Master Unit Manual.pdf

ION-M

Optical Master Unit

User's Manual M0106A9AH

Users Manual for

ION-M Optical Master Unit

Page 2 M0106A9AH.doc

Copyright 2013 CommScope, Inc. All rights reserved.

All information contained in this manual has been revised thoroughly. Yet CommScope accepts no liability for any omissions or faults.

CommScope reserves the right to change all hardware and software characteristics without notice.

Names of products mentioned herein are used for identification purposes only and may be trademarks and / or registered trademarks of their respective companies.

No parts of this publication may be reproduced, stored in a retrieval system, transmitted in any form or by any means, electronical, mechanical photocopying, recording or otherwise, without prior written permission of the publisher. Andrew Wireless Systems GmbH, 11-January-2013

TABLE OF CONTENTS

1. GENERAL 11

1.1. USED ABBREVIATIONS 11

1.2. HEALTH AND SAFETY WARNINGS 13

1.3. ABOUT COMMSCOPE 15

1.4. INTERNATIONAL CONTACT ADDRESSES FOR CUSTOMER SUPPORT 16

2. INTRODUCTION 19

2.1. PURPOSE 19

2.2. THE ION-M MASTER UNIT 19

3. FUNCTIONAL DESCRIPTION 21

3.1. ION-M MU COMPONENTS OVERVIEW OF SECTIONS IN MANUAL 21

3.2. GENERAL 22

3.3. COMPONENTS OF THE MASTER UNIT 24 3.3.1. Point of Interface (POI) Subrack (Optional Configuration) 26 3.3.2. Optical and Combining Section 28

3.3.2.1. LTE Subrack EMEA 28 3.3.2.2. Legacy Applications with OTRx 4-9/18/21-26 MU-LG 32 3.3.2.3. LTE Subrack US 32 3.3.2.4. Subrack Two OTRxs 33 3.3.2.5. Subrack Three OTRxs 34 3.3.2.6. Subrack Four OTRxs 35 3.3.2.7. Subrack Three-Sectors Three OTRxs 35

3.3.3. Duplexer Unit 36 3.3.4. Master Controller - Overview 37 3.3.5. Master Controller: RMC1600 37

3.3.5.1. RMC1600 Battery Backup (BBU) 38 3.3.5.2. RMC1600 Front Side 38 3.3.5.3. RMC1600 Rear Side 46 3.3.5.4. RMC1600 Modem 52

3.3.6. Master Controller: MMC Plus 53 3.3.6.1. MMC Plus Front Side 53 3.3.6.2. MMC Plus Backplane 58 3.3.6.3. MMC Plus VGA PS2 Connection Adapter Kit 59 3.3.6.4. Modems with MMC Plus 60

3.3.7. PDU and 1 HU PSU Subrack (Current Type) 61 3.3.7.1. Mounting Instructions for PDU/ PSU SR Connector Kit 66 3.3.7.2. PDU Configuration 69 3.3.7.3. PDU: Operating Instructions - LED Indication 74 3.3.7.4. PDU Status Indication LEDs 77 3.3.7.5. 1 HU PSU Subrack (SR) (Current Type) 79

3.3.8. Power-Supply Subracks 3 HU / 6 HU (Former Types) 82 3.3.9. Optional Equipment 86

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3.3.9.1. Monitor and Keyboard 86 3.3.9.2. Uninterruptible Power Supply 86 3.3.9.3. Input Power Protection (IPP) Option 87 3.3.9.4. Low Input Power Alarm (Option) 94 3.3.9.5. System Alarm Board (SAB) 95 3.3.9.6. PIN Assignment of SAB Summary-Alarm Connector 97 3.3.9.7. PIN Assignment of SAB External-Alarms Connector 98 3.3.9.8. External-Alarm Relays 99 3.3.9.9. Rack Alarm Board (RAB) 100 3.3.9.10. External Modem 103

4. COMMISSIONING 105

4.1. MECHANICAL INSTALLATION 105

4.2. ELECTRICAL INSTALLATION 107 4.2.1. General 107 4.2.2. Grounding and Power Connection 108

4.2.2.1. Installation of the Cabling of the Indoor Cabinet (Standard) 108 4.2.2.2. Installation of the Cabling of the Outdoor Cabinet 109

4.2.3. Interconnection between Master-Unit Cabinets 110 4.2.4. BTS / Node B Connections 111 4.2.5. Optical-Fibre-Cable Connection - Rules 112

4.3. COMMISSIONING - POWER-UP THE MASTER UNIT 114

4.4. COMMISSIONING THE RF AND OPTICAL SYSTEM 115 4.4.1. Setting the Transceiver Address 115 4.4.2. ALC Handling 116

4.4.2.1. General ALC Information 116 4.4.2.2. ALC Handling for ION-M EP Systems only (OTRx 4-9/18/21-26 MU) 116

4.4.3. Adjust the BTS / Node B DL Level 119 4.4.4. Band Ports of ION-M OTRx 4-9/18/21-26 MU-G (LG) 124 4.4.5. Band Ports of ION-M OTRx 8-9/18/21 Transceivers 125 4.4.6. Band Ports of ION-M OTRx 70-85/90/17-21 Transceivers 125 4.4.7. Band Ports of ION-M OTRx 1/4/9 Transceivers 126 4.4.8. Band Ports of MMR OTRx 4-21 Transceivers 126 4.4.9. Band Ports of 3-Sector ION-M Optical Transceivers 127

4.4.9.1. Band Ports of ION-M OTRx 17P/17P/17P Transceivers 127 4.4.9.2. Band Ports of ION-M OTRx 19P/19P/19P Transceivers 128

4.4.10. Band Ports of ION-M OTRx 17P/17P/19P Transceivers 129 4.4.11. Band Ports of ION-M OTRx 7P/7P/85P/19P Transceivers 129

4.5. SYSTEM STARTUP AND LOCAL LOGIN 130 4.5.1. System Startup of RMC1600 130 4.5.2. Local Login of RMC1600 130 4.5.3. System Startup of MMC Plus 131 4.5.4. Local Login of MMC Plus 131

4.6. MMR COMPATIBILITY OFFSET (ONLY FOR ION-M9/18/21 RU) 132

5. ALARMS AND TROUBLESHOOTING 133

6. MAINTENANCE 133

6.1. MAINTENANCE IN GENERAL 133

6.2. HOT SWAPPING UNABILITY 134

6.3. CLEANING AND SECURITY CHECK OF THE ION-M MU CABINET 135

6.4. SECURITY CHECK OF THE ION-M MU CABINET 135

6.5. GENERAL INSTRUCTIONS FOR THE RMC1600 136

6.6. SAFETY WARNINGS FOR BATTERY BACKUP REPLACEMENT (VALID FOR BOTH RMC1600 AND MMC PLUS) 136

6.7. REPLACEMENT OF THE RMC1600 BATTERY PACK & BATTERY FUSE 139

6.8. REPLACEMENT OF RMC1600 MAINS FUSE 142

6.9. UPGRADE OF V.08 MMC PLUS BATTERY BACKUP KIT 143

6.10. REPLACEMENT OF THE V.08 MMC PLUS BATTERY PACK 147

6.11. MAINTENANCE CYLE OF MMC PLUS BATTERY BACKUP 148 6.11.1. General and Basic Functions of the MMC Plus Battery Pack 148 6.11.2. Reasons why the Battery Pack has to be Replaced 149 6.11.3. Restrictions on Battery Operation 149

6.12. REPLACEMENT OF V.11 MMC PLUS BATTERY MODULE 150

6.13. MMC PLUS FRONT BBU - STATUS-LED 156

7. APPENDIX 157

7.1. ILLUSTRATIONS & LAYOUT 157

7.2. SPECIFICATIONS 162 7.2.1. Electrical Specifications 162 7.2.2. Mechanical Specifications 163 7.2.3. Environmental and Safety Specifications - Indoor ION-M MU 164

7.3. SPARE PARTS 165

8. INDEX 166

9. LIST OF CHANGES 169

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FIGURES AND TABLES figure 3-1 Overview of the ION-M MU components, sections in manual .................. 21 figure 3-2 Overview of the ION-M Master Unit, first rack .......................................... 22 figure 3-3 Block diagram (exemplary) of an ION-M Master Unit, with one OTRx...... 23 figure 3-4 Components of an optical Master Unit, exemplary setup ......................... 25 figure 3-5 Position of optional POI subrack in MU rack, exemplary layout ............... 27 figure 3-6 Adapter Card upper bands, schematic view ............................................. 29 figure 3-7 Adapter Card lower bands, schematic view .............................................. 29 figure 3-8 Diplexer Module 21/26 + 18, schematic view ........................................... 29 figure 3-9 Triplexer Module 4/8/9, schematic view .................................................... 29 figure 3-10 Frequency Conversion Modules lower bands, schematic view .............. 30 figure 3-11 Frequency Conversion Modules upper bands, schematic view .............. 31 figure 3-12 LTE Subrack EMEA, exemplary ............................................................. 31 figure 3-13 US LTE700 subrack with three OTRx & FCMs, exemplary .................... 32 figure 3-14 Subrack with two OTRx with MMC Plus & BBU-Kit, exemplary .............. 32 figure 3-15 Subrack two OTRxs ................................................................................ 33 figure 3-16 Subrack two OTRxs with MMC Plus ....................................................... 33 figure 3-17 BTS-connect units with OTRx................................................................. 33 figure 3-18 Subrack three OTRxs ............................................................................. 34 figure 3-19 Subrack three OTRxs with MMC Plus .................................................... 34 figure 3-20 Subrack four OTRxs ............................................................................... 35 figure 3-21 US subrack with 3 x 3-Sector OTRx & FCMs, exemplary ....................... 35 figure 3-22 Duplexer unit, interior view ..................................................................... 36 figure 3-23 RMC1600 front side, connectors ............................................................ 38 figure 3-24 RMC1600 battery drawer, screw & handle ............................................. 39 figure 3-25 RMC1600 ON/OFF/ Reset button ........................................................... 39 figure 3-26 LOCAL LAN 2 Ethernet connector .......................................................... 40 figure 3-27 LOCAL LAN 2 RJ45 connector, pinning ................................................. 40 figure 3-28 RMC1600 SIM-card drawer .................................................................... 43 figure 3-29 RMC1600 RF connectors ....................................................................... 45 figure 3-30 Internal modem coupler in RMC1600 ..................................................... 45 figure 3-31 RMC1600 rear side, connectors (exemplary) ......................................... 46 figure 3-32 RMC1600 power connector .................................................................... 46 figure 3-33 RMC1600 fuse F1 .................................................................................. 47 figure 3-34 RMC1600 summary-alarm connector ..................................................... 47 figure 3-35 Ports COM 8 + COM 7 - COM 5 & COM 1 ............................................. 48 figure 3-36 Ports COM 2 & COM 22 and COM 3 & COM 13 .................................... 48 figure 3-37 COM22 RJ45 connector, pinning ............................................................ 49 figure 3-38 COM13 RJ45 connector, pinning ............................................................ 49 figure 3-39 SITE LAN3 RJ45 connector, pinning ...................................................... 50 figure 3-40 CUSTOMER LAN1 RJ45 connector, pinning ......................................... 50 figure 3-41 RMC1600 USB interfaces ...................................................................... 51 figure 3-42 RMC1600 VGA monitor connector ......................................................... 51 figure 3-43 MMC Plus, connectors at front side ........................................................ 53 figure 3-44 MMC Plus, Relay contacts, alarm condition ........................................... 55 figure 3-45 PIN assignment of MMC Plus summary-alarm connector X4 ................. 55 figure 3-46 PIN assignment of MMC Plus external alarm input/ output connector .... 56

figure 3-47 Alarm relay contacts with PIN assignment, exemplary for MMC Plus Output 1 (alarm condition)...................................................................... 56

figure 3-48 MMC Plus backplane, description of connectors .................................... 58 figure 3-49 MMC Plus power supply connector, PIN assignment ............................. 58 figure 3-50 MMC Plus PSU-alarms connector, PIN assignment ............................... 59 figure 3-51 MMC Plus modem power supply connector RJ12, PIN assignment ....... 59 figure 3-52 MMC Plus PS 2 adapter cable ............................................................... 59 figure 3-53 MMC Plus VGA adapter cable ................................................................ 60 figure 3-54 MMC Plus backplane, connectors for PS2 and VGA adapter cables ..... 60 figure 3-55 PDU & 1 HU PSU AC Subrack (current type) installed in MU, front side,

exemplary .............................................................................................. 62 figure 3-56 PDU & 1 HU PSU DC Subrack(current type) installed in MU, front side,

exemplary .............................................................................................. 62 figure 3-57 PDU & 1 HU PSU SR 1 (current type), mounting order .......................... 63 figure 3-58 Mains terminal block, AC ........................................................................ 64 figure 3-59 1 HU PSU subrack, front side ................................................................. 64 figure 3-60 Connections at the rear side ................................................................... 64 figure 3-61 PDU connector kit, exemplary ................................................................ 66 figure 3-62 PDU connectors, installed, rear side ...................................................... 66 figure 3-63 1 HU PSU SR connectors, installed, rear side ....................................... 67 figure 3-64 PDU + 1 HU PSU Subrack installed in MU, rear side, exemplary .......... 69 figure 3-65 PDU front side, uninstalled ..................................................................... 69 figure 3-66 PDU rear side, uninstalled, ..................................................................... 70 figure 3-67 Fan config alarm, 7-channel DIP switch ................................................. 70 figure 3-68 System-bus interface, 5-channel DIP switch .......................................... 71 figure 3-69 System-bus rotary address switch (16 positions) ................................... 72 figure 3-70 PDU operating elements, front side ........................................................ 74 figure 3-71 1 HU PSU SR, front side, empty, uninstalled ......................................... 79 figure 3-72 1 HU PSU SR with 5 AC PSUs, front side, uninstalled ........................... 79 figure 3-73 1 HU PSU SR, rear, uninstalled, layout of first deliveries ....................... 79 figure 3-74 1 HU PSU SR, rear, uninstalled, layout of deliveries from Rev.01 onwards

............................................................................................................... 80 figure 3-75 AC PSU module, position of locking lever & handle ............................... 81 figure 3-76 Power-supply subrack, 3 HU, front side (former type) ............................ 82 figure 3-77 Power-supply subracks 3 HU, rear side (former type) ............................ 82 figure 3-78 Power-supply subrack, 6 HU, front side (former type) ............................ 83 figure 3-79 Power-supply subracks, 6 HU, rear side (former type) ........................... 83 figure 3-80 Terminal block, AC connection ............................................................... 84 figure 3-81 Terminal block, DC connection with +48 V ............................................. 84 figure 3-82 Terminal block, DC connection with -48 V .............................................. 84 figure 3-83 Power-supply subrack backplane, description of connectors ................. 85 figure 3-84 Monitor with keyboard, 1 HU TFT ........................................................... 86 figure 3-85 UPS ........................................................................................................ 86 figure 3-86 Ports of IPP combiner, current version ................................................... 87 figure 3-87 Ports of IPP combiner, current version ................................................... 88 figure 3-88 Ports of Low IPP alarm ........................................................................... 94 figure 3-89 System alarm board (SAB) ..................................................................... 95 figure 3-90 DIP-switches on the system alarm board ............................................... 96 figure 3-91 SAB relay contacts, alarm condition ....................................................... 97 figure 3-92 SAB summary alarm connector, PIN assignment ................................... 97

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figure 3-93 PIN assignment of SAB external-alarm input / outputs connector .......... 98 figure 3-94 SAB relay contacts, exemplary for Output 1 (alarm condition) ............... 98 figure 3-95 Rack alarm board (RAB), 3-D view ....................................................... 100 figure 3-96 DIP-switches on the RAB for RS485 address setting ........................... 101 figure 3-97 MC35/ MC88 (EGS5 Cinterion) modem ............................................... 103 figure 4-1 Transport locks to be removed ............................................................... 105 figure 4-2 Additional transport locks ....................................................................... 106 figure 4-3 Outdoor cabinet, bottom with plates ....................................................... 109 figure 4-4 Interconnection between MU cabinets, exemplary ................................. 110 figure 4-5 Primary fuses and secondary voltage switches ...................................... 114 figure 4-6 Optical transceiver (OTRx) ..................................................................... 115 figure 4-7 Referenc plane input/ output .................................................................. 120 figure 4-8 Leveling the DL input signal ................................................................... 121 figure 4-9 Positions of stepless attenuator, type A .................................................. 122 figure 4-10 Positions of stepless attenuator, type B ................................................ 122 figure 4-11 ION-M26/26 EU output power datasheet excerpt ................................. 122 figure 4-12 ION-M26/26 EU link gain datasheet excerpt ........................................ 122 figure 4-13 Ports of the leveling adapter ................................................................. 124 figure 4-14 Configuration of band ports ION-M OTRx 8-9/18/21 ............................ 125 figure 4-15 Configuration of band ports OTRx 70-85/90/17-21 ............................... 125 figure 4-16 Configuration of band ports ION-M OTRx 1/4/9 ................................... 126 figure 4-17 Configuration of band ports MMR OTRx 4-21 ...................................... 126 figure 4-18 Configuration of band ports OTRx 17P/17P/17P .................................. 127 figure 4-19 Configuration of band ports OTRx 19P/19P/19P .................................. 128 figure 4-20 Configuration of band ports OTRx 17P/17P/19P .................................. 129 figure 4-21 Configuration of band ports OTRx7P/7P/85P/19P ............................... 129 figure 4-22 RMC1600 switch .................................................................................. 130 figure 4-23 Location of COM5 connector for local access at RMC1600 ................. 130 figure 4-24 Location of Ethernet connector for local access at MMC Plus .............. 131 figure 6-1 RMC BBU drawer, screw ........................................................................ 139 figure 6-2 RMC Battery pack & connector .............................................................. 140 figure 6-3 RMC BBU fuse holder ............................................................................ 141 figure 6-4 SW Version installed on SAB ................................................................. 143 figure 6-5 MMC Plus BBU Kit, front side (uninstalled) ............................................ 144 figure 6-6 MMC Plus BBU Kit, rear side (uninstalled) ............................................. 144 figure 6-7 MMC Plus, disconnecting the PSU cable ............................................... 145 figure 6-8 MMC Plus BBU Kit, PSU connector ....................................................... 145 figure 6-9 MMC Plus BBU Kit, layout after installation (exemplary) ........................ 146 figure 6-10 MMC Plus battery pack on BBU Kit ...................................................... 147 figure 6-11 Time elapsed of the MMC Plus battery ................................................. 148 figure 6-12 SW Version installed on SAB ............................................................... 150 figure 7-1 Layout of MU set-up, exemplary ............................................................. 157 figure 7-2 Master Unit, front view, example 1 ......................................................... 158 figure 7-3 Master Unit, front view, example 2 ......................................................... 159 figure 7-4 Master Unit, rear view, example 1 .......................................................... 160 figure 7-5 Master Unit, rear view, example 2 .......................................................... 161

table 1-1 List of international contact addresses ....................................................... 18 table 3-1 LED description of RMC1600 .................................................................... 41 table 3-2 LED function of RMC1600 ......................................................................... 42 table 3-3 Definition of the RMC1600 system alarm .................................................. 43 table 3-4 Description of the modem status LED of the RMC1600 ............................ 44 table 3-5 RMC1600 rear side connectors, description .............................................. 46 table 3-6 LED description of MMC Plus module ....................................................... 54 table 3-7 PIN assignment of MMC Plus relay contacts, alarm condition ................... 55 table 3-8 PIN assignment, exemplary for MMC Plus Output 1 (alarm condition) ...... 56 table 3-9 MMC Plus alarm-output connector X2, PIN assignment ............................ 57 table 3-10 MMC Plus external-alarm-input connector X3, PIN assignment .............. 57 table 3-11 MMC Plus power supply connector, PIN assignment .............................. 58 table 3-12 MMC Plus PSU-alarms connector, PIN assignment ................................ 59 table 3-13 MMC Plus modem power supply connector RJ12, PIN assignment ........ 59 table 3-14 PDU address range supported by MC SW .............................................. 72 table 3-15 PDU operating elements, front side ......................................................... 74 table 3-16 PDU Status LEDs, description of function ............................................... 78 table 3-17 Status LED, PSU module, description ..................................................... 80 table 3-18 DIP-switch settings of the system alarm board ........................................ 96 table 3-19 SAB relay contacts, PIN assignment ....................................................... 97 table 3-20 PIN assignment of SAB alarm-relay contacts, exemplary for Output 1

(alarm condition) .................................................................................... 98 table 3-21 External-alarm inputs and outputs, PIN assignment ................................ 99 table 3-22 DIP-switch settings of the Rack Alarm Board (RAB) .............................. 101 table 3-23 RAB address range supported by MC SW ............................................ 102 table 4-1 Address setting of cascaded system ....................................................... 115 table 4-2 DL output ALC setting locations .............................................................. 118 table 4-3 UL ALC setting locations ......................................................................... 119 table 6-1 MMC Plus front BBU status LED .......................................................... 156

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For your notes:

1 General

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1. GENERAL

1.1. USED ABBREVIATIONS 3GPP 3rd Generation Partnership Project A.I.M.O.S. Andrew Integrated Management and Operating System AC/DC Alternating current / Direct Current ALC Automatic Level Control AMPS Advanced Mobile Phone System APAC Asia Pacific AWS Advanced Wireless Services BBU Battery Backup BITE Built-In Test Equipment BTS Base Transceiver Station CD Compact Disk CE "Conformit Europenne" ("European Conformity") CPD Channel Power Detection DL Downlink DoC Declaration of Conformity EC European Commission EDGE Enhanced Data Rates for GSM Evolution EMEA Europe, Middle East and Africa EN European Norm eNB enhanced NodeB EP Extension Port ESD Electrostatic Discharge ETS European Telecommunication Standard EU Extension Unit FCC Federal Communications Commission FCM Frequency Conversion Module GND Ground GSM Global System for Mobile Communication GUI Graphical User Interface HP Horizontal Pitch (1 HP = 5.08 mm) ICP3 Intercept Point 3rd order ID No Identification Number iDEN Integrated Digital Enhanced Network ION Intelligent Optical Network IP Ingress Protection ISO International Organization for Standardization LED Light Emitting Diode LMT Local Maintenance Terminal LTE Long Term Evolution MC Master Controller MIMO Multiple Input Multiple Output MMC Mini Master Controller MS Mobile Station MU Master Unit

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NF Noise Figure OTRx Optical Transceiver PCS Personal Communication Service PDU Power Distribution Unit PG Packing Gland PIM Passive Intermodulation pp primary path R&TTE Radio & Telecommunications Terminal Equipment Rev Revision RF Radio Frequency RMC Rack Master Controller RU Remote Unit RX Receiver SISO Single Input Single Output SNMP Simple Network Management Protocol sp secondary path

SRMU Subrack Master Unit (= MU OTRx; designation in Master Controller Software) SW Software TETRA Terrestrial Trunked Radio TPX Diplexer/ Triplexer TS Technical Specification TX Transmitter U Rack Unit UE User Equipment UL Uplink UMTS Universal Mobile Telecommunication System UPS Uninterruptible Power Supply VSWR Voltage Standing Wave Ratio WCDMA Wideband Code Division Multiple Access WDM Wavelength Division Multiplex

1 General

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1.2. HEALTH AND SAFETY WARNINGS 1. Only suitably qualified personnel is allowed to work on this unit and only after

becoming familiar with all safety notices, installation, operation and maintenance procedures contained in this manual.

2. Read and obey all the warning labels attached to the unit. Make sure that the

warning labels are kept in a legible condition and replace any missing or damaged labels.

3. Obey all general and regional installation and safety regulations relating to work on

high voltage installations, as well as regulations covering correct use of tools and personal protective equipment.

4. Keep operating instructions within easy reach and make them available to all

users. 5. It is the responsibility of the network provider to implement prevention measures to

avoid health hazards which may be associated to radiation from the antenna(s) connected to the unit.

6. The antennas of the repeater (integrated and / or external) have to be installed in a

way that the regional and national RF exposure compliance requirements are met. 7. For US and Canadian installations: To comply with FCC RF exposure compliance

requirements, the following antenna installation and device operating configurations must be satisfied: A separation distance of at least 4 m must be maintained between the antenna of this device and all persons. RF exposure compliance may need to be addressed at the time of licensing, as required by the responsible FCC Bureau(s), including antenna co-location requirements of 1.1307(b)(3). Maximum permissible antenna gain is 17 dBi.

8. Make sure access is restricted to qualified personnel. 9. Only licence holders for the respective frequency range are allowed to operate this

unit. 10. Corresponding local particularities and regulations must be observed. For national

deviations please refer to the respective documents included in the manual CD delivered.

11. Use this equipment only for the purpose specified by the manufacturer. Do not

carry out any modifications or fit any spare parts which are not sold or recommended by the manufacturer. This could cause fires, electric shock or other injuries.

12. Before opening the unit, disconnect mains.

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13. Due to power dissipation, components of the Master Unit may reach a very high

temperature.

14. The bottom of the cabinet does not fulfil the requirement of a fire enclosure. Therefore, it has to be installed in a room made of fire-resistant material like concrete.

15. Caution: High-leakage current for systems with more than one PSU (Power supply unit). Connect to ground before mains is applied.

16. ESD precautions must be observed! Before commencing maintenance work, use the available grounding system to connect ESD protection measures.

17. This unit complies with European standard EN60950. 18. IMPORTANT NOTE: To comply with FCC RF exposure compliance requirements,

the following antenna installation and device operating configurations must be satisfied: A separation distance of at least 20 cm must be maintained between the antenna of this device and all persons. RF exposure compliance may need to be addressed at the time of licensing, as required by the responsible FCC Bureau(s), including antenna co-location requirements of 1.1307(b)(3). Maximum permissible antenna gain is 12 dBi.

19. Make sure the repeater settings are according to the intended use (see also

product information of the manufacturer) and regulatory requirements are met. 20. Although the Master Unit is internally protected against overvoltage, it is strongly

recommended to earth the antenna cables close to the antenna connectors of the repeater for protection against atmospheric discharge.

Equipment Symbols & Warning Labels on MU components Used Please observe the meanings of the following symbols used in our equipment: Symbol Compliance Meaning

--- Alert sign to R&TTE

Symbol Indicates conformity with the R&TTE directive 1999/5/EC certified by the notified body no. 0700.

Laser radiation Class 1!

attached on every OTRx Do not stare into the beam, do not view it directly or with optical instruments.

for systems with more than one PSU. Connect to ground before mains is applied.

HIGH LEAKAGE CURRENT! Ground connection is essential before connecting power supply!

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1.3. ABOUT COMMSCOPE CommScope is the foremost supplier of one-stop, end-to-end radio frequency (RF) solutions. Part of the CommScope portfolio are complete solutions for wireless infrastructure from top-of-the-tower base station antennas to cable systems and cabinets, RF site solutions, signal distribution, and network optimization. CommScope has global engineering and manufacturing facilities. In addition, it maintains field engineering offices throughout the world. Andrew Wireless Systems GmbH based in Buchdorf/ Germany, which is part of CommScope, is a leading manufacturer of coverage equipment for mobile radio networks, specializing in high performance, RF and optical repeaters. Our optical distributed networks and RF repeater systems provide coverage and capacity solution for wireless networks in both indoor installations and outdoor environments, e.g. tunnels, subways, in-trains, airport buildings, stadiums, skyscrapers, shopping malls, hotels and conference rooms. Andrew Wireless Systems GmbH operates a quality management system in compliance with the requirements of ISO 9001 and TL 9000. All equipment is manufactured using highly reliable material. To maintain highest quality of the products, comprehensive quality monitoring is conducted at all fabrication stages. Finished products leave the factory only after a thorough final acceptance test, accompanied by a test certificate guaranteeing optimal operation. This product meets the requirements of the R&TTE directive and the Declaration of Conformity (DoC) itself. A current version of the CE DoC is included in this manual CD delivered *. Any updated version of the DoC is available upon request from the local sales offices or directly from CommScope via the local Customer Support at one of the addresses listed in the following chapter. According to the DoC, our "CE"-marked equipment can be used in all member states of the European Union.

F Note: Exceptions of and national deviations from this intended use may be possible. To observe corresponding local particularities and regulations, please refer to the respective documents (also in national language) which are included in the manual CD delivered.

* In case the Declaration of Conformity (DoC) for the product was not included in the manual CD

delivered, it is available upon request from the local sales offices or directly from CommScope at one of the addresses listed in the following chapter.

To make the most of this product, we recommend you carefully read the instructions in this manual and commission the system only according to these instructions. For technical assistance and support, please also contact the local office or CommScope directly at one of the addresses listed in the following chapter.

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1.4. INTERNATIONAL CONTACT ADDRESSES FOR CUSTOMER SUPPORT

Americas:

Canada

United States

CommScope Canada Andrew LLC, A CommScope Company

Mail 505 Consumers Road, Suite 803 Toronto M2J 4V8 Canada

Mail 620 North Greenfield Parkway Garner, NC 27529 U.S.A.

Phone +1-905-878-3457 (Office) +1-416-721-5058 (Cell) Phone +1-888-297-6433

Fax +1-905-878-3297 Fax +1-919-329-8950

E-mail [email protected], [email protected] E-mail [email protected]

Caribbean & South American Region

(CALA)

Caribbean (CALA) & Central American Region

CommScope Cabos do Brasil Ltda. CommScope Mexico S.A. de C.V.

Mail

CALA Tech Support for Distributed Coverage & Capacity Solutions (DCCS) products: Rua Guaporanga, 49 Praa Seca Rio de Janeiro RJ ZIP: 21320-180 Brazil

Mail

CALA Tech Support for Distributed Coverage & Capacity Solutions (DCCS) products: Av. Insurgentes Sur 688, Piso 6 Col. Del Valle, CP: 03100 Mexico City Mexico

Phone +1-815-546-7154 (Cell) +55-15-9104-7722 (Office) Phone +52-1-55-5419-5260 (Cell) +52-55-1346-1900 (Office)

Fax + 55-15-2102-4001 Fax +52-55-1346-1901

E-mail [email protected] E-mail [email protected]

APAC Countries:

China, India and Rest of Asia

Australia & New Zealand

Andrew International Corporation Andrew Corporation (Australia) Pty Ltd.

Mail

Room 915, 9/F Chevalier Commercial Centre 8 Wang Hoi Rd Kowloon Bay Hong Kong

Mail

Unit 1 153 Barry Road Campbellfield VIC 3061 Australia

Phone +852-3106-6100 Phone +613-9300-7969

Fax +852-2751-7800 Fax +613-9357-9110


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Europe:

United Kingdom

Scandinavia

Andrew Wireless Systems UK Ltd Andrew Norway (AMNW)

Mail

Unit 15, Ilex Building Mulberry Business Park Fishponds Road Wokingham Berkshire RG41 2GY England

Mail

P.O. Box 3066 Osloveien 10 Hoenefoss 3501 Norway

Phone +44-1189-366-792 Phone + 47 32-12-3530

Fax +44-1189-366-773 Fax + 47 32-12-3531


Germany

France

Andrew Wireless Systems GmbH CommScope France

Mail Industriering 10 86675 Buchdorf Germany

Mail

Immeuble Le Lavoisier 4, Place des Vosges 92052 Courbevoie France

Phone +49-9099-69-0 Phone +33-1 82 97 04 00

Fax +49-9099-69-930 Fax +33-1 47 89 45 25


Austria

Switzerland

Andrew Wireless Systems (Austria) GmbH Andrew Wireless Systems AG

Mail Weglgasse 10 2320 Wien-Schwechat Austria

Mail Tiergartenweg 1 CH-4710 Balsthal Switzerland

Phone +43-1706-39-99-10 Phone +41-62-386-1260

Fax +43-1706-39-99-9 Fax +41-62-386-1261


Italy

Iberia Region - Spain & Portugal

CommScope Italy S.r.l., Faenza, Italy Andrew Espaa S.A. A CommScope Company

Mail Via Mengolina, 20 48018 Faenza (RA) Italy

Mail

Avda. de Europa, 4 - 2 pta. Parque Empresarial de la Moraleja Alcobendas, Madrid 28108 Spain

Phone +39-0546-697111 Phone +34-91-745-20 40

Fax +39-0546-682768 Fax +34-91-661-87 02


Users Manual for



Czech Republic

CommScope Solutions Czech Republic

C-Com, spol. s r.o

Mail U Moru 888 53006 Pardubice Czech Republic

Phone +49 871 9659171 (Office) +49 171 4001166 (Mobile)

Fax +49 871 9659172

E-mail [email protected]

Africa & Middle East:

Middle East & North Africa

South Africa

CommScope Solutions International Inc. (Branch)

Andrew Wireless Solutions Africa (PTY) LTD

Mail

PO Box 48 78 22 Unit 3206, Floor 32, Jumeirah Business Center 5, Jumeirah Lakes Towers, Dubai United Arab Emirates

Mail

11 Commerce Crescent West Eastgate, Sandton PO Box 786117 Sandton 2146 South Africa

Phone +971 4 390 09 80 Phone + 27 11-719-6000

Fax +971 4 390 86 23 Fax + 27 11-444-5393


table 1-1 List of international contact addresses

2 Introduction

Page 19

2. INTRODUCTION

2.1. PURPOSE Cellular telephone systems transmit signals in two directions between base transceiver station (BTS) / Node B or eNB and mobile stations (MS) / UE within the signal coverage area. If weak signal transmissions occur within the coverage area because of indoor applications, topological conditions or distance from the transmitter, extension of the transmission range can be achieved by means of an optical distribution system. Such a system contains an optical Master Unit (consisting of up to 13 racks) and several Remote Units (RUs). The number of the RUs depends on the hardware and software configuration. The RUs are connected to the Master Unit with optical links. Optical loss up to 10 dB can be managed. The Master Unit is the connection to the BTS / Node B. The configuration of a Master Unit depends on the number of the RUs and the frequency range.

2.2. THE ION-M MASTER UNIT The Master Unit (MU) is the link between BTS / Node B and the corresponding ION-M RUs connected to the MU via optical-fiber lines. It is the conversion unit from RF to fiber-optic. One MU can support up to 124 RUs in point-to-point connections or 124 RUs in a cascaded system with up to four RUs per link (cascaded system). The Master Unit controls the complete system and also the auto-leveling function. The fiber-optic distribution system is designed for GSM, AWS, UMTS and LTE services as well as for AMPS/ PCS or iDEN/ PCS or Tetra services. Multiple operation bands can be connected to up to three frequency paths independently accessible per optical link. Each optical link will also be able to operate services of up to four providers. An auto-leveling function for compensating different fiber losses and a comprehensive supervision concept are implemented. Auto-leveling in DL works with optical power measurement; in UL a 10.7 MHz signal is used for measuring the optical loss. Thus, a (so-called cascaded) backbone structure can be used in the optical network, i.e. up to four RUs can be connected to the Master Unit via only one fiber and optical couplers. WDM (Wave Division Multiplex) filters are integrated in the optical modules. For the UL, a wavelength within 1540 nm 1562 nm is used. For the DL, a wavelength of 1310 20 nm is used. The maximum output power for the UL and DL is 5.7 mW.

Users Manual for



The system is designed for both SISO and for MIMO applications (depending on the individual customer configuration). Since MIMO utilizes the same frequency range for two different data streams, a simple electrical-to-optical conversion is not sufficient. For this reason frequency conversion modules (FCM) are required. FCMs shift one of the spectrally overlapping MIMO bands to another unused frequency range. This is necessary to transport the spectrally overlapping multiple data streams over one single fibre link in the ION-M system.

3 Functional Description

Page 21

3. FUNCTIONAL DESCRIPTION

3.1. ION-M MU COMPONENTS OVERVIEW OF SECTIONS IN MANUAL To be able to address market-specific requirements (e.g. ETSI -26 dBm/ MHz vs. FCC -13 dBm/ MHz) and frequency-band allocations (e.g. GMS, UMTS vs. AMPS, iDEN) various master configurations are feasible. To account for this variety, this manual is structured as shown in the following overview diagram:

figure 3-1 Overview of the ION-M MU components, sections in manual

3.2 For your

3.3 Components of the Master Unit

3.3.1 Point of Interface

3.3.3 Duplexer Unit

3.3.4 - 3.3.6 Master Controllers

3.3.7 - 3.3.8 PDU & PSU Sections

3.3.9 Optional Equipment

3.3.2 Optical & Combining Section

According to ETSI standard (EMEA, parts of APAC)

According to FCC standard (US)

OTRx 4-9/18/21-26 MU-G/LG - 3.3.2.1 LTE Subrack EMEA - 3.3.2.2 Legacy Applications with OTRx 4-9/18/21-26 MU-LG Other EMEA/APAC OTRxs (please refer to the Ordering Information) - 3.3.2.4 Subrack Two OTRxs - 3.3.2.5 Subrack Three OTRxs - 3.3.2.6 Subrack Four OTRxs

OTRx 70-85/90/17-21 - 3.3.2.3 LTE Subrack US OTRx 17P/17P/17P - 3.3.2.7 Subrack Three-Sectors Three OTRxs Other US OTRxs (please refer to the Ordering Information) - 3.3.2.4 Subrack Two OTRxs - 3.3.2.5 Subrack Three OTRxs - 3.3.2.6 Subrack Four OTRxs

ION-M MU

Users Manual for



3.2. GENERAL

E0975B9 figure 3-2 Overview of the ION-M Master Unit, first rack

In a typical configuration, the ION-M Master Unit comprises two signal chains per optical link. In the uplink direction, the optical signals from the RUs (transmitted via optical fibers) are converted into RF signals by the transceiver. Then, they are forwarded via a frequency separation unit denominated as duplexer and the four-way combiner or BTS connect (one for each band) to the connector, which transmits the signals to the BTS / Node B. In the downlink direction, the signals from the BTS / Node B are forwarded to the four-way combiner. After passing through the duplexer, the RF signals are converted into optical signals by the transceiver and finally are transmitted via optical fibers to the RUs. This typical configuration can vary depending on the respective ION-M system.


Page 23

The following block diagram shows an example for an ION-M Master Unit with one OTRx:

BTSTX1, RX1

WDM

E O

4-9

E O

1721-26

4-918

21-26

FCM 21-26DL

18 DLATT

21 DLATT26 DLATT8-9 DLATT8-9 ULATT26 ULATT21 ULATT18 ULATT

18 DL

21-26UL18UL

FCM 4-9 DL

9 DLATT

8 DLATT18-21 DLATT

26 DLATT

9 ULATT8 ULATT

18-21 ULATT26 ULATT 4-9 UL

880-915/925-9602.5 dB

1710-1785/1805-1880

2.5 dB

2500-2570/2620-2690

2.5 dB

2500-2570/2620-2690

2.5 dB

max. 27.5 dBm

-30 dB

0-10 dB

0-10 dB

0-10 dB

0-10 dB

Probe

11 - 23 dB698 - 960 MHz

-30 dB

0-10 dB

0-10 dB

0-10 dB

0-10 dB

Probe

11 19 dB 1710-1990 MHz

max. 27.5 dBm/ Port

- 30 dB

0-10 dB

0-10 dB

0-10 dB

0-10 dB

Probe

11.5 21.5 dB 1920-2170 MHz

max. 27.5 dBm/ Port

GSM900

GSM1800

UMTS2100

LTE2600-2

LTE2600-1

1920-19802110-2170

2.0 dB

-30 dB

0-10 dB

0-10 dB

0-10 dB

0-10 dB

Probe

11 19 dB 2400-2700 MHz

max. 27.5 dBm/ Port

-30 dB

0-10 dB

0-10 dB

0-10 dB

0-10 dB

Probe

11 19 dB 2400-2700 MHz

max. 27.5 dBm/ Port

BTSTX1, RX1

BTSTX1, RX1

BTSTX1, RX1

BTSTX1, RX1

Ref

Ref

Tx

Rx

1500 nm up to 4 RUs

PC

Control Unit RMC1600 Interface

-4 pcs. RS232 -local Access-Sum. Alarm-PS2 for Keyb.and Monitor

PDU /RAB

SABn

SAB1

Control board RS485

serving up to 124 OTRx

-48V DC

230V/115V AC

8x IN + 8x OUTSummary alarm

8x IN + 8x OUTSummary alarm

n = up to 64 SABs

RS485

RS485

Option

ModemMC 35

RS232RF

ION-M9/18/21 EP Main Remote Unit

ION-M26/26 EU Extension Unit

E1178B000

figure 3-3 Block diagram (exemplary) of an ION-M Master Unit, with one OTRx

M0106A9AH.doc

3.3. COMPONENTS OF THE MASTER UNIT In order to be able to use individual applications, such as LTE and MIMO functionalities, the following description distinguishes between different subrack versions. Various available subrack types are described from sections 3.3.2.1 LTE Subrack EMEA onwards to 3.3.2.7 Subrack Three-Sectors Three OTRxs. The configuration and layout of an individual unit may vary from figure 3-4, in chapter 3.3 Components of the Master Unit, depending on customer requirements. The actual configuration of each Master Unit can be seen at the configuration list, which is part of the delivery. The basic sections of a Master Unit for multi-user and multi-operator are as follows: An optical and combining section consisting of subracks for OTRxs with

combiners, splitters, or BTS connects providing attenuation setting, and - in case of ION-Mxx EP systems - plug-in modules like adapter cards, TPX modules, or frequency conversion modules (FCMs).

In the first rack, the optional system alarm board (SAB) is equipped in this section; depending on the individual customer configuration, optical splitters may also be equipped.

A duplexer unit located behind the optical and combining sections.

A master control unit consisting of the RMC / MMC Plus for supervising the system and alarm forwarding to the OMC as well as an optional monitor and keyboard.

All subracks are connected via an RS485 bus starting at the Master Controller (MC) and continuing from subrack to subrack (see chapter 3.3.2.7 Subrack Three-Sectors Three OTRxs). The last subrack in a cabinet is connected to the first subrack of the next cabinet in the system.

A power supply section, which is usually located below the RMC1600 / MMC Plus controller (see chapter 7.1 Illustrations).


Page 25

figure 3-4 Components of an optical Master Unit, exemplary setup

Optical section

MMC Plus

Power Supply Unit (PSU)

RF splitters (optional)

Point of Interface (POI) subracks

Front side Rear side

Combining sections

Optical section

Combining sections

Optical section

Power Distribution Unit (PDU)

M0106A9AH.doc

3.3.1. Point of Interface (POI) Subrack (Optional Configuration) Depending on user configuration, the POI subrack can optionally be installed in the upper part of the Master Unit (MU) rack, see figure 3-4 in previous chapter 3.3 Components of the Master Unit.

F Note: The POI subrack CANNOT be operated in the Andrew standard outdoor MU rack! It is only meant for usage in INDOOR cabinets with perforated doors (see following figure)!

The POI subrack available with passive modules (p-POI) and/or active modules (i-POIs) - has various functions. For better transparency, these are described in two separate POI manuals (M0146A0x and M0146A1x). For detailed information please refer to the p-POI manual and/ or i-POI documentations, respectively.


Page 27

figure 3-5 Position of optional POI subrack in MU rack, exemplary layout

Location of POI subracks

in Master Unit rack

with a perforated door

(exemplary layout)

M0106A9AH.doc

3.3.2. Optical and Combining Section The optical and combining sections are located above the RMC1600 of a Master Unit. Depending on the configuration, subracks of 3 HUs, which are intended for 19" rack mounting, are used for two up to four optical transceivers. From the front, the subracks provide plug-in space for combiners and splitters, BTS connect (see also chapter 4.4 Commissioning the RF and Optical System), frequency conversion modules and optical transceivers . Behind each optical transceiver the UL and DL band ports required for leveling the individual bands are located. Thus, in case no frequency conversion module is equipped, the transceiver has to be removed for the leveling procedure (see chapter 4.4 Commissioning the RF and Optical System). Additional space is available for an alarm board, power supply or controller. Duplexers and splitters can be mounted behind the backplane. For subracks containing and supporting the MMC Plus Controller, which will replace all old subracks, the backplane of the subracks is moved 10 HP to the left-hand side and the MMC Plus (with appropriate plug-in backplane) is mounted on the right-hand side, see e.g. figure 3-16 Subrack two OTRxs with MMC Plus and/ or figure 3-19 Subrack three OTRxs with MMC Plus.

3.3.2.1. LTE Subrack EMEA Full MIMO functionality for Europe, the Middle East and Africa (shortly abbreviated by EMEA) is only given by the LTE subrack EMEA described as follows. One subrack contains up to 2 optical transceivers (OTRx 4-9/18/21-26 MU-G). Each OTRx requires either two adapter cards, two TPX modules (i.e. one triplexer and one diplexer module), or two frequency conversion modules (FCMs) in which one of these modules covers the lower bands (4-9) and the other covers the upper bands (18-26). When one of these modules is not assembled, an alarm will be generated. Another major component of this subrack is the backplane with adequate power supply and communication interface for the adapter cards, TPX modules, or FCMs mentioned before. These plug-in modules give the opportunity for an easy system upgrade to MIMO or extend the frequency range of the system. A short description can be found in the following sections.


Page 29

... 1. Adapter Cards

The adapter cards in the Master Unit are assembled when no additional frequency to the 900 MHz / 1800 MHz / 2100 MHz bands and no frequency conversion (MIMO) is needed. Both adapter cards need to be equipped, otherwise an alarm will be generated by the Master Controller.

OTRx 21~26 DL

OTRx 18 DL

OTRx 21~26 UL

OTRx 18 UL

21-Tx1

21-Rx1

18-Tx1

18-Rx1

-Controller

I2C Bus

figure 3-6 Adapter Card upper bands,

schematic view

OTRx 4~9 DL

OTRx 4~9 UL

-Controller

I2C Bus

9-Tx1

9-Rx1

figure 3-7 Adapter Card lower bands,

schematic view

... 2. TPX (Diplexer / Triplexer) Modules

The Band TPX modules in the Master Unit are needed in case an additional operating frequency has to be transported over the 4-9 and/or 21-26 OTRX channels. If no FCM (MIMO application) is needed and the frequency range of the adapter cards is not sufficient, both the diplexer and the triplexer modules have to be installed in the Master Unit. Otherwise, an alarm will be generated.

21

3

4

OTRx 18 DL

26

18

21

26

18

-ControllerI2C Bus

OTRx 21~26 UL

OTRx 18 UL

OTRx 21~26 DL23

23

figure 3-8 Diplexer Module 21/26 + 18,

schematic view

OTRx 4~9 DL

1

2

4~7

OTRx 4~9 UL

9

8

-ControllerI2C Bus

4~7

9

8

figure 3-9 Triplexer Module 4/8/9,

schematic view

M0106A9AH.doc

... 3. Frequency Conversion Modules (FCMs)

The Frequency conversion modules (FCM) of the MU are required to shift one of the spectrally overlapping MIMO bands to another unused frequency range. This is necessary to transport the spectrally overlapping multiple data streams over one single fibre link in the ION-M system. It is possible to transport one lower MIMO signal (e.g. 8 or 9) and up to two upper MIMO signals (e.g. 18, 21, 26, 18 & 26 or 21 & 26) at the same time. In a MIMO application, always two FCMs have to be installed, one for the lower bands and one for the upper bands, also when only one MIMO band is used.

FX

8-Tx1

9-Tx1

18-Tx2 v21-Tx2

26-Tx2

f1

f2

OTRx 4~9 DL

2620~2690

1805~1880 v 2110~2170

791~821

925~960

OTRx 4~9 UL

2500~2570

1710~1785 v 1920~1980

8-Rx1

9-Rx1

18-Rx2 v21-Rx2

26-Rx2

880~915

832~862

REF in

Conversion Module MUlower bands

ALC Thr.

Downlink

Uplink

Reference Clock Distribution

f1

f2

f1

f2

Add. Gain

f1

f2

figure 3-10 Frequency Conversion Modules lower bands, schematic view


Page 31

8-Tx2 v9-Tx2

18-Tx1

21-Tx1

26-Tx1 OTRx 21~26 DL

Downlink

OTRx 18 DL

791~821 v925~960

Conversion Module MUupper bands

Add. Gain FX

REF out

to OTRx

2620~2690

2110~2170

1805~1880

REF outto second FX-Module

OTRx 21~26 UL

832~862880~9158-Rx2 v

9-Rx2

21-Rx1

26-Rx12500~2570

1920~1980

Uplink

OTRx 18 UL18-Rx11710~1785

Reference Clock Generation & Distribution

ALC Thr.

f1

f2

f1

f2

figure 3-11 Frequency Conversion Modules upper bands, schematic view

The following illustration shows a configuration example for a European (EMEA) LTE subrack equipped with PSU, 2 OTRx with respective TPX modules/ FCMs:

figure 3-12 LTE Subrack EMEA, exemplary

PSU OTRx TPX modules FCMs OTRx

M0106A9AH.doc

3.3.2.2. Legacy Applications with OTRx 4-9/18/21-26 MU-LG If the LTE Subrack EMEA is not available at the Master Unit with ION-Mxxx EP Remote Units, a different optical module has to be used: OTRx 4-9/18/21-26 MU-G LG. "LG" is the abbreviation of legacy, indicating that the OTRx is only allowed to be used in legacy systems where no adapter card / diplexer module / FCM can be installed. Hence it is a precondition that only an ION-M9/18(P)/21(P) EP (and derivates) can be connected to this kind of Master Unit. Please note that a MU upgrade to support additional EUs, e.g. MIMO, is not easily feasible on site.

3.3.2.3. LTE Subrack US Full MIMO functionality for the United States is provided for by the LTE subrack US described as follows. This subrack can manage up to three optical transceivers (OTRx 70-85/90/17-21 MU-G) with the according frequency conversion modules (FCMs). Each conversion module has 4 UL & DL connectors. It provides the 700 MHz/ 700 MHz MIMO, 850 MHz and 1900 MHz bands. There are also variants of the US LTE Subrack which only hosts one ore two optical modules and FCMs. In these configurations the space left can be used for e.g. combiners and MMC Plus with optional BBU-kit. The following illustration shows a configuration example for a US LTE700 subrack with 3 OTRx and 3 according FCMs:

figure 3-13 US LTE700 subrack with three OTRx & FCMs, exemplary

The following illustration shows a configuration example for an LTE 700 subrack with 2 OTRx and MMC Plus/ BBU-Kit:

figure 3-14 Subrack with two OTRx with MMC Plus & BBU-Kit, exemplary

L_G3192X010


Page 33

3.3.2.4. Subrack Two OTRxs This subrack can manage up to two OTRxs with corresponding equipment. Further-more, there are additional slots of 20 HP (1 HP = 0.2 in / 5.08 mm) where splitters, modems, PSUs or the system alarm board (SAB) can be mounted.

figure 3-15 Subrack two OTRxs

figure 3-16 Subrack two OTRxs with MMC Plus

figure 3-17 BTS-connect units with OTRx

Combiners Optical transceivers (OTRx)

BTS-connect units

Probe ports

BTS connectors

Stepless attenuators

BTS connect OTRx MMC Plus controller Power supply units OTRx

M0106A9AH.doc

3.3.2.5. Subrack Three OTRxs This subrack can manage up to three OTRxs each with corresponding equipment. Applications are either single-band or single-user systems. For small installations without redundant power supplies, a power supply can be equipped at the left side. In case of multi-band / single-user systems, instead of combiners, the subrack is equipped with BTS-connect units providing up to three ports. Subracks with restricted space for duplexer and combiner are also available.

figure 3-18 Subrack three OTRxs

Subracks supporting the MMC Plus can manage up to three OTRxs, each with corresponding equipment. Applications are either single-band or single-user systems.

figure 3-19 Subrack three OTRxs with MMC Plus


Page 35

3.3.2.6. Subrack Four OTRxs This subrack can manage up to four OTRxs each with corresponding equipment. Applications are single-band single-user systems. Furthermore, there is an additional 28 HP (1 HP = 0.2 in / 5.08 mm) where splitters, combiners, modems, a PSU or the system alarm board can be mounted. Subracks supporting the MMC Plus can manage up to four OTRxs with corresponding front-mounting equipment. In those subracks there is no mounting option for duplexers or splitters. Applications are either single-band or single-user systems. For small installations without redundant power supplies, a power supply can be equipped at the left-hand side and the MMC Plus at the right-hand side.

figure 3-20 Subrack four OTRxs

3.3.2.7. Subrack Three-Sectors Three OTRxs This subrack can manage up to three optical transceivers (OTRx 17P/17P/17P MU-G) each with corresponding optional conversion module (needed for sectors 2 and 3 only). The conversion module has 3 UL & DL connectors each and 3 ALC LEDs. Applications are single-band and single-user systems, single sector or multi-sector (up to three sectors per OTRx). The following illustration shows a configuration example for a US subrack with 3-Sectors-3 OTRx (e.g. OTRx17P/17P/17P) and according FCMs:

figure 3-21 US subrack with 3 x 3-Sector OTRx & FCMs, exemplary

M0106A9AH.doc

3.3.3. Duplexer Unit Each UL/DL combined RF path is connected to a duplexer to isolate uplink from downlink, i.e. to separate the transmitting path from the receiving path. The pass bandwidth of the duplexer is the entire width of the UL and DL band of the corresponding network.

figure 3-22 Duplexer unit, interior view

If the BTS signal is UL/DL separated, no duplexers are required.


Page 37

3.3.4. Master Controller - Overview The first master rack in a system contains a master controller for system control, either an RMC1600 controller (see section 3.3.5) or the MMC Plus controller (see section 3.3.6).

3.3.5. Master Controller: RMC1600 F Note: The RMC1600 is available as a configuration for Linux and/ or

Windows operating systems. As only the software differs, there is no difference in layout of the hardware.

Optionally the ION-M MU is equipped with monitor, keyboard and mouse which are used for local access to the RMC1600. F Note: A graphical user interface (GUI) for Linux operating systems of the

RMC1600 is available from deliveries (only with pre-set factory settings) of the ION Master Controller SW V4.20.3 onwards.

Local access to the RMC1600 can be granted either via monitor, keyboard and mouse (optional ION-M MU equipment) when equipped or via the LAN interface provided for local connection at the front panel. For locations of LAN ports please refer to chapters 3.3.5.2 RMC1600 Front Side. Two minutes after the respective power-supply switch of the mains supply has been set to ON, the RMC1600 will boot automatically; i.e. the required voltage (11.0 Vdc) must be stable for two minutes. To avoid the 2-minute-delay, press the ON/ OFF/ Reset button after a waiting time of 10 seconds. For details see chapter 3.3.5.2 RMC1600 Front Side. If the RMC1600 is delivered separately, ensure sufficient airflow at the air inlet and air outlets (positions see figure 3-23 RMC1600 front) when mounting the unit. The RMC1600 is provided with an automatic shutdown function to prevent over-temperature. At 70 C, the system will send out an according alarm message via modem, and then shut down into standby mode. The software is factory-set to initiate a reboot as soon as the temperature has fallen to 40 C. If this function is disabled, the system can only be rebooted locally using the ON/OFF/ Reset button (see chapter 3.3.5.2 RMC1600 Front Side) or via webpages (see software manual for the ION-M Master Controller).

M0106A9AH.doc

3.3.5.1. RMC1600 Battery Backup (BBU) The RMC1600 is equipped with a battery-backup drawer (BBU) to keep up system operation and transmit alarm information in case of power failure. The battery pack (hot-pluggable) is located in the RMC front side drawer. The battery type is Ni-MH, 8.4 V (nominal). When fully charged, the battery backup can support system operation for approximately 1.5 hours under normal environmental conditions. A shutdown will be carried out after max. 30 minutes or less in case of low battery charge status. The BBU cannot be used to boot the system after a shutdown. For this purpose, mains supply via the mains connector (see chapter 3.3.5.3 RMC1600 Rear Side) is required. The battery-backup drawer comprises a rechargeable battery pack, which has to be replaced after 2 years of usage at the latest as a preventive maintenance measure in order to safeguard that maximum capacity is provided. For replacing the BBU, please refer to chapter 6.7 Replacement of the RMC1600 Battery Pack & Battery Fuse. Furthermore, an automatic battery refresh is generally factory-set to an interval of 10 weeks. This interval may be changed by the customer via software to an interval in the range from 8 to 12 weeks. For details regarding interval setting, please refer to the software manual of the Master Controller, which is also part of the delivery. However, it is not recommended to deactivate the refresh function, since this may considerably impair the lifetime of the battery.

3.3.5.2. RMC1600 Front Side

figure 3-23 RMC1600 front side, connectors

Please see explanation of connectors in following table:

2 1 6 5 9 8 7

Position of air outlet Position of air inlet

4 10 3

WITH modem

WITHOUT modem

2 1 6 5 8

Position of air outlet Position of air inlet

4


Page 39

Number Description of Connectors

1 Screw for loosening battery drawer 2 Handle for battery drawer 3 Antenna RF connectors 4 ON/ OFF/ Reset button 5 LOCAL LAN 2 connector 6 9 LEDs 7 Reset button of (internal) Modem 1 8 2x USB connectors 9 SIM-CARD drawer with push button (yellow) 10 Modem status LED

F Note: Some connector pictures in the following sections show just an

exemplary layout and thus may deviate from delivery state.

1. Screw for loosening the battery drawer

figure 3-24 RMC1600 battery drawer, screw & handle

2. Handle for pulling out the battery drawer (battery inside)

For replacement of battery please see description in chapter 6.7 Replacement of the RMC1600 Battery Pack & Battery Fuse.

3. ON/ OFF/ Reset Button

Use this button

o to shorten the boot delay of 2 minutes, by pressing this button approximately 5 seconds after voltage supply has been connected to directly start the boot process.

o to initiate a reset if the system is not responding any longer by pressing the button; see pressing time in the following table:

figure 3-25 RMC1600 ON/OFF/ Reset button

RMC1600 BBU - front side

Screw for loosening battery drawer

Handle

M0106A9AH.doc

The ON/ OFF/ Reset button of the RMC1600 features the following functions:

Operational status Pressing time for start button Function RMC1600 is off 0.5 sec RMC1600 starts.

RMC1600 is running. 5 sec < Press time < 10 sec

Operating system (abbrev.: OS) Linux is shutdown, no restart.

RMC1600 is running. Press time > 10 sec

Hard reset; OS is reset abruptly, resulting in loss of data! Only to be used should necessity require it, e.g. if OS is not responding any longer.

4. LOCAL LAN 2

Ethernet Connector Local Access

LOCAL LAN2 connector is used as the local maintenance interface. For local access to the Master Controller websites, connect your laptop via a network cable to the Ethernet connector LOCAL LAN2. The LOCAL LAN 2 connector is an Ethernet interface for data transfer rates of 10/100/1000 MBit / s. The speed is set automatically.

figure 3-26 LOCAL LAN 2 Ethernet connector

figure 3-27 LOCAL LAN 2 RJ45 connector, pinning

Function of the LEDs: Green: Link/ Activity

A.) Link

ON when a link has been established OFF when no link is established


Page 41

B.) Activity

blinking when data packets are transmitted or received

Note: When no device is connected to the LOCAL LAN 2 interface, the green LED is OFF.

Orange: Speed

Speed

ON 1000 MBit / s link has been established and maintained OFF 10 MBit / s or 100 MBit / s link has been established and maintained

Note: When no device is connected to LOCAL LAN 2 interface, the orange

LED is OFF. 5. LEDs

table 3-1 LED description of RMC1600

LED Designation

Color Description of Function

red

gree

n

MAINS STATUS

RMC1600 OFF, mains disconnected x RMC1600 ON, mains voltage ok x RMC1600 ON, mains voltage too low

BATTERY OPERATION

RMC1600 ON, operating with mains power, and in case of mains failure battery voltage is high enough for safe operation. x RMC1600 ON, operating with battery power x x Orange: RMC1600 ON, operating with battery power, shutdown initiated

x RMC1600 ON, and in case of mains failure battery voltage is too low for safe operation.

CHARGE STATUS

No battery equipped or missing or discharging x Charging battery f Green flashing: battery full

LEDs OFF- exemplary:

Green, red & orange LEDs ON - exemplary

Green LEDs ON - exemplary Green LED ON exemplary

M0106A9AH.doc

LED

Designation Color Description of Function

BATTERY STATUS

Battery not equipped x Battery OK

x Battery defect (battery change needed) or battery missing or battery charge circuit failure x x Orange: Battery in discharge mode

TEM-PERATURE

STATUS

x Temperature OK (RMC temperature is below the temperature alarm threshold *)

x x

Orange: OverTempShutdown initiated but temperature below TempAlarmThreshold RMC1600 can be started with ON/OFF/ Reset button. RMC1600 will restart automatically when is temperature below 40C (unless AutomaticRestart is disabled in SW setting)

x Over-temperature alarm but no over-temperature shutdown yet; (temperature is above the temperature alarm threshold *)

f Red flashing: over-temperature shutdown and still temperature alarm (Temperature was above 70C and is still above temperature alarm threshold *)

FAN STATUS

Fan not running (Battery mode and when an active cooling is not required) x Fan OK; Fan running x Fan alarm active

SUMMARY ALARM

x RMC1600 ON, no alarm active x RMC1600 ON, RMC1600 internal alarm active f Red flashing: RMC1600 ON, system alarm active

x f Flashing between red and orange: RMC1600 ON: RMC1600 internal alarm active AND system alarm active

APPLI-CATION STATUS

PC board OFF f Red flashing: trying to switch on PC board x x Orange: PC Board ON; application start triggered x PC board ON; application running

f Green flashing: PC board ON; application NOT running, application is shut down by user

f f Orange flashing: PC board ON; application shutting down, shutdown initiated by Microcontroller firmware (Button, Temperature Shutdown)

HDD no HDD activity x HDD activity

table 3-2 LED function of RMC1600

* The temperature alarm threshold can be set in the following submenu of the Master Controller

software: after log in, click Master Controller "Settings MC Status Temperature: Alarm Threshold (45 60C). For further details please refer to the Master Controller SW manual.


Page 43

6. Definition of the RMC1600 System Alarm:

RMC1600 System Relay deenergized = Alarm LED (Summary Alarm)

OK OK ON OFF

Alarm OK OFF ON

OK Alarm OFF Flashing

Alarm Alarm OFF Flashing red and orange alternating

table 3-3 Definition of the RMC1600 system alarm

7. Modem 1 Reset Button

o as long as the button is pressed Modem 1 voltage OFF o when button is released Modem 1 voltage ON

8. USB Interfaces (2x):

standard USB 2.0 interfaces

9. SIM-Card Drawer

o Open the SIM-Card drawer of the optional modem by carefully pressing onto the

push button (e.g. with a pen). Note: Take care not to damage the SIM-card drawer when opening it!

figure 3-28 RMC1600 SIM-card drawer

SIM-card drawer

Press yellow button!

M0106A9AH.doc

o Take out the SIM-card drawer and insert the SIM card. o Push the SIM-card drawer carefully back into the drawer, thus closing it again.

10. Modem Status LED

If the standard MC75/ MC88 (EGS5 Cinterion)/ HC25 or TRM3 modem is equipped, the Modem Status LED* (LED color differs from modem to modem) indication is as follows:

LED Mode Operating Status Off Power Down mode or SLEEP mode (registered to the net) 600 ms On / 600 ms Off

no SIM card inserted / no PIN entered / network search or network login in progress / ongoing user authentication

75 ms On / 3 s Off

when logged to network (monitoring control channels and user interactions); no call in progress only HC25: green flashing when logged to 2 G network blue flashing when logged to 3 G network

75 ms On / 75 ms Off / 75 ms On / 3 s Off one or more GPRS contexts activated

Flashing Indicates GPRS data transfer: When a GPRS transfer is in progress, the LED goes on within one sec after data packets were exchanged. Flash duration is approx. 0.5 sec.

On

Depending on type of call:

Voice call: Data call: Connected to remote party

Connected to remote party or exchange of parameters while setting up or disconnecting a call.

table 3-4 Description of the modem status LED of the RMC1600

* Attention: With MC75/ MC88 (EGS5 Cinterion)/ TRM3 modems the orange Modem Status LED (illustrated below) has a very pale light (). You need to look at it closely!

LED OFF exemplary Red LED on - exemplary

Orange LED on exemplary


Page 45

11. RF Connectors

figure 3-29 RMC1600 RF connectors

12. Internal Modem Coupler in RMC1600

A variable attenuator in the range of 30 dB is also integrated to ensure optimal power levels at the modem antenna port. If no direct RF connection to the BTS / Node B is available and an antenna is used, the modem coupler and attenuator can be bypassed. The antenna switch can be set via SW (MC SW version >= V5.0).

IN 1

OUT 1

OUT 2

IN 2

dB

0...30 dB

Antenna

figure 3-30 Internal modem coupler in RMC1600

M0106A9AH.doc

3.3.5.3. RMC1600 Rear Side

figure 3-31 RMC1600 rear side, connectors (exemplary)

Number Description

11 Power connector 12 Fuse F1 (250 V, 10 A, 6.3 x 32 mm) FAST BLOW 13 Summary-alarm connector

14a COM8 connector 14b COM 7 connector 14c COM 5 connector 14d COM 1 connector 15a COM 2 and COM 22 connector 15b COM 3 and COM 13 connector 16a SITE LAN 3 connector 16b CUSTOMER LAN 1 connector 17 4 USB connectors 18 VGA connector

table 3-5 RMC1600 rear side connectors, description

1. Power Connector

The connector configuration is as follows: PIN 1 = GND, PIN 2 = not connected (n.c.), PIN 3 = +12 VDC (see chapter 7.2.1 Electrical Specifications and/ or "User's Manual for the RMC1600").

Power can be supplied from the PSU of the respective subrack or rack. Booting an RMC1600 after shutdown (i.e. from standby mode) is only possible when voltage is supplied via this connector.

figure 3-32 RMC1600 power connector

PIN 3 PIN 2 PIN 1

14d 11 12 13 14a 116a 14c 17 14b 16b 18 15a 15b


Page 47

2. Fuse F1

Fuse type: 250 V, 10 A, 6.3 x 32 FAST BLOW, Littelfuse F10A 0314-010.MXP

figure 3-33 RMC1600 fuse F1

3. Summary-Alarm Connector

The picture to the left shows the summary-alarm connector and the respective imprinting on the rear side of the RMC1600. Below the summary-alarm connector a picture of the relay in alarm condition is shown. This means PIN 1 and PIN 2 are connected when an alarm is active. When NO alarm is active, PIN 2 and PIN 3 are connected. The summary-alarm connector is connected with the internal summary-alarm relay. The summary alarm relay is a potential-free relay. It can be used to monitor alarms with an external alarm indicator. Devices connected to this relay must not exceed a maximum switching power of 30 Vdc, 0.5A.

figure 3-34 RMC1600 summary-alarm connector

PIN 1 PIN 2

PIN 3

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4. COM Ports

figure 3-35 Ports COM 8 + COM 7 - COM 5 & COM 1

No. assigned in figure 3-15

Designation of Port

14a COM8 14b COM7 14c COM5 14d COM1

COM ports are Sub-D-9 connectors with standard RS232 PIN assignment.

COM 1 (No. 14d), COM 5 (No. 14c), COM 7 (No. 14b) and COM 8 (No. 14a) serve to connect additional modems and are pre-configured as follows:

COM1: Modem 4 COM7: Modem 2 COM8: Modem 3 COM5: Modem 5

5. RJ45 Connectors COM 22 & COM 13

figure 3-36 Ports COM 2 & COM 22 and COM 3 & COM 13

COM 2 & COM 22

COM 3 & COM 13


Page 49

6. COM22 Port

The COM 2 port is an interface for connection to the ION-B network (configured as RS485, 2-wire) and COM 22 port serves for connection to the IMB network No.2 *.

Pin 1

Pin12345678

Signaln.c.n.c.n.c.

CANHCANLn.c.RD+RD-

Standard---------

CANCAN

---RS485-2wireRS485-2wire

Bus-Name---------

IMB2IMB2

---ION_BION_B

COM 22

ION Band

IMB 2Interface

figure 3-37 COM22 RJ45 connector, pinning

The interfaces are pre-configured as follows: COM2: ION-B COM22: IMB 2 * * IMB network: only for future application

7. COM13 Port

The COM 3 port is an interface for connection of the ION-M network (configured as RS485, 4-wire) and COM 13 port serves for connection to the IMB network No.1 *.

Pin 1

Pin12345678

SignalR+AR-BD+Y

CANHCANLD-Zn.c.n.c.

StandardRS485-4wireRS485-4wireRS485-4wire

CANCAN

RS485-4wire------

Bus-NameION_MION_MION_MIMB 1IMB 1ION_M

------

COM 13

ION Mand

IMB 1Interface

figure 3-38 COM13 RJ45 connector, pinning

The interfaces are pre-configured as follows: COM3: ION-M COM13: IMB 1 * * IMB network: only for future application

COM 3 & COM 13

COM 2 & COM 22

* *

* *

M0106A9AH.doc

8. Connectors SITE LAN 3 and CUSTOMER LAN 1

At the SITE LAN 3 interface a site network can be connected, i.e. depending on user configuration. At the CUSTOMER LAN1 Ethernet interface a customer network can be connected. Thus, the RMC1600 can be integrated into the customer network and connected to the network operation center (OMC). Both the SITE LAN 3 and the CUSTOMER LAN 1 connectors are Ethernet interfaces for data transfer rates of 10/100/1000 MBit / s. The speed is set automatically.

figure 3-39 SITE LAN3 RJ45 connector,

pinning

figure 3-40 CUSTOMER LAN1 RJ45

connector, pinning

Function of the LEDs: Green: Link/ Activity

C.) Link ON when a link has been established

OFF when no link is established

D.) Activity blinking when data packets are transmitted or received

Note: When no device is connected to the SITE LAN3 / CUSTOMER LAN1

interface, the green LED is OFF. Orange: Speed Speed ON 1000 MBit / s link has been established and maintained OFF 10 MBit / s or 100 MBit / s link has been established and maintained


Page 51

Note: When no device is connected to SITE LAN3 / CUSTOMER LAN1

interface, the orange LED is OFF. 9. USB Interfaces (4x):

standard USB 2.0 interfaces one USB interface can be used for keyboard/ mouse connection

figure 3-41 RMC1600 USB interfaces

10. VGA Monitor Connector:

for optional monitor

F Note: A graphical user interface (GUI) for Linux operating systems of the

RMC1600 is available from deliveries (only with pre-set factory settings) of the ION Master Controller SW V4.20.3 onwards.

figure 3-42 RMC1600 VGA monitor connector

M0106A9AH.doc

3.3.5.4. RMC1600 Modem Optionally, one of the following four modem types can be used as internal modem for the RMC1600: MC75/ MC88 (EGS5 Cinterion)/ HC25/ TRM3. The RMC modem automatically adjusts the gain. Via the battery backup, the modem is supplied with power, even when mains power fails, alarms will continue to be sent. Additionally, one up to four of the external modems listed above can be connected to one or more of the four ports COM1, COM7, COM8, COM5 at the RMC1600 rear side. For detailed information please refer to chapter 3.3.5.3 RMC1600 Rear Side, Section 4 COM Ports. The customer has to decide and select which modem type is required. Each of the modem listed above is automatically reset when it is not communicating any longer.


Page 53

3.3.6. Master Controller: MMC Plus Locally, system control of the MMC plus may be accessed via the Ethernet connector for local access (locations see illustration in chapter 3.3.6.1 MMC Plus Front). For further details on the local connection please refer to chapter 4.5.3 System Startup of MMC Plus. The MMC plus will boot automatically two minutes after the respective power supply switch of the Master Unit has been set to on, i.e. when the required voltage has been fed for two minutes. To avoid the two-minute-delay, press the ON/OFF button after having waited for five seconds. For details see chapter 3.3.6.1 MMC Plus Front. The MMC plus is provided with an automatic shutdown function to prevent over-temperature. At 70 C the system will send out an according alarm message via modem, and then shut down into standby mode. The software is factory-set to initiate a reboot as soon as the temperature has fallen to 40 C. The system can also be rebooted locally using the ON/OFF button (see chapter 3.3.6.1 MMC Plus Front) as soon as the temperature has fallen below 40 C.

3.3.6.1. MMC Plus Front Side

figure 3-43 MMC Plus, connectors at front side

External-alarm output connector X2

Alarm-input connector X3

Summary-alarm connector X4

Ethernet connector for local access

USB connector

ON/OFF/ Reset Button

Status LED

Alarms LED

M0106A9AH.doc

1. Functions of MMC Plus ON/OFF Button Use this button

o to shorten the boot delay of 2 minutes i.e. after voltage supply has been connected, wait approximately 5 seconds, press this button for 0.5 seconds to start the boot process directly

o to shut down the MMC Plus completely by pressing the button for longer than five seconds but shorter than 10 seconds (5 sec < press button < 10 sec)

o to initiate a reset if the system is not responding any more by pressing the button for more than 10 seconds

2. MMC Plus LEDs

Name Colour Operational state Description

STATUS LED

green

flashing Mains power is on PC is OFF. In this case it is allowed to switch mains power (+12 V) OFF.

continuous lighting Application software has started.

green + red = yellow

continuous lighting Boot-up process or PC shutdown in progress.

red continuous lighting Alarm supervision of system cannot be ensured

due to internal failure.

EXTERNAL-ALARMS LED

green continuous lighting No system alarm is raised.

green + red = yellow

continuous lighting Currently not used

red continuous lighting System alarm is raised.

SUMMARY-ALARM RELAY

--- alarm status off No system alarm is raised. --- alarm status on System alarm is raised.

table 3-6 LED description of MMC Plus module


Page 55

3. PIN Assignment of MMC Plus Summary Alarm Connector

3 1

2

figure 3-44 MMC Plus, Relay

contacts, alarm condition figure 3-45 PIN assignment of MMC Plus

summary-alarm connector X4

table 3-7 PIN assignment of MMC Plus relay contacts, alarm condition

X4 Connector PIN Description 1 Closed in alarm condition 2 Common 3 Open in alarm condition

The summary alarm is raised:

when mains is not applied

and / or when one or more alarm is active.

1 2 3

Summary alarm Voltage: 48 Vdc Max. current: 100 mA

Summary-alarm connector

M0106A9AH.doc

4. PIN Assignment of MMC Plus External Alarms Connector

figure 3-46 PIN assignment of MMC Plus external alarm input/ output connector

PIN Description 1 Open in alarm condition 3 Common 5 Closed in alarm condition

1

3

5

table 3-8 PIN assignment, exemplary for

MMC Plus Output 1 (alarm condition) figure 3-47 Alarm relay contacts with PIN

assignment, exemplary for MMC Plus Output 1 (alarm condition)

Out 2

Out 4

Out 6

Out 8

External alarm input connector X3

Common for alarm inputs

Out 7

Out 1

Out 3

Out 5

Alarm output connector X2

1

3

5

7

9

11

13

15

17

19

21

23

1

3

5

7

9

11

13

15

2

4

6

8

10

12

14

16

2

4

6

8

10

12

14

16

18

20

22

24


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X 2 Connector Pin External Out Connector 1 (OUT 1-8)

OUT 1 1 External Out 1 open in alarm condition 3 External Out 1 common 5 External Out 1 closed in alarm condition OUT 2 2 External Out 2 open in alarm condition 4 External Out 2 common 6 External Out 2 closed in alarm condition OUT 3 7 External Out 3 open in alarm condition 9 External Out 3 common

11 External Out 3 closed in alarm condition OUT 4 8 External Out 4 open in alarm condition

10 External Out 4 common 12 External Out 4 closed in alarm condition OUT 5

13 External Out 5 open in alarm condition 15 External Out 5 common 17 External Out 5 closed in alarm condition OUT 6



20 External Out 8 open in alarm condition 22 External Out 8 common 24 External Out 8 closed in alarm condition

X 3 Connector

Pin External Alarm IN Connector 1 Ext Alarm 1 2 Common input 1 - 8 3 Ext Alarm 2 4 Common input 1 - 8 5 Ext Alarm 3 6 Common input 1 - 8 7 Ext Alarm 4 8 Common input 1 - 8 9 Ext Alarm 5

10 Common input 1 - 8 11 Ext Alarm 6 12 Common input 1 - 8 13 Ext Alarm 7 14 Common input 1 - 8 15 Ext Alarm 8 16 Common input 1 - 8

table 3-9 MMC Plus alarm-output connector X2, PIN assignment

table 3-10 MMC Plus external-alarm-input connector X3, PIN assignment

Note: For configuration of the external alarms please refer to the software

manual for ION-M Master Controller.

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3.3.6.2. MMC Plus Backplane

figure 3-48 MMC Plus backplane, description of connectors

1. Power Supply Connector

Power supply connector PIN Assignment 1 +12 V 2 GND 3 SCL 4 SDA

figure 3-49 MMC Plus power supply connector, PIN

assignment

table 3-11 MMC Plus power supply connector, PIN assignment

1 4 3 2

RS485 connector

RS232 COM1 connector (full assignment for modem)

Ethernet connector

Modem power supply connector RJ12

Power supply connector (including I2C bus)

PSU-alarms connector

USB connector

Connector for monitor adapter cable VGA

Connector for keyboard & mouse adapter cable PS2


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2. PSU-Alarms Connector

PSU-alarms connector PIN Assignment 1 PSU Alarm 1 2 GND 3 PSU Alarm 2 4 GND 5 PSU Alarm 3 6 GND

figure 3-50 MMC Plus PSU-alarms connector, PIN assignment

table 3-12 MMC Plus PSU-alarms connector, PIN assignment

3. Modem Power Supply Connector RJ12

RJ 12 PIN Modem power connector Assignment 1 +12 V power supply (+ PIN) 2 n.c. 3 n.c. 4 IGT_IN connected to +12 V 5 n.c. 6 GND power supply (- PIN)

figure 3-51 MMC Plus modem power supply connector RJ12, PIN

assignment

table 3-13 MMC Plus modem power supply connector RJ12, PIN assignment

3.3.6.3. MMC Plus VGA PS2 Connection Adapter Kit This type of connection kit for the monitor and mouse and keyboard can be an accessory of the MMC Plus.

figure 3-52 MMC Plus PS 2 adapter cable

The MMC Plus VGA PS2 Connection Adapter Kit consists of the PS2 and the VGA cables. Their exact designation is as follows: The adapter cable PS2 with a length of 17 cm is used to connect the keyboard and mouse.

1

2

3

4

5

6

Molex connector to MMC Plus

PS2 connectors to keyboard/ mouse

M0106A9AH.doc

figure 3-53 MMC Plus VGA adapter cable

The adapter cable VGA is used to connect the monitor.

figure 3-54 MMC Plus backplane, connectors for PS2 and VGA adapter cables

The adapter cables have to be connected to the connectors at the backplane of the MMC Plus see fi

Master Unit Manual.pdf

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