K66VX-6000VVHF Mobile Transceiver

VX-6000 OPERATING MANUAL MANUAL DE OPERACIÓN VERTEX STANDARD CO., LTD. 4-8-8 Nakameguro, Meguro-Ku, Tokyo 153-8644, Japan VERTEX STANDARD US Headquarters 17210 Edwards Rd., Cerritos, CA 90703, U.S.A. International Division 8350 N.W. 52nd Terrace, Suite 201, Miami, FL 33166, U.S.A. YAESU EUROPE B.V. P.O. Box 75525, 1118 ZN Schiphol, The Netherlands YAESU UK LTD. Unit 12, Sun Valley Business Park, Winnall Close Winchester, Hampshire, SO23 0LB, U.K. YAESU GERMANY GmbH Am Kronberger Hang 2, D-65824 Schwalbach, Germany VERTEX STANDARD HK LTD. Unit 5, 20/F., Seaview Centre, 139-141 Hoi Bun Road, Kwun Tong, Kowloon, Hong Kong POWER Congratulations! You now have at your fingertips a valuable communications tool - a Vertex Standard two-way radio! Rugged, reliable and easy to use, your Vertex Standard radio will keep you in constant touch with your colleagues for years to come, with negligible main- tenance down time. Please take a few minutes to read this manual carefully. The information presented here will allow you to derive maximum performance from your radio. After reading it, keep the manual handy for quick reference, in case questions arise later on. We’re glad you joined the Vertex Standard team. Call on us any time, because our business is communications. Let us help you get your message across. NOTICE There are no user-serviceable points inside this transceiver. All service jobs must be referred to your Authorized Service Center or Network Administrator. Safety / Warning Information WARNING - DO NOT operate the VX-6000U radio when someone (bystanders) outside the vehicle is within 47 inches (1.2 meter) of the antenna. Safety Training information: Antennas used for this transmitter must not exceed an antenna gain of 0 dB. The radio must be used in vehicle-mount configurations with a maximum operating duty factor not exceeding 50%, in typical Push-to-Talk configurations. This radio is restricted to occupational use, work related operations only where the radio operator must have the knowledge to control the exposure conditions of its passengers and bystanders by maintaining the minimum separation distance of 47 inches (1.2 m). Failure to observe these restrictions will result in exceeding the FCC RF exposure limits. Antenna Installation: For rear deck trunk installation, the antenna must be located at least 47 inches (1.2 m) away from rear seat passengers in order to comply with the FCC RF exposure requirements. For roof top installation, the antenna must be placed in the center of the roof. Page 1 VX-6000 Operating Manual VX-6000 Operating Manual The VX-6000 Series are full-featured FM transceivers designed for flexible mobile and base station business communications in the VHF Low-Band (110/25 Watts: program- mable), VHF High-Band (100/25 Watts: programmable) and UHF (100/25 Watts: pro- grammable) Land Mobile Bands. Each model is designed for reliable business communi- cations in a wide variety of applications, with a wide range of operating capability pro- vided by its leading-edge design. The 250-channels memories can each be programmed with a 8-character channel name. A 39-tone programmable CTCSS encoder/decoder is built in as standard. Important channel frequency data is stored in EEPROM and flash memory on the CPU, and is easily programmable by dealers using a personal computer and the VERTEX STAN- DARD CT-71 Programming Cable and CE35 Software. Special built-in features include: !The 250-channels memories can each be programmed with a 8-character channel name. !CTCSS (Continuous Tone Coded Squelch System); !DCS (Digitally Coded Squelch); !Extensive Selective Calling selections; and !Two sets of scanning channels, one set preset by the dealer and another which is operator-selectable. The pages which follow will detail the many advanced features provided on the VX-6000 transceiver. After reading this manual, you may wish to consult with your Network Ad- ministrator regarding precise details of the configuration of this equipment for use in your application. POWER Page 2 VX-6000 Operating Manual Controls & Connectors Front Panel " PWR Button Press the button to turn the transceiver ON and OFF. # TX Indicator This lamp glows red when the radio is transmitting. $ BUSY Indicator This lamp glows green when the channel is busy. % Liquid Crystal Display The display include an 8-character alpha-numeric section showing channel and group names, status and identity information, and error messages. Additional indicators on the display show priority channel assignments and scan include / exclude selection. & !! !! !/ "" "" " Button Pressing these buttons changes the current group (and displayed group number or name). Holding this button for more than 1/2 second causes the function to repeat. ' HOME Indicator This lamp glows orange when incorrect position at the setting of CE35. ( Programmable Function Button This button can be set up for special applications, such as high/low power selection, monitor, dimmer, talk-around, and call alert function, as determined by your network requirements and programmed by your VERTEX STANDARD dealer. The default function is set as Dimmer Button. A POWER $#%& ( )*+ ' " Page 3 VX-6000 Operating Manual j VOLUME Knob This knob sets the volume of the receiver. k CHANNEL Selector Knob This knob select the operating channel. l Programmable Function Button This button can be set up for special applications, such as high/low power selection, monitor, dimmer, talk-around, and call alert function, as determined by your network requirements and programmed by your VERTEX STANDARD dealer. Side Panel Microphone Jack (It is on both sides.) Connect the microphone plug to this jack. Microphone Jack Page 4 VX-6000 Operating Manual REAR (Heatsink) !! !! ! 13.8-V DC Cable Pigtail w/Connector The supplied DC power cable must be connected to this 2-pin connector. Use only the supplied fused cable, extended if necessary, for power connection. "" "" " External Speaker Jack An external …

Text truncated - open the document above for the full version.

Front of EUT Back of EUT Right side of EUT Left side of EUT Top of EUT Bottom of EUT Microphone DC Power cable

Inside of EUT with copper cover Inside of EUT without copper cover Component side of MAIN-UNIT with shield cases Component side of MAIN-UNIT without shield cases Solder side of MAIN-UNIT Component side of PA-UNIT Solder side of PA-UNIT Component side of DISPLAY-UNIT with LCD Component side of DISPLAY-UNIT without LCD Solder side of DISPLAY-UNIT Front of LCD Back of LCD Component side of KEY-UNIT Solder side of KEY-UNIT Component side of VR-UNIT Solder side of VR-UNIT Component side of MIC-CONN-UNIT Solder side of MIC-CONN-UNIT Inside of front panel Inside of chassis Inside of top plate Inside of microphone

VX-6000V VX-6000V VX-6000V VX-6000V Circuit Description Circuit DescriptionCircuit Description Circuit Description Reception and transmission are switched by “ RX ” and ” TX ” lines from the microprocessor unit (MPU). The receiver uses double-conversion superheterodyne circuitry, with a 43.95MHz 1st IF and 450 kHz 2nd IF. The 1st LO, produced by a PLL synthesizer, yields the 43.95MHz 1st IF. The 2nd LO uses a 43.5 MHz (43.95 MHz-450 kHz) signal generated by a crystal oscillator. The 2nd mixer and other circuits use a custom IC to convert and amplify the 2nd IF, and detect FM to obtain demodulated signals. During transmit, the PLL synthesizer oscillates at the desired frequency directly, for amplification to obtain RF power output. During transmit, voice modulation and CTCSS (or DCS) modulation are applied to this synthesizer. Transceiver functions, such as Tx/Rx control, PLL synthesizer settings, and channel programming, are controlled using the MPU. Receive ReceiveReceive Receiver Incoming RF signals from the antenna connector are delivered to the PA Unit, and pass through a low-pass filter (LPF) consisting of coils L6009, L6008, and L6007, capacitors C6041, C6047, C6040, C6048, C6039, and C6027 and antenna switching Relay for delivery to the receiver front end in the Main Unit. Signals within the frequency range of the transceiver are then passed through a varactor-tuned bandpass filter consisting of L1008, L1009 / L1018, L1019 before RF amplification by Q1012 (3SK228). The amplified RF is then band-pass filtered again by varactor-tuned resonators L1024, L1025 / L1038, L1039 before second RF amplification by Q1034 (2SC4227) and then to ensure pure in-band input to 1st mixer consisting of trances T1002, diode D1041 (HSB88WS). Buffered output from the VCO Unit is amplified by Q1021 (2SC4227) and low-pass filtered by L1042 / L1046 and C1132 / C1139 / C1142, to provide a pure 1st local signal between 191.95 and 217.95 MHz to the 1st mixer. The 43.95MHz 1st mixer product then passes through dual monolithic crystal filters XF1001 and XF1002 (7.5 kHz BW) for wide band or XF1003 and XF1004 (3.75kHz BW) for narrow band ,and is amplified by Q1025 (2SC4226) and Q1029 (2SC4226) and delivered to the input of the FM IF subsystem IC Q1026 (TA31136FN). This IC contains the 2nd mixer, 2nd local oscillator, limiter amplifier, FM detector, noise amplifier, and squelch gates. The 2nd LO in the IF-IC is produced from crystal X1001 (14.500MHz), and the 1st IF is converted to 450kHz by the 2nd mixer and stripped of unwanted components by ceramic filter CF1001 or CF1002. After passing through a limiter amplifier, the signal is demodulated by the FM detector. Demodulated receive audio from the IF-IC is amplified by Q1031 (2SA1602A) / Q2014 (CXA1846N). After volume adjustment by the AF power amplifier Q2029 (TDA7240AV), the audio signal is passed to the optional speaker jack or 4-ohm loudspeaker. PLL synthesizer PLL synthesizerPLL synthesizer PLL synthesizer The 1st LO maintains stability from the PLL synthesizer by using a 14.500 MHz reference signal from crystal X1001. PLL synthesizer IC Q1024 (SA7025DK) consists of a prescaler, reference counter, swallow counter, programmable counter, a serial data input port to set these counters based on the external data , a phase comparator, and charge pump. The PLL-IC divides the 14.500 MHz reference signal by 725 using the reference counter (20.0 kHz comparison frequency). The phase detector comparison frequency to be eight times the channel spacing (2.5kHz). The VCO output is divided by the prescaler, swallow counter and programmable counter. These two signals are compared by the phase comparator and input to the charge pump. A voltage proportional to their phase difference is delivered to the low-pass filter circuit, then fed back to the VCO as a voltage with phase error, controlling and stabilizing the oscillating frequency. This synthesizer also operates as a modulator during transmit. The RX-VCO is comprised of Q1015 (2SK520) and D1017,D1035,D1036,D1038 (HVU306A 4), and oscillates between 191.95MHz and 217.95MHz according to the programmed receiving frequency. And the TX-VCO is comprised of Q1014 (2SC5107) and D1015, D1016, D1040, D1019 (HVU306A 4), and oscillates between 148.0MHz and 174.0MHz according to the programmed transmit frequency. The VCO output passes through buffer amplifier Q1018 (2SC5107), and a portion is fed to the buffer amplifier Q1019 (2SC5107) of the PLL IC, and at the same time amplified by Q1021 (2SC4227) to obtain stable output. The VCO DC supply is regulated by Q1008 (2SC4154E). Synthesizer output is fed to the 1st mixer by diode switch D1024 (1SS321) during receive, and to drive amplifier Q1022 (2SC5415E), and Q1020 (2SC2954) for transmit. The reference oscillator feeds the PLL synthesizer, and is composed of crystal X1001 (14.500 MHz), the temperature compensation circuit which includes D1033 (MC2850) and thermostats TH1002 and TH1003, and transmit (DCS) modulation circuit D1029 (HVU359). Transmitter TransmitterTransmitter Transmitter Voice audio from the microphone is delivered via the Mic (Jack) Unit to the MAIN Unit, after passing through amplifier Q3039/Q2108 (NJM2902V), pre-emphasis, limiter (IDC instantaneous deviation control) ,and LPF Q2001 (NJM2902V), is adjusted for optimum deviation level and delivered to the next stage. Voice input from the microphone and CTCSS are FM-modulated to the VCO of the synthesizer, while DCS audio is modulated by the reference frequency oscillator of the synthesizer. Synthesizer output, after passing through diode switch D1024 (1SS321), is amplified by driver Q1022 (2SC5415E) and Q1020 (2SC2954) and power module Q1038 (M67781L) to obtain full RF output. The RF energy then delivered to the PA Unit. Then its RF energy amplified by parallel junction transistor Q6001 / Q6002 (2SC5125 2) and passes through antenna switching relay RL6001 and a low-pass filter circuit. And finally to the antenna connector. …

Text truncated - open the document above for the full version.

VX-6000V VX-6000V VX-6000V VX-6000V Alignment AlignmentAlignment Alignment The VX-6000 has been carefully aligned at the factory for the specified performance across the frequency range specified for each version. Realignment should therefore not be necessary except in the event of a component failure, or alteration of version. All 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. Authorized 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. Also, 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 determined to be absolutely necessary. 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 order presented. Required Test Equipment Required Test EquipmentRequired Test Equipment Required Test Equipment RF signal generator: calibrated output level at 1000 MHz (0 dBμ =1.0 μV - terminated circuit) Deviation Meter (linear detector) AF Millivoltmeter SINAD Meter Inline Wattmeter with 5% accuracy at 1000 MHz Regulated DC Power Supply: adjustable from 10 to 17 VDC, 30A 50-ohm Non-reactive Dummy Load: 200W at 1000 MHz Frequency Counter: >0.1 ppm accuracy at 1000 MHz AF Signal Generator DC Voltmeter: high impedance RF Sampling Coupler (attenuation pad) AF Dummy Load: 4 ohm, 20W Oscilloscope Spectrum Analyzer IBM PC/compatible computer w/Vertex CT-71 programming cable(CT-29+CT-70) and CE-35 channel programming editor. 50- RF Signal Dummy load Generator RF Sampling Inline Wattmater Coupler Transceiver Deviation Meter CT-70 CT-29 Connection Frequeuncy Cable Power Supply Counter IBM PC 13.8V DC COM port Alignment Preparation & Precautions Alignment Preparation & PrecautionsAlignment Preparation & Precautions Alignment Preparation & Precautions A 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. After 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 20 and 30 (68~86F). 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. Also, the test equipment must be thoroughly warmed up before beginning. Before beginning, connect the transceiver and PC using the CT-71 programming cable as described in the EEPROM Programming chapter, and download the EEPROM data from the transceiver to the computer. Store this data in a disk file so that it can be saved and retrieved later. Using the table below, program the channel, CTCSS, and DCS alignment settings for your transceiver version. Upload this file to the transceiver. Note: Signal levels in dB referred to in this procedure are based on 0 dBm = 0.5 mV(terminated circuit). Caution: Caution: Caution: Caution: Do not connect this line to ground, and be certain that the speaker has adequate capability to handle the audio output from the radio. Because of the bridge audio amplifier circuit used in the radio, it is necessary to construct and use a simple audio load test adapter as shown in the schematic diagram above, when conducting receiver alignment steps. 3.5 PLUG Attenuated Test Output(1/2) 2 10W Ground + 470uF 2 10W AF Test Adapter Schematic Alignment Channel Frequencies Alignment Channel FrequenciesAlignment Channel Frequencies Alignment Channel Frequencies ChannelFrequency (simplex) CTCSS Encode DCS Encode Narrow /wide CH1148.01MHzNoneNoneWide CH2161.01MHzNoneNoneWide CH3173.99MHzNoneNoneWide CH4148.01MHzNoneNoneNarrow CH5161.01MHzNoneNoneNarrow CH6173.99MHzNoneNoneNarrow CH7161.01MHz151.4HzNon…

Text truncated - open the document above for the full version.

VX-6000VcomponentApplications.xls, 1/3 AddressDevice nameDescriptionApplication [MAIN-UNIT] Q 1001Transistor2SC4154ETx Power Control Q 1002Transistor2SB1143STx Power Control Q 1003Transistor2SB1201STP9V Regulator Q 1004TransistorRT1N241MTx Power Control Q 1005TransistorDTB123EKRx 9V Switch Q 1006Transistor2SB1132RTx 9V Switch Q 1007ICNJM2902VBPF Tune Buff/APC COMP Q 1008Transistor2SC4154EVCO 9V Regulator Q 1009TransistorIMH6Tx/Rx Switch Q 1010Transistor2SC4116GRPLL Filter Q 1011TransistorRT1N241MMOD Mute Switch Q 1012Transistor3SK228RF Amplifier Q 1013ICNJM2904VMOD AMP Q 1014Transistor2SC5107-OTX Voltage Control Oscillator Q 1015Transistor2SK520RX Voltage Control Oscillator Q 1016TransistorRT1N241MTx/Rx Switch Q 1017TransistorIMH6ATx/Rx Switch Q 1018Transistor2SC5107-OBuff AMP Q 1019Transistor2SC5107-OBuff AMP Q 1020Transistor2SC2954Tx Driver AMP Q 1021Transistor2SC4227Buff AMP Q 1022Transistor2SC5415ETx Driver AMP Q 1023ICNJM78L05UA5V Regulator Q 1024ICSA7025DKPLL Subsystem Q 1025Transistor2SC4226IF AMP Q 1026ICTA31136FNIF Subusystem Q 1027Transistor2SC4154EReference Oscillator Q 1028TransistorRT1N241MRx Wide/Narrow Switch Q 1029Transistor2SC4226IF AMP Q 1030ICMM1216ENRE9V Regulator Q 1031Transistor2SA1602A-FBuff AMP Q 1032TransistorRT1N241MWide/Narrow Switch Q 1033TransistorRT1N241MRF Gain Switch Q 1034Transistor2SC4227RF Amplifier Q 1035Transistor2SC4154EPLL Filter 9V Regulator Q 1036Transistor2SC4116GRPLL Filter Q 1037Transistor2SA1602A-FPLL Filter Q 1038ICM67781LRF PWR-MODULE Q 1039Transistor2SK2035PLL Filter Q 1040TransistorRT1N241MWide/Narrow Switch Q 2001ICNJM2902VEmphasis/IDC/LPF/MIX Q 2002TransistorIMZ1Analog Switch Q 2003ICNJM2902VRSSI/SQL/LPF Q 2004TransistorRT1N241MAnalog Switch Q 2005TransistorRT1N241MAnalog Switch Q 2006TransistorDTC323TKAnalog Switch Q 2007ICBU4066BFAnalog Switch Q 2008TransistorRT1N241MMIC Mute Switch Q 2009TransistorIMX1Analog Switch Q 2010Not Used Q 2011TransistorRT1N241MAF Mute Q 2012TransistorDTC323TKAF Mute Q 2013ICMX165CDWCTCSS Encoder/Decoder Q 2014ICCXA1846NAF Volume Q 2015TransistorDTB123EKAnalog Switch Q 2016ICBU4053BCFAnalog Switch Q 2017ICLA8630MCompandor Q 2018Transistor2SC4154EClock Freq. Shift switch Q 2019ICMB90F583BMicroprocessor Q 2020Transistor2SJ327-ZPower Supply Switch Q 2024ICNJM78L05UA5V Regulator Q 2025Transistor2SA1602A-FPower Down detect Q 2026TransistorRT1N241MPower Down detect Q 2027ICS-80735SN-DZCPU Reset Q 2028ICHN58X2432TIProgrammable Data Store Q 2029ICTDA7240AVAF Power AMP Q 2108ICNJM2902VEmphasis /AF AMP Q 2110ICNJM2902VLPF Q 2111TransistorDTB123EKAnalog Switch Q 2112TransistorIMD3Analog Switch Q 2114TransistorRT1N241MEXT SQ Switch Q 2115TransistorIMD3Analog Switch Q 2116TransistorRT1N241MAnalog Switch Q 2117ICTC4W53FUAnalog Switch YAESU MUSEN CO., LTD. VX-6000VcomponentApplications.xls, 2/3 AddressDevice nameDescriptionApplication Q 2118TransistorRT1N241MAnalog Switch Q 2119TransistorRT1N241MAF Switch Q 2120TransistorRT1N241MAnalog Switch Q 2121TransistorRT1N241MAnalog Switch Q 2122TransistorRT1N241MAnalog Switch Q 2124TransistorRT1N241MWide/Narrow Switch Q 2125TransistorRT1N241MTx/Rx Switch Q 2126TransistorDTB123EKTx/Rx Switch D 1001DiodeRLS135Antenna Switch D 1002DiodeBAS316RF Limitting D 1003DiodeP6KA18Reverse Voltage Protecion D 1005DiodeBAS316Discharge D 1009 D 1010Varactor Diode1SV229BPF Tune D 1012Varactor Diode1SV229BPF Tune D 1013Varactor Diode1SV229BPF Tune D 1015Varactor DiodeHVU306ATX VCO D 1016Varactor DiodeHVU306ATX VCO D 1017Varactor DiodeHVU306ARX VCO D 1018Not Used D 1019Varactor DiodeHVU306ATX VCO D 1020Varactor Diode1SV229BPF Tune D 1021Varactor Diode1SV229BPF Tune D 1022Varactor Diode1SV229BPF Tune D 1023Varactor Diode1SV229BPF Tune D 1024Diode1SS321Tx/Rx RF Switch D 1025Not Used D 1026DiodeMC28482nd IF Filter Switch D 1027DiodeHZM5.6NB25V Supply D 1028DiodeMC28482nd IF Filter Switch D 1029Varactor DiodeHVU359DCS MOD D 1030Varactor Diode1SV230Temp. Control for PLL REF D 1033DiodeMC2850Temp. Control for PLL REF D 1034DiodeBAS316APC D 1035Varactor DiodeHVU306ARX VCO D 1036Varactor DiodeHVU306ARX VCO D 1037Not Used D 1038Varactor DiodeHVU306ARX VCO D 1039Not Used D 1040Varactor DiodeHVU306ATX VCO D 1041DiodeHSB88WSDBM Mixer D 1042DiodeDAN235K1st IF Filter Switch D 1043DiodeDAN235K1st IF Filter Switch D 2001DiodeMC2846External PTT D 2002DiodeMC2850Detector D 2003DiodeMC2850SQ Noise Detector D 2004DiodeMC2850Temp. Comp. D 2005DiodeBAS316CTCSS Detector D 2006DiodeMC2850limitter D 2007DiodeMC2846DC Switch D 2010DiodeMC2850Protection D 2011DiodeBAS316Reverse Current Protecion D 2012DiodeBAS316Reverse Current Protecion D 2013DiodeBAS316Reverse Current Protecion D 2014DiodeBAS316Switch D 2015DiodeBAS316Switch [DISPLAY-UNIT] Q 3001ICLC75823WLCD Driver Q 3003TransistorRT1N241MMic Mute Q 3004TransistorIMZ1 Line Buff Q 3005TransistorRT1N241MDATA Line Mute Q 3006Not Used Q 3007Not Used Q 3008TransistorRT1N241MMic Mute Q 3009TransistorRT1N241MMic Mute Q 3010TransistorIMX1Line Buff Q 3011TransistorIMZ1 Buff Q 3012ICS-93C46AMFNProgrammable Data Store Q 3013TransistorIMD3Buff Q 3014ICHD64F3642AHMicroprocessor Q 3015TransistorIMH6ASwitich for flash mode Q 3016ICS-80735SNMicroprocessor Reset Q 3017Transistor2SA1602APower Down Detect Q 3019Transistor2SC4154Clock Freq. Shift switch YAESU MUSEN CO., LTD. VX-6000VcomponentApplications.xls, 3/3 AddressDevice nameDescriptionApplication Q 3020TransistorRT1N241MAF MUTE Q 3021ICNJM78L05UA5V Regulator Q 3022TransistorRT1N241MSwitich for flash mode Q 3024TransistorRT1N241MPanel Interface Detect Q 3025TransistorRT1N241MVolume Control ON/OFF Q 3026TransistorRT1N241MPower Switch Control Q 3027TransistorRT1N241MPower Down Detect Q 3028Transistor2SB1132Power Switch Q 3029Transistor2SB1132LED Switch Q 3030TransistorUMW1NBrightness Control Q 3031Transistor2SB1132Power Switch Q 3033TransistorIMH6APower Switch Control Q 3038TransistorIMX1AGC AMP Q 3039ICNJM2902VMIC AMP Q 3040TransistorIMZ1 BUFF Q 3043ICTC4S66FAnalog Switch Q 3044Not Used D 3005Diode1SS226AGC rectification D 3006DiodeDAP202U…

Text truncated - open the document above for the full version.

FCC ID: K66VX-6000V MFA p0180005, d0190004 Date: September 5, 2001 Federal Communications Commission Via: Electronic Filing Attention: Authorization & Evaluation Division Applicant: Vertex Standard Co., Ltd. Equipment: VX-6000V FCC ID: K66VX-6000V FCC Rules: Radiofrequency Radiation Exposure Limits 47 CFR 1.1310 MPE - Mobiles x Fixed Based Station x Gentlemen: On behalf of the Applicant, enclosed please find the Supplemental Test Data Report, the whole for Environmental Assessment (MPE) of the referenced equipment as shown. We trust the same is in order. Should you need any further information, kindly contact the writer who is authorized to act as agent. Sincerely yours, Morton Flom, P. Eng. enclosure(s) cc: Applicant MF/cvr FCC ID: K66VX-6000V MFA p0180005, d0190004 ENVIRONMENTAL ASSESSMENT for MOBILES & FIXED BASE STATION for FCC ID: FCC ID: K66VX-6000V Model:VX-6000V to FEDERAL COMMUNICATIONS COMMISSION 47 CFR 1.1310 (MPE) Radiofrequency Radiation Exposure Limits DATE OF REPORT: September 5, 2001 ON THE BEHALF OF THE APPLICANT: Vertex Standard Co., Ltd. AT THE REQUEST OF: P.O. UPS 8/21/2001 Vertex Standard USA Inc. 17210 Edwards Rd. Cerritos, CA 90703 Attention of: Mikio Maruya, Executive Vice President (800) 255-9237; FAX: (800) 477-9237 (562) 404-2700, x280; FAX: -1210 [email protected] SUPERVISED BY: Morton Flom, P. Eng. FCC ID: K66VX-6000V MFA p0180005, d0190004 TABLE OF CONTENTS RULEDESCRIPTIONPAGE . Test Report 1 . Identification of the Equipment Under Test 2 . Standard Test Conditions and Engineering Practices 4 1.1310 Environmental Assessment 5 FCC ID: K66VX-6000V MFA p0180005, d0190004 PAGE NO.1of12. Required information per ISO/IEC Guide 25-1990, paragraph 13.2: a) TEST REPORT (SUPPLEMENTAL) b) Laboratory: (FCC: 31040/SIT) (Canada: IC 2044) M. Flom Associates, Inc. 3356 N. San Marcos Place, Suite 107 Chandler, AZ 85225 c) Report Number: d0190004 d) Client: Vertex Standard USA Inc. 17210 Edwards Rd. Cerritos, CA 90703 e) Identification: VX-6000V FCC ID: K66VX-6000V Description: VHF FM Mobile Transceiver f) EUT Condition: Not required unless specified in individual tests. g) Report Date: September 5, 2001 EUT Received: August 21, 2001 h, j, k): As indicated in individual tests. i) Sampling method: No sampling procedure used. l) Uncertainty: In accordance with MFA internal quality manual. m) Supervised by: Morton Flom, P. Eng. n) Results: The results presented in this report relate only to the item tested. o) Reproduction: This report must not be reproduced, except in full, without written permission from this laboratory. FCC ID: K66VX-6000V MFA p0180005, d0190004 PAGE NO.2of12. IDENTIFICATION OF THE EQUIPMENT UNDER TEST (EUT) NAME AND ADDRESS OF APPLICANT: Vertex Standard Co., Ltd. 4-8-8 Nakameguro, Meguro-Ku Tokyo 153-8644 Japan MANUFACTURER: Applicant FCC ID: K66VX-6000V MODEL NO: VX-6000V DESCRIPTION: VHF FM Mobile Transceiver TYPE OF EMISSION: 16K0F3E, 11K0F3E FREQUENCY RANGE, MHz: 148 to 174 POWER RATING, Watts: 50to110 Switchable x Variable N/A MODULATION: AMPS TDMA CDMA x OTHER ANTENNA: HELICAL MONOPOLE WHIP x OTHER NOTE: For RF Safety test antenna gain taken at the upper range of expected gain (i.e. 0 dBd) and RF Power set to highest nominal power across all channels. FCC ID: K66VX-6000V MFA p0180005, d0190004 PAGE NO.3of12. M. Flom Associates, Inc. is accredited by the American Association for Laboratory Association (A2LA) as shown in the scope below. "This laboratory is accredited by the American Association for Laboratory Accreditation (A2LA) and the results shown in this report have been determined in accordance with the laboratory's terms of accreditation unless stated otherwise in the report." Should this report contain any data for tests for which we are not accredited, or which have been undertaken by a subcontractor that is not A2LA accredited, such data would not covered by this laboratory's A2LA accreditation. FCC ID: K66VX-6000V MFA p0180005, d0190004 PAGE NO.4of12. STANDARD TEST CONDITIONS and ENGINEERING PRACTICES Except as noted herein, the following conditions and procedures were observed during the testing: In accordance with ANSI C63.4-1992/2000, section 6.1.9, and unless otherwise indicated in the specific measurement results, the ambient temperature of the actual EUT was maintained within the range of 10°to 40°C (50°to 104°F) unless the particular equipment requirements specify testing over a different temperature range. Also, unless otherwise indicated, the humidity levels were in the range of 10% to 90% relative humidity. Prior to testing, the EUT was tuned up in accordance with the manufacturer's alignment procedures. All external gain controls were maintained at the position of maximum and/or optimum gain throughout the testing. Measurement results, unless otherwise noted, are worst case measurements. FCC ID: K66VX-6000V MFA p0180005, d0190004 PAGE NO.5of12. Name of test:Environmental Assessment Specification:FCC: 47 CFR 1.1310 Measurement Guide:ANSI/IEEE C95.1 1992 Test Equipment:Maximum Permissible Exposure (MPE) measurement system, consisting of: Narda 8717-1174R, Radiation meter Narda 8761D, E-field probe (300 kHz – 3 GHz) (Calibrated Nov-98) Measurement Procedure: 1. The following measurements were performed with a Narda probe …

Text truncated - open the document above for the full version.