Alcatel USA 8702-50 MDR-8000 User Manual MDR 8000 Radio Family Users Manual Issue 9
Alcatel USA Marketing, Inc. MDR-8000 MDR 8000 Radio Family Users Manual Issue 9
Contents
- 1. User manual 01
- 2. User manual 02
- 3. User manual 03
User manual 02
MDR-8000 Microwave Digital Radios Users Manual Alcatel Part Number 3EM11931AA Issue 9, December, 2007 3400 West Plano Parkway Plano, Texas 75075-5813 U.S.A. NORTH AMERICA CUSTOMER SERVICE CENTER 24 HOURS PER DAY, 7 DAYS PER WEEK PHONE the Call Center at 888-252-2832 (US and Canada) or 613-784-6100 (International) The Call Center Agent (CSA) Will help connect you with Technical Assistance (TAC) Or assist you with a Repair and Return TAC • Phone-based technical support • After-hour emergencies • On-site technical support • E-mail support ml-tac.support@alcatel-lucent.com • Software and hardware upgrades Repair and Return • Module repair Other Services Offered • Training http://www.alcatel-lucent.com>support – Technical Training • Field Services – Installation and test • Registration http://www.alcatel-lucent.com>MyAccess – Once registered – From “MyAlcatel” go to “Alcatel Support Documentation” – Register for access to Documentation and e-mail Update notifications For Product Change Notices (PCN), Product Documentations, etc. – Software and Hardware upgrade documentation • Customized and Comprehensive Service Agreements ALCATEL-LUCENT’S PRIMARY MISSION IS SATISFYING OUR CUSTOMERS' QUALITY EXPECTATIONS. TAC Technical Assistance Center Telephone Assistance, Normal Working Hours (CST 8am 5pm M-F) TAC supports all Alcatel North America Microwave products. This includes routine questions and emergency service. Telephone Assistance, Emergency After-Hours • Defined as loss of traffic, standby equipment, or network visibility on traffic-bearing systems. • Available through our Customer Service Agents (CSA). Contact Information Ask the Customer Service Agent (CSA) for a Microwave (MW) or a Network Management Service engineer (NMS). Creating a TAC Action Request (AR) Please provide the following information to the Customer Service Agent (CSA): • • • • • • • • Last and First name Company name Telephone number City and state (Street address if applicable) or Site Name and Location Equipment type A brief description of the problem affecting their equipment Customer Priority: High, Medium, or Low. TL-9000 Severity as described below. TL-9000 Severities Defined Critical Problems severely affecting service, traffic, capacity, or network management. They require immediate corrective action. (Ex. Loss of network management capability, loss of traffic imminent or existing). Major Conditions seriously affecting system operation. They require immediate attention. (Ex. processor outage, loss of standby equipment, loss of remote access, or network managers). Minor Problems not classified as critical or major. Table of Contents Section 1 General Page 1.1 INTRODUCTION ............................................................................................. 1 - 1 1.2 CONTENT ....................................................................................................... 1 - 1 Section 2 Operation 2.1 GENERAL ........................................................................................................ 2 - 1 2.2 TURN-ON ........................................................................................................ 2 - 1 2.3 USER SYSTEM INTERFACE (USI) PROVISIONING FUNCTION/OPERATION ...... 2 - 2 2.4 OPERATING PROCEDURES .............................................................................. 2 - 2 2.4.1 Radio Receiver Manual Switching ..................................................................... 2 - 2 2.4.2 Radio Transmitter Manual Switching ................................................................. 2 - 5 2.4.3 Radio I/O Interface Manual Switching .............................................................. 2 - 5 2.4.4 MCS-11 Operation .......................................................................................... 2 - 7 2.4.5 Lamp Tests ....................................................................................................... 2 - 8 2.4.6 Alarm Checks .................................................................................................. 2 - 8 2.4.7 Orderwire Operation ....................................................................................... 2 - 8 2.4.8 Initiating Outgoing Orderwire Calls .................................................................. 2 - 8 2.4.9 Answering Incoming Orderwire Calls ................................................................ 2 - 8 2.5 TURN-OFF PROCEDURE ................................................................................... 2 - 9 2.6 EMERGENCY OPERATION .............................................................................. 2 - 9 2.7 MODEM OPERATION ...................................................................................... 2 - 9 2.8 CONTROLS, INDICATORS, TEST POINTS, AND CONNECTORS ....................... 2 - 9 Section 3 Interconnect 3.1 SECTION INTRODUCTION .............................................................................. 3 - 1 3.2 POWER CABLE CONNECTION ....................................................................... 3 - 1 3.3 PDU STRAPPING AND CONNECTIONS ........................................................... 3 - 4 3.4 SHELF/RACK ALARM CONNECTION .............................................................. 3 - 5 TOC - 1 Page 3.5 MDR-8000 SYNCHRONOUS REPEATER CONNECTIONS ................................ 3 - 5 3.5.1 Low Capacity DS1 Radios ................................................................................ 3 - 7 3.5.2 High Capacity DS3 Radios ............................................................................... 3 - 7 3.5.3 High Capacity OC3 Radios.............................................................................. 3 - 7 3.5.4 MDR-8000 Synchronous Repeater Compatibility Matrix ..................................... 3 - 8 3.5.5 MDR-8000 Synchronous Repeater Cables ......................................................... 3 - 8 3.6 DS1 CONNECTIONS (J303 IN AND J304 OUT) .............................................. 3 - 9 3.7 DS1 REPEATER (J314 ON ONE SHELF TO J314 ON SECOND SHELF) ............ 3 - 11 3.8 DS3 LBO STRAPPING AND CONNECTIONS ................................................. 3 - 12 3.9 DS3 LBO DS3 BNC CONNECTIONS (J21 THROUGH J26) ............................. 3 - 13 3.10 DS3 LBO WAYSIDE DS1 CONNECTIONS (J201 IN AND J202 OUT) ............. 3 - 14 3.10.1 Wayside DS1 Terminal .................................................................................. 3 - 14 3.10.2 Wayside DS1 Repeater .................................................................................. 3 - 14 3.11 DS3 REPEATER (J401 ON ONE SHELF TO J401 ON SECOND SHELF) ............ 3 - 16 3.12 FIBER OPTIC CABLE CONNECTIONS ............................................................. 3 - 18 3.12.1 2 or 4 Fiber Management Panel ..................................................................... 3 - 19 3.12.2 2x4 Fiber Switched Management Panel .......................................................... 3 - 19 3.13 OC3/STM-1 AUX INTERFACE BOARD WAYSIDE DS1 CONNECTIONS (J201 IN AND J202 OUT) .............................................................................. 3 - 22 3.13.1 Wayside DS1 Terminal .................................................................................. 3 - 22 3.13.2 Wayside DS1 Repeater .................................................................................. 3 - 22 3.14 OC3/STM-1 REPEATER (J203 ON ONE SHELF TO J203 ON SECOND SHELF) ................................... 3 - 23 3.15 ETHERNET CABLE CONNECTIONS ............................................................... 3 - 24 3.15.1 Automatic MDI/MDI-X Configuration............................................................... 3 - 24 3.15.2 Crossover Cable Option................................................................................. 3 - 25 3.15.3 Terminal Connections ..................................................................................... 3 - 29 3.15.4 Repeater Connections .................................................................................... 3 - 33 3.16 USI/CONTROLLER CABLE CONNECTION TO LAPTOP (J301) ......................... 3 - 35 3.17 SERVICE CHANNEL CONNECTIONS ............................................................ 3 - 37 3.17.1 2-Wire Handset Connection ........................................................................... 3 - 37 3.17.2 Service Channels Provisioning Options............................................................ 3 - 39 3.17.3 Audio 1, Audio 2 (J316, J317) Connections ................................................... 3 - 39 3.17.4 RS-232-1, RS-232-2 (J312, J313).................................................................... 3 - 43 TOC - 2 Page 3.18 MCS-11 CONNECTIONS .............................................................................. 3 - 44 3.18.1 MCS-11 Master (J307) ................................................................................... 3 - 45 3.18.2 MCS-11 Repeater-to-Spur Daisy Chain Connection (J308/J309) ....................... 3 - 48 3.18.3 MCS-11 Spur Connection (J310) .................................................................... 3 - 56 3.19 TMN CONNECTIONS ................................................................................... 3 - 58 3.19.1 Installing Module ........................................................................................... 3 - 58 3.19.2 Typical Interconnect Scenarios ........................................................................ 3 - 60 3.19.3 Front Access Connectors................................................................................. 3 - 64 3.19.4 MATING CABLES .......................................................................................... 3 - 67 3.19.5 Front Panel Craft Interface Connector J5 .......................................................... 3 - 68 3.20 ELMC (J315, J318) ........................................................................................ 3 - 69 3.21 FOREIGN ALARM INTERFACE (J305) ............................................................. 3 - 72 3.22 ALARM, STATUS, AND CONTROLS INTERCONNECT ..................................... 3 - 75 3.22.1 Controller Bus ................................................................................................ 3 - 77 3.22.2 Control Inputs ................................................................................................ 3 - 77 3.22.3 Station Alarm Inputs/TBOS Interface ............................................................... 3 - 77 3.22.4 Station Alarm Wiring ..................................................................................... 3 - 78 3.22.5 Relay Alarm/Status Outputs ............................................................................ 3 - 79 3.22.6 Relay Control Outputs .................................................................................... 3 - 80 Section 4 Initial Turnup 4.1 SECTION INTRODUCTION .............................................................................. 4 - 1 4.2 RECOMMENDED SEQUENCE ......................................................................... 4 - 1 4.3 SECURITY MANAGEMENT .............................................................................. 4 - 2 4.4 LOAD MDR-8000 SOFTWARE ON PC.............................................................. 4 - 2 4.5 TURN-ON PROCEDURE ................................................................................... 4 - 4 4.6 ESTABLISH COM PORT .................................................................................... 4 - 4 4.7 TEST PROCEDURES .......................................................................................... 4 - 7 4.8 PROVISIONING RADIO ................................................................................... 4 - 7 4.9 PROVISION ETHERNET FACILITY .................................................................... 4 - 29 4.9.1 Auto-Negotiation............................................................................................ 4 - 30 4.10 PROVISION DS1 FACILITY ............................................................................. 4 - 32 TOC - 3 Page Section 5 Maintenance 5.1 INTRODUCTION ............................................................................................. 5 - 1 5.2 MAINTENANCE PHILOSOPHY......................................................................... 5 - 2 5.3 RECOMMENDED TEST EQUIPMENT ................................................................ 5 - 4 5.4 OPTIONAL TEST EQUIPMENT .......................................................................... 5 - 4 5.5 PERSONAL COMPUTER (PC)/LAPTOP .............................................................. 5 - 5 5.6 MDR-8000 ALARMS ........................................................................................ 5 - 7 5.7 ALARM MONITORING AND INSPECTION ....................................................... 5 - 7 5.8 RECOMMENDED PERIODIC CHECKS .............................................................. 5 - 8 5.9 RADIO TROUBLESHOOTING ........................................................................... 5 - 8 5.9.1 Troubleshooting USI Alarms .............................................................................. 5 - 8 5.9.2 Troubleshooting RCVR Lockup Problems ............................................................ 5 - 8 5.9.3 Troubleshooting Performance Screen Errors ....................................................... 5 - 9 5.10 ETHERNET-SPECIFIC TROUBLESHOOTING...................................................... 5 - 24 5.10.1 Troubleshooting Using Ethernet I/O Interface Module Front Panel Indicators ......5 - 24 5.11 TMN-SPECIFIC TROUBLESHOOTING .............................................................. 5 - 26 5.12 MODULE REPLACEMENT ............................................................................... 5 - 29 5.13 POWER SUPPLY REMOVAL AND REPLACEMENT ............................................ 5 - 32 5.14 CONTROLLER REMOVAL AND REPLACEMENT ............................................... 5 - 33 5.15 DS3 I/O INTERFACE REMOVAL AND REPLACEMENT ..................................... 5 - 37 5.16 OC3/STM-1/ETH I/O INTERFACE REMOVAL AND REPLACEMENT ................ 5 - 39 5.17 XMTR REMOVAL AND REPLACEMENT ........................................................... 5 - 40 5.18 XMT CRYSTAL OSCILLATOR FREQUENCY CORRECTION ................................ 5 - 46 5.19 XMTR OUTPUT LEVEL CHECK (NO PA) ........................................................... 5 - 47 5.20 IN-SERVICE XMTR CARRIER NULL ADJUSTMENT USING SPECTRUM ANALYZER....................................................................... 5 - 48 5.21 XMTR OUTPUT LEVEL CALIBRATION ............................................................... 5 - 56 5.22 RCVR REMOVAL AND REPLACEMENT ............................................................ 5 - 61 5.23 RCV CRYSTAL OSCILLATOR FREQUENCY CORRECTION ................................ 5 - 64 5.24 PA REMOVAL AND REPLACEMENT ................................................................ 5 - 65 5.25 PA OUTPUT LEVEL CALIBRATION ................................................................... 5 - 67 5.26 CHANGING FREQUENCY............................................................................. 5 - 72 5.27 CLEANING ................................................................................................... 5 - 72 TOC - 4 Section 6 User Guide 6.1 INTRODUCTION ............................................................................................. 6 - 1 6.2 ANALOG SCREEN .......................................................................................... 6 - 1 6.2.1 PA (DC MON) ................................................................................................. 6 - 1 6.2.2 TX (PWR MON) ............................................................................................... 6 - 1 6.2.3 ATPC Voltage .................................................................................................. 6 - 1 6.2.4 RX (RSL 1) dBm ................................................................................................ 6 - 1 6.2.5 RX (EYE MON) ................................................................................................ 6 - 1 6.2.6 RX (AFC MON)................................................................................................ 6 - 1 6.2.7 Battery Voltage ................................................................................................ 6 - 1 6.3 DS1/E1 RADIO PERFORMANCE SCREEN ........................................................ 6 - 3 6.3.1 Repeater CRC Err Sec ...................................................................................... 6 - 3 6.3.2 Radio Severe Err Sec........................................................................................ 6 - 3 6.3.3 Radio Outage Sec............................................................................................ 6 - 3 6.3.4 Radio A and B Outage Sec .............................................................................. 6 - 3 6.3.5 Radio CRC Err Sec ........................................................................................... 6 - 3 6.3.6 Radio CRC Errors ............................................................................................. 6 - 3 6.3.7 Radio Internal BER............................................................................................ 6 - 3 6.3.8 Radio Average BER .......................................................................................... 6 - 3 6.4 DS3 RADIO PERFORMANCE MONITORING SCREEN ...................................... 6 - 5 6.4.1 Line 1-3 DS3 Errors .......................................................................................... 6 - 5 6.4.2 Line 1-3 DS3 BER ............................................................................................. 6 - 5 6.4.3 Radio Errors..................................................................................................... 6 - 5 6.4.4 Radio Error Seconds......................................................................................... 6 - 5 6.4.5 Radio Severe Error ........................................................................................... 6 - 5 6.4.6 Radio BER ....................................................................................................... 6 - 5 6.5 OC3/STM-1 RADIO PERFORMANCE MONITORING SCREENS ........................ 6 - 6 6.5.1 OC3/STM-1 Errors .......................................................................................... 6 - 6 6.5.2 OC3/STM-1 Error Seconds .............................................................................. 6 - 6 6.5.3 OC3/STM-1 Severe Error Seconds ................................................................... 6 - 6 6.5.4 OC3/STM-1 Severe Error Frame....................................................................... 6 - 6 6.5.5 OC3/STM-1 BER ............................................................................................. 6 - 6 6.5.6 Line 1-3 DS1 Error Seconds .............................................................................. 6 - 6 6.5.7 Radio Errors..................................................................................................... 6 - 6 TOC - 5 6.5.8 Radio Error Seconds ........................................................................................ 6 - 8 6.5.9 Radio Severe Error ........................................................................................... 6 - 8 6.5.10 Radio BER ....................................................................................................... 6 - 8 6.6 ETHERNET RADIO PERFORMANCE MONITORING SCREEN ............................. 6 - 8 6.6.1 RF Receive ....................................................................................................... 6 - 8 6.6.2 GPF Receive .................................................................................................... 6 - 9 6.7 ETHERNET PERFORMANCE MONITORING SCREEN ........................................ 6 - 9 6.7.1 IN (To RF Transmit)........................................................................................... 6 - 9 6.7.2 OUT (From RF Receive)................................................................................... 6 - 10 6.8 DS1/E1 RADIO CONTROL SCREEN .............................................................. 6 - 11 6.8.1 In-Service Controls ......................................................................................... 6 - 11 6.8.2 System Loopback Controls .............................................................................. 6 - 11 6.8.3 User Controls ................................................................................................. 6 - 11 6.8.4 DS1 Line Loopback Controls ........................................................................... 6 - 11 6.9 DS3 RADIO CONTROL SCREEN .................................................................... 6 - 13 6.9.1 In-Service Controls ......................................................................................... 6 - 13 6.9.2 System Loopback Controls .............................................................................. 6 - 13 6.9.3 User Controls ................................................................................................. 6 - 14 6.9.4 Wayside DS1 Line Loopback Controls ............................................................. 6 - 14 6.10 OC3/STM-1 RADIO CONTROL SCREEN ........................................................ 6 - 16 6.10.1 In-Service Controls ......................................................................................... 6 - 16 6.10.2 System Loopback Controls .............................................................................. 6 - 16 6.10.3 User Controls ................................................................................................. 6 - 16 6.11 ETHERNET RADIO CONTROL SCREEN ........................................................... 6 - 18 6.11.1 In-Service Controls ......................................................................................... 6 - 18 6.11.2 User Controls ................................................................................................. 6 - 18 6.11.3 System Loopback ........................................................................................... 6 - 19 6.11.4 DS1 Line Loopback ........................................................................................ 6 - 21 6.11.5 Inventory Screen ............................................................................................ 6 - 24 TOC - 6 Note The information contained in this section is a summary of the section with the same title, but not the same section number, on the enclosed CD. “Refer to Cd” is used throughout this section to refer the reader to the detail information on the CD. Go to this section on the CD for interactive links to the detail information referred to in this section. INITIAL TURNUP SECTION INTRODUCTION This section describes the procedures required to turn up the MDR-8000 Microwave Digital Radios after installation. 4.1 This provisioning part of the section describes provisioning options available with the MDR-8000 software application. Provisioning allows for the definition, editing, and storing of specific functions. The MDR-8000 provides the ability to provision equipment and facilities through a series of Windows™-based screens and messages. The Provisioning menu lists equipment and functions which may be provisioned. You should use only those provisioning screens that are applicable to your radio. RECOMMENDED SEQUENCE Perform the following initial turnup procedures in sequence: 4.2 A. Install software on PC. Note Software installed at the factory before delivery should not be overwritten by downloading to the radio controller at initial turnup. Refer to Maintenance section on the attached CD for procedure to upgrade existing software. B. Turn on the radio. C. Establish communication between radio and USI computer. Note Saving provisioning on disk provides a reference for any future provisioning changes. D. Provision radio. 4-1 4.3 SECURITY MANAGEMENT Note A password is not required to operate the MDR-8000. The radio is shipped without a password and if a password is desired, it must be entered using the Change Password screen. Once entered initially, the password must be entered each time the user wants to access the provisioning screens (level 1 password required) or download software (level 2 password required). The MDR-8000 application software offers user password security management using two different levels of passwords. User security deals with access level assigned to specific users. The level of user security affects the type and number of commands an individual user may execute. This prevents an unqualified user’s access to high-level commands. Level 1 password allows the user to perform all tasks except downloading software. Level 2 password allows access to all functions and is the highest level. LOAD MDR-8000 SOFTWARE ON PC Before operating the user system interface (USI) for the first time, the programs contained on the CD ROM must be installed on the PC. The installation process configures the PC for its unique requirements and prepares it to run the program. 4.4 4-2 A. Insert CD ROM disk into PC. B. On Windows desktop, double click on My Computer icon. My Computer window displays. C. In My Computer window, click on CD ROM icon. Files window displays D. See Figure 4 - 1. Follow directions and load USI software on PC. D:\ File Edit Back Address View Go Forward Favorites Up Help Cut Copy Paste Undo Delete Properties Views C:\ 1 DOUBLE CLICK setup.exe setup.1st win11_xx.CAB LOADING FILES MDR-8000 Universal USI Setup Setup cannot install system files or update shared files if they are in use. Before proceeding, we recommend that you close any application you may be running. 2 CLICK HERE OK Exit Setup MDR-8000 Universal USI Setup Begin the installation by clicking the button below. CLICK HERE Click this button to install MDR-8000 Universal USI software to the specified destination directory. COPYING FILES Directory: Change Directory c:\winuniversal_xx Exit Setup STARTING DOWN LOAD MDR-8000 Universal USI Setup MDR-8000 Universal USI Setup was completed successfully. OK 4 CLICK HERE END DOWNLOAD LMW-4023 10/16/05 Figure 4 - 1 Load USI Software on PC 4-3 4.5 TURN-ON PROCEDURE Note For user safety, user should become familiar with locations of power distribution units and circuit breakers associated with the MDR-8000 radio. Perform the following procedure to turn on the radio. A. On power supply module, set PA ON/OFF switch to OFF. Yellow PA OFF indicator will light. B. On power supply module, set POWER ON 1/OFF 0 switch to ON 1. C. On power supply module, set PA ON/OFF switch to ON. Yellow PA OFF indicator will turn off. Note Until both the local and farend radios in the hop are turned on and operating properly and the RF path has been established, alarm conditions will exist. D. Observe CHAN ALM indicator on RCVR module is lit. E. Wait for RCVR to lock on frequency. When RCVR is locked on frequency (approximately 5 to 30 seconds), CHAN ALM indicator on RCVR module will turn off. F. Verify all front panel alarm indicators on radio shelf are off. If not, refer to Maintenance section for troubleshooting. ESTABLISH COM PORT Establish communication between the USI computer and the controller in the radio. 4.6 Note Disable infrared option on laptop (if equipped) to prevent disrupting communication on com port. A. Connect RS-232 interface cable between USI connector on controller and PC. See Figure 4 - 2. B. On Windows desktop, click on Start icon. Program menu displays. Note Only one COM port can be used at a time. 4-4 AE–37( ) CNTLR C1 MDR–8000 SHELF TO CONNECTOR J301 (CONNECTS TO AE–37 CONTROLLER) RS–232C INTERFACE CABLE USI TERMINAL RS–232C PORT MW211–0066–1 101598 Figure 4 - 2 USI Computer Hookup 4-5 C. On Program menu, click on Win USI program. Win USI screen displays with message COMMUNICATING to indicate PC is communicating with the radio controller. If COMMUNICATION DOWN message is displayed, perform procedure shown on Figure 4 - 3 to change COM port. D. STOP. This procedure is complete. DOUBLE CLICK HERE TO OPEN ELMC ADDRESS LIST DOUBLE CLICK HERE TO OPEN ALARM STATUS SCREEN Alcatel User Interface File View Setup Options ELMCAddress: F4 F5 F6 Alarm Status Analog Monitor F7 Station Alarm Performance R101 LCL FAR RMT R101 F8 F9 User Control Provisioning LOCAL STATUS ALARM Communicating*** CLICK HERE. CONFIRMATION MESSAGE DISPLAYS. Com 1 com 1 com 2 com 3 com 4 OK 1:44:19 PM CLICK HERE TO SAVE Cancel USI Version 1.20 Invalid port number CLICK HERE. COMM PORT SELECTION SCREEN DISPLAYS. If COM port is correct ALM/status screen displays. If not, Comm port error message displays. Controller Version 1.20 Please select a valid com-port in the following picklist com 3 OK com 1 com 2 com 3 com 4 Figure 4 - 3 Communications Port Setup 4-6 ELMC ADDRESS Save *.iniFile Would you like to save this setting? Thursd ay,Jan November 30 , 200 Tuesday, u Com Port Error R101 OK LMW-7232 02/02/04 Cancel SELECT ANOTHER COM PORT LMW-1023 01/12/07 TEST PROCEDURES The radio has been properly aligned and tested at the factory before shipment eliminating the need for testing after initial turn-up. The only time testing and/or adjustment is required is after a maintenance action such as removal and replacement procedure and/or constant alarms requiring corrective maintenance action. The completed maintenance action procedure(s) will reference any required test procedure(s). 4.7 4.8 PROVISIONING RADIO Note Changes to provisioning do not have to be made in any particular order. Open radio provisioning screens. On main screen, double click on tower icon. Status and alarm screen displays. Click on Provisioning. Check current provisioning and change as required. See Figure 4 - 4 for recommended sequence. 4-7 START FIG 4-5 DS1/E1, DS3, OC3/STM-1, ETH RADIO CONFIG PROVISIONING DS1/E1 DS3 OC3/STM-1 ETH FIG 4-6 DS1/E1 RADIO CONFIG PROVISIONING FIG 4-8 DS3 RADIO CONFIG PROVISIONING FIG 4-11 OC3/STM-1 RADIO CONFIG PROVISIONING FIG 4-14 ETH RADIO CONFIG PROVISIONING FIG 4-7 DS1/E1 FACILITIES PROVISIONING FIG 4-9 DS3 FACILITIES PROVISIONING FIG 4-12 OC3/STM-1 FACILITIES PROVISIONING FIG 4-15 ETH FACILITIES PROVISIONING FIG 4-10 DS3 RADIO WAYSIDE DS1 FACILITIES PROVISIONING FIG 4-13 OC3/STM-1 RADIO WAYSIDE DS1 FACILITIES PROVISIONING FIG 4-17 ETH DS1 FACILITIES PROVISIONING SAVE PROVISIONING FIG 4-18 ENTER PASSWORDS FIG 4-19 THRU 4-24 SERVICE CHANNEL PROVISIONING OPTIONAL INCLUDES PROVISIONING FOR: AUDIO RS-232 MCS-11 TMN FIG 4-25 ELMC PROVISIONING FIG 4-26 ELMC REMOTE TIME-OUT CONSTANT PROVISIONING FIG 4-27 CONTROL NAMES PROVISIONING OPTIONAL ENTRY FIG 4-28 STATION ALARM NAMES PROVISIONING OPTIONAL ENTRY END Figure 4 - 4 Provisioning Sequence 4-8 MDR-1287 Issue 8 03/10/07 Note Screen for OC3 radio is shown. DS1/E1, DS3, SNMP, and ETH radio configuration is similar. Displays modulation scheme. Not provisionable. Displays number of lines available as determined by capacity key. Changing number of lines requires changing capacity key. Select DISABLE or double click to enable. (00 displays). Enter 2-digit number between 00 and 99 as identification for radio RCV/XMT pair. Use for frequency coordination in congested areas that have nearby transmitters at same frequency with same modulation. ID must be same at both ends of Hop. If RCV ID does not match ID received from far-end XMTR, a USI alarm and rack alarm are generated. Backspace to delete current address and enter 5-digit remote rack address. See Figure 6-11 for details. Enable or disable automatic power control (ATPC) function. Select ATPC Disable, ATPC Enabled, or ATPC with Timeout from dropdown list. See Sheet 2 of 3 for details. Select TERMINAL, REPEATER, RING TERMINAL or RING REPEATER from a dropdown list. Select REPEATER if traffic and service channel (four rails of X/Y data) are being transported between J314 of both shelves. Displays radio type. Not provisionable. SYSTEM ID: RADIO TYPE: RADIO CONFIG: SYSTEM ALARM RCV SWITCHING: OPTIONS: ELMC: R112 MDR-8000 OC3 RADIO LINK ID: OC-3 Disable 128 TCM 10-11 GHz Hot-Standby Tx Hot-Standby Rx TERMINAL ATPC Disable NO PA Relay Card Present Major/Minor Relays ON/NO Station Alarm 13-16 RSL-Sw Enable Eye BER=1x10-6 Option Key: Stat/Prov/WaySide Select RSL-Sw Enable to enable automatic receiver switching based on RSL. When enabled, receiver switches if: 1. On-LINE RCV RSL is below RCV AGC threshold, and 2. Off-LINE RCV RSL is abobe RCV AGC threshold. Select RSL-Sw Disable to disable automatic receiver switching. Select Major/Minor to trigger major alarm on any alarm on ON-LINE side and minor alarm on any alarm on OFF-LINE side. Select Visual/Audible to trigger rack alarm on any alarm on ON-LINE side. Displays ELMC option key type installed on controller. STAT (STATUS)/PROV (remote provisioning)/wayside (with wayside DS1 monitoring). Not provisionable. Changing display requires changing option key. RSL Alarm Enable Degrade Enable Select Station Alarm 13-16 to enable Station Alarm 13-16 inputs to relay INFTC. When external TBOS is wired to radio, select TBOS Display 1-8 to enable TBOS drivers on controller and select a TBOS display (1-8) to view. Select A&B PA Present if shelf is equipped with A&B PAs, or A OR B PA ONLY if shelf is equipped with only one PA, or NO PA if shelf is not equipped with PA. Unequipped PA alarms are disabled. Select approximate error rate at which eye closure alarm activates and switching occurs: EYE BER=1X10-5, 1X10-6, 1X10-7, 1X10-8 or select Eye BER Disable to activate alarms at approximately 1x10-6 without receivers switching. Select Relays ON/NO (normally open-high impedance) or Relays ON/NC (normally closed-ground) on alarm for alarms/status outputs, or Relays OFF. Refer to relay interface in Theory section for deatils. MDR-1030 09/02/04 Figure 4 - 5 DS1/E1, DS3, OC3/STM-1, ETH Radio Configuration Provisioning (Sheet 1 of 2) 4-9 Note Screen shown is for DS1 Radio. E1, DS3, OC3/STM-1, and ETH radio configuration provisioning is similar. Changes to provisioning do not have to be made in any particular order. NOTES 1. ATPC T/O IS A CMD PATH FUNCTION PERFORMED AT XMTR. 2. ATPC TRACKS RCVR WITH HIGHEST LEVEL. 3. LOW POWER ATPC IS 10dB DOWN FROM HIGH POWER. SELECT ATPC OR ATPC T/O ENABLE AUTOMATIC XMT POWER CONTROL (ATPC) FUNCTION. WHEN PROVISIONED ATPC OR ATPC T/0, ONE RCVR OUT-OF-LOCK CAUSES HIGH POWER ATPC FOR 10 SECONDS EVERY ONE MINUTE. IF BOTH RCVRS ARE OUT-OF-LOCK, ATPC GOES TO HIGH POWER AND STAYS AT HIGH POWER UNTIL ONE RCVR (REVERTS TO ONE RCVR OUT-OF-LOCK MODE) OR BOTH RCVRS LOCK. WHEN PROVISIONED ATPC T/O (TIMEOUT), IF CMD PATH IS LOST, ATPC GOES TO HIGH POWER FOR FIVE MINUTES THEN GOES TO LOW POWER. THEN, EVERY HOUR, ATPC GOES HIGH FOR 10 SECONDS AND THEN GOES TO LOW POWER. THIS CONTINUES UNTIL THE CMD PATH IS RESTORED. SELECT DISABLE TO DISABLE ATPC FUNCTION. SYSTEM ID: RADIO TYPE: RADIO CONFIG: ELMC: TEST1 MDR-8000 DS1 RADIO LINK ID: Disable 16 LINES HS Tx/HS Rx TERMINAL 128 TCM ATPC Enabled A&B PA Present SYSTEM ALARM Visual/Audible RELAYS ON/NO RCV SWITCHING: RSL-SW Disable BER Disable OPTIONS: Option Key: 6-8 GHz Relay Card Present Station Alarm 13-16 RSL Alarm Enable Stat/Prov/WaySide SELECT Relay Card Present IF SHELF IS EQUIPPED WITH A RELAY INTFC MODULE. SELECT Relay Card Not Present IF SHELF IS NOT EQUIPPED WITH A RELAY INTFC CARD. SELECT RSL Alarm Enable TO ENABLE ALARM ON USI ALARM AND STATUS SCREEN WHEN RSL DROPS BELOW THRESHOLD. SELECT RSL Alarm Disable TO INHIBIT ALARM. MDR-1031 12/06/07 Figure 4 - 5 DS1/E1, DS3, OC3/STM-1, ETH Radio Configuration Provisioning (Sheet 2 of 2) 4-10 Radio Configuration Service Channel DS1 Facilities SYSTEM ID: ELMC: DS105 RADIO LINK ID: RADIO TYPE: MDR-8000 DS1 RADIO CONFIG: Non-Standby Tx Hot-Standby Rx ATPC Enabled A&B PA Present Relay Card Present SYSTEM ALARM: Visual/Audible RELAYS ON/NO Station Alarm 13-16 RCV SWITCHING: Disable AGC EYE BER Disable Degrade Disable OPTIONS: Option Key: 16 LINES Disable 128 TCM 6GHz TERMINAL Stat/Prov/WaySide SELECT ONE ON EACH Friday, April 8, 2005 Resulting Configurations MDR-8000 9:16:47 AM USI Version 3.01 None Non-Standby Tx Hot-Standby Tx Freq-Diversity Tx RSL Alarm Enable None Non-Standby Rx Hot-Standby Rx Space-Diversity Rx Freq-Diversity Rx 3-DS3 Controller Version P3.03 NS Tx/NS Rx (Refer to CD) NS Tx/HS Rx NS Tx/SD Rx HS Tx/HS Rx (See Example 1) HS Tx/SD Rx (See Example 2) FREQ DIV (Refer to CD). NS = Non-Standby HS = Hot-Standby SD = Space Diversity Note Any combination can be selected. Select Prov Save and an Invalid Configuration box/message displays if combination selected results in an invalid configuration. MDR-1157 03/10/07 Figure 4 - 6 DS1/E1 Radio Configuration Provisioning 4-11 Radio Configuration Service Channel SYSTEM ID: ELMC: DS105 RADIO TYPE: MDR-8000 DS1 RADIO CONFIG: SYSTEM ALARM: RADIO LINK ID: 16 LINES 128 TCM Hot-Standby Rx A&B PA Present Relay Card Present Major/Minor RELAYS ON/NO Station Alarm 13-16 EYE BER Disable Degrade Disable RSL-Sw Disable OPTIONS: Repeater RSL Alarm Disable Stat/Prov/WaySide MDR-8000 9:16:47 AM USI Version 3.01 3-DS3 Controller Version P3.03 LBO X-CONN (TERM) OR 2ND MDR-8000 SHELF (RPTR) U6-8GHz Hot-Standby Tx Option Key: 2ND MDR-8000 SHELF (RPTR) Disable ATPC Disable RCV SWITCHING: Friday, April 8, 2005 DS3 Facilities SC/SYNC XMTR PA (OPTIONAL) I/O INTFC XMT SW RF IN/OUT Rx DS1/E1 1-16 Rs MX DATA/ CLK/SYNC DIPLEXER RCVR DX DATA/ CLK/SYNC XMTR PA (OPTIONAL) I/O INTFC Rx Rs RCVR MDR-1161 04/20/05 DS1/E1 PROVISIONING EXAMPLE 1: HS Tx/HS Rx 4-12 Radio Configuration Service Channel SYSTEM ID: ELMC: DS105 RADIO TYPE: MDR-8000 DS1 RADIO CONFIG: SYSTEM ALARM: RADIO LINK ID: 16 LINES 128 TCM U6-8GHz Hot-Standby Tx Space Diversity Rx A&B PA Present Relay Card Present Major/Minor RELAYS ON/NO Station Alarm 13-16 EYE BER Disable Degrade Disable RSL-Sw Disable OPTIONS: Option Key: Repeater MDR-8000 9:16:47 AM USI Version 3.01 3-DS3 Controller Version P3.03 SC/SYNC XMTR PA (OPTIONAL) I/O INTFC X-CONN (TERM) OR 2ND MDR-8000 SHELF (RPTR) RSL Alarm Disable Stat/Prov/WaySide LBO 2ND MDR-8000 SHELF (RPTR) Disable ATPC Disable RCV SWITCHING: Friday, April 8, 2005 DS1 Facilities XMT SW Rx DS1/E1 1-16 Rs MX DATA/ CLK/SYNC RCVR DIPLEXER RF IN/OUT DX DATA/ CLK/SYNC XMTR PA (OPTIONAL) I/O INTFC Rx Rs RCVR RCV FILTER RF IN FROM SECOND ANTENNA MDR-1135 04/20/05 DS1/E1 PROVISIONING EXAMPLE 2: HS Tx/SD Rx 4-13 Note If installation at both ends of a hop are complete except for connecting to customer inputs/outputs and it is desirable to have an alarm-free system, alarm reporting on the incomplete connections can be disabled temporarily through provisioning. You can communicate over the hop even if you do not have the radio connected to customer DS1 inputs; however, you will alarm unless you select OFF to disable INSERT CHANNEL (located on the USI DS1 Facilities screen) for all equipped lines. Disabling the DS1 insert function disables both the lines and alarm reporting for the lines. After all customer connections are complete, alarm reporting can be restored to normal. To restore alarm reporting to normal, set INSERT CHANNEL on DS1 Facilities screen to ON. SELECTING ON INSERTS LOCAL DATA AND TURNS ON THE SELECTED CHANNEL. SELECTING OFF TURNS OFF LOCAL DATA INSERT AND TURNS OFF LINE INPUT ALARM REPORTING ON THE SELECTED CHANNEL. SELECTING NM INSERTS AN AIS SIGNAL AND TURNS OFF LINE INPUT ALARMS ON THE SELECTED CHANNEL. • ALWAYS SELECT ON WHEN LOCAL DATA IS INSERTED. • ALWAYS SELECT OFF AT EITHER A TERMINAL OR A NON-PROTECTED REPEATER WHEN LOCAL DATA IS NOT INSERTED. Note The term "LINE" is used to describe an input/output signal at DS1/E1 rate (1.544 MB/S 2.043 MB/S). The term "CHANNEL" is used to describe a multiplexed signal, at a higher rate than DS1/E1. The inserted channel is output of multiplexer circuit. The dropped channel is input to demultiplexer circuit. The multiplexer and demultiplexer circuits are located on I/O interface module. • ONLY SELECT NM ON UNUSED CHANNELS AT PROTECTED REPEATERS. UNUSED CHANNELS ARE DEFINED AS CHANNELS THAT HAVE NEITHER LOCALLY INSERTED DATA NOR PASS-THRU DATA ACROSS THE REPEATER CABLE. SELECT OFF IF LOCAL DATA IS NOT INSERTED AND THE CHANNEL HAS PASS-THRU DATA ACROSS THE REPEATER CABLE (NOTE: SELECTING NM IN THIS CASE WILL CAUSE THE DATA FROM THE REPEATER TO BE OVERWRITTEN WITH AN AIS SIGNAL PRIOR TO TRANSMISSION). SELECT ON TO DROP ALL LINES OR OFF TO DISABLE ALL LINES AND ALARMS. FOR EACH LINE, SELECT ON TO DROP LINE OR OFF TO DISABLE LINE AND ALARMS. USING THE REPEATER CABLE TO PASS DS1 DATA ON CHANNELS 5-16 IS NOT RECOMMENDED ON MDR-8000 RADIOS. PASSING THE DATA THROUGH ON THESE CHANNELS WILL PREVENT INDEPENDENT SWITCHING BETWEEN THE DS1 I/O AND THE RADIO TRANSMITTERS. THE DATA SHOULD BE DROPPED AND REINSERTED AT EACH REPEATER NODE. LINES INSERT CHANNEL ON ON OFF OFF OFF OFF OFF OFF DROP CHANNEL ON ON OFF OFF OFF OFF OFF OFF LINE CODING AMI AMI AMI AMI AMI AMI AMI AMI AIS INHIBIT OFF OFF OFF OFF OFF OFF OFF OFF LINE 10 11 12 13 14 15 16 INSERT CHANNEL OFF OFF OFF OFF OFF OFF OFF OFF DROP CHANNEL OFF OFF OFF OFF OFF OFF OFF OFF LINE CODING AMI AMI AMI AMI AMI AMI AMI AMI AIS INHIBIT OFF OFF OFF OFF OFF OFF OFF AIS SIGNAL ALL ONES DS1 LINE LENGTH SELECT ALL 1s OR ALL 0s AIS DATA FORMAT FOR ALL LINES. SELECT AMI OR B8ZS CODING FOR EACH DS1 LINE. E1 LINE CODING IS ALWAYS HDB3. 4-14 SELECT AMI OR B8ZS CODING FOR ALL DSI LINES Select All Select All OFF 0-150 SELECT ON OR OFF. WHEN SET TO ON, AIS INSERTION IS INHIBITED ON SELECTED DS1/E1. FOR ALL DS1 LINES, SELECT RANGE THAT MATCHES ACTUAL DISTANCE TO CROSS-CONNECT 0-150 (TEO OFF), 150-330 (TEO ON), 330-480 (TEO OFF) OR 480-660 (TEO ON) FT. FOR E1, NO DISTANCE IS DISPLAYED. Figure 4 - 7 DS1/E1 Facilities Provisioning SELECT ON TO INSERT ALL LINES OR OFF TO DISABLE ALL LINES AND ALARMS. SELECT ON TO INHIBIT AIS INSERTION ON ALL LINES. SELECT OFF TO ENABLE AIS INSERTION ON ALL LINES. LMW-3020 04/04/07 Radio Configuration Service Channel SYSTEM ID: ELMC: DS305 RADIO TYPE: MDR-8000 DS3 RADIO CONFIG: Non-Standby Tx DS3 Facilities RADIO LINK ID: 3 LINES Disable 64 QAM 6GHz Hot-Standby Rx TERMINAL ATPC Enabled A&B PA Present Relay Card Present SYSTEM ALARM: Visual/Audible RELAYS ON/NO Station Alarm 13-16 RCV SWITCHING: Disable AGC EYE BER Disable Degrade Disable OPTIONS: Option Key: Resulting Configurations MDR-8000 9:16:47 AM USI Version 3.01 None Non-Standby Tx Hot-Standby Tx Freq-Diversity Tx SIMPLEX NS Tx SIMPLEX HS Tx RSL Alarm Enable Stat/Prov/WaySide SELECT ONE ON EACH Friday, April 8, 2005 WaySide DS1 Facilities None Non-Standby Rx Hot-Standby Rx Space-Diversity Rx Freq-Diversity Rx SIMPLEX NS Rx SIMPLEX HS/SD Rx NS = NON-STANDBY HS = HOT-STANDBY SD = SPACE DIVERSITY 3-DS3 Controller Version P3.03 NS Tx/NS Rx (Refer to CD) NS Tx/HS Rx NS Tx/SD Rx HS Tx/HS Rx (See Example 1) HS Tx/SD Rx (See Example 2) FREQ DIV HS Tx/NS Rx SIMPLEX NS Tx SIMPLEX HS Tx (Refer to CD) SIMPLES NS Rx SIMPLEX HS/SD Rx Note Any combination can be selected. Select Prov Save and an Invalid Configuration box/message displays if combination selected results in an invalid configuration. MDR-1129 03/10/07 Figure 4 - 8 DS3 Radio Configuration Provisioning 4-15 Radio Configuration Service Channel SYSTEM ID: ELMC: DS305 RADIO TYPE: MDR-8000 DS3 RADIO CONFIG: SYSTEM ALARM: RADIO LINK ID: WaySide DS1 Facilities Disable 3 LINES 64 QAM U6-8GHz Hot-Standby Tx Hot-Standby Rx ATPC Disable A&B PA Present Relay Card Present Major/Minor RELAYS ON/NO Station Alarm 13-16 EYE BER Disable Degrade Disable RCV SWITCHING: RSL-Sw Disable OPTIONS: Option Key: Friday, April 8, 2005 DS3 Facilities Repeater RSL Alarm Disable Stat/Prov/WaySide MDR-8000 9:16:47 AM USI Version 3.01 3-DS3 Controller Version P3.03 2ND MDR-8000 SHELF (RPTR) X-CONN (TERM) OR 2ND MDR-8000 SHELF (RPTR) SC/SYNC LBO DS3 XMTR PA (OPTIONAL) I/O INTFC XMT SW WAYSIDE DS1 SC DIPLEXER RF IN/OUT RCVR SYNC XMTR PA (OPTIONAL) I/O INTFC RCVR DS3 PROVISIONING EXAMPLE 1: HS Tx/HS Rx 4-16 MDR-1134 04/12/05 Radio Configuration Service Channel SYSTEM ID: ELMC: DS105 RADIO TYPE: MDR-8000 DS1 RADIO CONFIG: SYSTEM ALARM: RADIO LINK ID: 16 LINES 128 TCM U6-8GHz Hot-Standby Tx Space Diversity Rx A&B PA Present Relay Card Present Major/Minor RELAYS ON/NO Station Alarm 13-16 EYE BER Disable Degrade Disable RSL-Sw Disable OPTIONS: Option Key: Repeater MDR-8000 9:16:47 AM USI Version 3.01 3-DS3 Controller Version P3.03 SC/SYNC XMTR PA (OPTIONAL) I/O INTFC X-CONN (TERM) OR 2ND MDR-8000 SHELF (RPTR) RSL Alarm Disable Stat/Prov/WaySide LBO 2ND MDR-8000 SHELF (RPTR) Disable ATPC Disable RCV SWITCHING: Friday, April 8, 2005 DS1 Facilities XMT SW Rx DS1/E1 1-16 Rs MX DATA/ CLK/SYNC RCVR DIPLEXER RF IN/OUT DX DATA/ CLK/SYNC XMTR PA (OPTIONAL) I/O INTFC Rx Rs RCVR RCV FILTER RF IN FROM SECOND ANTENNA MDR-1135 04/20/05 DS3 PROVISIONING EXAMPLE 2: HS Tx/SD Rx 4-17 Note If installation at both ends of a hop are complete except for connecting to customer inputs/outputs and it is desirable to have an alarm-free system, alarm reporting on the incomplete connections can be disabled temporarily through provisioning. You can communicate over the hop even if you do not have the radio connected to customer DS3 and wayside DS1 inputs; however, you will alarm. On the DS3 Facilities screen, set XMT ALARM DISABLE and RCV ALARM DISABLE to ON to disable DS3 alarm reporting on the wayside DS1 Facilities screen, set ALARM Lockout to ON to disable alarm reporting for all equipped wayside DS1 lines. After all customer connections are complete, alarm reporting can be restored to normal. SELECT ON TO DISABLE VIOLATION MONITORING AND REMOVAL (VMR) ON LINE DUE TO LOSS OF UPSTREAM DS3 FRAME. DS3 PARITY ERRORS ARE NOT REMOVED AND ARE PASSED ON TO NEXT SECTION. SELECT OFF TO ENABLE VMR AND REMOVE DS3 PARITY ERRORS. SELECT OFF TO REPORT ALL ALARMS. SELECT ON TO DISABLE ALARMS FOR LINE. SELECT ON TO BRIDGE DS3 LINE 1 ONTO SELECTED LINE(S) 2 AND/OR 3 TO PREVENT ALARMS ON UNUSED LINE(S). SELECT OFF TO DISABLE FUNCTION. TX/RX INTERFACE A TX/RX INTERFACE B DS3 LINES INPUT LINE BRIDGE NA OFF OFF NA OFF OFF XMT ALARM DISABLE OFF OFF OFF OFF OFF OFF XMT VMR DISABLE ON ON ON ON ON ON RCV ALARM DISABLE OFF OFF OFF OFF OFF OFF RCV VMR DISABLE OFF OFF OFF OFF OFF OFF AIS SIGNAL DISABLE OFF OFF OFF OFF OFF OFF AIS SIGNAL TIMING 10/350 10/350 10/350 10/350 10/350 10/350 BIT ERROR RATE Select All DS3 DEGRADE=10E-5 WHEN Degrade Enable IS SELECTED ON RADO CONFIGURATION PROVISIONING SCREEN, SELECT APPROXIMATE ERROR RATE AT WHICH BER Deg Alm ALARM ACTIVATES AND RCVR SWITCHING OCCURS: 10E-5 (1X10-5), 10E-6 (1X10-6), 10E-7 (1X10-7), OR 10E-8 (1X10-8). WHEN Degrade Disable IS SELECTED, SELECT ERROR RATE AT WHICH BER Deg Alm ACTIVATES WITHOUT RCVRS SWITCHING. SELECT 10/350 TO INSERT AIS (BLUE SIGNAL) WHEN DS3 FRAME LOSS IS DETECTED FOR AT LEAST 10ms AND REMOVE AIS WHEN FRAME LOSS HAS CLEARED FOR 350ms. SELECT 3/3 TO INSERT AIS WITHIN 3ms OF DS3 FRAME LOSS DETECTION AND REMOVAL WITHIN 3ms AFTER FRAME LOSS CLEARS. SELECT ON TO DISABLE AIS (BLUE SIGNAL) INSERTION ON LINE WHEN LOSS OF UPSTREAM DS3 FRAME IS DETECTED. SELECT OFF TO INSERT AIS (BLUE SIGNAL) WHEN RADIO OR DS3 FRAME LOSS IS DETECTED. Figure 4 - 9 DS3 Facilities Provisioning 4-18 LMW-9039-sm 06/03/03 SELECT AMI OR B8ZS CODING FOR WAYSIDE DS1 LINE. SELECT ON TO DISABLE ALARM REPORTING FOR WAYSIDE DS1 LINE. SELECT OFF TO REPORT ALL ALARMS FOR THAT LINE. DS1 CARD A DS1 LINES DS1 CARD B ALARM LOCK OUT OFF OFF OFF OFF OFF OFF DS1 LINE CODING AMI AMI AMI AMI AMI AMI AIS INHIBIT OFF OFF OFF OFF OFF OFF AIS INSERT Select All SELECT 1 (ALL ONES) OR 0 (ALL ZEROES) FOR ALARM INDICATION SIGNAL (AIS) LINE CODE. LMW-3133C 01/29/01 SELECT ON TO DISABLE AIS INSERTION ON WAYSIDE DS1 LINE WHEN LOSS OF UPSTREAM DS1 FRAME IS DETECTED. SELECT OFF TO INSERT AIS WHEN DS1 FRAME LOSS IS DETECTED. Figure 4 - 10 DS3 Radio Wayside DS1 Facilities Provisioning 4-19 SYSTEM ID: ELMC: TEST 1 RADIO TYPE: RADIO LINK ID: MDR-8000 OC3 RADIO CONFIG: OC3-3 HS Tx RCV SWITCHING: Disable AGC OPTIONS: Option Key: SELECT ONE ON EACH None NS Tx HS Tx FD Tx NS HS SD SW Visual/Audible None NS Rx HS Rx SD Rx FD Rx NON-STANDBY HOT-STANDBY SPACE DIVERSITY SWITCHED 128 TCM TERMINAL HS Rx ATPC Enabled SYSTEM ALARM Disable A&B PA Present RELAYS ON/NO Station Alarm 13-16 BER Disable Stat/Prov/WaySide SELECT FIBER CONFIGURATION RSL Alarm Enable 2 Fiber 2 Fiber Switched 4 Fiber 4Fiber Switched FIBER CONFIGURATION IS SELECTED ON OC3 FACILITIES PROVISIONING SCREEN (FIG 7-6). Resulting Configurations TO None/ NS Rx/2 Fiber None/HS Rx/2 Fiber None/HS Rx/2 Fiber SW None/HS Rx/4 Fiber SW None/SD Rx/2 Fiber None/SD Rx/2 Fiber SW None/SD Rx/4 Fiber SW None/FD Rx/2 Fiber None/FD Rx/2 Fiber SW None/FD Rx/4 Fiber NS Tx/None/2 Fiber NS Tx/NS Rx/2 Fiber NS Tx/HS Rx/2 Fiber NS Tx/HS Rx/2 Fiber SW NS Tx/HS Rx/4 Fiber SW NS Tx/SD Rx/2 Fiber NS Tx/SD Rx/2 Fiber SW NS Tx/SD Rx/4 Fiber SW HS Tx/None/2 Fiber HS Tx/None/2 Fiber SW HS Tx/Hs Rx/2 Fiber HS Tx/HS Rx/2 Fiber SW * HS Tx/HS Rx/4 Fiber SW HS Tx/SD Rx/2 Fiber * HS Tx/SD Rx/2 Fiber SW HS Tx/SD Rx/4 Fiber SW FD Tx/None/2 Fiber FD Tx/None/2 Fiber SW FD Tx/None/4 Fiber FD Tx/None/4 Fiber SW FD Tx/FD Rx/2 Fiber FD Tx/FD Rx/2 Fiber SW FD Tx/FD Rx/4 Fiber FD Tx/FD Rx/4 Fiber SW There are a total of 34 configurations available. Only 2 examples are illustrated. Refer to CD for examples of all configurations. LMW-7033-sm 03/10/07 Figure 4 - 11 OC3/STM-1 Radio Configuration Provisioning 4-20 Note If installation at both ends of a hop are complete except for connecting to customer inputs/outputs and it is desirable to have an alarm-free system, alarm reporting on the incomplete connections can be disabled temporarily through provisioning. You can communicate over the hop even if you do not have the radio connected to customer OC3 and wayside DS1 inputs; however, you will alarm. On the OC3 Facilities screen, set Alarm Disable TRANSMITTER (IN) A and/or B and RECEIVER (OUT) A and/or B to ON to disable OC3 alarm reporting for all equipped wayside DS1 lines. After all customer connections are complete, alarm reporting can be restored to normal. SELECT None TO DISABLE SECTION OVERHEAD (OH) DATA INSERT FUNCTION IN APPLICATIONS WHERE FRAME AND PARITY INSERT IS PERFORMED EXTERNALLY. SELECT Frame TO INSERT SECTION OVERHEAD DATA. SELECT Frame & B1 TO INSERT SECTION OVERHEAD DATA AND PARITY BIT. Alcatel User Interface – [Provisioning] File View Setup Options F4 F3 Prov. Save F5 Alarm Status F6 Analog Monitor F7 F8 Station Alarm Performance F9 User Control LOCAL OC3 PROVISIONING ELMC Address: R101 ELMC Description: OC3 6 GHz Top Radio Configuration Communicating*** Service Channel Fiber Configuration 4 Fiber Switched Section OH Insertion Frame & B1 WaySide DS1 Facilities OC3 Facilities TRANSMITTER (IN) RECEIVER (OUT) Select All BER Alarm Threshold 1X10-6 1X10-6 1X10-6 1X10-6 BER Switch Threshold 1X10-6 1X10-6 1X10-6 1X10-6 Alarm Disable OFF OFF OFF OFF Tuesday, June 3, 2003 Provisioning 5:20:04 AM SELECT ERROR RATE (1x10-5, 1x10-6, 1x10-7, OR 1x10-8) WHICH CAUSES OC3 INPUT TO BE SWITCHED OR SELECT DISABLE TO DISABLE OC3 INPUT SWITCHING. SELECT ERROR RATE (1x10-5, 1x10-6, 1x10-7, OR 1x10-8) AT WHICH XMTR BER ALARM ACTIVATES OR SELECT DISABLE TO DISABLE ALARM. USI Version R1.04 MDR-8000 OC3 Controller Version R1.4 SELECT ERROR RATE (1x10-5, 1x10-6, 1x10-7, OR 1x10-8) WHICH CAUSES OC3 OUTPUT TO BE SWITCHED OR SELECT DISABLE TO DISABLE OC3 OUTPUT SWITCHING. SELECT ERROR RATE (1X10-5, 1x10-6, 1x10-7, OR 1x10-8) AT WHICH RCVR BER ALARM ACTIVATES OR SELECT DISABLE TO DISABLE ALARM. SELECT OFF, TO ENABLE OC3 ALARMS. SELECT ON TO DISABLE ALARMS. LMW-4026-sm 06/03/03 Figure 4 - 12 OC3/STM-1 Facilities Provisioning 4-21 Radio Configuration Service Channel OC3 Facilities SYSTEM ID: ELMC: 203R2 RADIO LINK ID: RADIO TYPE: MDR-8000 OC3 OC3-3 RADIO CONFIG: SYSTEM ALARM: HS Tx None ATPC NS Tx Enabled HS Tx FD Tx Major/Minor RCV SWITCHING: Disable AGC Option Key: OPTIONS: Radio Configuration WaySide DS1 Facilities Disable 128 TCM HS Rx None A&BRx PA Present NS HS Rx SD Rx ON/NO RELAYS FD Rx BER=1x10-6 Repeater TBOS Display 1 RSL Alarm Disable Stat/Prov/WaySide Service Channel WaySide DS1 Facilities OC3 Facilities 4 Fiber Switched Fiber Configuration Section OH Insertion Tuessday, March 7, 2000 2 Fiber Frame B1 2 Fiber &Switched 4 Fiber 1:27:15 PM USI Version R1.00 4 Fiber Switched TRANSMITTER MDR-8000 OC3 Controller Version R1.00 RECEIVER BER Alarm Threshold 1X10-6 1X10-8 1X10-8 1X10-8 BER Switch Threshold Disable 1X10-8 1X10-7 1X10-8 A OC3 I/O INTERFACE Tuesday, January 22, 2002 OR-1 2:03:38 PM TRANSUSI Version R1.00 MITTER Select All LMW-6030-sm 06/29/02 DIPLEXER RF FILTER POWER RT-1 RELAY AMPLIFIER MDR-8000 OC3 Controller Version R1.0 (OPTIONAL) ANTENNA PORT OT-1 RECEIVER CUSTOMER 4 FIBER RR-1 AUXILIARY INTERFACE POWER AMPLIFIER RT-2 (OPTIONAL) TRANSMITTER OR-2 OT-2 B OC3 I/O INTERFACE LEGEND = SWITCH = LASER OR OT RR RT = OPTICAL RCV = OPTICAL XMT = RADIO RCV = RADIO XMT RECEIVER RR-2 9 dB DOWN FROM RR1 ALLOWABLE COMBINATIONS OC3 IN XMTR RCVR OC3 OUT OR-1 OR-1 OR-2 OR-2 RT-1 RT-2 RT-2 RT-1 RR-1 RR-2 RR-2 RR-1 OT-1 OT-1 OT-2 OT-2 OC3 PROVISIONING EXAMPLE 1: HS Tx/HS Rx/4 Fiber Switched 4-22 Radio Configuration Service Channel OC3 Facilities SYSTEM ID: ELMC: 203R2 RADIO LINK ID: RADIO TYPE: MDR-8000 OC3 OC3-3 RADIO CONFIG: SYSTEM ALARM: HS Tx None ATPC NS Tx Enabled HS Tx Major/Minor FD Tx SD Rx None A&BRx PA Present NS HS Rx SD Rx RELAYS ON/NO RCV SWITCHING: Disable AGC BER=1x10-6 Option Key: OPTIONS: Radio Configuration WaySide DS1 Facilities Disable 128 TCM Repeater TBOS Display 1 Stat/Prov/WaySide Service Channel RSL Alarm Disable WaySide DS1 Facilities OC3 Facilities 2 Fiber Switched Fiber Configuration 2 Fiber Frame B1 2 Fiber &Switched 4 Fiber 1:27:15 PM USI Version R1.00 4 Fiber Switched TRANSMITTER Section OH Insertion Tuessday, March 7, 2000 MDR-8000 OC3 Controller Version R1.00 RECEIVER BER Alarm Threshold 1X10-6 1X10-8 1X10-8 1X10-8 BER Switch Threshold Disable 1X10-8 1X10-7 1X10-8 A OC3 I/O INTERFACE OR-1 Tuesday, January 22, 2002 2:03:38 PM OT-1 RECEIVER F3 SPLITTER POWER RT-1 AMPLIFIER (OPTIONAL) TRANSMITTER F1 USI Version R1.00 Select All MDR-8000 OC3 DIPLEXER FILTER RF RELAY MAIN ANTENNA PORT Controller Version R1.0 OFF-LINE XMTR IS TERMINATED RR-1 AUXILIARY INTERFACE CUSTOMER 2 FIBER POWER AMPLIFIER RT-2 (OPTIONAL) TRANSMITTER F2 COMBINER OR-2 OT-2 B OC3 I/O INTERFACE RECEIVER F4 RCV FILTER RR-2 DIVERSITY ANTENNA PORT ALLOWABLE COMBINATIONS LEGEND = SWITCH = LASER OR OT RR RT = OPTICAL RCV = OPTICAL XMT = RADIO RCV = RADIO XMT OC3 IN XMTR RCVR OC3 OUT OR-1 OR-1 OR-2 OR-2 RT-1 RT-2 RT-2 RT-1 RR-1 RR-1 RR-2 RR-2 OT-1 OT-2 OT-2 OT-1 LMW-6026-sm 07/01/04 OC3 PROVISIONING EXAMPLE 2: HS Tx/SD Rx/2 Fiber Switched 4-23 SELECT SUPERFRAME (SF) OR EXTENDED SUPERFRAME (ESF) TO MATCH FRAMING ON WAYSIDE DS1 INPUT. SELECT ON TO DISABLE ALARM REPORTING FOR WAYSIDE DS1 LINE. SELECT OFF TO REPORT ALL ALARMS FOR LINE. DS1 LINES Select All ALARM DISABLE OFF OFF OFF OFF OFF OFF OFF FRAME FORMAT ESF ESF ESF ESF ESF ESF ESF LINE CODING B8ZS B8ZS B8ZS B8ZS B8ZS B8ZS B8ZS LINE LENGTH 0-133 0-133 0-133 0-1 0-133 0-133 0-133 MDR-1018 09/16/04 SELECT DISTANCE IN FT. TO CROSSCONNECT: 0-133 133-266 266-399 399-533 533-655 SELECT AMI OR B8ZS CODING FOR WAYSIDE DS1 LINE TO MATCH CODING ON DS1 INPUT. Figure 4 - 13 OC3/STM-1 Radio Wayside DS1 Facilities Provisioning Note A password is not required to operate the MDR-8000. The radio is shipped without a password and if a password is desired, it must be entered using the Change Password screen. Once entered initially, the password must be entered each time the user wants to access the provisioning screens (level 1 password required), or download software (level 2 password required). 4-24 Displays data capacity as determined by Capacity Key. Changing data capacity requires changing Capacity Key. Displays modulation scheme. Not provisionable. Displays radio type. Not provisionable. SYSTEM ID: RADIO TYPE: RADIO CONFIG: Disable 128 TCM 5-8 GHz TERMINAL NO PA Relay Card Present SYSTEM ALARM Major/Minor Relays ON/NO Station Alarm 13-16 RCV SWITCHING: RSL-Sw Enable Eye BER=1x10-6 Degrade Enable Option Key: No Rx Non-Standby Rx Hot-Standby Rx Frequency Diversity Rx Space Diversity Rx Dual Channel Rx No Rx Non-Standby Dual Rx Hot-Standby Dual Rx Frequency Diversity Dual Rx Space Diversity Dual Rx Dual Channel Dual Rx A Only A & B Switched A & B Separate A & B Summed RSL Alarm Enable Stat/Prov/WaySide SELECT PORT CONFIGURATION SELECT ONE ON EACH (SHELF W/DUAL RCVRs) 150 Mbs ATPC Disable OR No Tx Non-Standby Tx Hot-Standby Tx Freq Diversity Tx Dual Channel Tx RADIO LINK ID: Non-Standby Rx SELECT ONE ON EACH (SHELF W/SINGLE RCVRs) R112 MDR-8000 ETH Non-Standby Tx OPTIONS: No Tx Non-Standby Tx Hot-Standby Tx Freq Diversity Tx Dual Channel Tx ELMC: Port configuration is selected on Ethernet Facilities Provisioning Screen (FIG 5-2). Resulting Configurations To No Tx/NS Rx/A Only No Tx/HS Rx/A Only No Tx/HS Rx/A & B Switched No Tx/HS Rx/A & B Summed No Tx/SD Rx/A Only No Tx/SD Rx/A & B Switched No Tx/SD Rx/A & B Summed No Tx/FD Rx/A Only No Tx/FD Rx/A & B Switched No Tx/Dual Chan Rx/ A & B Separate NS Tx/ No Rx/A Only Ns Tx/ NS Rx/A Only NS Tx/HS Rx/A Only NS Tx/HS Rx/A & B Switched NS Tx/HS Rx/A & B Summed NS Tx/SD Rx/A Only NS Tx/SD Rx/A & B Switched NS Tx/SD Rx/A & B Summed HS Tx/No Rx/A Only HS Tx/No Rx/A & B Switched HS Tx/HS Rx/A Only * HS Tx/HS Rx/A & B Switched * HS Tx/HS Rx/A & B Summed HS Tx/SD Rx/A Only * HS Tx/SD Rx/A & B Switched HS Tx/SD Rx/A & B Summed FD Tx/No Rx/A Only FD Tx/No Rx/A & B Switched FD Tx/No Rx/A & B Separate FD Tx/No Rx/A & B Summed FD Tx/FD Rx/A Only FD Tx/FD Rx/A & B Switched Dual Chan Tx/Dual Chan Rx/ A & B Separate Dual Chan Tx/Dual Chan Rx/ A & B Summed HS Tx/No Rx/A & B Summed * There are a total of 35 configurations available. Only 3 examples are illustrated. Refer to CD for examples of all configurations. Eth-1000 04/03/07 Figure 4 - 14 Ethernet Radio Configuration Provisioning 4-25 Radio Configuration Service Channel Eth Facilities SYSTEM ID: ELMC: 203R2 RADIO LINK ID: RADIO TYPE: MDR-8000 Eth 150 Mbs RADIO CONFIG: SYSTEM ALARM: Hot-Standby Tx No Tx ATPC EnabledTx Non-Standby Hot-Standby Tx Major/MinorDiversity Tx Frequency RCV SWITCHING: Disable AGC Option Key: OPTIONS: Radio Configuration WaySide DS1 Facilities Disable 128 TCM Hot-Standby Rx Repeater No Rx A&B PA Present Non-Standby Rx Hot-Standby Rx RELAYS ON/NORx TBOS Display 1 Space Diversity Frequency Diversity Rx BER=1x10-6 Stat/Prov/WaySide Service Channel Ethernet Facilities WaySide DS1 Facilities A & B Switched Fiber Configuration Section OH Insertion Tuessday, March 7, 2000 A Only Frame & B1 A & B Switched A &PM B Separate 1:27:15 USI Version R1.00 A & TRANSMITTER B Summed MDR-8000 OC3 Controller Version R1.00 RECEIVER Select All BER Alarm Threshold 1X10-6 1X10-8 1X10-8 1X10-8 BER Switch Threshold Disable 1X10-8 1X10-7 A ETH I/O INTERFACE ETH R-1 ETH T-1 Tuesday, January 22, 2002 2:03:38 PM TRANSMITTER USI Version R1.00 RECEIVER ETHERNET DEVICE RSL Alarm Disable 1X10-8 RF POWER RT-1 RELAY AMPLIFIER (OPTIONAL) MDR-8000 OC3 DIPLEXER FILTER ANTENNA PORT Controller Version R1.0 RR-1 AUXILIARY INTERFACE RT-2 POWER AMPLIFIER (OPTIONAL) TRANSMITTER ETH R-2 ETH T-2 B ETH I/O INTERFACE LEGEND = SWITCH ETH R ETH T RR RT Ethernet RCV Ethernet XMT Radio RCV Radio XMT RECEIVER RR-2 9 dB DOWN FROM RR1 ALLOWABLE COMBINATIONS ETH IN XMTR RCVR ETH OUT ETH R-1 ETH R-1 ETH R-1 ETH R-1 ETH R-2 ETH R-2 ETH R-2 ETH R-2 RT-1 RT-1 RT-2 RT-2 RT-1 RT-1 RT-2 RT-2 RR-1 RR-2 RR-1 RR-2 RR-1 RR-2 RR-1 RR-2 ETH T-1 ETH T-1 ETH T-1 ETH T-1 ETH T-2 ETH T-2 ETH T-2 ETH T-2 ETH PROVISIONING EXAMPLE 1: HS Tx/HS Rx/A and B Switched 4-26 ETH-1022 Issue 8 03/02/07 Radio Configuration Service Channel Eth Facilities SYSTEM ID: ELMC: 203R2 RADIO LINK ID: RADIO TYPE: MDR-8000 Eth 150 Mbs RADIO CONFIG: SYSTEM ALARM: Hot-Standby Tx No Tx ATPC EnabledTx Non-Standby Hot-Standby Tx Major/MinorDiversity Tx Frequency RCV SWITCHING: Disable AGC Option Key: OPTIONS: Radio Configuration Tuessday, March 7, 2000 Disable 128 TCM Hot-Standby Rx Repeater No Rx A&B PA Present Non-Standby Rx Hot-Standby Rx RELAYS ON/NORx TBOS Display 1 Space Diversity Frequency Diversity Rx BER=1x10-6 Stat/Prov/WaySide Service Channel Ethernet Facilities RSL Alarm Disable WaySide DS1 Facilities A & B Summed Fiber Configuration Section OH Insertion WaySide DS1 Facilities A Only Frame & B1 A & B Switched A & B Separate 1:27:15 PM USI Version R1.00 A & TRANSMITTER B Summed MDR-8000 OC3 Controller Version R1.00 RECEIVER Select All BER Alarm Threshold 1X10-6 1X10-8 1X10-8 1X10-8 BER Switch Threshold Disable 1X10-8 1X10-7 1X10-8 DIPLEXER A Eth I/O INTERFACE ETH R-1 Tuesday, January 22, 2002 ETHERNET DEVICE 2:03:38 PM TRANSMITTER USI Version R1.00 RF FILTER POWER RT-1 RELAY AMPLIFIER (OPTIONAL) MDR-8000 OC3 Controller Version R1.0ANTENNA PORT ETH T-1 RECEIVER RR-1 AUXILIARY INTERFACE ETH R-2 ETHERNET DEVICE RT-2 POWER AMPLIFIER (OPTIONAL) TRANSMITTER ETH T-2 B Eth I/O INTERFACE RECEIVER RR-2 LEGEND ALLOWABLE COMBINATIONS = SWITCH ETH R ETH T RR RT 9 dB DOWN FROM RR1 Ethernet RCV Ethernet XMT Radio RCV Radio XMT ETH IN XMTR RCVR ETH OUT ETH R-1,2 RT-1 RR-1 ETH T-1,2 ETH R-1,2 RT-1 RR-2 ETH T-1,2 ETH R-1,2 RT-2 RR-1 ETH T-1,2 ETH R-1,2 RT-2 RR-2 ETH T-1,2 ETH-1023 Issue 8 03/02/07 ETH PROVISIONING EXAMPLE 2: HS Tx/HS Rx/A and B Summed 4-27 Radio Configuration Service Channel Eth Facilities SYSTEM ID: ELMC: 203R2 RADIO LINK ID: RADIO TYPE: MDR-8000 Eth 150 Mbs RADIO CONFIG: SYSTEM ALARM: Hot-Standby Tx No Tx ATPC EnabledTx Non-Standby Hot-Standby Tx Major/Minor Tx Freq-Diversity RCV SWITCHING: Disable AGC Option Key: OPTIONS: Radio Configuration Port Configuration WaySide DS1 Facilities Disable 128 TCM Space Diversity Rx Repeater No Rx A&B PA Present Non-Standby Rx Hot-Standby Rx RELAYS ON/NORx TBOS Display 1 Space Diversity Frequency Diversity Rx BER=1x10-6 Service Channel Stat/Prov/WaySide RSL Alarm Disable Ethernet Facilities A & B Switched A Only & B Switched Regenerator A & B Separate Auto Negotiate A & B Summed Allow 10 Half Duplex March 7, Mb 2000 1:27:15 PM USI Version R1.00 Allow 10 Mb Full Duplex Allow 100 Mb Half Duplex Allow 100 Mb Full Duplex Allow 1000 Mb Full Duplex Allow Input Pause A Eth Allow Output Pause Speed Tuessday, I/O INTERFACE ETH R-1 ETHERNET DEVICE MDR-8000 OC3 Controller Version R1.00 POWER RT-1 AMPLIFIER (OPTIONAL) TRANSMITTER ETH T-1 RECEIVER RF RELAY DIPLEXER FILTER MAIN ANTENNA PORT OFF-LINE XMTR IS TERMINATED RR-1 AUXILIARY INTERFACE ETH R-2 ETHERNET DEVICE POWER AMPLIFIER RT-2 (OPTIONAL) TRANSMITTER ETH T-2 RCV FILTER B Eth I/O INTERFACE RECEIVER RR-2 DIVERSITY ANTENNA PORT ALLOWABLE COMBINATIONS LEGEND = SWITCH ETH R ETH T RR RT Ethernet RCV Ethernet XMT Radio RCV Radio XMT ETH IN XMTR RCVR ETH OUT ETH R-1 ETH R-1 ETH R-2 ETH R-2 ETH R-1 ETH R-1 ETH R-2 ETH R-2 RT-1 RT-2 RT-2 RT-1 RT-1 RT-2 RT-2 RT-1 RR-1 RR-1 RR-2 RR-2 RR-2 RR-2 RR-1 RR-1 ETH T-1 ETH T-1 ETH T-2 ETH T-2 ETH T-1 ETH T-1 ETH T-2 ETH T-2 ETH PROVISIONING EXAMPLE 3: HS Tx/SD Rx/A and B Switched 4-28 ETH-1025 Issue 8 03/02/07 PROVISION ETHERNET FACILITY See Figure 4 - 15 to provision the Ethernet radio. 4.9 Alcatel User Interface – [Universal USI – Provisioning ] File View Setup Options F3 F4 Prov. Save Alarm Status ELMC Address: F5 F6 Analog Monitor 201R2 Performance F7 F8 F9 Station Alarm User Control Provisioning F11 Password LOCAL ETHERNET PROVISIONING (RS-232) Communicating* Radio Configuration Service Channel Port Configuration A Only Port Operation Regenerator Auto Negotiate Allow 10 Mb Half Duplex Allow 10 Mb Full Duplex Allow 100 Mb Half Duplex Allow 100 Mb Full Duplex Allow 1000 Mb Full Duplex Input/Output Flow Control Radio Link Fault Promotion Degrade Threshold Ethernet Facilities Select A Only, A & B Switched, A & B Separated, or A & B Summed from dropdown list. See examples 1-34. = Function enabled. All checked (default) shown. All INPUT OUTPUT 10 Err/100 Sec 10 Err/100 Sec When checked (enabled) this feature promotes a link fault to Monday,Ethernet November 01, 2004 11:19:08 AM external equipment faster than when in the normal operating mode. When checked (enabled) this feature reduces latency and latency variations by allowing frames to be forwarded without waiting for the entire frame to be received. = Ethernet Ports disabled. Universal USI Version R2.00 Ethernet Controller Version R2.00 Select Eth Degrade alarm threshold from drop down list. 100 Err/10 Sec 10 Err/10 Sec 100 Err/100 Sec 10 Err/100 Sec 25 Err/250 Sec 5 Err/250 Sec 1 Err/250 Sec MDR-1114 02/04/06 Figure 4 - 15 Ethernet Facilities Provisioning 4-29 4.9.1 Auto-Negotiation MDR-8000E auto-negotiation is not a stand-alone function, and proper operation and use of all available functions depends on the capabilities of the external customer equipment that is connected to the radio. Just because an autonegotiation function is checked for provisioning does not automatically mean that function is fully operable. The device on the other end of the cable must also have the capability and be provisioned with a matching function. 4.9.1.1 Auto-Negotiate Auto-Negotiate details are beyond the scope of this supplement. The rule of thumb to follow when unsure of what functions to check or change from factory default provisioning is leave at default (all autonegotiation functions are checked). Full autonegotiation capability is becoming standard for manufacturers of Ethernet devices. 4.9.1.2 Allow 10, 100, and/or 1000 Mb Half and Full Duplex If in doubt as to the link speed and mode of the external device connecting Ethernet to the radio, check all boxes for speeds and modes. If you know the external Ethernet device has speed and/or mode limitations, check only the boxes that apply. Auto-Negotiate is automatically enabled when Allow 1000 Mb Full Duplex is enabled. Auto-Negotiate must be enabled (checked) when more than one link speed is selected. 4.9.1.3 Input/Output Flow Control Features Checking the box next to Input/Output Flow Control enables input and output pause functions and the forward errored or large frame function. These flow control functions are described in the following paragraphs. 4.9.1.3.1 Input Pause Feature See Figure 4 - 16. This feature makes the auto-negotiation function willing to stop receiving traffic. When the radio input buffers approach overflow, the function sends a pause message to the link partner that is transmitting data to the radio, telling the device to temporarily stop sending data. The link partner will stop sending data if the device has and is provisioned with the Allow Option Pause function. If the link partner is either not equipped with or is not provisioned for input pause, data overflowing the registers in the radio will be lost, regardless of the provisioning for input pause in the radio. Any time there is an overflow, the radio will alarm and indicate Dropped Frames on the Performance Monitor screens. 4.9.1.3.2 Pause Feature This feature auto-negotiation function willing to stop sending traffic. When the input buffers on the link partner approach overflow, the link partner sends a pause message to the radio telling the radio to temporarily stop sending data. If the Input/Output Flow Control function is checked, the radio will stop sending out data. 4-30 4.9.1.4 Input Pause Feature See Figure 4 - 16. Checking the box next to Allow Input Pause makes the auto-negotiation function willing to stop receiving traffic. When the radio input buffers approach overflow, the function sends a pause message to the ink partner that is transmitting data to the radio, telling the device to temporarily stop sending data. The link partner will stop sending data if the device has and is provisioned with the Allow Option Pause function. If the link partner is either not equipped with or is not provisioned for input pause, data overflowing the registers in the radio will be lost, regardless of the provisioning for input pause in the radio. Any time there is an overflow, the radio will alarm and indicate Dropped Frames on the Performance Monitor screens. Buffer Near Full TX Data Flow MDR-8000E Ethernet Radio Buffer Link Partner RX Pause Msg Allow RX Pause Message TX Pause Msg MDR-8000E Ethernet Radio Buffer Link Partner RX Data Flow Buffer Near Full Allow RX Pause Message MDR-1113 02/14/04 Figure 4 - 16 Input/Output Pause Messaging 4-31 4.9.1.5 Allow Output Pause Checking the box next to Allow Output Pause makes the radio auto-negotiation function willing to stop sending traffic. When the input buffers on the link partner approach overflow, the link partner sends a pause message to the radio, telling the radio to temporarily stop sending data. If the Allow Output Pause function is checked, the radio will stop sending out data. 4.10 PROVISION DS1 FACILITY See Figure 4 - 17 to provision the DS1 lines (if equipped). Select Super Frame (SF) or Extended Super Frame (ESF) framing format, Clear Channel (no frame format), or Disable. Select Disable to disable alarm reporting for DS1 line. DS1 LINES Select All FRAME FORMAT ESF ESF ESF ESF ESF ESF ESF LINE CODING B8ZS B8ZS B8ZS B8ZS B8ZS B8ZS B8ZS LINE LENGTH 0-133 0-133 0-133 0-1 0-133 0-133 0-133 Select distance in ft. to crossconnect: 0-133 133-266 266-399 399-533 533-655 Select AMI or B8ZS coding for Wayside DS1 line to match coding on DS1 input. Figure 4 - 17 Ethernet Radio DS1 Facilities Provisioning 4-32 Eth-1035 08/15/05 Change Password -- Change Level 1 Password Enter the New Level 1 Password: Confirm the New Level 1 Password: Change Level 2 Password Enter the New Level 2 Password: Confirm the New Level 2 Password: Save Password Forgot Password Cancel MDR-1033 09/02/04 Level One Password -- Please Enter Level 1 Password: OK Forgot Password Cancel MDR-1032 09/02/04 Figure 4 - 18 Password Screens 4-33 Alcatel User Interface – [System, DS3, and DS1 Provisioning -- MDR-8000 DS3] File View Setup Options F3 F4 Prov. Save F5 Alarm Status F6 Analog Monitor J7914 ELMC Description: DURANGO AUDIO 1 AUDIO 2 F8 Station Alarm Performance F9 User Control Provisioning LOCAL DS3 PROVISIONING ELMC Address: Radio Configuration F7 Communicating*** Service Channel DS3 Facilities WaySide DS1 Facilities Channel E-Lead -GND All Call Detect DTMF Level 0/0 M-Lead Norm 2-Wire Auto Squelch Address Channel Off E-Lead -GND Level 0/0 M-Lead Norm RS-232 Channel 1 Channel 2 TMN Channel MCS RSS Address RDS/RAS/RCD J310 Modem 00 Repeater D/1 MCS Transport RF/Rptr A12A PPP Transport RF/Rptr J308/J309 Input Clocks J308/J309 Termination MDR-1034 09/16/04 Thursday, March 7, 2000 1:27:15 PM USI Version R1.03 Controller Version R1.03 MDR-8000 3-DS3 Figure 4 - 19 Service Channel Provisioning 4-34 Note The 2-wire handset is transported over Audio 1 only. Note Audio provisioning is required only if 4-wire audio equipment (external equipment not part of to audio port 1 J316 or audio port 2 J317 on the radio backplane. These provisionable 4-wire audio functions should File View Setup Options not be confused with the 2-wire audio handset. The handset is fully operational after it is connected controller the radio F4 to the TELF5jack on the radio F6 F7 module, provided F8 F9 is provisioned Audio 1. the User radio) is supplied and the external equipment is connected Alcatel Interface – [System, DS3, and DS1audio Provisioning -- MDR-8000 DS3] F3 Prov. Save Alarm Status Analog Monitor Station Alarm Performance User Control Provisioning The most common audio provisioning is: 1:, 2:, or 3: AUDIO 1 0/0 Norm. LOCAL DS3 PROVISIONING ELMC Address: J7914 ELMC Description: DURANGO Communicating*** 1:, 2: OR 3: – THE 64 kb/s SERVICE CHANNEL TO BE INSERTED INTO RADIO OVERHEAD IS 1. IF SERVICE CHANNEL 1 IS ALREADY IN USE, SELECT SERVICE CHANNEL 2 (2:) OR SERVICE CHANNEL 3 (3:) FOR THE AUDIO CHANNEL. WHATEVER IS Service SELECTED FOR SERVICE CHANNEL 2, OR 3, IT MUST BE WaySide THE SAMEDS1 END-TO-END. Channel DS31,Facilities Facilities Radio Configuration SELECT E-Lead-24Vdc OR E-Lead GND TO BE APPLIED TO SERVICE CHANNEL E-LEAD. AUDIO 1: AUDIO 2: Channel Off E-Lead -GND All Call Detect DTMF Level 0/0 M-Lead Norm 2-Wire Auto Squelch Address Channel Off E-Lead -GND Level 0/0 RS-232 Channel 1 TMN Channel MCS RSS RDS/RAS/RCD Thursday, March 7, 2000 00 NormOF OPERATION SELECTED IS NORMAL. IN THIS MODE M-Lead NORM – MODE THE RADIO REQUIRES AN OFF HOOK SIGNAL FROM THE EXTERNAL EQUIPMENT. THIS ChannelAUDIO Repeater D/1MEANS THAT THE AUDIO EQUIPMENT USED TO CONNECT TO THE RADIO MUST HAVE E AND M-LEAD SIGNALING CAPABILITY (MOST AUDIO EQUIPMENT DOES HAVE THIS CAPABILITY). RF/Rptr MCS Transport PPP Transport IF THE EXTERNAL AUDIO EQUIPMENT DOES RF/Rptr NOT HAVE E AND M-LEAD SIGNALING CAPABILITY, SELECT O/H AND A CONSTANT OFF-HOOK SIGNAL WILL BEInput PROVIDED A12A J308/J309 Address Clocks AUTOMATICALLY BY THE RADIO CONTROLLER SOFTWARE. J310 Modem J308/J309 Termination 0/0 – RADIO REQUIRES 0 dBm AUDIO INPUT SIGNAL AT CONNECTOR J316. THE RECEIVED AUDIO SIGNALS ARE NOT AMPLIFIED. THE RADIO OUTPUTS 0 dBm ON AUDIO 1 CONNECTOR J316. THIS SELECTION IS NORMALLY SUFFICIENT IF THE RADIOVersion AND R1.03 EXTERNAL AUDIO 1:27:15 PM USI Version R1.03 Controller MDR-8000 3-DS3 EQUIPMENT ARE LOCATED IN THE SAME SHELTER, ROOM AND EVEN BUILDING. LONGER DISTANCES (SUCH AS BETWEEN BUILDINGS) MAY REQUIRE AMPLIFICATION ON THE OUTPUT SIGNAL. IN THIS CASE, SELECT -16/+7 WHERE THE RADIO INPUT REQUIRED IS -16 dBm AND THE RADIO AMPLIFIES RECEIVED AUDIO SIGNALS TO PROVIDE A +7 dBm MDR-1035A OUTPUT AT AUDIO 1 CONNECTOR J316. 09/06/04 Figure 4 - 20 Audio 1 Provisioning (Sheet 1 of 2) 4-35 DTMF ALLOWS YOU TO DIALUP AND RING OTHER SITES USING THE 2-WIRE HANDSET. ONLY THE RINGING IS DETECTED. COMMUNICATION OVER THE HANDSET IS PARTY-LINE. DTMF ADDRESSING IS A LOCAL FUNCTION NOT A NETWORK FUNCTION, THEREFORE, IF ONE OR MORE RADIOS ARE ASSIGNED THE SAME DTMF ADDRESS, THEY WILL ALL RING WHEN THAT ADDRESS IS Alcatel UserDIALED. Interface – [System, DS3, and DS1 Provisioning -- MDR-8000 DS3] File View Setup Options TO BE ABLE TO USE THE DTMF FUNCTION: 1. AUDIO 1 MUST BE SELECTED FOR 2-WIRE HANDSET OPERATION. F4 DTMF MUSTF5 F6 (CHECKED) ON F7 THE AUDIO PROVISIONING F8 F9 F3 2. BE TURNED ON SCREEN. Prov. Save Status HANDSET Analog Monitor User Control Provisioning Performance 3.Alarm 2-WIRE MUST BE CONNECTED TOStation TELAlarm JACK ON CONTROLLER MODULE. MUST BE PROVISIONED WITHPROVISIONING DTMF ADDRESS. LOCAL DS3 ELMC Address: 4. RADIOS J7914 ELMC Description: DURANGO Communicating*** WHEN All Call Detect IS SELECTED, ALL TELEPHONES RING WHEN CALL ISService INITIATED. WHEN All Call DetectDS3 IS Facilities Radio Configuration Channel NOT SELECTED, TELEPHONE ASSOCIATED WITH RADIO WILL NOT RING. USEFUL IN SITUATIONS WHERE MULTIPLE RADIOS ARE CONNECTED AT ONE SITE. AUDIO 1: AUDIO 2: Channel Off E-Lead -GND All Call Detect DTMF Level 0/0 M-Lead Norm 2-Wire Auto Squelch Address Channel Off E-Lead -GND Level 0/0 M-Lead Norm DOUBLE CLICK TO ENABLE (000 DISPLAYS). ENTER 3-DIGIT STATION CALL NUMBER. OPERATOR CAN DIAL THIS NUMBER AND RING/ Channel 2 Repeater D/1 COMMUNICATE WITH THE STATION VIA ORDERWIRE. SELECT OFF TO RF/Rptr MCS Transport RF/Rptr DISABLE PPP Transport DTMF. RS-232 Channel 1 TMN Channel MCS RSS Address RDS/RAS/RCD J310 Modem Thursday, March 7, 2000 1:27:15 PM A12A USI Version R1.03 00 MDR-1035B 09/16/04 J308/J309 Input Clocks J308/J309 Termination Controller Version R1.03 MDR-8000 3-DS3 Figure 4 - 20 Audio 1 Provisioning (Sheet 2 of 2) 4-36 WaySide DS1 Facilities Alcatel User Interface – [System, DS3, and DS1 Provisioning -- MDR-8000 DS3] File View Setup Options F3 F4 Prov. Save F5 Alarm Status F6 Analog Monitor J7914 ELMC Description: DURANGO RS-232 Station Alarm Performance User Control F9 Provisioning Communicating*** 1:,Service 2: OR 3: – THE 64 kb/s SERVICE CHANNEL TO BE INSERTED INTODS1 RADIO Channel DS3 Facilities WaySide Facilities OVERHEAD IS 1, 2, or 3. IF SERVICE CHANNEL 1 IS ALREADY IN USE, SELECT SERVICE CHANNEL 2 (2:) OR SERVICE CHANNEL 3 (3:) FOR THE AUDIO CHANNEL. WHATEVER IS SELECTED FOR SERVICE CHANNEL 1, 2, OR 3, IT MUST BE THE SAME END-TO-END. Radio Configuration AUDIO 2: F8 LOCAL DS3 PROVISIONING ELMC Address: AUDIO 1: F7 Channel Off E-Lead Level 0/0 M-Lead SELECT E-Lead-24Vdc OR E-Lead GND TO -GND All Call Detect DTMF BE APPLIED TO SERVICE CHANNEL E-LEAD. Norm 2-Wire Auto Squelch Address Channel Off E-Lead -GND Level 0/0 M-Lead Norm Channel 1 TMN Channel MCS RSS Channel 2 Repeater D/1 NORM – MODE OF OPERATION SELECTED IS NORMAL. IN THIS MODE RF/Rptr MCS Transport RF/Rptr PPP Transport THE RADIO REQUIRES AN OFF HOOK SIGNAL FROM THE EXTERNAL AUDIO EQUIPMENT. THIS MEANS THAT THE AUDIO EQUIPMENT USED TO CONNECT TO THE RADIOInput MUST HAVE E AND M-LEAD SIGNALING A12A Address J308/J309 Clocks CAPABILITY (MOST AUDIO EQUIPMENT DOES HAVE THIS CAPABILITY). J310 Modem Termination IF THE EXTERNALJ308/J309 AUDIO EQUIPMENT DOES NOT HAVE E AND M-LEAD SIGNALING CAPABILITY, SELECT O/H AND A CONSTANT OFF-HOOK SIGNAL WILL BE PROVIDED AUTOMATICALLY BY THE RADIO CONTROLLER SOFTWARE. RDS/RAS/RCD Thursday, March 7, 2000 00 1:27:15 PM USI Version R1.03 Controller Version R1.03 MDR-8000 3-DS3 0/0 – RADIO REQUIRES 0 dBm AUDIO INPUT SIGNAL AT CONNECTOR J317. THE RECEIVED AUDIO SIGNALS ARE NOT AMPLIFIED. THE RADIO OUTPUTS 0 dBm ON AUDIO 2 CONNECTOR J317. THIS SELECTION IS NORMALLY SUFFICIENT IF THE RADIO AND EXTERNAL AUDIO EQUIPMENT ARE LOCATED IN THE SAME SHELTER, ROOM AND EVEN BUILDING. LONGER DISTANCES (SUCH AS BETWEEN BUILDINGS) MAY REQUIRE AMPLIFICATION ON THE OUTPUT SIGNAL. IN THIS CASE, SELECT -16/+7 WHERE THE RADIO INPUT REQUIRED IS -16 dBm AND THE RADIO AMPLIFIES RECEIVED AUDIO SIGNALS TO PROVIDE A +7 dBm OUTPUT AT AUDIO 2 CONNECTOR J317. MDR-1036A 09/06/04 Figure 4 - 21 Audio 2 Provisioning 4-37 RS-232 Channel 1 Channel 2 Repeater D/1 SELECT FOR TERMINAL (ONE DIRECTION) AE-37( ) CONTROLLER SC MULDEM J343 J314 RCV SC DATA E TO/FROM I/O INTFC DROP XMT SC DATA W INSERT RS-232 RXD1 RS-232 TXD1 J312 DATA PATH NOT USED RS-232 Channel 1 Channel 2 Repeater D/1 SELECT FOR REPEATER (TWO DIRECTIONS) AE-37( ) CONTROLLER SC MULDEM J343 RCV SC DATA E TO/FROM I/O INTFC XMT SC DATA W J314 XMT SC DATA E THRU DROP INSERT THRU INSERT RS-232 RXD1 RCV SC DATA W DROP RS-232 TXD1 J312 BRIDGED PATHS Figure 4 - 22 RS-232 Provisioning 4-38 MDR-1037 09/16/04 Select ports on I/O INTFC module that will be used to insert and drop service channel data. TMN Channel Select channel 1, 2, or 3 as service channel to be used for MCS transport and/or PPP transport. Select OFF to disable MCS and PPP transport. MCS Transport RF/Rptr PPP Transport None RF Rptr RF/Rptr MCS-11 data RF/Rptr None RF Rptr RF/Rptr MCS-11 and IP data Note For MCS-11 to operate properly, all radio controllers in a system inter- connected by RF or RPTR must have the same PPP transport provisioning on facing (interconnecting) interfaces. The valid transport combinations (for terminal or repeater) are shown. The combination chosen from MCS TRANSPORT and PPP TRANSPORT determines the RPTR PORT and RF PORT PROTOCOLS supported. Note MCS-11 must be enabled even if it is unused and TMN (only) is used for alarm monitoring and controls. For specific TMN Initial Turnup requirements, refer to CD. MDR-1056 04/03/07 Figure 4 - 23 MCS/TMN Transport Provisioning (Sheet 1 of 5) 4-39 PPP TRANSPORT SETTING = NONE DRAWING REFERENCE RADIO TRANSPORT SETTING RADIO PORT MCS PPP RF RPTR NONE NONE PASS-THROUGH MODE. NO LOCAL INSERT CAPABILITY. RF RPTR NONE NONE MCS-11 DISABLED DISABLED MCS-11 RF/RPTR NONE MCS-11 MCS-11 Notes: 1) Set PPP Transport to NONE if the repeater and RF ports interface with radios not TMN compatible. 2) RF at both ends of the hop must be provisioned for the same PPP Transport selection. 3) RPTR at both ends must be provisioned for the same PPP Transport selection. 4) MCS-11 = Non TMN compatible MCS-11 + PPP = TMN compatible 5) TMN compatibility is determined by the radio controller software and radio provisioning. ANY PROTOCOL MDR-8000 MCS-11 RF PORT MDR-8000 ANY PROTOCOL DISABLED RPTR PORT RPTR PORT MCS TRANSPORT NONE PPP TRANSPORT NONE MCS TRANSPORT RF PPP TRANSPORT NONE DISABLED MDR-8000 MCS-11 RF PORT MDR-8000 MCS-11 MCS-11 RPTR PORT RPTR PORT MCS TRANSPORT RPTR PPP TRANSPORT NONE RF PORT MCS TRANSPORT RF / RPTR RF PORT PPP TRANSPORT NONE MDR-1255 12/05/06 Figure 4 - 23 MCS/TMN Transport Provisioning (Sheet 2 of 5) 4-40 PPP TRANSPORT SETTING = RF DRAWING REFERENCE RADIO TRANSPORT SETTING RADIO PORT MCS PPP RF RPTR NONE RF MCS-11 + PPP DISABLED RF RPTR RF RF MCS-11 + PPP MCS-11 + PPP DISABLED MCS-11 RF/RPTR RF MCS-11 + PPP MCS-11 Notes: 1) Set PPP Transport to RF when the farend radio is TMN compatible, but the radio connected via the repeater cable is not. 2) RF at both ends of the hop must be provisioned for the same PPP Transport selection. 3) RPTR at both ends must be provisioned for the same PPP Transport selection. 4) MCS-11 = Non TMN compatible MCS-11 + PPP = TMN compatible 5) TMN compatibility is determined by the radio controller software and radio provisioning. MCS-11 PPP MDR-8000 MCS-11 PPP MDR-8000 RF PORT DISABLED DISABLED RPTR PORT RPTR PORT RF PORT MCS TRANSPORT PPP TRANSPORT MCS TRANSPORT PPP TRANSPORT NONE RF RF RF MCS-11 PPP MDR-8000 MCS-11 PPP MDR-8000 RF PORT MCS-11 MCS-11 RPTR PORT RPTR PORT RF PORT MCS TRANSPORT PPP TRANSPORT MCS TRANSPORT PPP TRANSPORT RPTR RF RF / RPTR RF MDR-1254 12/05/06 Figure 4 - 23 MCS/TMN Transport Provisioning (Sheet 3 of 5) 4-41 PPP TRANSPORT SETTING = RPTR DRAWING REFERENCE RADIO TRANSPORT SETTING RADIO PORT MCS NONE RF RPTR PPP RPTR RPTR RPTR RF DISABLED MCS-11 DISABLED RPTR MCS-11 + PPP MCS-11 + PPP MCS-11 + PPP RF/RPTR RPTR MCS-11 MCS-11 + PPP Notes: 1) RF at both ends of the hop must be provisioned for the same PPP Transport selection. 2) RPTR at both ends must be provisioned for the same PPP Transport selection. 3) MCS-11 = Non TMN compatible MCS-11 + PPP = TMN compatible 4) TMN compatibility is determined by the radio controller software and radio provisioning. DISABLED MDR-8000 MCS-11 PPP MCS-11 MDR-8000 RF PORT MCS-11 PPP RPTR PORT RF PORT RPTR PORT MCS TRANSPORT PPP TRANSPORT MCS TRANSPORT PPP TRANSPORT NONE RPTR RF RPTR DISABLED MDR-8000 MCS-11 PPP MCS-11 MDR-8000 RF PORT MCS-11 PPP RF PORT RPTR PORT RPTR PORT MCS TRANSPORT PPP TRANSPORT MCS TRANSPORT PPP TRANSPORT RPTR RPTR RF / RPTR RPTR MDR-1253 12/05/06 Figure 4 - 23 MCS/TMN Transport Provisioning (Sheet 4 of 5) 4-42 PPP TRANSPORT SETTING = RF/RPTR DRAWING REFERENCE RADIO TRANSPORT SETTING RADIO PORT MCS NONE RF RPTR PPP RF/RPTR RF/RPTR RF/RPTR RF MCS-11 + PPP MCS-11 + PPP MCS-11 + PPP RPTR MCS-11 + PPP MCS-11 + PPP MCS-11 + PPP RF/RPTR RF/RPTR MCS-11 + PPP MCS-11 + PPP Notes: 1) RF at both ends of the hop must be provisioned for the same PPP Transport selection. 2) RPTR at both ends must be provisioned for the same PPP Transport selection. 3) MCS-11 = Non TMN compatible MCS-11 + PPP = TMN compatible 4) TMN compatibility is determined by the radio controller software and radio provisioning. MCS-11 PPP MDR-8000 MCS-11 PPP MCS-11 PPP MDR-8000 RF PORT MCS-11 PPP RPTR PORT RF PORT RPTR PORT MCS TRANSPORT PPP TRANSPORT MCS TRANSPORT PPP TRANSPORT NONE RF / RPTR RF RF / RPTR MCS-11 PPP MDR-8000 MCS-11 PPP MCS-11 PPP MDR-8000 RF PORT MCS-11 PPP RPTR PORT RF PORT RPTR PORT MCS TRANSPORT PPP TRANSPORT MCS TRANSPORT PPP TRANSPORT RPTR RF / RPTR RF / RPTR RF / RPTR MDR-1252 12/05/06 Figure 4 - 23 MCS/TMN Transport Provisioning (Sheet 5 of 5) 4-43 Alcatel User Interface – [System, DS3, and DS1 Provisioning -- MDR-8000 DS3] File View Setup Options F3 F4 Prov. Save F5 Alarm Status F6 Analog Monitor Note F7 F8 Station Alarm Performance F9 User Control Provisioning A default MCS-11 address (A1A) is assigned automatically. A J7914 different unique address must be entered for each radio LOCAL DS3 PROVISIONING toDURANGO prevent concurrent responses to poll from more than one Communicating*** radio with the same address. If multiple responses are received, the response data is invalid. ELMC Address: ELMC Description: Radio Configuration Service Channel DS3 Facilities WaySide DS1 Facilities Allows user to enter the NE MCS address. The following list provides a valid address for each station: ALPHA through AUDIO 1: NUMERIC through Off Channel 16 ALPHA through E-Lead 0/0 M-Lead Level AUDIO 2: Channel Off Check RSS to allow Controller to respond when Remote Station 0/0 Level Scanner (RSS) is polled. If this option is not checked, does not RS-232 ControllerChannel respond when RSS is polled. E-Lead M-Lead Channel 2 -GND All Call Detect DTMF Norm 2-Wire Auto Squelch Address TMN Channel MCS Transport MCS RSS Address RDS/RAS/RCD J310 Modem Check RDS/RAS/RCD to allow controller to respond when Remote Detail Scanner (RDS), Remote Analog Scanner (RAS), or Remote Thursday, March 7, 2000 1:27:15 PM Control Decoder (RCD) is polled. If this operation is not checked, controller does not respond when RDS, RAS, or RCD is polled. 00 Check J308/J309 Input clocks if radio -GND syncs off XMT and RCV clocks supplied by Norm external source (such as another radio). Un-check J308/J309 Input clocks if radio is Repeater D/1 providing XMT and RCV clocks for other radios to sync on. RF/Rptr A12A USI Version R1.03 PPP Transport RF/Rptr J308/J309 Input Clocks J308/J309 Termination Controller Version R1.03 MDR-8000 3-DS3 Un-check J310 Modem to enable XMT, RCV, and Output Clocks. Check J310 Modem to disable XMT and RCV Clocks. All clocks to be provided by external modem. Check MCS-11 J309 Termination to enable resistive termination at the end of an MCS-11 "daisy chain". Un-check J310 Termination for stand-alone applications or when MDR-8000 is just a link in a daisy chain. Figure 4 - 24 MCS-11 Provisioning 4-44 MDR-1039 06/23/05 PROVISION ANY ONE OR ALL RADIOS AT A SITE, LOCALLY, USING FOLLOWING PROCEDURE: 1. SINGLE CLICK TO PLACE CURSOR HERE. ELMC SYSTEM ID: 6. TYPE IN DESCRIPTION (IF DESIRED). J7914 5. TYPE IN 5-CHARACTER ADDRESS. MUST MATCH ADDRESS IN STEP 1 EXACTLY. RADIO LINK ID: Disable 2. BACKSPACE TO DELETE CURRENT ELMC ADDRESS (IF ANY). 3. ENTER 5-CHARACTER ELMC ADDRESS. 7. CLICK HERE TO ENTER NEW ADDRESS AND DESCRIPTION 4. OPEN ELMC ADDRESS SETUP SCREEN. Setup ELMC Address -- MDR-8000 Extended Link Monitor Channel (Elmc) Address J7914 ELMC: Description: -- DURANGO J7914 DURANGO Add Elmc=> Save Delete Elmc Cancel 8. CLICK HERE TO SAVE. DISPLAYS ENTERED ADDRESS DISPLAYS ENTERED ADDRESS LOCAL PROVISIONING ELMC Address: J7914 Description: DURANGO Communicating LMW-1019 08/08/02 DISPLAYS ENTERED DESCRIPTION (IF ANY) Note Each network element controller with ELMC must first be locally provisioned with a unique ELMC or remote address. The ELMC address is not related to MCS-11. Any name can be entered as long as the name is a 5-character, alphanumeric word. The address is case sensitive. Space, dash, slash, asterisk, and underscored characters are not allowed. If small numbers are used as addresses, then it is necessary to fill higher order digits with zeros. For example, if the address is the value 1, then the address must be entered as 00001. No address, or the same address used on multiple network elements, prevents ELMC access to that/those network elements. The remote address can only be pro-visioned and changed locally. Service-affecting functions, including operation mode, radio configuration, and remote address, cannot be provisioned or changed remotely. Figure 4 - 25 ELMC Provisioning 4-45 SELECT TIME LOCALLY FOR ELMC RESPONSE TO A REQUEST FOR STATUS BEFORE TRYING AGAIN. SELECT SHORTER TIME (5 SECS) FOR SHORTER SYSTEMS (10 HOPS OR LESS). SELECT LONGER TIME (10 SECS) FOR SYSTEMS WITH 10 HOPS OR MORE. Remote Time-Out Constants -- MDR-8000 Select a value in the following list to change the current remote timeout 3 secs 4 secs 5 secs 6 secs 7 secs 8 secs 9 secs 10 secs Current time-out is 3 secs OK Cancel Alcatel User Interface - [Alarm Status -- MDR-8000 OC3] File View Setup Options F3 ✓ F4 Acknowledge F5 Alarm Status Analog Monitor F7 DURANGO Station Alarm Performance F9 User Control Provisioning Retrieving Provisioning LMW-4024A 08/08/02 RECEIVER TRANSMIT STATUS F8 REMOTE STATUS ALARM ELMC Address [F8]: J7914 ELMC Description: F6 TRANSMITTER STATUS RECEIVER Note No Report If the time-out value selected is too short, there may not be enough time for the remote controller to respond before the requesting controller times out, resulting in a constant No Report. ELMC response time delay is a function of controller circuitry and is not linear. Always start with longer time-out, then reduce time to an acceptable value. COMMON STATUS MESSAGE DISPLAYED FOR LENGTH PWR OF TIME SELECTED DURING TIME LOCAL RADIO IS ATTEMPTING TO COMMUNICATE WITH REMOTE ADDRESS VIA ELMC. MESSAGE DISPLAYED FOR LENGTH OF TIME SELECTED IF THERE IS NO RESPONSE TO REQUEST FOR STATUS/ CONTROL/PROVISIONING. Figure 4 - 26 ELMC Remote Time-Out Constant Provisioning 4-46 I/O NOTE: DEFAULT CONTROL NAMES ARE USER CONTROL 1-6 1. OPEN USER CONTROL NAMES SETUP SCREEN 2. SELECT RADIO User Control Names Setup -- MDR-8000 CONTROL NAMES ELMC List RACK1 RACK2 RACK3 RACK4 ----- DURANGO DURANGO RED MTH PASS SILVERTON GEN START TWR LIGHT OVRD User Control #3 User Control #4 User Control #5 OK CANCEL APPLY User Control #6 CLICK HERE TO CANCEL TRANSACTIONS BEFORE SAVE CLICK HERE TO SAVE 3. SELECT CONTROL POINT 4. BACKSPACE TO DELETE AND TYPE IN NEW CONTROL NAME LMW-1021 02/04/03 Figure 4 - 27 Control Names Provisioning 4-47 1. SELECT RADIO CLICK HERE TO SAVE Alcatel User Interface – [Provisioning MDR-8000 OC3] File View Setup Options F4 F3 Prov. Save F5 Alarm Status ELMC ADDRESS: F6 Analog Monitor S302 F7 Performance Station Alarm F9 F8 F11 Password User Control LOCAL DS3 PROVISIONING Communicating*** ELMC ADDRESS: DS301 -- MDR-8000 DS3 OK DS301 -- MDR-8000 DS3 ALARM # ALARM NAMES ALARM # ALARM NAMES [1] STATION ALARM #1 [13] STATION ALARM #13 [2] STATION ALARM #2 [14] STATION ALARM #14 [3] STATION ALARM #3 [15] STATION ALARM #15 [4] STATION ALARM #4 [16] STATION ALARM #16 [5] STATION ALARM #5 [6] STATION ALARM #6 [7] STATION ALARM #7 [8] STATION ALARM #8 [9] STATION ALARM #9 [10] STATION ALARM #10 [11] STATION ALARM #11 [12] STATION ALARM #12 Monday, August 6, 2001 2:11:32 PM MDR-8000 DS3 Cancel Apply ALARM # ALARM NAMES AVAILABLE IF RADIO IS PROVISIONED STATION ALARM 13-16 FOR SYSTEM ALARM ON RADIO CONFIGURATION PROVISIONING SCREEN. HIDDEN IF RADIO IS PROVISIONED TBOS DISPLAY 1-8. Controller Version R1.03 LMW-5068 03/29/03 2. SELECT ALARM 3. BACKSPACE TO DELETE AND TYPE IN NEW ALARM NAME Figure 4 - 28 Alarm Names Provisioning Note DS3 screen is shown. DS1/E1 and OC3/STM-1 alarm names provisioning is similar. 4-48 Note The information contained in this section is a summary of the section with the same title, but not the same section number, on the enclosed CD. “Refer to CD” is used throughout this section to refer the reader to the detail information on the CD. Go to this section on the CD for interactive links to the detail information referred to in this section. MAINTENANCE INTRODUCTION This section contains information and procedures to aid in restoring the equipment to its proper operating condition after it has been determined that a problem exists. 5.1 The following warnings and cautions apply while operating, performance testing, troubleshooting, or repairing the MDR-8000 series radios. DANGER Possibility of Injury to Personnel Short circuits in low-voltage, low-impedance dc circuits can cause severe arcing that may result in burns or eye injury. Remove rings, watches, and other metal jewelry while working with primary circuits. Exercise caution to avoid shorting power input terminals. CAUTION Possibility of Service Interruption XMTR Crystals should never be shipped as replacements without being soldered and tuned up in an oscillator assembly board at the factory. CAUTION Possibility of Service Interruption Units with the electrostatic-sensitive (ESS) symbol contain ESS devices. Store these units in an antistatic container when not in use, and anyone handling a unit should observe antistatic precautions. Refer to the Special Precautions pages in the front of the instruction book for detailed handling information. 5-1 CAUTION Possibility of Service Interruption RF flex coaxial cable requires special consideration. The electrical characteristics of the coax can be affected if it is accidentally twisted or bent. Provide mechanical support to prevent any weight or strain to the coax and connector when connecting or disconnecting equipment. Loosen the connectors at both ends of a coax section if one end must be moved even slightly. SMA connectors should be secured in place fingertight, and then gently tightened using a torque wrench with a 5/16 in. head set for 7 to 9 inch-pounds. The connectors should not be left fingertight. Note Ensure that all antennas are properly aligned and waveguide is in good physical condition. Note Before performing procedures that might in any way affect transmission, it is recommended that the person performing the procedure understand the FCC Rules and Regulations pertaining to the equipment and be properly authorized to operate the equipment. MAINTENANCE PHILOSOPHY This section provides information and procedures for equipment maintenance down to the module level. Module repair is not covered in this manual. A replacement procedure for the crystal oscillator subboard on the transmitter and receiver modules is provided to enable future use of the local oscillator at a different frequency in another application or at another location. Use the drawings in the appendix and those in the station drawing package to support the procedures in this section 5.2 The use of maintenance procedures in this section may result from failure of a periodic check, an alarm indication, or unacceptable performance. These problems should normally be resolved as shown in the maintenance philosophy flow chart (Figure 5 - 1). 5-2 Alarm Indication Para. 5.6 Periodic Check Failure* Para. 5.8 Performance Screen Errors Para. 5.9.3 Perform Trouble Analysis Para. 5.9 Checks and Adjustments Required Cause of Alarm Module Replacement Required Refer to Module Replacement Table Table 5 - 6 Module Adjustment Required No Yes Perform Applicable Checks and Adjustments Per Module Replacement Table Table 5 - 6 Maintenance Complete Yes Problem Resolved No Perform additional troubleshooting using Theory and Diagrams sections as required to resolve Problem Figure 5 - 1 Maintenance Philosophy Flow Chart 5-3 RECOMMENDED TEST EQUIPMENT Refer to Table 5 - 1 for the list of recommended test equipment. Alcatel recommends this test equipment to properly maintain the radio. 5.3 Table 5 - 1 Recommended Test Equipment Test Equipment/Function Essential Characteristics Digital Volt Meter (DVM) Fluke 75 Frequency Counter, Agilent 5315A Used On Out-of-Service Carrier Null Adjustment Using DVM (Refer to CD). 106 to 150 MHz Para. 5.18, XMT Crystal Oscillator Frequency Correction Para. 5.23, RCV Crystal Oscillator Frequency Correction Power Meter, Agilent E4418A with E4418B Power Sensor E9300A -60 to +20 dBm, 10 MHz to 18 GHz, 50 ohms Para. 5.21, XMTR Output Level Calibration (No PA) Para. 5.25, PA Output Level Calibration Test Lead and Tool Kit PN 695-0675-003 As Required OPTIONAL TEST EQUIPMENT Refer to Table 5 - 2 for a list of optional test equipment to support alternate test procedures in this section and the over-the-hop test procedure (Refer to CD). 5.4 Table 5 - 2 Optional Test Equipment Test Equipment/Function Essential Characteristics Adapter Type N Male Interface Adapter (Qty. 2 Required) Tyco Electronics 1048789-1 Attenuator Narda 768-30 Bit Error Rate Test Set Acterna ANT-5 Data Rate Modulation Scheme 5-4 Used On Flexible RF Test Cable 30 dB, 50 Ohms, 20 Watts Para. 5.25, PA Output Level Calibration (Alternate Procedure) Over-The-Hop E1 BER Threshold Test 2.048 Mb/s, HDB3 Table 5 - 2 Optional Test Equipment (Cont.) Test Equipment/Function Communications Analyzer w/DS1 Package Acterna TB 2310-P4 D1 Data Rate DS1 Modulation Scheme Communications Analyzer w/DS3 Package Acterna TB 2310-P5 DS3 Data Rate DS3 Modulation Scheme Communications Analyzer w/OC3 Package Acterna TB 2310-P2 Essential Characteristics Used On Over-The-Hop DS1 BER Threshold Test 1.544 Mb/s, B8ZS or AMI Over-The-Hop DS3 BER Threshold Test 44.736 Mb/s, 64 QAM Over-The-Hop OC3/STM-1 BER Threshold Test 155.52 Mb/s Flexible RF Test Cable, 6 Ft. Tyco Electronics 1049982-5 Spectrum Analyzer Optical Power Meter RIFOCS 555B with SC and FC SOC Power Wavelength Over-The-Hop Optical Power Test -8 to -28 dBM, 1310/1550 nm Oscilloscope, Tektronix TDS3052B DS3 Radio DADE DS3 Line DADE Spectrum Analyzer, Agilent E4408B 1.7 to 11.7 GHz Para. 5.20, In-Service XMTR Carrier Null Adjustment Using Spectrum Analyzer Variable Attenuator, Narda 791 1.7 to 11.7 GHz, 0 to 37.5 dB Over-The-Hop DS1 BER Threshold Test, Over-The-Hop E1 BER Threshold Test, Over-The-Hop DS3 BER Threshold Test, Over-The-Hop OC3/STM-1 BER Threshold Test, OC3/STM-1/ETH I/O Interface Removal and Replacement, Over-The-Hop OC3/STM-1 Fade Margin Test (to the 10-6/10-3 BER Level) PERSONAL COMPUTER (PC)/LAPTOP The PC is an on-line maintenance and troubleshooting tool. Refer to the General Section for PC guidelines. See Figure 5 - 2. Connect the RS-232 Interface cable between USI connector on controller and the PC. 5.5 5-5 AE–37( ) CNTLR C1 MDR–8000 SHELF TO CONNECTOR J301 (CONNECTS TO AE–37 CONTROLLER) RS–232C INTERFACE CABLE USI TERMINAL RS–232C PORT MW211–0066–1 101598 Figure 5 - 2 USI Computer to Controller Interconnection 5-6 MDR-8000 ALARMS MDR-8000 Alarms are displayed on: 5.6 USI Alarm and Status screen Alcatel MCS-11 Monitor and Control System SNMP MIB browser TBOS foreign alarm system External relay interface Module front panel indicators Alarm names are radio/alarm equipment dependent. The Alarm List found under NOC Alarm Troubleshooting on the enclosed CD, identifies every alarm name indicated by the above alarm display equipment, in alphabetic order. By clicking on the alarm name, the user can go straight to the description, cause, effect, and action for that alarm, regardless of where the alarm is displayed. The alarm list is a summary of alarms designed for use by NOC personnel. Refer to the detail troubleshooting later in this section for more information. ALARM MONITORING AND INSPECTION Perform the following checks whenever a station is entered: 5.7 Verify that no alarms are lighted; only the green status indicators should be lighted. Momentarily press LAMP TEST switch. Verify all indicators light. Note Keeping records of errors and alarm history can be an aid to system troubleshooting. Note The local status alarms screen displays the alarms of the radio to which the USI is connected, either physically or addressed via the ELMC. Using the USI computer, check local alarms on the Local Status Alarms screen. 5-7 RECOMMENDED PERIODIC CHECKS Perform XMTR local oscillator frequency verification (Para. 5.18) and XMTR output check (Para. 5.19) 1 year after initial setting and at 5-year intervals thereafter to correct possible drift caused by aging. 5.8 RADIO TROUBLESHOOTING The digital radio system is equipped with alarm circuitry and automatic switching (in hotstandby, frequency diversity, and space diversity configurations) to provide protection against loss of traffic. This automatic switching, coupled with adaptive equalization of multipath distortion, provides protection against equipment outage and propagation variations. Because of the finite life of electronic equipment, failures occur. 5.9 5.9.1 Troubleshooting USI Alarms First alert for an alarm is normally the USI Status Alarm Screen. See Figure 5 - 3 through Figure 5 - 12 for detailed alarm information and troubleshooting guidelines. After isolating the fault to the most probable cause, replace module or repair as directed. 5.9.2 Troubleshooting RCVR Lockup Problems The radio is operational when the RCVR is locked onto the associated farend XMTR frequency. Normally lockup occurs within minutes after power is applied. Successful lockup is indicated by not having the channel alarm (Chan Alm) lit on the RCVR front panel. 5.9.2.1 Slow Lockup At Initial Turnup Slow lockup at initial turnup is defined as lockup occurring five minutes or more after powerup. If the radio is non-standby/no space diversity (one RCVR in A side), replace the RCVR. If radio is non-standby space diversity or hot-standby (two RCVRs, A and B sides) problem is probably the XMTR at the farend of the hop. The most common cause of slow lockup is incorrect carrier null. First try switching XMTRs. If this clears the problem, perform carrier null (Para. 5.20) and XMTR/PA output level calibration procedure (Para. 5.21) on the off-line XMTR. If the problem is not cleared, replace the XMTR. 5.9.2.2 Slow Lockup During Normal Operation Slow lockup after a bad fade or other temporary interruption is defined as lockup occurring less than a second after RSL is restored. Troubleshooting this type of slow lockup requires knowing what the RSL is. Check RSL using the procedure in Appendix G on attached CD. If the RSL is at least 4 to 5 dB above RCV threshold, the two most probable causes are carrier leakage and the RCVR local oscillator. Perform carrier null test (Para. 5.20) on the farend XMTR. If slow lockup continues, remove and replace the RCVR crystal oscillator subboard. If the RSL is below or 1 to 3 dB above RCVR threshold, wait until RSL improves to at least 4 to 5 dB above RCVR threshold before starting troubleshooting. 5-8 5.9.3 Troubleshooting Performance Screen Errors Path and intermod problems can occur that cause errors to be indicated on the Performance monitor screens that are not severe enough to generate an alarm on the USI Alarm and Status screen. Errors of this type fall into two categories: burst and dribbling errors. The performance screens can be a useful tool in troubleshooting a radio with and without alarms being indicated on the Status Alarm screen. 5.9.3.1 Troubleshooting Burst Errors Burst errors are defined as multiple errors in a very short time. Burst errors can be caused by many things, including loose connections on cable or waveguide at either end of the hop. An aging oscillator can cause burst type errors. Burst errors can be identified by a high number of Errors and low number of Error Seconds on the Performance screens. The most probable cause of burst errors is a loose connection. Check/repair all shelf and external cables and check all waveguide connections The next most probable cause is the crystal on the crystal oscillator subboard at either end of the hop.If the radio has both A and B XMTRS and RCVRS and both A and B are indicating burst errors, the fault is at the XMT end of the hop. If only A is equipped and indicates burst errors, remove and replace the crystal oscillator subboard on the on-line RCVR. 5.9.3.2 Troubleshooting Dribbling Errors Dribbling errors are defined as small number of errors over long period of time (no frame errors). Dribbling errors can be caused by a path problem, such as interference or fading, or by a hardware problem such as a XMTR or PA that is being over driven, or high phase noise in the XMTR or RCVR oscillator. Dribbling errors can be identified by observing the Radio CRC Errors (DS1), Radio Errors (DS3), Receiver Errors (OC3), or RF Receiver Errors (ETH) fields on the radio Performance screen. Typically, less than five Errors to one Error Second identifies the fault as dribbling errors. Try isolating the transmitter by switching transmitters in a protected system. You can further isolate a transmitter by changing output levels using ATPC and or dropping the output power out of the XMTR to the PA by one or two dB. The DS1 radio performance screen has a Repeater CRC Error Sec field that indicates errors over the repeater cable. Two troubleshooting tips: 1) errors are displayed on the USI at the receive end in which they are detected, and 2) these specific type of radio errors are not propagated down the path. 5-9 Loss of XMT signal detected at output of PA. If any other alarms are red, go to 1. If not, go to 2. 1. If Off Normal alarm is lit, check 10.5 V switch on power supply is on. If not, remove/replace PA module. 2. Measure RF level at RF MON connector on XMTR module. If level is low, go to 3. If not, go to 4. 3. Measure frequency at XTAL MON connector on XMTR module. If frequency is correct, remove/replace XMTR module. If not, remove/replace XTAL Oscillator Subboard. 4. Remove/replace PA module. TRANSMITTER STATUS Transmitter Fault Transmitter OnLine RF Common Loss PA Temperature PA temperature limits exceeded. Check mounting screws. PA RF Power Loss of XMT signal detected at output of PA. If I/O common alarm and XMT Sync Loss alarm are red, go to 1. If not, go to 2. 1. Remove/replace I/O Interface module. 2. Measure RF level at RF MON connector on XMTR module. If level is low, go to 3. If not, go to 4. 3. Measure frequency at XTAL MON connector on XMTR module. If frequency is correct, remove/ replace XMTR module. If not, remove/replace XTAL oscillator subboard. 4. Remove/replace PA module. Transmitter RF Power ATPC High Power ATPC Timeout Sync Loss ATPC has been active for 5 minutes without returning to normal (drops back to low power only if ATPC has been enabled with timeout). In protected systems, indicates failure in synchronization between I/O Interface modules. If I/O Interface module in-service is not active on alarmed side, failure is between A and B I/O Interface modules. If I/O Interface module in-service is active, failure is between repeater racks of synchronous repeater. 1. Replace A-side I/O Interface module. 2. Replace B-side I/O Interface module. MDR-1093 10/09/05 Figure 5 - 3 Troubleshooting Radio XMT Alarms (Sheet 1 of 2) 5-10 Both RCVRs at the other end have a problem and have switched the XMTRs to try and clear it. If the RCVRs clear within a defined time frame (which we will hereafter call the CLA window) after switching, the CLA appears. if the RCVRs clear by switching or any other way outside of the CLA window, the CLA does not activate, but switching continues. Switching times vary, depending on RSL. If RSL is above alarm threshold, the first XMT switch occurs 5 seconds after the problem at the RCVRs is detected. The 5 seconds following the first XMT switch is the "CLA window". If the RCVR alarms clear during the 5-second CLA window, the CLA will activate at the XMT end. TRANSMITTER STATUS Transmitter Fault Transmitter OnLine RF Common Loss PA Temperature PA RF Power Transmitter RF Power Since the RSL at the RCVRs is ok, equipment failure at the farend XMTR is the most probable cause of the RCVRs failing. ATPC High Power If RSL is below alarm threshold, the first XMTR switch occurs 30 seconds after the problem at the RCVRs is detected. The CLA window is the first 5 seconds of the second 30 seconds. If the RCVR alarms clear during the 5-second CLA window, the CLA will activate at the XMT end. Sync Loss ATPC Timeout In DS1 and OC3/STM-1 2-fiber switched and 4-fiber switched radios, if the RCVR alarms do not clear within the CLA window, after ten 30-second periods (10 switches) the controller switches the I/O Interface modules and another 5-second CLA window is opened. If the RCVR alarms clear during the 5-second CLA window following the I/O switch, the CLA will activate at the XMT end. Since this is a silent alarm at the XMT end, no other alarm should show up at the XMTR. Clearing the RCVR problem does not automatically clear the CLA at the XMT end. The CLA can be cleared using the ACO switch on the controller module or by rolling the mouse over RF Common Loss on the screen and double clicking. CLA can be caused by many things. Troubleshooting is RSL dependent. Problems that can cause a CLA follow. 1. Path problems, such as fading, refraction, interference 2. Frequency problems due to aging or bad crystal oscillator 3. Bad capacity key on XMTR 4. Bad RF cable 5. Bad RF switch 6. Bad I/O Interface If RSL is normal, look for a digital signal problem at the XMT end. The RCV end will probably have Eye Closure and Frame Loss alarms, but not an RSL alarm. Since the RCVRs are receiving a strong signal (but not a good signal) from the farend XMTR, the RCVRs will probably be locked on frequency. Is RSL above or below alarm threshold? Above, go to 1. Below, go to 2. 1. If RSL is ok, look for a digital signal problem at the farend XMTR: a. Check XMTR capacity key. b. Remove/replace XMTR. c. Remove/replace I/O Interface. 2. If RSL is low, there will be a RCVR RSL alarm along with any others: a. Check for prolonged fade. Use USI RSL screen and check history. Worst fading times are early in the morning and late in the evening. b. Look for equipment failure at XMT end: Check for bad XMTR/PA. Verify correct output power out of XMTR/PA. Is output power correct? Yes, check for bad cable or RF switch at the XMT end. No, remove and replace XMTR, PA, I/O Interface, in that order. MDR-1092 12/06/07 Figure 5 - 3 Troubleshooting Radio XMT Alarms (Sheet 2 of 2) 5-11 TRANSMITTER STATUS DS3 I/O INTFC cannot recover framing from incoming DS3 signal or there is no input signal. Is DS3 AIS Detect Alarm on? Yes, troubleshoot upstream radios and external MUX equipment. No, check input signal. If input signal is OK, replace DS3 I/O INTFC. If not, troubleshoot external MUX equipment. DS3 Frame Loss DS3 input to DS3 I/O INTFC has exceeded provisioned BER threshold (high error condition).Troubleshoot external MUX equipment. DS3 Buffer Spill DS3 Degraded DS3 AIS Detect DS3 input data being written to elastic buffer on DS3 I/O interface is a different rate than the data being read from elastic buffer. AIS (blue signal), inserted at MUX (external to the radio) has been detected on XMT input to DS3 I/O INTFC. Troubleshoot external MUX equipment. MDR-1090 05/25/07 Figure 5 - 4 Troubleshooting DS3 Radio XMT Alarms OC3/STM-1 INTFC cannot recover framing from incoming OC3/STM-1 signal or there is no optical input signal. Is OC3/STM-1 AIS-L Detect alarm on? TRANSMITTER STATUS Yes, troubleshoot upstream radios and external MUX equipment. No, check optical input signal. If optical input signal is OK, replace OC3/STM-1 I/O INTFC. If not, troubleshoot external MUX equipment. AIS (blue signal), inserted at MUX (external to the radio) has been detected on OC3/STM-1 input to OC3/STM-1 I/O INTFC. OC3 Input Online OC3 LOS OC3 LOF Troubleshoot external MUX equipment. OC3 AIS-L Detect OC3 Degrade Monday, April 09, 2001 1:58:29 PM OC3/STM-1 input to OC3/STM-1 I/O INTFC has exceeded provisioned BER threshold (high error condition). Troubleshoot external MUX equipment. MDR-1091 05/23/05 Figure 5 - 5 Troubleshooting OC3/STM-1 Radio XMT Alarm 5-12 Note Always troubleshoot and clear the most severe alarm first. Channel Fail is the most severe, followed by Radio Frame Loss and Eye Closure. The Eye Closure alarm, Radio Frame Loss alarm, and Channel Fail alarm all work together RECEIVER STATUS Receiver Fault Receiver On Line Channel Fail the radio is provsioned correctly, Eye Closure (the first level) should be the first indication that there is a steady stream of errors (more than dribbling errors) being detected by the RCV circuit in the I/O Interface module. The second level is the Radio Frame Loss alarm. This alarm Eye Closure indicates that the errors have increased to the Low RSL Path Distortion Radio Frame Loss Radio Dade to form effective 3-level troubleshooting tools. If point that complete frames are being lost. The third level, the Channel Fail alarm, is the most severe level. This alarm indicates that the RCVR can no longer lock on the farend XMTR. Even worse, the overhead with command path and Service Channel is lost, inhibiting communication with the farend, making troubleshooting more difficult. MDR-1081 05/20/05 Figure 5 - 6 Troubleshooting Radio RCV Alarms (Sheet 1 of 5) 5-13 A Channel Fail alarm occurs when RCVR(s) have lost lock and are not locked on the signal from the farend XMTR(s). Loss of signal also means loss of CMD path. The most effective method of troubleshooting this type RECEIVER alarm is to have a technician at both ends of the hop. Farend status viewing and controls must be performed at the farend site. This alarm can STATUS be caused by a failure at the farend XMTR, RF path/antenna/waveguide Receiver Fault problems, or a failure in the local RCVR or I/O Interface. Receiver On Line Channel Fail Start by isolating the fault to one end of the hop or the RF path/antenna/waveguide. If the farend XMTR is protected, switch XMTRs and see if alarms at the RCVR end clear. If so, the problem is at the XMT end and the path and RCV end are ok. If the RCVR alarms do not clear (and/or the XMTR is not protected) proceed as follows: 1. Eye Closure Low RSL Path Distortion Radio Frame Loss Radio Dade Observe RX (RSL 1) dbm on the analog monitor screen and compare the RSL level with the TYPICAL RCVR THRESHOLD (DBM) BER = 10-6, for the type and capacity of radio, listed on Tabe 1-3, Physical, Environmental, and Electrical Characteristics, in the General section of this instruction book. If the RSL is too low (below the RCVR threshold), the RCVR will not lock to the farend XMTR. The problem is in the farend XMTR, is an RF path problem, or is a farend or local antenna/waveguide problem. 2. Troubleshoot farend XMTR. If the RSL is above the listed threshold, troubleshoot the local RCVR. Start by isolating the fault to the RCVR module or I/O Interface module. a. b. Observe RX (AFC MON) voltage on the analog monitor screen. This is the correction voltage for the crystal oscillator. The voltage should be -3.0 ±0.5 Vdc, indicating that the crystal oscillator is on center frequency. If not, remove and replace crystal oscillator subboard on RCVR. If the RX (AFC MON) voltage is correct, the failure could still be the RCVR or the RCVR circuits in the I/O Interface module. The most probable cause is the RCVR. Remove and replace RCVR. The crystal oscillator subboard and capacity key must be removed from the suspected RCVR and installed on the spare RCVR. If the alarm is stil not cleared, remove and replace the I/O Interface module. MDR-1084 11/29/04 Figure 5 - 6 Troubleshooting Radio RCV Alarms (Sheet 2 of 5) 5-14 Note Always troubleshoot and clear the most severe alarm first. Channel Fail is the most severe, followed by Radio Frame Loss and Eye Closure. Loss of radio frame from RCVR in I/O Interface RCVR circuits. Before starting, check USI for receiver Channel Fail alarms and Common Command Path alarm. If there is a Channel Fail alarm, troubleshoot and clear that alarm first. If there is a Command Path alarm, troubleshoot and clear that alarm second. 1. 2. Verify farend radio configuration. Is farend radio hot-standby? Yes, go to 2. No, go to 4. Check for Radio Frame Loss alarms on both A and B. Are there Radio Frame Loss radio frame loss alarms on both A and B? Yes, go to 3. No, only A or B has a frame loss alarm, go to 4. 3. Switch farend XMTRs. Do alarms clear? Yes, replace farend off-line XMTR. No, replace local I/O Interface on alarmed side. Do alarms clear? Yes, stop. Procedure is complete. No, replace local RCVR on alarmed side. 4. Replace local I/O Interface on alarmed side. Do alarms clear? Yes, stop. Procedure is complete. No, replace local RCVR on alarmed side. RECEIVER STATUS Receiver Fault Receiver On Line Channel Fail Eye Closure Low RSL Path Distortion Radio Frame Loss Radio Dade MDR-1083 05/20/05 Figure 5 - 6 Troubleshooting Radio RCV Alarms (Sheet 3 of 5) 5-15 Errors are being received by the RCVR at a rate exceeding the Eye BER threshold error rate provisioned on the radio configuration screen. This alarm could be caused by a faulty XMTR (farend), radio interference on the RF path (RFI), antenna/waveguide problem, or a faulty antenna/waveguide problem, or a faulty RCVR/RCVR local oscillator failure. Troubleshooting is configuration dependent. RECEIVER STATUS Receiver Fault Receiver On Line Channel Fail Eye Closure 1. Check for Eye Closure alarms on both A and B RCVRs. Are there Eye Closure alarms on both A and B RCVRs? Yes, go to 2. No, only A or B has an Eye Closure alarm. The failure is on the RCVR end. Go to 3. Low RSL Path Distortion Radio Frame Loss Radio Dade 2. The problem is in the farend XMTR, is an RF path problem, or is a farend or local antenna/waveguide problem. Start by isolating the fault to one end of the hop or the RF path/antenna/waveguide. a. Check farend for XMTR alarms. Troubleshoot and clear alarms (if any) at far end as required. Go to b. b. Check farend radio XMTR configuration as follows: Hot-standby XMTRs? Go to c. Frequency diversity? Go to 4. Space diversity? Troubleshoot farend XMTR. c. If the farend XMTR is hot-standby, switch XMTRs and see if alarms at the RCVR end clear. Do RCVR alarms clear? Yes, the problem is at the XMT end and the path and RCV end are ok. Replace farend off-line XMTR. No, the problem is a path problem or a problem at the RCVR. Go to d to isolate the path. d. The problem may be RF interference (RFI) on the path. While observing the RSL on the RCV end Analog screen, disable the farend XMTRs. Does RSL drop at least 25 dB? No, there is high RFI on the path. Eliminate the RFI source. Yes, RSL drops 25 dB or more. The problem is a path problem, such as an obstruction in the path, or a problem with the antenna or waveguide, or is a RCVR problem. Go to 3. 3. Isolate failure to RCVR crystal oscillator subboard or the RCVR module as follows: a. At RCV end, observe RX (AFC MON) voltage on the analog monitor screen. This is the correction voltage for the crystal oscillator. The voltage should be -3.0 ±0.5 Vdc, indicating that the crystal oscillator is on center frequency. If not, remove and replace crystal oscil lator subboard on RCVR. If the RX (AFC MON) voltage is correct, replace RCVR module. Do RCVR alarms clear? Yes, stop. Procedure is complete. No, go to 4. 4. Problem is in path (not RFI) or antenna/waveguide. Sweep waveguide at both ends of hop. Repair or replace as required. MDR-1082 11/29/04 Figure 5 - 6 Troubleshooting Radio RCV Alarms (Sheet 4 of 5) 5-16 Note Radio Dade is displayed on DS1 USI Status and Alarm screen only. Low RSL on alarmed RCVR. Alarm only functions if AGC switching threshold is provisioned active. 1. Check for path fading. 2. Check upstream XMTR. RECEIVER STATUS Receiver Fault Receiver On Line High level of distortion in TDE due to excessive multipath activity. Check path for interference. Channel Fail Eye Closure Low RSL Path Distortion Radio Frame Loss More delay in system than elastic buffers on DS1 I/O Interface can correct. Radio Dade 1. Isolate the delay to local or farend. Delay in the farend XMTR is a possible cause in frequency diversity configurations. Is the farend radio frequency diversity? Yes, go to 2. No, delay is probably a local problem. Go to 3. 2. Verify there are no farend XMTR alarms. Troubleshoot and clear farend XMTR alarms first. 3. Check/repair waveguide/path. 4. Isolate delay to A-side or B-side I/O Interface. On local controller front panel, observe I/O ALM indicators. The A or B I/O ALM will be lit for the side with the excessive delay. 5. Remove/replace RCVR on alarmed side. 6. Remove/replace I/O Interface module on alarmed side. MDR-1085 11/29/04 Figure 5 - 6 Troubleshooting Radio RCV Alarms (Sheet 5 of 5) 5-17 I/O Interface cannot recover framing from signal from RCVR module. 1. Is DS3 AIS Detect alarm on? Yes, check for upstream XMTR DS3 AIS Detect alarm. If XMTR DS3 AIS Detect alarm is on, troubleshoot external MUX equipment at XMT end. If not, troubleshoot upstream XMTR. No, go to 2. 2. Is DS3 AIS Ins alarm on? Yes, check for upstream XMTR alarms. If any XMTR alarm is on, troubleshoot upstream XMTR. No, go to 3. 3. Is radio hot-standby? Yes A. Are A and B alarmed? Yes, troubleshoot XMTR. No, go to B. B. Remove/replace RCVR module. C. Remove/replace alarmed DS3 I/O Interface. DS3 input data being written to elastic buffer on DS3 I/O interface is a different rate than data being read from elastic buffer. DS3 Frame Loss DS3 Buffer Spill DS3 Degraded DS3 AIS Detect AIS (blue signal), inserted at MUX (external to the radio) has been detected by DS3 I/O INTFC RCV circuits. Troubleshoot external MUX equipment (fault is not in radio). Signal from RCVR module (input to DS3 I/O INTFC) has exceeded provisioned BER threshold (typical fade condition). Is DS3 Frame Alarm also on? Yes, troubleshoot DS3 Frame Alarm. No, and no-fade condition confirmed 1. Replace RCVR module. 2. Replace alarmed DS3 I/O INTFC module. DS3 AIS Insert LOS has been detected at RCV input of DS3 I/O INTFC and AIS (blue signal) is being inserted. Check for LOS at XMTR end of hop. If not: 1. Check for upstream XMTR alarms. Any XMTR alarms? Yes, troubleshoot XMTR No, go to 2. 2. Replace RCVR module on alarmed side. 3. Replace alarmed DS3 I/O INTFC module. MDR-1087 05/25/07 Figure 5 - 7 Troubleshooting DS3 Radio RCV Alarms 5-18 Future use I/O conditioner cannot recover framing from signal from RCVR module. 1. Is OC3/STM-1 AIS-L Detect alarm on? Yes, check for upstream XMTR OC3/STM-1 AIS-L Detect alarm. If XMTR OC3 AIS Detect alarm is on, troubleshoot external MUX equipment at XMT end. If not, troubleshoot upstream XMTR. No, go to 2. 2. Is radio hot-STBY? Yes A. Are A and B alarmed? Yes, troubleshoot XMTR. No, go to B. B. Remove/replace RCVR module. C. Remove/replace alarmed OC3/STM-1 I/O INTFC. OC3 Output Online AIS (blue signal), inserted at MUX (external to the radio) has been detected by OC3/STM-1 I/O INTFC RCV circuits. Troubleshoot external MUX equipment (fault is not in radio). OC3 Common Loss OC3 LOF OC3 AIS-L Detect OC3 Degrade Signal from RCVR module (input to OC3/STM-1 I/O INTFC) has exceeded provisioned BER threshold (typical fade condition). Is OC3/STM-1 LOF also on? Yes, troubleshoot OC3/STM-1 LOF. No, and no-fade condition confirmed 1. Replace RCVR module. 2. Replace alarmed OC3/STM-1 I/O INTFC module. MDR-1088 05/23/05 Figure 5 - 8 Troubleshooting OC3/STM-1 Radio RCV Alarms 5-19 Voltage regulation failure or excessive load. 1. Cycle power 2. Check fuse 3. Check output power 4. Replace power supply. Module is present, but cannot communicate with Controller on I2C Bus. 1. Remove and replace module indicating read fail on Inventory screen. 2. Remove and replace Controller. COMMON STATUS I/O Interface Fault I/O On Line Power Supply Click red alarm indicator. Drop down list displays one or more messages. Troubleshoot as follows. Inventory Command Path Loss of communication between Controller and farend Controller. 1. Verify RCVR operation 2. Replace Controller. Off Normal Controller Ring Broke Previous Section Controller Module failure. 1. Reseat Controller 2. Replace controller. Equipment malfunction within ring. Failure of RCVR in Previous Section of synchronous repeater configuration. SEE TABLE BELOW MDR-1089A 12/05/04 Figure 5 - 9 Troubleshooting Radio Common Alarms MESSAGE MEANING ACTIONS Fan Alarm Fan or fan control module failed. Remove/replace fan/fan assembly. A ATPC High Power Lock A ATPC High Power Lock func- Disable A ATPC High Power Lock function on USI control screen. tion is enabled on USI control screen locking A-side XMTR/ PA at highest power. B ATPC High Power Lock B ATPC High Power Lock func- tion is enabled on USI control screen locking B-side XMTR/ PA at highest power. Disable B ATPC High Power Lock function on USI control screen. A ATPC Low Power Lock Locks A-side XMTR/PA output power 10 dB down from highest power. Disable A ATPC Low Power Lock function on USI control screen. B ATPC Low Power Lock Locks B-side XMTR/PA output power 10 dB down from highest power. Disable B ATPC Low Power Lock function on USI control screen. 5-20 MESSAGE MEANING ACTIONS A Tx Override Override function is enabled on controller module locking Aside XMTR/PA in-service. Switching is disabled regardless of alarms. Disable override function on controller module front panel. B Tx Override Override function is enabled on controller module locking Bside XMTR/PA in-service. Switching is disabled regardless of alarms. Disable override function on controller module front panel. A Rx Override Override function is enabled on controller module locking Aside RCVR in-service. Switching is disabled regardless of alarms. Disable override function on controller module front panel. B Rx Override Override function is enabled on controller module locking Bside RCVR in-service. Switching is disabled regardless of alarms. Disable override function on controller module front panel. A I/O Override Override function is enabled on controller module locking Aside I/O interface in-service. Switching is disabled regardless of alarms. Disable override function on controller module front panel. B I/O Override Override function is enabled on controller module locking Bside I/O interface in-service. Switching is disabled regardless of alarms. Disable override function on controller module front panel. Calibrating A Side A-side XMTR/PA output level calibration procedure has been initiated. Complete or cancel A-side XMTR/PA output level calibration procedure. Calibrating B Side B-side XMTR/PA output level calibration procedure has been initiated. Complete or cancel B-side XMTR/PA output level calibration procedure. Pedestal Switch Activated PED/AC/NORM switch on front Set PED/AC/NORM switch to NORM. panel of original/older style RCVR is set to PED. DS1 Loopback On DS1/wayside DS1 line and/or facility loopback function is enabled on USI control screen. Disable loopback functions on USI control screen. A Side PA OFF PA ON/OFF switch on A-side power supply is set to OFF. Set PA ON/OFF switch on Aside power supply to OFF. 5-21 MESSAGE MEANING ACTIONS B Side PA OFF PA ON/OFF switch on B-side power supply is set to OFF. Set PA ON/OFF switch on Bside power supply to OFF. Prov. Mismatch Provisioning on the controller does not match the provisioning screen. Provision to match system requirements. Controller/Power Supply Prov. Mismatch Provisioning data stored in memory on the controller does not match provisioning data stored in memory on the A-side power supply. Check for correct provisioning. Reprovision as required. Save provisioning. Could Not Write/Read Power Supply Prov. Cannot download provisioning data from controller to Aside power supply. Remove/replace: 1. A-side power supply 2. Controller. Capkey Mismatch Capacity key on A-side XMTR has different part number than capacity key n B-side XMTR. Instal correct capacity keys on XMTRs. Radio ID Mismatch Radio IDs provisioned on the radio configuration screen are not the same at both ends of the hop. Provision both ends of hop with same radio ID number. A B DS1 LINE # SIDES Loss of input signal to I/O Interface, inability to recover clock on alarmed line, or bipolar violation detection 1. Check presence and quality of DS1/E1 input to radio 2. Enable DS1 I/O Loopback on USI control screen for continuity check for DS1 signal through LBO and I/O interface module. Continuity? Yes – replace I/O interface No – check LBO connectors for open or bent pins. Repair as required. TX SIG TX ALM RX ALM Transmit hardware failure or buffer spills on alarmed line. 1. Verify quality of TX input data. 2. Replace I/O Interface module. Loss of receive clock, buffer spills, or alarm insertion signal on the alarmed line. May also be caused by DS1 driver failure. Replace I/O Interface module. LMW-1030 04/07/05 Figure 5 - 10 Troubleshooting DS1/E1 Radio Alarms 5-22 LOS has been detected at RCV Input of I/O interface and AIS (All Ones or Zeros) is being inserted. Check for LOS at XMT end of HOP. If not, 1. Check for upstream XMTR alarms. Any XMTR alarms? Yes, troubleshoot XMTR. No, go to 2. 2. Replace alarmed DS3 I/O INTFC. Loss of input signal to I/O Interface, inability to recover clock on alarmed line, or bipolar violation detection. 1. Check presence and quality of DS1/E1 input to radio. 2. Replace I/O Interface module. DS1 ALARMS DS1 Inuput Loss Transmit hardware failure or buffer spills on alarmed line. 1. Verify quality of TX input data. 2. Replace I/O Interface module. DS1 XMT ALARM DS1 AIS INSERT DS1 RCV ALARM Loss of receive clock, buffer spills, or alarm insertion signal on the alarmed line. May also be caused by DS1 driver failure. Replace I/O Interface module. LMW-3134 04/07/05 Figure 5 - 11 Troubleshooting DS3 Radio Wayside DS1 Alarms AIS detected on DS1 input to radio. Fault is external to radio. Check external device supplying DS1 to radio. WAYSIDE DS1 DS1 Online DS1 Output Alarm DS1 AIS Detect DS1 Input Alarm Inability to recover clock or bipolar violation detected on DS1/E1 input to radio. 1. Check quality of DS1 input to radio. 2. Replace I/O INTFC module. Inability to recover clock or bipolar violation detected on output of radio RCVR. 1. Check XMTR end of HOP for alarms. 2. Replace alarmed I/O INTFC module. LMW-5032 07/12/05 Figure 5 - 12 Troubleshooting OC3/STM-1 Radio Wayside DS1 Alarms 5-23 5.10 ETHERNET-SPECIFIC TROUBLESHOOTING The LEDs on the front panel of the Ethernet I/O Interface module and the alarms on the radio USI status and alarm screen are the first indication of a fault. Troubleshoot radio XMT and RCV alarms using the procedures in the MDR-8000 Instruction Book/Users Manual. Troubleshoot Ethernet alarms as follows: 5.10.1 Troubleshooting Using Ethernet I/O Interface Module Front Panel Indicators Refer to Table 5 - 3. In this analysis, troubleshoot using Table 5 - 3 to isolate the most probable cause. Replace modules or repair as directed. Table 5 - 3 Troubleshoot Using Ethernet I/O Interface Module Indicators LED Indication Probable Cause Corrective Action ALM Steady Red LED 1. Module failure 1. Replace Ethernet I/O Interface module WYSD ALM Yellow LED Lit 1. Loss of DS1 radio XMT input to I/O Interface Check presence of DS1 input to radio. Is DS1 Present? Yes - Replace Ethernet I/O module. No - Check/repair cables to customer interface. 2. I/O Interface cannot recover clock, or there are errors on DS1 output of radio RCVR (RCV input to I/O Interface). Check XMTR end of hop for alarms. Farend XMTR alarmed? Yes - Troubleshoot farend XMTR No 1. Replace local alarmed I/O Interface module. 2. Replace local radio RCVR module. 3. AIS has been detected on DS1 output of radio RCVR (RCV input to I/O Interface). RCVR fault is not in this radio. Check upstream XMTR/hops for alarms. 5-24 Table 5 - 3 Troubleshoot Using Ethernet I/O Interface Module Indicators (Cont.) LED Indication Probable Cause ETH IN Green LED Not Lit Loss of Ethernet RCV/radio XMT signal in. Most probable causes: Corrective Action 1. Cable between link partner and radio is disconnected/broken. Connect/repair cable. 2. Speed/Mode provisioning mismatch between link partner and radio 1. Check local Ethernet facility provisioning screen. 2. Check link partner provisioning. Use USI to determine if degradation is in the input or output side. ETH ALM Yellow LED Lit Summary alarm, could be caused by XMT or RCV Ethernet degrade ETH OUT Green LED Not Lit Loss of Ethernet XMT/radio RCV signal out. Most probable causes: 1. Loss of RF input to radio RCVR Check local RSL screen on USI. Is RSL ok? Yes - Check farend for Ethernet alarm. No - Check farend XMTR output. Is farend XMTR Out ok? Yes - Check path, antenna, waveguide/cabling No - Check/replace farend XMTR. 2. Loss of Ethernet input to radio RCVR Check farend for Ethernet alarms. Are any alarms indicated? Yes - Troubleshoot farend alarms No - Check farend Ethernet status. Is only abnormal status indicated? Yes - Troubleshoot farend Ethernet status. No 1. Replace local alarmed Ethernet I/O Interface module. 2. Replace local RCVR module. 5-25 5.11 TMN-SPECIFIC TROUBLESHOOTING Refer to Table 5 - 4. The red ALM LED on the front panel of the TMN Interface module and the alarm on the radio USI status and alarm screen are the first indication of a fault. The ALM LED on the front panel of the TMN Interface module lights for any module fault. The LED remains lit during module reboot and also after reboot if reboot is not completed satisfactorily. Table 5 - 4 Troubleshooting Using TMN Interface Module Indicators LED Indication Probable Cause Corrective Action ALM Steady Red 1. Module failure 2. Module reboot in progress (several seconds to reboot) 3. Module reboot failed. 1. Replace module 2. Wait several seconds for reboot to complete. 3. Attempt reboot. Ethernet 1, 2, and/or 3 Blinking Yellow Network with too much traffic (collisions occurring). Some collisions are normal in any network. Wait for situation to clear. If collisions continue (severe occurrence), troubleshoot network. Ethernet 1, 2, and/or 3 Not Steady Green When First Connected 1. Cable is disconnected/ broken 1. Connect/repair cable. 2. Cable/port mismatch 2. Check application matches cable. Straight cable instead of crossover cable, etc. 3. Rate mismatch. Far end equipment does not support 10Base/T. 3. Check far end equipment supports 10Base/T. 1. Cable is disconnected/ broken. 1. Connect/repair cable. 2. Cable/port mismatch 2. Check application matches cable. Straight cable instead of crossover cable, etc. Local end is receiving data but PPP disabled locally Check local provisioning for PPP port enabled. PPP PPP 5-26 Not Steady Green When First Connected Yellow Table 5 - 5 TMN Network Troubleshooting Problem Possible Cause Possible Solution Unusually slow communication in radio network 1. Normal network management traffic is saturating the communications channel. 1. There may be too many radios being managed within a single region. Split the radio network management into different regions and backhaul the traffic for each region through separate channels. 2. Polling radios for PM data or missed alarms too rapidly 2. Poll the radios more slowly. 3. Multiple remote software downloads in process 3. Download to fewer radios at a time. 4. IP traffic other than network management traffic being routed through radio network 4 Configure external routers to allow only network management related traffic through the Management network of the radios. Dynamic route updates (OSPF, RIP) may attempt to reroute high speed traffic through the TMN network if a high speed ink fails. Unable to operate controls using SNMP To perform control operations, the Manager must be registered as a craft device. Register the Manager as a craft device. Manager registration type can be changed as needed to type ‘ct’ to allow control operation and then be changed back to ‘nml’ for normal operation. Can Read SNMP objects but cannot Write to SNMP objects 1. Incorrect community string 1. Use the correct community string. 2. Insufficient SNMPv3 privileges 2. Use the correct privileges: a) The TMN Interface supports 4 view levels. Use a SNMPv3 user account that supports write access to the selected SNMP object. b) Use the correct Authentication mode. c) Use the correct Privacy passphrase. 3. If the TMN Interface is configured for SNMPv2, the write community string is probably wrong. 3 Use the correct write community string. 5-27 Table 5 - 5 TMN Network Troubleshooting (Cont.) Problem Possible Cause Possible Solution No traps being received from NE 1. Manager not registered in NE to receive traps 1. Register Manager with NE. 2. Communication failure in network 2. Check network connectivity. Check redundant network paths and routing. Traceroute (tracert) is useful for locating path or routing faults. Unable to communicate with the NE through the radio network (unable to ‘ping’ the NE) Possible communication path failure or routing failure within the radio network Use traceroute (tracert) to help locate for communication path or routing problems. Can ‘ping’ the TMN Interface but cannot communicate with the NE using SNMP, or can only see a few SNMP objects (mib-2) in the NE. 1. Using incorrect SNMP version at manager 1. Note the TMN card ships in SNMPv3 mode. If SNMPv2 operation is desired, it must be provisioned for SNMPv2 using the TUI. 2. If using SNMPv2, using the wrong community string. If using SNMPv3 using wrong username/passphrase pair 2. Verify community string or username/passphrase. 3. A corrupt SNMPv3 security configuration file may have caused the module to revert to the previous copy of the security configuration or to factory defaults. 3. Check to see if another username/passphrase combination works. Check to see if the previous passphrase works. Check the Default username/passphrase combination. It may be necessary to re-initialize the security configuration using the TUI. Reprovision accounts as required, and after the changes have been committed, force a reboot to copy the new security configuration into the backup configuration. 5-28 5.12 MODULE REPLACEMENT WARNING Possibility of Damage to Equipment Modules screwed to heat sink must be screwed securely before power is turned on. WARNING Possibility of Damage to Equipment Units with the electrostatic-sensitive (ESS) symbol contain ESS devices. Store these units in an antistatic container when not in use, and anyone handling a unit should observe antistatic precautions. Damage to the unit may result if antistatic protection is not maintained. Refer to the Special Precautions pages in the front of the instruction book for detailed handling information. WARNING Possibility of Damage to Equipment RF flex coaxial cable requires special consideration. The electrical characteristics of the coax can be affected if it is accidentally twisted or bent. Provide mechanical support to prevent any weight or strain to the coax and connector when connecting or disconnecting equipment. Loosen the connectors at both ends of a coax section if one end must be moved even slightly. SMA connectors should be secured fingertight, and then gently tightened using a torque wrench with a 5/16 in. head set for 7 to 9 inch-pounds. The connectors should not be left fingertight. 5-29 CAUTION Possibility of Service Interruption XMTR Crystals are soldered and tuned up in an oscillator assembly board at the factory. CAUTION Possibility of Service Interruption Modules may be removed or installed with shelf power applied. However, exercise reasonable care to prevent contacting adjacent modules. If clearances are narrow, consider setting the power supply to OFF while the module is being removed or replaced. (Before setting any switch to OFF, verify that traffic has been protected.) Before replacing any module, refer to Table 5 - 6 to determine the actions, other than physical replacement, required. If the module has any options (switches, subboards, etc.), refer to the removed module so that the replacement module can be set up the same way. Any module installed in the card cage, except those having front-panel cable connections, can be removed by grasping the module handle(s) and pulling firmly outward. Modules with front-panel interconnects can be removed in the same manner after disconnecting the cable from the module being removed and moving the cable out of the way. To install a module in the card cage, insert the module card connector edge into the appropriate card slot. Engage module handles in card cage and press on module handles until they are latched and the card is fully seated. After installing a module with front-panel interconnections, reconnect the cable(s) to the front-panel connector(s). 5-30 Table 5 - 6 Module Replacement Matrix MODULE/UNIT REMOVAL/REPLACEMENT PROCEDURE CHECKS/ADJUSTMENTS PROCEDURE AE-27AF Relay Interface No Special Procedure Required None Required AE-37Y Controller Para. 5.14 None Required CE-16BB Power Supply Para. 5.13 None Required Fuse No Special Procedure Required. Refer to Operations Section for Location. DX-35M DS1/E1 I/O Interface No special procedure required. None Required DX-35N DS3 I/O Interface (Early Versions) Para. 5.15 Para. 5.15 and Table 5 - 9 DX-35P OC3/STM-1 I/O Interface Para. 5.16 None Required DX-35R/S ETH I/O Interface Para. 5.16 None Required UD-35( ) Transmitter Para. 5.17 Para. 5.18, Para. 5.19, Para. 5.20, and Para. 5.21 Crystal Oscillator Subboard Figure 5 - 15 The Crystal Oscillator Subboard and crystal part numbers define this unit. The crystal is soldered to the oscillator subboard and factory tuned to the customers requirements. Capacity Key Figure 5 - 16 UD-36( ) Receiver Para. 5.22 Para. 5.232 Crystal Oscillator Subboard Figure 5 - 22 The Crystal Oscillator Subboard and crystal part numbers define this unit. The crystal is soldered to the oscillator subboard and factory tuned to the customers requirements. Capacity Key Figure 5 - 23 UD-51( ) Power Amplifier Hot-Standby Shelf CommPak Indoor Shelf Para. 5.24 Appendix A on enclosed CD LBO/AUX/Line Interface Hot-Standby Shelf CommPak Indoor Shelf RF Switch (1) (2) Maintenance Section on enclosed CD Appendix H on enclosed CD Maintenance Section on enclosed CD Para. 5.25 No Special Procedure Required No Special Procedure Required No Special Procedure Required If ATPC is in use, it must be provisioned disabled or locked high before removing controller. Applicable to older versions of RCVR with Freq Cont on front panel. 5-31 5.13 POWER SUPPLY REMOVAL AND REPLACEMENT See Figure 5 - 13 and follow the procedure to remove and replace CE-16BB Power Supply. CAUTION Possibility of Service Interruption This is an out-of-service procedure when on a nonstandby (unprotected) system. On a hot-standby or frequency diversity system, switch traffic on the channel under test to protect. Use front panel OVRD controls on AE-37( ) Controller to switch and lock on-line opposite side XMTR, RCVR, and I/O to opposite side from failed power supply. P/O SHELF REMOVE: (Remove steps are prefixed by the letter "R". INSTALL: (Install steps are prefixed by the letter "I". ALARM Ra Set PA POWER switch to OFF. OFF NORM Ia Verify joining surfaces on power supply and heatsink are clean. are clean. Ib Insert power supply in shelf and latch top and bottom insertion and extraction handles. Ic Tighten Screws (if present). Torque screws to 19 in. lbs. Id Set POWER switch to ON. ON 1 Rb Set POWER switch to OFF. POWER OFF 0 +10.5V Rc Loosen mounting screws (if present). Rd Unlatch top and bottom insertion and extraction handles and remove power supply from shelf. +12V –5V –12V NOTE If PA is not equipped, setting PA POWER switch to ON will turn on OFF NORM alarm. NOTE Radios have provisioning data stored on both the controller and A-side power supply. When provisioning is saved through downloading, the provisioning data is stored on both modules. If the radio is non-standby and the A-side power supply fails, the radio must be reprovisioned after the module is replaced and the reprovisioned data downloaded and saved. If the radio is hot-standby, the provisioning data stored on the controller is automatically copied to the replacement A-side power supply when provisioning is saved. GND Ie Set PA POWER switch to ON (if equipped). ON NOTE PA OFF CAUTION: TIGHTEN MOUNTING SCREWS BEFORE APPLYING POWER 2 PLACES MARKED A mismatch between software revisions on the controller and the replacement A-side power supply causes a flashing controller fail alarm when the spare power supply is plugged in. P/O SHELF Figure 5 - 13 Power Supply Removal/Installation 5-32 MDR-1041 09/08/05 5.14 CONTROLLER REMOVAL AND REPLACEMENT See Figure 5 - 14 and follow the procedure to remove and replace AE-37Y Controller. CAUTION Possibility of Service Interruption This is an in service procedure, however protection switching is disabled. If another failure occurs during the performance of the procedure, service will be interrupted. LBO/OC3 AUX INTFC b Remove ELMC Option Key (if equipped). Is radio OC3 or ETH? J2 Install removed ELMC Option Key from step 2 on replacement controller. Install replacement controller in shelf. No – Remove controller. Yes – On controller front panel press and hold ACO LT/OVRD switch in ACO LT position until TX, RX, and I/O On Line indicators flash. Release ACO LT/OVRD switch and remove controller. MDR-1042 09/08/05 Figure 5 - 14 Controller Module Installation (Sheet 1 of 4) 5-33 Note A replacement controller that is loaded with the same firmware load as the controller that is being replaced (i.e.: controller for DS3 radio is replacing a DS3 radio controller) is automatically rebooted and provisioned to match the module it is replacing. If the replacement controller is for a different type of radio (i.e.; controller for a DS3 radio is being used to replace a controller in a DS1 or OC3 radio), the controller alarm will flash when the replacement module is installed in the shelf. The flashing alarm prompts the user that the wrong firmware is installed. Ver if y alar m L E D i s n o t f l a s h i n g a n d r e b o o t i s in pr ogr es s . ( r e b o o t i s i n d i c a t e d b y a l l L E D s flashing in progression. I s c ont r oller a l a r m f l a s h i n g ? Yes – Go t o S t e p f . No – I s r e b o o t i n p r o g r e s s ? Ye s – Ve r i f y Contr ol l er Ve r si on o n bottom of USI screen is latest. I s lat es t v er si o n o f f i r m w a r e d i s p l a y e d ? Yes – S TO P. T h i s p r o c e d u r e i s c o m p l e t e . No – D o y o u w a n t t o u p g r a d e t o t h e l a t e s t version? Ye s – G o t o s t e p h . No – Stop. This procedure is complete. LMW-5063 10/11/05 Figure 5 - 14 Controller Module Installation (Sheet 2 of 4) 5-34 f Provisioning hold message displays. g Click here. Click here. Alcatel User Interface File View Setup Options Communication Options F6 F5 F4 New Controller Alarm Status F7 Performance F8 Station Alarm F9 User Control Provisioning Firmware Upgrade LOCAL MAIN ELMC Address Diagnostics ELMC Descriptions Communicating*** Prov. Hold TDE Chip Receive Provisioning Note Provisioning hold message is displayed on all screens. The message is removed when provisioning is saved. MDR-1044 09/08/05 Figure 5 - 14 Controller Module Installation (Sheet 3 of 4) 5-35 h CLICK HERE i CLICK HERE CLICK HERE Alcatel User Interface File View Setup Options Communication Options F6 F5 F4 New Controller Alarm Status F7 Performance Firmware Upgrade F8 Station Alarm User Control Prov. Hold Diagnostics ELMC Descriptions Provisioning Download LOCAL MAIN ELMC Address F9 Communicating*** TDE Chip Receive Provisioning 11-DS1 12-DS3 13-OC3 21 = R2.01 = Release Version Please Select a Filename in the Following Drive Directory before Downloading css11_38.DAT 21.dat CSS00 c: k SELECT RADIO c:\ Windnld 8000 DS1 8000 DS3 8000 OC3 0% The Current Select File Is: c:\windnld\CSS00_38.DAT CLICK ON LATEST FILE (HIGHEST NUMBER FOR RADIO TYPE) m CLICK HERE Start Down Load PROGRESS BAR DISPLAYS % OF DATA LOADED 100% Downloading at 38400 Baud 0% VERIFY PROGRESS BAR DISPLAYS % OF DATA VERIFIED 100% Verify Down Load NOTE AFTER AUTOMATICALLY REBOOTING, THE CONTROLLER WILL START RUNNING, PROVISIONING PREVIOUSLY STORED IN THE CONTROLLER WILL BE LEFT UNCHANGED BY THE DOWNLOAD PROGRAM. GO TO THE INITIAL TURNUP SECTION AND CHECK PROVISIONING/REPROVISIONING AS REQUIRED. NOTE AFTER PROVISIONING IS SAVED, THE CONTROLLER WILL BOOT UP WITHIN 20 SECONDS. STOP. THIS PROCEDURE IS COMPLETE. Figure 5 - 14 Controller Module Installation (Sheet 4 of 4) 5-36 LMW-5064-SM 10/11/05 5.15 DS3 I/O INTERFACE REMOVAL AND REPLACEMENT Follow procedure to remove and replace DX-35N DS3 I/O Interface module. Refer to Table 5 - 7 and Table 5 - 8 for configuration functions. Table 5 - 7 1- or 3-Line I/O Interface Module PN 3DH03169XX Variant XX = System Application AA Linear/Ring AB Ring AG Linear/Ring AH Linear/Ring AK Linear/Ring AM Linear/Ring Auto Radio DADE Auto Line DADE Front Panel Controls Note: X indicates function is applicable. Table 5 - 8 2-Line I/O Interface Module PN 3DH03169XX Variant XX = System Application Auto Radio DADE Auto Line DADE Front Panel Controls AJ Linear/Ring AN Linear/Ring Note: X indicates function is applicable. Remove I/O interface module from shelf. Install I/O interface module in shelf. Refer to Table 5 - 9 or Table 5 - 10 and perform required procedures (if any). STOP. This procedure is complete. 5-37 Table 5 - 9 1- or 3-Line Matrix, Valid Combinations/Procedures I/O Interface Module PN 3DH03169AAXX Configuration in Shelf Position A3, B3, Variant XX = Radio Configuration Radio DADE (Refer to CD) Line DADE (Refer to CD) AA AA HS, FD, SD AA AB HS, FD, SD AA AG HS, FD, SD AA AH HS, FD, SD AA AK HS, FD, SD AB AB HS, FD, SD AB AG HS, FD, SD AB AH HS, FD, SD AB AK HS, FD, SD AG AG HS, FD, SD AG AH HS, FD, SD AG AK HS, FD, SD AH AH HS, FD, SD AH AK HS, FD, SD AK AK HS, FD AK AK SD AK AM HS, FD, SD AM AM HS, FD, SD Notes: 1. Module locations are reversible. 2. Perform procedure indicated by X for specific module and radio configuration. Table 5 - 10 Line Matrix, Valid Combinations/Procedures I/O Interface Module PN3DH03169XX Configuration In Shelf Position A3, B3, VARIANT XX = Radio Configuration Radio DADE (Refer to CD) Line DADE (Refer to CD) AJ AJ HS, FD, SD AJ AL HS, FD, SD AL AL HS, FD AL AL SD AL AN HS, FD, SD AN AN HS, FD, SD NOTES: 1. Module locations are reversible. 2. Perform procedure indicated by X for specific module and radio configuration. 5-38 5.16 OC3/STM-1/ETH I/O INTERFACE REMOVAL AND REPLACEMENT Use this procedure to remove and replace DX-35P OC3/STM-1 or DX-35R/S ETH I/O Interface module. If radio is protected (hot-standby, space diversity, or frequency diversity, use front panel OVRD controls on AE-37( ) Controller to lock on-line XMTR, RCVR, and I/O (opposite side from failed I/O) on line. On front panel of controller module, press and hold ACO LT/OVRD switch in ACO LT (lamp test) position until TX, RX, and I/O On LINE LEDs on front of controller flash (approximately 5 seconds wait). Release ACO LT/OVRD switch. Disconnect cables. Remove I/O Interface module from shelf. Install replacement I/O Interface module in shelf. Connect cables. On AE-37( ) Controller, toggle OVRD switch to disable override (unlocks on-line XMTR and restores automatic switching functions). STOP. This procedure is complete. 5-39 5.17 XMTR REMOVAL AND REPLACEMENT Use this procedure to remove and replace the UD-35( ) XMTR and/or Capacity Key and Crystal Oscillator Subboards on the XMTR. Note Spare XMTRs and XMTRs repaired at the factory normally do not contain Crystal Oscillator Subboards or Capacity Keys. The user must retain the crystal Oscillator Subboard and the Capacity Key from the module being replaced before sending the module back to the factory for repair. On power supply, on same side as failed XMTR, set PA ON/OFF switch to OFF (if shelf is equipped with PA on that side). On XMTR module, disconnect cable from RF OUT connector. Remove XMTR module from card cage. On XMTR module being replaced, remove XMTR crystal oscillator subboard. See Figure 5 - 15. Retain for installation on replacement module. On XMTR module being replaced, remove XMTR capacity key. See Figure 5 - 16. Retain for installation on replacement module. On replacement XMTR module, install XMTR crystal oscillator subboard. See Figure 5 - 15. On replacement XMTR module, install XMTR capacity key. See Figure 5 - 16. Reconnect cable to RF OUT connector. Install replacement XMTR module in card cage. 5-40 j Perform XMT Crystal Oscillator Frequency Checks and Adjustment procedure. Refer to Para. 5.18. On power supply, set PA ON/OFF switch to ON (if turned off in Step a). Note Output level calibration is required for the last amplification stage in the chain of XMT amplifiers leading to the antenna, only. If the radio is equipped with a PA and a transmitter fails, the replacement transmitter must be adjusted to return the radio to the original PA output power. It is not necessary to calibrate the transmitter. Is radio equipped with optional PA? If no, Perform XMTR Output Level Calibration (No PA) procedure. Refer to Para. 5.21. If yes, restore PA output level. See applicable Figure 5 - 17 or Figure 5 - 18 for procedure. Perform one of the following XMTR Carrier Null Adjustment procedures: In-Service XMTR Carrier Null Adjustment Using spectrum Analyzer, Para. 5.20 XMTR Carrier Null Adjustment Using Spectrum Analyzer, (Refer to CD). XMTR Carrier Null Adjustment Using DVM, (Refer to CD). STOP. This procedure is complete. 5-41 Remove: Remove transmitter from card cage. Remove 8 screws from Crystal Ocsillator Subboard cover, and remove cover. XMTR–RIGHT SIDE VIEW Disconnect ribbon cable from J8. Remove 3 mounting screws, and remove Crystal Oscillator Subboard. Install: J8 Place Crystal Oscillator Subboard in mounting cavity. Install 3 mounting screws. Connect ribbon cable to connector J8. CRYSTAL OSC SUBBOARD Install cover with 8 screws. Install XMTR in card cage. Note Ensure board edge does not make contact with chassis wall. MDR-1021 09/08/05 Figure 5 - 15 XMTR Crystal Oscillator Subboard Removal/Installation 5-42 CAUTION Possibility of Service Interruption This is an out-of-service procedure when on a nonstandby (unprotected) system. On a hot-standby or frequency diversity system, switch traffic on the channel under test to protect. Remove: Remove transmitter from card cage. Remove 13 screws from Capacity Key and remove Capacity Key. Install: Install Capacity Key on three connectors. Install 13 screws. XMTR-RIGHT SIDE VIEW LMW-6016-SM 09/08/05 Figure 5 - 16 XMTR Capacity Key Removal/Installation 5-43 NTFC XMT LVL ADJ Connect power meter with 50 OHM power sensor to RF MON connector on PA. Measure RF monitor level on power meter. While monitoring power meter, adjust XMT LVL ADJ control on XMTR for READ X.X dBm level on PA label. This returns PA output level original level. PWR MON FREQ CONT XMT PWR ALM DC MON GND PWR ALM TEMP ALM DC MON ADJ ON LINE I CARR NULL PWR ALM ADJ READ X.X dBm FOR XX.X dBm AT TOP OF RACK Q CARR NULL TRANSMITTER XTAL MON 10.5V DC POWER AMPLIFIER READ X.X dBm FOR XX.X dBm AT TOP OF RACK READ [X.X dBm] FOR [XX.X dBm] AT TOP OF RACK POWER METER RF MON POWER SENSOR 50 OHM RF MON RF IN RF OUT Disconnect test equipment. MDR-1173 09/08/05 Figure 5 - 17 Restoring PA Output Power Using Power Meter 5-44 TFC XMT LVL ADJ Connect DVM to DC MON (+) test point and GND on PA. Measure DC monitor level on DVM. DC MON GND PWR ALM PWR MON FREQ CONT XMT PWR ALM While monitoring voltage on DVM, adjust XMT LVL ADJ control on XMTR for READ (X.X Vdc) voltage on PA label. This returns PA output level to original level. TEMP ALM DC MONITOR CALIBRATION READ [X.XADJ Vdc] DC MON FOR [XX.X dBm] PWR ALM ADJ ON LINE I CARR NULL 10.5V DC DC MONITOR CALIBRATION READ [X.X Vdc] FOR [XX.X dBm] Q CARR NULL TRANSMITTER POWER AMPLIFIER DVM XTAL MON READ [X.X dBm] FOR [XX.X dBm] AT TOP OF RACK RF MON RF OUT RF IN Disconnect test equipment. MDR-1174 09/08/05 Figure 5 - 18 Restoring PA Output Power Using DVM 5-45 5.18 XMT CRYSTAL OSCILLATOR FREQUENCY CORRECTION PURPOSE See Figure 5 - 19 and follow the procedure to correct the transmit frequency of the crystal oscillator on the UD-35() Transmitter module. Allow a 1-hour warm-up period for radio and test equipment before starting applicable tests or improper frequency adjustment can result. If waiting for initial alignment is impractical, it may be performed after a warm-up period of 5 minutes minimum; however, crystal frequency should be rechecked after full warmup. XMT LVL ADJ PWR MON FREQ CONT XMT PWR ALM a Connect Frequency Counter to XTAL MON connector. b Verify XMT LO frequency indicated on Frequency Counter is crystal reference frequency ± 3 parts per million. If not, adjust Freq Cont. ON LINE I CARR NULL Q CARR NULL c Check/adjust Carrier Null using Spectrum Analyzer (Paragraph 5-22 or 5-23) or DVM (Paragraph 5-24). TRANSMITTER XTAL MON FREQ COUNTER RF MON RF OUT MDR-1053 02/09/07 Figure 5 - 19 XMT Crystal Oscillator Frequency Check 5-46 5.19 XMTR OUTPUT LEVEL CHECK (NO PA) See Figure 5 - 20 and follow the procedure to check the RF output of the UD-35( ) Transmitter in radio configuration that is not equipped with the optional PA. CAUTION Possibility of Service Interruption This is an out-of-service procedure when on a nonstandby (unprotected) system. On a hot-standby or frequency diversity system, switch traffic on the channel under test off line. a If ATPC is enabled, disable (XMTR will go to high power). XMT LVL ADJ b Connect Power Meter with 50 OHM Power Sensor to RF MON Connector. PWR MON c Level on Power Meter should be same as on label ± 0.5 dB (0 dBm nominal). If not, adjust level using procedure in Para. 5.25. FREQ CONT XMT PWR ALM ON LINE I CARR NULL Q CARR NULL d If ATPC was enabled prior to performing this procedure, re-enable. TRANSMITTER e Stop. This procedure is complete. XTAL MON RF MON MEDIUM POWER SENSOR POWER METER RF OUT MDR-1145 02/08/07 Figure 5 - 20 XMTR Output Level Check (No PA) 5-47 5.20 IN-SERVICE XMTR CARRIER NULL ADJUSTMENT USING SPECTRUM ANALYZER See the following figures and follow the procedure to adjust carrier null on the UD-35A() Transmitter, in service. For out-of-service carrier null procedures, refer to CD. Note Carrier leakage can be nulled in the MDR-8000 using any one of three methods. Method 1 (the preferred method) uses a spectrum analyzer to determine if carrier leakage is present while a modulated signal is being transmitted (in service) and then nulling any carrier present. Methods 2 and 3 require that modulation be removed and the carrier is nulled while the transmitter is out of service. Method 2 uses a DVM to measure carrier leakage. Method 3 uses a spectrum analyzer. Using the spectrum analyzer Span controls, reduce the frequency span until the Resolution Bandwidth (Res BW) reaches the value defined as the Res BW for measuring carrier. At this Res BW, observe the spectrum trace for a carrier signal. If a carrier signal, rising above the spectrum floor, 3 dB or more is visible, use the procedure to null the carrier. If no carrier is visible, the carrier is sufficiently nulled. CAUTION Possibility of Service Interruption Ensure that the radio, and specifically the transmitter unit, is allowed to warm up for at least one hour operating in the radio before performing carrier null adjustments. 5-48 PO SHELF a. CONNECT SPECTRUM ANALYZER TO RF MON CONNECTOR. XMT LVL ADJ b. SET SPECTRUM ANALYZER CONTROLS. CONTROL INPUT ATTEN (dB) CENTER FREQ SETTING 10 dB CHAN FREQ (SEE FREQ LABEL ON XMTR OR PA). FREQ SPAN VALUE APPROXIMATELY TWICE THE WIDTH OF THE RF CHANNEL BANDWIDTH RESOLUTION BW AUTO VIDEO BW AUTO REFERENCE LEVEL O dBm SWEEP TIME AUTO AMPLITUDE SCALE 10 dB/DIV SPECTRUM ANALYZER PWR MON FREQ CONT XMT PWR ALM ON LINE I CARR NULL Q CARR NULL TRANSMITTER CHAN FREQ MHz XTL FREQ MHz FREQ LABEL XTAL MON RF MON RF OUT PO SHELF MDR-1209 10/11/05 Carefully adjust the spectrum analyzer to center the transmitter spectrum. Note As the spectrum analyzer’s frequency span is reduced and the flat top of the spectrum fills the spectrum analyzer display, it is extremely important to keep the spectrum display (with carrier signal if any) centered so that the carrier signal (if any) will remain visible as the span is reduced. 5-49 d Reduce the frequency span on the spectrum analyzer display while keeping the spectrum centered on the spectrum analyzer display. Continue to reduce the spectrum analyzer span while observing the Res BW field in the bottom left corner of the spectrum analyzer display. Continue reducing the frequency span until the correct Res BW for measuring carrier for the Radio Capacity/Modulation is displayed. Refer to the following table for the Res BW for measuring carrier required for the radio under test. Carrier Threshold Resolution Bandwidth Radio Capacity/Modulation Res BW For Measuring Carrier OC3/128 TCM 30 kHz 1 STS-1/128 TCM 10 kHz Res BW For Nulling Carrier 1 kHz 300 Hz 3 DS3/64 QAM 100 kHz 3 kHz 2 DS3/32 TCM 100 kHz 3 kHz 1 DS3/64 QAM 30 kHz 1 kHz 16 DS1/32 TCM 10 kHz 1 kHz 16 DS1/128 TCM 3 kHz 100 Hz 10 kHz 300 Hz 3 kHz 100 Hz 10 kHz 300 Hz 8 DS1/128 TCM 1 kHz 100 Hz 4 DS1/32 TCM 3 kHz 100 Hz 4 DS1/128 TCM 1 kHz 30 Hz 2 DS1/32 TCM 3 kHz 100 Hz 12 DS1/32 TCM 12 DS1/128 TCM 8 DS1/32 TCM 2 DS1/128 TCM 5-50 300 Hz 30 Hz CAUTION Possibility of Service Interruption Adjustment of the carrier signal for minimum amplitude is critical. Do not attempt to null the carrier signal until the correct Res BW is reached. Incorrect adjustment can result in loss of traffic due to slow RCVR lock. Observe the display at the correct Res BW for measuring carrier for a carrier signal rising above the floor of the spectrum. Is a carrier signal rising 3 dB or more above the spectrum visible? No. STOP. This procedure is complete. Carrier is nulled to an acceptable level. Yes. 1) Continue to reduce the frequency span until the spectrum analyzer shows a Res BW equal to or lower than the Res BW For Nulling Carrier value shown in the table. 2) Alternately adjust the I Carr and Q Carr controls on the XMTR module for minimum carrier amplitude. Refer to the following typical scenario for adjustment tips/problems. TYPICAL ADJUSTMENT SCENARIO Refer to the following step-by-step adjustment of 3 DS3/64 QAM radio. In this scenario, carrier null adjustment is required due to slow RCVR lockup following a deep fade. The Res BW for nulling carrier for the 3 DS3/64 QAM radio is 3 kHz as listed in the table. 5-51 a. Center carrier on screen. Note It is extremely important to keep the carrier signal centered in the display so that the carrier will become visible as the span is reduced. b. Reduce Span to 30 mHz. 10 dB above spectrum floor c. Center carrier on screen. d. Reduce Span to 5 mHz. Res BW for measuring carrier Note Res BW automatically decreases as Span decreases. 5-52 MDR-1216 09/20/05 e. Center carrier on screen. f. Reduce Span to 1 mHz. g. Center carrier on screen. h. Observe Res BW i. Reduce Span to 500 kHz. MDR-1217 09/20/05 5-53 Note XMT LVL ADJ PWR MON FREQ CONT XMT PWR ALM You must watch the trace carefully on the spectrum analyzer when adjusting the I and Q carrier controls on the XMTR module. the I and Q carrier controls are interactive and the slightest change on one control causes a change on the other. You must alternate between controls until carrier null is obtained. The direction to turn the controls is not defined. If for example, the carrier level is dropping as you are turning the I CARR control counterclockwise, continue to turn counterclockwise until the carrier level on the trace stops dropping and then starts to go up. Then turn the Q CARR control counterclockwise or clockwise until downward movement is seen on the trace and continue to turn in that direction. Watch for the slightest change in direction and then move to the other control. ON LINE Carrier peak at start of procedure I CARR NULL Q CARR NULL k. Alternately adjust I & Q Carr Null controls for minimum carrier amplitude. Dashed lines are used to show changes in amplitude. TRANSMITTER j. Center carrier on screen. XTAL MON RF MON RF OUT Res BW For Nulling Carrier 5-54 MDR-1211 09/20/05 5-55 5.21 XMTR OUTPUT LEVEL CALIBRATION See Figure 5 - 21 and follow the procedure to check, and if necessary adjust, the RF output of the UD-35() Transmitter in radio configuration that is not equipped with the optional PA. CAUTION Possibility of Service Interruption This is an out-of-service procedure when on a nonstandby (unprotected) system. On a hot-standby or frequency diversity system, switch traffic on the channel under test to protect. Note If ATPC is enabled, disable (XMTR will go to high power). XMT LVL ADJ PWR MON FREQ CONT XMT PWR ALM ON LINE I CARR NULL Q CARR NULL a Disconnect cable from RF OUT connector. TRANSMITTER b Connect power meter with medium power sensor to RF OUT connector. XTAL MON RF MON RF OUT MEDIUM POWER SENSOR POWER METER MDR-1059 09/08/05 Figure 5 - 21 XMTR Output Level Calibration (Sheet 1 of 5) 5-56 c Determine XMTR nominal high and low output level: TRANSMIT POWER CALIBRATION ELMC Address: RACK6 Description: MDR-8000 XMTR nominal high output level = level at top of stack + insertion loss of diplexer filter/XMT filter (marked on label on filter. Communicating* 12:17:01 PM 10-May-99 d CLICK CALIBRATE A OR B SIDE Calibrate A Side XMTR nominal low output level = XMTR nominal high output level – 10 dB. Calibrate B-side Carrier Null A Carrier Null B Set your Tx Level to 10 dB below nominal HIGH power using the (XMT LVL ADJ) potentiometer on your TRANSMITTER module. After this is done, click Next. XMT LVL ADJ PWR MON Abort Next FREQ CONT XMT PWR ALM ON LINE I CARR NULL Q CARR NULL TRANSMITTER Set your Tx Level to nominal HIGH power using the (XMT LVL ADJ) potentiometer on your TRANSMITTER module. After this is done, click NEXT. Abort Back Next Example: Expected output level at top of stack = 14 dBm. Label on diplexer filter/XMT filter shows insertion loss is 2dB. Nominal high power out of XMTR = 16 dBm (14 dBm + 2 dBm = 16 dBm). Set nominal low power level for 6 dBm (10 dB down from 16 dBm). Proceed to Sheet 3 MDR-1060 09/08/05 Figure 5 - 21 XMTR Output Level Calibration (Sheet 2 of 5) 5-57 Note Ensure ATPC is disabled. Save the calibrated values. Click next Storing calibration data, please wait... Abort Back Next Abort Back Click Next. Next Click Next. Successfully stored calibration data Back Finish Click Finish. Calibration is complete. l Disconnect power meter and sensor from RF OUT connector. m Reconnect cable to RF OUT connector. n Observe RF MON label on XMTR front panel. On label, is the measured READ level in dBm or Vdc? If labeled READ X.X dBm, go to step o. If labeled READ X.X Vdc, go to step s. Figure 5 - 21 XMTR Output Level Calibration (Sheet 3 of 5) 5-58 MDR-6061 09/08/05 o Connect Power Meter with 50 OHM Power Sensor to RF MON connector. p Measure RF Monitor Level on Power Meter. XMT LVL ADJ q Make new label for RF MON. MEASURED LEVEL (STEP b). PWR MON FREQ CONT XMT PWR ALM READ [X.X dBm] FOR [XX.X dBm] AT TOP OF RACK ON LINE I CARR NULL Q CARR NULL TRANSMITTER EXPECTED OUTPUT LEVEL AT TOP OF STACK (REFER TO FIGURE 9-35 STEP a). r Attach new label. XTAL MON READ [X.X dBm] FOR [XX.X dBm] AT TOP OF RACK RF MON POWER SENSOR 50 OHM POWER METER RF OUT MDR-1062 09/08/05 Figure 5 - 21 XMTR Output Level Calibration (Sheet 4 of 5) 5-59 + DVM s Connect DVM to PWR MON test point. XMT LVL ADJ t Measure voltage on DVM. u Make new label. PWR MON FREQ CONT XMT PWR ALM DC MONITOR CALIBRATION READ [X.X Vdc] FOR [XX.X dBm] ON LINE MEASURED LEVEL (STEP b). I CARR NULL Q CARR NULL DC MONITOR CALIBRATION READ [X.X Vdc] FOR [XX.X dBm] EXPECTED OUTPUT LEVEL AT TOP OF STACK TRANSMITTER v Attach new label. w Re-check carrier null. XTAL MON RF MON RF OUT MDR-1063 09/08/05 Figure 5 - 21 XMTR Output Level Calibration (Sheet 5 of 5) 5-60 5.22 RCVR REMOVAL AND REPLACEMENT Use this procedure to remove and replace UD-36() RCVR. CAUTION Possibility of Service Interruption This is an out-of-service procedure when on a nonstandby (unprotected) system. On a hot-standby, space diversity, or frequency diversity system, switch traffic on the channel under test to protect. Use front panel OVRD controls on AE-37() Controller to switch and lock opposite side RCVR (opposite side from failed RCVR) on line. On RCVR module, disconnect cable from RF In connector. Remove RCVR module from card cage. On RCVR module being replaced, remove RCVR Crystal Oscillator Subboard. See Figure 5 - 22. Retain for installation on replacement module. On RCVR module being replaced, remove RCVR Capacity Key. See Figure 5 - 23. Retain for installation on replacement module. On replacement RCVR module, install RCVR Crystal Oscillator Subboard. See Figure 5 - 22. On replacement RCVR module, install RCVR Capacity Key. See Figure 5 - 23. Install replacement RCVR module in card cage. Is RCVR equipped with front panel Freq Cont.? If yes, go to step i If no, go to step j. Perform RCV Crystal Oscillator Frequency checks and adjustment procedure. Refer to Para. 5.23. Stop. This procedure is complete. 5-61 Remove: a Remove Receiver from card cage. b Remove 8 screws from Crystal OSC Subboard cover, and remove cover. RCVR–RIGHT SIDE VIEW c Disconnect ribbon cable from J8. d Remove 3 mounting screws, and remove Crystal OSC Subboard. Install: e Place Crystal OSC Subboard in mounting cavity. Note J8 CRYSTAL OSC SUBBOARD Ensure board edge does not make contact with chassis wall. Install 3 mounting screws. g Connect ribbon cable to Connector J8. h Install cover with 8 screws. Install Receiver in card cage. MDR-1064 10/04/04 Figure 5 - 22 RCVR Crystal Oscillator Subboard Removal/Installation 5-62 REMOVE: (Remove steps are prefixed by the letter "R". R1 Remove Receiver from card cage. R2 Remove 13 screws from Capacity Key, and remove Capacity Key. INSTALL: (Install steps are prefixed by the letter "I". I1 Install Capacity Key on 3 connectors. I2 Install 13 screws. RCVR – RIGHT SIDE VIEW MDR-1065 10/04/04 Figure 5 - 23 RCVR Capacity Key Removal/Installation 5-63 5.23 RCV CRYSTAL OSCILLATOR FREQUENCY CORRECTION See Figure 5 - 24 and follow the procedure to correct the receive frequency of the crystal oscillator on older versions of the UD-36 ( ) receiver module. Allow a 1-hour warm-up period for radio and test equipment before starting procedure or improper frequency adjustment can result. CHAN ALM EYE CLOSURE PED a. SET TO PED. AFC NORM b. CONNECT FREQ COUNTER TO XTAL MON CONNECTOR. AFC MON EYE MON RSL MON GND FREQ CONT c. VERIFY CRYSTAL FREQ IS SAME AS LABEL. IF NOT, ADJUST FREQ CONT FOR CRYSTAL FREQ. d. SET AFC PED/NORM SWITCH TO NORM. RECEIVER XTAL MON FREQ COUNTER RF IN LABEL 10.650 GHz 142.0000 MHz RF FREQ CRYSTAL FREQ Figure 5 - 24 RCV LO Adjustment 5-64 LMW-6090-SM 05/27/02 5.24 PA REMOVAL AND REPLACEMENT See Figure 5 - 25 and follow the procedure to remove and replace UD-51() PA. CAUTION Possibility of Service Interruption This is an out-of-service procedure when on a nonstandby (unprotected) system. On a hot-standby or frequency diversity system, switch traffic on the channel under test to protect. Use front panel OVRD controls on AE-37() Controller to lock online XMTR (opposite side from failed XMTR) on line. WARNING Possibility of Damage to Equipment To prevent monitor point errors, use caution to ensure that the front panel removed from the PA is replaced on that same PA. No two monitor point levels labeled on PAs are the same. Erroneous output levels can result from installing the wrong front panel and calibrating the PA to the level labeled on that front panel. 5-65 FRONT PANEL P/O SHELF REMOVE: (Remove steps are prefixed by the letter "R"). DC MON GND INSTALL: (Install steps are prefixed by the letter "I". PWR ALM TEMP ALM Ia Install replacement PA in shelf and tighten mounting screws (torque to 19 in. lbs). Ib Connect RF OUT cable. Ic Connect RF IN cable to XMTR RF OUT connector. Id Reinstall PA front panel and tighten thumbscrews. DC MON ADJ PWR ALM ADJ 10.5V DC POWER AMPLIFIER Ra Disconnect cable from XMTR RF OUT connector. RF MON RF IN P/O SHELF RF OUT Rd Disconnect RF OUT cable. Re Tilt top of PA forward approx 45˚ to clear RF OUT connector. Rf Remove PA from card cage. Rb Loosen thumbscrews and remove front panel. Rc Loosen mounting screws and slide PA toward front of card cage to access RF OUT connector. Figure 5 - 25 UD-51( ) Power Amplifier Removal and Replacement 5-66 MDR-1066 09/08/05 5.25 PA OUTPUT LEVEL CALIBRATION See Figure 5 - 26 and follow procedure to check, and if necessary, adjust the UD-51( ) Power Amplifier (PA) output in radio configuration that is equipped with the optional PA. CAUTION Possibility of Service Interruption This is an out-of-service procedure when on a nonstandby (unprotected) system. On a hot-standby or frequency diversity system, switch traffic on the channel under test to protect. DC MON GND PWR ALM TEMP ALM a Disconnect SMA connector from RF OUT connector. b Connect power meter with high power sensor to RF OUT connector. DC MON ADJ PWR ALM ADJ Note 10.5V DC POWER AMPLIFIER If ATPC is enabled, disable (XMTR will go to high power). RF MON RF IN RF OUT 30 DB PAD* HIGH POWER SENSOR* * As an alternative procedure, replace high power sensor with a medium power sensor and install in-line 30 dB attenuator. Attenuator must be properly calibrated for 30 dB. POWER METER MDR-1067 10/11/05 Figure 5 - 26 PA Output Level Calibration (Sheet 1 of 5) 5-67 c Determine PA nominal high and low output level: TRANSMIT POWER CALIBRATION ELMC Address: RACK6 Description: MDR-8000 PA nominal high output level = level at top of stack + insertion loss of diplexer filter/XMT filter (marked on label on filter). Communicating* 12:17:01 PM 10-May-99 d CLICK CALIBRATE A OR B SIDE Calibrate A Side XMTR nominal low output level = XMTR nominal high output level -10 dB. Calibrate B-side Carrier Null A Carrier Null B Set your Tx Level to 10 dB below nominal HIGH power using the (XMT LVL ADJ) potentiometer on your TRANSMITTER module. After this is done, click Next. XMT LVL ADJ PWR MON Abort Next FREQ CONT XMT PWR ALM ON LINE I CARR NULL Q CARR NULL TRANSMITTER Set your Tx Level to nominal HIGH power using the (XMT LVL ADJ) potentiometer on your TRANSMITTER module. After this is done, click NEXT. Abort Back Next Example: Expected output level at top of stack = 29 dBm. Label on diplexer filter/XMT filter shows insertion loss is 2 dB. Nominal high power out of PA = 31 dBm (29 dBm + 2 dBm = 31 dBm). Set nominal low power level for 21 dBm (10 dB down from 31 dBm). Proceed to Sheet 3 Figure 5 - 26 PA Output Level Calibration (Sheet 2 of 5) 5-68 MDR-1068 10/04/04 i Save your calibrated values. Click next Abort Back Next Storing calibration data, please wait... Abort l Click Finish. Calibration is complete. Back CLICK NEXT. Next Successfully stored calibration data m Reconnect cable to RF OUT connector. n Observe RF MON label on PA front panel. On label, is the measured READ level in dBm or Vdc? Back Finish If labeled READ X.X dBm, go to Step o. If labeled READ X.X Vdc, go to Step s. MDR-1069 09/08/05 Figure 5 - 26 PA Output Level Calibration (Sheet 3 of 5) 5-69 o Connect Power Meter with 50 Ohm Power Sensor to RF MON connector. DC MON p Measure RF MON level on Power Meter. GND q Make new label for RF MON: PWR ALM MEASURED LEVEL (STEP b). TEMP ALM DC MON ADJ READ X.X dBm FOR XX.X dBm AT TOP OF RACK PWR ALM ADJ 10.5V DC POWER AMPLIFIER EXPECTED OUTPUT LEVEL AT TOP OF STACK (REFER TO FIGURE 9-37 STEP 1). r Attach new label. READ X.X dBm FOR XX.X dBm AT TOP OF RACK RF MON RF IN RF OUT POWER SENSOR 50 OHM POWER METER MDR-1070 09/08/05 Figure 5 - 26 PA Output Level Calibration (Sheet 4 of 5) 5-70 + DVM s Connect DVM to DC MON (+) test point and GND. DC MON GND PWR ALM TEMP ALM DC MONITOR CALIBRATION READ [X.XADJ Vdc] DC MON FOR [XX.X dBm] PWR ALM ADJ 10.5V DC POWER AMPLIFIER t Using DC MON ADJ on PA front panel, adjust for voltage on DVM equaling expected level at top of stack multiplied by 0.1. EXAMPLE: EXPECTED LEVEL AT TOP OF STACK = 29 dBm 29 dBm X 0.1 (VOLTS DC/dBm) = 2.9 VOLTS DC u Create new label: DC MONITOR CALIBRATION READ [X.X Vdc] FOR [XX.X dBm] MEASURED LEVEL (STEP b). EXPECTED OUTPUT LEVEL AT TOP OF STACK REFER TO EXAMPLE ABOVE. v Attach new label over the top of DC MON ADJ. RF IN MDR-1071 09/08/05 Figure 5 - 26 PA Output Level Calibration (Sheet 5 of 5) 5-71 5.26 CHANGING FREQUENCY CAUTION Possibility of Service Interruption Crystals are soldered and tuned up in a crystal oscillator subboard at the factory. Changing frequencies requires changing the crystal on the crystal oscillator subboard in the transmitter and receiver modules. Changing out the crystal requires tuning the crystal oscillator subboard. Tuning the crystal oscillator subboard is a factory procedure. An RF frequency change may require re-tuning the diplexer. Re-tuning the diplexer is a factory procedure. 5.27 CLEANING CAUTION Possibility of Service Interruption Do not use acid, alcohol, or brushes to clean modules because damage to the silkscreen labeling and antistatic coating can result. Cleaning should be confined to the removal of dust and dirt using a damp cloth. Cleaning should normally be confined to the removal of dust and dirt using a soft bristled (natural fiber) brush and a low velocity blower (such as a vacuum cleaner with a plastic blower nozzle). Do not use acid or synthetic bristled brushes to clean modules that contain electrostatic-sensitive components. 5-72
Source Exif Data:
File Type : PDF File Type Extension : pdf MIME Type : application/pdf PDF Version : 1.6 Linearized : Yes Tagged PDF : Yes Page Mode : UseOutlines XMP Toolkit : Adobe XMP Core 4.0-c316 44.253921, Sun Oct 01 2006 17:14:39 Producer : Acrobat Distiller 7.0.5 for Macintosh Create Date : 2007:12:05 14:55:35Z Modify Date : 2010:03:02 14:32:59-06:00 Creator Tool : FrameMaker 7.0 Metadata Date : 2010:03:02 14:32:59-06:00 Format : application/pdf Title : MDR-8000 Radio Family Users Manual Issue 9 Description : MDR-8000 Radio Users Manual Creator : Joe Watson Subject : MDR-8000 Radio Family, Users Manual, Issue 9 Document ID : uuid:b233fada-a499-11dc-9956-0003935a57b0 Instance ID : uuid:e3d04959-ac5c-435d-8139-849457b88bc6 Has XFA : No Page Count : 130 Page Layout : SinglePage Author : Joe Watson Keywords : MDR-8000, Radio, Family, Users, Manual, Issue, 9EXIF Metadata provided by EXIF.tools