 C 173 C 173 C 176 C 18 C 181 C 184 C 185 C 186 C 188 C 189 C 192 C 194 C 198 C 11 C 116 C 118 C 119 C 111 C 1115 C 1117 C 1119 C 1123 C 1128 C 1129 C 1131 C 1131 C 1131 C 1134 C 1135 C 1139 C 114 C 114 C 1141 C 1142 C 1145 C 1146 C 1147 C 1149 C 1151 C 1152 C 1153 C 1153 C 1154 C 1156 C 1158 C 1161 C 1163 C 1164 C 1166 C 1167 C 1172 C 1175 C 1176 C 1182 C 1183 C 1187 C DESCRIPTION IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. L.ELECTRO.CP. IP CP. L.ELECTRO.CP. IP CP. IP CP. IP CP. L.ELECTRO.CP. L.ELECTRO.CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP T.CP. IP T.CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP T.CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. VLUE 8p 47p 4p 7p 2p 15p 6p 15p 3p 3p 1p 33u 1p 1u 1u 1u 15p 22p 47p 22p 5p 1p 1p 1p 6p 1u 1u 3p 9p 47p 1u 47p 1p 22p.1u 1p 22p.1u 3p 6p 15p 12p 18p 22p 22p V/W TOL. 35V 1V CK CJ CJ CK CJ CK CJ MR S DESIG GRM48D5PT GRM3612K5PT GRM447J5PT GRM44C5PT GRM47D5PT GRM4CK2C5PT GRM415J5PT GRM46D5PT GRM415J5PT GRM4CJ3C5PT GRM4CJ3C5PT GRM4CK1C5PT EEVH1E33P GRM3611J5PT ECEV1CS1SR GRM3612K5PT GRM3612K5PT GRM3612K5PT ECEV1CS1SR ECEV1CS1SR GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM415J5PT GRM422J5PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM3947J5PT GRM3922J5PT GRM395C5PT GRM3612K5PT GRM391D5PT GRM391D5PT GRM391D5PT GRM3912M5PT GRM3612K5PT GRM396D5PT TESV1C15M1-8R TEMSV1V15M-8R GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM39CJ3C5PT GRM399D5PT GRM3612K5PT GRM3947J5PT TEMSV2116M-8R GRM3647J5PT GRM361D5PT GRM3612K5PT GRM3612K5PT GRM3622J5PT GRM3613K16PT GRM36CK1C5PT GRM3622J5PT GRM3613K16PT GRM36CJ3C5PT GRM366D5PT GRM3615J5PT GRM3612J5PT GRM3612K5PT GRM3618J5PT GRM3622J5PT GRM3622J5PT VXSTD P/N VERS. K K K K K K K K K USTRLI K K US K K K48121 K48121 K48121 K K K K K K K K K K K78129 K K K K K78117 K K K K K K K K K K K K K K LOT. SIDE LY DR

21 MIN Unit RE. C 1189 C 1192 C 1193 C 1194 C 1195 C 1196 C 1199 C 122 C 123 C 125 C 126 C 129 C 121 C 1211 C 1212 C 1213 C 1214 C 1215 C 1217 C 1218 C 1221 C 1223 C 1224 C 1226 C 1227 C 123 C 1231 C 1232 C 1233 C 1235 C 1237 C 1238 C 1239 C 124 C 1241 C 1242 C 1243 C 1244 C 1246 C 1248 C 1249 C 125 C 1251 C 1253 C 1254 C 1255 C 1257 C 1261 C 1263 C 1264 C 1267 C 1268 C 1271 C 1273 C 1275 C 1276 C 1277 C 1278 C 1279 C 1281 C 1282 C 1283 C 1284 C 1285 C 1287 C 1289 C 129 DESCRIPTION IP CP. IP T.CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP T.CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP T.CP. IP CP. IP T.CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP T.CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. VLUE 1u.1u.1u 1p 1p.1u.1u 18p 15p 4p 56p.1u 15p.1u.1u.1u.1u.1u 1u 82p 7p 47p 47p 47p 12p.1u 22p 47p 47u.1u 1u 1p.1u 22p 22p 1p 22p.1u 1u.1u.1u.1u.1u.1u V/W TOL. 1V 2V 6.3V UJ MR S DESIG GRM3612K5PT TESV1C15M1-8R GRM3613K16PT GRM3613K16PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM361D5PT GRM361D5PT GRM3612K5PT GRM3914K16PT GRM3613K16PT GRM3618J5PT GRM3615J5PT GRM364C5PT GRM3656J5PT GRM3613K16PT GRM3615J5PT GRM3914Z25PT GRM3612K5PT GRM3613K16PT GRM3914Z25PT GRM3613K16PT GRM3612K5PT GRM3613K16PT GRM3612K5PT TEMSV2116M-8R GRM3682J5PT GRM3612K5PT GRM3612K5PT GRM367D5PT GRM36471K5PT GRM36471K5PT GRM3612K5PT GRM39UJ47J5PT GRM3612J5PT GRM3613K16PT GRM36221K5PT GRM3647J5PT TEMSVD1D476M12R GRM3914K16PT TESV1C15M1-8R GRM3611J5PT GRM3612K5PT GRM3914Z25PT GRM3612K5PT GRM3922J5PT GRM3622J5PT GRM3612K5PT GRM361D5PT GRM3612K5PT GRM3612K5PT GRM3622J5PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM414Z25PT GRM412M5PT TEMSVJ16M-8R GRM3914Z25PT GRM3914Z25PT GRM3914Z25PT GRM3914Z25PT GRM3612K5PT GRM3612K5PT GRM3613K16PT VXSTD P/N K78129 K K K K K K K K K K K K K K K K K K78117 K K K K K K K K K K K K78129 K K K K K K K K K78827 K K K K K VERS. LOT. SIDE LY DR

22 MIN Unit RE. C 1291 C 1292 C 1293 C 1294 C 1295 C 1296 C 1297 C 1298 C 1299 C 13 C 131 C 132 C 133 C 134 C 134 C 135 C 135 C 137 C 139 C 131 C 1311 C 1313 C 1314 C 1315 C 1316 C 1317 C 1318 C 1319 C 132 C 1321 C 1322 C 1323 C 1324 C 1325 C 1326 C 1328 C 1333 C 1335 C 1336 C 1337 C 1338 C 1339 C 1342 C 1343 C 1344 C 1345 C 1346 C 1347 C 1348 C 1352 C 1354 C 1355 C 1357 C 1359 C 1364 C 1365 C 1366 C 1369 C 1369 C 1372 C 1373 C 1374 C 1375 C 1376 C 1377 C 1378 C DESCRIPTION IP T.CP. IP T.CP. IP CP. IP T.CP. IP CP. IP CP. IP T.CP. IP T.CP. IP CP. IP T.CP. IP CP. IP CP. IP T.CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. VLUE 2.2u 2.2u.47u.1u 2.2u 2.2u.1u.1u 1u 1p 2p 1p 47p 1p 2p 8p 1p 1p 8p 8p 47p 8p 47p 47p 7p 39p 15p 3p 5p 8p 3p 8p 15p.1u.1u 1p 2p.1u.1u 7p 5p V/W 35V 2V 6.3V TOL. CK CK CK CK CK CJ CJ CK CK MR S DESIG TEMSV1C225M-8R TEMSV1C225M-8R GRM39473K16PT TESV1V14M1-8R GRM3612K5PT GRM3612K5PT TEMSV1C225M-8R TEMSV1C225M-8R GRM3914Z25PT TEMSV21D14M-8R GRM3612K5PT GRM3612K5PT TEMSVJ16M-8R GRM36CK1C5PT GRM36CK2C5PT RMC1/16S JPTH GRM36CK1C5PT GRM3647J5PT GRM3612K5PT GRM36CK1C5PT GRM36CK2C5PT GRM368D5PT GRM361D5PT GRM361D5PT GRM368D5PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM368D5PT GRM3647J5PT GRM368D5PT GRM3612K5PT GRM3647J5PT GRM3647J5PT GRM367D5PT GRM3639J5PT GRM3612K5PT GRM3612K5PT GRM3615J5PT GRM3612K5PT GRM36CJ3C5PT GRM365C5PT GRM368D5PT GRM36CJ3C5PT GRM368D5PT GRM3615J5PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM414Z25PT GRM3612K5PT GRM3612K5PT GRM3612K5PT GRM3613K16PT GRM36CK1C5PT GRM36CK2C5PT GRM3612K5PT GRM3612K5PT GRM3613K16PT GRM3612K5PT GRM3612K5PT GRM3914K16PT GRM367D5PT GRM365C5PT VXSTD P/N K K K K K K K K78132 K78827 K K J K K K K K K K K K K K K K K K K K K K K K K K K K K K K K K VERS. W/ CE LEL W/O CE LEL W/ CE LEL W/O CE LEL W/ CE LEL W/O CE LEL LOT. SIDE LY DR

23 MIN Unit RE. C 138 C 1381 C 1383 C 1385 C 1386 C 1387 C 1388 C 1388 C 1389 CD11 C11 D 11 D 11 D 12 D 12 D 14 D 15 D 17 D 18 D 114 D 114 D 115 D 115 D 116 D 116 D 117 D 117 D 134 D 135 D 139 D 14 D 141 D 142 D 143 D 144 D 145 D 146 D 147 D 149 D 153 D 154 D 156 D 157 D 159 D 16 D 162 D 163 D 165 D 166 D 167 D 168 D 169 D 173 D 175 D 176 D 177 D 178 D 18 D 181 D 182 D J 12 J 13 J 14 JP11 DESCRIPTION IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. IP CP. CERM DISC CERM ILTER SURGE SORER EDS COIL EDS COIL CONNECTOR CONNECTOR CONNECTOR WIRE SSY VLUE 3p.1u.1u.1u 5p 3p 1p V/W TOL. CJ CJ MR S DESIG GRM36CJ3C5PT GRM3613K16PT GRM3914K16PT GRM412M5PT GRM3613K16PT GRM3612K5PT GRM365C5PT GRM36CJ3C5PT GRM3611J5PT CDM455C7 CWM455 UM9957/TR X1579HR UM9957/TR X1579HR M742-(TX) M742-(TX) M742-(TX) M742-(TX) UM9957/TR X1579HR UM9957/TR X1579HR UM9957/TR X1579HR UM9957/TR X1579HR DN235U TL DN235U TL M742-(TX) M142WK-(TX) M6S121-(TX) 1SV214 TPH P6K18 RLS135 TE-11 RLS135 TE-11 1SS314 TPH3 1SS314 TPH3 1SS314 TPH3 DN235U TL HSU277TR M142WK-(TX) HSU277TR DN235U TL 1SV286(TPL3) 1SV286(TPL3) 1SV286(TPL3) 1SV286(TPL3) 1SV217(TPH3) 1SV217(TPH3) 1SV217(TPH3) 1SV217(TPH3) 1SV276(TPH3) HVU359TR 1SV27(TPH3) 1SV27(TPH3) HVU359TR HSC277TR 1SV276(TPH3) 1SS355 TE-17 DN235U TL ZR 2-ZR IL-PR-3S-V-E15 LK 6 (3)/(3) VXSTD P/N VERS. K K K K K K W/ CE LEL K W/O CE LEL K H7948 H39395 G27562 G27826 G27562 G27826 G27598 G27598 G27598 G27598 G27562 G27826 G27562 G27826 G27562 G27826 G27562 G27826 G27176 G27176 G27598 G27534 G276 G27356 Q9721 G27128 G27128 G27122 G27122 G27122 G27176 G27118 G27534 G27118 G27176 G2761 G2761 G2761 G2761 G27568 G27568 G27568 G27568 G2742 G27452 G2748 G2748 G27452 G27584 G2742 G2747 G27176 L L P9647 P9647 P19126 T51612 LOT. SIDE LY DR b1 a1 c1 b1 5 C5 C3 c5 c3 4 c5 C3 4 23

24 MIN Unit RE. L 11 L 12 L 13 L 14 L 15 L 16 L 17 L 18 L 113 L 114 L 121 L 122 L 131 L 133 L 135 L 137 L 139 L 14 L 141 L 141 L 142 L 143 L 144 L 145 L 146 L 147 L 148 L 149 L 152 L 154 L 155 L 156 L 157 L 159 L 16 L 161 L 162 L 165 L 166 L 167 L 167 L 169 L 17 L 171 Q 11 Q 15 Q 16 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 17 Q 18 Q 11 Q DESCRIPTION COIL 1 COIL 1 COIL 1 COIL 1 COIL 1 COIL 1 COIL 1 COIL 1 COIL 1 COIL 1 COIL 1 COIL 1 M.RC M.RC M.RC M.RC M.RC M.RC M.RC M.RC M.RC M.RC M.RC M.RC M.RC M.RC IP COIL M.RC IP COIL IP COIL IP COIL IP COIL IP COIL IP COIL IP COIL IP COIL IP COIL IP COIL IP COIL IP COIL IP COIL IP COIL IP COIL M.RC TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR VLUE.33uH.47uH.33uH.33uH.33uH.56uH.22uH.22uH.68uH.68uH.68uH.68uH.33uH.68uH.47uH 3.3uH.1uH.1uH.47uH.47uH.1uH.56uH.15uH.1uH.1uH.22uH.56uH.33uH.27uH.22uH.22uH.47uH V/W TOL. 2% MR S DESIG 1.5T4.D.6UEW R 1.5T4.D.6UEW R 2.5T4.D.8UEW R 1.5T3.5D.8UEW R 5.5T1.5D.4UEW R 8.5T3.D.5UEW R 7.5T2.D.5UEW R 6.5T3.5D.6UEW R 2.5T4.D.8UEW R 1.5T3.5D.8UEW R 2.5T4.D.8UEW R 1.5T3.5D.8UEW R C212C-33NJ C212C-47NJ C212C-33NJ C212C-33NJ C212C-33NJ ELJ-RE56NJ3 C212C-22NJ C212C-22NG HK168 6N8J-T HK168 68NJ-T HK168 6N8J-T HK168 6N8J-T LK2125 R33K-T HK168 68NJ-T LQW16847NG LK2125 3R3K-T LQW1681NG LQW1681NG LQW16847NG LQW16847NG LQW168R1G LQW16856NG LQN21R15J4 LQW168R1G LQW168R1G LQW16822NG LQW16856NG LQW16833NG LQW16827NG LQW16822NG LQW16822NG HK168 47NJ-T MS1 T148 UMC5N TR IMX1 T11 M M M67781L M M M67781L M M M67781L M M M M M67781L M67781L M67781L M67781L M57788MR UMC5N TR 2S1244-Y(TE16L) VXSTD P/N VERS. L21822 L21822 L2234 L22342 L21796 L2724 L2889 L21821 L2234 L22342 L2234 L22342 L L L L L L L L L L L L L L L L L16988 L16988 L L L L L L L L L L W/ CE LEL L W/O CE LEL L L L G378 G37137 G3724 G VERSION 1 G VERSION 2 G VERSION 3 G VERSION 1 G VERSION 2 G VERSION 3 G VERSION C1 G VERSION C2 G VERSION C3 G VERSION D1 G VERSION D2 G VERSION H1 G VERSION H2 G USTRLI G G US G G G37137 G Y LOT. SIDE LY DR c1 C4 c D2 C4 c2

25 MIN Unit RE. Q 113 Q 114 Q 115 Q 116 Q 117 Q 119 Q 12 Q 123 Q 125 Q 13 Q 134 Q 135 Q 136 Q 137 Q 138 Q 139 Q 141 Q 142 Q 143 Q 144 Q 146 Q 148 Q 15 Q 151 Q 152 Q 153 Q 154 Q 155 R 11 R 12 R 13 R 14 R 15 R 17 R 18 R 19 R 11 R 113 R 116 R 123 R 125 R 131 R 141 R 142 R 146 R 146 R 146 R 146 R 146 R 146 R 146 R 146 R 146 R 146 R 146 R 146 R 146 R 148 R 148 R 149 R 152 R 153 R 157 R 158 R 161 R 163 R 164 DESCRIPTION TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR TRNSISTOR ET TRNSISTOR TRNSISTOR TRNSISTOR ET ET VLUE 22k k 15k 5.6k 5.6k 5.6k 22k 5.6k k k k k 5.6k V/W 1/1W 1/2W 1/2W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W 1/1W TOL. MR S DESIG UMC5N TR 2SC2954-T2 UMC5N TR 2SC2954-T2 2S131-T2 ZQ UN9212-(TX) 2SC3357-T2 R 9P-E2 2SC5226-4/5-TL UMG2N TR 2SC4215Y TE85R 2SC4215Y TE85R 2SC5226-4/5-TL 2SC5226-4/5-TL TK193VT1 M6476GP 6C 2SC4215Y TE85R DTC343TK T146 NJM294V-TE1 SGM216M-T7 IMD1 T18 T42(TE85L) NJM78L5U TE1 IMD1 T18 UMD2N TR T42(TE85L) 3SK131-T2 V12 SGM216M-T7 RMC1/1T 223J RMC1/2 121JTE RMC1/2 121JTE RMC1/16S 332JTH RMC1/16S 153JTH RMC1/16S 562JTH RMC1/16S 13JTH RMC1/16S 13JTH RMC1/16S 562JTH RMC1/16S 562JTH RMC1/16S 223JTH RMC1/1T 12J RMC1/1T 562J RMC1/1T 68J RMC1/1T 471J RMC1/1T 471J RMC1/1T 392J RMC1/1T 471J RMC1/1T 471J RMC1/1T 392J RMC1/1T 471J RMC1/1T 471J RMC1/1T 392J RMC1/1T 471J RMC1/1T 471J RMC1/1T 471J RMC1/1T 471J RMC1/1T 1RJ RMC1/1T J RMC1/1T J RMC1/1T 392J RMC1/16 562JTP RMC1/16 222JTP RMC1/1T 1J RMC1/1T 27J RMC1/1T 1J RMC1/16 151JTP VXSTD P/N VERS. G37137 G G37137 G G321317Q G37152 G G G Z G3788 G Y G Y G Z G Z G19166 G G Y G3781 G G4712 G37159 G G G37159 G3776 G G G4712 J J J J J J J J J J J J J J J VERSION 1 J VERSION 2 J VERSION 3 J VERSION 1 J VERSION 2 J VERSION 3 J VERSION C1 J VERSION C2 J VERSION C3 J VERSION D1 J VERSION D2 J VERSION H1 J VERSION H2 J24251 J2425 J2425 J J J J24251 J J24251 J LOT. SIDE LY DR C4 d4 C4 b4 c2 c3 c4 c2 c4 C5 c3 c4 C5 C5 C3 C5 b5 d3 c3 3 c5 4 D5 c5 c5 C3 C2 C2 25

26 MIN Unit RE. R 165 R 17 R 171 R 172 R 173 R 174 R 179 R 18 R 181 R 183 R 184 R 185 R 188 R 189 R 191 R 193 R 194 R 197 R 199 R 11 R 11 R 111 R 111 R 115 R 116 R 117 R 118 R 111 R 1111 R 1112 R 1113 R 1114 R 1115 R 1116 R 1117 R 1118 R 1119 R 1119 R 1119 R 112 R 112 R 112 R 1121 R 1122 R 1123 R 1124 R 1128 R 1135 R 1136 R 1137 R 114 R 1141 R 1142 R 1146 R 1147 R 1148 R 1149 R 1151 R 1152 R 1153 R 1154 R 1155 R 1156 R 1157 R 1158 R 1159 R DESCRIPTION VLUE k 4.7k k 6.8k k 15k k 6.8k 4.7k k k 4.7k 1 1 V/W TOL. 1/1W 1/1W 1/1W MR S DESIG RMC1/16 222JTP RMC1/16 12JTP RMC1/16 221JTP RMC1/16 562JTP RMC1/16S 12JTH RMC1/16S 472JTH RMC1/1T 12J RMC1/16S 12JTH RMC1/1T 151J RMC1/16 222JTP RMC1/1T 1J RMC1/16 221JTP RMC1/16 18JTP RMC1/16S 12JTH RMC1/16S 12JTH RMC1/16 22JTP RMC1/16 1JTP RMC1/16S 472JTH RMC1/16S 682JTH RMC1/16 18JTP RMC1/16S 12JTH RMC1/16S JPTH RMC1/16S 12JTH RMC1/16S 12JTH RMC1/16S 12JTH RMC1/16S 12JTH RMC1/16S 12JTH RMC1/16S 18JTH RMC1/16S 221JTH RMC1/16S 11JTH RMC1/16S 13JTH RMC1/16S 13JTH RMC1/16S 274JTH RMC1/16S 154JTH RMC1/16S 18JTH RMC1/16S JPTH RMC1/16S 13JTH RMC1/16S 471JTH RMC1/16S 18JTH RMC1/16S 18JTH RMC1/16S 18JTH RMC1/16S 13JTH RMC1/16S 562JTH RMC1/16S 682JTH RMC1/16S 472JTH RMC1/16S 11JTH RMC1/16S 221JTH RMC1/16S 224JTH RMC1/16S 47JTH RMC1/16S 472JTH RMC1/16S 12JTH RMC1/16S 13JTH RMC1/16S 472JTH RMC1/16S 11JTH RMC1/16S 11JTH VXSTD P/N J J J J J J J J J J J24251 J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J J VERS. USTRLI US USTRLI US LOT. SIDE LY DR