AXATR-386-A2Mobile Radio

2SHUDWRU∑V0DQXDO KME-200 EDACS Mobile Radio %$ 2 This manual is published by Ericsson Inc., without any warranty. Improvements and changes to this manual necessitated by typographical errors, inaccuracies of current information, or improvements to programs and/or equipment, may be made by Ericsson Inc., at any time and without notice. Such changes will be incorporated into new editions of this manual. No part of this manual may be reproduced or transmitted in any form or by any means, electronic or mechanical, including photocopying and recording, for any purpose, without the express written permission o f Ericsson Inc. Copyright © December 1998, Ericsson Inc. 3 SAFETY INFORMATION ..........................................................4 SAFE DRIVING RECOMMENDATIONS FOR USERS OF MOBILE RADIOS RECOMMENDED BY AAA .............................................. 5 OPERATING RULES AND REGULATIONS .............................5 OPERATING TIPS.......................................................................... 6 INTRODUCTION .......................................................................7 CONTROLS .................................................................................... 9 DISPLAY ....................................................................................... 11 KME- Display.......................................................................... 11 STATUS INDICATORS ................................................................ 12 TX/RX INDICATOR ...................................................................... 13 ALERT TONES ............................................................................. 14 BASIC OPERATION ...............................................................14 TURNING THE RADIO ON .......................................................... 14 SELECTING OR CHANGING CHANNELS .................................. 15 CHANGING SYSTEMS ................................................................ 15 RECEIVING A CALL ..................................................................... 15 TRANSMITTING A BASIC CALL.................................................. 16 CHANNEL GUARD ....................................................................... 16 To Disable Channel Guard (Decode): .................................... 16 To Enable Channel Guard:..................................................... 18 RADIO MENU OPERATION......................................................... 18 SCAN OPERATION...................................................................... 20 SCAN ON/OFF ....................................................................... 20 To Add Channels To The Scan List ....................................... 21 To Remove Channels From The Scan List ............................ 22 PHONE CALLS (DTMF) ............................................................... 23 Initiating A Phone Call From Memory..................................... 23 Initiating A Phone Call From The DTMF Microphone............. 25 EMERGENCY OPERATION......................................................... 26 Receiving A Call ..................................................................... 27 Transmitting A Call ................................................................. 28 Receiving An Emergency Call ................................................ 29 Transmitting An Emergency Call ............................................ 29 TYPE 99 OPERATION ................................................................. 30 Receiving An Individual, Group or Supergroup Call ............... 30 Transmitting A Status Message ............................................. 32 Emergency Transmissions ..................................................... 34 Base Station Calls .................................................................. 34 TABLE OF CONTENTS 4 SAFETY INFORMATION The operator of any mobile radio should be aware of certain hazards comEMER to the operation of vehicular radio transmissions. A list of several possible hazards is given: 1. Explosive Atmospheres - Just as it is dangerous to fuel a vehicle with the motor running, similar hazards exist when operating a mobile radio. Be sure to turn the radio off while fueling a vehicle. Do not carry containers of fuel in the trunk of a vehicle if the radio is mounted in the trunk 2. Interference to Vehicular Electronics Systems - Electronic fuel injection systems, electronic anti-skid braking systems, electronic cruise control systems, etc., are typical electronic systems that may malfunction due to the lack of protection from radio frequency energy present when transmitting. If the vehicle contains such equipment, consult the dealer and enlist their aid in determining the expected performance of electronic circuits when the radio is transmitting. 3. Dynamite Blasting Caps - Dynamite blasting caps may be caused to explode by operating a radio within 500 feet of the blasting caps. Always obey the "Turn Off Two-Way Radios" signs posted where dynamite is being used. When transporting blasting caps in your vehicle: a. Carry the blasting caps in a closed metal box with a soft lining. b. Leave the radio OFF whenever the blasting caps are being put into or removed from the vehicle. 4. Radio Frequency Energy - To prevent burns or related physical injury from radio frequency energy, do not operate the transmitter when anyone outside of the vehicle is within two feet of the antenna. 5. Liquefied Petroleum (LP) Gas Powered Vehicles - Mobile radio installations in vehicles powered by liquefied petroleum gas with the LP gas container in the trunk or other sealed-off space within the interior of the vehicle must conform to the National Fire Protection Association standard (NFPA) 58 requiring: 5 • The space containing the radio equipment shall be isolated by a seal from the space containing the LP gas container and its fittings. • Outside filling connections shall be used for the LP gas con…

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

Feb 12, 1999 Federal Communications Commissions Authorization & Evaluation Divison 7435 Oakland Mills Road Columbia, Maryland 21046 Attention: Equipment Authorization Branch Subject:: Type Acceptance FCC ID: AXATR-386-A2 Members of the Commission, Ericsson Inc. request the Type acceptance of the AXATR-386-A2 mobile radio. The AXATR-386-A2 is a trunking mobile radio that operates in the 403-512 Mhz band at at a power range from 20 to 40 Watts. The AXATR-386-A2 operates in both narrow and wide band modes and comes in three splits the middle split has was tested and is representative of the other two. All test have performed in part 2 and part 90 pursuant to the Type Approval requirments. Sincerely, Bryan McWatters Staff Engineer (804) 592-6110 FAX (804) 592-6510 Email: [email protected]

AXATR-386-A2 Exhibit 3 Ericsson inc. Table of Contents Bottom View 2 Top View 3 Rear View 4 Frontal View 5 3D View 6 AXATR-386-A2Exhibit 3Ericsson inc. AXATR-386-A2Exhibit 3Ericsson inc. AXATR-386-A2Exhibit 3Ericsson inc. AXATR-386-A2Exhibit 3Ericsson inc. AXATR-386-A2Exhibit 3Ericsson inc.

AXATR-386-A2EXHIBIT1ERICSSON INC. 33 INDENTIFICATION NAMEPLATE

AXATR-386-A2Exhibit 9Ericsson Inc. Table of Contents Bottom of Unit with Shielding Bottom with Shield removed Internal View of Head Mount Unit Top Case with Sheild TX Board in Case Backside of Power Supply Board The Front Side of Power Supply Board System Control Front System Control Reart LCD Board Rear LCD Board Front Back of Tx. Board Front of Tx. Board Top with Shield Transmitter board in Case AXATR-386-A2Exhibit 9Ericsson Inc. Bottom of Unit with Shielding AXATR-386-A2Exhibit 9Ericsson Inc. Bottom with Shield removed AXATR-386-A2Exhibit 9Ericsson Inc. Internal View of Head Mount Unit AXATR-386-A2Exhibit 9Ericsson Inc. Top Case with Sheild AXATR-386-A2Exhibit 9Ericsson Inc. TX Board in Case AXATR-386-A2Exhibit 9Ericsson Inc. Backside of Power Supply Board AXATR-386-A2Exhibit 9Ericsson Inc. The Front Side of Power Supply Board AXATR-386-A2Exhibit 9Ericsson Inc. System Control Front AXATR-386-A2Exhibit 9Ericsson Inc. System Control Rear AXATR-386-A2Exhibit 9Ericsson Inc. LCD Board Rear AXATR-386-A2Exhibit 9Ericsson Inc. LCD Board Front AXATR-386-A2Exhibit 9Ericsson Inc. Back of Tx. Board AXATR-386-A2Exhibit 9Ericsson Inc. Front of Tx. Board AXATR-386-A2Exhibit 9Ericsson Inc. Top with Shield AXATR-386-A2Exhibit 9Ericsson Inc. Transmitter board in Case

AXATR-386-A2 EXHIBIT 12 ERICSSON INC. 12 SECTION 3 OCCUPIED BANDWIDTH (FOR 25 kHz CHANNELIZATION) Method of Measurement Per 2.989 (c,1) Data on Occupied Bandwidth is presented in the form of a spectrum analyzer plot which illustrates the transmitter sidebands. A plot is taken of the carrier sideband modulated with a 2500 Hz tone at a level 16 dB greater than that required to produce 50 percent modulation. (The spectrum analyzer grid indicates the reference level of the carrier unmodulated in all exhibits.) SECTION 3B,C Bn = 2M + 2DK where M = 3000 Hz Telephony D = 4000 Hz K= 1(assumed) Bn = 14000 Hz Therefore, Emission Designator = 14K0F3E SECTION 3D Bn = 2(B/2) + 2DK where B = 9600 Hz Data, Digital Voice D = 3000 Hz K=1(assumed) Bn=15600 Therefore, Emission Designators are, 15K6F1D 15K6F1E AXATR-386-A2 EXHIBIT 12 ERICSSON INC. 19 SECTION 3 OCCUPIED BANDWIDTH (FOR 12.5 kHz CHANNELIZATION) Method of Measurement Per Data on Occupied Bandwidth is presented in the form of a spectrum analyzer plot which illustrates the transmitter sidebands. A plot is taken of the carrier sideband modulated with a 2500 Hz tone at a level 16 dB greater than that required to produce 50 percent modulation. (The spectrum analyzer grid indicates the reference level of the carrier unmodulated in all exhibits.) Section B,C Bn = 2M+2DK where M = 3000 Hz Voice D = 1700Hz K = 1 (assumed) Bn = 9400Hz Therefore, Emission Designator = 9K4F3E Section D Bn = 2(B/2) + 2DK where B = 9600bps Data D = 1800 bps K=1 ( assumed Bn= 13200Hz Using Carson’s rule the above calcuation exceeds the 11.25 kHz limit per 90.209, this necessi- tated the need for an empirical measurement. The measurement for 99% power level was take with a Advantest 3271A Spectrum Analyzer with the results of.6.57 kHz as the measure of neces- sary bandwidth at 99% of the power level. This measurement proves that due to the highly fil- tered nature of the the signal in question that the necessary bandwidth required is much less than calculated with Carson’s rule. Ericxsson request that 6.57 kHz be used as the necessary band- width.with the Emission Designator 6K6F1D (For Data be used) and 6K6F1E (For Digital Voice). Therefore, Emission Designator =6K6F1D (For Data) and 6K6F1E (For Voice).

$;$75$([KLELW(ULFVVRQ,QF ALIGNMENT PROCEDURE 6A-CAlignment Procedure 1, Test Equipment Service Monitor(HP8920B or equivalent) Spectrum Analyzer(HP8561E or equivalent) DC Voltmeter(Input Impedance > 1Megohms) DC Power Supply(13.6 Volts at 15A) IBM Personal Computer (or compatible equivalent) Programming Interface (TQ3370) KME Radio Programming Software (______) KME Programming Cable ( _______) KME DC Power Cable (U-PK-2223B) KME Microphone Cable ( _______) BNC-BNC Cable 50 ohm RF Power Attenuator (10dB, 100watts) <Initial setup> Attach DC Power Cable to Radio and Power Supply. Attach Programming Cable to Radio. Attach Interface Cable to Programming Interface and personal Computer. Set power supply to 13.6 Volts dc. Apply power to Radio, and turn radio on/off switch to on position. Execute radio programming software. Under software direction, program radio for the following conventional test channels. See the Figure 1. If test channel always set to figure 1, then it is not need to execute radio programming. Turn radio on/off switch to off position. Remove programming cable. Attach test cable. Remove the Top Cover, Bottom Cover and TRX shield Cover. Attach RF coaxial cable (50 ohms) between antenna connector and RF power attenuator. Attach second coaxial cable between attenuator and service monitor(RF port). Attach Microphone Cable to Radio. Attach BNC-BNC Cable between Programming Interface (RX AUDIO and TX AUDIO) and Service Monitor. Turn radio on/off switch to on position. $;$75$([KLELW(ULFVVRQ,QF ALIGNMENT PROCEDURE Figure 1 $;$75$([KLELW(ULFVVRQ,QF ALIGNMENT PROCEDURE 2, Tx VCO Adjustment a, Set the Radio to CH12. b, Push PTT-key on Programming Interface. b, Monitor DC Voltage at test point TP301 c, Adjust Rx VCO RV302 to 6.5 +/- 0.1V 3, Tx Modulation Adjustment D Set the Radio to CH5. b. Set AF generator output level to 410mV. c. Push PTT-key on Programming Interface. d. Adjust TX Modulation RV305 until the FM Deviation is 4.5+0.1KHz. e. Set the Radio to CH19 (CTCSS Tone 100 Hz). f. Set AF generator output level to zero. g. Push PTT-key on Programming Interface. h. Adjust TX Modulation RV304 until the FM Deviation is 0.8+0.1KHz. 4, Tx Frequency Adjustment a. Set the Radio to CH4. b. Push PTT-key on Programming Interface. c. Adjust Tx Frequency RV303 until the Frequency is f0+/-0.1KHz. 5, Transmitter Power Adjustment. a, No tuning for the operation. 6, Rx VCO Adjustment a, Set the Radio to CH12. b, Monitor DC Voltage at test point TP301. c, Adjust Rx VCO RV302 to 6.0 +/- 0.1V. 7, Rx 2’nd Local Frequency Adjustment a, Set the Radio to CH12. b, Set Center frequency of Spectrum Analyzer to 81.745 MHz and Band width to 1 kHz. c, Monitor 2’nd Local frequency at test point TP202. d, Adjust 2’nd Local CV204 to 81.745 MHz +/- 100 Hz.. 8, Rx Audio distortion a. Set the Radio to CH7. b. Set RF generator level to –47dBm, frequency to CH7 in figure 1, deviation to 3 kHz and tone to 1 kHz. c. Monitor the Rx Audio distortion at RX AUDIO. d. Adjust CV203 until the Audio distortion is minimum. $;$75$([KLELW(ULFVVRQ,QF ALIGNMENT PROCEDURE 9, Rx BPF Tuning a. Set RF generator level to –110dBm, frequency to CH7 in figure 1, deviation to 3 kHz and Tone to 1kHz. b. Monitor DC voltage at test point TP203. c. Set the Radio to CH7. d. Adjust Rx BPF CV201-CV202 until the DC voltage at TP203 is maximum. 4, Rx Noise Squelch Tuning a. Monitor DC voltage at test point TP208. E Set the Radio to CH7. F Set RF generator frequency to CH7 in figure 1, deviation to 3 kHz and Tone to 1kHz. d. Set RF generator level until the Rx SINAD is 8+2dB at RX AUDIO. e. Adjust Noise Squelch RV201 until the DC voltage at TP210 is 0.75 volts. $;$75$([KLELW(ULFVVRQ,QF CIRCUIT AND DEVICE DESCRIPTION (10)Oscillator and other Frequency Stabilizing Circuit Descriptions: The frequency reference is a self-contained quartz crystal oscillator (TCXO) module, operating 12.8MHz. The TCXO is compensated by internal temperature compensating circuit providing 2.5PPM stability from -30 °C to +60°C. (11) a. b. c. d. e. f. Circuit or devices employed for suppression of spurious radiation: The radio has metal cover and metal cabinet. Extensive use of discrete bypass capacitors in the Option and Remote Control Connector of the radio reduces radiation from remote cables. Low pass harmonic filter follows power amplifier output. Internal shields surround synthesizer, power amplifier and radio control logic circuitry. In addition the Control Unit package is metallized to suppress microprocessor radiation. During acquisition of the synthesizer phase lock loop, the transmitter output is inhibited by an RF gate and the removal of DC voltage to the gain control stage of the RF power chain. (12) a. b. Circuit or Devices employed for limiting modulation: Reference is made to the schematic diagram XD00-TC-0099 in Exhibit 4. Instantaneous audio limiting is accomplished Audio IC (IC501). The Audio IC provides both limiting and Post-Limiting filtering. The Audio IC runs from a regulated supply voltage, which prevents deviation changes vs. changes in radio power supply voltage. Following the Limiter, a summing amplifier is used to add in any optional tone modulation, such as CTCSS and CDCSS modulation, which is also temperature and voltage stable. The output from the summing amplifier then passes through the post- limiting filter to a modulation level adjust liner attenuator (also contain IC501), which is in turn coupled to the FM modulated oscillators. The attenuator insures maximum deviation + 4.5KHz at Wide (+ 2.25KHz at Narrow). $;$75$([KLELW(ULFVVRQ,QF CIRCUIT AND DEVICE DESCRIPTIO (13) a. b. c. d. e. f. Circuit or devices employed for suppression of spurious radiation: The radio has metal cover and metal cabinet. Extensive use of discrete bypass capacitors in the Option and Remote Control Connector of the radio reduces radiation from remote cables. Low pass harmonic filter follows power amplifie…

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

AXATR-386-X2EXHIBIT 6ERICSSON INC. 1 Table of Contents RF POWER OUTPUT 1 MODULATION CHARACTERISTICS 2 OCCUPIED BANDWIDTH 11-26 FREQUENCY STABILITY 30 INDENTIFICATION NAMEPLATE 33 TRANSIENT FREQUENCY BEHAVIOR 34-39 AXATR-386-A2EXHIBIT 6ERICSSON INC. 1 SECTION 1 RF POWER OUTPUT 2.985 (A)The RF Power measured at the output terminals: AXATR-386-A2 20 -40 Watts Method: The measurement was made per TIA/EIA-603 using the following equipment:: A 50 ohm load is attached to the output terminal through a directional coupler.. The power is measured on a HP437A power meter. AXATR-386-A2EXHIBIT 6ERICSSON INC. 2 SECTION 2 MODULATION CHARACTERISTICS Ref. Par. 2.987 (a, b, d) the frequency and amplitude response to audio inputs measured per TIA/ EIA 603 are shown on the following sheet 403-512 Mhz Section 2B Audio Frequency Response(25 ,12.5kHz) Section 2C Modulation Characteristics (25 ,12.5kHz) Equipment used was: Hewlett Packard Modulation Analyzer 8901B Hewlett Packard Audio Signal Generator 8903B Hewlett Packard Audio Analyzer 8903B At those modulation frequencies at which the transmitter is not capable of producing 30% of sys- tem deviation, audio response is calculated from measurement of input voltage producing a lesser deviation. AXATR-386-A2EXHIBIT 6ERICSSON INC. 3 AXATR-386-A2EXHIBIT 6ERICSSON INC. 4 AXATR-386-A2EXHIBIT 6ERICSSON INC. 5 AXATR-386-A2EXHIBIT 6ERICSSON INC. 6 AXATR-386-A2EXHIBIT 6ERICSSON INC. 7 AXATR-386-A2EXHIBIT 6ERICSSON INC. 8 AXATR-386-A2EXHIBIT 6ERICSSON INC. 9 AXATR-386-A2EXHIBIT 6ERICSSON INC. 10 AXATR-386-A2EXHIBIT 6ERICSSON INC. 11 SECTION 3 OCCUPIED BANDWIDTH Per 2.989 (c, 1) the measurements were made per TIA/EIA 603. 455 Mhz SECTION 3 B1, B2. C1, C2 (25 kHz, 50 & 150 kHz spans, Voice) SECTION 3 D1, 3D2, (25 kHz, 50 & 150 kHz spans, Data) SECTION 3 B2, B3. C2, C3 (12.5 kHz, (50 & 150 kHz spans, Voice) SECTION 3 D2,. D3, (12.5kHz, 50 & 150 kHz spans, Data) AXATR-386-A2EXHIBIT 6ERICSSON INC. 12 SECTION 3 OCCUPIED BANDWIDTH (FOR 25 kHz CHANNELIZATION) Method of Measurement Per 2.989 (c,1) Data on Occupied Bandwidth is presented in the form of a spectrum analyzer plot which illustrates the transmitter sidebands. A plot is taken of the carrier sideband modulated with a 2500 Hz tone at a level 16 dB greater than that required to produce 50 percent modulation. (The spectrum analyzer grid indicates the reference level of the carrier unmodulated in all exhibits.) SECTION 3B,C Bn = 2M + 2DK where M = 3000 Hz Telephony D = 4000 Hz K= 1(assumed) Bn = 14000 Hz Therefore, Emission Designator = 14K0F3E SECTION 3D Bn = 2(B/2) + 2DK where B = 9600 Hz Data, Digital Voice D = 3000 Hz K=1(assumed) Bn=15600 Therefore, Emission Designators are, 15K6F1D 15K6F1E AXATR-386-A2EXHIBIT 6ERICSSON INC. 13 AXATR-386-A2EXHIBIT 6ERICSSON INC. 14 Secton 3 B2 AXATR-386-A2EXHIBIT 6ERICSSON INC. 15 AXATR-386-A2EXHIBIT 6ERICSSON INC. 16 AXATR-386-A2EXHIBIT 6ERICSSON INC. 17 AXATR-386-A2EXHIBIT 6ERICSSON INC. 18 AXATR-386-A2EXHIBIT 6ERICSSON INC. 19 SECTION 3 OCCUPIED BANDWIDTH (FOR 12.5 kHz CHANNELIZATION) Method of Measurement Per Data on Occupied Bandwidth is presented in the form of a spectrum analyzer plot which illustrates the transmitter sidebands. A plot is taken of the carrier sideband modulated with a 2500 Hz tone at a level 16 dB greater than that required to produce 50 percent modulation. (The spectrum analyzer grid indicates the reference level of the carrier unmodulated in all exhibits.) Section B,C Bn = 2M+2DK where M = 3000 Hz Voice D = 1700Hz K = 1 (assumed) Bn = 9400Hz Therefore, Emission Designator = 9K4F3E Section D Bn = 2(B/2) + 2DK where B = 9600bps Data D = 1800 bps K=1 ( assumed Bn= 13200Hz Using Carson’s rule the above calcuation exceeds the 11.25 kHz limit per 90.209, this necessi- tated the need for an empirical measurement. The measurement for 99% power level was take with a Advantest 3271A Spectrum Analyzer with the results of. 6.57 kHz as the measure of nec- essary bandwidth at 99% of the power level. This measurement proves that due to the highly fil- tered nature of the the signal in question that the necessary bandwidth required is much less than calculated with Carson’s rule. Ericsson request that 6.57 kHz be used as the necessary band- width.with the Emission Designator 6K6F1D (For Data be used) and 6K6F1E (For Digital Voice). Therefore, Emission Designator =6K6F1D (For Data) and 6K6F1E (For Voice). AXATR-386-A2EXHIBIT 6ERICSSON INC. 20 AXATR-386-A2EXHIBIT 6ERICSSON INC. 21 AXATR-386-A2EXHIBIT 6ERICSSON INC. 22 AXATR-386-A2EXHIBIT 6ERICSSON INC. 23 AXATR-386-A2EXHIBIT 6ERICSSON INC. 24 AXATR-386-A2EXHIBIT 6ERICSSON INC. 25 AXATR-386-A2EXHIBIT 6ERICSSON INC. 26 SECTION 4 SPURIOUS EMISSIONS Reference 2.991 spurious emissions at the antenna terminals when properly loaded with an appro- priate artificial antenna were measured per TIA\EIA 603. Results are as shown in the following Sections Equipment used was: Hewlett Placard Spectrum Analyzer 140T Display, 8554-B-RF, 8552B-IF. Reference 2.993 field strength of spurious radiation was measured on our three meter range. The site and equipment are described in the site description and attenuation measurements for the Ericsson Inc. three meter radiation site #2 filed with the FCC in Columbia, Maryland, in Novem- ber of 1990. The measurement procedure is per TIA/EIA 603, but done on a three meter test site. Results are shown on the following exhibits *SAME AS FOR 25 OR 12.5 kHz modes. Tx Radiated Emissions SectionsFrequency Mhz Power in Watts M1440.0375 20 M2440.037540 N1469.9725 20 N2469.972540 Tx Conducted Emissions SectionsFrequency Mhz Power in Watts B1440.0375 20 B2440.037540 C1469.9725 20 C2469.972540 AXATR-386-A2EXHIBIT 6ERICSSON INC. 27 AXATR-386-A2EXHIBIT 6ERICSSON INC. 28 AXATR-386-A2EXHIBIT 6ERICSSON INC. 29 AXATR-386-A2EXHIBIT 6ERICSSON INC. 30 SECTION 5 FREQUENCY STABILITY Par. 2.995 (a,1) (b) (d, 1) variation of output frequency as a result of either temperature or voltage variation is reported in the graphs on the fo…

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