Download SJ-20100211152857-006-ZXWN MSCS (V3.09.21) MSC Server Data Configuration Guide(MSCS)...
ZXWN MSCS MSC Server
Data Configuration Guide(MSCS) Version 3.09.21
ZTE CORPORATION NO. 55, Hi-tech Road South, ShenZhen, P.R.China Postcode: 518057 Tel: (86) 755 26771900 Fax: (86) 755 26770801 URL: http://ensupport.zte.com.cn E-mail:
[email protected]
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Revision History Revision No.
Revision Date
Revision Reason
R1.0
Feb. 28, 2010
First edition
Serial Number: SJ-20100211152857-006
Contents
About This Manual............................................. I Declaration of RoHS Compliance ....................... I Data Configuration Overview.............................1 Overall Flow of MSCS Data Configuration ........................... 1 Basic Operations of the OMM System ................................ 3 Logging in the OMM Client ........................................... 3 Entering the MML Terminal........................................... 6 Operations on the MML Terminal ................................... 7 Synchronizing Data..................................................... 8
Data Configuration Principle............................ 11 Overview......................................................................11 Principle of Configuring the IP Address of the Background ..........................................................12 IP Address Planning of Internal Network of NMS ............13 IP Address Planning of External Network of NMS ............14 IP Address Planning of External Network of Billing System ............................................................16 IP Address Planning of Internal Network of IP Management System..........................................16 Principle of Configuring the IP Address of the Foreground ...........................................................18 Physical Configuration Rules............................................19 Overview..................................................................19 Board Configuration Rules...........................................20 Unit Numbering Rules ................................................21 Module Division Rules.................................................21 Module Numbering Rules ............................................22 SPC Configuration Rules .................................................22 IP Configuration Rules of Interface ...................................24 Service Area Configuration Planning .................................25 Adjacent Office ID Allocation Rule ....................................26
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Local Office Data Configuration ....................... 29 Overview......................................................................30 Local Exchange Configuration ..........................................31 Overview..................................................................31 Creating an Exchange ................................................32 Setting Province and City Information for an Exchange .........................................................33 Physical Configuration ....................................................34 Overview..................................................................34 Creating a Rack.........................................................36 Creating a Shelf ........................................................37 Creating a UIM Unit ...................................................38 Creating a Module .....................................................40 Creating other Units...................................................42 Creating a CHUB Unit ........................................43 Creating a CLKG Unit.........................................45 Creating an SIPI Unit.........................................46 Creating a USI Unit ...........................................48 Creating an SPB Unit .........................................49 Creating MSCS Background Server...............................51 Capacity and Load-Sharing Configuration..........................52 Overivew..................................................................52 Setting the MSCS Office Capacity.................................52 Setting Service Data Area ...........................................55 Creating IMSI Load Sharing ........................................56 Creating TMSI Load Sharing........................................57 Version Loading.............................................................58 Overview..................................................................58 Creating Version File Directory ....................................60 Creating OMP Boot Files .............................................62 Configuring OMP Running Parameters via Serial Port .................................................................64 Setting Global Data OMP Information ...........................75 Synchronizing All Tables .............................................76 Loading Version Files..................................................79 Creating MSCS Tones in Batches ......................................82 Office Information Configuration ......................................83 Overview..................................................................83 Creating a Local Signaling Point ...................................84 Creating the Local Exchange .......................................87
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Creating Mobile Data of Local Office .............................90 Creating the Country Code..........................................95 Creating other MNC of Local Office ...............................96 VLR Configuration..........................................................97 Overview..................................................................97 Creating VLR System Parameters.................................98 Creating VLR System Capacity................................... 100 Creating VLR-supported Services ............................... 104 Creating Roaming Number Prefix ............................... 107 Creating MSRN Load Sharing..................................... 108 Virtual MSC Configuration ............................................. 110 Overview................................................................ 110 Creating Virtual MSC ................................................ 110 Creating Mapping Relationship between MRSN Prefix and Virtual MSC .............................................. 112
Resource Configuration ................................. 115 Resource Planning ....................................................... 115 Configuring Resource Attributes..................................... 115
MSCS-MGW Interconnection Data Configuration ................................................ 121 Overview.................................................................... 121 Interface Address Configuration..................................... 123 Overview................................................................ 123 Creating a Loopback Interface ................................... 123 Creating an SIPI Interface Address ............................ 124 BFD Configuration (optional) ......................................... 126 Overview................................................................ 126 Creating a BFD Authentication Entry .......................... 127 Creating a BFD Session ............................................ 128 Creating a Static Route ................................................ 129 Adjacent Office and Topology Configuration ..................... 131 Overview................................................................ 131 Creating an MGW Adjacent Office .............................. 132 Creating an MGW Voice CODEC Template .................... 136 Creating a Topology Node ......................................... 138 Creating an Inter-MGW Bearer Mode .......................... 142 SIGTRAN Configuration ................................................ 145 Overview................................................................ 145 SCTP Planning......................................................... 147 Creating an SCTP .................................................... 147
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Creating an ASP ...................................................... 151 Creating an AS ........................................................ 152 Creating an M3UA Static Route .................................. 155 Creating the SIO-Locating-AS ................................... 156 H.248 Configuration..................................................... 158 Overview................................................................ 158 Creating MGC Static Data ......................................... 160 Creating an MGW Static Data Template....................... 161 Creating MGW Static Data ........................................ 163 Creating a TID Analyzer ........................................... 164 Creating a TID Analyzer Entry ................................... 166
MSCS-Other-Exchange Interconnection Data Configuration ................................................ 169 Networking Mode......................................................... 169 Office Interconnection in IP Domain ............................... 170 Overview................................................................ 170 Direct-Associated Office Configuration in IP Domain .......................................................... 171 Overview ....................................................... 171 Configuring an Adjacent Office .......................... 172 Creating an MSCS Topology Node ...................... 177 M3UA-Transferred Office Configuration ....................... 180 M2UA-Transferred Office Configuration ....................... 182 Overview ....................................................... 182 Creating an M2UA IP Link................................. 184 TDM Office Interconnection ........................................... 186 Overview................................................................ 186 Creating a Signaling Link Set .................................... 188 Creating an SPB-Accessed Signaling Link .................... 190 Creating a Signaling Route........................................ 193 Creating a Signaling Office........................................ 195
MSCS-Radio-Office Interconnection Data Configuration ................................................ 197 Interconnection with RNC Office .................................... 197 Overview................................................................ 197 Creating an RNC Adjacent Office................................ 200 Creating RNC Office Direction .................................... 204 Creating an RNC Topology Node ................................ 208
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Creating the Topology Relationship between RNC and MGW ............................................................. 211 Interconnection with BSC Office..................................... 213 Overview................................................................ 213 Creating a BSC Adjacent Office.................................. 216 Creating BSC Office Direction .................................... 220 Creating a BSC Topology Node .................................. 222 Creating the Topology Relationship between BSC and MGW ............................................................. 225
Basic Service Data Configuration................... 229 Location Update Data Configuration ............................... 229 Access Configuration ................................................ 229 Overview ....................................................... 229 Creating Emergency Call Center ........................ 230 Creating a Special Service Phone Group ............. 232 Creating the Special Service Phone Called Number Analysis .................................. 235 Creating a LAI Controlled by the Local Office ................................................. 237 Creating an Adjacent LAI ................................. 241 Creating a Global Cell ...................................... 245 Creating a Service Area ................................... 247 SCCP Data Configuration .......................................... 249 Overview ....................................................... 249 Creating a GT Translation Selector..................... 250 Creating GT Translation Data ............................ 254 Roaming Data Configuration...................................... 260 Overview ....................................................... 260 Creating IMSI Number Analysis......................... 261 Creating a Mobile Service Access Number and MNC................................................... 263 Creating a Mobile Network ID and Area Code Mapping ............................................. 265 Call Data Configuration................................................. 266 Number Analysis Configuration .................................. 266 Number Analysis ............................................. 266 Overview ....................................................... 270 Creating a Number Analyzer Entry..................... 271 Creating a DAS ............................................... 273
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Setting the Default DAS Template of the Local Office ................................................. 275 Creating a DAS Template ................................. 279 Creating the Called Number Analysis ................. 282 Trunk Data Configuration .......................................... 307 Overview ....................................................... 307 Creating a DT Trunk Group ............................... 308 Creating an ATM Trunk Group ........................... 315 Configuring a RTP Trunk Group ......................... 321 Creating a PCM System.................................... 325 Creating a PCM System between MGWs ............. 328 Routing Data Configuration ....................................... 329 Overview ....................................................... 329 Creating an Outgoing Route.............................. 330 Creating an Outgoing Route Group .................... 331 Creating an Outgoing Route Chain..................... 333
Configuration Instance.................................. 337 Overview.................................................................... 337 Local Office Data Configuration...................................... 340 Local Exchange Configuration ................................... 340 Physical Configuration .............................................. 341 Capacity and Load Sharing Configuration .................... 342 Version Loading....................................................... 343 Office Data Configuration.......................................... 343 VLR Configuration.................................................... 344 Resource Attribute Configuration ................................... 345 Adjacent MGW Office Interconnection Data Configuration ...................................................... 346 Adjacent HLR Office Interconnection Data Configuration ...................................................... 349 Adjacent RNC Office Interconnection Data Configuration ...................................................... 350 Location Update Data Configuration ............................... 352 Call Data Configuration................................................. 354 Data Synchronization ................................................... 355 MSCS-MGW Interconnection Debugging Procedure ........... 355 Checking the MGW Office Status................................ 356 Checking the Physical Connection .............................. 356 Debugging the SCTP ................................................ 357 Debugging the M3UA ............................................... 357
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Confirming the Working Status of the MGW ................. 358 H.248/SCTP Problem Location Method ........................ 358 M3UA Problem Location Method................................. 359 MSCS-HLR Interconnection Debugging Procedure............. 359 Checking the HLR Office Status ................................. 360 Checking the Physical Connection .............................. 360 Debugging the Narrow-Band Signaling Link ................. 361 Signaling Link Problem Location Method ..................... 365 MSCS-RNC Interconnection Debugging Procedure ............ 365 Checking the RNC Office Status ................................. 366 Basic Service Debugging Procedure................................ 366 Debugging the Location Update Service ...................... 367 Debugging the Local-Office Call ................................. 367
Figure............................................................ 369 Table ............................................................. 373 Index ............................................................ 379
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About This Manual Purpose
At first, thank you for choosing ZXWN wireless core network system of ZTE Corporation! ZXWN system is the 3G mobile communication system developed based on the UMTS technology. ZXWN system boasts powerful service processing capability in both CS domain and PS domain, providing more abundant service contents. Comparing with the GSM, ZXWN provides telecommunication services in wider range, capable of transmitting sound, data, graphics and other multi-media services. In addition, ZXWN has higher speed and resource utilization rate. ZXWN wireless core network system supports both 2G and 3G subscriber access, and provides various services related with the 3G core network. The ZXWN MSCS system is designed for the UMTS system at the core network control level. It supports the GSM core network, UMTS protocols in the R99/R4/R5 stage and relevant functions at the same time, and provides the carriers with an overall solution to the evolution from the GSM core network to the 3GPP R99 and then to the 3GPP R5. The ZXWN MSCS system completes the functions of the Mobile Switching Center Server and the Visitor Location Register (VLR) together, and provides the Service Switching Point (SSP) functions of intelligent calls. The ZXWN MSCS system supports the MGCF function, and the coexistence of the MGCF and GMSCS. It also can smoothly upgrade to the MGCF. This purpose of this manual is to let the carrier master the data configuration method of MGCF.
Intended Audience
This manual is intended for engineers and technicians who have mastered the communication principle of the mobile network.
Prerequisite Skill and Knowledge
To use this document effectively, users should have a general understanding of wireless telecommunications technology. Familiarity with the following is helpful: �
What Is in This Manual
MSCS system and its various components
This manual contains the following chapters: Chapter
Summary
Chapter 1, Data Configuration Overview
Describes the overall flow of the MSCS data configuration and basic operations of the background network management (OMM) system
Chapter 2, Data Configuration Principle
Describes the data configuration principle of the MSCS
Chapter 3, Local Office Data Configuration
Describes the physical configuration, capacity configuration, version configuration,
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FCC Compliance Statement
Chapter
Summary and office information configuration of MSCS
Chapter 4, Resource Configuration
Describes MSCS resource planning and attribute configuration
Chapter 5, MSCS-MGW Interconnection Data Configuration
Describes the signaling interworking configuration between MSCS and MGW
Chapter 6, MSCS-OtherExchange Interconnection Data Configuration
Describes the signaling interworking configuration between MSCS and other exchanges at the network side
Chapter 7, MSCS-Radio-Office Interconnection Data Configuration
Describes the signaling interworking configuration between MSCS and radio offices
Chapter 8, Basic Service Data Configuration
Describes the basic data configuration related with SIP service and the call service
Chapter 9, Configuration Instance
Sets MSCS trial office as an example to describe the data configuration of the local office and the peer office
This device complies with part 15 of the FCC Rules. Operation is subject to the following two conditions. 1. This device may not cause harmful interference. 2. This device must accept any interference received, including interference that may cause undesired operation. Changes or modifications not expressly approved by the party responsible for compliance could void the user's authority to operate the equipment.
Conventions
ZTE documents employ the following typographical conventions. Typeface
Meaning
Italics
References to other Manuals and documents.
“Quotes”
Links on screens.
Bold
Menus, menu options, function names, input fields, radio button names, check boxes, drop-down lists, dialog box names, window names.
CAPS
Keys on the keyboard and buttons on screens and company name. Note: Provides additional information about a certain topic. Checkpoint: Indicates that a particular step needs to be checked before proceeding further. Tip: Indicates a suggestion or hint to make things easier or more productive for the reader.
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About This Manual
Mouse operation conventions are listed as follows: Typeface
Meaning
Click
Refers to clicking the primary mouse button (usually the left mouse button) once.
Doubleclick
Refers to quickly clicking the primary mouse button (usually the left mouse button) twice.
Right-click
Refers to clicking the secondary mouse button (usually the right mouse button) once.
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Declaration of RoHS Compliance To minimize the environmental impact and take more responsibility to the earth we live, this document shall serve as formal declaration that ZXWN MSCS manufactured by ZTE CORPORATION are in compliance with the Directive 2002/95/EC of the European Parliament - RoHS (Restriction of Hazardous Substances) with respect to the following substances: �
Lead (Pb)
�
Mercury (Hg)
�
Cadmium (Cd)
�
Hexavalent Chromium (Cr (VI))
�
PolyBrominated Biphenyls (PBB’s)
�
PolyBrominated Diphenyl Ethers (PBDE’s)
… The ZXWN MSCS manufactured by ZTE CORPORATION meet the requirements of EU 2002/95/EC; however, some assemblies are customized to client specifications. Addition of specialized, customer-specified materials or processes which do not meet the requirements of EU 2002/95/EC may negate RoHS compliance of the assembly. To guarantee compliance of the assembly, the need for compliant product must be communicated to ZTE CORPORATION in written form. This declaration is issued based on our current level of knowledge. Since conditions of use are outside our control, ZTE CORPORATION makes no warranties, express or implied, and assumes no liability in connection with the use of this information.
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Chapter
1
Data Configuration Overview Table of Contents Overall Flow of MSCS Data Configuration ............................... 1 Basic Operations of the OMM System .................................... 3
Overall Flow of MSCS Data Configuration Prerequisites
Before the data configuration, it is required to confirm: �
The hardware installation is completed and the cable connections are normal. The rack , shelves , and boards are all installed. Cables are all connected well, and the equipment can be normally powered on.
�
The background network management system is installed. The IP addresses of the background OMM server and client are planned. The LAN is constructed, and the foreground OMP is connected. The OMM server software and client software are installed, ensuring that the OMM client can normally log in to the OMM server. For the installation of the OMM server software and client software, refer to ZXWN MSCS MSC Server Software Installation.
Configuration Flow
The overall flow of the MSCS data configuration is shown in Figure 1.
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FIGURE 1 OVERALL FLOW OF THE MSCS DATA CONFIGURATION
Flow Description
The flow description of MSCS data configuration is shown in Table 1. TABLE 1 MSCS DATA CONFIGURATION FLOW Steps
2
Operations
Description
1
Data configuration planning
According to the networking structure, determine the connection relationship and bearer type between NEs, plan and negotiate the configuration data, including the local office data, interconnection data with other NEs, location update data, and call data
2
Local office data configuration
Perform physical configuration, capacity configuration, version configuration, and office information configuration for the local office
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Chapter 1 Data Configuration Overview
Steps
Operations
Description
3
MSCS-MGW interconnection data configuration
Configure the Mc-interface signaling interconnection data
4
MSCS-other exchange interconnection data configuration
Configure the signaling interconnection data with other offices at the network side except the MGW, such as MSCS, HLR, PSTN, and SGSN
5
MSCSradio office interconnection data configuration
Configure the signaling interconnection data with the RNC or BSC
6
Basic service data configuration
Configure the data related to the location update and the basic call
Basic Operations of the OMM System To perform data configuration , it is required to be familiar with the basic operations of the OMM system, including the following operations: No.
Operations
1
Logging in to the OMM Client
2
Entering the MML Terminal
3
Operations on the MML Terminal
4
Synchronizing Data
Logging in the OMM Client Prerequisites
Context
Before the operation, it is required to confirm: �
The server and the client of the network management are installed.
�
The communication between the server and the client is normal.
The purpose of logging in to the OMM client is to perform data configuration and daily maintenance by using the background OMM software.
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Steps
1. On the OMM server, select Programs > ZXWN-CS (OMM) > Start Server. the NetNumen (TM) Console window pops up, displaying the start process of the OMM server, as shown in Figure 2. FIGURE 2 START PROCESS OF THE OMM SERVER
2. After the OMM server starts successfully, the prompt messages are displayed in the Detailed Specification area, as shown in Figure 3. FIGURE 3 START INFORMATION OF THE OMM SERVER
3. On the server, click Start > Programs > ZXWN-CS (OMM) > Start Client , and then the Login dialog box appears, as shown in Figure 4.
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Chapter 1 Data Configuration Overview
FIGURE 4 LOGIN WINDOW
4. After entering the login information, click OK. The parameter description is described in Table 1. TABLE 1 LOGIN PARAMETER DESCRIPTION Name
Meaning
Default
User name
Indicates the name of the subscriber who logs in the network server. The default name is admin (system administrator). If other subscriber fails to log in the network management server for many times (exceeds the maximum), the subscriber will be locked automatically. This subscriber only could be unlocked by the administrator or when the locking duration expires. The login operation that exceeds the maximum should be reported to the network management, so that the network management could know the maintenance status of the equipment in order to avoid the login of the unauthorized subscriber and other operation errors. The maximum login limitation times in this system is 3
admin
Password
It indicates the password that is used to log in the OMM server. The password of the new installed network management is null
Null
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Name
Meaning
Default
Server address
Indicates the IP address of the network management server. If the server and the client are not installed in the same computer, it is required to enter the real IP address of the server. or else, you can enter the actual IP address or adopt the default IP address
127.0.0.1
END OF STEPS Result
After the login is successful, the main window of the OMM system pops up, as shown in Figure 5. FIGURE 5 NETNUMN M30 MSCS/MGW OMM SYSTEM WINDOW
Entering the MML Terminal Prerequisites
To enter the MML terminal, the following condition must be met: The user has logged in to the OMM Server successfully.
6
Context
This topic describes how to enter the command terminal and configure the data.
Steps
1. On the OMM client, select Views > MML Terminalto enter the MML Terminal window. The left shows the configuration tree, and the right shows the attribute pane, as shown in Figure 6.
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Chapter 1 Data Configuration Overview
FIGURE 6 CONFIGURATION & MANAGEMENT MAIN WINDOW
END OF STEPS
Operations on the MML Terminal Command Terminal Window
The main operation of the data configuration is to type the command in the MML Terminal window, as shown in Figure 7. FIGURE 7 MML TERMINAL WINDOW
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On the left pane of the MML Terminal window, the Root node represents the OMM server node, which is the real root node. The nodes under the Root node represent the specific NEs to be configured. Command Typing
The command is typed in the input box at the lower right corner of the MML Terminal window. For example, type in command SET:NEID=11;, as shown in Figure 7. In general, a command is associated with a network element (except the command used to configure an exchange). For example, create a shelf for MSCS(11) (the ID can be queried with the command SHOW NE;). The following two methods can be used to perform the conjunction:
Command Execution
�
Type the command SET: NEID=11; and click F5 to execute the command (the method is widely adopted in this document);
�
Select the network element of which the exchange ID is 11 from the left configuration system tree, such as MSCS 11.
This part describes the procedure of command line operation. Click F5 to execute the command after it is typed. After the command is executed, the Command Execute Result pane shows the result or the information read by this command, as shown in Figure 8. FIGURE 8 COMMAND EXECUTION OPERATIONS
Synchronizing Data Prerequisites
8
Before the operation, it is required to confirm: �
The MML Terminal window is opened.
�
Some data configuration or all data configuration is completed.
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Chapter 1 Data Configuration Overview
Context
When configuring the data on the OMM, such as adding data, modifying data or deleting data, the data will be saved to the OMM Server in the form of data list after executing the F5 button. At this time, the foreground data are not modified. The data synchronization is to synchronize the data on the OMM Server to the foreground The data synchronization operation could be done after finishing each step or after finishing configuring all the data.
Steps
1. If the exchange is not specified, it is required to use the SET command on the MML Terminal window or select the network element from the system tree to specify the exchange to be configured. 2. Data transfer includes transferring data by using the Admin user, and transferring data by using the current login user. �
Synchronize Admin data. The command is SYNA.
Tip: This command is used by Admin users to synchronize all table data, no matter whether the tables are locked by other users. Table 2 describes the parameters in this command. TABLE 2 PARAMETERS IN THE SYNA COMMANDS Parameter Name
Parameter Description
Instructions
USERNAME
User name
It consists of 0~50 characters and the default value is admin. It includes
STYPE
Sync type
–
CHG (Single User Changed Tables)
–
ALL (All Tables)
–
ALLCHG (All Changed Tables)
Module list
It indicates the module ID in decimal. If there are many module IDs, use the symbol & to connect them.
TIMEOUT
Response timeout (100ms)
It is an optional parameter and the default value is 600. Adjust the response timeout according to the actual requirement.
SAVE
Save when completed
It is an optional parameter and the default value is YES
MODULES
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�
Parameter Name
Parameter Description
Instructions
TOSLAVE
Sync to slave when completed
It is an optional parameter and the default value is YES
Synchronize the data of currently login user. The command is SYN.
Tip: This command is used to synchronize the table data configured by a login user. The table data not configured by the login user can not be synchronized to the foreground. Table 3 describes the parameters in this command. TABLE 3 PARAMETERS IN THE SYN COMMANDS Parameter Name
Parameter Description
Instructions
Module List
It indicates the module ID in decimal. If there are many module IDs, use the symbol & to connect them.
TIMEOUT
Response timeout (100ms)
It is an optional parameter and the default value is 600. Adjust the response timeout according to the actual requirement.
SAVE
Save when completed
It is an optional parameter and the default value is YES
TOSLAVE
Sync to slave when completed
It is an optional parameter and the default value is YES
MODULE
�
Example: To synchronize all the tables with admin user, the command is as follows: SYNA:STYPE=ALL,TIMEOUT=600,SAVE=YES,TOSLAV E=YES;
�
Example: To synchronize the data of the current user, the command is as follows: SYN:TIMEOUT=600,SAVE=YES,TOSLAVE=YES;
END OF STEPS
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Chapter
2
Data Configuration Principle Table of Contents Overview..........................................................................11 Principle of Configuring the IP Address of the Background .........12 Principle of Configuring the IP Address of the Foreground .........18 Physical Configuration Rules................................................19 SPC Configuration Rules .....................................................22 IP Configuration Rules of Interface.......................................24 Service Area Configuration Planning .....................................25 Adjacent Office ID Allocation Rule ........................................26
Overview Introduction
To correctly and quickly complete data configuration, engineers need to complete data collection and plan before data configuration. The data to be collected include: �
Networking Mode
�
Equipment configuration, including shelf and board configuration, and links provided by boards
�
External interface and interconnection negotiation data, including signaling links, IP addresses and IP port No.
�
Service data
This chapter briefs the data configuration principle of the MSCS.
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Principle of Configuring the IP Address of the Background IP Address Planning of the Background
Related Concepts
The whole background LAN divides into four parts: No.
Category
Description
1
Internal network VLAN of the Network Management System (NMS)
Used for the communication between the background server and the foreground
2
External network VLAN of the NMS
Used for the communication between the background server and the client, between the OMM/EMS server and other background servers, and between the OMM/EMS server and the upper-level network management system
3
External network VLAN of the billing system
Used for the communication among the billing server, HLR interface machine, and the upper-level BOSS system
4
Internal network VLAN of the IP management system
Used for the communication between the OMM/EMS server and the IP/IT equipment in the LAN
1. Office number On the OMM server, it is the number of the newly added exchange. �
�
The office number range is city/region. It cannot be repeated in the same range, and can be repeated in different ranges. The office number should be allocated in the ascending order in each range.
2. Base office number During background networking, since one OMM server may manage multiple NEs, the concept of base office number is added. �
�
12
When the OMM server manages one MSCS, the base office number is the MSCS office number. When OMM server manages multiple MSCSs, the base office number adopts smallest MSCS office number.
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Chapter 2 Data Configuration Principle
IP Address Planning of Internal Network of NMS The IP address planning principle of the internal network of the NMS is as follows: Adopt the mode of class-C private address plus 24-bit mask, and fix the IP address section to 192.168.Base office number.Node number/24. Table 4 shows the office number allocation principle. TABLE 4 OFFICE NUMBER ALLOCATION PRINCIPLE NE Type
Office Number Range
HLR
1~10
MSCS
11~30
MGW
31~50
SGSN
51~60
GGSN
61~70
CG
71~80
MG
81~90
If one OMM server manages multiple NEs, (i.e. one internal network of the NMS manages multiple offices), the base office number in the IP address adopts the smallest office number. Table 5 shows the IP address allocation principle of the internal network of the NMS. TABLE 5 IP ADDRESS ALLOCATION PRINCIPLE OF THE INTERNAL NETWORK OF THE NMS
Module
Apllied Range
IP Address/Mask
Remark
1. The OMP is forbidden to
OMP
USI
CS/PS/HLR
CS/PS/HLR
192.168.B ase office number.L ocal office number/24
192.168.B ase office number.100 /24
be configured with the SMP attribute
2. The local office number refers to the office number of the NE where the OMP belongs to
1. If one internal network of the NMS only manages one office, the node number of the USI is fixed to 100.
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Module
Apllied Range
IP Address/Mask
Remark
2. If one internal network of the NMS manages multiple offices, there are multiple USI modules, and the node number of the USI begins with 100
OMM Server
192.168.B ase office number.129 /24
-
192.168.B ase office number.134 /24
Used for the local maintenance terminal
CS/PS/HLR
192.168.B ase office number.130 /24 CU/CG Server
CS/PS
192.168.B ase office number.131 /24
192.168.Base office number.130/24 is a floating IP
192.168.B ase office number.132 /24 DNS Server
NTP Server
PS
192.168.B ase office number.160 /24
If the dual-server system is adopted, the node number is 160~162
PS
192.168.B ase office number.170 /24
If the dual-server system is adopted, the node number is 170~172
IP Address Planning of External Network of NMS All clients and unified alarm boxes in the same office are all connected to the external network VLAN. The external network of the NMS is the exclusive channel to communicate with the upper-level NMS. The IP address planning principle of the external network of the NMS is as follows: Adopt the mode of class-B private address plus 16-bit mask, and fix the IP address section to 172.16. Base office number.Node number/16. The base office number of the external network of the NMS keeps consistent with that of the internal network of the NMS.
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Table 6 shows the IP address allocation principle of the external network of the NMS. TABLE 6 IP ADDRESS ALLOCATION PRINCIPLE OF THE EXTERNAL NETWORK OF THE NMS
Module
Apllied Range
IP Address/Mask
Remark
OMM Server
CS/PS/HLR
172.16.Base office number.129/16
-
172.16.Base office number.130/16 CG/CU Server
CS/PS
172.16.Base office number.131/16
-
172.16.Base office number.132/16 Unified alarm box
CS/PS/HLR
172.16.Base office number.250/16
-
1. The
node numbers of the local clients are 240~249
Local clients
CS/PS/HLR
172.16.Base office number.24*/16
2. The
local clients include OMM clients, EMS clients, billing clients, and HLR agents
1. The
Remote clients
CS/PS/HLR
172.16.Base office number.24*/16
node numbers of the remote clients are 240~249
2. The remote clients include EMS clients, and OMM clients
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IP Address Planning of External Network of Billing System The external network of the billing system is used to communicate with the upper-level BOSS system, implementing CDR delivery and BOSS agent interface data delivery. The IP address planning principle of the external network of the billing system is as follows: Adopt the mode of class-B private address plus 16-bit mask, and fix the IP address section to 172.17.Base office number.Node number/16. The base office number of the external network of the billing system keeps consistent with that of the internal network of the NMS. Table 7 shows the IP address allocation principle of the external network of the billing system. TABLE 7 IP ADDRESS ALLOCATION PRINCIPLE OF THE EXTERNAL NETWORK OF THE NMS Module
Apllied Range
IP Address/Mask 172.17.Base office number.130/16
CG/CU Server
CS/PS
172.17.Base office number.131/16 172.17.Base office number.132/16
HLR interface machine
HLR
172.17.Base office number.150/16
IP Address Planning of Internal Network of IP Management System The internal network VLAN of the IP management system is used to monitor and manage all the IP/IT equipment in the same office. The basic principle of monitoring the IP/IT equipment is as follows: The IT OMM (generally installed on the OMM Server or EMS Server of the local office) collects the management information (alarm and performance data) of the IP/IT equipment through the internal network of the IP management system (IT-SW), and sends it to the EMS through the external network of the NMS. The IP address planning principle of the internal network of the IP management system is as follows: Adopt the mode of class-B private address plus 16-bit mask, and fix the IP address section to 172.18.Base office number.Node number/16. The base office number of the internal network of the IP/IT equipment management system keeps consistent with that of the internal network of the NMS.
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Table 8 shows the IP address allocation principle of the internal network of the IP management system. TABLE 8 IP ADDRESS ALLOCATION PRINCIPLE OF THE INTERNAL NETWORK OF THE IP MANAGEMENT SYSTEM
Apllied Range
IP Address/Mask
Remark
CS/PS/HLR
172.18.Base office number.129/16
This OMM Server concurrently acts as the IT OMM
172.18.Base office number.1*/16
The Ethernet interface of the switch is directly connected with the IT-SW
172.18.Base office number.3*/16
The management port of the router is directly connected with the IT-SW
CS/PS/HLR
172.18.Base office number.4*/16
The management port of the firewall is directly connected with the IT-SW
CS/PS
Using the internal network IP of the NMS
Using the communication channel with the OMM Server
HLR
Using the internal network IP of the NMS
Using the communication channel with the OMM Server
HLR DBIO Server
HLR
Using the internal network IP of the NMS
Using the communication channel with the OMM Server
HLR interface machine
HLR
Using the internal network IP of the NMS
Using the communication channel with the OMM Server
Module
OMM Server
Ethernet switch
Router
CS/PS/HLR
CS/PS/HLR
Firewall
CG/CU server
HLR DBE Server
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Module
DNS server
NTP Server
Apllied Range
IP Address/Mask
Remark
PS
172.18.Base office number.160/16
If there is an idle FE interfaces, it is directly connected with the IT-SW
172.18.Base office number.170/24
If there is an idle FE interfaces, it is directly connected with the IT-SW; otherwise, the communication channel with the OMM Server is used
PS
Principle of Configuring the IP Address of the Foreground The boards on the foreground, and the maintenance servers and maintenance terminals on the background identify and communicate with each other through IP addresses. Foreground addresses are the IP addresses of boards, which have three network sections: 128, 129, and 130. 1. Network section 128 Network section 128 is a debugging network section. The CPU of each board has one IP address in network section 128.The communication between foreground boards uses this address. The system calculates this address according to the DIP values of the rack and shelf, and the slot No. The calculation formula is as follows. However, the address of the OMP module in network section 128 is usually 128.0.31.1 or 128.0.31.9. Suppose the IP address in network section 128 is 128.A.B.C: A=Office ID×16+Rack No. B=Shelf No.×32+Slot No. C=CPU No.×8+1
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Note: The office ID and shelf No. in the formula are the same with that in DIPs. However, the so-called office ID refers to the office ID in DIPs plus 1, and the so-called shelf No. refers to the shelf No. in DIPs plus 1. 2. Network section 130 In general, the system automatically allocates the IP addresses in network section 130 to each SMP for communication between SMPs. 3. Network section 129 Network section 129 is usually used for billing networks. Among the foreground boards, only USI boards have IP addresses in network section 129, which are usually used as gateways to implement the communication between the MP and the billing server.
Physical Configuration Rules Overview Introduction
Contents
Physical configuration rules describe the type division of racks, shelves, boards and modules, board position planning, and numbering methods. This section contains the following topics. No.
Rules
Description
1
Board Configuration Rules
Including single-rack shelf configuration, slot restriction and board position planning of each board
2
Unit numbering rules
Introduces the method of numbering the foreground boards
3
Module division rules
Introduces the module types and division principles
4
Module numbering rules
Introduces the method of numbering all MP modules
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Board Configuration Rules Shelf Condition
ZXWN MSCS only uses BCTC shelves. A rack can be inserted with at most four shelves. A single BCTC shelf with full configuration is shown in Figure 9. FIGURE 9 SINGLE BCTC SHELF WITH FULL CONFIGURATION
Configuration Description
A single rack is numbered 1, and multiple shelves are numbered from 1. �
Shelves are numbered, going top-to-bottom from 1 to 4.
�
Slots are numbered, going left-to-right from 1 to 17.
BCTC shelf can be configured with the following boards.
20
�
OMP/RPU board is inserted into slots 11 and 12 on shelf 2 of rack 1.
�
UIMC board is inserted into slots 9 and 10.
�
SMP board is inserted into all slots except for slots 9 and 10. It is required that signaling MP and service MP boards must be inserted into each BCTC shelf evenly.
�
CLKG board is inserted into slots 13 and 14 on shelf 2 of rack 1.
�
CHUB board is inserted into slots 15 and 16 on shelf 2 of rack 1.
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Board position planning
�
USI board is inserted into all slots except for slots 9 and 10. In general, slots 1 and 2 are selected.
�
SIPI board is inserted into all slots except for slots 9 and 10. Slots 1 and 2 are selected preferentially, and then slots 3 and 4 are selected. When SIPI load-sharing networking is adopted, SIPI boards should be inserted into different BCTC shelves.
�
SPB board is inserted into all slots except for slots 9 and 10.
The basic principles for planning board positions are as follows. �
The slot where the board is inserted is suitable for this board.
�
The plan conforms to the engineering design and specifications. Board insertion should be tidy as far as possible to make sure cable routing reasonable and pleasant.
�
Slot planning conforms to the load-sharing requirements.
For the purpose of load-sharing, signaling modules and service modules should be evenly configured in different BCTC shelves.
Unit Numbering Rules To number the unit is to number the foreground board on the background network management. Numbering rules are as follows. Unit number=ABCD �
AB=Slot number
�
C=Shelf number
�
D=Rack number
Slot number ranges from 1 to 17, shelf number ranges from 1 to 4, and rack number ranges from 1 to 9. The rack number is usually not greater than 9. For example, the unit number of the UIMC board located in slot 9, shelf 2 of rack 1 is 921.
Module Division Rules Currently, the SMP boards used in MSCS and MGW can divide into signaling module (SMP), service module (CMP) or signaling and service mixed module according to different module attributes that are configured. SMP signaling module and CPM service module are configured separately during the current commissioning. Therefore, the number of SMP modules and CMP modules need to be configured. Basic principles of module division are as follows. �
Signaling modules are configured separately from service modules. Interception modules (MSCS) are configured independently. They are distinguished by different module attributes.
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ZXWN MSCS Data Configuration Guide(MSCS)
�
Signaling modules and service modules should be configured in different control shelves for load sharing.
�
The scale of signaling modules and service modules should be configured properly. Otherwise, later adjustment to the scale is relatively complex. In addition, MP must be restarted.
�
64k and 2M signaling link management modules must be shared by all the signaling modules for load sharing, with the consideration that one 2M signaling link can be calculated as 16 64K signaling links. The signaling links of the same office must be shared by the signaling modules in different slots.
�
SCTP management modules should be evenly shared by all the signaling modules. The SCTPs under the same AS must be shared by the signaling modules in the different slots. Note that the SCTP load under each AS is different from each other. In general, the load of associations bearing BSSAP/RANAP>The load of associations bearing H248>The load of associations bearing TSUP/TUP.
Module Numbering Rules All the MP modules in the MSCS are universally numbered from 1 to 128. Module numbering rules are as follows. �
OMP: Its module number is 1.
�
RPU: Its module number is 2.
�
SMP/CMP: Its module number is numbered from 3 to 127, allocated to each module in turn.
On the OMP board of the MSCS, module 1 is the OMP module, and module 2 is the RPU module by default. According to module attributes, the SMP board can be configured to signaling module (SMP), service module (CMP), or signaling and service mixed module. In the MSCS, all units home to module 1.
SPC Configuration Rules SPC Types
Signaling points divide into three basic types according to the type of the signaling-interconnected office. 1. Signaling point interconnecting to other exchange This signaling point is used to interconnect with other exchanges in the signaling network, including HSTP/LSTP, HLR, TMSC, MSC, and other exchanges. 24-bit signaling points are used in China. 14-bit signaling points are possibly used for commissioning in other countries. The basic principles for applying for a Signaling Point Code (SPC) are as follows.
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�
�
The MSCS applies for at least one SPC. If multiple signaling points are needed, apply for SPCs according to the actual requirements. During the dual-homing networking, the active MSCS and the standby apply for one SPC, the mutually backed-up MSCSs apply for two SPCs, and N+1 MSCSs apply for at least N SPCs (it is recommended to apply for N+1 SPCs).
2. Signaling point interconnecting to an radio office This signaling point is used to interconnect with a radio office, including BSC and RNC. The basis principles are as follows. �
�
When MGW interconnects with RNC in an ATM bearer mode, RNC and MGW are directly associated. RNC sends the RANAP signaling to MSCS through MGW. In this case, MSCS can use a signaling point being different from that of MGW. When MGW interconnects with RNC in an IP bearer mode, RNC and MSCS are directly associated. In this case, MSCS needs to apply for a signaling point, but MGW does not. When MGW interconnects with BSC, BSC and MGW are directly associated in most cases. BSC sends the BSSAP signaling to MSCS through MGW. In this case, MSCS and MGW use a same signaling point, because BSC generally does not support that MSCS uses the SPC being different from that of MGW. In China, BSC basically uses 14-bit SPC.
3. Signaling point interconnecting with the Mc interface The signaling point that is used for MSCS to interconnect with MGW on the Mc interface only bears the H248 signaling. Since Mc interface is an internal interface for MSCS to directly connect to MGW, it is recommended to use the customized signaling point. If it is not available, MGW may use the signaling point of type 1 or type 2 that are mentioned above. But each MGW must use a different signaling point from each other. And it is recommended that active MSCS uses a signaling point being different from that used by standby MSCS. Signaling Point Configuration
The specific configuration of signaling points is decided by the applied signaling points. When performing signaling point configuration on the background OMM system of the MSCS, divide them according to interconnection modes. The signaling points include the following types: 1. Signaling points interconnected with the Mc interface, used for the interconnection between the MSCS and the MGW, and only bearing H.248 signaling. 2. Signaling points used for the interconnection between the MSCS and the associated adjacent offices. 3. Signaling points used for the interconnection between the MSCS and signaling offices (except the BSC and RNC) through the MGW. 4. Signaling points used for the interconnection between the MSCS and radio offices (BSC and RNC) through the MGW, or between the MSCS and the associated radio offices.
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ZXWN MSCS Data Configuration Guide(MSCS)
IP Configuration Rules of Interface Overview
MSCS signaling service IP addresses include the IP address of Mc interface and that of Nc interface. In addition, adding IP address of Iu-CS interface is required when this interface adopts the IP networking mode. The IP address division of Iu-CS interface is similar to that of Mc interface. It may uses an independent IP address, or share the IP address with Mc interface. On the MSCS, the Mc interface and Nc interface can be configured with two types of IP addresses.
Service Address
Interface Address
The service address is the SCTP processing address, which is configured on the loopback interface of the RPU module. This address corresponds to the IP address of local end specified in the SCTP configuration. �
At least one IP address is required.
�
To support SCTP multi-homing configuration, a service address should be configured with at least two IP addresses.
�
If the Mc interface or Nc interface does not share service address with other interface, two times of IP addresses should be configured.
The interface address is configured on the SIPI real interface for interconnecting with the CE equipment. MNIC is the backplane of SIPI board, which only externally provides one FE interface. There are two methods to interconnect with CE. �
Active/standby mode Two SIPI boards are configured, working in active/standby mode. Virtual Router Redundancy Protocol (VRRP) is enabled on the CE side. Every two SIPI boards are configured with one IP address, and the interface of the corresponded CE is configured with three IP addresses, which are the interface addresses of router 1 and router 2, and the VRRP address of router.
�
Load sharing mode Two SIPI board are configured, working in No backup mode. The Bidirectional Forwarding Detection (BFD) protocol is enabled between SIPI and CE. These two SIPI boards are configured with two IP addresses that are in different network sections. And the interface at the corresponded CE side is configured with two IP addresses, too.
Instance
24
Take the IP addresses of Mc interface listed in Table 9 for example, Figure 10 shows the diagram of signaling service IP configuration.
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FIGURE 10 SIGNALING SERVICE IP CONFIGURATION
TABLE 9 AN INSTANCE OF MC INTERFACE IP ADDRESSES IP address
Subnet mask
10.0.74.5
255.255.255.255
10.0.74.10
255.255.255.255
SIPI1 (real address)
10.0.74.4
255.255.255.248
SIPI2 (real address)
10.0.74.9
255.255.255.248
CE1 (next hop address)
10.0.74.1
255.255.255.248
CE2 (next hop address)
10.0.74.2
255.255.255.248
Opposite-end address 1
11.11.11.1
255.255.255.0
Opposite-end address 2
11.11.11.2
255.255.255.0
Configuration Position RPU (loopback interface address)
Service Area Configuration Planning Service area planning means dividing one MSCS into multiple service areas, that is, multiple virtual MSCSs. Therefore, it is required to configure the data related with virtual MSCSs, and to apply for multiple MSC/VLR GT numbers and roaming number sections. In the following two cases, it is required to perform service area planning. 1. The region-system networking is adopted. When the region-system networking is adopted, one MSCS manages multiple service areas (area codes for subscriber access in different service areas are different). Different service areas usually use different MSC/VLR GT numbers and roaming number sections.
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ZXWN MSCS Data Configuration Guide(MSCS)
2. The region-system networking is not adopted, but different MGWs under the same MSCS need to be configured with different roaming number sections. When one MSCS manages multiple service areas, although all the area codes for subscriber access are the same, it is required to allocate different roaming number sections to different MGWs to reduce alternate traffic between MGWs. Therefore, each service area needs to be set with the corresponding virtual MSC index, i.e., area ID. The area ID ranges from 1 to 65535 (0 for public area), in the format of “Area code + Number” (the area code is the corresponding area code of the virtual MSC, and the number is an integer ranging from 1 to 9).
Adjacent Office ID Allocation Rule The adjacent office ID is the basis of the office data, which is referred to during signaling configuration and traffic configuration. Therefore, it is required to make an overall plan about adjacent offices. Different types of adjacent offices need to be configured with fixed adjacent office IDs. For example, one MSCS is divided into 3 service areas, including the public area, area 1, and area 2, as shown in Figure 11. FIGURE 11 ADJACENT OFFICE ID ALLOCATION
In the public area, the adjacent offices of the MSCS include the following types: 1. Adjacent offices (except MGW) associated with the MSCS. 2. Adjacent offices quasi-associated with the MSCS, whose signaling routes pass the above associated adjacent offices. 3. Adjacent offices connected with the MSCS through multiple MGWs. This type of adjacent offices are relatively special, and they are shared by all areas, so they are put in the public area.
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In area 1 and area 2, the adjacent offices of the MSCS include the following types: 1. Adjacent MGW offices associated with the MSCS in the local area. 2. Adjacent offices quasi-associated with the MSCS, and those connected with the MSCS through the above MGWs. In general, the M3UA transfer/agent mode is adopted. In some cases, the M2UA mode is adopted.
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Chapter
3
Local Office Data Configuration Table of Contents Overview..........................................................................30 Local Exchange Configuration..............................................31 Physical Configuration ........................................................34 Capacity and Load-Sharing Configuration..............................52 Version Loading.................................................................58 Creating MSCS Tones in Batches..........................................82 Office Information Configuration ..........................................83 VLR Configuration..............................................................97 Virtual MSC Configuration ................................................. 110
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ZXWN MSCS Data Configuration Guide(MSCS)
Overview Configuration Flow
Figure 12 shows the flow of the local office data configuration. FIGURE 12 THE HOME OFFICE DATA CONFIGURATION FLOW
Flow Description
30
The flow description of the local data configuration is shown in Table 2.
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TABLE 2 LOCAL DATA CONFIGURATION FLOW Steps
Operations
Procedures
1
Local Office Configuration
Creates MSCS exchange, and configures the province and city information of this office
2
Physical Configuration
Creates foreground-corresponded racks, shelves, units, modules and their attributes on the background OMM system
3
Capacity and Load-sharing Configuration
Plans the MP table capacity and IMSI/TMSI load sharing
4
Version Loading
Loads the version files to the foreground, which are required for normal running of different foreground boards
5
Creating MSCS Tones in Batches
Add a batch MSCS tones
6
Office Information Configuration
Configures the local office signaling point, exchange type, country code, mobile country code, and mobile network code.
7
VLR Configuration
Configures VLR capacity, VLR parameters, and roaming number prefix.
8
Virtual MSC Configuration (optional)
Virtual MSC is required when service areas are divided.
Local Exchange Configuration Overview Introduction
Contents
Configuring the local exchange is to define the information of the local exchange on the OMM system such as its type. It is the first data configuration in deployment. The exchange configuration contains the following steps.
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ZXWN MSCS Data Configuration Guide(MSCS)
Steps
1
2
Operations
Instructions
Commands
Creating an exchange
Create the NE corresponded by the exchange on the background OMM system
ADD NE
Setting province and city information for an exchange
Configure the provincial and city codes of the exchange, thus to display the area information in the Element Management System (EMS)
SET PCINFO
Creating an Exchange Prerequisites
Before the operation, it is required to confirm: The MML Terminal window is opened.
Context Steps
Perform this procedure to create the NE corresponded by the exchange on the background OMM system. 1. Create an MSCS exchange with the ADD NE command. Table 10 describes the main parameters in the ADD NE command. TABLE 10 PARAMETERS IN THE ADD NE COMMAND Parameter Name
32
Parameter Description
Instruction
ID
The unique ID of an exchange
It is a mandatory parameter. It ranges from 11 to 30. It cannot be modified once it is created.
TYPE
Type of the exchange to be created
It is a mandatory parameter. Select MSCS.
MESUBTYPE
NE sub-type
It is an optional parameter. Select NONE for an end office, and TMSC1 or TMSC2 for a tandem office.
NAME
Exchange name customized by user
It is an optional parameter. With a length ranging from 0 to 50 characters.
VENDOR
Equipment manufacturer
It is an optional parameter. Type ZTE, by default.
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Parameter Name
Parameter Description
Instruction
STATE
State defined by the user
It is an optional parameter. Select 0, by default.
Location where the equipment is located
It is an optional parameter. Type the location information of the equipment. It is recommended to describe it with letters or digits.
LOC
Example: Create an MSCS end office with the following requirements. �
Office ID: 11
�
Type: MSCS
�
Alias: MSCS11
�
Other parameter: default.
The specific command is as follows. ADD NE:ID=11,TYPE=MSCS,MESUBTYPE=NONE,NAME ="MSCS11",VENDOR="ZTE",STATE=0; END OF STEPS Result
After the command is executed successfully, the MSCS node is added under the root node in the OMM client interface. Meanwhile, the rack is generated, with the rack No. as 1 and the alias as rack 1.
Setting Province and City Information for an Exchange Prerequisites
Before the operation, it is required to confirm: �
The MSCS exchange is added.
�
The MML Terminal window is opened.
Context
Perform this procedure to set the provincial and city codes of the exchange, thus to display the area information in the Element Management System (EMS).
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Set the province and city information of the exchange. The command is SET PCINFO.
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ZXWN MSCS Data Configuration Guide(MSCS)
Table 11 describes the main parameters in the SET PCINFO command. TABLE 11 PARAMETERS IN THE SET PCINFO COMMAND Parameter Name
Parameter Description
PROVINCE
Provincial code
CITY
Municipal code
Instructions It is a mandatory parameter. For displaying area information of the exchange in the EMS.
Example: The exchange is located in Nanjing city of Jiangsu province. The specific command is as follows. SET PCINFO:PROVINCE="320000",CITY="320101"; END OF STEPS
Physical Configuration Overview Introduction Flow diagram
34
This section describes the physical configuration . Figure 13 shows the physical configuration flow.
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FIGURE 13 PHYSICAL CONFIGURATION FLOW
Flow description
The physical configuration contains the following steps. Steps
Operations
Instructions
Command
1
Creating a rack
Create a logic rack on the background OMM system
ADD RACK
2
Creating a shelf
Create a logic shelf on the background OMM system
ADD SHELF
3
Creating a UIM unit
Create the UIM board
ADD UNIT
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ZXWN MSCS Data Configuration Guide(MSCS)
Steps
Operations
Instructions
Command
Creating a module
When MSCS has several modules, it is required to create SMP board for BCTC shelf
ADD MODULE
5
Creating other units
Create other logic boards in the BCTC shelf of MSCS exchange, except for UIM unit
ADD UNIT
6
Creating MSCS background server
Connect the SMP with the billing server
ADD SVRINF
4
Creating a Rack Prerequisites
Before the operation, it is required to confirm: �
The exchange has been added.
�
The MML Terminal window is opened.
Context
Perform this procedure to create a logic rack on the background OMM system. It corresponds to the rack on the foreground. Since the system automatically creates rack 1 during the exchange creation, you need not to create it again. But you need to create other racks manually here.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a rack. The command is ADD RACK. Table 12 describes the parameters in the ADD RACK command. TABLE 12 PARAMETERS IN THE ADD RACK COMMAND Parameter Name
RACK
36
Parameter Description
Rack No.
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Instructions It is a mandatory parameter within 1~15. Rack 1 is generated during creating the exchange. Other racks need to be added by manual. The rack No. begins from 2
Chapter 3 Local Office Data Configuration
Parameter Name
Parameter Description
Instructions
Rack type, includes �
RACKTYPE �
NAME
3G_STANDARD_RACK: ZTE Standard Rack 3G_INTEGRATION_RACK: ZTE Integration Rack
Alias
It is an optional parameter and select according to real situation
It is an optional parameter and consists of 0~50 strings
Example: Create a ZTE standard rack whose rack No. is 2. The command is as follows. ADD RACK:RACK=2,RACKTYPE=3G_STANDARD_RACK,NA ME="RACK2"; Example: Create a ZTE integration rack whose rack No. is 3. The command is as follows. ADD RACK:RACK=3,RACKTYPE=3G_INTEGRATION_RAC K,NAME="RACK2"; END OF STEPS Result
After the command is executed successfully, the rack is created under MGCF11 exchange, and is shown on the Daily Maintenance > Rackchart Management tab.
Creating a Shelf Prerequisites
Context
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The rack is configured under the corresponding exchange.
�
The MML Terminal window is opened.
Perform this procedure to create a logic shelf on the background OMM system. It corresponds to the shelf on the foreground. MSCS only adopts BCTC shelf. One rack can be configured with up to four BCTC shelves.
Note: Shelf 2 of rack 1 must be configured first, and then other shelves are configured. Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured.
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ZXWN MSCS Data Configuration Guide(MSCS)
Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a shelf. The command is ADD SHELF. Table 13 describes the parameters in the ADD SHELF command. TABLE 13 PARAMETERS IN ADD SHELF COMMAND Parameter Name
Parameter Description
Instructions
RACK
Rack No.
It is a mandatory parameter that is within 1~15
SHELF
Shelf No.
It is a mandatory parameter, ranging from 1 to 4. Shelf 2 must be configured first.
TYPE
Shelf type
It is a mandatory parameter. MSCS can only be configured with BCTC shelf (control center shelf)
NAME
Alias
It is an optional parameter, with a length ranging from 0 to 50 characters.
Example: Create a BCTC shelf in rack 1, with the shelf number as 2 and the name as “BCTC”. The specific command is as follows. ADD C";
SHELF:RACK=1,SHELF=2,TYPE=BCTC,NAME="BCT
END OF STEPS Result
After BCTC shelf is created successfully, the OMP module and the RPU module are created at the same time. And numbers of these two modules are 1 and 2. Slots 11 and 12 of the rack display the OMP board.
Creating a UIM Unit Prerequisites
Context
38
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The BCTC shelf is configured in the corresponding rack.
�
The MML Terminal window is opened.
Creating the UIM unit is to create the UIM board. In general, UIM board adopts 1+1 backup mode. It is fixedly inserted into slots 9 and 10 in the BCTC shelf.
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Note: You must first create the UIMC unit in shelf 2 of rack 1, and then create the UIMC units in other BCTC shelves. Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a UIM Unit. The command is ADD UNIT. Table 14 describes the parameters in the ADD UNIT command. TABLE 14 PARAMETERS IN THE ADD UNIT COMMAND Parameter Name
Parameter Description
Instructions It is a mandatory parameter and the format is RACK-SHELF-SLOT.
LOC
�
The rack No. is within 1~15 and the default value is 1. This parameter is defined by the ADD RACK command.
�
The shelf No. is within 1~4. This parameter is defined by the ADD SHELF command.
�
SLOT represents the slot number. In BCTC shelf, the UIM slot number must be 9 and 10
Unit location
MODULE
Module No.
It is a mandatory parameter. Select 1
UNIT
Unit No.It is an optional parameter, ranging from 1 to 2000
It is an optional parameter, ranging from 1 to 2000
Unit type
It is a mandatory parameter. Select it according to the CPU type of the UIMC board, including UIM2_GCS_755 and UIM2_GCS_8260. UIM2_GCS_755 sub-card is mostly used at present.
TYPE
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Parameter Name
Parameter Description
Instructions
BKMODE
Backup mode
It is a mandatory parameter and the backup mode is ONEPLUSONE
NAME
Alias
It is an optional parameter and consists of 0~50 characters.
Example: Create the UIM units with the following requirements. �
Rack No.: 1
�
Shelf No.: 2
�
Slot No.: 9 and 10
�
Unit type: UIM2_GCS_755
�
Backup mode: 1+1 backup
The specific command is as follows. ADD UNIT:LOC="1"-"2"-"9",MODULE=1,UNIT=921,TYPE =UIM2_GCS_755,BKMODE=ONEPLUSONE,CLK1=16383,CL K2=16383;
Note: After the 1+1 backup mode is selected for the UIM board located in slot 9, the system will automatically configure the UIM board located in slot 10. In addition, the unit numbers of left and right slots are consistent. END OF STEPS Result
After the UIM unit is created successfully, the active and standby UIM boards are shown in the corresponding slots of the rack chart.
Creating a Module Prerequisites
40
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The UIM unit is created under the exchange.
�
The MML Terminal window is opened.
Context
When MSCS has several modules, it is required to create SMP board for BCTC shelf. When BCTC has more shelves, SMP and CMP modules should be allocated to each BCTC shelf equally.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured.
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Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a module. The command is ADD MODULE. Table 15 describes the parameters in the ADD MODULE command. TABLE 15 PARAMETERS IN ADD MODULE COMMAND Name
Meaning
Instructions
LOC
Location
It is a mandatory parameter. Its format is RACK-SHELF-SLOT. The range of RACK is within 1~15 and the default value is 1. The shelf No. is within 1~4 and the slot No. is within 1~17.
MODULE
Module No.
It is a mandatory parameter, ranging from 3 to 127. A new module is numbered from 3
FUNC1
Module 1 type
It is a mandatory parameter. Select SMP for a signaling module only, MSCBASECMP for a service module, MSCBASECMP and VMSC/CMP_GO/CMP_MSCe/CMP_VLR/CMP_G_GMSC for the service module of an end office, and LIC/CMP_G_VLR for an interception module.
FUNC2
Module 2 type
It is an optional parameter. If it is left blank, its configuration is the same as that of FUNC1.
CPU type
It is an optional parameter. Two options available, X86 and CENTRINO. Select according to the actual board type.
BKMODE
Backup mode
It is an optional parameter. In general, select ONEPLUSONE (one plus one backup) for a service module, and ONEPLUSONE (one plus one backup) or No (Without backup) for a signaling module, which is determined by the actual configuration.
NAME1
Module 1 user alias
It is an optional parameter and consists of 0~50 characters.
NAME2
Module 2 user alias
It is an optional parameter and consists of 0~50 characters.
CPUTYPE
Example: Create SMP modules with the following requirements. �
Location: Slots 5 and 6 in BCTC shelf 2 of rack 1
�
Module number: 3 and 4
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�
Module type: SMP
�
CPU type: CENTRINO
�
Backup mode: 1+1 backup
�
Module 1 name: SMP3
�
Module 2 name: SMP4.
The specific command is as follows. ADD MODULE:LOC="1"-"2"-"5",MODULE="3"&"4",FUNC1 ="SMP",FUNC2="SMP",CPUTYPE=CENTRINO,BKMODE=ON EPLUSONE,NAME="SMP3",NAME2="SMP4"; Example: Create CMP modules with the following requirements. � �
Location: Slots 7 and 8 in BCTC shelf 2 of rack 1
�
Module number: 5 and 6
�
Module type: CMP
�
CPU type: CENTRINO
�
Backup mode: 1+1 backup
�
Module 1 name: CMP5
�
Module 2 name: CMP6.
The specific command is as follows. ADD MODULE:LOC="1"-"2"-"7",MODULE="5"&"6",FUNC1 ="MSCBASECMP"&"VMSC/CMP_GO/CMP_MSCe/CMP_VLR/CM P_G_GMSC",FUNC2="MSCBASECMP"&"VMSC/CMP_GO/CMP_ MSCe/CMP_VLR/CMP_G_GMSC",CPUTYPE=CENTRINO,BKM ODE=ONEPLUSONE,NAME="CMP5",NAME2="CMP6"; END OF STEPS Result
After the SMP/CMP module is added successfully, its corresponding slot in the rack chart displays the SMP board.
Creating other Units Prerequisites
Context
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The UIM unit is configured.
�
The MML Terminal window is opened.
Perform this procedure to create other logic boards in the BCTC shelf of MSCS exchange, except for UIM unit. Table 16 lists the main boards in MSCS.
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TABLE 16 MSCS BOARD TYPES Board
Board Type
Backup Mode
UIM2_GCS_755 UIMC
1+1 active/standby backup UIM2_GCS_8260 SIPI2_IPSEC
SIPI
No backup or 1+1 active/standby backup
SIPI2_NC SIPI_NC SPB_8260_8260C4
SPB
No backup SPB_8250_85XXC2 USI2_NC
USI
1+1 active/standby backup USI_NC
Steps
CHUB
CHUB
1+1 active/standby backup
CLKG
CLKG
1+1 active/standby backup
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create other units. The command is ADD UNIT. Steps
Operations
1
Creating a CHUB unit
2
Creating a CLKG unit
3
Creating an SIPI unit
4
Creating a USI Unit
5
Creating an SPB unit
END OF STEPS
Creating a CHUB Unit Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The UIM unit is created.
�
The MML Terminal window is opened.
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Context
Perform this procedure to create the CHUB logic board corresponding to that in the foreground BCTC shelf of MSCS exchange.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a CHUB unit. The command is ADD UNIT. Table 17 describes the main parameters in the ADD UNIT command. TABLE 17 PARAMETERS IN THE ADD UNIT COMMAND Parameter Name
Parameter Description
Instructions It is a mandatory parameter, with a format of RACK-SHELF-SLOT
LOC
Location of the unit in the system
�
RACK represents the rack number, ranging from 1 to 15. In general, it is configured as 1
�
SHELF represents the shelf number, ranging from 1 to 4
�
SLOT represents the slot number.
CHUB boards are fixedly inserted into slots 15 and 16 in shelf 2 of rack 1 MODULE
Module number of the unit
It is a mandatory parameter. Select 1
UNIT
Unit number of the board
It is an optional parameter ranging from 1 to 2000
TYPE
Logic unit type of the board
Select CHUB
BKMODE
Backup mode of the unit
1+1 active/standby backup
Example: Create CHUB boards with the following requirements. Location: Slots 15 and 16 of shelf 2 in rack 1 Unit type: CHUB Backup mode: 1+1 active/standby backup Other parameters: default. The specific command is as follows.
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ADD UNIT:LOC="1"-"2"-"15",MODULE=1,UNIT=1521,TY PE=CHUB,BKMODE=ONEPLUSONE,CLK1=16383,CLK2=16 383; END OF STEPS Result
After the unit is added successfully, corresponding slots of the rack chart display these CHUB boards.
Creating a CLKG Unit Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The UIM unit is configured.
�
The MML Terminal window is opened.
Context
Perform this procedure to create the CLKG logic board corresponding to that in the foreground BCTC shelf of MSCS exchange.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a CLKG unit. The command is ADD UNIT. describes the parameters in the ADD UNIT command. Parameter Name
Parameter Description
Instructions It is a mandatory parameter and the format is RACK-SHELF-SLOT.
LOC
�
The rack No. is within 1~15 and the default value is 1. This parameter is defined by the ADD RACK command.
�
The shelf No. is within 1~4. This parameter is defined by the ADD SHELF command.
�
The slot No. is within 1~17.
Unit location
MODULE
Module No.
It is a mandatory parameter. Select the OMP module belonging to CLKG.
UNIT
Unit No.
It is an optional parameter, ranging from 1 to 2000.
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Parameter Name
Parameter Description
Instructions
TYPE
Unit type
It is a mandatory parameter. For CLKG, select CLKG
BKMODE
Backup mode
It is a mandatory parameter and the backup mode is ONEPLUSONE.
NAME
Alias
It is an optional parameter and consists of 0~50 characters.
Example: ments.
Create CLKG boards with the following require-
�
Location: Slots 13 and 14 of shelf 2 in rack 1
�
Unit type: CLKG
�
Backup mode: 1+1 active/standby backup
�
Other parameters: default.
The specific command is as follows. ADD UNIT:LOC="1"-"2"-"13",MODULE=1,UNIT=1321,TY PE=CLKG,BKMODE=ONEPLUSONE,CLK1=16383,CLK2=163 83; 3. After configuring the CLKG unit, configure the CLKG board parameters with the SET CLKETHR command as required. Configure its parameters based on the clock source actually provided. Example: Configure the clock reference of the CLKG board is 8KBase. The command is as follows. SET CLKETHR:CLKBASE=ALLOWED,BASETYPE=8KBase,B ASEINFO="8KBase"; END OF STEPS Result
After the unit is created successfully, corresponding slots of the rack chart display these CLKG boards.
Creating an SIPI Unit Prerequisites
Context
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The UIM unit is added.
�
The MML Terminal window is opened.
Perform this procedure to create the SIPI logic board corresponding to that in the foreground BCTC shelf of MSCS exchange. �
SIPI boards work in load-sharing mode In load-sharing mode, two SIG-IPI boards both serve as active board, and maintain each own associations. The relationship between associations is load-sharing, which means that
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the service transmission is shared evenly by the associations of these two SIG_IPI boards. When the association on one of these two interface boards is interrupted, all the service data will be moved to the association of another interface board that works normally. In this way, the inter-office communication will not be interrupted for this cause. This project is recommended for office commissioning . �
SIPI boards work in active/standby mode . Two SIG_IPI boards serve as mutual backup. In normal conditions, associations are only processed on active board, and backed up only on standby board. The associations on the active board are disconnected when the active board is abnormal or extracted. At this moment, the standby board quickly replaces the active board to connect the associations, thus to restore the normal communication between offices.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create an SIPI unit. The command is ADD UNIT. Table 18 describes the main parameters in the ADD UNIT command. TABLE 18 PARAMETERS IN THE ADD UNIT COMMAND Parameter Name
Parameter Description
Instructions It is a mandatory parameter, with a format of RACK-SHELF-SLOT �
RACK represents the rack number, ranging from 1 to 15. In general, it is configured as 1
�
SHELF represents the shelf number, ranging from 1 to 4
�
SLOT represents the slot number.
Location of the unit in the system
LOC
MODULE
Module number of the unit
It is a mandatory parameter. Select 1
UNT
Unit number of the board
It is an optional parameter. Ranging from 1 to 2000.
TYPE
Logic unit type of the board
Select SIPI_NC
Backup mode of the unit
It supports the NO (Without backup) and ONEPLUSONE (One plus one backup) modes. Select it according to the actual networking mode
BKMODE
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Example: Create SIPI boards with the following requirements. �
Location: Slots 3 and 4 of shelf 2 in rack 1
�
Unit type: SIPI_NC
�
Backup mode: 1+1 active/standby backup
�
Other parameters: default.
The specific command is as follows. ADD UNIT:LOC="1"-"2"-"3",MODULE=1,UNIT=321,TYPE =SIPI_NC,BKMODE=ONEPLUSONE,CLK1=16383,CLK2=16 383; END OF STEPS Result
After the unit is created successfully, corresponding slots of the rack chart display these SIPI boards.
Creating a USI Unit Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The UIM unit is configured.
�
The MML Terminal window is opened.
Context
Perform this procedure to create the USI logic board corresponding to that in the foreground BCTC shelf of MSCS exchange.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a USI unit. The command is ADD UNIT. Table 19 describes the main parameters in the ADD UNIT command. TABLE 19 PARAMETERS IN THE ADD UNIT COMMAND Parameter Name
Parameter Description
Instructions It is a mandatory parameter, with a format of RACK-SHELF-SLOT
LOC
48
�
RACK represents the rack number, ranging from 1 to 15. In general, it is configured as 1
�
SHELF represents the shelf number, ranging from 1 to 4
Location of the unit in the system
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Parameter Name
Parameter Description
Instructions �
SLOT represents the slot number.
MODULE
Module number of the unit
It is a mandatory parameter. Select 1
UNT
Unit number of the board
It is an optional parameter. Ranging from 1 to 2000.
TYPE
Logic unit type of the board
Select USI_NC
BKMODE
Backup mode of the unit
Select ONEPLUSONE
Example: Create SIPI boards with the following requirements. �
Location: Slots 1 and 2 of shelf 2 in rack 1
�
Unit type: USI_NC
�
Backup mode: 1+1 active/standby backup
�
Other parameters: default.
The specific command is as follows. ADD UNIT:LOC="1"-"2"-"1",MODULE=1,UNIT=121,TYPE =USI_NC,BKMODE=ONEPLUSONE,CLK1=16383,CLK2=163 83; END OF STEPS Result
After the unit is created successfully, corresponding slots of the rack chart display these USI boards.
Creating an SPB Unit Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The UIM unit is configured.
�
The MML Terminal window is opened.
Context
Perform this procedure to create the SPB logic board corresponding to that in the foreground BCTC shelf of MSCS exchange. SPB board is created only when the narrowband No.7 signaling is used between MSCS and other offices, such as HLR.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create an SPB unit. The command is ADD UNIT.
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ZXWN MSCS Data Configuration Guide(MSCS)
Table 20 describes the main parameters in the ADD UNIT command. TABLE 20 PARAMETERS IN THE ADD UNIT COMMAND Parameter Name
Parameter Description
Instructions It is a mandatory parameter and the format is RACK-SHELF-SLOT.
LOC
�
The rack No. is within 1~15 and the default value is 1. This parameter is defined by the ADD RACK command.
�
The shelf No. is within 1~4. This parameter is defined by the ADD SHELF command.
�
The slot No. is within 1~17.
Location of the unit in the system
MODULE
Module number of the unit
It is a mandatory parameter. Select 1
UNT
Unit number of the boar
It is an optional parameter. Ranging from 1 to 2000.
TYPE
Logic unit type of the board
Select it according to the CPU type of this SPB board, for example, SPB_8260_8260C4
BKMODE
Backup mode of the unit
Select NO
Example: Create an SPB board with the following requirements. �
Location: Slot 7 of shelf 2 in rack 1
�
Unit type: SPB_8260_8260C4
�
Backup mode: No backup
�
Other parameters: default.
The command is as follows. ADD UNIT:LOC="1"-"2"-"7",MODULE=1,UNIT=721,TYPE =SPB_8260_8260C4,BKMODE=NO,CLK1=16383,CLK2=16 383; Example: Create an SPB board with the following requirements. �
Location: Slot 8 of shelf 2 in rack 1
�
Unit type: SPB_8260_8260C4
�
Backup mode: No backup
�
Other parameters: default.
The command is as follows.
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ADD UNIT:LOC="1"-"2"-"8",MODULE=1,UNIT=821,TYPE =SPB_8260_8260C4,BKMODE=NO,CLK1=16383,CLK2=16 383; END OF STEPS Result
After the unit is created successfully, corresponding slot of the rack chart display the SPB board.
Creating MSCS Background Server Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The corresponding MP module is configured.
�
The MML Terminal window is opened.
Context
Perform this procedure to connect the SMP with the billing server. All SMP units should be mapped to the billing server.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create MSCS background server. The command is ADD SVRI NF. Table 21 describes the main parameters in the ADD SVRINF command. TABLE 21 PARAMETERS IN THE ADD SVRINF COMMAND Parameter Name
Parameter Description
Instructions
MODULE
Module number of foreground MP
It is a mandatory parameter, ranging from 1 to 127, including all the modules except for module 2
CGMODULE
Module number of billing server
It is an optional parameter, ranging from 130 to 135
Example: Create the billing server node 130 corresponding to the foreground SMP module 3. The specific command is as follows. ADD SVRINF: MODULE= 3, CGMODULE= 130; END OF STEPS
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Capacity and Load-Sharing Configuration Overivew Table 22 shows the capacity configuration flow. TABLE 22 CAPACITY AND LOAD-SHARING CONFIGURATION Steps
Operation
Instruction
Command
1
Setting the MSCS office capacity
Set the capacity for each table in the MP module
SET MSCSCAPAC ITY
2
Setting service data area
Normally select the default value for all parameters
SET DATASIZE
3
Creating IMSI load sharing
Select different SMPs to process different number sections
ADD IMSILOAD
Creating TMSI module load sharing
Ccreate the TMSI load sharing when the IMSI load-sharing configuration is completed.
ADD TMSILOAD
4
Setting the MSCS Office Capacity Prerequisites
Context
To perform this operation, the following conditions must be met: �
The ID of the exchange to be configured is known.
�
The physical configuration is completed.
�
The MML Terminal window is opened.
This topic describes how to set the capacity for each table in the MP module. MSCS capacity is configured according to the actual capacity of the equipment, including these parameters such as GCI, LAI, PCM, DNAL, and BSC. In general, these parameters adopt their default value, except in special cases.
Caution: After modifying the capacity for the LAI configuration table or the BSC/RNC configuration table, it is required to restart the network management.
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Steps
1. If the exchange is not specified, it is required to use the command SET in the MML Terminal or select the network element from the system tree in order to specify the exchange to be configured. For example, select MSCS 11 from the system tree. SET:NEID=11; 2. Set the MSCS office capacity with the command SET MSCSC APA. The parameter description of the command SET MSCSCAPAC ITY is shown in Table 23. TABLE 23 PARAMETERS IN THE SET MSCSCAPACITY COMMAND Parameter Name
Parameter Description
Range
GCI
Capacity Of GCI Config Table
1~12000
1280
LAI
Capacity Of LAI Config Table
1~1000
64
AOCFEE
Capacity Of Tariff Config Table
1~1000
128
IROAM
Capacity Of IMSI Analysis Config Table
1~3000
1000
PCM
Capacity Of PCM Table
2000~20 000
2048
BSC
Capacity Of Config Table
1~128
32
MASK
Capacity Of Black/ White List Number
1~80000
2048
NUMLEN
Capacity Of Number Preanalysis
1~20000
1000
CALLDATA
Capacity Of CFG Relationship Table
1~1024
512
CTRLUNT
Capacity Of Access Network Unit
1~128
64
SIPRES
Capacity Of SIP Call Resources
1000~15 000
2500
HRBTMS
Capacity Of Home Ring Back Tone
1~80000
1
SSP
Capacity Of Special Service Phone Group
1~60000
1024
USER
Capacity Of Users Undercontrol
1~80000
4000
TIDTRUNK
Capacity Of TID And Trunk Link
1~1024
512
BSC/RNC
Default
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Parameter Name
Parameter Description
Range
MDNAL
Capacity Of Mobile NumAnalysis Config
1~65535
8192
DNAL
Capacity Of Num-Analysis Config
1~10000 0
8192
MPDFT
Capacity Of Default PerDef Timer(MP)
2000~10 000
2000
MPDEF
Capacity Of Defined PreDef Timer(MP)
2000~15 000
2000
PPDFT
Capacity Of Default PreDef Timer(PP)
2000~10 000
2000
PPDEF
Capacity Of Defined PreDef Timer(PP)
2000~10 000
2000
LIMITMS
Capacity Of Limit Cheating Subscriber
0~60000
0
DNHOME
Capacity Home
1~40000 0
150000
LINK
Capacity Of Link
1920~50 00
1920
GT
Capacity Of GT
20001~5 0000
20000
SPC
Capacity Of SPC
1~2000
2000
VMSC
Capacity Of VMSC Table
16~256
16
SAI
Capacity Of SAI Config Table
1~12000
1280
MGW
Capacity Of MGW
1~128
32
ANANACAPACITY
Capacity Of Announcement User Analyzer
1~65535
1024
Of
Number
Default
For example, set the MSCS office capacity. Select the default value for all parameters. The command is as follows: SET MSCSCAPACITY; END OF STEPS Postrequisite
1. Configure the OMP startup parameters through a serial port. 2. Synchronize the capacity planning table to the foreground. 3. Restart OMP and the realted MP boards. 4. Synchronize all the tables to the foreground again.
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Note: It is required to synchronize the office capacity table to the foreground twice. After the first synchronization, wait 5~10 minutes for the OMP to complete the disk saving, and then restart the OMP. When the OMP starts successfully, it is required to synchronize the capacity tables to the OMP again. After the first synchronization, only the space of the capacity table on the OMP is established, but the table contents are not added. After the second synchronization, the table contents are synchronization.
Setting Service Data Area Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The physical configuration is completed.
�
The MML Terminal window is opened.
Context
Perform this procedure to configure the service data area. Generally, it adopts the default value, except in special cases.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Set the service data area. The command is SET DATASIZE. Table 24 shows the description of main parameters in the SET DATASIZE command. TABLE 24 PARAMETERS IN THE SET DATASIZE COMMAND Parameter Name
Parameter Description
Instruction
CMODEL
One-MSC multi-MGW call model, including AMONLY(Associated Mode Only) and QAMALLOW(Quasi-associated Mode Allowed)
Select QMALLOW when a call needs three MGWs under the MSCS to provide bearers. Otherwise, select AMONLY
Number of BCBM data areas
Configure it as 10 when the MSCS is associated with one MGW to conform a network, or in a full IP networking mode. Configure it as 3600 when the end
BCBMNUM
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Parameter Name
Parameter Description
Instruction office adopts the multi-call model. Configure it as 12400 when the tandem office and gateway office adopt the multi-call model.
DSTCDNUM
Number of destination codes
Type an integer ranging from 1 to 10000, which is associated with the destination-code traffic-statistics in the performance statistics.
CTSTNUM
Maximum number of mixed flow of traffic
Integer numbers ranging from 100 to 11000
CTSTINDEXS IZE
CTST index size (KB)
Integer numbers ranging from 16 to 4096
VMSCNO7 NUM
Number of VMSC/OMP module NO7 call data area
Integer numbers ranging from 2000 to 10000
CMPNO7NUM
Number of CMP module NO7 call data area
Integer numbers ranging from 10000 to 30000
Example: Configure a service data area. The MSCS is associated with an MGW. The number of destination codes is 4096. Other parameters adopt the default value. The specific command is as follows. SET DATASIZE:CMODEL=AMONLY,BCBMNUM=10,DSTCD NUM=4096; END OF STEPS
Creating IMSI Load Sharing Prerequisites
56
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
CMP modules are created.
�
The MML Terminal window is opened.
Context
Creating IMSI load-sharing is used to select different SMPs to process different number sections. It is required to configuring the MSCS end office to make the CMP modules have the VMSCS attributes.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured.
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Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the load-sharing scale of CMP modules. The command is ADD IMSILOAD. Table 25 describes the main parameter description of the ADD IMSILOAD command. TABLE 25 PARAMETERS IN THE ADD IMSILOAD COMMAND Parameter Name
MODULE
Parameter Description
Instruction
Service module number of the SMP processing subscriber services
The CMP module number is already created in the system. The default allocation mode of IMSI is “Continue”. For example, for the number section 0~999, modules 5 will share the number section 0~499, and module 6 will share the number section 500~999
Example: Create the load-sharing for CMP modules 5 and 6. The specific command is as follows. ADD IMSILOAD:MODULE="5"&"6"; END OF STEPS Postrequisite
1. Synchronize the data to the foreground. 2. Restart the related SMP board.
Creating TMSI Load Sharing Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
IMSI load sharing configuration is completed.
�
The MML Terminal window is opened.
Context
Perform this procedure to create the TMSI load sharing when the IMSI load-sharing configuration is completed.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the TMSI load sharing. The command is ADD TMSILO AD.
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Example: Create the TMSI load sharing. The specific command is as follows. ADD TMSILOAD; END OF STEPS Postrequisite
1. Transmit the data to the foreground. 2. Restart the related SMP board.
Version Loading Overview Descriptions
All physical boards need the software to support the running. If the same physical board is loaded with different running software, it will be with different functions. At first, the physical board is not loaded with the software supporting the running, so it is required to load it by manual. The version files of the OMP module are obtained from the OMC server via FTP. For the version files of other boards (including RPU), they are obtained from OMP during the restart. The steps to load the version files are as follows:
58
�
Load the version files that are needed by the board from the configured version file directory to the version database of the OMC server.
�
Add the version files in the version database into the foreground OMP.
�
Add the corresponding records into the database table related to the version files, so the other boards could obtain the version files from OMP according to these records.
�
During restarting the board, compare the existing version files with the old version files on OMP and check whether they are consistent. If they are the same, adopt the old version fiels; otherwise, download the new version files from OMP.
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Configuration Flow
Figure 14 shows the loading flow of a board version files. FIGURE 14 FLOW OF LOADING VERSION FILES
Flow Description Steps
Operations
Instructions
1
Creating the version file directory
Make sure the version number and path of the version files to be loaded.
2
Creating the OMP boot files
Generate the ompcfgX.ini (X is the ID of corresponded exchange) boot file on the OMM server. OMP board loads its version files according to this file.
3
Configuring the OMP startup parameters via serial port
Configures some parameter information for OMP board to communicate with OMM server during startup.
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Steps
Operations
Instructions
Setting global data OMP information
After OMP board is started, the OMP global data should be configured to make sure that the foreground/background IP addresses are in the same network section.
5
Synchronizing all tables
After the data configuration is completed, the configuration data stored on the OMM server are synchronized to the foreground for foreground NEs to get the configuration data from the OMM server.
6
Loading version files
Manually loads the version files required for board running.
4
Creating Version File Directory Prerequisites
Before the operation, it is required to confirm: �
The version file has been prepared.
�
The physical configuration and the capacity configuration are completed.
�
The MML Terminal window is opened.
Context
Perform this procedure to create the version name and version path of the version file to be loaded.
Steps
1. On the NetNumen M30 window, select menus Views > Professional Maintenance to enter the Professional Maintenance window. 2. In the left pane, double-click the exchange node in the Professional Maintenance tree. Select Version Management > Version Maintenance to show the Version Maintenance tab in the right pane, as shown inFigure 15.
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FIGURE 15 VERSION LOADING
3. On the Load Version tab, Click the button on the sub-toolbar to pop up the Config Version Path tab, as shown in Figure 16. FIGURE 16 CONFIGURING VERSION PATH
4. Right-click the list on the Config Version Path tab, and select Create from the short-cut menu. A new blank entry is added on the Config Version Path tab. 5. Double-click the Version filed on the tab, and type the version number (the version number format is V0.00.00.B0, in which, 0 indicates digital and B indicates character), which should be consistent with the version number of the version file.
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6. On the Config Version Path tab, double-click the blank entry in the File Path column. The button appears. 7. Click the button and then the OPEN dialog will pop up. Select the save path for the version file, as shown in Figure 17. FIGURE 17 VERSION FILE PATH
8. After setting the path, it is required to save the setting. On the Config Version Path tab, right click any item and then select the Save button. After the successful saving, the Successfully dialog appears. Click the OK button. END OF STEPS
Creating OMP Boot Files Prerequisites
Context
Before the operation, it is required to confirm: �
Version file directory is created.
�
The MML Terminal window is opened.
To create an OMP boot file is to generate an ompcfgX.ini boot file on the OMC server, of which the “X” is the number of the corresponding exchange. This file contains the file names of CPU and FPGA required for normal running of OMP module. The CPU files and the FPGA files required by OMP are listed inTable 26.
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TABLE 26 VERSION DESCRIPTION OF OMP BOOT FILE OMP CPU Type
Version Type
Version File Name
CPU
MSCS_MPX86_MP_X86_CS_Z_T.BIN
FPGA
MPX86_05_040202_FPGA_105.RBF
CPU
MSCS_MPX86_2_MP_P4_CS_Z_T.BIN
FPGA
MPX862_04_040704_FPGA_109.RBF
MPX86
CENTRINO
Steps
1. On the NetNumen M30 window, select menus Views > Professional Maintenance to enter the Professional Maintenance window. 2. Double-click the exchange node under the Professional Maintenance tree and then select Version Management > Version Maintenance, Load Version tab appears, as shown in Figure 18. FIGURE 18 LOAD VERSION
3. On the Load Version tab, select the version No. from the pull-down list of the Version. 4. On the Load Version tab, press the CTRL key while selecting the CPU file and FPGA file required by the OMP, which are listed in Table 26. Right-click the selected version files, and then select Create OMP Ini File from the shortcut menu, as shown in Figure 19.
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FIGURE 19 CREATING OMP BOOT FILES
5. After the OMP boot file is created successfully, the message area prompts that OMP boot files are created successfully. END OF STEPS
Configuring OMP Running Parameters via Serial Port Prerequisites
Before the operation, it is required to confirm: �
The serial cable has been prepared.
�
The OMP boot file has been created.
�
The hyper-terminal has been installed on the computer.
Context
Perform this procedure to configure some parameters, including OMM address, OMC server address, office ID, FTP user name/password and startup mode. These parameters are required by OMP board to communicate with the OMM server during startup.
Steps
1. Connect one end of RS232 serial cable to serial port of debugging computer, another end to debug port of OMP backboard. 2. On the debugging computer, click Start > Programs > Accessories > Communications > Hyper Terminal in the Windows OS, as shown in Figure 20.
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FIGURE 20 CONNECTION DESCRIPTION
3. After click OK, the following figure pops up. Select the serial port connected to the foreground and then click OK, as shown in Figure 21. FIGURE 21 CONNECT TO DIALOG BOX
4. On the COM1 dialog box, click the Restore Defaults button, and then click OK, as shown in Figure 22
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FIGURE 22 COM1 PROPERTIES
5. After entering the hyper-terminal, if there is no words, restart the OMP board. When the Press any key to stop auto-boot... prompt appears after entering hyper-terminal, press any key instantly to stop automatic booting and then to configure the OMP parameters, as shown in Figure 23. FIGURE 23 PRESS ANY KEY TO STOP AUTO-BOOT
6. If the Boot Password (3GPLAT or 3gplat) appears, as shown in Figure 24, type the password 3gplat and press Enter.
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FIGURE 24 BOOT PASSWORD
7. When the 3GPlat Boot appears, type 1 to select Config MPnet parameters (only for Omp and Cmp), and then press Enter, as shown in Figure 25. FIGURE 25 3GPLAT BOOT
8. Open the Config selection window, type 1 to select Set Omp (or Cmp)’s Omc IP.MAC.Gateway IP, and then press Enter, as shown in Figure 26.
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FIGURE 26 CONFIG SELECTION
9. Enter the OMP’s OMC Ip Address window, and type the IP address 192.168.X.1 in which, the X indicates the office direction ID of the office, and then Press Enter, as shown in Figure 27. FIGURE 27 ENTER OMP’S OMC IP ADDRESS
10. Enter the Enter OMP’s OMC Mac address window, type the hardware address 00.208.208.161.00.X planned by OMP, in which, the X indicates the office ID of the office, as shown in Figure 28. Press Enter.
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FIGURE 28 ENTER OMP’S OMM MAC ADDRESS
11. Enter the Enter OMP’s Gateway Ip address window, type the network gateway IP address of the OMM server, or press Enter to skip this configuration, as shown in Figure 29. FIGURE 29 ENTER OMP’S GATEWAY IP ADDRESS
12. Enter the Enter OMC Server IP Address address window, type the IP address of the OMM server, and press Enter, or press Enter directly to skip this configuration, as shown in Figure 30.
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FIGURE 30 OMC SERVER IP ADDRESS
13. Enter the Config selection window, type 2, and then press Enter, as shown in Figure 31. FIGURE 31 CONFIG SELECTION
14. Enter the Enter OMC IP Address window, type the IP address of the OMM server, and then press Enter, as shown in Figure 32.
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FIGURE 32 OMM IP ADDRESS
15. Enter the Enter OMC FTPSVR User Name window, type the default FTP name uep, and then press Enter. Then the Enter OMC FTPSVR User Password window will pop up, type the default FTP password uep and press Enter, as shown in Figure 33. FIGURE 33 FTP CONFIG
16. Enter the Enter OMC FTPSVR File Path window, press Enter to skip this configuration, and then enter the boot file configuration window. 17. Type the boot file name ompcfgX.ini, in which, the X indicates the office direction ID of this office, then press Enter, as shown in Figure 34.
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FIGURE 34 OMPCFG FILE
18. Enter the Config selection window and type 3, as shown in Figure 35. FIGURE 35 CONFIG SELECTION
19. Enter the Set OMP Boot Type window, type 0 and then press Enter, as shown in Figure 36.
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FIGURE 36 OMP BOOT TYPE
20. Enter the Config selection window and then type 4, as shown in Figure 37. FIGURE 37 CONFIG SELECTION
21. Enter the Enter Bureau No. window, type the office direction ID, and then press Enter, as shown in Figure 38.
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FIGURE 38 BUREAU NO.
22. Enter the Config selection window and then type 5, as shown in Figure 39. FIGURE 39 CONFIG SELECTION
23. Enter the 3GPlat Boot configuration window, type 0 and then press Enter, as shown in Figure 40.
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FIGURE 40 3GPLAT BOOT
END OF STEPS Result
When the OMP starts up automatically, it will download the version file and the FPGA file from the OMM server. The OMP board runs normally, and the RUN indicator on the OMP board flashes slowly.
Setting Global Data OMP Information Prerequisites
Before the operation, it is required to confirm: �
The OMM server and the local maintenance terminal are installed correctly.
�
OMP startup parameters are configured.
�
The MML Terminal window is opened.
Context
After OMP board is started, the OMP global data should be configured to make sure that the foreground/background IP addresses are in the same network section. For example, the IP of the OMM server is 192.4.1.1, and the IP of the foreground is 192.168.79.1. In order to ensure that the IP address of the foreground and that of the background are in the same network section, it is required to set the MASK as 255.0.0.0.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Set the global data OMP information, the command is SET OMP. Table 27 describes the parameters in SET OMP command.
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TABLE 27 PARAMETERS IN THE SET OMP COMMAND Parameter Name
Parameter Description
Instructions
OMPIP
OMP background IP address
It indicates the valid IP address. Enter it according to the actual conditions. The background can access the OMP through this IP address
MASK
OMP background IP mask
Configure the address range of OMP. Types it according to the real condition
GATEWAY
OMP to OMM gateway
If there is no gateway, it can be the sub-network address of OMM SERVER
OMCIP
OMC server sub network
It indicates the valid IP address. Enter it according to the actual conditions
Example: Set the global data OMP information with the following requirements. �
OMP IP address: 192.168.4.1
�
OMP subnet address to the background IP: 255.255.0.0
�
Gateway IP address: 192.168.1.1
�
OMC server IP address: 192.168.79.1
The command is as follows: SET OMP:OMPIP="192.168.4.1",MASK="255.255.0.0",GA TEWAY="192.168.1.1",OMCIP="192.168.79.1",RELINK=Y ES; END OF STEPS
Synchronizing All Tables Prerequisites
Context
76
Before the operation, it is required to confirm: �
The OMM server and the local maintenance terminal are installed correctly.
�
The MML Terminal window is opened.
To synchronize the data is to send the data saved in the OMM server to the foreground so that the foreground network element can obtain the data from the OMM server. Only the admin subscriber can synchronize all the tables.
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Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Synchronize all the tables. The command is SYNA. Table 28 describes the parameters in this command SYNA. TABLE 28 PARAMETERS IN SYNA COMMAND Parameter Name
USERNAME
Parameter Description
Instructions
User Name
It is an optional parameter for designating the name of the user whose data are transferred, with a length ranging from 0 to 50 characters. If it is left blank, the table data of admin's own are transferred. It includes
Transmission type
STYPE
�
CHG (Single User Changed Tables)
�
ALL (All Tables)
�
ALLCHG (All Changed Tables)
It is an optional parameter for designating the module(s) to be transferred. MODULES
Module list
Up to 127 modules can be selected, which is represented by a decimal numeral, and separated with & (for example, MODULES=1&3&4). Empty string indicates all modules. It is an optional parameter, with a default of 600.
TIMEOUT
Response timeout (100ms)
SAVE
Save when completed
It is an optional parameter. Usually the default value YES is selected.
TOSLAVE
Sync to slave when completed
It is an optional parameter. In general, the default value YES is selected.
Adjust this duration according to the actual requirements. Set a longer timeout duration when the data are large, otherwise, timeout failure may occur
Example: To synchronize all the tables with admin user, the command is as follows:
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SYNA:STYPE=ALL,TIMEOUT=600,SAVE=YES,TOSLAVE=Y ES; END OF STEPS Postrequisite
It is required to restart the OMP board.
Note: It is required to resynchronize the data for three times and restart the OMP board for two times. Before the restart, it is required to confirm whether the synchronized table is saved. The save operation may take three to five minutes. Two methods are available. �
Check the disk saving status of the foreground on the OMM client.
�
Check whether the usage ratio of the foreground CPU is about 3% with the GetCpu command.
Checking Operations 1. Select Start > Run, then the Run dialog box will pop up. 2. Type CMD and then press Enter to enter the CMD dialog box. 3. Type telnet 192.168.X.1, in which, the X indicates the office direction ID, and then press Enter. 4. Type the user name zte and the password zte, and then press Enter for two times, as shown in Figure 41. FIGURE 41 USER NAME AND PASSWORD
5. Type SCSSHowMcmInfo to check the status of the board and then press Enter, as shown in Figure 42.
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FIGURE 42 STATUS
The printed status of the board is MASTER and Work, which means that the OMP board runs normally.
Loading Version Files Prerequisites
Context
Before the operation, it is required to confirm: �
All the tables are synchronized.
�
The version files of each board are ready.
�
The foreground and background are correctly connected.
A physical board initially does not load its version files, so you need to add them manually. Table 29 lists the board version files.
TABLE 29 BOARD VERSION FILES Physical Board Type
Logical Board Type
Version Type
Version File Name
Instructions
MPX86
RPU
CPU
MSCS_MPX86_RPU_X86_C S_Z_T.BIN
Version of RPU
file
MPX86
MP
CPU
MSCS_MPX86_MP_X86_CS _Z_T.BIN
Version of SMP
file
MPX86_2
RPU
CPU
MSCS_MPX86_2_RPU_P4_ CS_Z_T.BIN
Version of RPU
file
MPX86_2
MP
CPU
MSCS_MPX86__2MP_P4_C S_Z_T.BIN
Version of SMP
file
UIM_2
UIM
CPU
MSCS_UIM_2_UIM_755_C S_Z_T.BIN
Version file of UIMC
CPU
MSCS_MNIC_SIG_IPI_BEA RM_CS_Z_T.BIN
MNIC
SIPI MICROCODE
UC_MSCSERVER_MNIC_SI G_IPI_CS__T.UOF
Version of SIPI
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Physical Board Type SPB
MNIC
CHUB
CLKG
Logical Board Type SPB
Version Type
Version File Name
CPU
MSCS_SPB_SPB_8260_CS _Z_T.BIN
CPU
MSCS_MNIC_USI_BEARM_ CS_Z_T.BIN
USI
CHUB
-
Steps
Instructions Version of SPB
file
Version of USI
file
MICROCODE
UC_MSCSERVER_MNIC_US I_CS__T.UOF
CPU
MSCS_CHUB_CHUB_8245_ CS_Z_T.BIN
Version file of CHUB
-
It is not required to load the version files
-
1. On the NetNumen(TM) M30 MSCS/MGW window, select Views > Professional Maintenance to enter the Professional Maintenance window. 2. Double-click the exchange under the Profession Maintenance tree in the left pane. Select the Version Management > Version Maintenance node to pop up the Load Version tab in the right pane, as shown in Figure 43. FIGURE 43 VERSION LOADING
3. On the Load Version tab, select the version number from the Version pull-down list. 4. On the Load Version tab, press down the CTRL key, and select all the version files (the version files required by each board are shown in Table 29) required by the foreground board, as shown in Figure 44.
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FIGURE 44 BATCH VERSION LOADING BY DEFAULT
5. Right click the selected version files and select the shortcut menu Batch Load Default Version. The Switch Process window will pop up, which displays the process of the version file (that is the multicast process). END OF STEPS Result
Postrequisite
After the version loading is completed, the board will restart. The board compares its version files, and obtains its required version files. After the version files are loaded, the board is in normal running status. The RUN indicator on the front panel of the board will flash at 1 Hz. It is required to synchronize the data. Verifications 1. Judge whether the board runs normally through the indicators on the panel. Table 30 lists the indicator statuses of each board. TABLE 30 BOARD INDICATOR STATUSES Name
Color
Meanings
Green
RUN indicator
ACT
Green
Active/ standby indicator
ALM
Red
Alarm
RUN
Instruction Flashing at 5 Hz: the board is being powered on. Flashing at 1 Hz: the board is running normally. On: The board is active Off: The board is standby On: The board gives
Remarks When all the indicators on the board are ON, probably the board hardware is faulty, the board data is not configured, or the boot file of the does not
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Name
Color
Meanings
Instruction an alarm.
indicator
Off: The board gives no alarm.
Remarks match the version files.
2. On the Version Query tab, check whether the version file number of the board is correct, thus to verify whether the version files are loaded correctly.
Creating MSCS Tones in Batches Prerequisites
Context
Before the operation, it is required to confirm: �
The tone scripts are loaded.
�
The MML Terminal window is opened.
Perform this procedure to create the tone-related data on the MSCS side in batches, including service tone ID, the conversion of service key to service tone ID, and other tone packet configuration. All the tone packet configurations are created in batches, except interconnection conversion of external service keys that is configured manually with the ADD SVRTRANSKEY command.
Note: Since there are many data to be processed, this process will last for a while. And an alert dialog box pops up. It prompts that the operation is in process. Do not terminate it to avoid the data confusion. This dialog box will automatically disappear when the creation is completed. Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create MSCS tones in batches. STONE.
The command is BADD
Table 31 describes main parameters in the BADD STONE command.
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TABLE 31 PARAMETERS IN THE BADD STONE COMMAND Parameter Name
Parameter Description
Instructions
Voice type, includes �
ALL: all configuration of tone
�
ICP: tone service
�
KD: the relationship between the call type and the KD
�
LANGDES: language description string
�
MSGID: external MSGID, relation to inter service key
�
TONEID: tone ID
�
TONEIN: service key and its relation to tone ID
�
TONEPLAYMT: tone playing method
TYPE
In general, the ALL option is selected, indicating that all the tone types are created in batches.
Example: Create the batch processing of all the MSCS tones. The specific command is as follows. BADD STONE:TYPE=ALL; END OF STEPS
Office Information Configuration Overview Table 32 shows the office information configuration flow.
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TABLE 32 OFFICE INFORMATION CONFIGURATION Steps
1
2
3
4
5
Operations
Instructions
Command
Creating local signaling point
The local SPC configuration includes 14-bit SPC configuration, 24-bit SPC configuration and the upper-layer user configuration of MTP3.
ADD OPC
Creating the local office configuration
Configure some parameters of the local exchange, including the exchange type, signaling point type, MTP3 test code, and other parameters.
ADD LOFC
Creating mobile data of local office
Configure the Country Code (CC), Mobile Country Code (MCC), Mobile Network Code (MNC), National Destination Code (NDC), and supported types
ADD MSCCFG
Creating the Country Code
Create the country code of the country where the equipment is located.
ADD CC
Creating Other MNC of Local Office
When a carrier has several MNCs, other MNCs are created for judging the inter-network roaming.
ADD MNC
Creating a Local Signaling Point Prerequisites
Context
84
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
You know the 14-bit SPC, 24-bit SPC, and the local toll area code.
�
The MML Terminal window is opened.
Signaling Point Code (SPC) is a unique code for identifying each node in the signaling network. The local SPC configuration includes 14-bit SPC configuration, 24-bit SPC configuration and the upper-
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layer user configuration of MTP3. If the multi-SPC networking is adopted, it is required creating multiple local signaling points with different network types. Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the local signaling point. The command is ADD OPC. Table 33 describes the main parameters in the ADD OPC command. TABLE 33 PARAMETERS IN THE ADD OPC COMMAND Parameter Name
Parameter Description
Instruction
NET
The signaling network where the local office runs, which has the same signaling network type of the adjacent office configured later.
It is a mandatory parameter. It ranges from 1 to 255. In general, 1 is selected.
NAME
User-defined alias
It is a mandatory parameter, with a length ranging from 1 to 50 characters.
SPCFMT
Signaling point code format
It is an optional parameter. By default, select TRIPLE_DEC, which is a three-section decimal number in 888/383 format.
OPC14
14-bit SPC of local office, which is provided by the operator
OPC24
APPTYPE
24-bit SPC of local office, which is provided by the operator
Protocols supported by local office
It is configured according to the signaling point planning.
Select the application types of this signaling point, not unrelated subscribers. According to different network types, Select H248 user, BICC user, TUP user, ISUP user, and SCCP user for Mc interface, SCCP user for the signaling point to the BSC, and SCCP user and ALCAP user for the signaling point to the RNC.
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Parameter Name
Parameter Description
Instruction
RC
The toll zone code of the place where the local office is located
It is an optional parameter. Do not add 0 ahead of an area code
PREFIX
Dialing prefix
Toll dialing prefix. It is 0 for China.
Network appearance used in M3UA layer
This field is not used when the local office is interconnected with a TDM office. It is configured as 0. When this signaling point is interconnected with an IP signaling point with the same network type, you need to negotiate this field with the opposite end for consistency.
NETAPP
INFO
TAG
Identification field used to configure whether the network appearance is effective. Three modes can be chosen, including �
NOUSE
�
NETAPP
�
NONETAPP
Other attributes
When NOUSE is chosen, if the NETAPP field is 0, the network appearance is ineffective; if the NETAPP field is not 0, the network appearance is effective. When NETAPP is chosen, the network appearance is effective. When NONETAPP is chosen, the network appearance is ineffective. Configure whether the network corresponding to the office has the ISNI function and translation node.
Example: Create a 24-bit signaling point with the following requirements. �
Direct-associated office: MSCS
�
Signaling point type: 24-bit signaling point
�
SPC: 3.11.1
�
Application type: ISUP, SCCP, BICC, and TUP
�
Alias: NET1
�
Other parameters: default
The specific command is as follows. ADD OPC:NET=1,NAME="NET1",RC="25",SPCFMT=TRIPL E_DEC,OPC24="3.11.1",APPTYPE="BICC"&"ISUP"&"SCCP
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"&"TUP",PREFIX="0",NETAPP=0,INFO=NONETAPP,DMIDX =0; Example: Create a 14-bit signaling point that is interconnected with a radio office through MGW with the following requirements. �
SPC: 1.11.1
�
Application type: SCCP
�
Alias: NET2
�
Other parameters: default
The specific command is as follows. ADD OPC:NET=2,NAME="NET2",RC="25",SPCFMT=TRIPLE _DEC,OPC14="1.11.1",APPTYPE="SCCP",PREFIX="0",NET APP=0,INFO=NONETAPP,DMIDX=0; Example: Create a 14-bit signaling point that is interconnected with MGW through Mc interface with the following requirements. �
SPC: 1.11.2
�
Application type: H.248
�
Alias: NET3
�
Other parameters: default.
The specific command is as follows. ADD OPC:NET=3,NAME="NET3",RC="25",SPCFMT=TRIPLE _DEC,OPC14="1.11.2",APPTYPE="H.248",PREFIX="0",NE TAPP=0,INFO=NONETAPP,DMIDX=0; END OF STEPS
Creating the Local Exchange Prerequisites
Before the operation, it is required to confirm: �
The local signaling point is created.
�
You know the ID of the exchange to be configured.
�
The MML Terminal window is opened.
Context
Perform this procedure to create some parameters of the local exchange, including the exchange type, signaling point type, MTP3 test code, and other parameters.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the basic attributes of the local office. The command is ADD LOFC.
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Table 34 describes the parameters in the ADD LOFC command. TABLE 34 PARAMETERS IN THE ADD LOFC COMMAND Parameter Name
Parameter Description
Instruction
Local office type, including
OFFTYPE
LOCAL (Local Exchange)
�
DOMTOLL (National Toll Exchange)
�
INTTOLL (International Toll Exchange)
�
OA (In One Area)
�
UM (User Telephone)
�
R2NAT (R2 National Exchange)
�
R2INT (R2 International Exchange)
�
MGCF (MGCF Exchange)
It is a mandatory parameter. Several options can be selected. Configure this parameter according to actual type. In general, select Local Exchange and National Toll Exchange for an MSCS end office.
NET
Network type
It is a mandatory parameter for designating the network type ID of the local office. In this case, one network type is configured.
SEQ
Sequence in area
It is a mandatory parameter with a default of 0, ranging from 0 to 255.
Test code
It is an optional character-type parameter with a length not more than 15 characters. This parameter can contain 0~9, *, and #, with a default of 1234
TCODE
88
�
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Parameter Name
Parameter Description
Instruction It is an optional parameter.
SPTYPE
RESTART
Signaling point type, including SEP, STP, and STEP
Signaling point restart
�
If this office serves as a signaling transfer point, select STP
�
If this office only serves as an end office, select SEP
�
If this office serves as an end office and signaling transfer point, select STEP
It is an optional parameter, with a default of YES. The default value indicates that this function is enabled
Languages of the office, including:
LANG
RSTTIME
NAME
�
DEFAULT
�
FRENCH
�
ENGLISH
�
GERMAN
�
RUSSIAN
�
SPAISH
The default value is DEFAULT.
Reset Time(ms)
The restart time when the signaling point used as STP (the unit is ms). It is an integral parameter, ranging from 100 to 59900, the default value is 10000.
Alias
Not more than 50 characters. It is the name customized by a user for easy memory.
Example: Create the local exchange with the following requirements. �
Office type: LOCAL&DOMTOLL
�
Network type No.: 1
�
Signaling point type: SEP
�
Other parameters: Default.
The command is as follows:
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ADD LOFC:OFCTYPE="LOCAL"&"DOMTOLL",NET=1,SEQ =0,TCODE="1234",SPTYPE=SEP,LANG=DEFAULT,RESTAR T=YES,RSTTIME=10000,T19=68,T20=60,T21=64; END OF STEPS
Creating Mobile Data of Local Office Prerequisites
Before the operation, it is required to confirm: �
The number of exchange to be configured is known.
�
The MML Terminal window is opened.
Context
By default, some data are created in the OMM system, including Country Code (CC), Mobile Country Code (MCC), Mobile Network Code (MNC), National Destination Code (NDC), and supported types. Modify the mobile data of local exchange as required.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create local office mobile data as required. The command is ADD MSCCFG. Table 35 describes the main parameters in the ADD MSCCFG command. TABLE 35 PARAMETERS IN THE ADD MSCCFG COMMAND Parameter Name
Parameter Description
Instruction
MSC number
It is a mandatory parameter, with a length ranging from 1 to 16 digits. MSC GT number is uniformly planned by the carrier for distinguishing different MSCs
VLR
VLR number
It is a mandatory parameter, with a length ranging from 0 to 16 digits. VLR GT number is uniformly planned by the carrier for distinguishing different VLRs
CC
Country Code (CC)
It is an optional parameter, with a length ranging from 0 to 4 digits. Type it according to the actual conditions. The country code of China is 86
NDC
National destination code
It is an optional parameter, with a length ranging from 0 to 4 digits. Type it according to the actual conditions.
MSC
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Parameter Name
Parameter Description
Instruction
MCC
Mobile country code
It is an optional parameter, with a length ranging from 0 to 3 digits. Type it according to the actual conditions. The country code of China is 460.
MNC
Mobile network code
It is an optional parameter, with a length ranging from 0 to 3 digits. Type it according to the actual conditions.
OFCTYPE
Local exchange type
It is an optional parameter, including NONE (select none), LV1 (first connection center), LV2 (second connection center), and EO (mobile peer office). Select it according to the actual conditions
SNLEN
Mobile subscriber number length
It is an optional parameter. Type an integer ranging from 3 to 4, with a default of 3
PREINT
International toll prefix
It is an optional parameter, with a length ranging from 0 to 4 digits, with a default of 00
PRENAT
National toll prefix
It is an optional parameter, with a length ranging from 0 to 4 digits, with a default of 0
RC
Area code
It is an optional parameter. Do not add 0 ahead of an area code
TAG
Miscellaneous tag
It is an optional parameter.
NSYIND
NAS synchronization indicator
It is an optional parameter. It ranges from 0 to 255, with a default of 255 (0xff indicates invalidity)
SOURCE
Data source statistics descriptor, including options: SPEECH and UNKNOWN
It is an optional parameter, with a default of SPEECH
RNCRESET
Times of RNC reset
It is an optional parameter. The parameter are integers ranging from 1 to 10, with a default of 3
SUPCAPA
Capabilities Of local office
It is an optional parameter, indicating the supplemental functions supported by the exchange. Options include NONE and IP
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Parameter Name
Parameter Description
Instruction
IPCONNMODE
IP connection mode, including options: IP and SSP
It is an optional parameter, indicating the connection mode between the local MSCS and SCP when the IP playback is conducted
IPDLGVER
CAMEL version between IP and SCP, including options: CAMEL2 , CAMEL3 and CAMEL4
It is an optional parameter. Generally, it is configured as 3
SELFCIC
Local CIC (carrier identification code)
It is an optional parameter. It ranges from 0 to 6, with a default of 0
DEFCIC
Default CIC (carrier identification code)
It is an optional parameter. It ranges from 0 to 6, with a default of 0
Binding carrier PLMN
It is an optional parameter. When the subscriber location update succeeds, MSCS notifies the PLMN number (a peer of MS) through Equivalent PLMNs of the LOCATION UPDATING ACCEPT message. PLMNLIST can have up to five groups of Equivalent PLMNs.
OPERATOR
Carrier of local office
It is an optional parameter. The carrier of local office does not need to be configured in the background system, and it is generated according to MCC and MNC during the transmission.
CODETYPE
Default codec type of local office
It is an optional parameter, including options: G711A64 (ITUT_G711A_64) and G711U64 (ITUT_G711U_64)
SUPPCALLEDPBRT
PRBT support mode of called use
It is an optional parameter. The parameter indicates whether the exchange supports personalized ring back tone (PRBT) and the mode of the support. Options include NO, CALLER1 and CALLER2.
SUPPCALLINGPBRT
PRBT support mode of calling use, including options: NO and YES
It is an optional parameter, with a default of NO
PLMNLIST
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Parameter Name
Parameter Description
Instruction
PBRTPFX
Voice service PRBT prefix
It is an optional parameter, indicating the calling prefix of the PRBT defined by operator and mainly used for connection with the PRBT center.
PLAYCWTONE
Whether to play the warning tone during the call waiting, including options: NO and YES
It is an optional parameter, with a default of NO
IPPFX
IP pre-embeded prefix
It is an optional parameter
OMCPRIOR
Traffic control static data priority, including options: NO and YES
It is an optional parameter, with a default of NO
LOADTYPE
Overload route-selection mode, including options: INLV and NEXTLV
It is an optional parameter, with a default of NEXTLV
MISSCALL
MissCall short message center
It is an optional parameter, indicating the number of MissCall short message center. It is made up of numeric characters with 0~16 digits
IGWPSPSID
Special PSID for packet service(IGW)
It is an optional parameter. It is made up of numeric characters with 0~16 digits
RCSKEY
Remote Control Key(IGW)
It is an optional parameter. It ranges from 0 to 255, with a default of 255
RCMINLEN
Minimum length of code(IGW)
It is an optional parameter. It ranges from 1 to 32, with a default of 1
RCMAXLEN
Maximum length of code(IGW)
It ranges from 1 to 32, with a default of 20
RCTAG
Whether need to press '#' to end, including option NO and YES
It is an optional parameter, with a default of NO
CNID
CNID
It is an optional parameter. It ranges from 0 to 4095, with a default of 0
LICOFCID
Monitor Center Office
It is an optional parameter. It ranges from 0 to 3000, with a default of 0
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94
Parameter Name
Parameter Description
Instruction
NAME
Alias
It is an optional parameter, which is used to describe the local mobile date of MSCS for easy recognition
OSBDAS
OSB analysis selector
It is an optional parameter, indicating the calling prefix of the multimedia PRBT defined by operator and mainly used for connection with the multimedia PRBT center. It is made up of numeric characters with 0~2000 digits
ROAMPLC
Roaming Restriction policy based on subscriber ID, including options: NO, MSISDN and IMSI
It is an optional parameter, with a default of NO
USSDPLC
USSD center routing mode, including options: MSISDN_USSDC and IMSI_USSDC
It is an optional parameter, with a default of MSISDN_USSDC
IFDFTZC
Enabled default ZoneCode, including options: DISABLE and ENABLE
It is an optional parameter, with a default of DISABLE
DFTZC
Default ZoneCode
It is an optional parameter. It is made up of characters with 0~4 digits, with a default of FFFF
RDIPREFIX
RDI prefix
It is an optional parameter. It is made up of characters with 0~16 digits
USRTYPEJUDGE
Judgement of user type, including options: NUMBER and ROAMTYPE
It is an optional parameter, with a default of NUMBER
RELCALLNUM
Rate of TUP/ISUP/BICC releasing successful call relevant to unaccessible DPC(call number per sec.)
The parameter is used to configure the rate of TUP/ISUP/BICC releasing successful call relevant to unaccessible DPC, and it is only effective for the inter-office signaling of TUP/ ISUP/BICC. It is 0 or within a range of 40~500. The default is 0 (not enable the function). For values that
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Chapter 3 Local Office Data Configuration
Parameter Name
Parameter Description
Instruction are not 0, if the office direction recovery is not considered (the call of the office direction is immediately released after the office direction signaling is recovered), the smaller the value is, the slower the release speed is. Thus the subscriber gets a better experience, but the time difference in the calling record and called record becomes larger. For the end office, one is advised to set the value as 100, and the value of the end office should not exceed 200; For the tandem office, the default is 310
Example: Configure the mobile data of local exchange with the following requirements. �
MSC number: 8613903023
�
VLR number: 8613903023
�
Country code: 86
�
Mobile country code: 460
�
Mobile network code: 00
�
Local office type: Mobile peer office
�
�
Miscellaneous tag: "SMS MT"&"SMS MO"&"LOCCIC_NOO UT" Other parameters: default.
The specific command is as follows. ADD MSCCFG:MSC="8613903023",VLR="8613903023",C C="86",NDC="139",MCC="460",MNC="00",OFCTYPE="EO ",SNLEN=3,PREINT="00",RC="25",TAG="SMS MT"&"SMS MO"&"LOCCIC_NOOUT",NSYIND=255,SOURCE=SPEECH,R NCRESET=3,SUPCAPA="NONE",SELFCIC="0",DEFCIC="0 ",DEFNAEA=65535,CODETYPE=G711A64,SUPPCALLEDPB RT=NO,SUPPCALLINGPBRT=NO,PLAYCWTONE=NO,OMC PRIOR=NO,LOADTYPE=NEXTLV,RCSKEY=255,RCMINLEN =1,RCMAXLEN=20,RCTAG=NO,CNID=0,LICOFCID=0,OS BDAS=0,ROAMPLC=NO,USSDPLC=MSISDN_USSDC,IFDFT ZC=DISABLE,DFTZC="FFFF",USRTYPEJUDGE=NUMBER,RE LCALLNUM=0,BICCCS=OFF,FAXDELAY=5,IGNLANOTALL OW=NO,CRD=NO,CMPBSCCODEC=FALSE; END OF STEPS
Creating the Country Code Prerequisites
Before the operation, it is required to confirm:
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�
You know the ID of the exchange to be configured.
�
You know the country code.
�
The MML Terminal window is opened.
Context
Perform this procedure to create the country code of the country where the equipment is located.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the country code. The command is ADD CC. Table 36 describes the main parameters in the ADD CC command. TABLE 36 PARAMETERS IN THE ADD CC COMMAND Parameter Name
Parameter Description
Instruction
CC
Country code
It is a mandatory parameter. Type it according to actual conditions. The country code of China is 86
NAME
Alias
It is an optional parameter, with a length ranging from 1 to 50 characters.
Example: Create the country code of China is 86 with an alias as China. The specific command is as follows. ADD CC:CC="86",NAME="China"; END OF STEPS
Creating other MNC of Local Office Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
You know other MNCs.
�
The MML Terminal window is opened.
Context
When a carrier has several MNCs, other MNCs are created for judging the inter-network roaming.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree.
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SET:NEID=11; 2. Create other MNCs. The command is ADD MNC. Table 37 describes the main parameters in the ADD MNC command. TABLE 37 PARAMETERS IN THE ADD MNC COMMAND Parameter Name
Parameter Description
Instruction
MNC
Mobile network code
It is a mandatory parameter, with a length ranging from 2 to 3 digits. Type it according to actual conditions
NAME
Alias
It is an optional parameter, with a length ranging from 1 to 50 characters
Example: Create the MNC 02 for a carrier. The specific command is as follows. ADD MNC:MNC="02",NAME="46002"; END OF STEPS
VLR Configuration Overview Table 38 shows the VLR configuration flow. TABLE 38 VLR CONFIGURATION FLOW Steps
Operations
Instructions
Command
1
Creating VLR system parameters
Create the VLR system parameters of local office
ADD VLRSYS
2
Creating VLR system capacity
Create the capacity of each VLR table
ADD VLRCAP
3
Creating VLRsupported services
Create the service type supported by the VLR on local office
ADD VLRSRV
4
Creating roaming number prefix
Creating roaming number prefix
ADD MRNPFX
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Steps
5
Operations
Instructions
Command
Creating MSRN load sharing
A VLR module can be configured with an MSRN number section during the MSRN load configuration.
ADD MRNSH
Creating VLR System Parameters Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The MML Terminal window is opened.
Context
Perform this procedure to create the VLR system parameters of local office, including extended type of Mobile Station Roaming Number (MSRN), allocation policies, and dynamic bit length.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the VLR system parameters. The command is ADD VLRSYS. Table 39 describes the main parameters in the ADD VLRSYS command. TABLE 39 PARAMETERS IN THE ADD VLRSYS COMMAND Parameter Name
98
Parameter Description
Instruction
MRNEXTYPE
MSRN extended type
It is an optional parameter, with a default of EXDYNA, when EXMSRN is selected, several roaming number prefixes can be configured, which is usually adopted in the case of large area system or dual-homing system. When EXDYNA is selected, only one roaming number prefix can be configured.
MRNALCTYPE
MSRN allocation policy
It is an optional parameter, with a default of IGN2G3G (Not distinguish 3G or 2G). Select it according to the actual conditions
MRNDYNDIGIT
Dynamic allocation bit (2~6)
It is an optional parameter, ranging from 2 to 6, with a default of 3. It is determined by the roaming number section.
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Parameter Name
Parameter Description
Instruction
MSTMLMT
Time limit for deleting inactive user (hour)
It is an optional parameter, ranging from 0 to 255, with a default of 24
MRNTMLMT
Time limit for deleting roaming data (second)
It is an optional parameter, ranging from 1 to 255, with a default of 90
MHNTMLMT
Time limit for deleting handover (second)
It is an optional parameter, ranging from 1 to 255, with a default of 90
LUTM
Periodic location update time (minute)
It is an optional parameter, ranging from 6 to 15300, with a default of 30
LUPROTECTTM
Location update protection time (minute)
It is an optional parameter, ranging from 1 to 255, with a default of 15
MAXFWD
Maximum times of forwarding
It is an optional parameter, ranging from 1 to 255, with a default of 1
PAGENRCNT
Times of DETACH when PAGE no response
It is an optional parameter, ranging from 1 to 255, with a default of 3
PAGENRTM
Interval after PAGE no response
It is an optional parameter, ranging from 1 to 255, with a default of 2
BUSYLMT
User busy limit (minute)
It is an optional parameter, ranging from 1 to 255, with a default of 5
IDREQ
Send ID Request When Inter MSC LU
It is an optional parameter. Select the option as the case may be
LOCTMSI
TMSI Indicates Local MSCSERVER
It is an optional parameter. Select the option as the case may be
OPCNTPA
Calling times within one PA
It is an optional parameter, ranging from 0 to 2147483647, with a default of 0
TMLMTPA
Time limit within one PA (h)
It is an optional parameter, ranging from 0 to 65534, with a default of 0
MRNINTERRG
Support MSRN over multi-region
It is an optional parameter, ranging from 0 to 1, with a default of 0
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Parameter Name
Parameter Description
Instruction
CMRNMODULE
Module managing common MSRN
It is an optional parameter, ranging from 0 to 127, with a default of 0
RETMSITIME
Restore TMSIallocation time after MP restart (m)
It is an optional parameter, ranging from 5 to 120, with a default of 30
Example: Create the VLR system parameters with the following requirements. � �
� �
MSRN extended type: EXMSRN MSRN allocation policy: IGN2G3G (Not distinguish 3G or 2G) Dynamic allocation bit: 3 Other parameters: adopt the default value first, and then modify them according to the service requirements later.
The specific command is as follows. ADD VLRSYS:MRNEXTYPE=EXMSRN,MRNALCTYPE=IG N2G3G,MRNDYNDIGIT=3,MSTMLMT=24,MRNTMLMT=9 0,MHNTMLMT=90,LUTM=30,LUPROTECTTM=15,MAXFW D=1,PAGENRCNT=3,PAGENRTM=2,BUSYLMT=5,IDREQ =YES,LOCTMSI=ALWAYS0,OPCNTPA=0,TMLMTPA=0,MRN INTERRG=NO,CMRNMODULE=0,RETMSITIME=30; END OF STEPS
Creating VLR System Capacity Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The MML Terminal window is opened.
Context
Perform this procedure to create the capacity of each VLR table, which is planned according to the subscriber capacity supported by hardware configuration.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the VLR system parameters. The command is ADD VLRCAP.
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Table 40 describes the main parameters in the ADD VLRCAP command. TABLE 40 PARAMETERS IN THE ADD VLRCAP COMMAND Parameter Name
Parameter Description
Instruction
TRATAB
Subscriber tracing table
The parameter is used to set the maximum capacity of the subscriber tracing table. It ranges from 50 to 100, with a default of 50
IMEITAB
IMEI tracing table
The parameter is used to set the maximum capacity of the IMEI tracing table. It ranges from 50 to 100, with a default of 50
MRNTAB
Roaming number table
The parameter is used to set the maximum capacity of the roaming number table. It ranges from 900 to 20000, with a default of 900. The field value is limited by the dynamic allocation bit length of MRNDYNDIGIT roaming number in the VLR system. If the dynamic allocation bit length is 3, the parameter ranges from 0 to 999.
MHNTAB
Handover number table
The parameter is used to set the maximum capacity of the handover number table. It ranges from 100 to 1000, with a default of 100.
Percent of interlock CUG table (%)
The parameter is used to set the maximum interlock CUG table supported by the single module. It is a percentage based on the MSTAB user data table. It ranges from 0 to 1000, with a default of 50
Percent of BSG CUG table (%)
The parameter is used to set the maximum BSG CUG table supported by the single module. It is a percentage based on the MSTAB user data table. It is a percentage based on the MSTAB user data table. It ranges from 0 to 800, with a default of 50
Percent of zone code table (%)
The parameter is used to set the maximum zone code table supported by the single module. It is a percentage based on the MSTAB user data table. It is a percentage based on the MSTAB user data table. It ranges from 0 to 100, with a default of 50
ICUGPER
BCUGPER
ZCPER
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Parameter Name
Parameter Description
Instruction
Percent of CAMEL MO info table (%)
The parameter is used to set the maximum CAMEL MO info table supported by the single module. It is a percentage based on the MSTAB user data table. It ranges from 0 to 200, with a default of 120
Percent of CAMEL SS info table (%)
The parameter is used to set the maximum CAMEL SS info table supported by the single module. It is a percentage based on the MSTAB user data table. It ranges from 1 to 100, with a default of 100
TCSIPER
Percent of CAMEL MT info table (%)
The parameter is used to set the maximum CAMEL MT info table supported by the single module. It is a percentage based on the MSTAB user data table. It ranges from 0 to 300, with a default of 100
DCSIPER
Percent of CAMEL dial service info table (%)
The parameter is used to set the maximum CAMEL dial service info table supported by the single module. It is a percentage based on the MSTAB user data table. It ranges from 0 to 1000, with a default of 100
MCSIPER
Percent of CAMEL MM info table (%)
It is a percentage based on the MSTAB user data table. It ranges from 0 to 100, with a default of 100
SMSCSIPER
Percent of CAMEL SMS info table (%)
It is a percentage based on the MSTAB user data table. It ranges from 0 to 100, with a default of 100
LCSPER
Percent of LCS user info table (%)
It is a percentage based on the MSTAB user data table. It is an optional parameter, ranging from 0 to 100, with a default of 20
BSGPER
Percent of basic service group table (%)
It is a percentage based on the MSTAB user data table. It ranges from 0 to 800, with a default of 400
FSAPER
Percent of forwarding address (%)
It is a percentage based on the MSTAB user data table. It ranges from 0 to 800, with a default of 50
ACCESSCD
Percent of ACCESSCODE Table(%)
It is an optional integral parameter. It ranges from 0 to 200, with a default of 0
OCSIPER
SSCSIPER
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Parameter Name
Parameter Description
Instruction
ALS
ALS table
It is an optional integral parameter. It ranges from 0 to 512, with a default of 0
IGWMSTAB
R_IGWMS table capacity
It ranges from 0 to 99999, with a default of 1000. If IGW attribute is not supported, set this parameter to 0
IGWTRATAB
R_IGWTRA table capacity
It ranges from 0 to 99999, with a default of 1000. If IGW attribute is not supported, set this parameter to 0
IGWZCTAB
R_IGWZNCD table capacity
It ranges from 0 to 99999, with a default of 1000. If IGW attribute is not supported, set this parameter to 0
IGWOCSI TAB
R_IGWOCS table capacity
It ranges from 0 to 99999, with a default of 1000. If IGW attribute is not supported, set this parameter to 0
IGWTCSI TAB
R_IGWTCSI table capacity
It ranges from 0 to 99999, with a default of 1000. If IGW attribute is not supported, set this parameter to 0
IGWCUG TAB
R_IGWCUG table capacity
It ranges from 0 to 99999, with a default of 1000. If IGW attribute is not supported, set this parameter to 0
IGWSPCD TAB
R_IGWSPCD table capacity
It ranges from 0 to 99999, with a default of 1000. If IGW attribute is not supported, set this parameter to 0
IGWABBR TAB
R_IGWABBR table capacity
It ranges from 0 to 99999, with a default of 1000. If IGW attribute is not supported, set this parameter to 0
IGWMRN TAB
R_IGWMSRN table capacity
It ranges from 0 to 99999, with a default of 1000. If IGW attribute is not supported, set this parameter to 0
USERBAK
MSC Pool standby user data capacity (ten thousand)
It is optional integral parameter. It ranges from 0 to 160, with a default of 0
Example: VLR system capacity adopts its default configuration. The specific command is as follows. ADD VLRCAP:TRATAB=50,IMEITAB=50,MRNTAB=900,M HNTAB=100,ICUGPER=50,BCUGPER=50,ZCPER=50,OCSI PER=120,SSCSIPER=100,TCSIPER=100,DCSIPER=100,M CSIPER=100,SMSCSIPER=100,LCSPER=20,BSGPER=40
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0,FSAPER=50,ACCESSCD=0,ALS=0,IGWMSTAB=1000,IG WTRATAB=1000,IGWZCTAB=1000,IGWOCSITAB=1000,I GWTCSITAB=1000,IGWCUGTAB=1000,IGWSPCDTAB=1 000,IGWABBRTAB=1000,IGWMRNTAB=1000,USERBAK =0; END OF STEPS Postrequisite
After the table capacity proportion is adjusted, OMP/SMP/CMP must be reset. In this way, the table capacity can be set up again according to the configuration requirements.
Creating VLR-supported Services Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The MML Terminal window is opened.
Context
Perform this procedure to create the service type supported by the VLR on local office
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the VLR-supported services. VLRSRV.
The command is ADD
Table 41 describes the main parameters in the ADD VLRSRV command. TABLE 41 PARAMETERS IN THE ADD VLRSRV COMMAND Parameter Name
Parameter Description
Instruction
ODB service, including �
ALL_CALLOUT (barring of all outgoing calls)
�
INT_CALLOUT (barring of all outgoing international calls)
ODB
104
�
EXP_PLMN_CALLOUT (barring of all outgoing international calls except those directed to the home PLMN country)
�
HRATE_INFO (barring of outgoing
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It is an optional parameter, with a default of ALL
Chapter 3 Local Office Data Configuration
Parameter Name
Parameter Description call of premium rate information services) �
HRATE_ENT( High-Rate Entertainment Restrictions)
�
SPP_SRV (barring of supplementary services)
�
ALL (selecting all)
�
NONE (None)
Instruction
Including
OTHER
�
ACAUTH (Area Code Unauthorized)
�
AOCI (Charging Tip (Message))
�
AOCC (Charging Tip(Fee))
�
CUG (Close User Group)
�
ZONESUBS (Zone Subscription)
�
EMLPP (Enhanced Multi-Level Priority Service)
�
OR (Support Optimal Routing)
�
NAEA (Support Equal Access)
�
ALL (All)
�
NONE (None)
It is an optional parameter, with a default of ALL
Telecom services, including �
TELE (telephone service)
�
EMER_CALL (emergency call)
�
TSMS_MTPP (terminating short message)
�
OSMS_MOPP (originating short message)
�
FAC3 (category-3 fax service)
�
AFAC3 (automatic category-3 fax)
TELESRV
It is an optional parameter, with a default of ALL
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Parameter Name
Parameter Description �
FAC4 (category-4 fax service)
�
VOCG (voice group call)
�
VOCB (voice broadcast)
�
ALL (selecting all)
�
NONE (None)
Instruction
Specify telecom services, including SPECTS
�
TS1~TSF (specified telecom services)
�
ALL (selecting all)
�
NONE (None)
It is an optional parameter, with a default of ALL
Bearer service CDA, including
CDA
�
CDA300
�
CDA1200
�
CDA1200_75
�
CDA2400
�
CDA4800
�
CDA9600
�
ALL
�
NONE (None)
It is an optional parameter, with a default of ALL
Bearer service CDS, including
CDS
�
CDS1200
�
CDS2400
�
CDS4800
�
CDS9600
�
ALL
�
NONE (None)
It is an optional parameter, with a default of ALL
Bearer service PAD, including
PAD
106
�
PAD300
�
PAD1200
�
PAD1200_75
�
PAD2400
�
PAD4800
�
PAD9600
�
ALL
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It is an optional parameter, with a default of ALL
Chapter 3 Local Office Data Configuration
Parameter Name
Parameter Description �
Instruction
NONE (None)
Bearer service PDS, including
PDS
�
PDS2400
�
PDS4800
�
PDS9600
�
ALL
�
NONE (None)
It is an optional parameter, with a default of ALL
Bearer service voice, including SPEECH
SPECBS
�
BS1 ~ BSF
�
ALL
�
NONE (None)
Specify bearer service
It is an optional parameter, with a default of ALL
It is an optional parameter, with a default of ALL
Customized Extended Service, including �
ALS: ALS service
�
ASCAMEL: switching intelligentized service
CUST �
It is an optional parameter
VIRMSRNPBRT: virtual roaming number for PBRT service
Example: Create the VLR support services. The specific command is as follows. ADD VLRSRV:ODB="ALL",OTHER="ALL",TELESRV="ALL ",SPECTS="ALL",CDA="ALL",CDS="ALL",PAD="ALL",PDS ="ALL",SPEECH="ALL",SPECBS="ALL",CCBS=NONE; END OF STEPS
Creating Roaming Number Prefix Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The mobile data of local office are configured.
�
The MML Terminal window is opened.
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Context
When a mobile subscriber is connected as a called party, VLR will allocate a temporary roaming number to this subscriber. Therefore, creating a roaming number prefix is required. If the MRNEXTYPE parameter of VLR is configured as EXDYNA, only one roaming number prefix can be created. A subscriber can be configured with several roaming number prefix only when this parameter is configured as EXMSRN.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a roaming number prefix. The command is ADD MRNP FX. MRNPFX represents the roaming number prefix. The length of a prefix plus dynamic bits is not more than 15 bits. The roaming number prefix is planned in the whole network. It must contain country code, and has no inclusion relation. For example, 861390302 contains 8613903023. Different exchange can be distinguished through roaming number prefix Example: Configure the roaming number prefix 8613903023. The specific command is as follows.
as
ADD MRNPFX: MRNPFX ="8613903023"; END OF STEPS
Creating MSRN Load Sharing Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The roaming prefix is created.
�
The MML Terminal window is opened.
Context
A VLR module can be configured with an MSRN number section during the MSRN load configuration. It is also available to designate a service module allocated with an MSRN number section as a common MSRN resource module by setting VLR system parameters. The MSRN number section of this module can provide MSRN number to all the service modules when they have no MSRN number.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the MSRN load sharing. The command is ADD MRNSH.
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Table 42 describes the main parameters in the ADD MRNSH command. TABLE 42 PARAMETERS IN THE ADD MRNSH COMMAND Parameter Name
Parameter Description
Instruction
MSRN_Head
It is a mandatory parameter, ranging from 1 to 13 numeric characters. Type the roaming number prefix that is configured.
MODULE
VLR module number
It is a mandatory parameter. When the roaming number type is 2G and 3G, select all CMP modules that are configured with IMSI load sharing. When the roaming number type is HON (handover number), select OMP modules.
NUMBEGIN
Start granularity value of an MSRN section
NUMEND
End granularity value of an MSRN section
MRNPFX
IDFLAG
Roaming number type
It is a mandatory parameter. This parameter is used to configure the minimum and maximum value of a roaming number and handover number dynamic bit. A roaming number ranges from 0 to 899, and a hand number ranges from 900 to 999. It is a mandatory parameter. Select 2G (2G subscribers), 3G (3G subscribers) ,HON (handover number), IGW (IGW access) or PBRTRNT (PBRT roaming number) according to the actual conditions.
Example: Create the MSRN load sharing with the following requirements. �
Roaming number prefix 8613903023
�
Roaming number type: 3G
�
MSRN start number: 0
�
MSRN end number: 899
�
Service module number: 5 and 6.
The specific command is as follows. ADD MRNSH:MRNPFX="8613903023",MODULE="5"&"6",N UMBEGIN=0,NUMEND=899,IDFLAG=3G; Example: Create the MSRN load sharing with the following requirements. �
Roaming number prefix 8613903023
�
Roaming number type: HON
�
MSRN start number: 900
�
MSRN end number: 999
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�
Service module number: 1.
The specific command is as follows. ADD MRNSH:MRNPFX="8613903023",MODULE="1",NUM BEGIN=900,NUMEND=999,IDFLAG=HON; END OF STEPS
Virtual MSC Configuration Overview Table 43 shows the VMSC configuration flow. TABLE 43 VIRTUAL MSC CONFIGURATION Steps
Operations
Instructions
Command
1
Creating virtual MSC
Virtual MSC configuration is required when service areas are divided.
ADD VMSC
2
Creating mapping relationship between MRSN prefix and virtual MSC
Create the mapping relationship between MSRN prefix and virtual MSC when service areas are divided.
ADD REGION MAP
Creating Virtual MSC Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The MML Terminal window is opened.
Context
Virtual MSC configuration is required when service areas are divided.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a virtual MSC. The command is ADD VMSC.
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Table 44 describes the main parameters in the ADD VMSC command. TABLE 44 PARAMETERS IN THE ADD VMSC COMMAND Parameter Name
Parameter Description
Instruction
VMSCIDX
Virtual MSC index
It is a mandatory parameter, corresponding to the area ID in the resource management. It ranges from 1 to 65535.
MSC
Virtual MSC number
It is a mandatory parameter. The MSC GT corresponded by this virtual MSC, with a length ranging from 1 to 16 digits.
VLR
Virtual VLR number
It is a mandatory parameter, indicating the MSC GT corresponded by this virtual MSC, with a length ranging from 1 to 16 digits.
AC
Area code
It is an optional parameter, indicating the area code corresponded by this virtual MSC
NAME
Alias
It is a mandatory parameter. It describes this MSC for easy identification.
DMID
Working domain index
It is an optional parameter. It is the working domain ID of this virtual MSC. Configure it as 0 when no working domain is added.
DASTPL
Template of number analysis selector
It is an optional parameter. It is the template of number analysis selector of this virtual MSC. Configure it as 0 when no template is configured.
OSBDAS
Template of OSB analysis selector
It is an optional parameter. It is the template of OSB analysis selector of this virtual MSC. Configure it as 0 when no template is configured.
Example: Create a virtual MSC with the following requirements. �
Virtual MSC index: 2511
�
MSC GT: 8613940100
�
VLR GT: 8613940100
�
Area code: 25
�
User alias: Nanjing
�
Other parameters: default.
The specific command is as follows.
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ADD VMSC:VMSCIDX=2511,MSC="8613940100",VLR="8 613940100",AC="25",NAME="nanjing",DMID=0,DASTPL =0,OSBDAS=0; END OF STEPS
Creating Mapping Relationship between MRSN Prefix and Virtual MSC Prerequisites
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The virtual MSC is created.
�
Roaming number prefix is created.
�
The MML Terminal window is opened.
Context
Perform this procedure to create the mapping relationship between MSRN prefix and virtual MSC when service areas are divided. This is to designate the roaming number section (including handover number) used by specified service area.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the mapping relationship between MSRN and virtual MSC. The command is ADD REGIONMAP. Table 45 describes the main parameters in the ADD REGION MAP command. TABLE 45 PARAMETERS IN THE ADD REGIONMAP COMMAND Parameter Name
Parameter Description
Instructions
MRNPFX
Roaming number prefix
It is a mandatory parameter. Type the roaming number prefix that is configured.
VMSCIDX
Virtual MSC index
It is a mandatory parameter. Select the virtual MSC index corresponding to this roaming number prefix.
Alias
The parameter is used to detailedly describe the relations between roaming number prefix and virtual MSC for identification.
NAME
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Example: Create the mapping relationship between the roaming number prefix “8613940100” and virtual MSC 2511. The command is as follows. ADD REGIONMAP:MRNPFX="8613940100",VMSCIDX=25 11; END OF STEPS
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4
Resource Configuration Table of Contents Resource Planning ........................................................... 115 Configuring Resource Attributes......................................... 115
Resource Planning It is very important to make the overall resource planning in advance no matter whether common networking, region-system networking, or dual-homing networking is adopted. The basic principle of resource allocation is as follows: 1. Do not add unused resources in the resource management system. For example, if it is not required to configure the “SIP called number analysis selector”, do not configure the corresponding resources. 2. Allocate the required resources on a basis of sections to avoid too separate resource allocation. For example, when the “Office ID” resource is allocated to 5 areas, each area is allocated with 100*N adjacent office IDs. Each section has 100 adjacent office IDs, and N can be different in different areas. 3. Add moderate surpluses for required resources, and do not use up them. For example, if the “Office ID” resource is allocated to 5 areas, do not allocate all 2048 adjacent office IDs, except that each area really has 400 adjacent offices to be configured. If the “Office ID” resource in one area is insufficient after a period of time, separately allocate one section of (100) adjacent office IDs to this area.
Configuring Resource Attributes Prerequisites
Before the operation, it is required to confirm:
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Context
�
The overall resource planning is made.
�
The MML Terminal window is opened.
The MSCS has authority-division and area-division function, so it is required to allocate different resource attributes for different areas before configuring the data. If the area is not divided, all the resource attributes can be configured in the common area. Table 46 lists the resource types, key fields and value ranges in the MSCS resource management system. TABLE 46 RESOURCE TYPES, KEY FIELDS AND VALUE RANGES OF THE MGCF Configuration Items
Resource Types
Key Fields
Minimum
Maximum
Office data configuration
Adjacent office
Office ID
1
3000
Signaling linkset
Link set No.
1
1024
Signaling route
Signaling route No.
1
2000
SCTP
SCTP ID
1
2048
ASP
ASP ID
1
2048
AS
AS ID
1
640
M3UA static route
M3UA static route ID
1
640
Node Topology Config
Topology node ID.
1
2048
Voice Codec Template
Template ID
1
255
Trunk group
Trunk group number
1
4000
Outgoing route
Route No.
1
20000
Outgoing route set
Route set No.
1
3000
Outgoing route chain
Route chain ID
1
3000
Chain analysis
Chain analysis index
1
3000
Protocol configuration
Topology configuration
Trunk routing configuration
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Chapter 4 Resource Configuration
Configuration Items
Number analysis
Access configuration
Service configuration
Steps
Resource Types
Key Fields
Minimum
Maximum
Automatic Re-routing Route Set
Re-routing route set
1
1000
Number Pre-analysis Selector
Number Preanalysis Selector
1
1000
Number Analysis Entrance
Number Analysis Entrance
1
1000
Number Analysis Selector
Number Analysis Selector
1
4096
Template of Number Analysis Selector
Template of Number Analysis Selector
1
65535
Number Transform Index
Number Transform Index
1
2048
Black White List Selector
Black White List Selector
1
1000
SIP Called Number Analysis Selector
Selector
1
1000
Location Area
Location Area ID
1
65534
Emergency Call Center Index
Emergency call center index
1
255
Welcome Messages
Welcome Message Code
1
128
Camel Access Subscription Information
Camel Information Index Number
1
255
1. On the NetNumen (TM) M30 window, select menus Views > Resource Management, and the Resource Management window appears, as shown in Figure 45 .
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FIGURE 45 AREA TREE
2. In Area Tree, right click the area where resources need to be added under the MSCS. Click the shortcut menu Add resource, as shown in Figure 46. FIGURE 46 ADDING RESOURCES
3. The Add Resource dialog box appears, as shown in Figure 47. The parameter description is shown in Table 46.
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Chapter 4 Resource Configuration
FIGURE 47 RESOURCE ADDING DIALOG BOX
4. Select the resource type to be added from the field Resource Type drop-down list box, and input the corresponding parameters. Click the Add button, and the added resource is displayed in the resource list. 5. After all kinds of required resource types are configured, click the Confirm button to exit the resource configuration. END OF STEPS
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Chapter
5
MSCS-MGW Interconnection Data Configuration Table of Contents Overview........................................................................ 121 Interface Address Configuration......................................... 123 BFD Configuration (optional) ............................................. 126 Creating a Static Route .................................................... 129 Adjacent Office and Topology Configuration ......................... 131 SIGTRAN Configuration .................................................... 145 H.248 Configuration......................................................... 158
Overview Description
Mc interface is the interface between MSCS and MGW. It usually adopts the IP bearer, and its protocol stack adopts the BICC/M3UA/SCTP/IP mode.
Configuration Flow
Figure 48 shows the flow of configuring the interconnection data between MSCS and MGW.
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FIGURE 48 FLOW OF MSCS-MGW INTERCONNECTION CONFIGURATION
Description
The flow of MSCS-MGW Interconnection data is shown in Table 47. TABLE 47 FLOW DESCRIPTION
122
Steps
Operations
Procedures
1
Interface IP address configuration
According to the IP address planning , configure the loopback interface address, SIPI interface address, and USI interface address.
2
BFD configuration (optional)
BFD parameters are configured when load-sharing networking mode is adopted. BFD is not required for active/standby networking mode.
3
Creating static route
It is configured when the service IP address of local signaling plane and
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Chapter 5 MSCS-MGW Interconnection Data Configuration
Steps
Operations
Procedures PE interface address are not in the same network section .
4
Adjacent office and topology configuration
It is to create adjacent office and topological node .
5
SIGTRAN configuration
It is configured when IP bearer is adopted.
6
H.248 configuration
It is only configured for Mc interface.
Interface Address Configuration Overview Introduction
Interface IP addresses are planned according to the actual networking applications. The IP address of Nc, Iu-CS and other interfaces can be configuration independently, or share with the Mc interface address.
Creating a Loopback Interface Prerequisites
Before the operation, it is required to confirm: �
The RPU module configuration is completed, and the RPU works normally.
�
The MML Terminal window is opened.
Context
Creating the loopback interface means creating the service address on the RPU loopback port. Since the service address of Mc interface can use ports 1 and 2, it is recommended that each port is configured with one IP address.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the RPU loop back interface. The command is INTERF ACE LOOPBACK. Port represents the port number, ranging from 1 to 128. Example: Create the loop-back interface whose port number is 1. The command is as follows.
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INTERFACE LOOPBACK:PORT=1; 3. Create the interface address. The command is ADD IP ADDR ESS. Table 48 describes the main parameters in the ADD IP ADDRESS command. TABLE 48 PARAMETERS IN THE ADD IP ADDRESS COMMAND Parameter Name
Parameter Description
Instruction
ADDRESS
IP address
It is a mandatory parameter. The IP address of the loop-back address.
MASK
Mask
It is a mandatory parameter of 32-bit. In general, it is 255.255.255.255.
BROADCASTIP
Broadcast IP address
It is an optional parameter. In general, it is 255.255.255.255.
Example: Create a loop back address with the following requirements. �
IP address: 192.168.11.11
�
Subnet mask: 255.255.255.255.
The command is as follows. ADD IP ADDRESS:ADDRESS="192.168.11.11",MASK="255 .255.255.255",BROADCASTIP="255.255.255.255"; 4. Save the online configured data. Otherwise, these will loss when the RPU is restarted.The command is SAVE ONLINEDA TA;. 5. Exit the interface configuration mode. The command is EXIT; END OF STEPS
Creating an SIPI Interface Address Prerequisites
Before the operation, it is required to confirm: �
The SIPI unit is created.
�
The MML Terminal window is opened.
Context
MSCS is interconnected to MGW on the CE through its SIPI board. The online configuration of SIPI board interface is to assign an IP address to some physical port of this SIPI board.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree.
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SET:NEID=11; 2. Enter the SIPI board interface configuration mode. The command is INTERFACE. Table 49 describes the main parameters in the INTERFACE command. TABLE 49 INTERFACE REAL INTERFACE Parameter Name
Parameter Description
Instruction
SUBSYSTEM
Subsystem ID
It is a mandatory parameter. Select the default value 0.
MODULE
Module No.
It is a mandatory parameter. Select the default value 1.
UNIT
Unit No.
It is a mandatory parameter. It is the unit number of the real interface. Select the unit number of the board corresponded by the interface.
SUNIT
Subunit No
It is a mandatory parameter. Real interface’s sub-unit number fixedly adopts 1.
Port number
It is a mandatory parameter. The port number refers to the network interface serial number of the SIPI rear board for connecting to the external. The four network interfaces are numbered 1 to 4 from top to bottom. Only the first port is used.
PORT
Example: Create the interface address of SIPI board. The configuration requirements are as follows. �
Unit number: 321
�
Sub-unit number: 1
�
Port number: 1
�
Home module number: No.1 OMP module.
The command is as follows. INTERFACE:SUBSYSTEM=0,MODULE=1,UNIT=321,SUNI T=1,PORT=1; 3. Create the interface address of the SIPI. The command is ADD IP ADDRESS. Table 50 describes the main parameters in the ADD IP ADDR ESS command.
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TABLE 50 ADD IP ADDRESS REAL INTERFACE Parameter Name
Parameter Description
Instruction
ADDRESS
IP address
It is a mandatory parameter. The Mc interface address of SIPI board
MASK
Subnet mask
It is a mandatory parameter. The real interface subnet address of corresponding interface board
BROADCASTIP
Broadcast IP address
It is an optional parameter, corresponding to the broadcast address of the real address of the corresponding interface board.
Example: The configured parameters are as follows. �
IP address: 192.168.1.11
�
Subnet mask: 255.255.255.248
�
Broadcast address: 255.255.255.255.
The command is as follows. ADD IP ADDRESS:ADDRESS="192.168.1.11",MASK="255. 255.255.248",BROADCASTIP="255.255.255.255"; 4. Save the online configured data. Otherwise, these will loss when the RPU is restarted.The command is SAVE ONLINEDA TA;. 5. Exit the interface configuration mode. The command is EXIT; END OF STEPS
BFD Configuration (optional) Overview
126
Definition
Bidirectional Forwarding Detection (BFD) can greatly accelerate the fault detection speed and enhance the recovery function. Currently, BFD function is mainly used to quickly detect the link status of soft-switching equipment. It can not only find the link fault quickly, but also inform the equipment that initiates this detection to handle this fault.
BFD Function Configuration
In general, BFD function is configured in the load-sharing networking mode. One interface is configured with a BFD session.
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Steps
1
2
Operation
Instruction
Command
Creating a BFD authentication
The BFD authentication entry is configured only when the authentication to the BFD session is required.
ADD BFD AUTH
Creatinga BFD session
Create the mapping relationship between the real address of the local SIPI interface board and the router interface.
ADD BFD SESSION
Creating a BFD Authentication Entry Prerequisites
Before the operation, it is required to confirm: The MML Terminal window is opened.
Context
The BFD authentication entry is configured only when the authentication to the BFD session is required.
Note: Authentication type and Key of both ends must be consistent. Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create BFD authentication. The command is ADD BFD AUTH. Table 51 describes the parameters in the ADD BFD AUTH command. TABLE 51 PARAMETERS IN THE ADD BFD AUTH COMMAND Parameter Name
Parameter Description
Instruction
AUTHTYPE
Authentication type
It is a mandatory parameter including SIMPLE, MD5, METIC_MD5, SHA1, and METIC_SHA
AUTHKEYID
Authentication ID
It is a mandatory parameter. Type an integer within 1~255.
KEY
KEY
It is a mandatory parameter. Enter it according to different authentication types.
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Example: Create BFD authentication with the following requirements. �
Authentication type: SIMPLE
�
Authentication ID: 1
�
KEY: 1.
The command is as follows: ADD BFD AUTH:AUTHTYPE=SIMPLE,AUTHKEYID=1,KEY ="1"; END OF STEPS
Creating a BFD Session Prerequisites
Before the operation, it is required to confirm: The MML Terminal window is opened.
Context
Perform this procedure to create the mapping relationship between the real address of the local SIPI interface board and the router interface.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create BFD session. The command is ADD BFD SESSION. Table 52 describes the parameters in the ADD BFD SESSION command. TABLE 52 PARAMETERS IN THE ADD BFD SESSION COMMAND
128
Parameter Name
Parameter Description
Instruction
SRCIP
Local address of BFD session
It is a mandatory parameter. Types the interface address of SIPI.
DSTIP
Remote address of BFD session
It is a mandatory parameter. Types the address of the corresponding router
MULTIHOP
Multi hop flag
It is a mandatory parameter. Includes SINGLE_HOP and MULTIHOP. In general, select SINGLE_HOP
DESMINT-
Min-transmit
It is an optional parameter,
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Parameter Name
Parameter Description
Instruction ranging from 100000 to 10000000.
XINTVAL
interval (ms)
REQMINRXINTVAL
Min-receive interval (ms)
DETECTMULT
Detect accumulator
The router produced by different manufacturers is configured with different values. Both ends of the BFD session should be consistent. It is an optional parameter. Type an integer ranging from 2 to 255. The recommended value is 2
OPTMODE
Work mode
It is an optional parameter. Select ASYNCHRONOUS
AUTHID
Authentication ID
The parameter ranges from 1 to 255
CHGOVER
Change Over
YES can be selected
Example: Create the BFD session when SIPI interface board is connected with the router. The requirements are as follows. �
Local address of BFD session: 10.0.74.4
�
Remote address of BFD session: 10.0.74.1
�
Single hop flag: SINGLE_HOP
�
Working mode: Asynchronous.
The command is as follows: ADD BFD SESSION:SRCIP="10.0.74.4",DSTIP="10.0.74.1 ",MULTIHOP=SINGLE_HOP,DESMINTXINTVAL=100000,R EQMINRXINTVAL=100000,DETECTMULT=3,OPTMODE=A SYNCHRONOUS; END OF STEPS
Creating a Static Route Prerequisites
Context
Before the operation, it is required to confirm: �
The interface address is created.
�
The BFD parameters are created when load-sharing networking mode is adopted.
�
The MML Terminal window is opened.
Static route is created when the service IP address of local signaling plane and PE interface address are not in the same net-
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work section. Under the active/standby working mode, a destination address needs to be configured with a route only. Under the load-sharing working mode, a destination address usually needs to be configured with two routes. Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the static route. The command is ADD IP ROUTE. Table 53 describes the parameters in the ADD IP ROUTE command. TABLE 53 PARAMETERS IN THE ADD IP ROUTE COMMAND Parameter Name
Parameter Description
NETPRE
Net prefix
MASK
Mask
Instruction
It is a mandatory parameter. Type the network section of the opposite-end equipment service address according to the network planning. Its prefix should match its mask
NEXTHOP
Next hop IP
It is an optional parameter, indicating the router interface address (VRRP address). Type the gateway address to the opposite end office
DISTANCE
Distance
It is an optional parameter with a default of 1, ranging from 1 to 254
Enable BFD Detect
It is an optional parameter. In general, select NO. The setting Enable BFD Detect is effective only when IP address acts as the next hop.
BFDDETECT
Example: Create the static route to the opposite end with the following requirements. �
Working mode: active/standby mode
�
Service address of the opposite equipment: 11.11.11.11
�
Mask: 255.255.255.0
�
Next hop IP: 10.0.74.1.
The command is as follows: ADD IP ROUTE:NETPRE="11.11.11.11",MASK="255.255. 255.0",NEXTHOP="10.0.74.1",DISTANCE=1,BFDDETECT =NO; Example: Create two static routes to the opposite end with the following requirements.
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�
Working mode: load-sharing mode
�
Service address of the opposite equipment: 11.11.11.11
�
Mask: 255.255.255.0
�
Next hop IP: 10.0.74.1 and 10.0.74.2.
The command is as follows: ADD IP ROUTE:NETPRE="11.11.11.11",MASK="255.255. 255.0",NEXTHOP="10.0.74.1",DISTANCE=1,BFDDETECT =NO; ADD IP ROUTE:NETPRE="11.11.11.11",MASK="255.255. 255.0",NEXTHOP="10.0.74.2",DISTANCE=1,BFDDETECT =NO; END OF STEPS
Adjacent Office and Topology Configuration Overview Introduction
Adjacent office configuration means configuring the neighboring office of the local office. There are two association modes, direct association and quasi-association. If the adjacent office is regarded as a node in the whole network topology when the local office is in the center, topological node configuration means adding the topological node of its adjacent office in the local office. The topological nodes configured on MSCS include MGW, RNC/BSC, and MSCS (Nc).
Configuration Flow
Steps
Operations
Instructions
Command
1
Creating an MGW adjacent office
Create the basic information of MGW adjacent office.
ADD ADJOFC
2
Creating an MGW voice CODEC template
Create the encoding and decoding speech type modules supported by IM-MGW.
ADD CODECTPL
3
Creating a topology node
Create the topology relationship between MGCF node and IM-MGW node.
ADD TOPO
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Steps
4
Operations
Instructions
Command
Creating interMGW bear mode (optional)
The inter-MGW bearer mode is configured when the Nb interfaces between several IM-MGWs under the same MGCF are connected.
ADD MGWBEAR MOD
Creating an MGW Adjacent Office Prerequisites
Before the operation, it is required to confirm: �
The physical IP connection between the MSCS and the MGW is clear, which is implemented by the connection between the FE1 interfaces on the rear board of the SIPI boards of these two NEs.
�
The signaling interworking data is planned and negotiated.
�
The basic configuration of the local office is completed.
�
The range of adjacent office number is configured in the resource management.
�
The MML Terminal window is opened.
Context
Perform this procedure to configure the basic information of MGW adjacent office. On the MSCS, each MGW is configured with three adjacent offices according to the SCTP Planning.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the MGW adjacent office. The command is ADD ADJO FC. Table 54 describes the main parameters in the ADD ADJOFC command. TABLE 54 PARAMETERS IN THE ADD ADJOFC COMMAND Parameter Name
ID
132
Parameter Description
Instruction
Office ID
A mandatory parameter, indicating the identification number of the adjacent office, and ranging from 1 to 3000. In general, it is configured as the exchange ID of the adjacent office during the all-network planning
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Parameter Name
Parameter Description
Instruction
NAME
User-defined alias
It is a mandatory parameter. Type a customized name.
NET
Network type
A mandatory parameter, indicating the network type of the SPC used for connecting the local office to the adjacent office when the local office is configured with several SPs. The default is the network type of this SP when there is only one SP in the local office
OFCTYPE
The type of adjacent office
It is a mandatory parameter. Select MGW for the MGW bearing H248 signaling. Select SGW for another two MGW offices.
SPCFMT
SPC format
Select TRIPLE_DEC.
SPCTYPE
SPC type
DPC
Destination SPC
RC
Area code
It is a mandatory parameter. Select it based on the SPC type of the adjacent office according to the signaling point planning. In China, all the NEs adopt the 24-bit SPC except the BSC that adopts the 14-bit SPC. It is an optional parameter, indicating the local toll zone code of the adjacent office. This parameter has impact on the area code added by the calling number
Association type, including:
ASSOTYPE
SPTYPE
�
AM_SURE (direct connection mode)
�
AM_QUASI (half direct connection mode)
�
AM_NONE (none connection mode).
Signaling point type, including SEP, STP, and STEP
It is an optional parameter. Select AM_SURE
It is an optional parameter. Select SEP (signaling end point) for the MGW bearing H248 signaling. Select STEP (signaling transition / end point) for another two MGW offices
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Parameter Name
Parameter Description
Instruction
Subservice function, including �
INTERNATIONAL (International signaling point code)
�
INTERNATIONAL STANDBY (International standby signaling point code)
SSF �
NATIONAL (National signaling point code)
�
NATIONAL STANDBY (National standby signaling point code).
It is an optional parameter. In general, NATIONAL is selected at home. For the BSC adjacent office, NATIONAL STANDBY is selected.
Office Attribute, including: TAG
ISNI (Has ISNI Function) TRANS (Translate Node)
It is an optional parameter
TEST (Need Test Info:0X02/0X01)
TEST
Test flag
It is an optional parameter. It is used to set whether the MTP3 link actively initiates the link test after entering the service status. In most cases, this parameter is selected. It is an optional parameter with a default of NO. It is used for SCCP to judge whether to use the LUDT message.
BANDFLAG
Broadband attribute
The maximum length of a broadband link message is 4,000, and that of a narrowband link message is 255. Because the MTP layer does not have the segmentation function, the incorrect configuration of this parameter probably causes the long packet to be discarded. Select this parameter when all the links between two SPs are SIGTRAN or ATM signaling links.
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Parameter Name
Parameter Description Protocol Type, including:
PRTCTYPE
CLST
�
CHINA (China)
�
ITU (International Telecommunications Union)
�
ANSI (American National Standards Institute)
Cluster ID
Instruction It is an optional parameter. The CHINA and the ITU are used for the NO.7 signaling networking of the ITU standard and the ANSI is used for the NO.7 signaling networking of the American standard. In general, select CHINA for the domestic office and select ITU for the international office It is an optional parameter within 0~65535. In general, select the default value 65535. It is valid when the protocol type of the adjacent office is “ANSI”. The signaling point connected to the signaling transfer point belongs to the corresponding cluster
Office Info, including: �
CIC_PCM (CIC starts the load sharing according to the PCM code mode)
�
BLOCK (Manual block status)
�
EVEN_CIC (The office controls the even CIC when CIC resource contention occurs)
INFO �
CALLING(Calling transform is allowed)
�
CALLED (Called transform is allowed)
�
MOD24_CIC (CIC mode with 24 mode)
�
TEST (Dynamic test)
It is an optional parameter and the default value is CIC_PCM
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Parameter Name
Parameter Description
Instruction
RELATEDOFC1
Related Office ID
It is an optional parameter ranging from 0 to 3000
Office Extend Info, including: �
SIGBRDCST (Support Signaling Broadcast Message)
�
MTP (Hongkong MTP Standard)
�
DUPU ( Screen DUPU message)
�
SUA_REC_DT1 (Receive SUA message and handle it as DT1 message)
INFOEX
�
SUA_SND_DT1 (Send SUA message and handle it as DT1 message without SN.)
�
OPEN_TG_RES (Open outter trunk group resource)
It is an optional parameter
For example, create MGW adjacent office. The office ID is 101, the alias is MGW1, and the destination SPC is 1.31.2. For other parameters, adopt the default value. The command is as follows: ADD ADJOFC:ID=101,NAME="MGW1",NET=3,OFCTYPE =MGW,SPCFMT=TRIPLE_DEC,SPCTYPE=14,DPC="1.31.2 ",RC="25",ASSOTYPE=AM_SURE,SPTYPE=SEP,SSF=NATIO NAL STANDBY,SUBPROTTYPE=DEFAULT,TEST=YES,BAND FLAG=YES,PRTCTYPE=CHINA,CLST=65535,INFO="CIC_P CM",RELATEDOFC1=0; END OF STEPS
Creating an MGW Voice CODEC Template Prerequisites
136
Before the operation, it is required to confirm: �
The basic configuration of the local office is completed.
�
The range of the MGW voice CODEC template numbers is configured in the resource management configuration.
�
The MML Terminal window is opened.
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Chapter 5 MSCS-MGW Interconnection Data Configuration
Context
Perform this procedure to create the encoding and decoding speech type modules supported by MGW. In general, MSCS is configured with a default common voice CODEC template.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the MGW voice CODEC template. The command is ADD CODECTPL. Table 55 describes the main parameters in the ADD CODEC TPL command. TABLE 55 PARAMETERS IN THE ADD CODECTPL COMMAND Parameter Name
Parameter Description
Instruction
ID
Template number
It is a mandatory parameter for defining an encoding and decoding speech template, ranging from 1 to 255.
GRPID
The group number of the speech coding.
It is a mandatory parameter for specifying the OID format and encoding and decoding type list. Up to eight types can be defined in an encoding and decoding template.
VALFG
Valid option, including YES (valid) and NO (invalid)
It is a mandatory parameter for setting whether this encoding and decoding speech template is valid. Select YES It is a mandatory parameter for specify an Organization Identifier (OID). It has the following parameters.
OID
OID
�
OID_NONE: No OID
�
OID_ITU_T: ITU_T
�
OID_ETSI: ETSI
�
OID_IETF: IETF
ITYPE
ITU_T CODEC type.
It is an optional parameter. In general, ITUT_G711A_64 is selected.
ETYPE
ETSI CODEC type
It is an optional parameter. In general, ETSI_UMTS_AMR and ETSI_UMTS_AMR_2 are selected.
ACTRATE
Activated CODEC rate
It is an optional parameter. In general, the default value is selected
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Parameter Name
Parameter Description
Instruction
SUPRATE
Supported CODEC rate
It is an optional parameter. In general, the default value is selected
OM
ACS optimized mode
It is an optional parameter. In general, the default value is selected
Example: Configure an MGW encoding and decoding speech template with the following requirements. �
Template ID: 1
�
CODEC group number: 1
�
Valid option: YES
�
OID: ETSI
�
ETSI CODEC type: ETSI_UMTS_AMR2
�
Activated CODEC rate: 5.90 K and 6.70 K
�
Supported CODEC rate: 5.90 K and 6.70 K
�
ACS optimize mode: Yes.
ADD CODECTPL:ID=1,GRPID=GRPID1,VALFG=YES,OID =OID_ETSI,ETYPE=ETSI_UMTS_AMR_2,ACTRATE="Rate59 0"&"Rate670",SUPRATE="Rate590"&"Rate670",OM=YES; END OF STEPS
Creating a Topology Node Prerequisites
Context
Before the operation, it is required to confirm: �
The encoding and decoding speech template is configured.
�
The range of the topological node number is configured in the resource management.
�
The MML Terminal window is opened.
Perform this procedure to configure the topology relationship between MSCS node and MGW node. This command is used to configure the adjacent NE information, including equipment type, bearer type and attributes, user plane version, encoding and decoding template, and other information. For Mc interface, only the adjacent office bearing H.248 protocol is configured as a topological node.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11;
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2. Create an MGW topology node. The command is ADD TOPO. Table 56 describes the main parameters in the ADD TOPO command. TABLE 56 PARAMETERS IN THE ADD TOPO COMMAND Parameter Name
Parameter Description
Topological node ID
ID
OFCID
Office ID
Instruction It is a mandatory parameter to define ID of this node, ranging from 1 to 2,048. It is recommended that the ID and office No. of a topological node are consistent It is a mandatory parameter for specifying the office ID of this topological node. This parameter must be defined by the ADD ADJOFC command first. In this case, type the actual MGW office number
NAME
CODECID
ETYPE
Alias
It is a mandatory parameter for naming this topological node, with a length ranging from 1 to 50 characters.
CODEC identity
It is a mandatory parameter for specify the CODEC template used by this topological node. This parameter must be defined by the ADD CODECTPL command first.
Equipment type
This parameter is used to specify the NE type of this topological node. Select R4GW for an MGW node
PROTTYPE
IPVER
Protocol type
Select H.248 for Mc interface.
IP version of the node
It is the IP protocol version supported between nodes. Select IPV4 or IPV6 according to the actual conditions. Currently, IPV4 is supported.
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Parameter Name
ATTR
Parameter Description
Bearer attributes
Instruction This parameter is only valid for the node with the type of R4GW (MGW). The bearer types supported by MGW are BNCAAL1, BNCAAL2, BNCAAL1S, BNCIPRTP, and BNCTDM. MGW can support one or more of these types of bearers. In general, select BNCAAL2, BNCIPRTP, and BNCTDM
UPVER
User plane protocol version of RNC or MGW Extended attributes (tunnel mode), including: �
NOTUNL (None tunnel mode)
�
RTUNL (Rapid tunnel mode)
ATTR2
�
DTUNL (Delay tunnel mode)
Signaling transfer mode, including: TRFMOD
MCINTF (Mc interface signal transfer mode)
This parameter is used to set the user plane version of this node. In general, select V2
This parameter is used to set which tunnel mode is adopted for bearer establishment when this node supports the IP/RTP bearer. The default value is NOTUNL (None tunnel mode). In general, select DTUNL (Delay tunnel mode) for an MGW topological node.
This parameter is used to set which mode is used by the topology for reporting when it detects CNG or CED fax signals. The default value is MCINTF
Error SDU control, including options:
UPERRCTRL
140
YES: The user plane entity implements error inspection, and sets the FQC bit position according to the result. It will transmit all frames includes the error frames to the user plane layer. During a call, the error packet control parameter delerrsdu=Yes, which is delivered by the terminal established by
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This parameter regulates the handling method of the user plane for error frames. It is only valid for MGW-type and RNC-type topological node. The default value is YES
Chapter 5 MSCS-MGW Interconnection Data Configuration
Parameter Name
Parameter Description MGW on the Mc interface. The error packet control parameter deliveryOfErroneousSDU is YES, NA, NA during RAB assignment.
Instruction
NO: The user plane entity implements the error inspection. It will directly discard the error frame. During a call, the error packet control parameter delerrsdu=No, which is delivered by the terminal established by MGW on the Mc interface. The error packet control parameter deliveryOfErroneousSDU is NO, NA, NA during RAB assignment. INVALIDTION: The user plane entity does not implement the error inspection. During a call, the error packet control parameter delerrsdu=NA, which is delivered by the terminal established by MGW on the Mc interface. The error packet control parameter deliveryOfErroneousSDU is NA, NA, NA during RAB assignment.
DTMFTC
Tandem office send DTMF use TC mode, including two options: �
NO
�
YES
This parameter is used to set whether the tandem office uses the TC resources during DTMF number delivery. The default value is NO
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Parameter Name
Parameter Description
Instruction It contains the following options.
MGWCON
MGW congestion reporting capability
�
SMGWCON (Standard MGW congestion event)
�
CMGWCON (Custom MGW congestion event).
The default value is SMGWCON.
Example: Create a topology node with the following requirements. �
MGW office ID: 101
�
Equipment type: R4 gateway
�
Protocol type: H248
�
Supported user plane protocol version: V2
�
CODEC ID: 1.
The specific command is as follows. ADD TOPO:ID=101,OFCID=101,NAME="MGW101",CODE CID=1,ETYPE=R4GW,PROTTYPE=H248,IPVER=IPV4,ATT R="BNCAAL2"&"BNCIPRTP"&"BNCTDM",UPVER="V2",ATTR 2=DTUNL,TRFMOD=MCINTF,UPERRCTRL=YES,DTMFTC=N O,MGWCON=SMGWCON,AUTOFAX=YES,OOBTC=NO,BCUI D=0,SENDCAP=NO,G711TRAN=NO,BICCDTMF=TRANSPA RENT,IPBCP2833=BYMGW,BICCDTMPPER=0,AOIPPRO=P RIVATE; END OF STEPS
Creating an Inter-MGW Bearer Mode Prerequisites
Before the operation, it is required to confirm: �
The MGW topological node is created.
�
The MML Terminal window is opened.
Context
The inter-MGW bearer mode is configured when the Nb interfaces between several MGWs under the same MSCS are connected.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the inter-MGW bearer mode. The command is ADD MGWBEARMOD.
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Table 57 describes the main parameters in the ADD MGWBE ARMOD command. TABLE 57 PARAMETERS IN THE ADD MGWBEARMOD COMMAND Parameter Name
Parameter Description
Instruction
MGWPAIR
MGW node pair
Type the gateway node ID configured in the topological node configuration.
Bearer attribute between MGWs, the options include: AAL1(support bncAAL1) AAL2(support bncAAL2)
ATTR
AAL1S (support nbcAAL1Struct)
The parameter specifies the bearer attribute between MGWs. Select RTP or TDM according to the type of Nb interface bearer.
RTP (support bncIPRTP) TDM(support bncTDM)
CTYPE
Type of tone code between MGWs, the options including: GENERAL AMRONLY
AMRONLY represents the AMR encoding and decoding mode is used only. When G.711 and other encoding and decoding modes are allowed, select GENERAL
NAME
Alias
“Adjacent office alias of gateway 1-Adjacent office alias of gateway 21”
AAL1
AAL1 bearer type rate(%)
The parameter specifies the rate (%) of the AAL1 bearer between two gateways
AAL2
AAL2 bearer type rate(%)
The parameter specifies the rate (%) of the AAL2 bearer between two gateways
AAL1S
AAL1STRUCT bearer type rate(%)
The parameter specifies the rate (%) of the AAL1 STRUCT bearer between two gateways
RTP
IPRTP bearer type rate(%)
The parameter specifies the rate (%) of the IPRTP bearer between two gateways
TDM
TDM bearer type rate(%)
The parameter specifies the rate (%) of the TDM bearer between two gateways
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Parameter Name
Parameter Description
DIRECT
Top-priority direct link topology, the options include:
Instruction
The default is NO
NO YES User plane mode for multi-gateway IP bearer, the options include: UPMODE
TRANSPARENT(transparent mode)
The default is TRANSPARENT
SUPPORT(support mode) IPNET
G711TRAN
Public IP network domain index G711 that is forced to use the transparent mode. Options include:
The parameter is used to set the public IP network domain index (ADD IPDOMAIN)
The default is NO
NO YES
Example: Configure the bearer mode between two MGWs with the following requirements. �
MGW 1 node ID: 101
�
MGW 2 node ID: 201
�
Bearer mode: RTP
�
Type of tone code between MGWS: AMRONLY
�
Supported version: V2
�
Alias: MGW101-MGW201
�
Other parameters: default value.
The specific command is as follows. ADD MGWBEARMOD:MGWPAIR="101"-"201",ATTR="RTP ",NAME="MGW101-MGW201",CTYPE=AMRONLY,AAL1=0,A AL2=0,AAL1S=0,RTP=100,TDM=0,DIRECT=NO,UPMODE =TRANSPARENT,G711TRAN=NO; END OF STEPS
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SIGTRAN Configuration Overview Description
SINGTRAN-related configuration is required not only by the Mc interface between MSCS and MGW, but also by the Nc interface between MSCS and other direct-associated office over IP. When the SCTP bears the M3UA protocol, configuring SCTP, ASP, AS, M3UA static route and SIO-locating-AS is required. When the SCTP bears H248 protocol, configuring SCTP is required only. In general, this mode is not used. Compared with the MTP data configuration of the traditional No.7 signaling, the SCTP association configuration and the ASP configuration of the M3UA are similar to the link logic and bearer information configurations in the MTP configuration, and the AS configuration of the M3UA is similar to the link set configuration in the MTP configuration. The configuration of SIO location AS is similar to the signaling office direction and route configuration in the MTP configuration. The only difference between them is that one piece of SIO location AS configuration record is configured the IP route to a subscriber of an office.
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Configuration Flow
Figure 49 shows the flow of SIGTRAN configuration. FIGURE 49 SIGTRAN CONFIGURATION FLOW
According to the rules regulated in SCTP Planning, perform the configuration by following the procedure specified below.
146
Steps
Operations
Instructions
Command
1
Creating SCTP
Create an association between two offices
ADD SCTPCONN
2
Creating ASP
Create the oneto-one relationship between the ASP and the association. ASP is one of instances of AS.
ADD ASP
3
Creating AS
Create the tag, user type, subsystem type of AS
ADD AS
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Steps
Operations
Instructions
Command
4
Creating M3UA static route
Create the mapping relationship between the M3UA static route and the AS.
ADD M3UART
5
Creating the SIOLocating-AS
Locate one service to a routing table that is maintained by the ASP under the AS.
ADD SIOLOCAS
SCTP Planning The signaling carried by associations between MSCS and MGW is as follows. 1. If the association bears the H248 signaling between MSCS and MGW, the H248/M3UA/SCTP bearer is adopted usually, and the H248/SCTP bearer is supported. 2. The association bears the ISUP, TUP, and SCCP signaling between MSCS and MSC/HLR (MGW acts as an agent or transfers the signaling). M3UA/SCTP adopts the (ISUP, TUP, SCCP)/M3UA/SCTP bearer. If the MTP3 direct-associated office does not exist on MGW, the SCTP configuration is not required. 3. The association bears the BSSAP and RANAP signaling between MSCS and RNC/BSC (MGW acts as an agent or transfers the signaling), the SCCP/M3UA/SCTP bearer is adopted. If MSCS is directly connected with BSC/RNC, the SCTP configuration is not required. According to the rules regulated in SPC Configuration Rules in Chaper 2, both MSCS and MGW adopts different combinations of signaling points and network types for the three bearer modes mentioned above. That is, an MSCS is configured with three adjacent offices on MGW, and one group of associations is configured between every two adjacent offices for bearing different services. The number of associations is related with the signaling networking, equipment capacity, and configured SMP number. It is also limited by the configuration. For example, an AS can be configured with up to 16 SCTP associations.
Creating an SCTP Prerequisites
Before the operation, it is required to confirm: �
The physical configuration of the SMP module is completed.
�
The SCTP flag is configured in the resource management.
�
The MML Terminal window is opened.
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Context
The SCTP connection is called as association, which is of one-toone correspondence with ASP. It can be equivalent to the communication link used by the AS. An SMP can support up to 128 associations. When multiple BCTC shelves are configured, associations must share the load in each shelf.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the SCTP connection. The command is ADD SCTPCO NN. Table 58 describes the chief parameters of the ADD SCTPC ONN command. TABLE 58 PARAMETERS IN THE ADD SCTPCONN COMMAND Parameter Name
MODULE
OFCID
Parameter Description
Instruction
Module No.
It is a mandatory parameter, indicating the number of the signaling module homed by this SCTP association. Select the SMP module number. Each SMP can support up to 128 associations. The associations under the same AS are required sharing load on SMP modules as more as possible.
SCTP opposite office ID
It is a mandatory parameter, designating the office No. of the direct-associated association. Type the MGW adjacent office No. specified in the adjacent office configuration.
Bearer protocol types, including �
M2UA
�
M2PA
�
M3UA
�
SUA
�
H248
�
BICC
�
IUA
�
DHCTRL
PROT
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It is a mandatory parameter. It is used to identify the upper-layer protocol type borne by the SCTP association. In general, M3UA is selected. M2UA is selected when MGW transfers the signaling with the M2UA mode.
Chapter 5 MSCS-MGW Interconnection Data Configuration
Parameter Name
Parameter Description �
SIP
�
DIM
�
V5UA
�
H245
SCTP application attributes. Options include: ROLE
SVR: SCTP is used as server CLT: SCTP is used as client
LOCADDR
Local IP address
Instruction
It is a mandatory parameter. For Mc interface, MSCS is configured as CLT, and MGW is configured as SVR. For Nc interface, this should be negotiated by both sides. For example, the small signaling point serves as CLT, and the big signaling point serves as SVR It is a mandatory parameter. It designates the service address of local end of this association, with a format of Local IP address type-VPN of local IP address-Local IP address Local IP address type: IPv4 and IPv6 VPN of local IP address: Rang from 0 to 65535 Local IP address: the format is xxx.yyy.zzz.mmm
LOCPORT
REMADDR
Local port number
Opposite IP address
It is a mandatory parameter. It is the local SCTP port number of the association, ranging from 1 to 65535. It is a mandatory parameter. It designates the service address of remote end of this association, with a format of Remote IP address type-VPN of remote IP address-Remote IP address Remote IP address type: IPv4 and IPv6; VPN of remote IP address: Rang from 0 to 65535
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Parameter Name
Parameter Description
Instruction Remote IP address: the format is xxx.yyy.zzz.mmm
REMPORT
Opposite port number
It is a mandatory parameter. It is the opposite SCTP port number of the association, ranging from 1 to 65535.
NAME
Alias
It is a mandatory parameter with a length ranging from 1 to 50 characters.
SCTP ID
It is an optional parameter. It is the global serial number of the SCTP association, ranging from 1 to 2048. Configure it according to the association planning.
ID
Example: Create the SCTP connection for the Mc interface with the following requirements. �
MGW office ID: 101
�
Bearer protocol: M3UA
�
Application attribute: CLT
�
SCTP signaling processing module number: 3
�
Local port number: 2001
�
Opposite port number: 2001
�
Local IP address: 192.168.1.11
�
Opposite IP address: 192.168.1.31
�
SCTP association ID: 1
�
Other parameters: default value.
The command is as follows. ADD SCTPCONN:MODULE=3,OFCID=101,PROT=M3UA,R OLE=CLT,LOCADDR="IPv4"-"0"-"192.168.1.11",LOCPORT =2001,REMADDR="IPv4"-"0"-"192.168.1.31",REMPORT=2 001,NAME="MGW101-1",ID=1,INSTRM=16,OUTSTRM=1 6,MAXRTRY=5,MAXRTO=500,MINRTO=50,INITRTO=10 0,HB=500,FIXNH=NO,SCTPMAXRTRYNUM=10,DELAYAC K=20,MAXBURST=4,PRIMARYPATH=REMIP1,PMTU=0,BR EAKTIME=0,PDTHRESH=0,MINCWND=0,PLTIMER=10,M PPLTHRD=2,DPLEN=MTU,CB=200; END OF STEPS
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Creating an ASP Prerequisites
Before the operation, it is required to confirm: �
The SCTP association information configuration is completed.
�
The range of the ASP configuration identification is created in the resource management configuration.
�
The MML Terminal window is opened.
Context
Perform this procedure to define the one-to-one relationship between the ASP and the association. ASP is one of instances of AS.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the ASP. The command is ADD ASP. Table 59 describes the main parameters in the ADD ASP command. TABLE 59 PARAMETERS IN THE ADD ASP COMMAND Parameter Name
Parameter Description
Instruction It is a mandatory parameter, ranging from 1 to 2048
ASSOCID
NAME
ID
SCTP ID
Alias
ASP ID
ISLOOP
ASP self-loop ID
Type the association ID configured in the SCTP connection configuration. It is a mandatory parameter, with a lengthen ranging from 1 to 50 characters. It may be named with a format of “Adjacent office alias-SCTP number”. It is an optional parameter, ranging from 1 to 2048. It is recommended to be consistent with ASSOCID. It is an optional parameter. It is used to set whether the ASP is self-looped. Select the default value NO
ISLOCK
ASP blocking flag
It is an optional parameter. It is used set whether the ASP is in blocking state. Blocking is used for management. Select the default value NO
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Example: Create the ASP between MSCS and MGW for Mc interface with the following requirements. �
MGW office ID: 101
�
SCTP association ID: 1
�
ASP configuration ID: 1
�
User alias: MGW101-1.
The command is as follows. ADD ASP:ASSOCID=1,NAME="MGW101-1",ID=1,ISLOOP =NO,ISLOCK=NO; END OF STEPS
Creating an AS Prerequisites
Before the operation, it is required to confirm: �
The ASP configuration is finished.
�
The MML Terminal window is opened.
Context
The AS provides the transmission channels for upper-layer services. For example, H248 and TUP/UP are different services. They use different AS for transmission. The AS can use one or more associations for communication.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the AS. The command is ADD AS. Table 60 describes the main parameters in the ADD AS command. TABLE 60 PARAMETERS IN THE ADD AS COMMAND Parameter Name
152
Parameter Description
Instruction
PROT
Supported adaptation layer protocols
It indicates the protocol type of a bearer. In general, M3UA is selected according to the networking planning. It is configured as M2UA when MGW transfers the signaling with M2UA mode.
ASP
ASP ID
It is associated with the ASP ID configured in the ASP configuration.
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Parameter Name
Parameter Description
Instruction
NAME
Alias
It is a mandatory parameter. The alias customized by the user.
AS ID
It is an optional parameter. It is the unique identification of the AS. In general, it is the same as that of the ASP for easy memory. The parameter ranges from 1 to 640
ID
EXISTCTX
Whether the routing context ID exists
CTXID
Routing context ID
It is an optional parameter. The routing context is unique in the network. This parameter must be consistent with the AS configuration of the opposite-end. Its default value is NO It is an optional parameter.
Usage tag. Options include: SGP ASTAG
ASP SRV (IPSP server) CLT (IPSP client)
ASUP
User types supported by AS. Options include TUP, ISUP, BICC, H.248, ALCAP SCCP, PCA, NNSF and ALL
For Mc interface, MSCS generally serves as IPSP_Client, and MGW serves as IPSP_Server. When MGW acts as a SGW, the AS at the MSCS side serves as ASP, and the AS at the SGW side serves as SGP. For Nc interface, this should be negotiated by both sides. For example, the small signaling point serves as IPSP_Client, and the big signaling point serves as IPSP_Server. It is an optional parameter. It defines the upper-layer user types supported by the AS. Currently, there are eight types of users. User type is not configured when MGW transfers the signaling with the M2UA mode
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Parameter Name
Parameter Description
Instruction It is an optional parameter. The supported service modes include:
ASMD
Service modes supported
�
OVERRIDE(Over-ride mode)
�
LOAD (Load share mode).
In the over-ride mode, only one ASP is in the activated statue. In this case, only one ASP needs be configured. In the load sharing mode, N ASPs should be configured in the activated working statue, and K ASPs should be configured in the deactivated standby statue. The value of N+K is not more than the number of ASPs actually configured
SSN
Types of subsystem. Options include NO_SSN (subsystem SSN excluded (null)), SCCP, REV2 (standby), ISUP, OMAP, MAP, HLR, VLR, MSC, EIR, AUC, REV11(standby), INAP, USSD, VLRA, SGSN_BSCAP, RANAP, RNSAP, GMLC_MAP, CAP, GSMSCF_MAP, SIWF_MAP, SGSN_ MAP, GGSN_MAP, IP (intelligent peripherals), SMC, SSP_SCP, BSC_BSSAP_LE, MSC_BSSAP_LE, SMLC_BSSAP_LE, BSS_O_M_A , BSSAP_A and RVE255.
Types of subsystem supported by application server (AS).
The parameter ranges from 0 to 16. NVAL
The N value in load sharing mode
The N+K should be equal to the number of ASP under AS. The N value indicates that AS puts into use if N ASPs put into use.
Example: Configure the AS between MSCS and MGW for Mc interface with the following requirements.
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Chapter 5 MSCS-MGW Interconnection Data Configuration
�
MGW office ID: 101
�
Supported adaptation layer protocol: M3UA
�
AS configuration ID: 1
�
Supported user type: H248
�
ASP ID: 1
�
Client: MSCS
�
Alias: H248
The command is as follows. ADD AS:PROT=M3UA,ASPID="1",NAME="H248",ID=1,EX ISTCTX=NO,ASTAG=SGP,ASUP="H248",ASMD=LOAD,NV AL=1,KVAL=0; END OF STEPS
Creating an M3UA Static Route Prerequisites
Before the operation, it is required to confirm: �
The AS configuration is finished.
�
The range of the M3UA static route identification is configured in the resource management configuration.
�
The MML Terminal window is opened.
Context
Perform this procedure to configure the mapping relationship between the M3UA static route and the AS. An M3UA static route can be used by up to 64 SIO-locating-ASs. Otherwise, configuring more M3UA static routes is required.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the M3UA static route. The command is ADD M3UART. Table 61 describes the main parameters in the ADD M3UART command. TABLE 61 PARAMETERS IN THE ADD M3UART COMMAND Parameter Name
Parameter Description
Instruction
ID
ID of M3UA static route
It is an optional parameter, indicating the serial number of the M3UA static route ID, ranging from 1 to 640. In general, it is the same as the AS ID.
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Parameter Name
Parameter Description
Instruction
ASID
AS ID
It is a mandatory parameter, corresponding to the AS ID specified in the ADD AS command. Nature: routes are directly sorted according by the ASP marshalling sequence in the routing table.
MODE
Alignment mode of routes. Options include �
BYTURNS
�
LOCAL
�
NATURE
Local: It is unnecessary to realize the algorithm in the background. The background just needs to make the alignment according to the Nature option. BYTURNS: in the routing table, the routes at the odd-bit position are sorted by the serial number of the activated ASP, and the routes at the even-bit position are sorted inversely by the serial number of the activated ASP The default is BYTURNS.
NAME
Alias
It is a mandatory parameter defined by a user, with a length ranging from 1 to 50 characters.
Example: Create an M3UA static route for Mc interface with the following requirements. �
MGW office ID: 101
�
M3UA static route ID: 1
�
AS ID: 1
�
User alias: MGW101.
The specific command is as follows. ADD M3UART:ID=1,ASID=1,MODE=BYTURNS,NAME="MG W101"; END OF STEPS
Creating the SIO-Locating-AS Prerequisites
Context
156
Before the operation, it is required to confirm: �
The M3UA static route configuration is completed.
�
The range of the SIO-locating-AS configuration ID is configured in the resource management configuration.
�
The MML Terminal window is opened.
The configuration of SIO-locating-AS is used to locate one service to a routing table that is maintained by the ASP under the AS. On MSCS, H248 protocol is generally configured between MSCS and
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Chapter 5 MSCS-MGW Interconnection Data Configuration
MGW, and ISUP, TUP, and SCCP protocols are configured between MSCS and other adjacent offices that are switched by MGW. A routing key describes a set of No.7 signaling parameters and parameter values. The corresponded AS is selected according to the message attributes, thus to select a route for the message. The message attributes include DPC+NET+OPC+SIO. The DPC represents the destination SPC, the NET represents the network type, OPC represents the original SPC, and the SIO represents the service information octet. Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the SIO-locating-AS. The command is ADD SIOLOCAS. Table 62 describes the main parameters in the ADD SIOLO CAS command. TABLE 62 PARAMETERS IN THE ADD SIOLOCAS COMMAND Parameter Name
Parameter Description
Instruction
ID
SIOlocation-AS ID
It is an optional parameter, indicating the serial number of SIO-locating-AS, ranging from 1 to 4096. In general, it is the same as the AS ID.
NAME
Alias
It is a mandatory parameter, which is the alias customized by the user.
Service indication. Options include
SIO
OFCID
�
NULL
�
TUP
�
ISUP
�
BICC
�
H.248
�
ALCAP
�
SCCP
�
PCA
�
NNSF
Destination adjacent office ID
It is a mandatory parameter, indicating the subscriber type belonged by the transmitted message. Different user types can be located to the same AS under the precondition that the MS must support these user types Select H.248 for Mc interface, BICC for Nc interface, SCCP for the RNC or BSC office transferred through MGW, and TUP or ISUP for the 2G MSC/PSTN office transferred through MGW.
It is a mandatory parameter, indicating the adjacent office ID corresponded by the destination signaling point of the M3UA. It needs to associate with the adjacent office ID in the adjacent office configuration.
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Parameter Name
Parameter Description
Instruction
OPOFCID
Original adjacent office ID
It is the adjacent office ID corresponding to the M3UA originating signaling point. If 0 (indicating the local office) is selected, it indicates that the message is sent from the local office, and the routing context is routed according to DPC+NET+OPC+SIO. If 65535 (invalid) is selected, it indicates that the OPC field is invalid, and the routing context is routed according to DPC+NET+SIO
PCM
PCM system number
It is an optional parameter. It ranges from 0 to 65535, with a default of 65535 (invalid).
RT1
RT2
ID 1 of M3UA static route
ID 2 of M3UA static route
It corresponds to the ID specified in the M3UA static route configuration. RT1 is a mandatory parameter. In general, RT1 is required. When the optimum route mode is adopted, RT1 is set as an active route, and RT2 is set as a standby route.
Example: Create SIO-locating-AS between MSCS and MGW with the following requirements. �
MGW office ID: 101
�
Destination adjacent office ID: 101
�
Service indication: H.248
�
M3UA static route ID: 1.
The specific command is as follows. ADD SIOLOCAS:ID=1,NAME="MGW-H248",SIO=H248,OF CID=101,OPOFCID=65535,PCM=65535,RT1=1,RT2=0; END OF STEPS
H.248 Configuration Overview Description
158
H.248 protocol is only used on Mc interface. It provides the following functions.
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Chapter 5 MSCS-MGW Interconnection Data Configuration
Configuration Flow
�
Under the control of MGC, it can establish, modify and release the media channel in the MG, and can control the attributes of bearer and user plane.
�
It reports the events in the MG to the MGC.
�
It maintains the office and terminal status between MGC and MG.
Figure 50 shows the configuration flow of H.248 protocol. FIGURE 50 CONFIGURATION FLOW
Flow Description
The H.248 configuration procedures are as follows: Steps
Operations
Instructions
Command
1
Creating MGC static data
Cofigure the data related to the MGCF and H.248.
ADD MGCSCFG
2
Creating an MGW static data template
Create the template used by the MGW static data configuration.
ADD MGSTPL
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Steps
Operations
Instructions
Command
3
Creating MGW static data
Create the static data for each IM-MGW under the MGCF.
ADD MGSCFG
Creating a TID analyzer
The TID analysis configuration is necessary for the H.248 server to perform the character string conversion of the CIC. Nomally adopt the default configuration.
ADD TIDANL
Creating a TID analysis entry
Create a TID analyzer entrance. Nomally adopt the default configuration.
ADD TIDENTR
4
5
Creating MGC Static Data Prerequisites
Before the operation, it is required to confirm: �
The data configuration of the local office is completed.
�
The MML Terminal window is opened.
Context
Perform this procedure to set the data related to the MSCS and H.248.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the MGC static data. The command is ADD MGCSCFG. Table 63 describes the main parameters in the ADD MGCSCFG command. TABLE 63 PARAMETERS IN THE ADD MGCSCFG COMMAND Parameter Name
MEGACO
160
Parameter Description
Instruction
MEGACO version number
It is an optional parameter. Select the supported MEGACO version number, which must be consistent with that negotiated with the MGW. The default value is 1
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Chapter 5 MSCS-MGW Interconnection Data Configuration
Parameter Name
Parameter Description
Instruction
ACTTM
Service activation detection timer(s)
It is an optional parameter, ranging from 0 to 3600, with a default of 600
ACTCHK
Service activation detection switch
It is an optional parameter, being activated by default.
WAITTM
MGW answer waiting timer (ms)
It is an optional parameter, ranging from 0 to 65535, with a default of 7800
PTRYNUM
PEND retry times(t)
It is an optional parameter, ranging from 1 to 255, with a default of 5
PTRYTM
PEND retry time (ms)
It is an optional parameter, ranging from 0 to 65535, with a default of 4000
CTXLIVETM
Context live time(s)
It is an optional parameter, ranging from 0 to 65535, with a default of 1200
Alias
It is an optional parameter, ranging from 0 to 50 characters. It may be the same as the office name
NAME
Example: To create the MGC static data of an MSCS office with all the parameters adopting default value, the specific command is as follows. ADD MGCSCFG:MEGACO=1,ACTTM=600,ACTCHK=ON,W AITTM=7800,PTRYNUM=5,PTRYTM=4000,CTXLIVETM=1 200,MGACTTM=600; END OF STEPS
Creating an MGW Static Data Template Prerequisites
Before the operation, it is required to confirm: �
The data configuration of the local office is completed.
�
The MML Terminal window is opened.
Context
Perform this procedure to set the template used by the MGW static data configuration.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree.
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SET:NEID=11; 2. Create an MGW static data template. The command is ADD MGSTPL. Table 64 describes the main parameters in the ADD MGSTPL command. TABLE 64 PARAMETERS IN THE ADD MGSTPL COMMAND Parameter Name
Parameter Description
Instruction
NAME
Alias
This is a mandatory parameter with a length ranging from 1 to 50 characters. It can be consistent with the office name.
ID
Static data template number
The number of a template, ranging from 1 to 255
MEGACO
MEGACO version number
This parameter must be consistent with that negotiated with the MGW.
ACTCHK
Gateway activation detection switch
It is configured as ON by default
PRTTM
Transient protection timer (s)
It ranges from 1 to 180. Type the default value 10
PRT
Transient protection switch
It is configured as ON by default.
PENDTM
Interval of PEND messages (ms)
It ranges from 0 to 3600, with a default of 200
LNGTM
Maximum existence time (ms)
It ranges from 0 to 65535, with a default of 15000
RTRNTM
Retransmission timer (ms)
It ranges from 0 to 65535, with a default of 3800
MTRNNUM
Maximum transmission times
It ranges from 0 to 15, with a default of 1
TRNMD
Retransmission mode
CTYPE
H.248 protocol coding mode
�
FIXED: Duration changeable
�
UNFIXED: changeable
un-
Duration
It must be consistent with that negotiated with the MGW data configuration
Example: Create an MGW static data template with the following requirements.
162
�
Template ID: 1
�
User name: MGW101
�
Other parameters: default value.
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The specific command is as follows. ADD MGSTPL:NAME="MGW101",ID=1,MEGACO=1,ACTC HK=ON,PRTTM=10,PRT=ON,PENDTM=200,LNGTM=1500 0,RTRNTM=3800,MTRNNUM=1,TRNMD=UNFIXED,CTYPE =TEXT; END OF STEPS
Creating MGW Static Data Prerequisites
Before the operation, it is required to confirm: �
The MGW topological node is configured.
�
The MGW static data template is configured.
�
The MSCS voice batch processing is finished.
�
The MML Terminal window is opened.
Context
Perform this procedure to configure the static data for each MGW under the MSCS.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create MGW static data. The command is ADD MGSCFG. Table 65 describes the main parameters in the ADD MGSCFG command. TABLE 65 PARAMETERS IN THE ADD MGSCFG COMMAND Parameter Name
Parameter Description
Instruction
ID
Gateway number
It is a mandatory parameter for configuring the node number of this gateway, ranging from 1 to 2048. It is associated with the node ID specified by the ADD TOPO command.
TPLID
Static data template number
It is a mandatory parameter associated with the template number configured on the MGW static data template configuration.
TONEID
Service tone template ID
It is an optional parameter ranging from 0 to 65535. It uses the template ID specified in the BADD STONE command.
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Parameter Name
Parameter Description
Instruction
LANGID
Language description template ID
It is an optional parameter, ranging from 0 to 65535. It uses the template ID specified in the BADD STONE command.
NAME
Alias
It is a mandatory parameter, ranging from 0 to 50 characters. It may be the same as the office name
BKMGC
Backup MGC information
It is an optional parameter, with a default of NULL
PKGLOST
Threshold of package loss rate (0.01%)
It is an optional parameter, ranging from 0 to 10000, with a default of 10
JIT
Threshold of network jittering (ms)
It is an optional parameter, ranging from 0 to 10000, with a default of 50
DELAY
Threshold of network delay (ms)
It is an optional parameter, ranging from 0 to 5000, with a default of 200
MGW tandem
It is an optional parameter for setting whether this MGW is used for the tandem function. Type the default value NO
MGW
Example: Create static data for an MGW with the following requirements. �
MGW office ID: 101
�
Static configuration template ID: 1
�
Alias: MGW101.
The specific command is as follows. ADD MGSCFG:ID=101,NAME="MGW101",TPLID=1,TONE ID=1,LANGID=1,PKGLOST=10,JIT=50,DELAY=200,MGW =NO; END OF STEPS
Creating a TID Analyzer Prerequisites
Context
164
Before the operation, it is required to confirm: �
The data configuration of the local office is completed.
�
The MML Terminal window is opened.
The TID analysis configuration is necessary for the H.248 server to perform the character string conversion of the CIC. The H.248 server converts the CIC on the server to the corresponding character string according to the mode configured by the TID analysis.
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Chapter 5 MSCS-MGW Interconnection Data Configuration
Then it sends this character string to the gateway's H.248 for analyzing and operating the corresponded CIC. Since the form of the terminals used by the Mc interface is relatively fixed currently, you may adopt the default configuration. Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the TID analyzer. The command is ADD TIDANL. Table 66 describes the main parameters in the ADD TIDANL command. TABLE 66 PARAMETERS IN THE ADD TIDANL COMMAND Parameter Name
Parameter Description
Instruction
User alias
It is a mandatory parameter, ranging from 1 to 50 characters. It may be the same as the office name.
PREV
TID analyzer index
It is an optional parameter. It is the global number of the current analyzer for TID analyzer entry to use, ranging from 1 to 255.
TIDPFX
TID prefix
It is an optional parameter with a default of TDM
NAME
It is an optional parameter, with a default of TRUNK (trunk type).
TAG
Analysis result flag. Options include USER, TRUNK, RTP, ATM, ROOT and PCM+IDX.
PCMSPR
PCM flag
It is an optional parameter, with a default of “ ”.
IDXSPR
IDX flag
It is an optional parameter, with a default of “/”.
PCMPOS1
PCM start location
It is an optional parameter, ranging from 0 to 255, with a default of 1, indicating that the PCM number starts from the first digit of the PCM flag.
PCMPOS2
PCM end location
It is an optional parameter, ranging from 0 to 255, with a default of 0. Since there is a
Example: “TDM_5/1” is a trunk terminal form. “TDM” is the TID prefix, “_” is the PCM separation mark, “5” is the PCM number, "/” is the IDX (time slot index) is the separation mark, and “1” is the time slot number
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Parameter Name
Parameter Description
Instruction PCM flag, the End Location is meaningless.
IDXPOS1
IDXPOS2
IDX start location
It is an optional parameter, ranging from 0 to 255, with a default of 1, indicating that the time slot number starts from the first digit of the IDX flag.
IDX end location
It is an optional parameter, ranging from 0 to 255, with a default of 0. Since there is an IDX flag, the End Location is meaningless.
Example: Create a TID analyzer with the following requirements. �
MGW office ID: 101
�
TID index: 1
�
Alias: MGW101
�
Other parameters: default value.
The command is: ADD TIDANL:NAME="MGW101",PREV=1,TIDPFX="TDM ",TAG=TRUNK,PCMSPR="_",IDXSPR="/",PCMPOS1=1,PC MPOS2=0,IDXPOS1=1,IDXPOS2=0; END OF STEPS
Creating a TID Analyzer Entry Prerequisites
Context Steps
Before the operation, it is required to confirm: �
The MGW topological node is configured.
�
The TID analyzer configuration is completed.
�
The MML Terminal window is opened.
Perform this procedure to configure a TID analyzer entry. 1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a TID analyzer entry. The command is ADD TIDENTR. Table 67 describes the main parameters in the ADD TIDENTR command.
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TABLE 67 PARAMETERS IN THE ADD TIDENTR COMMAND Parameter Name
Parameter Description
Instruction
ND
Gateway
It is a mandatory parameter. It is the node ID allocated by the topological node configuration.
TIDENTID
TID analyzer index
It is a mandatory parameter associating the TID analyzer ID specified in the TID analyzer configuration.
TIDTPLID
TID template number
By default, the system already creates a TID template whose ID is 1. You may query it with the SHOW TIDTPL command.
User Alias
It is a mandatory parameter with a length ranging from 0 to 50 characters. It may be the same as the office name.
NAME
Example: Create a TID analyzer entry with the following requirements. �
MGW office ID: 101
�
TID analyzer index: 1
�
TID template ID: 1
�
Alias: MGW101.
The specific command is as follows. ADD TIDENTR:ND=101,TIDENTID=1,TIDTPLID=1,NAME ="MGW101"; END OF STEPS
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6
MSCS-Other-Exchange Interconnection Data Configuration Table of Contents Networking Mode............................................................. 169 Office Interconnection in IP Domain ................................... 170 TDM Office Interconnection ............................................... 186
Networking Mode Overview
When MSCS is interconnected with the equipment (such as HLR, SGSN, MSCS, 2G MSC/PSTN) at the network side, the interfaces between them fall into TDM-type or IP-type according to different bearer modes, as described in Table 68. These interfaces may also fall into direct-associated mode and quasi-associated mode according to their connection method. You should select the corresponding configuration method according to the actual networking condition. TABLE 68 BEARER MODES OF MAIN INTERFACES Interconnected Equipment
Interface
Bearer Mode
MSCS
Nc
IP
SGSN
Gs
TDM/IP
HLR
C
TDM/IP
2G MSC/PSTN
Ai
TDM/IP
Take the interconnection between MSC and MSCS/MGW for example. When the traffic bearer is TDM bearer or IP bearer, MSC is directly connected with MGW. However, the signaling modes between MSC and MSCS divide into the following three types. 1. MSC is connected with MSCS in TDM bearer mode. When MSC is interconnected with the MSCS in TDM bearer mode, they only transmit the narrowband signaling.
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i. MSCMSCS MSC is directly associated with MSCS in a TDM bearer mode. ii. MSCSTPMSCS MSC is quasi-associated with MSCS through STP in TDM bearer mode. This method is applicable to the interconnection between two devices in the circuit domain, which requires configuring the narrow-band signaling processing board SPB on MSCS. 2. MSC is connected with MSCS in an IP bearer mode. MSC is directly connected with MSCS in an IP bearer mode. The signaling between them is transmitted through SIGTRAN. The upper-layer signaling, such as BICC, is borne through M3UA/SCTP or SCTP. This method is applicable to the interconnection between two devices in the IP domain. 3. MSC is connected with MSCS in IP bearer and TDM bearer modes. The signaling adaptation between MSC and MSCS is implemented through an intermediate node, which is MGW usually. The signaling is transmitted by the path of MSCMGWMSCS, where the narrow-band signaling is transmitted between MSC and MGW, and SIGTRAN is transmitted between MGW and MSCS. The signaling may also be switched on MGW in M3UA or M2UA mode. �
�
�
When MSCS and MGW adopt different signaling points, M3UA transfer mode is usually adopted. When MSCS and MGW adopt the same signaling point, M3UA proxy mode is usually adopted. When MSCS and MGW adopt the same signaling point, and MSCS manages several MGWs that are all connected with MSCS, M2UA transfer mode may be adopted.
Office Interconnection in IP Domain Overview Introduction
This section describes the procedure for configuring the office interconnection in the IP domain. There are the following three interconnection modes in the IP domain. 1. Direct-associated office in the IP domain The office is directly connected with MSCS in IP bearer mode.
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2. M3UA-transferred office MSCS and its opposite-end office provide IP and TDM bearers respectively. The signaling between them is transferred by MGW in M3UA mode. 3. M2UA-transferred office MSCS and its opposite-end office provide IP and TDM bearers respectively. The signaling between them is transferred by MGW in M2UA mode.
Direct-Associated Office Configuration in IP Domain Overview Configuration Description
The direct-associated office in the IP domain is the office directly connected with MSCS in the IP bearer mode. For example, two MSCSs are connected through an Nc interface.
Configuration Flow
Figure 51 shows the flow of configuring a direct-associated office in the IP domain. FIGURE 51 FLOW OF CONFIGURING A DIRECT-ASSOCIATED OFFICE IN IP DOMAIN
Flow Description
Perform the following steps.
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Steps
Operations
Configuration Description
1
Creating an Adjacent Office
Create other interconnected office at the network side, except for MGW. Select a different adjacent office type.
2
Creating an MSCS Topology Node
The topological node of the opposite-end MSCS office is configured during the Nc interface configuration.
3
SIGTRAN Configuration
It is similar to the SIGTRAN configuration on the Mc interface, refer to Overview
Configuring an Adjacent Office Prerequisites
Before the operation, it is required to confirm: �
The signaling interworking data planning and negotiation between MSCS and other office are completed.
�
The data configuration of local office is completed.
�
The MML Terminal window is opened.
Context
Perform this procedure to configure the basic information of an interconnected adjacent office.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Configure an adjacent office. The command is ADD ADJOFC. describes the main parameters in the ADD ADJOFC command. Parameter Name
172
Parameter Description
Instruction
ID
Office ID
It is a mandatory parameter. It is the identification number of the adjacent office, ranging from 1 to 3000. It is usually configured as the exchange ID of the adjacent office during the all-network planning
NAME
Alias
It is a mandatory parameter, which is user-defined alias
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Parameter Name
Parameter Description
Instruction
Network type
It is a mandatory parameter, indicating the network type of the SPC used for connecting the local office to the adjacent office when the local office is configured with several signaling points. The default is the network type of this SP when there is only one SP in the local office.
OFCTYPE
Office type
It is a mandatory parameter. Refer to Table 69 for the configuration of adjacent office at the network side.
SPCFMT
Signaling point code format
TRIPLE_DEC is selected by default.
SPCTYPE
Signaling point code type
DPC
Signaling point code
It is a mandatory parameter. It is selected according to the SPC type of the adjacent office. In China, all the NEs adopt 24-bit SPC, except for BSC that adopts 14-bit SPC. Configure it according to the signaling point planning.
NET
Area code
It is an optional parameter, designating the area code of this adjacent office. This configuration has impact on the area code added by the calling number.
ASSOTYPE
Association Type
It is an optional parameter. Select AM_SURE (directassociated mode) or AM_QUASI (quasi-associated mode) according to the networking conditions.
SPTYPE
Signaling point type, including SEP, STP, and STEP
Select SEP (signaling end point), STEP (signaling transfer/end point) or STP (signaling transfer point) according to the role of the adjacent office in the signaling network.
RC
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Parameter Name
Parameter Description
Instruction
Subservice function, including �
INTERNAT IONAL(In ternational signaling point code)
�
INTERN ATIONAL STANDBY(I nternational standby signaling point code)
SSF
�
NATIONAL (National signaling point code)
�
NATIONAL STANDBY (National standby signaling point code).
It is an optional parameter. In general, select NATIONAL for domestic use.
Office Attribute, including: TAG
ISNI (Has ISNI Function) TRANS (Translate Node)
It is an optional parameter
TEST (Need Test Info:0X02/0X01)
TEST
Test flag
It is an optional parameter, for setting whether the MTP3 link actively initiates the link test after entering in the service status. It is selected by default. It is an optional parameter with a default of NO. It is used for SCCP to judge whether to use the LUDT message.
BANDFLAG
Broadband attribute
The maximum length of a broadband link message is 4,000, and that of a narrowband link message is 255. Because the MTP layer does not have the segmentation function, the incorrect configuration of this parameter probably causes the long packet to be discarded. Select this parameter when all the links between two SPs
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Parameter Name
Parameter Description
Instruction are SIGTRAN or ATM signaling links.
Protocol types, including: �
CHINA (China)
�
ITU (International Telecommunications Union)
�
ANSI (American National Standards Institute).
PRTCTYPE
CLST
Cluster ID
It is an optional parameter. CHINA and ITU are used for the NO.7 signaling networking of the ITU standards. ANSI is used for the No.7 signaling networking of the American standards.
It is an optional parameter. The cluster number should be configured in ADD CLST. The parameter ranges from 0 to 65535, with a default of 65535.
Office Info, including: �
CIC_PCM (CIC starts the load sharing according to the PCM code mode)
�
BLOCK (Manual block status)
�
EVEN_CIC (The office controls the even CIC when CIC resource contention occurs)
INFO
�
CALLING(Calling transform is allowed)
�
CALLED (Called transform is allowed)
�
MOD24_CIC (CIC mode with 24 mode)
It is an optional parameter, with a default of CIC_PCM(CIC using PCM Code Mode Starts Load Control)
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Parameter Name
Parameter Description �
RELATEDOFC1
Instruction
TEST (Dynamic test)
Related office ID
It is an optional parameter, ranging from 0 from 3000
Office extend info, including �
SIGBRDCST (Support Signaling Broadcast Message)
�
MTP (Hongkong MTP Standard)
�
DUPU ( Screen DUPU message)
�
SUA_REC_ DT1 (Receive SUA message and handle it as DT1 message)
INFOEX
�
SUA_SND_DT1 (Send SUA message and handle it as DT1 message without SN.)
�
OPEN_TG_RES (Open outter trunk group resource)
It is an optional parameter
TABLE 69 ADJACENT OFFICE ATTRIBUTES
176
Adjacent Office
Adjacent office type
Level-1 tandem office
DOMTOLL and TMSC1
Level-2 tandem office
DOMTOLL and TMSC2
Soft-switched toll tandem office
DOMTOLL and TMSCS1
Soft-switched toll tandem office (CMN)
DOMTOLL, TMSCS1, and CMN
MSC end office (local)
LOCAL, DOMTOLL, OA, and MSCSERVER
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Adjacent Office
Adjacent office type
Gateway office (local)
LOCAL, DOMTOLL, OA, and GMSCSERVER
PSTN office
LOCAL, DOMTOLL, and PSTN
HLR
HLR/HLRe
STP
MSCSERVER
SCP
SCP/SCPe
Independent IP
LOCAL and DOMTOLL
Color ring back tone center
LOCAL and DOMTOLL
Dual-homing adjacent office
DHCTRL
SGSN
SGSN
For example, configure the HLR adjacent office during TDM connection. The office ID is 104, the network type is 1, the signaling point code is 20.250.31, the office type is HLR/HLRe, and the domain type is SCN. For the other parameters, select the default value. the command is as follows: ADD ADJOFC:ID=104,NAME="HLR",NET=1,OFCTYPE="H LR/HLRe",SPCFMT=TRIPLE_DEC,SPCTYPE=24,DPC="20.25 0.31",RC="25",ASSOTYPE=AM_SURE,SPTYPE=SEP,SSF=N ATIONAL,SUBPROTTYPE=DEFAULT,TEST=YES,BANDFLAG =NO,PRTCTYPE=CHINA,CLST=65535,INFO="CIC_PCM",RE LATEDOFC1=0; For example, configure the MSCS adjacent office. The network type is 1, the alias is MSCS105, the signaling point code is 20.250.1 the signaling point code format is 24, the association type is AM_SURE, and the office type is DOMTOLL&LOCAL&MSCSERVER&OA. For other parameters, select the default value. The command is as follows: ADD ADJOFC:ID=105,NAME="MSCS105",NET=1,OFCTYP E="LOCAL"&"DOMTOLL"&"OA"&"MSCSERVER",SPCFMT=TRI PLE_DEC,SPCTYPE=24,DPC="20.250.1",RC="25",ASSOTY PE=AM_SURE,SPTYPE=SEP,SSF=NATIONAL ,SUBPROTTYP E=DEFAULT,TEST=YES,BANDFLAG=YES,PRTCTYPE=CHIN A,CLST=65535,INFO="CIC_PCM",RELATEDOFC1=0; END OF STEPS
Creating an MSCS Topology Node Prerequisites
Before the operation, it is required to confirm: �
The voice CODEC template configuration is completed.
�
The range of topology nodes is created in the resource management.
�
The MML Terminal window is opened.
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Context
For Nc interface, the topology node of the opposite-end MSCS office needs to be configured.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create an MSCS topology node. The command is ADD TOPO. Table 70 describes the main parameters in the ADD TOPO command. TABLE 70 PARAMETERS IN THE ADD TOPO COMMAND Parameter Name
Parameter Description
Instruction
Topological node ID
It is a mandatory parameter. For identifying this node with a serial number, ranging from 1 to 2048. It is recommended to be consistent with the office ID of this node
Office ID
It is a mandatory parameter for specify the office ID of this topological node. This parameter must be defined by the ADD ADJOFC command first. Type the MSCS office ID according to the actual conditions.
Alias
It is a mandatory parameter for describing a topological node, with a length ranging from 1 to 50 characters.
CODEC identity
It is a mandatory parameter for specify the CODEC template used by this topological node. This parameter must be defined by the ADD CODECTPL command first.
ETYPE
Equipment type
This parameter is used to specify the NE equipment type of this topological node. Select MSCS for an MSCS device.
PROTTYPE
Protocol type
Select BICC for an Nc interface.
ID
OFCID
NAME
CODECID
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Parameter Name
IPVER
ATTR
Parameter Description
Instruction
IP version of the node
This parameter indicates the IP protocol version supported between nodes. Select IPV4 or IPV6 according to the actual conditions. Currently, it is usually configured as IPV4
Bearer attributes
This parameter is only valid for the node with the type of R4GW (MGW). You need not to configure it for an MSCS topological node.
Extended attributes (tunnel mode), including: �
NOTUNL (None tunnel mode)
�
RTUNL (Rapid tunnel mode)
�
DTUNL (Delay tunnel mode)
ATTR2
Signaling transfer mode, including: TRFMOD
DTMFTC
MCINTF (Mc interface signal transfer mode) Tandem office send DTMF use TC mode, including �
NO (No)
�
YES (Yes)
This parameter sets which tunnel mode is used for setting up a bearer when this node supports the IP/RTP bearer, with a default of NOTUNL (None tunnel mode).
This parameter is used to set that mode used by the topology for reporting the detected CNG or CED fax signals, with a default of MCINTF (Mc interface signal transfer mode). This parameter designates whether TC resources are used during DTMF number delivery, with a default of NO
MGW congestion reporting capability, including �
SMGWCON (Standard MGW congestion event)
�
CMGWCON (Custom MGW congestion event).
MGWCON
This parameter designates the MGW congestion reporting capability, with a default of SMGWCON (standard MGW congestion event).
Example: Create an MSCS topological node with the following requirements. �
MSCS office ID: 12
�
Equipment type: MSCS
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�
Protocol type: BICC
�
CODEC ID: 1
�
Other parameters: Default.
The specific command is as follows. ADD TOPO:ID=12,OFCID=12,NAME="MSCS12",CODECI D=1,ETYPE=MSCS,PROTTYPE=BICC,IPVER=IPV4,ATTR2 =NOTUNL,TRFMOD=MCINTF,UPERRCTRL=YES,DTMFTC=N O,MGWCON=SMGWCON,AUTOFAX=YES,OOBTC=NO,BCUI D=0,SENDCAP=NO,G711TRAN=NO,BICCDTMF=TRANSPA RENT,IPBCP2833=BYMGW,BICCDTMPPER=0,AOIPPRO=P RIVATE; END OF STEPS
M3UA-Transferred Office Configuration Description
MSCS and its opposite-end office provide IP and TDM bearers respectively. The signaling between them is transferred by MGW in M3UA mode.
Networking mode
Take the quasi-associated networking (M3UA-based) between MSCS and 2G MSC/PSTN for example. Figure 52 shows its interface protocol stack. FIGURE 52 QUASI-ASSOCIATED NETWORKING BETWEEN MSCS AND 2G MSC/PSTN (BASED ON M3UA)
The connection between MSCS and MGW is in the IP bearer mode, and the connection between MGW and 2G MSC/PSTN is in the TDM bearer mode. Therefore, to configure the interworking data between MSCS and 2G MSC/PSTN, you only need to create a 2G MSC/PSTN adjacent office on the MSCS, and to configure the SIGTRAN data between MSCS and MGW to make the MGW complete the signaling transit. In this case, the MGW serves as a signaling gateway, working in a switching mode.
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Configuration Description
Figure 53 shows the flow of configuring an M3UA transit exchange. FIGURE 53 FLOW OF M3UA TRANSIT EXCHANGE
Perform the following steps.
Steps
1
2
Operations
Configuration Description
Reference
Creating an Adjacent Office
Create other interconnected office at the network side, except for MGW. Select a different adjacent office type. It is required that the network type of this adjacent office is consistent with the MGW network type configured for this group of associations.
Configuring an Adjacent Office
SIGTRAN Configuration
Based on the principles of SCTP Planning, specify the office ID parameter in the SIO-locating-AS configuration to be consistent with the office ID of the adjacent office that is switched through MGW, when the association between MGW and MSCS is configured.
Overview
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M2UA-Transferred Office Configuration Overview Description
MSCS and its opposite-end office provide IP and TDM bearers respectively. The signaling between them is transferred by MGW in M2UA mode.
Networking mode
Take the quasi-associated networking (M2UA-based) between MSCS and 2G MSC/PSTN as an example. Figure 54 shows its interface protocol stack. FIGURE 54 QUASI-ASSOCIATED NETWORKING BETWEEN MSCS AND 2G MSC/PSTN (BASED ON M2UA)
The connection between MSCS and MGW is in the IP bearer mode, and the connection between MGW and 2G MSC/PSTN is in the TDM bearer mode. When the signaling is transferred in the M2UA mode, MGW serves as SG to only complete the adaptation of the MTP2-layer protocol, and transparently transmits the MTP3 layer protocols to the MSCS for processing. Therefore, you only need to configure the No. 7 signaling data on the MSCS, which are transmitted to the adjacent office. Configuration flow
182
Figure 55 shows the flow of configuring an M2UA transit exchange.
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FIGURE 55 FLOW OF M2UA TRANSIT EXCHANGE
Flow Description
Perform the following steps.
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Steps
Operations
Instruction
Reference
1
Creating an adjacent office
Create other interconnected office at the network side, except for MGW. Select a different adjacent office type.
Configuring an Adjacent Office
3
Creating an SCTP
OFCID: select the adjacent office ID configured in Step 1.
Creating an SCTP
PROT: Select M2UA 4
Creating an ASP
-
Creating an ASP
PROT: Select M2UA
5
Creating an AS
EXSTCNTXT: No routing context is configured
Creating an AS
ASTAG: Select ASP on MSCS. ASUP: Select NULL
6
Creating a signaling link set
Select the type of this signaling link set according toits signaling link type. In general, select N64 (64K narrowband link set).
7
Creating an M2UA IP link
-
Creating an M2UA IP Link
8
Creating a signaling route
-
Creating a Signaling Route
9
Creating a sSignaling office
-
Creating a Signaling Office
Creating a Signaling Link Set
Creating an M2UA IP Link Prerequisites
184
Before the operation, it is required to confirm: �
The signaling link group configuration is completed.
�
The MML Terminal window is opened.
Context
When MGW forwards signaling in the M2UA mode, the M2UA IP link connection to the adjacent office should be configured. The signaling link is accessed through SIPI board, and SIGTRAN protocol is used for transmission.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured.
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Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create an M2UA IP link. The command is ADD M2UAIPLNK. Table 71 describes the main parameters in the ADD M2UAIP LNK command. TABLE 71 PARAMETERS IN THE ADD M2UAIPLNK COMMAND Parameter Name
Parameter Description
Instruction
LKSID
Signaling link set ID
It is a mandatory parameter. Type the link set No. of this link, ranging from 1 to 1024. Which is associated with the ID of the signaling link set that is created
SLC
Signaling link set code
It is an optional parameter to configure the SLC of this signaling link. It needs to be consistent with the SLC of the same signaling link of the opposite-end office
MODULE
SMP module No.
It is a mandatory parameter. Type the No. the SMP module that processes this link, ranging from 1 to 127
Destination AS ID
It is a mandatory parameter. Type the AS No. used by this signaling link, ranging from 1 to 640.In this case, type the AS ID whose adaptation layer is M2UA
ID
Link number
It is an optional parameter, designating the global No. of the signaling link on the MSCS. It ranges from 1 to 5000
NAME
Alias
It is a mandatory parameter, for describing the name of this signaling link for easy identification
IIDTYPE
Interface ID type, including INT(Integer Type), TEXT(Text Type and BOTH(Integer And Text Type)
The parameter indicates the interface ID type. Currently, only the integer type is supported.
IID
Interface ID
The parameter ranges from 0 to 4294967295
LOOP
Self loop, including options: NO(Not Self Loop) and YES(Self Loop)
The parameter indicates whether the link is at a self loop status.
ASID
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Example: Create an M2UA IP signaling link connecting to a 2G MSC office with the following requirements. �
Link set ID: 28
�
SMP module No.: 3
�
Destination AS ID: 28
�
Link No.: 28
�
Alias: 2GMSC
�
ID of it in the signaling link set: 0
�
Other parameters: default.
The specific command is as follows. ADD M2UAIPLNK:LKSID=28,SLC=0,MODULE=3,ASID=2 8,ID=28,NAME="2GMSC",IIDTYPE=INT,LOOP=NO; END OF STEPS
TDM Office Interconnection Overview
186
Description
TDM office refers to the office connecting with MSCS through TDM bearer, including SCP, HLR, SGSN and other offices that connect to the MSCS. To configure a direct-associated office, you need to configure signaling link set, signaling link, signaling route, and signaling office. To configure a quasi-associated office, you only need to configure the signaling office.
Configuration Flow
Figure 56 shows the flow of configuring the interconnection data between MSCS and TDM.
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FIGURE 56 TDM OFFICE INTERCONNECTION CONFIGURATION FLOW
Flow Description
Perform the following steps. Steps
Operations
Instructions
Command
1
Creating a signaling link set
Configure a narrowband signaling link set to the adjacent office.
ADD N7LKS
2
Creating an SPB-accessed signaling Link
Configure a narrowband signaling link to the adjacent office.
ADD N7LNKE1
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Steps
3
4
Operations
Instructions
Command
Creating a signaling route
The signaling routing configuration is used for specifying the signaling link set to be selected and the method when the signaling selects a route.
ADD N7ROUTE
Creating a signaling office
Configure the correspondence between the destination signaling office and the signaling route.
ADD N7OFC
Creating a Signaling Link Set Prerequisites
Context
Before the operation, it is required to confirm: �
The adjacent office configuration is completed.
�
The data configuration of local office is completed.
�
The range of signaling link set is configured in the resource management.
�
The MML Terminal window is opened.
Perform this procedure to configure a narrowband signaling link set to the adjacent office, including 64k signaling link set, 2M signaling link set, N×64k signaling link set. When configuring the signaling link set connected by TDM, you may select N64, NN64, and N2M.
Steps
�
64k indicates that the narrow-band signaling link in this signaling link set only seizures one time slot on one E1 line, with 64 Kbps bandwidth.
�
N×64K indicates that the narrow-band signaling link in this signaling link set seizures N consecutive time slots on one E1 line (8≤n≤25).
�
2M indicates that the narrow-band signaling link in this signaling link set seizures all 31 time slots on one E1 line (time slot 0 is unavailable), with 1.984Mbps bandwidth.
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a signaling link set. The command is ADD N7LKS.
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Table 72 describes the main parameters in the ADD N7LKS command. TABLE 72 PARAMETERS IN THE ADD N7LKS COMMAND Parameter Name
OFCID
ID
NAME
TYPE
Parameter Description
Instruction
Direct-associated office of the signaling link set
It is a mandatory parameter. Type the adjacent office ID of this signaling link set, which is specified in the adjacent office configuration.
Signaling link set ID
It is a mandatory parameter. It designates the signaling link set No. for distinguishing signaling link sets, ranging from 1 to 1024.
Alias
It is a mandatory parameter describing the name of this signaling link set for easy identification.
Signaling link set type
This parameter indicates the types of the signaling links in this signaling link set. Select N64 for a 64K signaling link, NN64 for an n×64K signaling link, and N2M for a 2M signaling link.
Link error revision, including:
LECM
BASIC (basic error revision, transit delay ≤ 15 ms): all the signaling links use this method for relatively short transit delay, except for satellite links. PCR (Preventive Cyclic Retransmission: transit delay≥15 ms): Satellite links use this method for it has a relatively long transit delay.
This parameter designates the error correction method of the signaling links in this set. In general, select BASIC. In general,BASICis selected when the line transit delay is less than 15ms, and PCR is selected when the line transit delay is greater than 15ms.For a 2M signaling link, BASIC must be selected. This parameter shall be consistent with that of the opposite end through negotiation.
Example: Create a signaling link set connected by HLR office 104 with the following requirements. �
HLR office ID: 1
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�
Signaling link set No.: 1
�
Group type: 64K narrowband link set
�
Link error revision: Basic error revision
�
Alias: HLR-1.
The specific command is as follows. ADD N7LKS:OFCID=1,TYPE=N64,ID=1,LECM=BASIC,NA ME="HLR-1"; END OF STEPS
Creating an SPB-Accessed Signaling Link Prerequisites
Context
Before the operation, it is required to confirm: �
The signaling link group configuration is completed.
�
The MML Terminal window is opened.
Signaling link is the physical channel carrying signaling messages. The narrow-band signaling link used on the MSCS is an SPB-accessed signaling link.
Note: In order to evenly distribute the traffic load to an office on each link that is selected in the dynamic routing table corresponded by the SLC, usually the number of links in a link set to a directassociated office is configured as 2n, namely, 2, 4, 8, or 16 links are configured. Make sure that load onto each link is not too heavy to cause it breakdown. Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create an SPB-accessed signaling link. The command is ADD N7LNKE1 Table 73 describes the main parameters in the ADD N7LNKE1 command.
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TABLE 73 PARAMETERS IN THE ADD N7LNKE1 COMMAND Parameter Name
Parameter Description
Instructions
Signaling link set ID
It is a mandatory parameter, designating the signaling link set No. of this signaling link. It is associated with the ID of the signaling link set that is configured.
Signaling Link Code (SLC)
This parameter designates the SLC of this signaling link, ranging from 0 to 15. It needs to be consistent with the SLC of the same signaling link of the opposite-end office.
MODULE
Signaling management module No.
It is a mandatory parameter. Select a signaling module. Several signaling links of the same office should be configured to different physical boards. In addition, the signaling links managed by each SMP module should share load.
SPBUNT
SPB unit number
CPU
CPU ID of SPB
LKSID
SLC
E1 number of the SPB board
E1
It is a mandatory parameter. The CPU ID ranges from 1 to 4. Several signaling links of the same office should be configured to different SPB boards. In addition, the signaling links processed by the CPUs on SPB board should share load. This parameter designates the number of the E1 where the signaling link is located, ranging from 9. By default, it is numbered from 9 64k signaling link: the time slot number of the signaling link is 16
Start timeslot number of E1
TS
N×64k signaling link: its start time slot ranges from 1 to 31 2M signaling link: Its start time slot is 1 Configure the number of the time slots occupied by the signaling link.
TSNUM
Quantity of timeslots
64K signaling link: Its time slot amount is 1. N×64K signaling link: Its time slot amount is N. 2M signaling link: Its time slot amount is 31.
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Parameter Name
NAME
Parameter Description
Instructions
Alias
It is a mandatory parameter designating the name of the signaling link for easy identification, with a length ranging from 1 to 50 characters.
Miscellaneous information, including: E1: This link uses the E1-type interface.
INFO
N64KT1: This link uses the T1-type interface, with 64K normal coding mode. I64KT1: This link uses the T1-type interface, with 64K reversal phase coding mode.
Configure the interface type and coding mode of this link. In general, it is an E1 link.
56KT1: This link uses the T1-type interface, with 54K coding mode.
Example: Create an SPB-accessed signaling link with the following requirements. �
Signaling link set No.: 1
�
Signaling link No.: 0
�
SMP module No.: 3
�
Signaling link alias: HLR-1-1
�
SPB board unit No.: 721
�
Start time slot number of E1: 9
�
Time slot amount: 1
�
Other parameters: default.
The specific command is as follows. ADD N7LNKE1:LKSID=1,SLC=0,MODULE=3,NAME="HLR1-1",ID=1,SPBUNT=721,CPU=1,E1=9,TS=16,TSNUM=1,L OOP=NO,INFO=E1,FCPLTHR=255; END OF STEPS
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Creating a Signaling Route Prerequisites
Before the operation, it is required to confirm: �
The signaling link group configuration is completed.
�
The range of signaling route ID is configured in the resource management.
�
The MML Terminal window is opened.
Context
The signaling routing configuration is used for specifying the signaling link set to be selected and the method when the signaling selects a route. The signaling route to a direct-associated office only contains the signaling link sets to this office. The signaling route to a quasi-associated office contains one or two signaling link sets to the intermediate office.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a signaling route. The command is ADD N7ROUTE. Table 74 describes the main parameters in the ADD N7ROUTE command. TABLE 74 PARAMETERS IN THE ADD N7ROUTE COMMAND Parameter Name
Parameter Description
Instruction
NAME
Alias
It is a mandatory parameter designating a signaling route for easy identification.
Signaling link set 1
The signaling route contains the first signaling link set. Type the serial number of the signaling link set 1.
Signaling link set 2
It is the second signaling link set contained by the signaling route. At least either LKSID1 or LKSID2 is not equal to zero and contains signaling links. If only one signaling link set exists, type 0
Signaling route number
This parameter designates the serial number of the signaling route, ranging from 1 to 2000. When there is only one signaling link set, this parameter may be configured to be consistent with the signaling link set number.
LKSID1
LKSID2
ID
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Parameter Name
Parameter Description
Instruction
LPM
Arrangement mode of signaling link sets. Refer to Table 75 for its options.
This parameter designates the rules that should be obeyed when the signaling links of two signaling link sets are sorted. When two link sets have the same signaling links, and the total number is not more than 16, RAND (random order) is recommended
LPMIN
Arrangement mode in a signaling link set. Refer to Table 75 for its options.
This parameter designates the rules that should be obeyed when the signaling links in a signaling link set are sorted. RAND (random order) is recommended
MANUAL
Sort manually, including NO(Need Not Manual) and YES(Need Manual)
The parameter indicates whether to manually sort the signaling routes of the two link groups
Link list
The maximum number of instance is 16. The format is -, representing the alignment order and link number respectively.
LINKS
TABLE 75 ARRANGEMENT MODE OF SIGNALING SETS
194
Mode
Meanings
Instruction
RAND
Random arrangement mode
Random arrangement mode
SLS0
Select On SLS_BIT0
Selecting links between two link sets according to Bit 0 of SLS
SLS1
Select On SLS_BIT1
Selecting links between two link sets according to Bit 1 of SLS
SLS2
Select On SLS_BIT2
Selecting links between two link sets according to Bit 2 of SLS
SLS3
Select On SLS_BIT3
Selecting links between two link sets according to Bit 3 of SLS
SLS01
Select On SLS_BIT0-1
Selecting links between two link sets according to Bits 0 and 1 of SLS
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Mode
Meanings
Instruction
SLS12
Select On SLS_BIT1-2
Selecting links between two link sets according to Bits 1 and 2 of SLS
SLS23
Select On SLS_BIT2-3
Selecting links between two link sets according to Bits 2 and 3 of SLS
Example: Create a signaling route with the following requirements. �
Alias: HLR
�
Signaling link set No.: 1
�
Signaling route No.: 1
�
Other parameters: default.
The specific command is as follows. ADD N7ROUTE:NAME="HLR",LKSID1=1,LKSID2=0,ID =1,LPM=RAND,LPMIN=RAND,MANUAL=NO; END OF STEPS
Creating a Signaling Office Prerequisites
Before the operation, it is required to confirm: �
The signaling route configuration is completed.
�
The MML Terminal window is opened.
Context
Perform this procedure for configuring the correspondence between the destination signaling office and the signaling route.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a signaling office. The command is ADD N7OFC. Table 76 describes the main parameters in the ADD N7OFC command.
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TABLE 76 PARAMETERS IN THE ADD N7OFC COMMAND Parameter Name
Parameter Description
Instruction
ID
Signaling route office
It is a mandatory parameter. Type the adjacent office No. of the destination office
RT1
This parameter designates the serial number of the direct route to the destination adjacent office.
It is a mandatory parameter. Configure the serial number of the direct route to this office, ranging from 1 to 2000
RT2
Alternate route 1, indicating the serial number of the first alternate route to the destination adjacent office.
RT3
Alternate route 2, indicating the serial number of the second alternate route to the destination adjacent office. This parameter is configured when only the first alternate route is already configured.
RT4
Alternate route 3, indicating the serial number of the third alternate route to the destination adjacent office. This parameter is configured when only the second alternate route is already configured.
NAME
Alias
This parameter ranges from 0 to 2000. Select up to three available alternate routes according to the actual conditions. When there is no alternate route, configure it as 0.
It is a mandatory parameter. This parameter designates the name of the signaling office for easy identification
Example: Create a signaling office to a HLR adjacent office whose office ID is 1 and the direct-associated route number is 1. The specific command is as follows. ADD N7OFC:ID=1,RT1=1,RT2=0,RT3=0,RT4=0,NAME ="HLR"; END OF STEPS
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Chapter
7
MSCS-Radio-Office Interconnection Data Configuration Table of Contents Interconnection with RNC Office ........................................ 197 Interconnection with BSC Office......................................... 213
Interconnection with RNC Office Overview Networking Modes
When MSCS is interconnected with RNC through Iu-CS interface, there are two networking modes. 1. MSCSMGWRNC RNC and MGW are directly associated through ATM, and MSCS and MGW are connected through an IP bearer. Figure 57 shows the networking structure and the interface protocols.
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FIGURE 57 QUASI-ASSOCIATION BETWEEN MGW AND RNC
The RANAP/SCCP signaling between MSCS and RNC is switched by MGW. User data between MGW and RNC are transmitted through AAL2 that is controlled by the ALCAP signaling. MSCS and MGW can be interconnected with RNC through different signaling points. 2. MSCSRNC MGWRNC RNC can be interconnected with MSCS/MGW through an IP bearer. Figure 58 shows the networking structure and the interface protocols. FIGURE 58 DIRECT-ASSOCIATION BETWEEN MGW AND RNC
MSCS is directly connected with RNC through SIGTRAN protocol. User data between MGW and RNC are transmitted through RTP/UDP/IP. And the RTP session is established, modified and released through the RANAP signaling on MSCS.MGW is not configured with a RNC adjacent office when the IP bearer is adopted. Configuration Flow
198
Figure 59 shows the flow of configuring the interconnection between MSCS and RNC through the Iu-CS interface.
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FIGURE 59 FLOW OF CONFIGURING MSCS-RNC INTERCONNECTION
Flow Description
Perform the following steps to configure the interconnection between MSCS and RNC. Steps
Operations
Instructions
Commands
1
Creating the RNC adjacent office
Configure the basic information of the RNC adjacent office
ADD ADJOFC
2
Creating RNC office attributes
Configure some additive attributes of the RNC adjacent office, thus to associate the RNC ID with the RNC office.
ADD RNCOFC
3
Creating RNC topological node
Configure the adjacent NE information
ADD TOPO
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Steps
4
5
Operations
Instructions
Commands
Creating the topological relationship between RNC and MGW
Configure the topological relationship between RNC and MGW, thus to associate the MGW node with the RNC node.
ADD RNCMGWT OPO
SIGTRAN Configuration
When MSCS is connected to RNC through MGW and the association between MGW and MSCS is configured, you only need to configure SIO-locating-AS according to the principles regulated in SCTP planning. When MSCS is directly connected to RNC through the IP bearer, you need to perform the configuration related to SIGTRAN protocol. Refer to Overview
-
Creating an RNC Adjacent Office Prerequisites
Before the operation, it is required to confirm: �
The data configuration of the local office is completed.
�
The range of adjacent office number is configured in the resource management.
�
The MML Terminal window is opened.
Context
Perform this procedure for configuring the basic information of the RNC adjacent office.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the RNC adjacent office. The command is ADD ADJO FC. Table 77 describes the main parameters in the ADD ADJOFC command.
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TABLE 77 PARAMETERS IN THE ADD ADJOFC COMMAND Parameter Name
Parameter Description
Instruction
ID
Office ID
It is a mandatory parameter, indicating the identification number of the adjacent office, and ranging from 1 to 2048. It is usually configured as the exchange ID of the adjacent office during the all-network planning.
NAME
Alias
It is a mandatory parameter, which is the alias customized by the user.
NET
Network type
It is a mandatory parameter, indicating the network type of the SPC used for connecting the local office to the adjacent office when the local office is configured with several SPs. The default is the network type of this SP when there is only one SP in the local office. It is a mandatory parameter.
OFCTYPE
Adjacent office type
SPCFMT
SPC format
Select TRIPLE_DEC
SPCTYPE
SPC type
It is a mandatory parameter. Specify it based on the SPC type of the adjacent office
DPC
SPC
RC
Area code
Type RNC in this case
When the adjacent office type is RNC, RC must be empty.
Association type, including
ASSOTYPE
�
AM_SURE (direct connection mode)
�
AM_QUASI (half direct connection mode)
�
It is an optional parameter. Select AM_QUASI
AM_NONE (none connection mode)
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Parameter Name
Parameter Description
Instruction
Signaling point type, including SPTYPE
�
SEP
�
STP
�
STEP
It is an optional parameter. Select SEP
Subservice function, including �
INTERNATIONAL (International signaling point code)
�
INTERNATIONAL STANDBY (International standby signaling point code)
SSF
TEST
�
NATIONAL (National signaling point code)
�
NATIONAL STANDBY (National standby signaling point code)
Test flag
It is an optional parameter. In general, select NATIONAL for domestic use.
It is an optional parameter, for setting whether the MTP3 link actively initiates the link test after entering in the service status. It is selected by default.
BANDFLAG
Broadband attribute
It is an optional parameter. Select YES when all the links between two SPs are SIGTRAN or ATM signaling links.
Protocol types, including: �
CHINA (China)
�
ITU (International Telecommunications Union)
�
ANSI (American National Standards Institute).
PRTCTYPE
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It is an optional parameter. CHINA and ITU are used for the NO.7 signaling networking of the ITU standards. ANSI is used for the No.7 signaling networking of the American standards.
Chapter 7 MSCS-Radio-Office Interconnection Data Configuration
Parameter Name
CLST
Parameter Description
Instruction
Cluster ID
It is an optional parameter. The cluster number should be configured in ADD CLST. The parameter ranges from 0 to 65535, with a default of 65535.
Office Info, including: �
CIC_PCM (CIC starts the load sharing according to the PCM code mode)
�
BLOCK (Manual block status)
�
EVEN_CIC (The office controls the even CIC when CIC resource contention occurs)
INFO
RELATEDOFC1
�
CALLING(Calling transform is allowed)
�
CALLED (Called transform is allowed)
�
MOD24_CIC (CIC mode with 24 mode)
�
TEST (Dynamic test)
Related office ID
It is an optional parameter, with a default of CIC_PCM (CIC using PCM Code Mode Starts Load Control)
It is an optional parameter, ranging from 0 from 3000
Office extend info, including �
INFOEX
SIGBRDCST (Support Signaling Broadcast Message)
�
MTP (Hongkong MTP Standard)
�
DUPU ( Screen DUPU message)
It is an optional parameter
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Parameter Name
Parameter Description �
SUA_REC_ DT1 (Receive SUA message and handle it as DT1 message)
�
SUA_SND_DT1 (Send SUA message and handle it as DT1 message without SN.)
�
OPEN_TG_RES (Open outter trunk group resource)
Instruction
Example: Create an RNC adjacent office with the following requirements. �
RNC office ID: 100
�
Network type: 2
�
User alias: RNC100
�
Destination SPC: 1.100.1
�
SPC type: 14-bit
�
Adjacent office type: RNC
�
Association type: Quasi-associated mode.
The specific command is as follows. ADD ADJOFC:ID=100,NAME="RNC100",NET=2,OFCTYP E="RNC",SPCFMT=TRIPLE_DEC,SPCTYPE=14,DPC="1.10 0.1",ASSOTYPE=AM_QUASI,SPTYPE=SEP,SSF=NATIONAL STANDBY,SUBPROTTYPE=DEFAULT,TEST=YES,BANDFLAG =NO,PRTCTYPE=CHINA,CLST=65535,INFO="CIC_PCM",RE LATEDOFC1=0; END OF STEPS
Creating RNC Office Direction Prerequisites
Context
204
Before the operation, it is required to confirm: �
You know the number of the exchange to be configured.
�
The RNC adjacent office is created.
�
The MML Terminal window is opened.
Perform this procedure to configure some additive attributes of the RNC adjacent office, thus to associate the RNCID with the RNC office.
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Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the RNC office direction. The command is ADD RNCO FC. Table 78 describes the main parameters in the ADD RNCOFC command. TABLE 78 PARAMETERS IN THE ADD RNCOFC COMMAND Parameter Name
Parameter Description
Instruction It is a mandatory parameter ranging from 1 to 256.
OFCID
RNC office ID
It is the RNC office ID specified in the RNC office configuration.
MCC
Mobile country code
It is a mandatory parameter, ranging from 1 to 4 characters. For China, it is 460.
MNC
Mobile network code
It is a mandatory parameter with a length ranging from 2 to 3 characters.
RNCID
RNC ID
It is a mandatory parameter, ranging from 0 to 4095. It is provided by the RNC side.
RABDLY
RAB Delay(ms)
The parameter ranges from 0 to 65535, with a default of 100
Class A SDU Error Ratio. The options include: �
ERRRATIO1 (1*10^(-2)
�
ERRRATIO2 (7*10^(-3)
SDUERA �
ERRRATIO3 (1*10^(-3)
�
ERRRATIO4 (1*10^(-4)
�
ERRRATIO5 (1*10^(-5)
The default value is ERRRATIO2 (7*10^(-3)
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Parameter Name
Parameter Description
Instruction
Class A Residual BER. The options include: �
ERRRATIO1 (5*10^(-2))
�
ERRRATIO2 (1*10^(-2))
�
ERRRATIO3 (5*10^(-3))
�
ERRRATIO4 (1*10^(-3))
�
ERRRATIO5 (1*10^(-4))
�
ERRRATIO6 (1*10^(-5))
�
ERRRATIO7 (1*10^(-6))
RBERA
The default value is ERRRATIO7 (1*10^(-6))
Class B Residual BER. The options include: �
ERRRATIO1 (5*10^(-2))
�
ERRRATIO2 (1*10^(-2))
�
ERRRATIO3 (5*10^(-3))
�
ERRRATIO4 (1*10^(-3))
�
ERRRATIO5 (1*10^(-4))
�
ERRRATIO6 (1*10^(-5))
�
ERRRATIO7 (1*10^(-6))
RBERB
The default value is ERRRATIO4 (1*10^(-3))
Class C Residual BER. The options include: �
ERRRATIO1 (5*10^(-2))
�
ERRRATIO2 (1*10^(-2))
�
ERRRATIO3 (5*10^(-3))
�
ERRRATIO4 (1*10^(-3))
�
ERRRATIO5 (1*10^(-4))
�
ERRRATIO6 (1*10^(-5))
�
ERRRATIO7 (1*10^(-6))
RBERC
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The default value is ERRRATIO3 (5*10^(-3))
Chapter 7 MSCS-Radio-Office Interconnection Data Configuration
Parameter Name
Parameter Description
Instruction
Iu Interface Load Share Mode. The options include: SELMGTYPE
ATMADDR
ADDRPLAN
�
EXCELLENT(Excellent choice priority)
�
LOAD(Load share priority)
RNC ATM Address
ATM Address Plan, including E.164(E.164) and NSAP(NSAP)
The default value is EXCELLENT (Excellent choice priority)
It is an optional parameter. Configure the ATM address and coding plan of the corresponding RNC. ATM address code can adopt the NSAP that has a fixed length of 20 bytes) or E.164 (that is an extendable BCD code). The configuration here should be consistent with the RNC office ID parameters at the MGW side.
First Rebear Mode. The options include:
BTRY1
�
NO(NO RETRY);
�
BEARER(TRY OTHER REBEAR MODES;
�
MGW(TRY OTHER MGW)
The default is NO(NO RETRY)
Second Rebear Mode. The options include:
BTRY2
RAS
�
NO(NO RETRY);
�
BEARER(TRY OTHER REBEAR MODES;
�
MGW(TRY OTHER MGW)
RNC Office ReAssignment. Options include: �
NO(NO);
�
YES(YES)
The default is NO(NO RETRY)
The default value is NO(NO)
Example: Create the RNC office direction with the following requirements. �
RNC office ID: 100
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�
Mobile country code: 460
�
Mobile network code: 00
�
RNC ID: 1
�
�
ATM address of RNC: 12.3456.7890.abcd.efff.ffff.ffff.ffff.ffff.ffff.ff ATM address plan: E164.
The specific command is as follows. ADD RNCOFC:OFCID=100,MCC="460",MNC="00",RNCID =1,RABDLY=100,SDUERA=ERRRATIO2,RBERA=ERRRATI O7,RBERB=ERRRATIO4,RBERC=ERRRATIO3,SELMGTYPE =EXCELLENT,ATMADDR="12.3456.7890.abcd.efff.ffff.ffff.fff f.ffff.ffff.ff",ADDRPLAN=E164,BTRY1=NO,BTRY2=NO,RAS =NO; END OF STEPS
Creating an RNC Topology Node Prerequisites
Before the operation, it is required to confirm: �
You know the number of the exchange to be configured.
�
The voice CODEC template is created.
�
The MML Terminal window is opened.
Context
Perform this procedure to create the adjacent NE information, including equipment type, bearer type and attributes, user plane version, encoding and decoding template, and other information.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create an RNC topology node. The command is ADD TOPO. Table 79 describes the main parameters in the ADD TOPO command. TABLE 79 PARAMETERS IN THE ADD TOPO COMMAND Parameter Name
ID
208
Parameter Description
Instruction
Topological node ID
It is a mandatory parameter, ranging from 1 to 2,048. It is used for defining a topological node. It is recommended that this ID is consistent with the office ID of this node.
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Chapter 7 MSCS-Radio-Office Interconnection Data Configuration
Parameter Name
Parameter Description
Instruction
OFCID
Office ID
It is a mandatory parameter for specify the office ID of this topological node, ranging from 1 to 3,000. This parameter must be defined by the ADD ADJOFC command first. Type the RNC office ID according to actual conditions.
NAME
Alias
It is a mandatory parameter for naming this topological node, with a length ranging from 1 to 50 characters.
CODECID
CODEC identity
It is a mandatory parameter for specifying the Encoding and decoding speech Template used by this topological node. This parameter must be defined by the ADD CODECTPL command first. Type it according to the actual conditions.
ETYPE
Equipment type
It is an optional parameter for specifying the NE type of this topological node. Select RNC for an RNC node.
IPVER
IP version of the node
It is an optional parameter, indicating the IP protocol version supported between nodes. Select IPV4 or IPV6 according to the actual conditions. In general, it is set as IPV4
ATTR
Bearer attributes
This parameter is only valid for the node with the type of R4GW (MGW). You need not to configure it for an RNC topology node.
UPVER
User plane protocol version
It is an optional parameter to regulate the user plane version of this node, ranging from V1 to V16. It can support one or more of these user plane versions. This parameter is only valid for RNC-type or MGW-type NE. In general, V2 is selected (meaning supporting Version 2) according to the user-plane version supported by RNC.
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Parameter Name
Parameter Description
Instruction
Extended attributes (tunnel mode), including �
ATTR2
TRFMOD
NOTUNL (None tunnel mode)
�
RTUNL (Rapid tunnel mode)
�
DTUNL (Delay tunnel mode)
Transmission mode, including MCINTF (Mc interface signal transfer mode)
This parameter sets which tunnel mode is used for setting up a bearer when this node supports the IP/RTP bearer, with a default of NOTUNL (None tunnel mode).
This parameter is used to set that mode used by the topology for reporting the detected CNG or CED fax signals, with a default of MCINTF (Mc interface signal transfer mode). YES: The user plane entity implements error inspection, and sets the FQC bit position according to the result. It will transmit all frames includes the error frames to the user plane layer. During a call, the error packet control parameter delerrsdu=Yes, which is delivered by the terminal established by MGW on the Mc interface. The error packet control parameter deliveryOfErroneousSDU is YES, NA, NA during RAB assignment.
UPERRCTRL
Error SDU control
NO: The user plane entity implements the error inspection. It will directly discard the error frame. During a call, the error packet control parameter delerrsdu=No, which is delivered by the terminal established by MGW on the Mc interface. The error packet control parameter deliveryOfErroneousSDU is NO, NA, NA during RAB assignment. INVALIDTION: The user plane entity does not implement the error inspection. During a call, the error packet control parameter delerrsdu=NA, which is delivered by the terminal established by MGW on the Mc interface. The error packet control parameter deliveryOfErroneousSDU is NA, NA, NA during RAB assignment.
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Chapter 7 MSCS-Radio-Office Interconnection Data Configuration
Parameter Name
Parameter Description
Instruction This parameter regulates the handling method of the user plane for error frames. It is only valid for MGW-type and RNC-type topological node. The default value is YES
DTMFTC
Tandem office send DTMF use TC mode, containing two options: No and YES
This parameter is used to set whether the tandem office uses the TC resources during DTMF number delivery. The default value is NO It contains the following options.
MGWCON
MGW congestion reporting capability
�
SMGWCON (Standard MGW congestion event)
�
CMGWCON (Custom MGW congestion event).
The default value is SMGWCON.
Example: Create a topology node with the following requirements. �
RNC office ID: 100
�
Topology node ID: 100
�
Alias: RNC100
�
CODEC ID: 1
�
RNC-supported user-plane version: V2.
The specific command is as follows. ADD TOPO:ID=100,OFCID=100,NAME="RNC100",CODEC ID=1,ETYPE=RNC,PROTTYPE=H248,DMNAME="RNC",IP VER=IPV4,UPVER="V2",ATTR2=NOTUNL,TRFMOD=MCINT F,UPERRCTRL=YES,DTMFTC=NO,MGWCON=SMGWCON,A UTOFAX=YES,OOBTC=NO,BCUID=0,SENDCAP=NO,G711 TRAN=NO,BICCDTMF=TRANSPARENT,IPBCP2833=BYMG W,BICCDTMPPER=0,AOIPPRO=PRIVATE; END OF STEPS
Creating the Topology Relationship between RNC and MGW Prerequisites
Before the operation, it is required to confirm: �
You know the number of the exchange to be configured.
�
The RNC topology node is created.
�
The MML Terminal window is opened.
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Context
Perform this procedure to configure the topological relationship between RNC and MGW, thus to associate the MGW node with the RNC node.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the topology relationship between RNC and MGW. The command is ADD RNCMGWTOPO. Table 80 describes the main parameters in the ADD RNCMG WTOPO command. TABLE 80 PARAMETERS IN THE ADD RNCMGWTOPO COMMAND Parameter Name
Parameter Description
Instruction It is a mandatory parameter, ranging from 1 to 2048.
MGWID
MGW node ID
RANTYPE
Office type
RANID
RNC/BSC node number
It is the node ID specified during the MGW topological node configuration It is a mandatory parameter. Select RNC for RNC access. It is a mandatory parameter, ranging from 1 to 2048. It is the node ID specified during the RNC topological node configuration.
Load Sharing Mode, including:
SHMODE
�
NONE (NOT Load Sharing)
�
BEARLOAD (Bear Load Sharing)
�
MBLOAD (MasterBackup Load Sharing)
Bearer Type 1, including: BTYPE1
BRATIO1
212
�
ATM (ATM)
�
IP (IP)
Bearer Type 1 Ratio
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The parameter is used to set the multiple load sharing modes, with a default of NONE
The parameter indicates the first bearer type, with a default of ATM The parameter is used to the set the proportion of the first bearer type, with a default of 1
Chapter 7 MSCS-Radio-Office Interconnection Data Configuration
Parameter Name
Parameter Description Bearer Type 2, including:
BTYPE2
BRATIO2
�
NONE (NONE)
�
ATM (ATM)
�
IP (IP)
Bearer Type 2 Ratio
Instruction
The parameter indicates the second bearer type, with a default of NONE
The parameter is used to the set the proportion of the second bearer type, with a default of 1 It is an optional parameter, ranging from 1 to 10.
BPER
Ratio of bearer from MGW to RNC
NAME
Alias
It is used for setting the traffic load-sharing ratio when the RNC accesses several MGWs. If the RNC only connects to one MGW, this parameter is set as 1 by default It is an optional parameter with a length ranging from 0 to 50 characters.
Example: Create the topology relationship between RNC and MGW with the following requirements. �
MGW node ID: 101
�
RNC node ID: 100.
The specific command is as follows. ADD RNCMGWTOPO:MGWID=101,RANTYPE=RNC,RANI D=100,SHMODE=NONE,BTYPE1=ATM,BRATIO1=1,BTYPE 2=NONE,BRATIO2=1,BPER=1; END OF STEPS
Interconnection with BSC Office Overview Networking Modes
When MSCS is interconnected with BSC through A-interface, there are two networking modes. 1. MSCSMGWBSC
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MSCS and MGW are connected through IP bearer, BSC and MGW are directly connected through TDM bearer. Figure 60 shows the networking structure and the interface protocols. FIGURE 60 QUASI-ASSOCIATED NETWORKING BETWEEN MSCS AND BSC
The BSSAP/SCCP signaling between MSCS and BSC is switched by MGW. User data are transmitted between MGW and BSC through TDM circuits. The A-interface circuits are managed by the BSSAP signaling on MSCS. MSCS and MGW are interconnected with BSC through the same signaling point. 2. MSCSBSC, MGWBSC When A-interface supports the IP bearer, BSC can be interconnected with MSCS/MGW through an IP bearer. Figure 61 shows the networking structure and the interface protocols. FIGURE 61 DIRECT-ASSOCIATED NETWORKING BETWEEN MSCS AND BSC
MSCS and BSC are directly connected through SIGTRAN protocol. User data between MGW and BSC are transmitted through RTP/UDP/IP. Configuration Flow
214
Figure 62 shows the flow of configuring the interconnection between MSCS and BSC through the A-interface.
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FIGURE 62 FLOW OF CONFIGURING MSCS-BSC INTERCONNECTION
Flow Description
Perform the following steps to configure the interconnection between MSCS and BSC. Steps
Operations
Instructions
Commands
1
Creating the BSC adjacent office
Configure the basic information of the BSC adjacent office
ADD ADJOFC
2
Creating BSC office direction
Configure some additive attributes of the BSC adjacent office
ADD BSCOFC
3
Creating BSC topological node
Configure the adjacent NE information
ADD TOPO
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Steps
Operations
Instructions
Commands
4
Creating the topology relationship between BSC and MGW
Configure the topological relationship between BSC and MGW, thus to associate the MGW node with the BSC node.
ADD RNCMGW TOPO
SIGTRAN Configuration
When MSCS is connected to BSC through MGW and the association between MGW and MSCS is configured, you only need to configure SIO-locating-AS according to the principles regulated in SCTP planning. When MSCS is directly connected to BSC through the IP bearer, you need to perform the configuration related to SIGTRAN protocol. Refer to Overview
-
5
Creating a BSC Adjacent Office Prerequisites
Before the operation, it is required to confirm: �
The data configuration of the local office is completed.
�
The range of adjacent office number is configured in the resource management.
�
The MML Terminal window is opened.
Context
Perform this procedure for configuring the basic information of the BSC adjacent office.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the BSC adjacent office. The command is ADD ADJO FC. Table 81 describes the main parameters in the ADD ADJOFC command.
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TABLE 81 PARAMETERS IN THE ADD ADJOFC COMMAND Parameter Name
Parameter Description
Instruction
ID
Office ID
It is a mandatory parameter, indicating the identification number of the adjacent office, and ranging from 1 to 2048. It is usually configured as the exchange ID of the adjacent office during the all-network planning.
NAME
Alias
It is a mandatory parameter, which is the alias customized by the user.
NET
Network type
It is a mandatory parameter, indicating the network type of the SPC used for connecting the local office to the adjacent office when the local office is configured with several SPs. The default is the network type of this SP when there is only one SP in the local office.
OFCTYPE
Adjacent office type
It is a mandatory parameter.
SPCFMT
SPC format
Select TRIPLE_DEC
SPCTYPE
SPC type
DPC
SPC
RC
Area code
Type BSC in this case
It is a mandatory parameter. Specify it based on the SPC type of the adjacent office. In China, BSC adopts the 14-bit SPC. When the adjacent office type is BSC, RC must be empty.
Association type, including
ASSOTYPE
�
AM_SURE (direct connection mode)
�
AM_QUASI (half direct connection mode)
�
AM_NONE(none connection mode)
It is an optional parameter. Select AM_QUASI
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Parameter Name
Parameter Description
Instruction
Signaling point type, including SPTYPE
�
SEP
�
STP
�
STEP
It is an optional parameter. Select SEP
Subservice function, including �
INTERNATIONAL (International signaling point code)
�
INTERNATIONAL STANDBY (International standby signaling point code)
SSF
TEST
�
NATIONAL (National signaling point code)
�
NATIONAL STANDBY (National standby signaling point code).
Test flag
It is an optional parameter. In general, select NATIONAL STANDBY for BSC adjacent office.
It is an optional parameter, for setting whether the MTP3 link actively initiates the link test after entering in the service status. It is selected by default.
BANDFLAG
Broadband attribute
It is an optional parameter. Select NO
Protocol types, including: �
CHINA (China)
�
ITU (International Telecommunications Union)
�
ANSI (American National Standards Institute).
PRTCTYPE
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It is an optional parameter. CHINA and ITU are used for the NO.7 signaling networking of the ITU standards. ANSI is used for the No.7 signaling networking of the American standards.
Chapter 7 MSCS-Radio-Office Interconnection Data Configuration
Parameter Name
CLST
Parameter Description
Instruction
Cluster ID
It is an optional parameter. The cluster number should be configured in ADD CLST. The parameter ranges from 0 to 65535, with a default of 65535.
Office Info, including: �
CIC_PCM (CIC using PCM Code Mode Starts Load Control)
�
BLOCK (Manual Block State)
�
EVEN_CIC (Office Controls Even CIC if CIC Resource Collision)
INFO
RELATEDOFC1
�
CALLING (Allow Calling Transform)
�
CALLED (Allow Called Transform)
�
MOD24_CIC (Mod 24 CIC Mode)
�
TEST (Dynamic Test)
Related office ID
It is an optional parameter, with a default of CIC_PCM
It is an optional parameter, ranging from 0 from 3000
Office extend info, including �
SIGBRDCST (Support Signaling Broadcast Message)
�
MTP (Hongkong MTP Standard)
INFOEX �
DUPU ( Screen DUPU message)
�
SUA_REC_ DT1 (Receive SUA message and handle
It is an optional parameter
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Parameter Name
Parameter Description
Instruction
it as DT1 message) �
SUA_SND_DT1 (Send SUA message and handle it as DT1 message without SN.)
�
OPEN_TG_RES (Open outter trunk group resource)
Example: Create a BSC adjacent office with the following requirements. �
BSC office ID: 99
�
Network type: 2
�
User alias: BSC99
�
Destination SPC: 1.99.1
�
SPC type: 14-bit
�
Sub-service function: National standby SPC
�
Adjacent office type: BSC
�
Association type: Quasi-associated mode.
The specific command is as follows. ADD ADJOFC:ID=99,NAME="BSC99",NET=2,OFCTYPE ="BSC",SPCFMT=TRIPLE_DEC,SPCTYPE=14,DPC="1.99. 1",ASSOTYPE=AM_QUASI,SPTYPE=SEP,SSF=NATIONAL STANDBY,SUBPROTTYPE=DEFAULT,TEST=YES,BANDFLAG =NO,PRTCTYPE=CHINA,CLST=65535,INFO="CIC_PCM",RE LATEDOFC1=0; END OF STEPS
Creating BSC Office Direction Prerequisites
Context
220
Before the operation, it is required to confirm: �
You know the ID of the exchange to be configured.
�
The BSC adjacent office is created.
�
The MML Terminal window is opened.
Perform this procedure to configure some additive attributes of the BSC adjacent office.
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Chapter 7 MSCS-Radio-Office Interconnection Data Configuration
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the BSC office direction. The command is ADD BSCO FC. Table 82 describes the main parameters in the ADD BSCOFC command. TABLE 82 PARAMETERS IN THE ADD BSCOFC COMMAND Parameter Name
Parameter Description
Instruction
BSCOFCID
BSC office ID
It is a mandatory parameter ranging from 1 to 256.
MCC
Mobile country code
It is a mandatory parameter with the length ranging from 1 to 3 characters.
MNC
Mobile network code
It is a mandatory parameter with a length ranging from 1 to 3 characters.
Service identifier
It is an optional parameter. Type it according to the actual conditions. In general, all the options can be selected, except SUPCELLLOAD (Support load-based switch) and ALL (Support all).
INFO
A interface load share mode, including SELTYPE
�
EXCELLENT (excellent choice priority)
�
LOAD (load share priority)
It is an optional parameter. Select EXCELLENT in this case.
NAME
Alias
It is an optional parameter with a length ranging from 0 to 50 characters.
RAS
BSC office re-assignment
It is an optional parameter. Select YES or NO according to the actual conditions
CICINMGW
MGW manage BSC CIC, including options: NO(NO) and YES(YES)
The default is NO(NO)
BEARTYPE
BSC bearer type, including options: TDM(TDM), IPV4(IPV4) and IPV6(IPV6)
It is an optional parameter, with a default of TDM(TDM)
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Example: Create the BSC office direction with the following requirements. �
BSC office ID: 99
�
Mobile country code: 460
�
Mobile network code: 00
�
�
Service identifier: "BSCRST"&"MSCRST"&"BSCRCIC"&"MSCRCIC"&"BLOCKCIC"&"BLOCKCICG"&"UNBLOCKCIC"&" UNBLOCKCICG"&"RESINDN"&"CHARGEINDN"&"FLUXCONTROL"&"BSCTRACK"&"MSCTRACK"&"QUEUEINDN"&"CALLREBUILD"&"SUPCELLLOAD"&"UNBLOCKCICINS"&"SupComID"&"SupEmlpp"&"SupChnNed"&"SupCIResMode"&"SupLCS" Alias: BSC99.
The specific command is as follows. ADD BSCOFC:BSCOFCID=99,MCC="460",MNC="00",INFO ="BSCRST"&"MSCRST"&"BSCRCIC"&"MSCRCIC"&"BLOCKCIC "&"BLOCKCICG"&"UNBLOCKCIC"&"UNBLOCKCICG"&"RESIND N"&"CHARGEINDN"&"FLUXCONTROL"&"BSCTRACK"&"MSCTR ACK"&"QUEUEINDN"&"CALLREBUILD"&"SUPCELLLOAD"&"UN BLOCKCICINS"&"SupComID"&"SupEmlpp"&"SupChnNed"&"S upCIResMode"&"SupLCS",SELTYPE=EXCELLENT,NAME="BS C99",RAS=NO,CICINMGW=NO,CICATTR="TFRV1"&"THRV 1"&"TFRV2"&"THRV2"&"TFRV3"&"THRV3"&"DFR14"&"DFR12 "&"DFR6"&"DFR3"&"DHR6"&"DHR3"&"HSCSD14x2"&"HSCSD1 2x2"&"HSCSD6x2"&"HSCSD14x4"&"HSCSD12x4"&"HSCSD6x 4"&"HSCSD12x6"&"HSCSD6x6",BEARTYPE=TDM,PROTYPE =PRIVATE,IPCODECMODE=CC,SETPRE=SET1; END OF STEPS
Creating a BSC Topology Node Prerequisites
Before the operation, it is required to confirm: �
You know the number of the exchange to be configured.
�
The encoding and decoding speech template is added.
�
The MML Terminal window is opened.
Context
Perform this procedure to configure the adjacent NE information, including equipment type, bearer type and attributes, user plane version, encoding and decoding template, and other information.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a BSC topological node. The command is ADD TOPO. Table 83 describes the main parameters in the ADD TOPO command.
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TABLE 83 PARAMETERS IN THE ADD TOPO COMMAND Parameter Name
ID
OFCID
NAME
CODECID
Parameter Description
Instruction
Topology node ID
It is a mandatory parameter ranging from 1 to 2048. It is used for defining a topological node. It is recommended that this ID is consistent with the office ID of this node.
Office ID
It is a mandatory parameter for specify the office ID of this topological node, ranging from 1 to 2048. This parameter must be defined by the ADD ADJOFC command first. Type the BSC office ID according to actual conditions.
Alias
It is a mandatory parameter for naming this topological node, with a length ranging from 1 to 50 characters.
CODEC identity
It is a mandatory parameter for specifying the Encoding and decoding speech Template used by this topological node. This parameter must be defined by the ADD CODECTPL command first. Type it according to the actual conditions.
ETYPE
Equipment type
It is an optional parameter for specifying the NE type of this topological node. Select BSC for an BSC node.
IPVER
IP version of the node
It is an optional parameter, indicating the IP protocol version supported between nodes. Select IPV4 or IPV6 according to the actual conditions. In general, it is set as IPV4
ATTR
Bearer attributes
This parameter is only valid for the node with the type of R4GW (MGW). You need not to configure it for an BSC topological node.
UPVER
User plane protocol version
It is an optional parameter. This parameter is not configured for a BSC node
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Parameter Name
Parameter Description
Instruction
Extended attributes (tunnel mode), including �
ATTR2
TRFMOD
NOTUNL (None tunnel mode)
�
RTUNL (Rapid tunnel mode)
�
DTUNL (Delay tunnel mode)
Transmission mode, including MCINTF (Mc interface signal transfer mode)
This parameter sets which tunnel mode is used for setting up a bearer when this node supports the IP/RTP bearer, with a default of NOTUNL (None tunnel mode).
This parameter is used to set that mode used by the topology for reporting the detected CNG or CED fax signals, with a default of MCINTF (Mc interface signal transfer mode). YES: The user plane entity implements error inspection, and sets the FQC bit position according to the result. It will transmit all frames includes the error frames to the user plane layer. During a call, the error packet control parameter delerrsdu=Yes, which is delivered by the terminal established by MGW on the Mc interface. The error packet control parameter deliveryOfErroneousSDU is YES, NA, NA during RAB assignment.
UPERRCTRL
Error SDU control
NO: The user plane entity implements the error inspection. It will directly discard the error frame. During a call, the error packet control parameter delerrsdu=No, which is delivered by the terminal established by MGW on the Mc interface. The error packet control parameter deliveryOfErroneousSDU is NO, NA, NA during RAB assignment. INVALIDTION: The user plane entity does not implement the error inspection. During a call, the error packet control parameter delerrsdu=NA, which is delivered by the terminal established by MGW on the Mc interface. The error packet control parameter
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Chapter 7 MSCS-Radio-Office Interconnection Data Configuration
Parameter Name
Parameter Description
Instruction deliveryOfErroneousSDU is NA, NA, NA during RAB assignment. This parameter regulates the handling method of the user plane for error frames. It is only valid for MGW-type and RNC-type topological node. The default value is YES
DTMFTC
Tandem office send DTMF use TC mode, containing two options: �
NO
�
YES
This parameter is used to set whether the tandem office uses the TC resources during DTMF number delivery. The default value is NO
It contains the following options.
MGWCON
MGW congestion reporting capability
�
SMGWCON (Standard MGW congestion event)
�
CMGWCON (Custom MGW congestion event).
The default value is SMGWCON.
Example: Create a BSC topological node with the following requirements. �
BSC office ID: 99
�
Topological node ID: 99
�
Alias: BSC99
�
CODEC ID: 1
The specific command is as follows. ADD TOPO:ID=99,OFCID=99,NAME="BSC99",CODECID =1,ETYPE=BSC,PROTTYPE=H248,DMNAME="RNC",IPVER =IPV4,UPVER="V2",ATTR2=NOTUNL,TRFMOD=MCINTF,UP ERRCTRL=YES,DTMFTC=NO,MGWCON=SMGWCON,AUTOF AX=YES,OOBTC=NO,BCUID=0,SENDCAP=NO,G711TRAN =NO,BICCDTMF=TRANSPARENT,IPBCP2833=BYMGW,BIC CDTMPPER=0,AOIPPRO=PRIVATE; END OF STEPS
Creating the Topology Relationship between BSC and MGW Prerequisites
Before the operation, it is required to confirm: �
You know the number of the exchange to be configured.
�
The BSC topological node is configured.
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�
The MML Terminal window is opened.
Context
Perform this procedure to configure the topological relationship between BSC and MGW, thus to associate the MGW node with the BSC node.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the topological relationship between BSC and MGW. The command is ADD RNCMGWTOPO. Table 84 describes the main parameters in the ADD RNCMG WTOPO command. TABLE 84 MAIN PARAMETERS IN THE ADD RNCMGWTOPO COMMAND Parameter Name
Parameter Description
Instruction It is a mandatory parameter ranging from 1 to 2048.
MGWID
MGW node ID
RANTYPE
Office type
RANID
RNC/BSC node number
It is the node ID specified during the MGW topological node configuration It is a mandatory parameter. Select BSC for BSC access. It is a mandatory parameter ranging from 1 to 2048. It is the node ID specified during the BSC topological node configuration.
Load Sharing Mode, including:
SHMODE
�
NONE (NOT Load Sharing)
�
BEARLOAD (Bear Load Sharing)
�
MBLOAD (MasterBackup Load Sharing)
Bearer Type 1, including: BTYPE1
BRATIO1
226
�
ATM (ATM)
�
IP (IP)
Bearer Type 1 Ratio
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The parameter is used to set the multiple load sharing modes, with a default of NONE
The parameter indicates the first bearer type, with a default of ATM The parameter is used to the set the proportion of the first bearer type, with a default of 1
Chapter 7 MSCS-Radio-Office Interconnection Data Configuration
Parameter Name
Parameter Description Bearer Type 2, including:
BTYPE2
BRATIO2
�
NONE (NONE)
�
ATM (ATM)
�
IP (IP)
Bearer Type 2 Ratio
Instruction
The parameter indicates the second bearer type, with a default of NONE
The parameter is used to the set the proportion of the second bearer type, with a default of 1 It is an optional parameter, ranging from 1 to 10.
BPER
Ratio of bearer from MGW to BSC
NAME
Alias
It is used for setting the traffic load-sharing ratio when the BSC accesses several MGWs. If the BSC only connects to one MGW, this parameter is set as 1 by default It is an optional parameter with a length ranging from 0 to 50 characters.
Example: Create the topology relationship between BSC and MGW with the following requirements. �
MGW node ID: 101
�
Office type: BSC
�
BSC node ID: 99.
The specific command is as follows. ADD RNCMGWTOPO:MGWID=101,RANTYPE=BSC,RANI D=99,SHMODE=NONE,BTYPE1=ATM,BRATIO1=1,BTYPE2 =NONE,BRATIO2=1,BPER=1; END OF STEPS
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Chapter
8
Basic Service Data Configuration Table of Contents Location Update Data Configuration ................................... 229 Call Data Configuration .................................................... 266
Location Update Data Configuration Access Configuration Overview When MSCS is interconnected with the RNC or BSC, the data related to the access should be configured on the MSCS side. The access configuration contains the following operations, as shown in Table 3. TABLE 3 ACCESS CONFIGURATION Steps
Operations
Instructions
Commands
1
Creating emergency call center
Create emergency call center
ADD ECC
2
Creating a special service phone group
Create different special-service attendant consoles
ADD SSPN
3
Creating special service phone called number analysis
Create the special service called number analysis
ADD TPDNAL
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Steps
4
5
Operations
Instructions
Commands
Creating a LAI controlled by the local office
Create the basic information for a Location Area ID (LAI) controlled by the BSC/RNC
ADD LAI
Creating an adjacent LAI
Create an adjacent LAI where handover services may occur
Creating a cell (only for the interconnection with the BSC)
When the BSC accesses the MSCS, it is required to create the global cell data.
ADD GCI
Creating a service area (only for the RNC interconnection)
During the RNC access, it is required to create the data for the service area.
ADD SAI
6
Creating Emergency Call Center Prerequisites
Context
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The MML Terminal window is opened.
The emergency call function does not analyze the emergency call number. After the subscriber dials a specified emergency call number in one location area, the core network will obtain the emergency call center index according to the location area where the emergency call is received. After that, it will find the corresponding number of the emergency call center number according to the the emergency call center index, and then analyze this number. This topic describes how to create emergency call center.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create emergency call center with the command ADD ECC. The explanation of the main parameters in command ADD ECC is shown in Table 85.
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TABLE 85 PARAMETERS IN THE ADD ECC COMMAND
Parameter Name
Parameter Description
Instruction
ECC
Emergency Call Center Number
It is a mandatory parameter, consisting of 1~32 digits
ECCIDX
Emergency Call Center Index
It is an optional parameter, which is an integer, ranging from 0 to 255
Emergency Call Service Type, including �
DFT: Default Emergency Call Center Number
�
POLICE: Police Emergency Call Center Number
�
AMBULANCE: Ambulance Emergency Call Center Number
SERVTYPE �
FIRE: Fire-fighting Emergency Call Center Number
�
MARINE: Marine Emergency Call Center Number
�
MOUTAIN: Mountain Area Emergency Call Center Number
It is an optional parameter with the default value DFT
Configuration Number Type, including �
UNKNOWN: Unknown
�
INTERNATIONAL: International
�
NATIONAL: National
�
SPECIAL: Special Number Of The Network
�
SHORT: Abbreviated Number
NAT
NAME
Alias
It is an optional parameter withe the default value UNKNOWN
It is an optional parameter, consisting of 0~50 characters
For example, create the emergency call center. The emergency call number is 112, the emergency call center index is 1, the emergency call service type is DFT, the configuration number
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type is international, and the alias is Emergency1. The command is as follows: ADD ECC:ECC="112",ECCIDX=1,SERVTYPE="DFT",NAT=I NTERNATIONAL,NAME="Emgergency1"; END OF STEPS
Creating a Special Service Phone Group Prerequisites
Context
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The MML Terminal window is opened.
In the case of the MSCS being connected with the BSC, when you dial a special-service number in different cells, it is required to convert this number to different numbers for connection. In the case of the MSCS being connected with the RNC, when you dial a special-service number in different service areas, it is also required to convert this number to different numbers for connection. Therefore, different special-service attendant consoles need to be configured.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a special service phone group with the command ADD SSPN. The explanation of the main parameters in command ADD SSPN is shown in Table 86. TABLE 86 PARAMETERS IN THE ADD SSPN COMMAND Parameter Name
232
Parameter Description
Instruction
SSPGID
Special Service Phone Group ID
It is a mandatory parameter, which is an integer, ranging form 1 to 65535. It is associated with the special-service phone group ID in the special-service group configuration, exclusively defines an attendant console together with the special-service number
SSPGNAME
Special Service Phone Group Name
It is an optional parameter, consisting of 0~50 characters. It is used to identify a special-service group
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Parameter Name
SSNUM 1
PNUM1
SSNUM 2
PNUM2
SSNUM 3
PNUM3
SSNUM 4
PNUM4
Parameter Description
Instruction
Special Service Number 1
It is a mandatory parameter, which is an integer, ranging form 1 to 2147483647. It is the special-service number, such as 114. It exclusively defines an attendant console together with the special-service traffic group ID
Phone Number 1
It is a mandatory parameter indicating the phone console number corresponding to the special service phone group ID and the special service number. It ranges from 0 to 40
Special Service Number 2
It is a mandatory parameter, which is an integer, ranging form 1 to 2147483647. It is the special-service number, such as 114. It exclusively defines an attendant console together with the special-service traffic group ID
Phone Number 2
It is a mandatory parameter indicating the phone console number corresponding to the special service phone group ID and the special service number. It ranges from 0 to 40
Special Service Number 3
It is a mandatory parameter, which is an integer, ranging form 1 to 2147483647. It is the special-service number, such as 114. It exclusively defines an attendant console together with the special-service traffic group ID
Phone Number 3
It is a mandatory parameter indicating the phone console number corresponding to the special service phone group ID and the special service number. It ranges from 0 to 40
Special Service Number 4
It is a mandatory parameter, which is an integer, ranging form 1 to 2147483647. It is the special-service number, such as 114. It exclusively defines an attendant console together with the special-service traffic group ID
Phone Number 4
It is a mandatory parameter indicating the phone console number corresponding to the special service phone group ID and the special service number. It ranges from 0 to 40
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Parameter Name
SSNUM 5
PNUM5
SSNUM 6
PNUM6
SSNUM 7
PNUM7
SSNUM 8
PNUM8
234
Parameter Description
Instruction
Special Service Number 5
It is a mandatory parameter, which is an integer, ranging form 1 to 2147483647. It is the special-service number, such as 114. It exclusively defines an attendant console together with the special-service traffic group ID
Phone Number 5
It is a mandatory parameter indicating the phone console number corresponding to the special service phone group ID and the special service number. It ranges from 0 to 40
Special Service Number 6
It is a mandatory parameter, which is an integer, ranging form 1 to 2147483647. It is the special-service number, such as 114. It exclusively defines an attendant console together with the special-service traffic group ID
Phone Number 6
It is a mandatory parameter indicating the phone console number corresponding to the special service phone group ID and the special service number. It ranges from 0 to 40
Special Service Number 7
It is a mandatory parameter, which is an integer, ranging form 1 to 2147483647. It is the special-service number, such as 114. It exclusively defines an attendant console together with the special-service traffic group ID
Phone Number 7
It is a mandatory parameter indicating the phone console number corresponding to the special service phone group ID and the special service number. It ranges from 0 to 40
Special Service Number 8
It is a mandatory parameter, which is an integer, ranging form 1 to 2147483647. It is the special-service number, such as 114. It exclusively defines an attendant console together with the special-service traffic group ID
Phone Number 8
It is a mandatory parameter indicating the phone console number corresponding to the special service phone group ID and the special service number. It ranges from 0 to 40
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Parameter Name
SSNUM 9
PNUM9
SSNUM 10
PNUM10
Parameter Description
Instruction
Special Service Number 9
It is a mandatory parameter, which is an integer, ranging form 1 to 2147483647. It is the special-service number, such as 114. It exclusively defines an attendant console together with the special-service traffic group ID
Phone Number 9
It is a mandatory parameter indicating the phone console number corresponding to the special service phone group ID and the special service number. It ranges from 0 to 40
Special Service Number 10
It is a mandatory parameter, which is an integer, ranging form 1 to 2147483647. It is the special-service number, such as 114. It exclusively defines an attendant console together with the special-service traffic group ID
Phone Number 10
It is a mandatory parameter indicating the phone console number corresponding to the special service phone group ID and the special service number. It ranges from 0 to 40
For example, create the special service phone group. The Special service phone group ID is 1, the special service number is 110, the phone number is 0086251100 and the special service phone group name is SSPN1. The command is as follows: ADD SSPN:SSPGID=1,SSPGNAME="SSPN1",SSNUM1=11 0,PNUM1="0086251100"; END OF STEPS
Creating the Special Service Phone Called Number Analysis Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The number analyzer entry is created.
�
The special service phone group is created.
�
The MML Terminal window is opened.
Context
This topic details how to create the special service called number analysis.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured.
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Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Analyze the prefix of a called number by executing command ADD TPDNAL. The explanation of the main parameters in command ADD TPDNAL is shown inTable 87 TABLE 87 PARAMETERS IN THE ADD TPDNAL COMMAND Parameter Name
ENTR
DIGIT
Parameter Description
Instructions
Number analyzer entry
It is a mandatory parameter, which is an integer, ranging from 1 to 1000. Select the corresponding analyzer entry of the analyzed number prefix. For local calls, select the corresponding analyzer entry of the local number analyzer
Analyzed number
It is a mandatory parameter, consisting of 0~20 digits. Input the prefix of the called number, whose length must make it be distinguished in the local office. For intra-office calls, it is required to configure both the prefix of the called number and that of the local-office roaming number It is an optional parameter, consisting of 0~50 characters. It is used to specifically describe the called number analysis to make it easily recognized
NAME
User alias
CAT
Call service types
It is an optional parameter, select LSFR (Free Special Service Of The Current Office)
RST1
Number analysis result 1
Type the special service number configured in ADD SSPN
For example, create the special service called number analysis with the following requirements:
236
�
Number analyzer entry: 1
�
User alias: SS1
�
Analyzed number: 110
�
Call service types: LSFR
�
Number analysis result 1 :110
�
Other parameters: Use default
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The specific command is as follows. ADD TPDNAL:ENTR=1,DIGIT="110",NAME="SS1",SPEC RST=0,SPECIDX=0,CAT=LSFR,RST1=110,RST2=0,RST3 =0,CHAINAL=0,RNLEN=0,MINLEN=3,MAXLEN=20,OVLY PRI=NO,REL=NO,NET=1,NAT=DEF,OPDDICONT=NO,TP DDICONT=NO,OPDDI=0,TPDDI=0,OPDLYDDI=0,TPDLY DDI=0,DDIOVERB=0,IWVIDEO=LSUP,TIMELMT=0,AUX DAS=0,A6=0,PFXLEN=0,INSRV=INM,FAXIDX=0,AVIDX =0,DVIDX=0,ADATAIDX=0,DDATAIDX=0,DDCPLAY=NO NE,VAD=INVALID,CALLSERVPRILVL=INVALID,RERTS=0,I NCHAIN=NO,BICT=NO,ICT=0,ICTT=10,GNM=NORMAL,S TBILL=INVALID,HOPDAS=0,MCA=NO,IVVR=NO,WANTL =0,IMSCENTR=NO; END OF STEPS
Creating a LAI Controlled by the Local Office Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The RNC/BSC office direction attributes are configured.
�
The LAI range is set in the Resource Management system.
�
The MML Terminal window is opened.
Context
This section introduces how to configure the basic information for a Location Area ID (LAI) controlled by the BSC/RNC.
Steps
1. If no exchange is specified, execute the command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS 11 from the system tree. SET:NEID=11; 2. Create a LAI controlled by the local office by executing command ADD LAI. The explanation of the main parameters in command ADD LAI is shown inTable 88. TABLE 88 PARAMETERS IN THE ADD LAI COMMAND Parameter Name
Parameter Description
Instruction
LAC
Location area code (HEX)
It is a mandatory parameter, consisting of 4 HEX digits. It should be consistent with that of the RNC/BSC side
Alias
It is an optional parameter, consisting of 1~50 characters. It is used to describe the LAI, such as “Adjacent BSC/RNC office name-LAI”
NAME
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Parameter Name
Parameter Description
Instruction
Location area ID
It is an optional parameter. It is used to define a LAI in the system, ranging from 1~65534. If there is no special requirements, enter the LAI in the cell of the BSC/RNC connected with the MSCS
Virtual MSC index
It is an optional parameter. It indicates whether the BSC/RNC connected with the MSCS accesses the MSCS through the public domain. If the BSC/RNC accesses the MSCS through the public domain, enter 0. Otherwise, enter the index of the connected virtual MSC
MCC
Mobile Country Code
It is an optional parameter, consisting of 0~3 digits. Enter it according to the actual condition, such as 460 for China
MNC
Mobile Network Code
It is an optional parameter. Enter the corresponding MNC of this LAI
MSC number.
It indicates which MSC the accessed RNC/BSC belongs to. It is an optional parameter, consisting of 0~16 digits. At present, in the network management system in the default case, if the accessed RNC/BSC is controlled by the local office (i.e., the BELONG field is MSC), no MSC number needs to be entered. If VMSCIDX is 0, the system directly adopts the MSC number from the local-office mobile data. If VMSCIDX is not 0, the system directly adopts the corresponding virtual MSC number from the virtual MSC configuration. If the accessed RNC/BSC is not controlled by the local office, this parameter needs to be entered
ID
VMSCIDX
MSC
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Parameter Name
VLR
LOCNUM
ECCIDX
BSC
RNC
TPDAS
Parameter Description
Instruction
VLR number
It indicates which VLR the accessed RNC/BSC belongs to. It is an optional parameter, consisting of 0~16 digits. At present, in the network management system in the default case, if the accessed RNC/BSC is controlled by the local office (i.e., the BELONG field is MSC), no VLR number needs to be entered. If VMSCIDX is 0, the system directly adopts the VLR number from the local-office mobile data. If VMSCIDX is not 0, the system directly adopts the corresponding virtual VLR number from the virtual MSC configuration. If the accessed RNC/BSC is not controlled by the local office, this parameter needs to be entered
Location number
It is an optional parameter. The VLR brings the location number to the HLR during PROVIDE-SUBSCRIBERLOCATION procedures. Enter country code + area code, such as 8625 for Nanjing in China
Emergency call index
It is an optional parameter. Select a configured emergency call index. If no emergency call index is configured, select 0
BSC ID in the LAI
It is an optional parameter. Enter one or more adjacent BSC office IDs managing this LAI. In case of the RAN accessing the MSCS, there is no need to configure this parameter
RNC ID in the LAI
It is an optional parameter. Enter one or more adjacent RNC office IDs managing this LAI. In case of the BSC accessing the MSCS, there is no need to configure this parameter
DAS for the called number
It is an optional parameter. Enter the originating DAS 101 from the number analysis configuration. If no DAS is configured, enter 0 at first and then modify it
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Parameter Name
Parameter Description
Instruction
Belonging to, including
BELONG
�
NO_MSC(not belong to local MSC Server domain)
�
MSC (belong to local MSC Server domain)
�
DATTR (belong to double home domain)
It is an optional parameter, with MSC as the default value. If this LAI is managed by the local office, select MSC. Otherwise, select NO_MSC. In this case, it is required to enter the MSC number and VLR number where this LAI belongs to. IF this LAI is managed by a dual-homing domain, select DATTR
Location area attribute, including: LAIATTR
ATTBILL (Produce attempt call bill)
�
NONE (none)
It is an optional parameter
WDMID
Work domain index
It is an optional parameter, with 0 as the default value. In case of dual-homing networking, enter the dual-homing work domain index ranging from 0 to 255
UPVER
UP mode version of MSC-B
It is an optional parameter indicating the version No. of the MSC user plane where the location area exists
R5HOCASE
GSMSSPGID
240
�
Support HO Case of Version R5, including: �
NO
�
YES
GSM Special Service Phone Group ID
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It is an optional parameter and the default value is NO. It configures whether the local LAI supports the R5 handover. During 3G-to-2G handover, determine the transform mode for the handover and ensure the compatibility of the version according to the configuration. That is to say, when the option is YES, the handover is done according to the handover reason defined in R5 version. If the option is NO, the handover is done according to the handover reason defined in R4 version It is an optional parameter ranging from 0 to 65535 and it is defined by the command ADD SSPN
Chapter 8 Basic Service Data Configuration
Parameter Name
Parameter Description
Instruction
UMTSSSPGID
UMTS Special Service Phone Group ID
It is an optional parameter ranging from 0 to 65535. It is defined by the command ADD SSPN
Extend Info, including: EXTINFO
NONBCLAI (Non-Broadcast LAI in POOL)
It is an optional parameter. For the non-broadcast LAI in POOL, the value is Null
For example, create BSC location area with the following requirements. �
Location area code: 12FB
�
Location area identity: 201
�
User alias: BSC-12FB
�
Mobile country code: 460
�
Mobile network code: 00
�
Location number: 8625
�
BSC ID in LAI: 99
�
DAS for the called number: 1
�
Other parameters: use default
The command is as follows: ADD LAI:LAC="12FB",NAME="BSC-12FB",ID=201,MCC="4 60",MNC="00",LOCNUM="8625",ECCIDX=1,BSC="99",R NC="0",TPDAS=1,BELONG=NO_MSC,WDMID=0,UPVER =1,R5HOCASE=NO,GSMSSPGID=1,UMTSSSPGID=0,PAG EIDX=0,ASSTIMER=0; END OF STEPS
Creating an Adjacent LAI Prerequisites
Context
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The LAI range is set in the Resource Management system.
�
The MML Terminal window is opened.
This section introduces how to create an adjacent LAI where handover services may occur. When a handover occurs, the handover request message carries the target cell. The MSCSERVER needs to get the MSCNUM according to the LAI in the message, and judge whether the handover occurs within the local office. When the corresponding MSC number of the LAI is different with the local MSC number, it is required to initiates an inter-office handover to other MSC. Therefore, it is
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required to configure the number of the home MSC/VLR of the adjacent LAI belongs. Steps
1. If no exchange is specified, execute the command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS 11 from the system tree. SET:NEID=11; 2. Create an adjacent LAI by executing command ADD LAI. The explanation of the main parameters in command ADD LAI is shown in Table 89. TABLE 89 PARAMETERS IN THE ADD LAI COMMAND Parameter Name
Parameter Description
Instructions
LAC
Location area code (HEX)
It is a mandatory parameter. It consists of 4 HEX digits. It should be consistent with that of the RNC/BSC side
Alias
It is an optional parameter, consisting of 1~50 characters. It is used to describe the LAI, such as “Adjacent BSC/RNC office name-LAI”
Location area ID
It is an optional parameter. It is used to define a LAI in the system, ranging from 1~65534. If there is no special requirements, enter the LAI in the cell of the BSC/RNC connected with the MSCS
Virtual MSC Index
It is an optional parameter. It indicates whether the BSC/RNC connected with the MSCS accesses the MSCS through the public domain. If the BSC/RNC accesses the MSCS through the public domain, enter 0. Otherwise, enter the index of the connected virtual MSC
Mobile Country Code
It is an optional parameter, consisting of 0~3 digits. Enter it according to the actual condition, such as 460 for China
Mobile Network Code
It is an optional parameter. Enter the corresponding MNC of this LAI, such as 00 for China Mobile, and 01 for China Unicom
NAME
ID
VMSCIDX
MCC
MNC
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Parameter Name
MSC
VLR
LOCNUM
Parameter Description
Instructions
MSC number
It indicates which MSC the accessed RNC/BSC belongs to. It is an optional parameter, consisting of 0~16 digits. At present, in the network management system in the default case, if the connected RNC/BSC is controlled by the local office (i.e., the BELONG field is MSC), no MSC number needs to be entered. If VMSCIDX is 0, the system directly adopts the MSC number from the local-office mobile data. If VMSCIDX is not 0, the system directly adopts the corresponding virtual MSC number from the virtual MSC configuration. If the accessed RNC/BSC is not controlled by the local office, this parameter needs to be entered. When configuring the adjacent LAI, enter the corresponding MSC GT of the adjacent LAI
VLR number
It indicates which VLR the accessed RNC/BSC belongs to. It is an optional parameter, consisting of 0~16 digits. At present, in the network management system in the default case, if the accessed RNC/BSC is controlled by the local office (i.e., the BELONG field is MSC), no VLR number needs to be entered. If VMSCIDX is 0, the system directly adopts the VLR number from the local-office mobile data. If VMSCIDX is not 0, the system directly adopts the corresponding virtual VLR number from the virtual MSC configuration. If the accessed RNC/BSC is not controlled by the local office, this parameter needs to be entered. When configuring the adjacent LAI, enter the corresponding VLR GT of the adjacent LAI
Location number
It is an optional parameter. The VLR brings the location number to the HLR during PROVIDE-SUBSCRIBERLOCATION procedures. Enter country code + area code, such as 8625 for Nanjing in China
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Parameter Name
Parameter Description
Instructions
Belonging, including
BELONG
�
NO_MSC(not belong to local MSC Server domain)
�
MSC (belong to local MSC Server domain)
�
DATTR (belong to double home domain)
It is an optional parameter, with MSC as the default value. If this LAI is managed by the local office, select MSC. Otherwise, select NO_MSC. In this case, it is required to enter the MSC number and VLR number where this LAI belongs to. IF this LAI is managed by a dual-homing domain, select DATTR
Location area attribute, including: LAIATTR
ATTBILL (Produce attempt call bill)
�
NONE (none)
It is an optional parameter
WDMID
Work domain index
It is an optional parameter, with 0 as the default value. In case of dual-homing networking, enter the dual-homing work domain index ranging from 0 to 255
UPVER
UP mode version of MSC-B
It is an optional parameter indicating the version No. of the MSC user plane where the location area exists
R5HOCASE
GSMSSPGID
244
�
Support HO Case of Version R5, including: �
NO
�
YES
GSM Special Service Phone Group ID
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It is an optional parameter and the default value is NO. It configures whether the local LAI supports the R5 handover. During 3G-to-2G handover, determine the transform mode for the handover and ensure the compatibility of the version according to the configuration. That is to say, when the option is YES, the handover is done according to the handover reason defined in R5 version. If the option is NO, the handover is done according to the handover reason defined in R4 version It is an optional parameter ranging from 0 to 65535 and it is defined by the command ADD SSPN
Chapter 8 Basic Service Data Configuration
Parameter Name
Parameter Description
Instructions
UMTSSSPGID
UMTS Special Service Phone Group ID
It is an optional parameter ranging from 0 to 65535. It is defined by the command ADD SSPN
Extend Info, including: EXTINFO
NONBCLAI (Non-Broadcast LAI in POOL)
It is an optional parameter. For the non-broadcast LAI in POOL, the value is Null
For example, create the BSC location area with the following requirements. �
Location area code: 1111
�
Location area identity: 301
�
User alias: BSC-1111
�
Mobile country code: 460
�
Mobile network code: 01
�
Location number: 8625
�
VLR number: 8613954353
�
Belong type: NO_MSC
�
Other parameters: use default
The command is as follows: ADD LAI:LAC="1111",NAME="BSC-1111",ID=301,MCC="4 60",MNC="01",MSC="8613954353",VLR="8613954353",LO CNUM="8625",ECCIDX=0,BSC="0",RNC="0",TPDAS=0,BE LONG=NO_MSC,WDMID=0,UPVER=1,R5HOCASE=NO,GS MSSPGID=0,UMTSSSPGID=0,PAGEIDX=0,ASSTIMER=0; END OF STEPS
Creating a Global Cell Prerequisites
Context
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The DAS for the called number is configured.
�
The BSC LAI is configured.
�
The MML Terminal window is opened.
When the BSC accesses the MSCS, it is required to configure the global cell data. When a GSM handover occurs, the handoveroriginated office (intra/inter-office handover) needs to know the home BSC of the handover-terminated cell, so that it can initiates a handover request to the BSC.
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Steps
1. If no exchange is specified, execute the command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS 11 from the system tree. SET:NEID=11; 2. Create a global cell by executing command ADD GCI. The explanation of the main parameters in command ADD GCI is shown in Table 90. TABLE 90 PARAMETERS IN THE ADD GCI COMMAND Parameter Name
Parameter Description
Instructions
Location area ID
It is a mandatory parameter, ranging 1 to 65534. Select the home LAI of the cell from the list of configured LAIs
Cell Identity (hex)
It is an optional parameter composed of GCIBEGIN (Cell Identity Begin) and GCIEND (Cell Identity End). The format of it is CIB-CIE. Configure it according to the real conditions. It should be consistent with that of the BSC side
TPDAS
Called Number Selector
It is an optional parameter. It ranges from 0 to 4096, with a default of 0. It may not be configured here. During the call data configuration, it could be modified and the referred value is the number analysis selector in the number analysis configuration
BSC
BSC Office
It is an optional parameter, ranging from 0 to 3000. Select the BSC office that manages this cell
LAIID
GCI
Cell Attribute, including GCIATTR
NONE (none)
It is a mandatory parameter
ATTBILL (produce attempt call bill)
246
NAME
Alias
It is an optional parameter, consisting of 0~50 characters
SSPGID
Special service phone group ID
It is an optional parameter ranging from 0 to 65535. It is defined by the command ADD SSPN
VMSCIDX
Virtual MSC Index
It is an optional parameter. It ranges from 0 to 65535. If 0 is selected, it represents public domain, if 0 is not selected,
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Parameter Name
Parameter Description
Instructions the virtual MSC index should be entered.
ECCIDX
Emergency index
call
It is an optional parameter ranging from 0 to 65535.
For example, create the global cell with the following requirements. �
Location area ID: 201
�
Called number selector: 101
�
Cell identity (Hex): 1111-1111
�
BSC office ID: 99
�
Alias: GCI1
�
Special service phone group ID: 1
�
Emergency call index: 1
�
Other parameters: adopt the default value.
The command is as follows. ADD GCI:LAIID=201,GCI="1111"-"1111",TPDAS=1,BSC =99,NAME="GCI1",SSPGID=1,ECCIDX=1; END OF STEPS
Creating a Service Area Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The RNC LAI is created.
�
The MML Terminal window is opened.
Context
During the RNC access, it is required to configure the data for the service area.
Steps
1. If the exchange is not specified, execute the command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS 11 from the system tree. SET:NEID=11; 2. Create a service area with the command ADD SAI. The parameter description of the command ADD SAI is shown in Table 91.
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TABLE 91 PARAMETERS IN THE ADD SAI COMMAND Parameter Name
Parameter Description
LAIID
Location Area ID
It is a mandatory parameter ranging from 1 to 65534. Select the home LAI of the cell from the list of the configured LAIs
SAC
Service Area Code (hex)
It is a mandatory parameter composed of SACB (Service Area Code Begin) and SACE (Service Area Code End). The format is SACB-SACE. Configure it according to the real conditions. It should be consistent with that of the RNC side
RNC
RNC Office
It is an optional parameter ranging from 0 to 2048. Select the RNC office that manages this service area
NAME
Alias
It is an optional parameter ranging from 0 to 50 characters
SSPGID
Special Service Phone Group
It is an optional parameter ranging from 0 to 65535 and it is defined by the command ADD SSPN
VMSCIDX
Virtual Index
It is an optional parameter ranging from 0 to 65535. If 0 is selected, it means the common domain. If it is not 0, enter the accessed virtual MSC index No.
ECCIDX
Emergency call index
MSC
Instructions
It is an optional parameter ranging from 0 to 65535.
For example, create a service area identity with the following requirements. The is 201, the , and the is 100. For the other parameters, select the default value. The command is as follows: �
Location area ID: 201
�
Service area code: 0000
�
RNC office ID: 100
�
Alias: SAI1
�
Special service phone group: 1
�
Emergency call index: 1
�
Other parameters: use default
The command is as follows: ADD SAI:LAIID=201,SAC="0000"-"0000",RNC=100,NAME ="SAI1",SSPGID=1,ECCIDX=1; END OF STEPS
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SCCP Data Configuration Overview Description
The SCCP data configuration is used to provide the routing service for the SCCP. In the R4 system, the MAP signaling between the MSCS/VLR and entities (such as HLR) in the network is transferred through the SCCP. Each entity can be directly connected with each other, and also can be connected with each other through STPs. When receiving messages from the MAP application layer, the SCCP will send, receive and forward these messages according to the route labels carried in the messages. The SCCP has two routing modes: GT and DPC +SSN. The difference between the GT and the DPC+SSN routing modes is manifested in the case where there are STPs in the source signaling point and the destination signaling point. In the DPC+SSN routing mode, it is required that all the signaling points (including the source signaling point, destination signaling point, and STP) in the network can identify the Destination signaling Point Code (DPC). The signaling is directly sent from the MTP layer after reaching the intermediate point instead of passing the SCCP layer. In this case, more DPC data need to be configured for the source signaling point and the STP. The GT routing mode can be used when the final DPC of the signaling is unknown to the source signaling point and part of STPs. When this addressing mode is adopted, and when the signaling is transferred to the STP, the SCCP translates the GT to the destination signaling point or the DPC of the next-hop STP, and then sends the message to the MTP for transfer. When the GT routing mode is adopted, the source signaling point only needs to send the signaling to the STP of the next-hop GT translation according to the GT number prefix, and then the STP determines whether to send the signaling to the next STP or the destination signaling point . In this case, less DPC data need to be configured for the source signaling point and the STP.
Data Configuration
The related operations of the SCCP data configuration are as follows. No.
1
2
Operations
Instructions
Commands
Createing a GT translation selector
In general, one or two GT translation selectors are configured, corresponding to E164 and E214 numbering plans respectively
ADD GTT
Creating GT translation data
Create the GT translation data for the source address and the destination address
ADD GT
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No.
Operations
Instructions
Commands
of the signaling on each end point or transfer point.
Creating a GT Translation Selector Prerequisites
Context
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
Interconnection with the adjacent HLR office is completed, and the signaling office direction is successfully debugged.
�
The MML Terminal window is opened.
In general, one or two GT translation selectors are configured, corresponding to E164 and E214 numbering plans respectively. The numbers to be configured are described as follows: 1. E214 number The format of the E.212 number is “MCC+MNC+MSIN”, while that of the E.214 number is “CC+NDC+MSIN”, which are used for location registration of mobile subscribers. It is usually required to convert the “MCC+MNC” part to “CC+NDC” according to mobile number analysis, to construct the format of the E214 number. 2. E164 number The format of the E.164 number is “MSISDN”, which is used for communication when the mobile subscriber acts as the called party, and the communication between mobile NEs. During the location update debugging procedure, it is only required to configure the MSC/VLR GT and HLR GT of the local office.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a GT translation selector by executing command ADD GTT. The explanation of the main parameters in command ADD GTT is shown in Table 92.
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TABLE 92 PARAMETERS IN THE ADD GTT COMMAND Parameter Name
GTT
TT
Parameter Description
Instruction
GT type
It is a mandatory parameter, raging from 1 to 4. When it is 1, the GT contains address attributes. When it is 2, the GT contains translation type. When it is 3, the GT contains translation type, numbering plan, and coding design. When it is 4, the GT contains translation type, numbering plan, coding design, and address attributes. GT4 is selected by default
Translation type
It is a mandatory parameter, ranging from 0 to 255. It is the translation type of the GT number, with the default value as 0
Numbering plan, including
PLAN
�
NULL (idle)
�
E.164 (ISDN/phone numbering plan)
�
E.214 (ISDN/mobile numbering plan)
�
X.121 (Data numbering plan)
�
F.69 (Telex numbering plan)
�
E.210(Maritime mobile numbering plan)
�
E.212 (Land mobile numbering plan)
�
Reserved(2), Reserved(8)Reserved (255): Reserved
It is a mandatory parameter. Select E.164 for the E164 format, and select E.214 for the E214 format. For example, if the mobile number is analyzed as HLR, select E.164 for GT analysis of this number. If the mobile number is analyzed as ISDN, select E.214 for GT analysis of this number
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Parameter Name
Parameter Description
Instruction
Address attribute, including
NATURE
SUB (address attributes is subscriber number)
�
INT (address attributes is international number)
�
NATRSV (address attributes is national reserved number)
�
NATSIGN (address attributes is national valid number)
�
INAPSCP (SCP standby)
�
CAMEL (address attributes is intelligent network service number)
�
VACANT0, VACANT7 VACANT255: vacancy
It is a mandatory parameter. Select INT
ID
GT translation selector
It is an optional parameter, ranging from 0 to 1023. It is the global number of the GT translation selector
CC
Country code
It is an optional parameter, consisting of 0~4 digits. It is 86 in China
National minimum digit length
They are optional parameters, which are integers, ranging from 1 to 20. They respectively correspond to the national minimum GT number length, and national maximum GT number length configured in the GT translation data configuration. In general, the national minimum digit length is set to 5, while the national maximum digit length is set to 15
NMIN
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�
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Parameter Name
Parameter Description
NMAX
National maximum bit length
IMIN
International minimum digit length
IMAX
International maximum digit length
CTRL
GT translation attributes, including R_L (intercepting digits from the number to be analyzed from right to left for alignment, corresponding to the maximum matching policy), and L_R ((intercepting digits from the number to be analyzed from left to right for alignment, corresponding to the minimum matching policy)
Instruction
They are optional parameters, which are integers, ranging from 1 to 20. They respectively correspond to the international minimum GT number length, and international maximum GT number length configured in the GT translation data configuration. In general, the international minimum digit length is set to 1, while the international maximum digit length is set to 5
It is an optional parameter, with the default choice as R_L. Maximum Matching means match the number from right to left. When analyzing a GT number, search the matched options with the maximum length. GT numbers are analyzed in the descending order of their lengths, facilitating reducing the workload of GT data configuration
It is a mandatory parameter, consisting of 1~50 characters. NAME
User alias
It is used to identify a GT translation selector to make it easily recognized
Example: Create a GT translation selector with the following requirements: �
GT type: 4
�
Translation type: 0
�
Numbering plan: E.164
�
Address attribute: international number
�
GT translation selector: 1
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�
National minimum digit length: 5
�
National maximum digit length: 15
�
International minimum digit length: 1
�
International maximum digit length: 5
�
User alias: E.164.
The command is: ADD GTT:GTT=4,TT=0,PLAN=E.164,NATURE=INT,GTTO PT=0,ID=1,CC="86",NMIN=5,NMAX=15,IMIN=1,IMAX =5,CTRL=R_L,NAME="E.164"; Example: Create a GT translation selector with the following requirements: �
GT type: 4
�
Translation type: 0
�
Numbering plan: E.214
�
Address attribute: international number
�
GT translation selector: 2
�
National minimum digit length: 5
�
National maximum digit length: 15
�
International minimum digit length: 1
�
International maximum digit length: 5
�
User alias: E.214.
The command is: ADD GTT:GTT=4,TT=0,PLAN=E.214,NATURE=INT,GTTO PT=0,ID=2,CC="86",NMIN=5,NMAX=15,IMIN=1,IMAX =5,CTRL=R_L,NAME="E.214"; END OF STEPS
Creating GT Translation Data Prerequisites
Context
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
GT translation selectors are configured.
�
The MML Terminal window is opened.
The GT translation data are used for location update, calls and inter-office handover. When configuring GT translation data, it is required to add the GT translation data for the source address and the destination address of the signaling on each end point or transfer point. When configuring location update data, it is required to translate the local GT number to the office ID 0, that is, local office, and translate the GT number of the HLR to the HLR or STP. Therefore, it is required to configure at lease two sets of GT translation data on the MSCS.
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E164 number: It is required to configure the local MSC/VLR GT, MSISDN number, and the MSC/VLR GT having the LAI adjacency relationship. E214 number: It is required to configure the corresponding number in E214 format (CC+NDC+MSISDN) of the IMSI number (E212 format: MCC+NDC+MSISDN). Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create GT translation data by executing command ADD GT. The explanation of the main parameters in command ADD GT is shown in Table 93. TABLE 93 PARAMETERS IN THE ADD GT COMMAND Parameter Name
GT
OPGT
GTSL
Parameter Description
Instruction
Called GT number
It is a mandatory parameter, consisting of 1~20 digits. It is used to query the destination GT number of message routing
Calling GT number
It is an optional parameter, consisting of 0~20 digits. It is the number of the virtual MSC where the subscriber is located during GT translation. During GT routing, query where there are matched data according to the VMSC where the subscriber is located and the target GT number. If there are matched data, perform GT translation based on the matched data. If there is no matched data, perform translation again based on that the calling GT number is 0
GT translation selector
It is a mandatory parameter, ranging from 0 to 1023. Select the GT translation selector respectively according to configured E164 and E214 numbers
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Parameter Name
Parameter Description
Instruction
Number change ID
It ranges from 0 to 256, with the default value as 0. It is the ID of flexible policy template change. The target GT number can be flexibly changed based on it. When the GT translation result contains a new GT, this parameter does not take effect
OFCIDS
Office ID and poll list
It is a mandatory parameter. The number of instance is 1~4 when office ID grouping is supported. The number of instance is 1~16 when office ID grouping is not supported. The format is -, representing the office ID to be polled and the number of poll respectively.
GRP
Whether to support grouping of office ID
It is an optional parameter, with a default of NO
The office ID and poll number of the multiple signaling points for the second group
It is an optional parameter. The number of instance is 1~4 when office ID grouping is supported. The user does not need to type when the office ID grouping is supported. The format is -, representing the office ID to be polled and the number of poll respectively.
The office ID and poll number of the multiple signaling points for the third group
It is an optional parameter. The number of instance is 1~4 when office ID grouping is supported. The user does not need to type when the office ID grouping is supported. The format is -, representing the office ID to be polled and the number of poll respectively.
The office ID and poll number of the multiple signaling points for the fourth group
It is an optional parameter. The number of instance is 1~4 when office ID grouping is supported. The user does not need to type when the office ID grouping is supported. The format is -, representing the office ID to be polled and the number of poll respectively.
GTDI
OFCGRP2
OFCGRP3
OFCGRP34
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Parameter Name
Parameter Description
Instruction
SSN
Subsystem No. Refer to Table 94 for the options involved
It is an optional parameter. In the GT routing mode, select the default value for SSN. In the DPC+SSN routing mode, select the corresponding SSN
NGT
New GT number
It is an optional parameter, ranging from 0 to 20 of characters. It represents the new GT translation type.
NTRNTYPE
New GT translation type
It is an optional parameter, ranging from 0 to 255. It represents the new GT translation type.
TRNRLT
Whether the translation result contains DPC and SSN. The options includes NULL (neither DPC nor SSN is in the result), DPC (containing DPC in the result), and SSN (containing SSN in the result)
It is an optional parameter. In the GT routing mode, select the default value for TRNRLT. In the DPC+SSN routing mode, select the DPC and SSN for TRNRLT
RTTYPE
Routing mode, including GT (routing based on GT) and DPC (routing based on DPC+SSN)
It is an optional parameter. In general, select GT for direct connection, and DPC+SSN for non-direct connection
Attribute of the new GT , including the following options: NGT (No new GT in the GT translation result): The GT number in the GT translation result is still the called GT number. NGTTAG
NAI: The GT number in the GT translation result is the new GT number in the NGT parameter, only containing Nature Of Address Indicator (NAI).
It is an optional parameter. It is the attribute of the new GT contained in the GT translation result. NGT(No new GT in the GT translation result) is selected by default
NTT: The GT number in the GT translation result is the new GT number in the NGT parameter, only containing translation type.
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Parameter Name
Parameter Description
Instruction
NTTES: The GT number in the GT translation result is the new GT number in the NGT parameter, only containing translation type, numbering plan, and coding design. NTTNAI: The GT number in the GT translation result is the new GT number in the NGT parameter, containing translation type, numbering plan, coding design, and NAI SCCP coding type, including: SCCP
INT (international coding) and USA(USA coding)
It is an optional parameter. It indicates the standard type referred to by the SCCP coding in the GT translation result. The default value is INT
VGT
GT varying with different office IDs, including NO (not supported), and YES (supported)
It is an optional parameter, with NO as the default value
TT
TT conversion, including NO (not supported), and YES (supported)
It is an optional parameter, with NO as the default value
NAME
Alias
The alias of the GT translation data for easy memory.
TABLE 94 SSN
258
SSN
Meaning
NO_SSN
Not containing SSN
SCCP
SCCP
ISUP
ISDN user part
OMAP
Operation and maintenance application part
MAP
Mobile user part
HLR
Home location register
VLR
Visitor location register
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SSN
Meaning
MSC
Mobile switching center
EIR
Equipment identity register
AUC
Authentication center
ISDN/ASE
ISDN_ASE(11)
INAP/OTA
INAP/OTA subsystem
USSD
USSD
VLRA
VLRA
SGSN_BSCAP
SGSN BSCAP
RANAP
RANAP
RNSAP
RNSAP
GMLC_MAP
GMLC MAP
CAP
CAP
GSMSCF_MAP
GSMSCF MAP
SIWF_MAP
SIWF MAP
SGSN_MAP
SGSN MAP
GGSN_MAP
GGSN MAP
IP
IP
SMC
SMC subsystem
SSP_SCP
SSPSCP subsystem
BSC_BSSAP_LE/MPC
BSC_BSSAP_LE/MPC
MSC_BSSAP_LE
MSC_BSSAP_LE
SMLC_BSSAP_LE
SMLC_BSSAP_LE
BSS_O_M_A
BSS_O_M_A
BSSAP_A
BSSAP_A
NPDB
NPDB
ATER
ATER
UDS_DMCC
UDS_DMCC
Other Reserved
Reserved
Example: Create the HLR GT translation data with the following requirements:
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�
GT number: 8613907551
�
GT translation selector ID: 1
�
Office ID poll: 1-1
�
Routing mode: GT routing
�
Other parameters: Adopt default values.
The command is: ADD GT:GT="8613907551",OPGT="1",GTSL=0,GTDI=0,O FCIDS="1"-"1",GRP=NO,SSN=NO_SSN,NTRNTYPE=0,TR NRLT="NULL",RTTYPE=GT,NGTTAG=NGT,SCCP=INT,VGT =NO,TT=NO,NPFLAG=NO,NPLAN=NULL,SRVTYPE=NULL; END OF STEPS
Roaming Data Configuration Overview Description
Data Configuration
The following conditions can judge whether a subscriber is roaming: �
Whether the subscriber roams from one country to another one: Based on the MCC, compare the MCC configured in the local-office mobile data configuration.
�
Whether the subscriber roams from one network to another one: Based on the MNC, compare the MNC configured in the local-office mobile data configuration, and the MNCs configured in the local-office other-MNC configuration.
�
Whether the subscriber roams within a LAI: Based on the number in the IMSI excluding the MCC and MNC, compare the location number configured in the LAI configuration, and the area code configured in the mobile-network area-code configuration.
The related operations of the roaming data configuration are as follows. Steps
260
Operations
Instructions
Commands
1
Creating IMSI number analysis
IMSI number analysis is used to convert the IMSI number to another number or a number that can address the HLR
ADD IMSI ANA
2
Creating a mobile service access number and MNC
Configure the relationship between a mobile service
ADD NDCMNC
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Steps
Operations
Instructions
Commands
access number and a MNC for inter-network roaming
Creating a mobile network ID and area code mapping
3
Configure the relationship between a mobile network ID and a area code to judge whether a subscribers is roaming
ADD NCCFG
Creating IMSI Number Analysis Prerequisites
Context
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The MML Terminal window is opened.
IMSI number analysis is used to convert the IMSI number to a number that can address the HLR. The VLRMAP performs GT translation through this number to address the HLR where the IMSI is registered. Create IMSI number analysis according to the roaming data provided by operators, usually configuring the local-network and international roaming data. Background In IMSI number analysis, it is required to set the “home destination code type”, which can be “ISDN” or “HLR”. 1. ISDN The corresponding number prefix in the IMSI is converted into the specified analysis result, and the rest digits are added behind the analysis result. For example, if the analyzed number is 46000, it is converted to 86139, the network-admitted IMSI number is 460001234567890, the corresponding Country Code (CC) is 86, and the Network Destination Code (NDC) is 139. In this mode, this IMSI number is analyzed into 86139123456789046000. Based on this, the typical application of this mode is to convert the MCC+MNC in the IMSI into the CC+NDC, and keep the rest part, forming the E214 number format. 2. HLR The corresponding number prefix in the IMSI is converted into the specified analysis result, and the rest digits are deleted. For example, if the analyzed number is 46000, it is converted to the GT number 8613903066 of the HLR, and the network-admitted IMSI number is 460001234567890. In this mode, this IMSI number is analyzed to 8613903066, that is the GT number of the HLR. Based on this, the typical application of this mode is to convert the IMSI headed by specific MCC+MNC into the GT number of a HLR.
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Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Creating IMSI number analysis by executing command ADD IMSIANA. The explanation of the main parameters in command ADD IMSIANA is shown in Table 95. TABLE 95 PARAMETERS IN THE ADD IMSIANA COMMAND Parameter Name
IMSI
HDSTCODE
Parameter Description
Instruction
IMSI prefix
It is a mandatory parameter, consisting of 20-digit integers at most. It is the MCC+MNC in the IMSI
Home destination code
It is a mandatory parameter, consisting of 16-digit integers at most. It is the number that the IMSI number is converted to. It is of the format of “CC+NDC” or the HLR GT number in general It is an optional parameter. HLR: When there is a specific HLR number, select HLR
262
HDSTCODET
Home destination code type, including ISDN and HLR
NAME
Alias
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ISDN: The MAP makes the analyzed home destination code replace the CC in an IMSI to form the corresponding destination number of this IMSI. For example, if the IMSI is 46003091212, and the home destination code is 87, the translated result is 8703091212. The ISDN mode is usually used for international roaming subscribers It is used to describe a piece of IMSI analysis record for easy memory. It consists of 50-digit integers at most.
Chapter 8 Basic Service Data Configuration
Parameter Name
Parameter Description
Instruction
Whether to enable options, including:
ENOTHOPT
�
CRTN: Criterion
�
PRDG: Predigestion and SMS Format
�
CHKIMEI: CheckIMEI ADD
Format code of short message
SM
OPID
Operator ID
Whether to enable options related to HLR.
The parameter ranges from 0 to 255, with a default of 0 The parameter ranges from 0 to 255, with a default of 0
INDADC
Independent ADC GT Number,inclduding �
NO
�
YES
It is an optional parameter.
Example: Configure the IMSI number analysis with the following requirements: �
Prefix: 46000
�
Home destination code: 86139
�
Home destination code type: ISDN
�
Other parameters: Adopt default values.
The command is: ADD IMSIANA:IMSI="46000",HDSTCODE="86139",HDST CODET=ISDN,SM=0,OPID=0,INDADC=NO; END OF STEPS
Creating a Mobile Service Access Number and MNC Prerequisites
Context
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The MML Terminal window is opened.
This section introduces how to configure the relationship between a mobile service access number and a MNC for inter-network roaming.
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Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the relationship between a mobile service access number and a MNC by executing command ADD NDCMNC. The explanation of the main parameters in command ADD NDCMNC is shown in Table 96. TABLE 96 PARAMETERS IN THE ADD NDCMNC COMMAND Parameter Name
Parameter Description
Instruction
NAME
User alias
It is a mandatory parameter, consisting of 0~50 characters. It is used to describe the relationship between a mobile service access number and a MNC
ID
Access number configuration ID
It identifies the order of configuring access numbers, ranging from 1 to 1000
Country code
It indicates the CC of the mobile service access code. Enter it according to the actual condition, with the default value as 86
NDC
National destination code
It indicates the mobile digital service access number. Enter it according to the actual condition, with the default value as 139
MCC
Mobile country code
Enter it according to the actual condition, with the default value as 460
MNC
Mobile network code
Enter it according to the actual condition, with the default value as 01
CC
Example: Create the relationship between a mobile service access number and a MNC with the following requirements. �
Mobile service access number: 139
�
Access number configuration ID: 1
�
CC: 86
�
MCC: 460
�
MNC: 00.
The command is:
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ADD NDCMNC:NAME="139",ID=1,CC="86",NDC="139",M CC="460",MNC="00"; END OF STEPS
Creating a Mobile Network ID and Area Code Mapping Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The MML Terminal window is opened.
Context
This section introduces how to configure the relationship between a mobile network ID and a area code to judge whether a subscribers is roaming.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create the relationship between a mobile network ID and an area code by executing command ADD NCCFG. The explanation of the main parameters in command ADD NCCFG is shown in Table 97. TABLE 97 PARAMETERS IN THE ADD NCCFG COMMAND Parameter Name
Parameter Description
Instruction
MSIN
Mobile subscriber identification number
It is a mandatory parameter. Enter the No. 3-8 digits in the IMSI except “MCC+MNC”
Area code
It is a mandatory parameter. Enter the area code of the area where the subscriber belongs
ACODE
Example: Create the relationship between a mobile network ID and an area code with the following requirements. �
Mobile Subscriber Identification Number: 1234
�
Area code: 25.
The command is: ADD NCCFG:MSIN="1234",ACODE="25"; END OF STEPS
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Call Data Configuration Number Analysis Configuration Number Analysis The switch performs network addressing based on each type of numbers. In the mobile switch, there are two types of numbers. One type is subscriber number, including fixed subscriber number and mobile subscriber number. The other type is network number, including Mobile Station Roaming Number (MSRN), MSC/VLR number, HLR number, and handover number. ZXWN MSCS number analysis configuration is used to determine the corresponding network addressing and service processing methods of each type of number to ensure that the switch can correctly perform signaling interaction and voice channel connection. ZXWN MSCS system provides seven number analyzers: new service number analyzer, CENTREX number analyzer, private-network number analyzer, special-service number analyzer, local-network number analyzer, national toll-service number analyzer, and international toll-service number analyzer. For a specified DAS, numbers pass each type of analyzers specified by this DAS in a fixed order. The analyzers strictly follow the following order to perform number analysis, as shown in Figure 63. FIGURE 63 ANALYSIS ORDER OF NUMBER ANALYZERS
Configuration instances of common DASs and the number analysis results are as follows: 1. DAS for pre-analyzing the called number It is used to process special dial prefixes, including performing call restriction, format conversion of the called number.
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After an exchange receives “10193+called number” dialed by a subscriber, 10193 is deleted in this exchange, and the subsequent routing is based on the existing traffic routing, as shown in Table 98. TABLE 98 DAS FOR PRE-ANALYZING THE CALLED NUMBER Analyzer Entry
Analyzed Number
Analysis Result If call restriction is required, analyze it to “pre-analysis ending, and call rejected”
10193 + 0 + local area code
New service number analyzer
10193 + 0 + non-local area code 10193 + G network number section
10193 + C network number section
If no call restriction is required, analyze it to “pre-analysis normally ending”, and delete “10193 + 0 + local area code” from the change index of the called number Analyze it to “pre-analysis normally ending”, and delete 10193 from the change index of the called number. Whether to add 10193 to the called-number index in the CDR depends on the CDR filling requirements on the billing center
2. Originating DAS: used to analyze the called number in the local-office-originated call, as shown in Table 99. TABLE 99 ORIGINATING DAS Analyzer Entry
Analyzed Number
Analysis Result
New service number analyzer
Charging query number
Analyze it to the SSP charging query service
Free special-service number
Analyze it to the local-office free special service, pointing to the special-service number configured on the attendant console
Corresponding attendant console number of the special-service number
Analyze it to the outgoing free special service, pointing to the special-service circuit group
Specialservice number analyzer
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Analyzer Entry
Analyzed Number
Analysis Result
Short number
-
Special-service number of the operator
Analyze it to the outgoing free special service, pointing to the special-service circuit group Vacant number
0
Localnetwork number analyzer
All numbers are analyzed by the subsequent analyzers
Local PSTN number
Analyze it to the local-network outgoing/local-call service, pointing to the gateway office
Local number section of other mobile network
Analyze it to the local-network outgoing/local-call service, pointing to the gateway office
Non-local number section of other mobile network
Analyze it to the automatic service in the national toll region, pointing to the tandem office of the local province
Number section of the local mobile network
Analyze it to the MSC common service Vacant number
0
National toll-service number analyzer
International toll-service number analyzer
All numbers are analyzed by the subsequent analyzers
0 + Local area code + Local PSTN number
Analyze it to the local-network outgoing/local-call service, pointing to the gateway office
0 + Non-local area code
Analyze it to the automatic service in the national toll region, pointing to the tandem office of the local province
00 + International number
Analyze it to the international toll automatic service
3. Forwarding DAS: used to analyze the number to which the call is forwarded, as shown in Table 100.
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TABLE 100 FORWARDING DAS Analyzer Entry
Analyzed Number
Analysis Result Vacant number
0
Local-network number analyzer
All numbers are analyzed by the subsequent analyzers
Local PSTN number
Analyze it to the local-network outgoing/local-call service, pointing to the gateway office
Local number section of other mobile network
Analyze it to the local-network outgoing/local-call service, pointing to the gateway office
Non-local number section of other mobile network
Analyze it to the automatic service in the national toll region, pointing to the tandem office of the local province
Number section of the local mobile network
Analyze it to the MSC common service Vacant number
0
National toll-service number analyzer
All numbers are analyzed by the subsequent analyzers
0 + Local area code + Local PSTN number
Analyze it to the local-network outgoing/local-call service, pointing to the gateway office
0 + Non-local area code
Analyze it to the automatic service in the national toll region, pointing to the tandem office of the local province
4. Roaming DAS: used to analyze the roaming number in the response message to the routing information query message, as shown in Table 101. It is unnecessary to analysis the CC in national roaming numbers.
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TABLE 101 ROAMING DAS Analyzer Entry
Analyzed Number
Analysis Result
Roaming number section of the local service area in the local office
Analyze it to the local MSC service Analyze it to the outgoing service of the local MSC.
Local-network number analyzer
Roaming number section of non-local service area in the local office
Note: The roaming DAS is used when there is no direct voice channel between MGWs (switched through the T office) in the region networking
National other roaming sections
Analyze it to the national toll call
00 + International number
Analyze it to the international toll automatic service
Overview Description
This section only introduces the basic steps of number analysis. For detailed configuration related with number analysis (including number pre-analysis, calling number analysis, and number change), refer to ZXWN MSCS MSC Server Number Analysis.
Data Configuration
The related operations of the number analysis configuration are as follows. Steps
Operations
Instructions
Commands
1
Creating a number analyzer entry
Specify an ID for each type of number analyzers
ADD ENTR
Creating a DAS
The DAS is the collection of various number analyzer entries, specifying the order and rule of performing number analysis.
ADD DAS
Setting the default DAS template of the local office
Set the default DAS template of the local office means creating the DAS used for localoffice service processing.
SET LDASTM PLT
2
3
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Steps
Operations
Instructions
Commands
4
Creating a DAS template (optional)
Create multiple DAS templates in the dual-homing or regional networking.
ADD ACRTMPLT
Creating the called numbers analysis
Create number analysis for prefixes of called numbers and roaming numbers
ADD TPDNAL
5
Creating a Number Analyzer Entry Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The number analyzer entry range is set in the resource management system.
�
The MML Terminal window is opened.
Context
Creating number analyzer entries means specifying an ID for each type of number analyzers.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a number analyzer entry by executing command ADD ENTR. The explanation of the main parameters in command ADD ENTR is shown in Table 102. TABLE 102 PARAMETERS IN THE ADD ENTR COMMAND Parameter Name
Parameter Description
Instruction
ID
Analyzer entry
It is an optional parameter, which is an integer, ranging from 1 to 1000
NAME
User alias
It is a mandatory parameter, consisting of 0~50 characters
TYPE
Analyzer entry type
It is an optional parameter. Refer to Table 103 for the configuration description
NTYPE
Number analysis result under this analyzer,
It is an optional parameter, with CALLED
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Parameter Name
VMSCIDX
Parameter Description including CALLED (analysis on called numbers), CALLING (analysis on calling numbers), FORWARD (analysis on calling numbers during call forwarding), OPIMSI (analysis on calling IMSI numbers), TPIMSI (analysis on called IMSI numbers), and FWDIMSI (analysis on IMSI numbers during call forwarding)
Virtual MSC index
Instruction
as the default value. In general, select CALLED
It is an optional parameter, which is an integer, ranging from 0 to 65535. Enter it according to the actual condition. The default value is 0 (public domain)
TABLE 103 ANALYZER ENTRY TYPES Parameter Name
Parameter Description
Configuration Description
NEWSRV
New service number analyzer
After this analyzer is configured, if the number is not matched in this analyzer, it is sent to the next entry for analysis
CENTREX
CENTREX number analyzer
This analyzer is not configured
PRINET
Private-network number analyzer
This analyzer is not configured
Special-service number analyzer
After this analyzer is configured, if the number is not matched in this analyzer, it is is sent to the next entry for analysis
LOCAL
Local-network number analyzer
After this analyzer is configured, if the number is not matched in this analyzer, the analysis ends
NATIONAL
National toll-service number analyzer
After this analyzer is configured, if the number is not matched
SPECSRV
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Parameter Name
Parameter Description
Configuration Description in this analyzer, the analysis ends
INTER
International toll-service number analyzer
After the number is analyzed in this analyzer, the analysis ends
Example: Create a number analyzer entry with the following requirements. �
Number analyzer entry ID: 1
�
User alias: Entr1
�
Number analyzer entry type: Local number analyzer
�
Analyzed number type: Called number.
The command is: ADD ENTR:ID=1,NAME="Entr1",TYPE=LOCAL,NTYPE=CAL LED; END OF STEPS
Creating a DAS Prerequisites
Context
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The DAS range is set in the resource management system.
�
The number analyzer entry is configured.
�
The MML Terminal window is opened.
The DAS is the collection of various number analyzer entries, specifying the order and rule of performing number analysis. Table 104 lists common DASs. TABLE 104 COMMON DASS Parameter Name
Parameter Description
Configuration Description
MS
MS originating
Used to analyze the called number when an MS originates a call
MSRN
Mobile station roaming number
Used to analyze roaming numbers or handover numbers
CNG
Calling number analysis
Used for traffic division of calling numbers
LI
Intercepted number
Used for the interception function
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Parameter Name
Parameter Description
Configuration Description
PBRT
Personal Back Ring Tone
Used for the PBRT function
FWD
Forwarding number analysis
Used to analyze the third-party number to which the call is forwarded
Number pre-analysis
Used for the number pre-analysis function, standardizing called numbers, and performing call restriction based on numbers
PREDAS
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a DAS by executing command ADD DAS. The explanation of the main parameters in command ADD DAS is shown in Table 105. TABLE 105 PARAMETERS IN THE ADD DAS COMMAND Parameter Name
274
Parameter Description
Instruction
ID
DAS
It is a mandatory parameter, which is an integer, ranging from 1 to 4096. It is the index number of the newly-added DAS
NAME
User alias
It is an optional parameter, consisting of 0~50 characters.
NEWSRV
New service number analyzer entry
CENTR
CENTREX number analyzer entry
PRINET
Private-network number analyzer entry
SPECSRV
Special-service number analyzer entry
LOCAL
Local-network number analyzer entry
NATIONAL
National toll-service number analyzer entry
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Enter the umber analyzer entry IDs contained by a DAS
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Parameter Name
Parameter Description
INTER
International toll-service number analyzer entry
VMSCIDX
Virtual MSC index
Instruction
Example: Create a MS originating DAS with the following requirements. �
DAS ID: 101
�
User alias: MSQH
�
Local number analyzer entry: 1
�
Other parameters: Adopt the default values.
The command is: ADD DAS:ID=101,NAME="MSQH",NEWSRV=0,CENTR =0,PRINET=0,SPECSRV=0,LOCAL=1,NATIONAL=0,INTE R=0; END OF STEPS
Setting the Default DAS Template of the Local Office Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The DAS is configured.
�
The MML Terminal window is opened.
Context
Creating the default DAS template of the local office means creating the DAS used for local-office service processing.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Set the default DAS template of the local office by executing command SET LDASTMPLT. The explanation of the main parameters in command SET LDASTMPLT is shown in Table 106.
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TABLE 106 PARAMETERS IN THE SET LDASTMPLT COMMAND Parameter Name
MS
MSRN
Parameter Description
Instruction
MS originating DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096. It is used to analyze the called number when an MS originates a call. If the called party is a mobile subscriber, the MSC needs to query the routing information from the corresponding HLR. If the called party is a fixed subscriber, the MSC connect the call to the corresponding local exchange or toll exchange according to location of the called party
MSRN DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096. It is used to analyze the MSRN returned from the HLR, and judge whether the call belongs to the local-office mobile service or outgoing mobile service based on this number. If the call belongs to the local-office mobile service, this number is sent to the corresponding module for processing. If the call belongs to the outgoing mobile service, select the corresponding route chain for call connection. In addition, this DAS also analyzes forwarding numbers returned from the HLR, and subscriber numbers from other mobile office or fixed office It is an optional parameter, which is an integer, ranging from 0 to 4096.
OR
Preferred routing DAS
When it is set that the local office supports preferred routing in the global variable control system, configure this DAS for international roaming call and the forwarding service It is an optional parameter, which is an integer, ranging from 0 to 4096.
CNG
LI
276
Calling number DAS
Interception DAS
It is used to analyze the calling number in outgoing calls to implement traffic division of the calling number and calling number change function It is an optional parameter, which is an integer, ranging from 0 to 4096. It is used for the interception service
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Parameter Name
IP
Parameter Description
IP DAS
Instruction It is an optional parameter, which is an integer, ranging from 0 to 4096. It is used for the IP telephone service
ICBCNG
PBRT
Incoming call restriction DAS for calling numbers
PBRT DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096. It is used for the incoming call restriction service It is an optional parameter, which is an integer, ranging from 0 to 4096. It is used for the PBRT service
FWD
Forwarding DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
FWDCNG
Forwarding DAS for calling numbers
It is an optional parameter, which is an integer, ranging from 0 to 4096
CNGVIGW
Calling number DAS of virtual IGW
It is an optional parameter, which is an integer, ranging from 0 to 4096
FWDVIGW
Forwarding DAS of virtual IGW
It is an optional parameter, which is an integer, ranging from 0 to 4096
INTRA
Wire and wireless integrated DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096. It is used for the function of one number for two MSs and mixed group
ROUTCAT1
MS originating DAS for category-1 subscribers
It is an optional parameter, which is an integer, ranging from 0 to 4096
ROUTCAT2
MS originating DAS for category-2 subscribers
It is an optional parameter, which is an integer, ranging from 0 to 4096
ROUTCAT3
MS originating DAS for category-3 subscribers
It is an optional parameter, which is an integer, ranging from 0 to 4096
ROUTCAT4
MS originating DAS for category-4 subscribers
It is an optional parameter, which is an integer, ranging from 0 to 4096
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Parameter Name
Parameter Description
Instruction
ROUTCAT5
MS originating DAS for category-5 subscribers
It is an optional parameter, which is an integer, ranging from 0 to 4096
IMSIOPDAS
Outgoing IMSI traffic division DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
OVERLAY
Calling OVERLAY DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
IGWMONITOR
IGW interception DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
SHLRSKEY
SHLR service key conversion DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
IMSITPDAS
DAS for called IMSI
It is an optional parameter, which is an integer, ranging from 0 to 4096
IMSIFWDAS
DAS for the IMSI of the subscriber to whom the call is forwarded
It is an optional parameter, which is an integer, ranging from 0 to 4096
TESTCALLDAS
Test call DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
MRBT
Multi-media ring back tone DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
INTPREDAS
International number pre-analysis DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
PREDAS
Number pre-analysis DAS
It is an optional parameter, which is an integer, ranging from 0 to 1000
RECNCTDAS
Reconnection DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
Example: Configure the default DAS template of the local office with the following requirements. �
MS originating DAS: 101
�
MSRN DAS: 201
�
Forwarding DAS: 301.
The command is:
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SET LDASTMPLT:MS=101,MSRN=201,FWD=301; END OF STEPS
Creating a DAS Template Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The MML Terminal window is opened.
Context
It is required to create multiple DAS templates in the dual-homing or regional networking.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a DAS template by executing command ADD ACRTMP LT. The explanation of the main parameters in command ADD ACRTMPLT is shown in Table 107. TABLE 107 PARAMETERS IN THE ADD ACRTMPLT COMMAND Parameter Name
Parameter Description
Instruction
TMPLIDX
Routing template ID
It is a mandatory parameter, ranging from 1~65535
NAME
User alias
It is a mandatory parameter, consisting of 1~50 characters
MS
MS originating DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
MSRN
MSRN DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
OR
Preferred routing DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
CNG
Calling number DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
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Parameter Name
Parameter Description
Instruction
LI
Interception DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
IP
IP DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
CBCNG
Incoming call restriction DAS for calling numbers
It is an optional parameter, which is an integer, ranging from 0 to 4096
PRBT DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
FWD
Forwarding DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
FWDCNG
Forwarding DAS for calling numbers
It is an optional parameter, which is an integer, ranging from 0 to 4096
CNGVIGW
Calling number DAS of virtual IGW
It is an optional parameter, which is an integer, ranging from 0 to 4096
FWDVIGW
Forwarding DAS of virtual IGW
It is an optional parameter, which is an integer, ranging from 0 to 4096
INTRA
Wire and wireless integrated DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096. It is used for the function of one number for two MSs and mixed group
ROUTCAT1
MS originating DAS for category-1 subscribers
It is an optional parameter, which is an integer, ranging from 0 to 4096
ROUTCAT2
MS originating DAS for category-2 subscribers
It is an optional parameter, which is an integer, ranging from 0 to 4096
PBRT
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Parameter Name
Parameter Description
Instruction
ROUTCAT3
MS originating DAS for category-3 subscribers
It is an optional parameter, which is an integer, ranging from 0 to 4096
ROUTCAT4
MS originating DAS for category-4 subscribers
It is an optional parameter, which is an integer, ranging from 0 to 4096
ROUTCAT5
MS originating DAS for category-5 subscribers
It is an optional parameter, which is an integer, ranging from 0 to 4096
IMSIOPDAS
Calling IMSI number selector
It is an optional parameter, which is an integer, ranging from 0 to 4096
OVERLAY
Calling OVERLAY DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
LIIGW
IGW interception DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
SHLRSKEY
SHLR service key DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
IMSITPDAS
DAS for called IMSI
It is an optional parameter, which is an integer, ranging from 0 to 4096
IMSIFWDAS
DAS for the IMSI of the subscriber to whom the call is forwarded
It is an optional parameter, which is an integer, ranging from 0 to 4096
MBRT
Multi-media ring back tone DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
INTPREDAS
International number pre-analysis DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
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Parameter Name
Parameter Description
Instruction
PREDAS
Number pre-analysis DAS
It is an optional parameter, which is an integer, ranging from 0 to 1000
Reconnection DAS
It is an optional parameter, which is an integer, ranging from 0 to 4096
RECNCTDAS
Example: Add a DAS template with the following requirements. �
DAS template ID: 1
�
User alias: VMSC1
�
MS originating DAS: 101
�
MSRN DAS: 201
�
Preferred routing DAS: 301
�
Calling number DAS: 401
�
Other parameters: Adopt the default values.
The command is: ADD ACRTMPLT:TPLIDX=1,NAME="VMSC1",MS=101,M SRN=201,OR=301,CNG=401,LI=0,IP=0,CBCNG=0,PBRT =0,CFU=0,CFUCNG=0,CFNDUB=0,CFNDUBCNG=0,CFUD UB=0,CFUDUBCNG=0,CFNRC_E=0,CFNRCCNG_E=0,CF NRC_L=0,CFNRCCNG_L=0,CFNRY=0,CFNRYCNG=0,CD =0,CDCNG=0,FWD=0,FWDCNG=0,CNGVIGW=0,FWDVI GW=0,INTRA=0,ROUTCAT1=0,ROUTCAT2=0,ROUTCAT3 =0,ROUTCAT4=0,ROUTCAT5=0,IMSIOPDAS=0,OVERLA Y=0,LIIGW=0,SHLRSKEY=0,IMSITPDAS=0,IMSIFWDAS =0,MBRT=0,INTPREDAS=0,PREDAS=0,CFPRE=0,CFUPR E=0,NDUBPRE=0,UDUBPRE=0,CFNRCE_PRE=0,CFNRCL_ PRE=0,CFNRYPRE=0,CDPRE=0,MORCPRE=0,GMSCRCPR E=0,CFRCPRE=0,MTRCPRE=0,RECNCTDAS=0,CAMELDN ALIDX=0,SSDAS=0,ASCODEDAS=0; END OF STEPS
Creating the Called Number Analysis Prerequisites
Context
282
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The number analyzer entry is configured.
�
The MML Terminal window is opened.
This section introduces how to configure number analysis for prefixes of called numbers and roaming numbers. The called number analysis determines the subsequent service procedures of the call.
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Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Analyze the prefix of a called number or roaming number by executing command ADD TPDNAL. The explanation of the main parameters in command ADD TPDNAL is shown in Table 108. TABLE 108 PARAMETERS IN THE ADD TPDNAL COMMAND Parameter Name
ENTR
DIGIT
Parameter Description
Instruction
Number analyzer entry
It is a mandatory parameter, which is an integer, ranging from 1 to 1000. Select the corresponding analyzer entry of the analyzed number prefix. For local calls, select the corresponding analyzer entry of the local number analyzer
Analyzer number
It is a mandatory parameter, consisting of 1~20 digits. Input the prefix of the called number, whose length must make it be distinguished in the local office. For intra-office calls, it is required to configure both the prefix of the called number and that of the local-office roaming number It is an optional parameter, consisting of 0~50 characters.
NAME
SPECRST
User alias
Special analysis result rule
It is used to specifically describe the called number analysis to make it easily recognized It is used to specify the index number of the special analysis result rule for the associated called number. This parameter must be defined by command ADD CEDSPECRL at first. Then it can be indexed here. This parameter is configured to implement the routing service based on number length. When the system performs analysis on the called number, it automatically matches the actual length of the called number to see whether the length is within the range of “Special analysis result rule for called numbers”. If the length is within the range, the system adopts the routing information in “Special analysis result of called numbers”. Otherwise, the system adopts the
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Parameter Name
Parameter Description
Instruction routing information in the called number analysis
SPECIDX
CAT
RST1
Special analysis result index
Call service types, including the options in Table 109
Number analysis result 1
It is used to specify the index number of the special analysis result of the associated called number. This parameter must be defined by command ADD SPECRST at first. Then it can be indexed here. This parameter is configured to implement the routing service based on number length. When the system performs analysis on the called number, it automatically matches the actual length of the called number to see whether the length is within the range of “Special analysis result rule for called numbers”. If the length is within the range, the system adopts the routing information in “Special analysis result of called numbers”. Otherwise, the system adopts the routing information in the called number analysis It is an optional parameter. It is used to specify the service type triggered by this number, and determine the direction of this call. The system adopts “vacant number” by default. The called number of the local office is analyzed to MSCO (MSC common service). The roaming number of the local office is analyzed to MSLL (MSC local service). The roaming number of other office is analyzed to MSLO (MSC local outgoing service) When the call service type is vacant number, local-network local-office/common service, MSC local-network local-office service, Mobile Number Portability (MNP), or H323 call, number analysis result 1 must be fixed to 0. When the call service type is outgoing call or toll call, number analysis result 1 is used to specify the index number of the outgoing route chain. When the call service type is equal access: CIC of the operator where the subscriber is located or equal access: non-local-network CIC, number analysis result 1 is used to specify the index number of the outgoing route chain.
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Parameter Name
Parameter Description
Instruction When the call service type is OVERLAY prefix incoming service, number analysis result 1 is used to specify the index number of the outgoing route chain. When the call service type is OVERLAY: CAMEL service triggered by MO, or OVERLAY: CAMEL service triggered by MT, number analysis result 1 is used to specify the index number of the outgoing route chain. When the call service type is IP service, IP mobile service, or independent IP service number analysis result 1 is used to specify the index number of the outgoing route chain. When the call service type is MNP outgoing routing number analysis result 1 is used to specify the index number of the outgoing route chain. When the call service type is Outgoing paid special service or Outgoing free special service, number analysis result 1 is used to specify the index number of the outgoing route chain. The above-specified index number of the outgoing route chain must be defined by command ADD CHAIN at first. Then it can be indexed here. When the call service type is Mobile emergency special service, Local-office paid special service or Local-office free special service, number analysis result 1 is used to specify the special-service number. This parameter must be defined by command ADD SSPN at first. Then it can be indexed here. When the call service type is Tone play service, CAT_SEND_TONE, number analysis result 1 is used to specify the ID of the tone to be played
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Parameter Name
RST2
Parameter Description
Number analysis result 2
Instruction It is used to specify the index number of CAMEL access subscription information of the calling subscriber. This parameter must be defined by command ADD CAINFO at first. Then it can be indexed here. When the call service type is equal access: CIC of the operator where the subscriber is located or “equal access: non-local-network CIC, this parameter must be configured. When the call service type is OVERLAY: CAMEL service triggered by MO, or OVERLAY: CAMEL service triggered by MT, this parameter must be configured. When the call service type is other types except the above-listed, number analysis result 2 must be fixed to 0
RST3
CHAINAL
RNLEN
286
Number analysis result 3
It is used to specify the index number of CAMEL access subscription information of the called subscriber. This parameter must be defined by command ADD CAINFO at first. Then it can be indexed here. When the call service type is OVERLAY: CAMEL service triggered by MO, or OVERLAY: CAMEL service triggered by MT, this parameter must be configured. When the call service type is other types except the above-listed, number analysis result 3 must be fixed to 0
Route chanin analysis index
It is used to specify the analysis index number of the route chain. This parameter must be defined by command ADD CHAINAL at first. Then it can be indexed. This parameter takes effect only when the call service type is outgoing service (including various outgoing services). It priority is higher than that of the outgoing route chain referred to in number analysis result 1. Route chain analysis is an intelligent routing policy better than the policy of specifying a single route chain
Length of the carried routing number
When the call service type is MNP outgoing routing, it is configured to the length of the carried routing number. When the call service type is other types except the above-listed, it must be fixed to 0
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Parameter Name
Parameter Description
Instruction It is an optional parameter, which is an integer ranging from 0 to 255, with a default of 3. It is used to specify the minimum digit length of the analyzed number required for call connection.
MINLEN
Minimum digit length of numbers
During an incoming call, if the received digits are shorter than this length, the system waits for the subsequent digits. If the system judges that there is no subsequent digit, and the received digits are shorter than this length, the system considers that the number format is wrong, and releases the call. During a local-office-originated call, if the received digits are shorter than this length, the system considers that the number format is wrong, and releases the call. For the OVERLAY prefix incoming service, the system gets the length of the OVERLAY prefix according to the minimum digit length of numbers. Therefore, it is required to configure the minimum digit length of numbers to the length of the OVERLAY prefix. Otherwise, procedures cannot be correctly processed It is an optional parameter, which is an integer ranging from 0 to 255, with a default of 20. It is used to specify the maximum digit length of the analyzed number required for call connection.
MAXLEN
Maximum digit length of numbers
During an incoming call, it is the basis of whether to wait for subsequent digits. If the received digits reach this length, the system does not wait for subsequent digits. During a local-office-originated call, if the received digits are longer than this length, the system determines whether to continue or release the call according to flag “No call when the called number exceeds the length” in the option enabling configuration. If the system determines to continue the call, it cuts the exceeding digits
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Parameter Name
Parameter Description
Instruction
OVERLAY priority, including:
OVLYPRI
NO (No priority): Trigger the intelligent service based on CSI at first, and then trigger the intelligent service again based on OVERLAY HCSI (Higher than the CSI in priority): Trigger the intelligent service based on OVERLAY at first, and then trigger the intelligent service again based on CSI
It is used to the priority relationship between triggering the intelligent service based on CSI and triggering the intelligent service based on OVERLAY. The system adopts No Priority by default. When the call service type is OVERLAY(CAMEL service triggered by MO), this parameter is effective. Otherwise, this parameter is ineffective
Voice channel release mode, including: CING (calling control release): The calling party controls whether to release the call. In this mode, when only the called party hooks on, the call still can continue. REL
CED(called control release): The called party controls whether to release the call. In this mode, when only the calling party hooks on, the call still can continue.
It is an optional parameter. It indicates a resource release mode when subscribers hook on. In general, select NO. Select CED for such special numbers as 110 and 119
NO (noncontrol release): Both the calling
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Parameter Name
NET
Parameter Description party and the called party can control whether to release the call. In this mode, no matter whether the calling party or the called party hooks on, the call is released
Type of the destination network
Instruction
It is an optional parameter, with a default of 1. For calls to other office in the local network, select the signaling network where the destination office is located. For intra-office calls, this option is meaningless.
Number address attribute, including: DEF (default attribute): Do not replace the address attribute of the analyzed number.
NAT
INT (international number): Replace the address attribute of the analyzed number with international number. NAT (national number): Replace the address attribute of the analyzed number with national (valid) number.
It is an optional parameter. It is used to replace the address attribute of the analyzed number. In general, it is set to DEF, or is set according to the requirements of the peer end
LOC(local number): Replace the address attribute of the analyzed number with local number. UNK (attribute unknown): Replace the
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Parameter Name
Parameter Description address attribute of the analyzed number with unknown
Instruction
Transforming the calling number again, including:
OPDDICONT
NO (Not allowed): It is not allowed to transform the calling number again in the subsequent call procedures. YES (allowed): It is allowed to transform the calling number again in the subsequent call procedures.
It is an optional parameter. It is used to specify whether it is allowed to transform the calling number again in the subsequent call procedures when the calling number was already transformed once. The system adopts NO by default
Transforming the called number again, including:
TPDDICONT
NO (Not allowed): It is not allowed to transform the called number again in the subsequent call procedures. YES (allowed): It is allowed to transform the called number again in the subsequent call procedures
OPDDI
290
Calling-number immediate transform index
It is an optional parameter. It is used to specify whether it is allowed to transform the called number again in the subsequent call procedures when the called number was already transformed once. The system adopts NO by default
It is an optional parameter. It is the number stream transform index of the calling-number immediate transform. Immediate transform immediately makes the calling number transformed. This parameter must be defined by command ADD DDI at first. Then it can be indexed here
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Parameter Name
TPDDI
OPDLYDDI
Parameter Description
Instruction
Called-number immediate transform index
It is an optional parameter. It is the number stream transform index of the called-number immediate transform. Immediate transform immediately makes the called number transformed. This parameter must be defined by command ADD DDI at first. Then it can be indexed here
Calling-number delay transform index
It is an optional parameter. It is the number stream transform index of the calling-number delay transform. Delay transform takes effects in the IAM message at the outgoing side instead of making the calling number transformed immediately. This parameter must be defined by command ADD DDI at first. Then it can be indexed here. According to the IAM message at the outgoing side, perform the calling-number delay transform here, and then perform the calling-number delay transform in the number pre-analysis
TPDLYDDI
DDIOVERB
Called-number delay transform index
It is an optional parameter. It is the number stream transform index of the called-number immediate transform. Immediate transform immediately makes the called number transformed. This parameter must be defined by command ADD DDI at first. Then it can be indexed here
B-interface number transform index
It is the number stream transform index of the called number in the outgoing call request message between the MSC and the VLR. The transform purpose is to facilitate the VLR judging the toll call authority. This parameter must be defined by command ADD DDI at first. Then it can be indexed here
Whether to support the interworking between video calls, including: IWVEDIO
LSUP: Local-network subscribers support the interworking between video calls by default). The call continues.
It is an optional parameter. It is used to specify whether to support the interworking between video calls. The default value is LSUP
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Parameter Name
Parameter Description
Instruction
OSUP: Subscribers in other networks support the interworking between video calls). The call continues. ONSUP: Subscribers in other networks do not support the interworking
Maximum call duration (minute)
It is used to specify the maximum call duration allowed for a call. When the duration of a call reaches the maximum call duration, the system automatically release the call. If it is unnecessary to restrict the maximum call duration, adopt the default value of 0
AUXDAS
Assistant DAS
It is an optional parameter. It is used to specify the DAS for analyzing the called number again when the call service type is outgoing service, and when the connection between the local office and the mutually-backed-up office is broken in the mutual backup dual-homing networking. This parameter must be defined by command ADD DAS at first. Then it can be indexed here
A6
Sending A6 signal after receiving how many digits during incoming calls
It is used to specify the number of digits that the system receives enough to send A6 signal to the front office. This parameter only takes effect during incoming calls using Channel Associated Signaling (CAS)
PFXLEN
Toll prefix + Area code length
It is an optional parameter, which is an integer, ranging from 0 to 15. When the call service type is national/international toll service, this parameter needs to be configured
ENOPT
Enabled options Refer to Table 110 for details
It is an optional parameter. In general, select CCS7 (Automatically sending the calling number when using CCS7 for outgoing services) and (No call when the called number exceeds the maximum digit length)
TIMELMT
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Parameter Name
FAXIDX
AVIDX
DVIDX
Parameter Description
Instruction
Fax analysis resutl index
It is used to specify the bearer analysis result index number of the called number associated with the fax service. This parameter must be defined by command ADD BEARRST at first. Then it can be indexed here. This parameter is configured to implement the routing service based on the bearer capability. For the fax service, if the associated bearer analysis result index of the called number is configured, the call adopts the associated bearer analysis result of the called number, thus flexible routing is implemented
Analog video analysis result index
It is used to specify the bearer analysis result index number of the called number associated with the analog video service. This parameter must be defined by command ADD BEARRST at first. Then it can be indexed here. This parameter is configured to implement the routing service based on the bearer capability. For the analog video service, if the associated bearer analysis result index of the called number is configured, the call adopts the associated bearer analysis result of the called number, thus flexible routing is implemented
Digital video analysis result index
It is used to specify the bearer analysis result index number of the called number associated with the digital video service. This parameter must be defined by command ADD BEARRST at first. Then it can be indexed here. This parameter is configured to implement the routing service based on the bearer capability. For the digital video service, if the associated bearer analysis result index of the called number is configured, the call adopts the associated bearer analysis result of the called number, thus flexible routing is implemented
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Parameter Name
ADATAIDX
DDATAIDX
Parameter Description
Instruction
Analog data analysis result index
It is used to specify the bearer analysis result index number of the called number associated with the analog data service. This parameter must be defined by command ADD BEARRST at first. Then it can be indexed here. This parameter is configured to implement the routing service based on the bearer capability. For the analog data service, if the associated bearer analysis result index of the called number is configured, the call adopts the associated bearer analysis result of the called number, thus flexible routing is implemented
Digital data analysis result index
It is used to specify the bearer analysis result index number of the called number associated with the digital data service. This parameter must be defined by command ADD BEARRST at first. Then it can be indexed here. This parameter is configured to implement the routing service based on the bearer capability. For the digital data service, if the associated bearer analysis result index of the called number is configured, the call adopts the associated bearer analysis result of the called number, thus flexible routing is implemented
Whether to play the DDC tone, including:
DDCPLAY
NONE (Not playing the DDC tone): It is not required to play the DDC tone in the local office. PLAY (Playing the DDC tone): It is required to play the DDC tone in the local office.
294
It is used to specify whether to play the DDC tone in the local office. The system adopts NONE by default. The purpose of configuring whether to play the DDC tone in the number analysis configuration is to avoid no tone play or repeated tone play caused by inconsistent tone play configuration during inter-office DDC calls
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Parameter Name
Parameter Description
Instruction
Voice Activity Detection (VAD) flag, including: CLOSE: Not starting the VAD function. OPEN: Starting the VAD function. INVALID: The VAD function is invalid
VAD
OPPMGWID
Opposite-end MGW ID
It is used to specify whether to start the VAD function. The system adopts INVALID by default
It is used to specify between which opposite-end MGW and the local MGW the TDM backup route is adopted. The QOSs between the local MGW and all opposite-end MGWs can be found through automatic test calls. When the QOS difference between the opposite-end MGW and the local MGW is specified, the call adopts the TDM backup route
Call type priority, including: INVALID: The call priority is invalid. HIGHEST: The call has the highest priority.
CALLSERVPRILVL
HIGHER: The call has a priority one level lower than the highest priority. NORMAL: The call has a priority one level lower than the higher priority.
It is used to specify the call priority. The system adopts INVALID by default. The call priority has two functions. In one case, in the softswitch office in the toll softswitch network, the voice coding format can be dynamically selected according to the call priority and the load on the IP bearer network. In another case, based on the combined information of office ID and priority configured in the number analysis configuration, the final priority of a call is got to perform load control
LOW: The call has the lowest priority
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Parameter Name
RERTS
Parameter Description
Re-routing route chain
Instruction It is used to specify the re-routing route chain ID. This parameter must be defined by command ADD RERTS at first. Then it can be indexed here. When flag RRTO in enabled options takes effect, the re-routing route chain takes effect too. For an outgoing call procedure, if the call fails, and the corresponding failure cause is configured with “Enabling rerouting for failure” in the R_ICP configuration, re-select the route from this route chain according to the re-routing route chain. For an incoming call using ISUP, TUP, or BICC signaling, when the call procedure is an outgoing procedure, and the call fails before the IAM message is sent, the re-routing route chain serves as the standby route, and is not controlled by RRTO. If route chain analysis is configured, the re-routing route chain here is invalid. In this case, use the re-routing route chain configured in the route chain analysis
Inter-MGW route chain or not, including:
INCHAIN
NO: The outgoing route chain got from number analysis is not an inter-MGW route chain. YES: The outgoing route chain got from number analysis is an inter-MGW route chain
It is used to specify whether the outgoing route chain got from number analysis is an inter-MGW route chain. The system select NO by default. If YES is selected, the routes in the outgoing route chains will not be selected for the outgoing route. The outgoing route will be got after perform number analysis again according to the associated called number DAS configured in the outgoing route chain. This parameter is used in the following cases: One virtual outgoing route chain is got based on number analysis at first, and then the real outgoing route is got based on the called number DAS associated with the virtual outgoing route chain. When one MSCS controls multiple areas, the outgoing route chain facilitates subscriber management
RECMDMGWNODEID
296
Recommended MGW nodes
It is used to specify the set of recommended MGWs for outgoing service. In the case of multiple IP domains, if one MSCS manages multiple MGWs, and these MGWs belong to different IP domains,
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Parameter Name
Parameter Description
Instruction the set of recommended MGWs for outgoing service needs to be configured. The MGW set here should be a sub-set of the MGW set supported by outgoing service. This parameter must be defined by command ADD TOPO at first. Then it can be indexed here
TABLE 109 CALL SERVICE TYPES Call Service Types
Meanings
Description
NONE
Vacant number
Indicates that the subsequent call procedures are processed based on the procedure of processing vacant numbers
LLC
Localnetwork localoffice/common service
Indicates that the subsequent call procedures are processed based on the local service procedure
Local-network outgoing/localcall service
Indicates that the subsequent call procedures are processed based on the local-call service procedure. The mobile-to-fixed local outgoing call service is usually analyzed to this type
Local-network outgoing/rural (network) call service
Indicates that the subsequent call procedures are processed based on the local rural (network) outgoing call service procedure. The mobile-to-fixed rural outgoing call service is usually analyzed to this type
DWTM
Domestic toll (intra-region) manual service
Indicates that the subsequent call procedures are processed based on the domestic toll (intra-region) manual service procedure. In general, it is not recommended to configure this service type
DWTA
Domestic toll (intra-region) automatic service
Indicates that the subsequent call procedures are processed based on the domestic toll (intra-region) automatic service procedure. In general, it is not recommended to configure this service type
Domestic toll (inter-region) manual service
Indicates that the subsequent call procedures are processed based on the domestic toll (inter-region) manual service procedure. In general, it is not recommended to configure this service type
LOL
LORU
DBTM
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Call Service Types
Meanings
Description
DBTA
Domestic toll (inter-region) automatic service
Indicates that the subsequent call procedures are processed based on the domestic toll (inter-region) automatic service procedure. The domestic toll call service is usually analyzed to this type
INTM
International toll manual service
Indicates that the subsequent call procedures are processed based on the international toll manual service procedure. In general, it is not recommended to configure this service type
International toll automatic service
Indicates that the subsequent call procedures are processed based on the international toll automatic service procedure. The international toll call service is usually analyzed to this type
Local-office paid special service
Indicates that the subsequent call procedures are processed based on the local-office paid special service procedure. The local-office paid special service is usually analyzed to this type
Local-office free special service
Indicates that the subsequent call procedures are processed based on the local-office free special service procedure. The local-office free special service is usually analyzed to this type
Outgoing paid special service
Indicates that the subsequent call procedures are processed based on the outgoing paid special service procedure. The outgoing paid special service is usually analyzed to this type
Outgoing free special service
Indicates that the subsequent call procedures are processed based on the outgoing free special service procedure. The outgoing free special service is usually analyzed to this type
DEPS
Additional service
Indicates that the subsequent call procedures are processed based on the additional service procedure. In general, it is not recommended to configure this service type
CENTL
Intra-office call within the CENTREX business group
Indicates that the subsequent call procedures are processed based on the intra-office call procedure within the CENTREX business group.
INTA
LSPA
LSFR
OUPA
OUFR
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Call Service Types
Meanings
Description
CENTO
Outgoing call within the CENTREX business group
Indicates that the subsequent call procedures are processed based on the outgoing call procedure within the CENTREX business group
TELCA
Intelligent Ntwork service call
Indicates that the subsequent call procedures are processed based on the intelligent network service call procedure
EQACL
Equal access: CIC of the operator where the subscriber is located
Indicates that the subsequent call procedures are processed based on the procedure of “Equal access: CIC of the operator where the subscriber is located”
EQACO
Equal access: non-localnetwork CIC
Indicates that the subsequent call procedures are processed based on the procedure of “Equal access: non-local-network CIC”
Tone play service, CAT_SEND_TONE
Indicates that the subsequent call procedures are processed based on the tone play service procedure. After calling the number that is analyzed to this type, the system will directly play the tone according to the tone ID configured in number analysis result 1
Toll DDC incoming call
Indicates that the subsequent call procedures are processed based on the toll DDC incoming call service procedure. The toll incoming DDC call that needs to be routed in the local office is analyzed to this type
Local DDC call
Indicates that the subsequent call procedures are processed based on the local DDC call service procedure. The local DDC call (dialing the MSISDN number) that needs to be routed in the local office is analyzed to this type
Toll DDC outgoing call
Indicates that the subsequent call procedures are processed based on the toll DDC outgoing call service procedure. The toll outgoing DDC call is analyzed to this type
Local DDC outgoing call
Indicates that the subsequent call procedures are processed based on the local DDC outgoing call service procedure. The local outgoing DDC call is analyzed to this type
STONE
DDCI
DDCC
DDCO
DDCCO
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Call Service Types
Meanings
Description
MSCO
MSC common service
Indicates that the subsequent call procedures are processed based on the MSC common service procedure. The call (dialing the MSISDN number) that needs to be routed in the local office is analyzed to this type
MSLL
MSC localnetwork local-office service (only for roaming numbers)
Indicates that the subsequent call procedures are processed based on the MSC local-network local-office service procedure. It is used to analyze the roaming numbers and handover numbers of the local office
MSLO
MSC local outgoing service (only for roaming numbers)
Indicates that the subsequent call procedures are processed based on the local outgoing service procedure. The local outgoing call of roaming numbers is analyzed to this type
CINRE
Calling-number incoming call restriction
Indicates that the subsequent call procedures are processed based on the calling-number incoming call restriction procedure
MSLTE
MSC national toll call (only for roaming numbers)
Indicates that the subsequent call procedures are processed based on the MSC national toll call service procedure. The toll outgoing call of roaming numbers is analyzed to this type
AAC
Automatic response number
Indicates that the subsequent call procedures are processed based on the automatic response number service procedure
OVERLAY prefix incoming service
Indicates that the subsequent call procedures are processed based on the OVERLAY prefix incoming service procedure. The OVERLAY prefix incoming call is analyzed to this type
OVCS
OVERLAY call service
Indicates that the subsequent call procedures are processed based on the OVERLAY call service procedure. It is used for the IGW system
MSITE
MSC international toll call (only for roaming numbers)
Indicates that the subsequent call procedures are processed based on the MSC international toll call service procedure. The international toll outgoing call is analyzed to this type
OVPRE
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Call Service Types
Meanings
Description
IP
IP fixed service
Indicates that the subsequent call procedures are processed based on the IP fixed service procedure. It is used for the IGW system
SSP
SSP charging and querying service
Indicates that the subsequent call procedures are processed based on the SSP charging and querying service procedure.
NSSP
Non-SSP charging and querying service
Reserved
IPMO
IP mobile service
Indicates that the subsequent call procedures are processed based on the IP mobile service procedure. The IP service in the mobile system is analyzed to this type
INSIP
IP service dialed by intelligentnetwork subscribers
Reserved
ALIP
Independent IP service
Indicates that the subsequent call procedures are processed based on the independent IP service procedure. The independent IP incoming call is analyzed to this type
OVMO
OVERLAY: MO-triggered CAMEL service
Indicates that the subsequent call procedures are processed based on the “OVERLAY: MO-triggered CAMEL service” procedure
OVMT
OVERLAY: MT-triggered CAMEL service
Indicates that the subsequent call procedures are processed based on the “OVERLAY: MT-triggered CAMEL service” procedure
MNP
Mobile number portability
Indicates that the subsequent call procedures are processed based on the MNP service procedure
MNPR
MNP MNP outgoing routing
Indicates that the subsequent call procedures are processed based on the MNP outgoing routing service procedure
SIPO
SIP outgoing call
Indicates that the subsequent call procedures are processed based on the SIP outgoing call service procedure
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Call Service Types
Meanings
Description
H323
H323 call
Indicates that the subsequent call procedures are processed based on the H323 call service procedure.
MOIMC
Mobile emergency special service
Indicates that the subsequent call procedures are processed based on the mobile emergency special service procedure
SSSP
Independent SSP outgoing service
Indicates that the subsequent call procedures are processed based on the independent SSP outgoing service procedure. The SSSP (Independent SSP outgoing service) in the analysis result of the called number is used for the IGW system
IGWA
IGW supplementary service (only for IGW)
Indicates that the subsequent call procedures are processed based on the IGW supplementary service procedure
DASA
DAS service (virtual IGW) (only for IGW)
A new DAS is got through number analysis, which is used for the subsequent analysis of the called number
OCIC
Local valid CIC service
Indicates that the subsequent call procedures are processed based on the local valid CIC service procedure. This parameter is reserved
OUPAOD
Outgoing paid special service (can be dialed by the defaulting subscribers)
Indicates that the subsequent call procedures are processed based on the outgoing paid special service (can be dialed by the defaulting subscribers) procedure
LINTS
Local-office intelligent service
Indicates that the subsequent call procedures are processed based on the local-office intelligent service procedure. It is used for the IGW system
SHLRQ
SHLR querying service (only for IGW)
Indicates that the subsequent call procedures are processed based on the SHLR querying service procedure
IGW common service (only for IGW)
Indicates that the subsequent call procedures are processed based on the IGW common service procedure. The call to PHS subscribers, which needs to be routed in the local office, is analyzed to this type
IGWC
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Call Service Types
Meanings
Description
ISSPQ
IGWSSP charging and querying service (only for IGW)
Indicates that the subsequent call procedures are processed based on the IGW SSP charging and querying service procedure
IGWLF
IGW local-office free special service
Indicates that the subsequent call procedures are processed based on the IGW local-office free special service procedure
IGWLP
IGW local-office paid special service
Indicates that the subsequent call procedures are processed based on the IGW local-office paid special service procedure
IGWOV
IGWOVERLAY prefix incoming service
Indicates that the subsequent call procedures are processed based on the IGWOVERLAY prefix incoming service procedure
IGWDDCIN
IGW toll DDC incoming call
Indicates that the subsequent call procedures are processed based on the IGW toll DDC incoming call service procedure
IGWDDCLOCAL
IGW local DDC call
Indicates that the subsequent call procedures are processed based on the IGW local DDC call service procedure
TEST
Test call
Indicates that the subsequent call procedures are processed based on the test call service procedure. It is used to analyze test calls
TABLE 110 ENABLED OPTIONS Enabled Options
CCS7
Meanings
Description
Automatically sending the calling number when using CCS7 for outgoing services
It indicates whether the outgoing TUP signaling carries the calling number. When the local office actively sends the calling number, it sends an IAI message of TUP signaling to the peer-end office, carrying the calling number. Otherwise, the local office sends an IAM message of TUP signaling to the peer-end office, not carrying the calling number. For ISUP signaling, it indicates whether the local MSC number is filled
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Enabled Options
Meanings
Description in the location number information
Changing the type of calling subscribers
Indicates whether to set the type of the calling subscriber in the outgoing IAM message of ISUP or BICC signaling to the calling subscriber types flexibly configured in security variables
CHGN
Changing the number
Indicates that the analyzed number is changed, and the system notifies the calling subscriber by playing the tone
DELA
Delayed dialing of the special service
Reserved
MAIL
166-voice-mailbox service
Indicates that the call is a 166-voice-mailbox service
NSCP
Not waiting for SCP responses
Reserved
RRTO
Rerouting after outgoing failure
For incoming calls using ISUP, TUP, or BICC signaling, the call procedure is an outgoing call procedure. When the local office does not receives a REL message after sending an outgoing IAM message to the peer-end office, this option control whether rerouting is allowed
NETF
IN forward message
Reserved
VNUM
Virtual number
Reserved
HRA
High rate
Reserved
NUMLEN
Estimate Number Length
Estimate Number Length
CEC
Charge as emergency call
Charge as emergency call
NOLMTLEN
No Limited Time Length For Tone
No Limited Time Length For Tone
IGFWD
Ignore Redirection Info In Outgoing Call
Ignore Redirection Info In Outgoing Call
ECL
Use Emergency Call Level
Use Emergency Call Level
CHGK
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Enabled Options
Meanings
Description
NTC
Not triggering IN service of the calling number
Indicates whether the call triggers the IN service of the calling number. This option is used for the case where the IN service of the calling number cannot be triggered when the call to the IN subscriber is forwarded or when some special numbers are dialed
NCEL
No call when the called number exceeds the length
Indicates whether the system releases the call if the analyzed number exceeds the configured maximum digit length
Interception number incoming
Indicates whether the call is an incoming call returned from the interception center. This option is only used in the IGW system
Sending the “connect” message in advance (only for IGW)
Indicates whether the local office sends a ringing message of the called subscriber and a “connect” message to the calling subscriber at the same time (that is, sends a “connect” message to the calling subscriber before the called subscriber answers the call). This option is only used in the IGW system
Not triggering SHLR query
Indicates whether the number section needs to be transformed in the SHLR during call origination. In the SHLR mixed networking, common call origination procedures need to interact with the SHLR to get the calling logic number, and the called physical number. However, in the specific calls, the called number needs no transform. In this case, select this option in the number analysis result. This option is only used in the IGW system
LSIN
CON
SHLRF
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Enabled Options
SHLRG
JUDG
REBO
Meanings
Description
Over net number in SHLR
Indicates whether the incoming call restrain the SHLR from returning the IN access code. This option is used to prevent repeatedly triggering IN services. This option is only used in the IGW system
Needing to judge the IP resource
Indicates whether the routing query in the SHLR is forcibly performed during IP calls. This option is only used in the IGW system
Restraining HOMEBOX service
Indicates whether incoming calls trigger the HOMEBOX service in the local office. This option is only used in the IGW system
Example: Configure the called number analysis with the following requirements. �
Analyzer entry: 1
�
User alias: TPDNAL1
�
Analyzed number: 13902099
�
Call service type: MSC common service
�
Other parameters: Adopt the default values.
The command is: ADD TPDNAL:ENTR=1,DIGIT="13902099",NAME="TPDN AL1",SPECRST=0,SPECIDX=0,CAT=MSCO,RST1=0,RST2 =0,RST3=0,CHAINAL=0,RNLEN=0,MINLEN=3,MAXLEN =20,OVLYPRI=HCSI,REL=NO,NET=1,NAT=DEF,OPDDIC ONT=NO,TPDDICONT=NO,OPDDI=0,TPDDI=0,OPDLYD DI=0,TPDLYDDI=0,DDIOVERB=0,IWVIDEO=LSUP,TIME LMT=0,AUXDAS=0,A6=0,PFXLEN=0,INSRV=INM,FAXID X=0,AVIDX=0,DVIDX=0,ADATAIDX=0,DDATAIDX=0,D DCPLAY=NONE,VAD=INVALID,CALLSERVPRILVL=INVALI D,RERTS=0,INCHAIN=NO,BICT=NO,ICT=0,ICTT=10,GN M=NORMAL,STBILL=INVALID,HOPDAS=0,MCA=NO,IVVR =NO,WANTL=0,IMSCENTR=NO; Example: Configure the roaming number analysis of the local office with the following requirements.
306
�
Analyzer entry: 1
�
User alias: TPDNAL1
�
Analyzed number: 15902099
�
Call service type: MSC local service
�
Other parameters: Adopt the default values.
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The command is: ADD TPDNAL:ENTR=1,DIGIT="15902099",NAME="TPDN AL2",SPECRST=0,SPECIDX=0,CAT=MSLL,RST1=0,RST2 =0,RST3=0,CHAINAL=0,RNLEN=0,MINLEN=3,MAXLEN =20,OVLYPRI=HCSI,REL=NO,NET=1,NAT=DEF,OPDDIC ONT=NO,TPDDICONT=NO,OPDDI=0,TPDDI=0,OPDLYD DI=0,TPDLYDDI=0,DDIOVERB=0,IWVIDEO=LSUP,TIME LMT=0,AUXDAS=0,A6=0,PFXLEN=0,INSRV=INM,FAXID X=0,AVIDX=0,DVIDX=0,ADATAIDX=0,DDATAIDX=0,D DCPLAY=NONE,VAD=INVALID,CALLSERVPRILVL=INVALI D,RERTS=0,INCHAIN=NO,BICT=NO,ICT=0,ICTT=10,GN M=NORMAL,STBILL=INVALID,HOPDAS=0,MCA=NO,IVVR =NO,WANTL=0,IMSCENTR=NO; END OF STEPS
Trunk Data Configuration Overview The related operations of the trunk data configuration are as follows. Steps
1
Operations
Instructions
Command
Creating a DT trunk group
When the A interface and Ai interface adopts the TDM bearer, or when MGWs are interconnected through the TDM bearer, configure DT trunk groups
ADD TG DT
Creating an ATM trunk group
When the ATM bearer is adopted between MGWs, configure ATM trunk groups
ADD TG ATM
Creating a RTP trunk group
When the IP bearer is adopted between MGWs, configure BICC trunk groups. When the MSCS servers as a MGCF, configure SIP trunk groups for MGWs
ADD TG RTP
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Steps
Operations
Instructions
Command
Creating a PCM system
DT, ATM, and RTP trunk groups all need to be configured with PCM systems
ADD SPCM
Creating a PCM system between MGWs
When the MGWs managed by one MSCS are interconnected through TDM circuits, no trunk group or trunk route needs to be configured, and only PCM systems between the MGWs need to be configured
ADD INPCM
2
Creating a DT Trunk Group Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The adjacent office to which the trunk group points is created.
�
The trunk group No. range is set in the resource management system.
�
The MML Terminal window is opened.
Context
When the A interface or Ai interface adopts the TDM bearer, or when MGWs are interconnected through the TDM bearer, DT trunk groups need to be configured. The circuit status in each trunk group is managed by the corresponding trunk management module, so it is required to configure multiple trunk groups to each BSC office (4~8 trunk groups are recommended). To implement load sharing, it is required to allocate roughly the same number of BSC circuits to each CMP module.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a DT trunk group by executing command ADD TG DT. The explanation of the main parameters in command ADD TG DT is shown in Table 111.
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TABLE 111 PARAMETERS IN THE ADD TG DT COMMAND Parameter Name
Parameter Description
Instruction
Trunk group ID
It is a mandatory parameter. It is used to define a trunk group, and needs to be planned in the resource management system in advance
ID of the office where the trunk group belongs
It is a mandatory parameter. It is used to specify the corresponding office of the trunk group. This parameter must be defined by command ADD ADJOFC at first. Then it can be indexed here
MODULE
Module where the trunk group belongs
It is a mandatory parameter. It indicates a service module. Different trunk groups to the same office need to be allocated to different CMP modules
ND
Node No. of the MGW where the trunk group belongs
It is a mandatory parameter. Select the MGW topology node connected with the 2G MSC/PSTN node
User alias
It is an optional parameter, consisting of 0~50 characters. It is used to specifically describe a trunk group to make it easily recognized
TG
OFC
NAME
Inter-office line signal identification. Options include:
SIGLINE
�
BSC: BSC Ground Circuit
�
TUP: Interoffice Common Channel Signaling TUP
�
ISUP: Interoffice Common Channel Signaling ISUP
�
DLC1: Interoffice Channel Associated Signaling DL/DC(1)
�
R2: R2 Signaling
�
BICC: BICC Type
It is an optional parameter. It is used to identify the line type of this trunk. Select it according to inter-office signaling. For the Ai interface, select ISUP] or TUP
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Parameter Name
Parameter Description �
ANU: ANU Signaling
�
SORMUP: SORMUP Signaling
Instruction
Trunk group types, including the following three types: IN (incoming trunk group): Indicates that the local office processes the incoming calls from the peer-end office.
KIND
OUT (outgoing trunk group): Indicates that the local office only processes the outgoing calls to the peer-end office.
It is an optional parameter. If BSC is selected for the inter-office line signal identification, it must be configured to BIDIR
BIDIR (Two-way trunk group): Indicates that the local office processes both the incoming calls from the peer-end office and the outgoing calls to the peer-end office Bearer establishment direction, including the following three types: NODIR: The inter-office bearer is established without direction. BWAY
BACK: The inter-office bearer is established based on the backward mode.
It is an optional parameter. Select NODIR for DT trunk groups
FORWD: The inter-office bearer is established based on the forward mode
THD
310
Overload control threshold
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It is an optional parameter, ranging from 0 to 100, with a default of 100. This parameter takes effect when levels of congestion occur and load control is required
Chapter 8 Basic Service Data Configuration
Parameter Name
Parameter Description
Instruction
Circuit selecting modes, including: MIN: Every time when the system selects a trunk circuit, it always begins with the circuit with the minimum number. This mode can implement the preferred plan of trunk circuits. MAX: Every time when the system selects a trunk circuit, it always begins with the circuit with the maximum number. This mode can implement the preferred plan of trunk circuits.
CICSEL
CYC: Every time when the system selects a trunk circuit, it always begins with the circuit next to the one previously selected. Suppose the numbers of the trunk circuits in a trunk group in ascending order are “TKC0, TKC1, …. , TKCn”. If TKC0 is selected at the first time, the system will select the trunk circuit in the order of “TKC0®T KC1®…®TKCn®TKC0 ®TKC1®…®TKCn”.
It is an optional parameter. It is used to specify the trunk circuit selecting policy of the system within this trunk group, with a default of CYC. If this No.7 trunk group is a two-way trunk group, it is recommended to set the circuit selecting mode to ODD/EVEN mode to prevent contention when two exchanges select circuits
ODD: Every time when the system selects a trunk circuit, it always selects the circuit with an odd number. EVEN: Every time when the system selects a trunk circuit, it always selects the circuit with an even number. IDLE: Every time when the system selects a trunk circuit, it always selects the idlest circuit. BUSY: Every time when the system selects a trunk circuit, it always selects the busiest circuit
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Parameter Name
DAS
SIPDAS
OPDAS
PREDAS
DDI
OPDDI
MINNAT
312
Parameter Description
Instruction
DAS for the called number
It is an optional parameter. It is used to analyze the called number in an incoming call. This parameter must be defined by command ADD DAS at first. Then it can be indexed here
DAS for the domain name of the called number during a SIP outgoing call
It is used get the name of the IMS domain where the called party is located through analyzing the called number during a SIP outgoing call. It is only used for RTP trunk groups
DAS for the calling number
It is used to analyze the calling number in an incoming call. This parameter must be defined by command ADD DAS at first. Then it can be indexed here
DAS for pre-analyzing the called number
It is used to pre-analyze the called number in an incoming call. This parameter must be defined by command ADD PREDAS at first. Then it can be indexed here
Incoming called number transform ID
It is the index of the incoming called number transform. This parameter must be defined by command ADD DDI at first. Then it can be indexed here
Incoming calling number transform ID
It is the index of the incoming calling number transform. This parameter must be defined by command ADD DDI at first. Then it can be indexed here
Minimum national number length
It is an optional parameter, which is an integer ranging from 0 to 26, with a default of 0. It is used to specify the minimum digit length of the called number during a national incoming call
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Parameter Name
Parameter Description
Instruction
Maximum national number length
It is an optional parameter, which is an integer ranging from 0 to 26, with a default of 26. It is used to specify the maximum digit length of the called number during a national incoming call
Minimum international number length
It is an optional parameter, which is an integer ranging from 0 to 26, with a default of 0. It is used to specify the minimum digit length of the called number during an international incoming call
MAXINT
Maximum international number length
It is an optional parameter, which is an integer ranging from 0 to 26, with a default of 26. It is used to specify the maximum digit length of the called number during an international incoming call
INREG
Incoming register signaling flag, including options: INVALID, MFC, MFP, DTMF, DP and MF
It is an optional parameter, with a default of INVALID
OUTREG
Outgoing register signaling flag, including options: INVALID, MFC, MFP, DTMF, DP and MF
It is an optional parameter, with a default of INVALID
COLEN
The maximum length of CAS calling number end
It is an optional parameter. It ranges from 1 to 32, with a default of 10.
MAXNAT
MININT
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Parameter Name
Parameter Description
Instruction
Trunk circuit usage
It is an optional parameter, which is an integer ranging from 1 to 100, with a default of 100. After the trunk circuit usage is configured, when the ratio of busy circuits to all circuits in this trunk group exceeds this value, congestion occurs in this trunk group. After the congestion is relieved, report the trunk congestion times and congestion duration in the performance statistics. This parameter does not take effect when it is configured to 100
ROAMDAS
DAS for roaming numbers
It is an optional parameter. After this DAS is configured, if the local office serves as a GMSC, this DAS is preferred for the returned roaming numbers. Otherwise, the roaming number DAS configured in the number analysis template is used
Q850CCIDX
Q850 customization index
It is an optional parameter. It ranges from 0 to 65535, with a default of 0.
ID of signaling modification entrance
It is an optional parameter, associated with the inter-office signaling modification entrance. It ranges from 0 to 65535, with a default of 0
BUSYRATE
SMENTERID
Example: Create a DT trunk group to the BSC office with the following requirements: �
Trunk group ID: 99
�
ID of the office where the trunk group belongs: 99
�
User alias: BSC99
�
No. of the CMP module where the trunk group belongs: 3
�
MGW topology node No.: 101
�
Other parameters: Adopt the default values.
The command is:
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ADD TG DT:TG=99,OFC=99,MODULE=4,ND=101,NAME ="BSC99",SIGLINE=BSC,KIND=BIDIR,BWAY=NODIR,THD =100,CICSEL=ODD,DAS=0,SIPDAS=0,OPDAS=0,PREDA S=0,DDI=0,OPDDI=0,MINNAT=0,MAXNAT=26,MININT =0,MAXINT=26,INREG=INVALID,OUTREG=INVALID,COLE N=10,BUSYRATE=100,ROAMDAS=0,Q850CCIDX=0,SME NTERID=0,MLPPDM=4294967295,DISINDEX=0; END OF STEPS
Creating an ATM Trunk Group Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The trunk group No. range is set in the resource management system.
�
The adjacent MGW office to which the trunk group points is created.
�
The MML Terminal window is opened.
Context
When the ATM bearer is adopted between MGWs, configure ATM trunk groups.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create an ATM trunk group by executing command ADD TG ATM. The explanation of the main parameters in command ADD TG ATM is shown in Table 112. TABLE 112 PARAMETERS IN THE ADD TG ATM COMMAND Parameter Name
TG
OFC
Parameter Description
Instruction
Trunk group ID
It is a mandatory parameter. It is used to define an ATM trunk group, and needs to be planned in the resource management system in advance. It is a global unified number
ID of the office where the trunk group belongs
It is a mandatory parameter, ranging from 1 to 256. It is used to specify the corresponding office of the trunk group. This parameter must be
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Parameter Name
Parameter Description
Instruction defined by command ADD ADJOFC at first. Then it can be indexed here
NAME
User alias
It is an optional parameter, consisting of 0~50 characters. It is used to specifically describe a trunk group to make it easily recognized
Module where the trunk group belongs
It is a mandatory parameter, which is an integer, ranging from 1 to 127. It is used to specify the SMP module of processing traffic on this trunk group
ND
Node No. of the MGW where the trunk group belongs
It is a mandatory parameter, which is an integer, ranging from 1~2048. It is used to specify the topology node No. of the MGW providing bearer, which is controlled by the local MGCF
SIGLINE
Inter-office line signal identification, including BICC (BICC signaling)
It is an optional parameter. It is used to identify the line type of this trunk, with a default of BICC
MODULE
Trunk group types, including the following three types: IN (incoming trunk group): Indicates that the local office processes the incoming calls from the peer-end office.
KIND
OUT (outgoing trunk group): Indicates that the local office only processes the outgoing calls to the peer-end office. BIDIR (Two-way trunk group): Indicates that the local office processes both the incoming calls from the peer-end office and the outgoing calls to the peer-end office
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It is an optional parameter. It is used to specify the call connection direction in this trunk group in the local office, with a default of BIDIR. It should be negotiated with the peer-end office
Chapter 8 Basic Service Data Configuration
Parameter Name
Parameter Description
Instruction
Bearer establishment direction, including the following three types: NODIR (No direction): The inter-office bearer is established without direction. BWAY
BACK: The inter-office bearer is established based on the backward mode.
It is an optional parameter. It is used to specify the inter-office bearer establishment direction, with a default of NODIR
FORWD: The inter-office bearer is established based on the forward mode
Overload control threshold
THD
It is an optional parameter, ranging from 0 to 100, with a default of 100. This parameter takes effect when levels of congestion occur and load control is required
Circuit selecting modes, including: MIN: Every time when the system selects a trunk circuit, it always begins with the circuit with the minimum number. This mode can implement the preferred plan of trunk circuits.
CICSEL
MAX: Every time when the system selects a trunk circuit, it always begins with the circuit with the maximum number. This mode can implement the preferred plan of trunk circuits. CYC: Every time when the system selects a trunk circuit, it always begins with the circuit next to the one previously selected. Suppose the numbers of the trunk circuits in a trunk group in ascending order are “TKC0, TKC1, …. , TKCn”. If TKC0 is selected at the first time, the system will select the trunk circuit in the order of “TKC0®TKC 1®…®TKCn®TKC0®TK C1®…®TKCn”.
It is an optional parameter. It is used to specify the trunk circuit selecting policy of the system within this trunk group, with a default of CYC. If this trunk group is a two-way trunk group, it is recommended to set the circuit selecting mode to ODD/EVEN mode to prevent contention when two exchanges select circuits
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Parameter Name
Parameter Description
Instruction
ODD: Every time when the system selects a trunk circuit, it always selects the circuit with an odd number. EVEN: Every time when the system selects a trunk circuit, it always selects the circuit with an even number. IDLE: Every time when the system selects a trunk circuit, it always selects the idlest circuit. BUSY: Every time when the system selects a trunk circuit, it always selects the busiest circuit
DAS
SIPDAS
OPDAS
PREDAS
318
DAS for the called number
It is an optional parameter. It is used to analyze the called number in an incoming call. This parameter must be defined by command ADD DAS at first. Then it can be indexed here
DAS for the domain name of the called number during SIP outgoing calls
It is used get the name of the IMS domain where the called party is located through analyzing the called number during a SIP outgoing call. It is only used for RTP trunk groups
DAS for the calling number
It is used to analyze the calling number in an incoming call. This parameter must be defined by command ADD DAS at first. Then it can be indexed here
DAS for pre-analyzing the called number
It is used to pre-analyze the called number in an incoming call. This parameter must be defined by command ADD PREDAS at first. Then it can be indexed here
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Parameter Name
DDI
OPDDI
MINNAT
MAXNAT
MININT
MAXINT
INREG
Parameter Description
Instruction
Incoming called number transform ID
It is the index of the incoming called number transform. This parameter must be defined by command ADD DDI at first. Then it can be indexed here
Incoming calling number transform ID
It is the index of the incoming calling number transform. This parameter must be defined by command ADD DDI at first. Then it can be indexed here
Minimum national number length
It is an optional parameter, which is an integer ranging from 0 to 26, with a default of 0. It is used to specify the minimum digit length of the called number during a national incoming call
Maximum national number length
It is an optional parameter, which is an integer ranging from 0 to 26, with a default of 26. It is used to specify the maximum digit length of the called number during a national incoming call
Minimum international number length
It is an optional parameter, which is an integer ranging from 0 to 26, with a default of 0. It is used to specify the minimum digit length of the called number during an international incoming call
Maximum international number length
It is an optional parameter, which is an integer ranging from 0 to 26, with a default of 26. It is used to specify the maximum digit length of the called number during an international incoming call
Incoming register signaling flag. Options include: INVALID
It is an optional parameter, with a default value of INVALID
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Parameter Name
Parameter Description
OUTREG
Outgoing register signaling flag. Options include: INVALID
Instruction
It is an optional parameter, with a default value of INVALID
The maximum length of CAS calling number end
It is an optional parameter. It ranges from 1 to 32, with a default of 10.
Trunk circuit usage
It is an optional parameter, which is an integer ranging from 1 to 100, with a default of 100. After the trunk circuit usage is configured, when the ratio of busy circuits to all circuits in this trunk group exceeds this value, congestion occurs in this trunk group. After the congestion is relieved, report the trunk congestion times and congestion duration in the performance statistics. This parameter does not take effect when it is configured to 100
ROAMDAS
DAS for roaming numbers
It is an optional parameter. After this DAS is configured, if the local office serves as a GMSC, this DAS is preferred for the returned roaming numbers. Otherwise, the roaming number DAS configured in the number analysis template is used
Q850CCIDX
Q850 customization index
It is an optional parameter. It ranges from 0 to 65535, with a default of 0.
ID of signaling modification entrance
IIt is an optional parameter, associated with the inter-office signaling modification entrance. It ranges from 0 to 65535, with a default of 0
COLEN
BUSYRATE
SMENTERID
Example: Create an ATM trunk group with the following requirements.
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�
Trunk group ID: 100
�
ID of the office where the trunk group belongs: 100
�
User alias: RNC
�
No. of the module processing the trunk group: 3
�
MGW topology node No.: 101
�
Inter-office line signal identification: BICC
�
Other parameters: Adopt the default values.
The command is: ADD TG ATM:TG=100,OFC=100,MODULE=4,ND=101,NA ME="RNC",SIGLINE=BICC,KIND=BIDIR,BWAY=NODIR,TH D=100,CICSEL=ODD,DAS=0,SIPDAS=0,OPDAS=0,PRED AS=0,DDI=0,OPDDI=0,MINNAT=0,MAXNAT=26,MININT =0,MAXINT=26,INREG=INVALID,OUTREG=INVALID,COLE N=10,BUSYRATE=100,ROAMDAS=0,Q850CCIDX=0,SME NTERID=0,MLPPDM=4294967295,DISINDEX=0; END OF STEPS
Configuring a RTP Trunk Group Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The adjacent MGW or IM-MGW office to which the trunk group points is created.
�
The trunk group No. range is set in the resource management system.
�
The MML Terminal window is opened.
Context
When the IP bearer is adopted between MGWs, configure RTP trunk groups, which are BICC trunk groups. When the MSCS servers as a MGCF, the MGCF needs to control the IP resources from the IM-MGW to the IMS domain through the RTP trunk group configuration data. In this case, SIP trunk groups need to be configured.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Add a RTP trunk group by executing command ADD TG RTP. The explanation of the main parameters in command ADD TG RTP is shown in Table 113.
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TABLE 113 PARAMETERS IN THE ADD TG RTP COMMAND Parameter Name
TG
OFC
NAME
MODULE
Parameter Description
Instruction
Trunk group ID
It is a mandatory parameter. It is used to define a trunk group. This trunk group can be BICC trunk group or SIP trunk group. It is a global unified number
ID of the office where the trunk group belongs
It is a mandatory parameter. It is used to specify the corresponding office of the trunk group. This parameter must be defined by command ADD ADJOFC at first. Then it can be indexed here
User alias
It is an optional parameter, consisting of 0~50 characters. It is used to specifically describe a trunk group to make it easily recognized
Module where the trunk group belongs
It is a mandatory parameter, which is an integer, ranging from 1 to 127. It is used to specify the SMP module of processing traffic on this trunk group
Inter-office line signal identification, including SIGLINE
�
BICC (BICC signaling)
�
SIP (SIP signaling)
It is an optional parameter. Select SIP for the MGCF.
Trunk group types, including the following three types: IN (incoming trunk group): Indicates that the local office processes the incoming calls from the peer-end office. KIND
OUT (outgoing trunk group): Indicates that the local office only processes the outgoing calls to the peer-end office. BIDIR (Two-way trunk group): Indicates that the local office processes both
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It is an optional parameter. BIDIR is selected by default. It should be negotiated with the peer-end office.
Chapter 8 Basic Service Data Configuration
Parameter Name
Parameter Description the incoming calls from the peer-end office and the outgoing calls to the peer-end office
Instruction
Bearer establishment direction, including the following three types:
BWAY
NODIR (No direction): The inter-office bearer is established without direction. BACK: The inter-office bearer is established based on the backward mode.
It is an optional parameter. For RTP trunk groups, it is set according to the network plan of operators
FORWD: The inter-office bearer is established based on the forward mode Threshold for overload control
THD
It is an optional parameter, ranging from 0 to 100, with a default of 100
Circuit selecting modes, including: MIN: Every time when the system selects a trunk circuit, it always begins with the circuit with the minimum number. This mode can implement the preferred plan of trunk circuits.
CICSEL
MAX: Every time when the system selects a trunk circuit, it always begins with the circuit with the maximum number. This mode can implement the preferred plan of trunk circuits.
It is an optional parameter, with a default of CYC. In general, the signaling point with big code prefers the circuit with an even number, while the one with small code prefers the circuit with an odd number. It should be negotiated with the peer-end office
CYC: Every time when the system selects a trunk circuit, it always begins with the circuit next to the one previously selected. Suppose the numbers of the trunk circuits in a trunk group in ascending order are “TKC0, TKC1, …. , TKCn”. If TKC0 is
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Parameter Name
Parameter Description
Instruction
selected at the first time, the system will select the trunk circuit in the order of “TKC0 ®TKC1®…®TKCn®TK C0®TKC1®…®TKCn”. ODD: Every time when the system selects a trunk circuit, it always selects the circuit with an odd number. EVEN: Every time when the system selects a trunk circuit, it always selects the circuit with an even number. IDLE: Every time when the system selects a trunk circuit, it always selects the idlest circuit. BUSY: Every time when the system selects a trunk circuit, it always selects the busiest circuit
DAS
SIPDAS
324
DAS for the called number
It is an optional parameter, which is an integer ranging from 0 to 4096, with a default of 0. When the local office has the GMSC function, this DAS is used to analyze the called number from other offices. When the called number is from the BSC office, this DAS is meaningless, and does not need to be configured
DAS for the domain name of the called number during SIP outgoing calls
It is used get the name of the IMS domain where the called party is located through analyzing the called number during a SIP outgoing call. If the outgoing SIP trunk group is configured with this DAS, the “invite” message during a SIP outgoing call can only contain SIP URL mode. If the outgoing SIP trunk group is not configured with this DAS, configure the URLOPT in the SIP adjacent office configuration to decide whether the outgoing call uses TEL or SIP URL mode.
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Parameter Name
Parameter Description
Instruction After this DAS is used on this trunk group, all outgoing calls on this trunk group will get the corresponding domain name according to the called number, and then form a SIP URL
OPDAS
DAS for the calling number
It is an optional parameter, which is an integer ranging from 0 to 4096, with a default of 0. When the local office has the GMSC function, this DAS is used to analyze the calling number from other offices. When the calling number is from the BSC office, this DAS is meaningless, and does not need to be configured
Example: Create a RTP trunk group with the following requirements. �
Trunk group ID: 102
�
ID of the office where the trunk group belongs: 102
�
User alias: MGW102
�
No. of the module processing the trunk group: 3
�
Inter-office line signal identification: BICC
�
Other parameters: Adopt the default values.
The command is: ADD TG RTP:TG=102,OFC=102,MODULE=4,NAME="MG W102",SIGLINE=BICC,KIND=BIDIR,BWAY=NODIR,THD =11,CICSEL=CYC,DAS=0,SIPDAS=0,OPDAS=0,PREDAS =0,DDI=0,OPDDI=0,MINNAT=0,MAXNAT=26,MININT =0,MAXINT=26,INREG=INVALID,OUTREG=INVALID,COLE N=10,BUSYRATE=100,ROAMDAS=0,Q850CCIDX=0,SME NTERID=0,MLPPDM=4294967295,SIPRUTS=0,DISINDEX =0; END OF STEPS
Creating a PCM System Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The DT, ATM, or RTP trunk group is configured.
�
The MML Terminal window is opened.
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Context
The PCM system management data associate the resources on the MGW with the signaling on the MSCS.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a PCM system by executing command ADD SPCM. The explanation of the main parameters in command ADD SPCM is shown in Table 114. TABLE 114 PARAMETERS IN THE ADD SPCM COMMAND Parameter Name
TG
Parameter Description
Instruction
No. of the trunk group where the PCM system belongs
It is a mandatory parameter, which is an integer, ranging from 1~1000. Select the trunk group where this PCM system belongs from the list of configured trunk groups. It is used to specify the trunk group invoking this PCM system. This parameter is associated with the trunk group No. in command ADD TG ATM, ADD TG DT, ADD TG PRA, and ADD TG RTP It is a mandatory parameter. It is a parameter for interconnection with the peer-end office. If the configured PCM system belongs to the inter-office trunk, the PCM system No. of the same circuit between two offices must be the same.
PCM
PCM system No.
When the inter-office line identification of a trunk group is TUP or ISUP, the PCM system No. ranges from 0 to 127. When the inter-office line identification of a trunk group is BICC, the PCM system No. ranges from 0 to 5999. When the inter-office line identification of a trunk group is BSC or ANU, the PCM system No. ranges from 0 to 2047
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Parameter Name
NUM
Parameter Description
Instruction
Number of created PCM systems
It is an optional parameter. If PCM systems belong to a DT trunk group, this parameter needs not be configured. If PCM systems belong to a RTP or ATM trunk group, select the number the created PCM systems
PCM No. in the MGW
MGWPCM
NAME
E1
DDF
The corresponding trunk group can invoke the PCM resources between the start PCM No. in the MGW and the end PCM No.
It is an optional parameter. If the PCM system belongs to a RTP or ATM trunk group, this parameter needs not be configured. If the PCM system belongs to a DT trunk group, select the corresponding PCM No. in the MGW
User alias
It is an optional parameter, consisting of 1~50 characters. It is used to specifically describe the PCM system configuration to make it easily recognized
E1 identification
It is an optional parameter, consisting of 1~50 characters. For DT trunk groups, describes the E1 with any characters, which can be set to “DTB/SDTB unit No.-E1 No.”
Digital Distribution Frame (DDF) location description
It is an optional parameter, consisting of 1~50 characters. For DT trunk groups, the DDF location description can be set to “Frame No.-Row No.-Port No.”
Example: Create a PCM system to the BSC office with the following requirements: �
No. of the trunk group where the PCM system belongs: 99
�
PCM system No.: 1
�
PCM No. in the MGW: 4–6
�
User alias: BSC1-1.
The command is: ADD SPCM:TG=99,PCM=1,NUM=3,MGWPCM="4"-"6",INF O=65535,NAME="BSC1-1"; END OF STEPS
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Creating a PCM System between MGWs Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The bearer mode between the MGWs is configured in the topology configuration. .
�
The MML Terminal window is opened.
Context
When the MGWs managed by one MSCS are interconnected through TDM circuits, it is required to configure the PCM systems between the MGWs. Since the MGWs are interconnected within the MSCS, it is required to add the bearer mode between the MGWs in the topology configuration, but no trunk group, trunk route or other parameters need to be configured.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create a PCM system between MGWs by executing command ADD INPCM. The explanation of the main parameters in command ADD INPCM is shown in Table 115. TABLE 115 PARAMETERS IN THE ADD INPCM COMMAND
328
Parameter Name
Parameter Description
Instruction
ND1
MGW1 node No.
It is a mandatory parameter. Enter the topology node No. of MGW1
ND2
MGW2 node No.
It is a mandatory parameter. Enter the topology node No. of MGW2
PCM
PCM system No.
It is a mandatory parameter. Enter the PCM system No. in the MSCS
ND1PCM
PCM No. in MGW1
It is a mandatory parameter. Enter the PCM system No. in MGW1
ND2PCM
PCM No. in MGW2
It is a mandatory parameter. Enter the PCM system No. in MGW2
MODULE
Management module No.
It is a mandatory parameter. Select the No. of the CMP module of managing this PCM system
PCMTYPE
PCM type
It is an optional parameter, with a default of E1
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Parameter Name
Parameter Description
Instruction
NAME
User alias
It is an optional parameter, which is in the format of “Adjacent office MGW1 user alias-Adjacent office MGW2 user alias-PCM system No.”
ND1E1
E1 identification
It is an optional parameter, which can be set to “DTB/SDTB unit No.-E1 No.”
ND1DDF
DDF location description
It is an optional parameter, which can be set to “Frame No.-Row No.-Port No.”
ND2E1
MGW2 E1 ID
It is an optional parameter, which can be set to “DTB/SDTB unit No.-E1 No.”
ND2DDF
Description of MGW2 DDF location
It is an optional parameter, which can be set to “Frame No.-Row No.-Port No.”
Example: Add a PCM system between MGWs with the following requirements. �
PCM system No.: 0
�
PCM No. in MGW1 and MGW2: 1
�
Management module No.: 4
�
User alias: MGW1-MGW2.
The command is: ADD INPCM:ND1=101,ND2=102,PCM=0,ND1PCM=1,ND2 PCM=1,MODULE=4,PCMTYPE=E1,NAME="MGW1-MGW2"; END OF STEPS
Routing Data Configuration Overview Description
Outgoing route chains are directly referred to in number analysis results. Each outgoing route chain contains at most 4 outgoing route groups (in active/standby relationship), and each outgoing route group contains at most 12 outgoing routes (in load sharing relationship). The outgoing route has a one-to-one correspondence with the trunk group.
Data Configuration
The related operations of the routing data configuration are as follows.
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Steps
Operations
Instructions
Commands
1
Creating an outgoing route
Each trunk group corresponds to an outgoing route.
ADD RT
2
Creating an outgoing route group
Each route belongs to a route group, and each route group contains at most 12 routes.
ADD RTS
Creating an outgoing route chain
Each outgoing route group belongs to an outgoing route chain, and each route chain contains at most 4 route groups.
ADD CHAIN
3
Creating an Outgoing Route Prerequisites
Context Steps
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The outgoing route No. range is set in the resource management system.
�
The MML Terminal window is opened.
Each trunk group corresponds to an outgoing route. 1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Create an outgoing route by executing command ADD RT. The explanation of the main parameters in command ADD RT is shown in Table 116. TABLE 116 PARAMETERS IN THE ADD RT COMMAND Parameter Name
RT
330
Parameter Description
Instruction
Route No.
It is a mandatory parameter, which is an integer, ranging from 1~20000. It exclusively identifies a route. To facilitate management, the route No. is configured to be consistent with the trunk group No.
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Parameter Name
Parameter Description
Instruction
TG
Trunk group No.
It is a mandatory parameter, corresponding to the trunk group No. in the trunk group configuration
Called number transform index during outgoing calls
It is an optional parameter, which is an integer ranging from 0 to 2048, with a default of 0. The called number is transformed according to this index during outgoing calls. This index has no influence on the incoming calls through this trunk
OPDDI
Calling number transform index during outgoing calls
It is an optional parameter, which is an integer ranging from 0 to 2048, with a default of 0. The calling number is transformed according to this index during outgoing calls. This index has no influence on the incoming calls through this trunk
DLPFX
Whether to delete the prefix of the calling number during outgoing calls, including NO and YES
It is an optional parameter, with a default of NO. If YES is selected, the prefix of the calling number (such as 0/00) will be deleted during outgoing calls
NAME
User alias
It is an optional parameter, consisting of 0~50 characters.
DDI
Example: Create an outgoing route with the following requirements. �
Route No.: 28
�
Trunk group No.: 28
�
User alias: Rout128
The command is: ADD RT:RT=28,TG=28,DDI=0,OPDDI=0,DLPFX=NO,NAM E="ROUT28",HOPCNT=0,RERTS=0,CLISETIDX=65535; END OF STEPS
Creating an Outgoing Route Group Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The outgoing route No. is added.
�
The MML Terminal window is opened.
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Context
Each route belongs to a route group, and each route group contains at most 12 routes.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Creat an outgoing route group by executing command ADD RTS. The explanation of the main parameters in command ADD RTS is shown in Table 117. TABLE 117 PARAMETERS IN THE ADD RTS COMMAND Parameter Name
RTS
NAME
Parameter Description
Instruction
Route group No.
It is a mandatory parameter, which is an integer, ranging from 1~3000. It is used to identify a route group
User alias
It is an optional parameter, consisting of 0~50 characters. It is used to specifically describe a route group to make it easily recognized t is an optional parameter. It is in the format of “No.-Route No.-Load sharing proportion. When the percentage is set to 0, the poll mode is adopted. SEQ: No., which is the location of the route in the route group.
RTPER
Route No. and load sharing proportion list
RTVAL: Route No., associated with the route group. This parameter must be defined by command ADD RT at first. Then it can be indexed here. PERVAL: Load sharing proportion of each route in the route group. If it is set to 0 for all routes by default, the load is evenly allocated to each route
Example: Add an outgoing route group with the following requirements.
332
�
Route group No.: 28
�
User alias: Rout28
�
Locaiton:1
�
Route No.: 28
�
Percentage: 0
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The command is: ADD RTS:RTS=28,NAME="ROUT28",RTPER="1"-"28"-"0";
Note: Each outgoing route group can be configured with at most 12 outgoing routes, performing load sharing based on the poll or percentage mode. One outgoing route can be allocated to different adjacent offices (such as TMSC1 and TMSC2), thus to implement traffic load sharing to different offices. END OF STEPS
Creating an Outgoing Route Chain Prerequisites
Before the operation, it is required to confirm: �
The exchange ID to be configured is given.
�
The outgoing route chain No. range is set in the resource management system.
�
The MML Terminal window is opened.
Context
Each outgoing route group belongs to an outgoing route chain, and each route chain contains at most 4 route groups.
Steps
1. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the exchange to be configured. Example: Select the MSCS exchange with ID as 11 from the system tree. SET:NEID=11; 2. Creat an outgoing route chain by executing command ADD CHAIN. The explanation of the main parameters in command ADD CHAIN is shown in Table 118. TABLE 118 PARAMETERS IN THE ADD CHAIN COMMAND Parameter Name
Parameter Description
Instruction
CHAIN
Route chain No.
It is a mandatory parameter, which is an integer, ranging from 1 to 3000. It is used to define an outgoing route chain. When it is configured in the number analysis configuration, it is associated to the route chain configured here
NAME
User alias
It is an optional parameter, consisting of 0~50 characters. It is used
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Parameter Name
Parameter Description
Instruction to specifically describe a route chain to make it easily recognized
Whether the preference policy is supported in the MGW, including:
PRND
NO: When 2B occurs, the calls in the same MGW are not preferred, and routing is performed according to other routing policies of the system instead.
It is an optional parameter, with a default of YES. It is a policy for selecting the rouging route
YES: When 2B occurs, the calls in the same MGW are preferred
334
RTS1
No. of route group 1, used to set the route group with the highest priority in a route chain during routing. One route chain can be configured with at most 4 route groups
RTS2
No. of route group 2, used to set the route group with the level-2 priority in a route chain during routing. One route chain can be configured with at most 4 route groups
RTS3
No. of route group 3, used to set the route group with the level-3 priority in a route chain during routing. One route chain can be configured with at most 4 route groups
RTS4
No. of route group 4, used to set the route group with the level-4 priority in a route chain during routing. One route chain can be configured with at most 4 route groups
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It is an optional parameter. Select route groups according to the priority order. Select route group 1 fist. Only when the circuits in route group 1 are used up or all the circuits are unavailable, the circuits in route group 2 can be selected. Only when the circuits in route group 2 are used up or all the circuits are unavailable, the circuits in route group 3 can be selected
Chapter 8 Basic Service Data Configuration
Parameter Name
Parameter Description
Instruction
RTPLC
Route Selection Policy Number
It is an optional parameter. Select the route selection policy number configured in ADD RTPLC command
DAS for the called number
It is an optional parameter. It is used to analyze the called number in an incoming call. This parameter must be defined by command ADD DAS at first. Then it can be indexed here. It needs to be set only when “Inter-MGW route chain” is set in the called number analysis. The default value is 0
TPDAS
Example: Create an outgoing route chain with the following requirements. �
Route chain No.: 28
�
User alias: RLink28
�
No. of Route group 1: 28
�
Other parameters: Adopt the default values.
The command is: ADD CHAIN:CHAIN=28,NAME="RLink28",PRINODE=YE S,RTS1=28,RTS2=0,RTS3=0,RTS4=0,RTPLC=0,TPDAS =0; END OF STEPS
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Chapter
9
Configuration Instance Table of Contents Overview........................................................................ 337 Local Office Data Configuration.......................................... 340 Resource Attribute Configuration ....................................... 345 Adjacent MGW Office Interconnection Data Configuration ............................................................................... 346 Adjacent HLR Office Interconnection Data Configuration ......... 349 Adjacent RNC Office Interconnection Data Configuration ............................................................................... 350 Location Update Data Configuration ................................... 352 Call Data Configuration .................................................... 354 Data Synchronization ....................................................... 355 MSCS-MGW Interconnection Debugging Procedure ............... 355 MSCS-HLR Interconnection Debugging Procedure................. 359 MSCS-RNC Interconnection Debugging Procedure ................ 365 Basic Service Debugging Procedure.................................... 366
Overview Introduction
This chapter introduces the local office configuration procedure and office interconnection data configuration procedure by taking the example of creating a MSCS pilot office. Figure 64 shows the networking diagram.
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FIGURE 64 NETWORKING DIAGRAM
Note: Real lines indicate bearer connections, while dashed lines indicate signaling connections The RNC is directly connected with the MGW through the ATM bearer, while the MSCS is directly connected with the MGW through the IP bearer. The RANAP/SCCP signaling between the MSCS and the RNC is forwarded by the MGW. The user data between the MGW and the RNC are transferred through AAL2, and ALCAP signaling controls the AAL2 connection. The MSCS and MGW can be interconnected with the RNC through different signaling points. According to the networking condition shown in Figure 65, the operator is required to provide the negotiation data listed in Table 119 and Table 120. TABLE 119 NEGOTIATION DATA INSTANCE NE
Parameter
Attributes
Office ID
27
GT number of local office
8613903023
Signaling point type of the local office
24-bit
SPC of the local office
3.20.1
Prefix of the roaming numbers in the local office
8613903023
Roaming number range of the local office
0~899
Prefix of the handover numbers in the local office
8613903023
MSCS
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NE
Parameter
Attributes
Handover number range of the local office
900~999
17 channels of (9-interface) E1 16 TS To HLR
SLC 0
Call prefix of the test number
8613902099
PLMN ID
46000
Office ID
24
GT number of local office
8613903021
Signaling point type of the local office
24-bit
SPC of the local office
3.21.1
ATM address
20.2020.0000.0000.0000. 0000.0000.0000.0000.000 0.00
AAL5 (signaling) interconnecting with VPI/VCI (4#)
1/32 (MGW) to 1/51 (RNC)
AAL2 (tone) interconnecting with VPI/VCI (4#)
1/33 (MGW) to 2/32 (RNC)
Office ID
66
GT number of local office
8613903030
Signaling point type of the local office
24-bit
SPC of the local office
100.100.30
Signaling point type of the local office
24-bit
SPC of the local office
3.20.30
RNCID
123
Location Area Code (LAC)
0014
AMR coding/decoding rate
122
ATM address/coding type (the coding type is NSAP)
30.3030.0000.0000.0000. 0000.0000.0000.0000.000 0.00
MGW
HLR
RNC
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TABLE 120 SIGTRAN IP ADDRESS INSTANCE OF THE MC INTERFACE Parameter
Attributes
IP of the loop-back interface at the MSCS side
192.168.2.11/32
IP of the SIPI interface at the MSCS side
192.168.1.11/16
IP of the loop-back interface at the MGW side
192.168.2.22/32
IP of the SIPI interface at the MGW side
192.168.1.22/16
Local Office Data Configuration The procedure of the local office data configuration is as follows: Steps
Operations
1
Local exchange configuration
2
Physical configuration
3
Capacity and load sharing configuration
4
Version loading
5
Office data configuration
6
VLR configuration
Local Exchange Configuration Data Planning
Table 121 lists the parameters in the local exchange configuration. TABLE 121 DATA PLANNING OF THE LOCAL EXCHANGE CONFIGURATION
340
Configuration Parameters
Configuration Description
Office ID
27
Exchange type
MSCS
User alias
MSCS27
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Command
Configuration Parameters
Configuration Description
Code of the province where this exchange is located
320000
Code of the city where this exchange is located
320101
ADD NE:ID=27,TYPE=MSCS,MESUBTYPE=NONE,NAME="MSC S27",VENDOR="ZTE",STATE=0; SET PCINFO:PROVINCE="320000",CITY="320101";
Physical Configuration Data Planning
When the MSCS office uses only one shelf, the board layout of the BCTC shelf is shown in Figure 65. Table 122 lists the data planning of the physical configuration. FIGURE 65 BOARD LAYOUT OF THE BCTC SHELF
TABLE 122 DATA PLANNING OF THE PHYSICAL CONFIGURATION
Board
Type
CPU
Slot No.
Unit No.
Module No.
Backup Mode
OMP
-
X86
Slots 11 and 12
-
No. 1 OMP
1+1 activ e/standby mode
No.2 RPU
UIMC
UIM2_GC S_755
-
Slots 9 and 10
921
-
1+1 activ e/standby mode
SMP
-
X86
Slots 7 and 8
-
34
1+1 activ e/standby mode
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Command
Board
Type
CPU
Slot No.
Unit No.
Module No.
Backup Mode
SIPI
SIPI_NC
-
Slot 3
321
-
No backup
SPB
SPB2_82 60_8262 0C4
-
Slot 5
521
-
No backup
1. Select an exchange. SET:NEID=27; 2. Create a shelf. ADD SHELF:RACK=1,SHELF=2,TYPE=BCTC; 3. Create UIM units ADD UNIT:LOC="1"-"2"-"9",MODULE=1,UNIT=921,TYPE =UIM2_GCS_755,BKMODE=ONEPLUSONE,CLK1=16383,CL K2=16383; 4. Create modules. ADD MODULE:LOC="1"-"2"-"7",MODULE="3",FUNC1="SM P"&"MSCBASECMP"&"VMSC/CMP_GO/CMP_MSCe/CMP_VLR/C MP_G_GMSC",CPUTYPE=CENTRINO,BKMODE=NO; 5. Create SPB units. ADD UNIT:LOC="1"-"2"-"5",MODULE=1,UNIT=521,TYPE =SPB2_8260_8260C4,BKMODE=NO,CLK1=16383,CLK2=16 383; 6. Create SIPI units. ADD UNIT:LOC="1"-"2"-"3",MODULE=1,UNIT=321,TYPE =SIPI_NC,BKMODE=NO,CLK1=16383,CLK2=16383;
Capacity and Load Sharing Configuration Data Planning
Table 123 lists the parameters in the capacity and load sharing configuration. TABLE 123 DATA PLANNING OF THE CAPACITY AND LOAD SHARING CONFIGURATION
Command
342
Configuration Parameters
Configuration Description
Office capacity
Adopts the default value
Service data area
The number of destination codes is 4096
1. Configure the MSCS office capacity.
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SET MSCSCAPACITY; For the subsequent steps, refer to Setting the MSCS Office Capacity. 2. Configure the service data area. SET DATASIZE:CMODEL=AMONLY,BCBMNUM=10,DSTCD NUM=4096; 3. Create the IMSI load sharing. ADD IMSILOAD:MODULE="3"; 4. Create the TMSI load sharing. ADD TMSILOAD;
Version Loading After the physical configuration and capacity configuration are completed, it is required to load the board version in order to let the foreground board run normally. For the steps of loading the version files, refer to Overview.
Office Data Configuration Data Planning
Table 124 lists the parameters in the office data configuration. TABLE 124 DATA PLANNING OF THE OFFICE DATA CONFIGURATION Configuration Parameters
Configuration Description
Network type
1
Area code
25
Signaling point type of the local office
24-bit
SPC of the local office
3.20.1
Exchange type
Local exchange/toll exchange/in the same region
Signaling point type
SEP
MSC number of the local office
8613903023
VLR number of the local office
8613903023
MCC
460
MNC
00
Length of the mobile subscriber number
3
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Command
1. Configure the signaling point of the local office. ADD OPC:NET=1,NAME="MSCS27",RC="25",SPCFMT=TRI PLE_DEC,OPC24="3.20.1",APPTYPE="ALCAP"&"BICC"&"H.2 48"&"SCCP",PREFIX="0",NETAPP=0,INFO=NONETAPP,DM IDX=0; 2. Create the local exchange configuration. ADD LOFC:OFCTYPE="LOCAL"&"DOMTOLL",NET=1,SEQ =0,TCODE="1234",SPTYPE=SEP,LANG=DEFAULT,RESTAR T=YES,RSTTIME=10000,T19=68,T20=60,T21=64; 3. Create the local office mobile data. ADD MSCCFG:MSC="8613903023",VLR="8613903023",C C="86",NDC="139",MCC="460",MNC="00",OFCTYPE="EO ",SNLEN=3,PREINT="00",RC="25",TAG="SMS MT"&"SMS MO"&"LOCCIC_NOOUT",NSYIND=255,SOURCE=SPEECH,R NCRESET=3,SUPCAPA="NONE",SELFCIC="0",DEFCIC="0 ",DEFNAEA=65535,CODETYPE=G711A64,SUPPCALLEDPB RT=NO,SUPPCALLINGPBRT=NO,PLAYCWTONE=NO,OMC PRIOR=NO,LOADTYPE=NEXTLV,RCSKEY=255,RCMINLEN =1,RCMAXLEN=20,RCTAG=NO,CNID=0,LICOFCID=0,OS BDAS=0,ROAMPLC=NO,USSDPLC=MSISDN_USSDC,IFDFT ZC=DISABLE,DFTZC="FFFF",USRTYPEJUDGE=NUMBER,RE LCALLNUM=0,BICCCS=OFF,FAXDELAY=5,IGNLANOTALL OW=NO,CRD=NO,CMPBSCCODEC=FALSE; 4. Create the CC. ADD CC:CC="86",NAME="CHINA";
VLR Configuration Data Planning
Table 125 lists the parameters in the VLR configuration. TABLE 125 DATA PLANNING OF THE VLR CONFIGURATION Configuration Parameters
Configuration Description
VLR system parameter VLR system capacity
Adopts the default value
Services supported by the VLR
Command
344
Prefix of the roaming numbers in the local office
8613903023 (Prefix + Dynamic digits (not more than 15 digits)
Prefix of the handover numbers in the local office
8613903023
Roaming number range of the local office
0~899
Handover number range of the local office
900~999
1. Create the VLR system parameter.
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Chapter 9 Configuration Instance
ADD VLRSYS:MRNEXTYPE=EXMSRN,MRNALCTYPE=IG N2G3G,MRNDYNDIGIT=3,MSTMLMT=24,MRNTMLMT=9 0,MHNTMLMT=90,LUTM=30,LUPROTECTTM=15,MAXFW D=1,PAGENRCNT=3,PAGENRTM=2,BUSYLMT=5,IDREQ =YES,LOCTMSI=ALWAYS0,OPCNTPA=0,TMLMTPA=0,MRN INTERRG=NO,CMRNMODULE=0,RETMSITIME=30; 2. Create the VLR system capacity. ADD VLRCAP:TRATAB=50,IMEITAB=50,MRNTAB=900,M HNTAB=100,ICUGPER=50,BCUGPER=50,ZCPER=50,OCSI PER=120,SSCSIPER=100,TCSIPER=100,DCSIPER=100,M CSIPER=100,SMSCSIPER=100,LCSPER=20,BSGPER=40 0,FSAPER=50,ACCESSCD=0,ALS=0,IGWMSTAB=1000,IG WTRATAB=1000,IGWZCTAB=1000,IGWOCSITAB=1000,I GWTCSITAB=1000,IGWCUGTAB=1000,IGWSPCDTAB=1 000,IGWABBRTAB=1000,IGWMRNTAB=1000,USERBAK =0;
Note: Restart the MP after the configuration. 3. Create the services supported by the VLR. ADD VLRSRV:ODB="ALL",OTHER="ALL",TELESRV="ALL ",SPECTS="ALL",CDA="ALL",CDS="ALL",PAD="ALL",PDS ="ALL",SPEECH="ALL",SPECBS="ALL",CCBS=NONE; 4. Create the prefix of the roaming numbers in the local office. ADD MRNPFX:MRNPFX="8613903023"; 5. Create load sharing for roaming numbers. ADD MRNSH:MRNPFX="8613903023",MODULE="3",NUM BEGIN=0,NUMEND=899,IDFLAG=3G; ADD MRNSH:MRNPFX="8613903023",MODULE="1",NUM BEGIN=900,NUMEND=999,IDFLAG=HON;
Resource Attribute Configuration Resource Planning
The instance of resource attribute configuration is shown in Table 126.
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TABLE 126 RESOURCE PLANNING INSTANCE Configuration Items
Resource Types
Key Fields
Minimum
Maximum
Office data configuration
Adjacent office
Office ID
1
20
Node Topology Config
Topology node ID.
1
20
Voice codec template
Template ID
1
10
SCTP
SCTP ID
1
20
ASP
ASP ID
1
20
AS
AS ID
1
20
M3UA static route
M3UA static route ID
1
5
Signaling link set
Link set No.
1
20
Signaling route
Signaling route No.
1
20
Number Analysis Selector
Number Analysis Selector
1
300
Number Analysis Entrance
Number Analysis Entrance
1
50
Location Area
Location Area ID
1
5000
Topology configuration
Protocol configuration
Access configuration
Adjacent MGW Office Interconnection Data Configuration Data Planning
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Table 127 lists the parameters in the adjacent-MGW-office interconnection data configuration.
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TABLE 127 PARAMETERS IN THE ADJACENT MGW OFFICE INTERCONNECTION DATA CONFIGURATION Configuration Parameters
Configuration Description
IP of the loop-back interface at the MSCS side
192.168.2.11/32
IP of the SIPI interface at the MSCS side
192.168.1.11/16
IP of the loop-back interface at the MGW side
192.168.2.22/32
IP of the SIPI interface at the MGW side
192.168.1.22/16
Adjacent MGW office ID
3
Adjacent MGW office type
MGW
Association mode
AM_SURE (Associated)
MGW topology node No.
3
Signaling point type of the MGW
24-bit
SPC of the MGW
3.21.1 he coding/decoding template No. is 1.
Tone coding/decoding template No.
The ETSI coding/decoding type is ETSI_UMTS_AMR_2. The supported coding/decoding rates are “5.90K” and “6.70K”. The activated coding/decoding rates are “5.90K” and “6.70K”
Command
SCTP ID
1
ASP ID
1
AS ID
1
M3UA static route ID
1
SIO-locating-AS ID
1
TID analyzer index
1
TID command template No.
It is 1 by default
1. Create the loop-back interface. INTERFACE LOOPBACK:PORT=1; ADD IP ADDRESS:ADDRESS="192.168.2.11",MASK="255. 255.255.255",BROADCASTIP="255.255.255.255"; SAVE ONLINEDATA; EXIT;
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2. Create the SIPI interface address. INTERFACE:SUBSYSTEM=0,MODULE=1,UNIT=321,SUNI T=1,PORT=1; ADD IP ADDRESS:ADDRESS="192.168.1.11",MASK="255. 255.0.0",BROADCASTIP="255.255.255.255"; SAVE ONLINEDATA; EXIT; 3. Create an adjacent MGW office. ADD ADJOFC:ID=3,NAME="MGW3",NET=1,OFCTYPE=M GW,SPCFMT=TRIPLE_DEC,SPCTYPE=24,DPC="3.21.1",RC ="25",ASSOTYPE=AM_SURE,SPTYPE=SEP,SSF=NATIONA L,SUBPROTTYPE=DEFAULT,TEST=YES,BANDFLAG=YES,P RTCTYPE=CHINA,CLST=65535,INFO="CIC_PCM",RELATE DOFC1=0; 4. Create a tone coding/decoding template. ADD CODECTPL:ID=1,GRPID=GRPID1,VALFG=YES,OID =OID_ETSI,ETYPE=ETSI_UMTS_AMR_2,ACTRATE="Rate59 0"&"Rate670",SUPRATE="Rate590"&"Rate670",OM=YES; 5. Create a MGW topology node. ADD TOPO:ID=3,OFCID=3,NAME="MGW3",CODECID=1,E TYPE=R4GW,PROTTYPE=H248,DMNAME="MGW",IPVER =IPV4,ATTR="BNCAAL2"&"BNCIPRTP"&"BNCTDM",UPVER ="V2",ATTR2=DTUNL,TRFMOD=MCINTF,UPERRCTRL=YE S,DTMFTC=NO,MGWCON=SMGWCON,AUTOFAX=YES,OO BTC=NO,BCUID=0,SENDCAP=NO,G711TRAN=NO,BICCD TMF=TRANSPARENT,IPBCP2833=BYMGW,BICCDTMPPER =0,AOIPPRO=PRIVATE; 6. Create the SCTP. ADD SCTPCONN:MODULE=3,OFCID=3,PROT=M3UA,ROL E=CLT,LOCADDR="IPv4"-"0"-"192.168.2.11",LOCPORT=2 100,REMADDR="IPv4"-"0"-"192.168.2.22",REMPORT=210 0,NAME="MGW3-1",ID=1,INSTRM=16,OUTSTRM=16,MA XRTRY=5,MAXRTO=500,MINRTO=50,INITRTO=100,HB =500,FIXNH=NO,SCTPMAXRTRYNUM=10,DELAYACK=2 0,MAXBURST=4,PRIMARYPATH=REMIP1,PMTU=0,BREAK TIME=3,PDTHRESH=0,MINCWND=0,PLTIMER=10,MPPL THRD=2,DPLEN=MTU,CB=200; 7. Create the ASP. ADD ASP:ASSOCID=1,NAME="MGW3-1",ID=1,ISLOOP=N O,ISLOCK=NO; 8. Create the AS. ADD AS:PROT=M3UA,ASPID="1",NAME="MGW3-1",ID =1,EXISTCTX=NO,ASTAG=CLT,ASUP="H248",ASMD=LOA D,NVAL=1,KVAL=0; 9. Create a M3UA static route. ADD M3UART:ID=1,ASID=1,MODE=BYTURNS,NAME="MG W3"; 10. Create the SIO-locating-AS.
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ADD SIOLOCAS:ID=1,NAME="MGW3",SIO=H248,OFCID =3,OPOFCID=65535,PCM=65535,RT1=1,RT2=0; 11. Create MSCS tones in batches. BADD STONE:TYPE=ALL; 12. Create the MGC static data. ADD MGCSCFG:MEGACO=1,ACTTM=600,ACTCHK=ON,W AITTM=7800,PTRYNUM=5,PTRYTM=4000,CTXLIVETM=1 200,MGACTTM=600; 13. Create the MGW static data template. ADD MGSTPL:NAME="MGW3",ID=1,MEGACO=1,ACTCHK =ON,PRTTM=10,PRT=ON,PENDTM=200,LNGTM=15000,R TRNTM=3800,MTRNNUM=1,TRNMD=UNFIXED,CTYPE=TE XT; 14. Create the MGW static data. ADD MGSCFG:ID=3,TPLID=1,TONEID=1,LANGID=1,N AME="MGW3",PKGLOST=10,JIT=50,DELAY=200,MGW =NO; 15. Create the TID analyzer. ADD TIDANL:NAME="MGW3",PREV=1,TIDPFX="TDM",TA G=TRUNK,PCMSPR="_",IDXSPR="/",PCMPOS1=1,PCMPO S2=0,IDXPOS1=1,IDXPOS2=0; 16. Create the TID analyzer entry. ADD TIDENTR:ND=3,TIDENTID=1,TIDTPLID=1,NAME ="MGW3";
Adjacent HLR Office Interconnection Data Configuration Data Planning
Table 128 lists the parameters in the adjacent-HLR-office interconnection data configuration. TABLE 128 PARAMETERS IN THE ADJACENT HLR OFFICE INTERCONNECTION DATA CONFIGURATION Configuration Parameters
Configuration Description
Adjacent HLR office ID
1
Adjacent HLR office type
HLR/HLRe
Association mode
AM_SURE (Associated)
Area code
25
Signaling point type of the HLR
24-bit
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Command
Configuration Parameters
Configuration Description
SPC of the HLR
100.100.30
Signaling link set ID (64K narrow-band)
1
Signaling link ID
1
Start time slot No. of the E1
16
Signaling link code in a signaling link set
0 (consistent with that of the peer end)
Signaling route ID
1
1. Create an adjacent HLR office. ADD ADJOFC:ID=1,NAME="HLR",NET=1,OFCTYPE="HLR/ HLRe",SPCFMT=TRIPLE_DEC,SPCTYPE=24,DPC="100.100 .30",RC="25",ASSOTYPE=AM_SURE,SPTYPE=SEP,SSF=N ATIONAL,SUBPROTTYPE=DEFAULT,TEST=YES,BANDFLAG =NO,PRTCTYPE=CHINA,CLST=65535,INFO="CIC_PCM",RE LATEDOFC1=0; 2. Create a signaling link set. ADD N7LKS:OFCID=1,TYPE=N64,ID=1,LECM=BASIC,NA ME="HLR-1"; 3. Create a SPB access signaling link. ADD N7LNKE1:LKSID=1,SLC=0,MODULE=3,NAME="HLR1-1",ID=1,SPBUNT=521,CPU=1,E1=9,TS=16,LOOP=NO,I NFO=E1,FCPLTHR=255; 4. Create a signaling route. ADD N7ROUTE:NAME="HLR1",LKSID1=1,LKSID2=0,ID =1,LPM=RAND,LPMIN=RAND,MANUAL=NO; 5. Create the signaling office direction. ADD N7OFC:ID=1,RT1=1,RT2=0,RT3=0,RT4=0,NAME ="HLR1";
Adjacent RNC Office Interconnection Data Configuration Data Planning
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Table 129 lists the parameters in the adjacent-RNC-office interconnection data configuration.
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TABLE 129 PARAMETERS IN THE ADJACENT RNC OFFICE INTERCONNECTION DATA CONFIGURATION
Command
Configuration Parameters
Configuration Description
Signaling point type of the RNC
24-bit
SPC of the RNC
3.20.30
Adjacent RNC office ID
2
Adjacent RNC office type
RNC
Association mode
AM_QUASI (Quasi-associated)
RNC topology node No.
2
RNCID
123 (provided by the radio side)
ATM address/coding type (the coding type is NSAP)
20.2020.0000.0000.0000.0000.0 000.0000.0000.0000.00
SCTP ID
2
ASP ID
2
AS ID
2
M3UA static route ID
2
SIO-locating-AS ID
2
1. Create an adjacent RNC office. ADD ADJOFC:ID=2,NAME="RNC2",NET=1,OFCTYPE="RN C",SPCFMT=TRIPLE_DEC,SPCTYPE=24,DPC="3.20.30",AS SOTYPE=AM_QUASI,SPTYPE=SEP,SSF=NATIONAL,SUBPR OTTYPE=DEFAULT,TEST=YES,BANDFLAG=NO,PRTCTYPE =CHINA,CLST=65535,INFO="CIC_PCM",RELATEDOFC1=0; 2. Create the RNC office direction attributes. ADD RNCOFC:OFCID=2,MCC="460",MNC="00",RNCID =1,RABDLY=100,SDUERA=ERRRATIO2,RBERA=ERRRATIO 7,RBERB=ERRRATIO4,RBERC=ERRRATIO3,SELMGTYPE=E XCELLENT,ATMADDR="123456789012345",ADDRPLAN=E1 64,BTRY1=NO,BTRY2=NO,RAS=NO; 3. Create a RNC topology node. ADD TOPO:ID=2,OFCID=2,NAME="RNC2",CODECID=1,E TYPE=RNC,PROTTYPE=H248,DMNAME="RNC",IPVER=IPV 4,UPVER="V2",ATTR2=NOTUNL,TRFMOD=MCINTF,UPERR CTRL=YES,DTMFTC=NO,MGWCON=SMGWCON,AUTOFAX =YES,OOBTC=NO,BCUID=0,SENDCAP=NO,G711TRAN=N O,BICCDTMF=TRANSPARENT,IPBCP2833=BYMGW,BICCD TMPPER=0,AOIPPRO=PRIVATE; 4. Create the topology relationship between the RNC and the MGW. ADD RNCMGWTOPO:MGWID=3,RANTYPE=RNC,RANID =2,SHMODE=NONE,BTYPE1=ATM,BRATIO1=1,BTYPE2=N ONE,BRATIO2=1,BPER=1;
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5. Create the SCTP. ADD SCTPCONN:MODULE=3,OFCID=3,PROT=M3UA,ROL E=CLT,LOCADDR="IPv4"-"0"-"192.168.2.11",LOCPORT=2 101,REMADDR="IPv4"-"0"-"192.168.2.22",REMPORT=210 1,NAME="MGW3-2",ID=2,INSTRM=16,OUTSTRM=16,MA XRTRY=5,MAXRTO=500,MINRTO=50,INITRTO=100,HB =500,FIXNH=NO,SCTPMAXRTRYNUM=10,DELAYACK=2 0,MAXBURST=4,PRIMARYPATH=REMIP1,PMTU=0,BREAK TIME=3,PDTHRESH=0,MINCWND=0,PLTIMER=10,MPPL THRD=2,DPLEN=MTU,CB=200; 6. Create the ASP. ADD ASP:ASSOCID=2,NAME="MGW3-2",ID=2,ISLOOP=N O,ISLOCK=NO; 7. Create the AS. ADD AS:PROT=M3UA,ASPID="2",NAME="MGW3-2",ID =2,EXISTCTX=NO,ASTAG=ASP,ASUP="SCCP"&"ALCAP",AS MD=LOAD,NVAL=1,KVAL=0; 8. Create a M3UA static route. ADD M3UART:ID=2,ASID=2,MODE=BYTURNS,NAME="RN C2"; 9. Create the SIO-locating-AS. ADD SIOLOCAS:ID=2,NAME="RNC2",SIO=SCCP,OFCID =2,OPOFCID=65535,PCM=65535,RT1=2,RT2=0;
Location Update Data Configuration Data Planning
Table 130 lists the parameters in the location update data configuration. TABLE 130 PARAMETERS IN THE LOCATION UPDATE DATA CONFIGURATION
352
Configuration Parameters
Configuration Description
LAC (HEX)
14
LAI
11
MCC
460
MNC
0
GT number of the HLR
8613903030
GT number of the MSCS
8613903023
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Configuration Parameters
Configuration Description
Call prefix of the test number
8613902099 T translation selector 1: E.164 numbering plan The national minimum digit length is 5, and the national maximum digit length is 15.
GT translation selector
The international minimum digit length is 1, and the international maximum digit length is 5. GT translation selector 2: E.214 numbering plan The national minimum digit length is 5, and the national maximum digit length is 15. The international minimum digit length is 1, and the international maximum digit length is 5.
Command
Routing mode
GT routing
IMSI prefix
46000
1. Create a LAI controlled by the local office. ADD LAI:LAC="0014",NAME="LAI1",ID=11,MCC="460",M NC="00",LOCNUM="01",ECCIDX=0,BSC="0",RNC="3",TP DAS=0,BELONG=MSC,WDMID=0,UPVER=1,R5HOCASE =NO,GSMSSPGID=0,UMTSSSPGID=0,PAGEIDX=0,ASST IMER=0; 2. Create a GT translation Selector. ADD GTT:GTT=4,TT=0,PLAN=E.164,NATURE=INT,GTTO PT=0,ID=1,CC="86",NMIN=5,NMAX=15,IMIN=1,IMAX =5,CTRL=R_L,NAME="E.164"; ADD GTT:GTT=4,TT=0,PLAN=E.214,NATURE=INT,GTTO PT=0,ID=2,CC="86",NMIN=5,NMAX=15,IMIN=1,IMAX =5,CTRL=R_L,NAME="E.214"; 3. Create GT translation data. ADD GT:GT="8613903030",GTSL=1,GTDI=0,OFCIDS="1 "-"1",GRP=NO,SSN=NO_SSN,NTRNTYPE=0,TRNRLT="NU LL",RTTYPE=GT,NGTTAG=NGT,SCCP=INT,VGT=NO,TT=N O,NPFLAG=NO,NPLAN=NULL,SRVTYPE=NULL; ADD GT:GT="8613903023",GTSL=1,GTDI=0,OFCIDS="0 "-"1",GRP=NO,SSN=NO_SSN,NTRNTYPE=0,TRNRLT="NU LL",RTTYPE=GT,NGTTAG=NGT,SCCP=INT,VGT=NO,TT=N O,NPFLAG=NO,NPLAN=NULL,SRVTYPE=NULL; ADD GT:GT="8613902099",GTSL=1,GTDI=0,OFCIDS="1 "-"1",GRP=NO,SSN=NO_SSN,NTRNTYPE=0,TRNRLT="NU LL",RTTYPE=GT,NGTTAG=NGT,SCCP=INT,VGT=NO,TT=N O,NPFLAG=NO,NPLAN=NULL,SRVTYPE=NULL; 4. Create IMSI number analysis. ADD IMSIANA:IMSI="46000",HDSTCODE="8613903030 ",HDSTCODET=HLR,SM=0,OPID=0,INDADC=NO;
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5. Create a mobile service access number and MNC ADD NDCMNC:NAME="139",ID=1,CC="86",NDC="139",M CC="460",MNC="00";
Call Data Configuration Data Planning
Table 131 lists the parameters in the call data configuration. TABLE 131 PARAMETERS IN THE CALL DATA CONFIGURATION Configuration Parameters
Configuration Description
Number analyzer entry
1 (Local number analyzer)
DAS
Originating DAS 101 Roaming number DAS 201
Call prefix of the test number
8613902099
Prefix of the roaming numbers in the local office
8613903023
Prefix of the handover numbers in the local office
8613903023 13902099: MSCO (MSC common service)
Command
Call service type
1390302: MSLL (MSC local-network local-office service)
PLMN ID
46007
1. Create a number analyzer entry. ADD ENTR:ID=1,NAME="LOCAL",TYPE=LOCAL,NTYPE=CA LLED; ADD ENTR:ID=2,NAME="LOCAL",TYPE=LOCAL,NTYPE=CA LLED; 2. Create a DAS. ADD DAS:ID=101,NAME="MSQH",NEWSRV=0,CENTR =0,PRINET=0,SPECSRV=0,LOCAL=1,NATIONAL=0,INTE R=0; ADD DAS:ID=201,NAME="ROAM",NEWSRV=0,CENTR =0,PRINET=0,SPECSRV=0,LOCAL=2,NATIONAL=0,INTE R=0; 3. Modify the DAS for the called number in the LAI. SET LAI:ID=11,TPDAS=101; 4. Create the default DAS template of the local office.
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SET LDASTMPLT:MS=101,MSRN=201; 5. Create called number anlysis. ADD TPDNAL:ENTR=1,DIGIT="13902099",SPECRST=0,S PECIDX=0,CAT=MSCO,RST1=0,RST2=0,RST3=0,CHAIN AL=0,RNLEN=0,MINLEN=3,MAXLEN=20,OVLYPRI=NO,R EL=NO,NET=1,NAT=DEF,OPDDICONT=NO,TPDDICONT =NO,OPDDI=0,TPDDI=0,OPDLYDDI=0,TPDLYDDI=0,DD IOVERB=0,IWVIDEO=LSUP,TIMELMT=0,AUXDAS=0,A6 =0,PFXLEN=0,INSRV=INM,FAXIDX=0,AVIDX=0,DVIDX =0,ADATAIDX=0,DDATAIDX=0,DDCPLAY=NONE,VAD=IN VALID,CALLSERVPRILVL=INVALID,RERTS=0,INCHAIN=N O,BICT=NO,ICT=0,ICTT=10,GNM=NORMAL,STBILL=INVA LID,HOPDAS=0,MCA=NO,IVVR=NO,WANTL=0,IMSCENTR =NO; ADD TPDNAL:ENTR=2,DIGIT="1390302",SPECRST=0,S PECIDX=0,CAT=MSLL,RST1=0,RST2=0,RST3=0,CHAINA L=0,RNLEN=0,MINLEN=3,MAXLEN=20,OVLYPRI=NO,R EL=NO,NET=1,NAT=DEF,OPDDICONT=NO,TPDDICONT =NO,OPDDI=0,TPDDI=0,OPDLYDDI=0,TPDLYDDI=0,DD IOVERB=0,IWVIDEO=LSUP,TIMELMT=0,AUXDAS=0,A6 =0,PFXLEN=0,INSRV=INM,FAXIDX=0,AVIDX=0,DVIDX =0,ADATAIDX=0,DDATAIDX=0,DDCPLAY=NONE,VAD=IN VALID,CALLSERVPRILVL=INVALID,RERTS=0,INCHAIN=N O,BICT=NO,ICT=0,ICTT=10,GNM=NORMAL,STBILL=INVA LID,HOPDAS=0,MCA=NO,IVVR=NO,WANTL=0,IMSCENTR =NO;
Data Synchronization Command
SYNA:STYPE=ALL,TIMEOUT=600,SAVE=YES,TOSLAVE=YES;
MSCS-MGW Interconnect ion Debugging Procedure After data of the MGW are configured on the MSC Server, the common procedures for data debugging are as follows: Steps
Operations
Description
1
Check the MGW office status
Check whether the MGW office is accessible
2
Check the physical connection
When the office is inaccessible, first confirm whether there is any hardware problem
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Steps
Operations
Description
Debug the SCTP
After the hardware problem is removed, confirm whether there is any problem in the SCTP association
4
Debug the M3UA
After the problem in the SCTP association is removed, confirm whether there is any problem in upper-layer M3UA signaling link
5
Confirm the working status of the MGW
After the problem on the M3UA layer is removed, check the H.248 gateway configuration
3
Checking the MGW Office Status Context
Check whether the office is accessible is the first step for debugging. This section introduces the detailed procedures for checking whether the MGW office is accessible.
Steps
1. On the NetNumen M30 window, select menus Views > MML Terminal to enter the MML Terminal window. 2. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the MSCS exchange to be configured. 3. Enter the following command on the MML Terminal window, and click Execute to query the status of the adjacent MGW office. OFC is the adjacent MGW office ID. SHOW OFCSTAT:OFC=3; 4. If the office is inaccessible, skip to Checking the Physical Connection.
Note: You can check whether the office is accessible, and the status of the SIGTRAN signaling on the Dinamic management page of the View window. END OF STEPS
Checking the Physical Connection Context
356
If it is found that the adjacent MGW office is inaccessible on the NetNumen M30 window, confirm whether the physical connection between the MSCS and the MGW is normal.
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Steps
1. When the ZXWN MSCS is connected with the MGW through HUB, the straight network cable should be adopted. When the ZXWN MSCS is directly connected with the MGW, the crossover network cable should be adopted. 2. The physical connection is normal when the indicators Link1 and Link3 on the SIPI board are always on. END OF STEPS
Debugging the SCTP Context Steps
If the physical connection is normal, debug the SCTP. 1. On the NetNumen M30 window, select menus Views > MML Terminal to enter the MML Terminal window. 2. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the MSCS exchange to be configured. 3. Enter the following command on the command terminal, and click Execute to query the STCP status. ASSOCID is the association ID. SHOW SCTPSTAT:ASSOCID=1; 4. If the association is disconnected, check whether the IP address configuration of the port is correct. END OF STEPS
Debugging the M3UA Context
If the SCTP is normal, debug the M3UA. The physical status of the ASP is decided by the association status. After the association can be used, the ASPs at the both ends perform handshaking of the service status maintenance message “ASPTM”. If the handshaking is successful, the service can be used.
Steps
1. On the NetNumen M30 window, select menus Views > MML Terminal to enter the MML Terminal window. 2. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the MSCS exchange to be configured. 3. Enter the following command on the MML Terminal window, and click Execute to query the ASP status. ASID is the AS ID, and ASPID is the ASP ID. SHOW ASPSTAT:ASID=1,ASPID=1; 4. When the ASP status in normal, ASP Status=ASP_ACTIVE should be displayed.
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5. Enter the following command on the MML Terminal window, and click Execute to query the AS status. ASID is the AS ID. SHOW ASSTAT:ASID=1; 6. When the AS status in normal, AS Status=AS_ACTIVE should be displayed. END OF STEPS
Confirming the Working Status of the MGW Context
After the office direction to the MGW is debugged successfully, the status of the MGW is not guaranteed to be normal. This section introduces the method of confirming the working status of the MGW. After the data for connection between the ZXWN MSCS and the MGW are configured and the equipment is started, the MGW will actively register the gateway information to the MSC Server. This topic describes the method of confirming the working status of the MGW.
Steps
1. On the NetNumen M30 window, select menus Views > MML Terminal to enter the MML Terminal window. 2. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the MSCS exchange to be configured. 3. Enter the following command on the MML Terminal window, and click Execute to query the registration status of the gateway. SHOW MGWSTAT; 4. When the working status of the gateway is exceptional, check whether the corresponding parameters in the H248 configuration and the SIGTRAN configuration on the MSC Server and the MGW are consistent and meet the requirements. END OF STEPS
H.248/SCTP Problem Location Method For two NEs adopting SIGTRAN networking, to judge whether the bottom-layer link is reliable, it is necessary to confirm whether two connections are normal. One is the connection between two SIG_IPIs, and the other is the control channel between the SIG_IPI and the SMP. �
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Debugging the IP protocol stack
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Chapter 9 Configuration Instance
Debugging the connection between two SIG_IPIs means debugging the IP protocol stack. When the physical connection is normal, connect one computer to HUB or to SIGIPI through the crossover network cable. Ping the IP addresses of the SIPI interface and the loop-back interface of the local end, and those of the opposite end. When the IP protocol stack is correctly configured, these IP addresses should be pinged successfully. If they cannot be pinged successfully, confirm whether the IP protocol stack is correctly configured. �
Debugging the basic SCTP connection information After the protocol stack is normal, it is necessary to check data in the SCTP configuration , including whether the protocol type, the server and the client are normal; whether the office ID, IP address, and port number are correct; and whether the port number is repeated.
M3UA Problem Location Method When the status of the lower-layer association is normal, and the status of the AS/ASP is abnormal, it is necessary to confirm whether AS data, ASP data, and SIO-locating-AS data are correctly configured, and whether the interconnecting parameters between the local office and the opposite-end office are consistent.
MSCS-HLR Interconnection Debugging Procedure The MSCS is connected with the HLR through the TDM mode. After data of the HLR are configured on the MSC Server, the common procedures for data debugging are as follows: Steps
Operations
Description
Reference
1
Check the HLR office status
Check whether the HLR office is accessible
Checking the HLR Office Status
Check the physical connection
When the office is inaccessible, first confirm whether there is any hardware problem
Checking the Physical Connection
Debugging the narrow-band signaling link
After the hardware problem is removed, confirm whether there is any problem in the narrowband signaling link
Debugging the Narrow-Band Signaling Link
2
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Checking the HLR Office Status Context
Checking whether the office is accessible is the first step for debugging. This section introduces the detailed procedures for checking whether the HLR office is accessible.
Steps
1. On the NetNumen M30 window, select menus Views > MML Terminal to enter the MML Terminal window. 2. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the MSCS exchange to be configured. 3. Enter the following command on the MML Terminalwindow, and click Execute to query the status of the adjacent HLR office. OFC is the adjacent HLR office ID. SHOW OFCSTAT:OFC=1; 4. If the office is inaccessible, skip to Checking the Physical Connection. END OF STEPS
Checking the Physical Connection Context
If it is found that the adjacent HLR office is inaccessible on the NetNumen M30 window, confirm whether the physical connection between the MSCS and the HLR is normal.
Note: During the debugging, to ensure that there is no problem in the E1 hardware connection, exchange the receiving cable and the sending cable of the E1. Steps
1. Observe the status of the corresponding E1 indicator on the SPB board. 2. If the E1 indicator flashes quickly (at 5Hz), it indicates that the physical E1 line is clear, and that at least one of the E1 signaling links configured on the E1 line is in the “In Service” status. 3. If the E1 indicator flashes slowly (at 1Hz), it indicates that the physical E1 line is clear, and that none of the E1 signaling links configured on the E1 line is in the “In Service” status. 4. If the E1 indicator is always on, it indicates that the corresponding subunit of the E1 line has existed in the physical configuration, but the physical E1 line is obstructed.
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5. If the E1 indicator is off, it indicates that the corresponding subunit of the E1 line does not exist in the physical configuration (that is, the data are not configured). END OF STEPS
Debugging the Narrow-Band Signaling Link Context
If the physical connection is normal, debug the narrow-band signaling link . TABLE 132 LINK STATUS DESCRIPTION Link Statuses
Descriptions
Out of service
The local-end MTP3 does not initiate the link establishment request, and the link is unavailable. Maybe the MTP3 doest not receive the configuration information of this link, or the fault in the communication between the SMP and the SPB causes the SPB unable to receive the link establishment request
Initial alignment
The link establishment request has been received from the local-end MTP3 , the link is being established, and the link is unavailable. If the link status alternates between “Initial alignment” and “Out of service”, maybe there is a fault in the physical layer or the opposite-end MTP3 does not initiate link establishment
Alignment ready
The link establishment request has been received from the local-end MTP3 , the verification phase of the link establishment has been successfully completed, the physical layer is OK, the opposite end is performing verification, and the link is unavailable. Please wait
In service
Both parties have successfully established the link, and the link is available
Processor outage
There is a fault in the SMP of the local end or the opposite end, and the link is unavailable. Check whether the SMP is suspended
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TABLE 133 COMMON REASONS FOR LINK BROKEN AND THE SOLUTIONS Number
Reasons for Link Broken
Common Reasons for Link Broken and the Solutions Check whether the network types, signaling point code types, signaling point codes and sub-service fields are correctly configured in the office attributes at the both ends.
1
L3 stop
Observe whether the MTP3 management message interaction SLTM/SLTA of the both ends is normal through the signaling tracing . Check whether the Self loop button in the dynamic management is clicked under the normal connection. Check whether the local exchange data are configured in the local exchange
2
Abnormal BSNR
Check whether there are bit errors in the physical layer; The opposite-end MTP2 protocol is implemented by error Check whether there are bit errors in the physical layer;
3
Abnormal FIBR
4
T2 timeout
The narrow link at the opposite end is not activated
5
Receive SIOS when aligned
The narrow link of the opposite end is deactivated
The opposite-end MTP2 protocol is implemented by error The physical layer is obstructed;
6
T3 timeout
The physical layer is clear in one direction (the opposite-end-to-local-end direction is clear, while the local-end-to-opposite-end direction is obstructed, and check the connection line; Check whether there are bit errors in the physical layer
7
Receive SIOS when proving
8
Abort proving
The narrow link of the opposite end is deactivated; Check whether there are bit errors in the physical layer at the opposite end Check whether there are bit errors in the physical layer Check whether the physical link is suddenly disconnected;
9
T9 timeout
The opposite end is suspended; Check whether there are bit errors in the physical layer
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Number
Reasons for Link Broken
Common Reasons for Link Broken and the Solutions
10
Too many error SUs
Check whether there are bit errors in the physical layer
11
Receive SIO
The opposite-end MTP2 protocol is implemented by error
12
Receive SIOS
The narrow link of the opposite end is deactivated
13
T1 timeout
The opposite-end MTP2 protocol is implemented by error
14
T7 timeout
Check whether there are bit errors in the physical layer
15
T6 timeout
The duration of congestion in the opposite end is too long
16
Steps
Receive SIN
Check whether there are bit errors in the physical layer; The opposite-end MTP2 protocol is implemented by error Check whether there are bit errors in the physical layer;
17
Receive SIE
18
TX buffer not enough
19
Too many error SUs in an interval
The opposite end is suspended
20
Link deleted or changed
The network management deletes or modifies the narrow-band link attributes
21
Link timer not available
OSS error in the local end
The opposite-end MTP2 protocol is implemented by error Check whether the CPU occupancy of the SPB is too high, whether ERL is too big, and whether the traffic on the upper layer of the local end is too heavy Check whether there are bit errors in the physical layer;
1. Telnet to the SPB board, and type lsta to check the status of the signaling link . The system will display the statuses of all the signaling links on the SPB board, as shown in Figure 66. The descriptions of the signaling link status are shown in Table 132.
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FIGURE 66 QUERYING THE STATUS OF THE NARROW-BAND SIGNALING LINK
2. When the displayed link status is not In Service, check the reason for link broken. Type lwhy on the window, and the reason for history link broken will be displayed, as shown in Figure 67. The common reasons for link broken and the solutions are shown in Table 133. FIGURE 67 CHECKING THE REASON FOR LINK BROKEN
3. The tracing management or dynamic management tool of the network management system can be used when the signaling link is being debugged. END OF STEPS
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Signaling Link Problem Location Method When it is confirmed that there is no problem in the hardware connection, first judge whether the signaling link blocking is caused by errors in the local-office data configuration or the opposite-end office data configuration. The method is as follows: 1. Self loop the corresponding E1 cable of the signaling link (There are software self-loop and hardware self-loop. After the software self-loop debugging is completed, be sure to open the software self-loop) 2. If the E1 indicator flashes quickly, it can be confirmed that there is no problem in the local-end data configuration. At this time, it is necessary to cooperate with the opposite end to check whether the interconnection data configuration is consistent. 3. If the E1 indicator cannot flash quickly after the E1 is self looped, it is necessary to check the local-end data configuration . For the checking method, please refer to Debugging the Narrow-Band Signaling Link.
MSCS-RNC Interconnection Debugging Procedure When the MSCS is connected with the RNC in a quasi-associated mode, after data of the RNC are configured on the MSC Server, the common procedures for data debugging are as follow. The debugging procedure is similar with that of Mc interface (i.e. MSCS-MGW interconnection debugging). Steps
Operations
Description
Reference
1
Check the RNC office status
Check whether the RNC office is accessible
Checking the RNC Office Status
2
Check the physical connection
When the office is inaccessible, first confirm whether there is any hardware problem
Checking the Physical Connection
Debug the SCTP
After the hardware problem is removed, confirm whether there is any problem in the SCTP association
Debugging the SCTP
3
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Steps
Operations
Description
Reference
4
Debug the M3UA
After the problem in the SCTP association is removed, confirm whether there is any problem in upper-layer M3UA signaling link
Debugging the M3UA
5
Check the MGW working status
After the problem on the M3UA layer is removed, check the H.248 gateway configuration
Confirming the Working Status of the MGW
Checking the RNC Office Status Context
Checking whether the office is accessible is the first step for debugging. This section introduces the detailed procedures for checking whether the RNC office is accessible.
Steps
1. On the NetNumen M30 window, select menus Views > MML Terminal to enter the MML Terminal window. 2. If no exchange is specified, execute command SET on the MML Terminal window or select a NE from the system tree to specify the MSCS exchange to be configured. 3. Enter the following command on the MML Terminal window, and click Execute to query the status of the adjacent RNC office. OFC is the adjacent MGW office ID. SHOW OFCSTAT:OFC=2; 4. If the office is inaccessible, skip to Checking the Physical Connection. END OF STEPS
Basic Service Debugging Procedure Basic service debugging includes location update service debugging and local-office call service debugging.
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Debugging the Location Update Service Prerequisites
1. The interconnection between the MSCS and the local HLR is completed. The MSCS is associated with the local HLR. The HLR office should be accessible, and the status of the subsystem is normal. The GT-related configuration on the MSCS side is completed, and the GT configuration of the MSC/VLR on the local HLR is completed too. 2. The interconnection between the MSCS and the RNC is completed. The signaling between the MSCS and the BSC/RNC is accessible. The LAI and cell data configuration are completed. 3. The test card and test mobile phone are prepared. The test number is allocated in the HLR, and basic services are enabled.
Context Steps
This section introduces the basic debugging steps by taking the example of the location update of a local subscriber. 1. Open the signaling tracing and failure observation tools. �
Open the BSSAP/RANAP signaling tracing of the SCCP.
�
Open the MM and VLRMAP signaling tracing.
�
�
�
Open the SCCP signaling tracing of the MTP3 signaling tracing to the HLR office. Open the SCCP signaling tracing of the MTP3 signaling tracing to the BSC/RNC office. Trace the failure observation of the MM, VLRMAP, and SCCP modules.
2. Power on the mobile phone, log onto the network, and perform location update debugging. END OF STEPS
Debugging the Local-Office Call Prerequisites
1. The location update of the mobile phone is successful. The location update of the mobile phone is successfully debugged, and the subscriber information can be successfully queried in the VLR. 2. The MGW is successfully registered. Enter the following command on the MML Terminal window of NetNumen (TM) 30 of the MSCS to query the MGW status. SHOW MGWSTA;
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3. The status of the physical resources on the MGW is normal. On the NetNumen (TM) 30 window of the MGW, select menus Views > Daily Maintenanceto enter the Daily Maintenance window. From the navigation tree, click Dynamic Management > Physical Resourceto check the statuses of the subunits of the DTB, MRB, VTCD, and other boards. In another way, telnet to the VTCD, and MRB boards to check through command SCSShowDSPStatus. The method of checking the status of the level-2 forwarding table is as follows: On the IPI, GIPI, VTCD, and APBE boards, execute the debugging command brdl2. On the UIM board, execute the debugging command uiml2. When the “PortIdx” in the result is 255, the port is invalid. Command SCSShowL2 can be used to query the status of the corresponding port. When “EffectPort” is 0, the port is invalid. 4. On the MGW, it is found that the Iu bearer is successfully established by checking the foreground R_ATMPVC and R_AAL2PATH tables. Context Steps
This section introduces the basic debugging procedure by taking an intra-office call as example. 1. Open the signaling tracing and failure observation tools. i. Open the MM, VLRMAP, and MSCMAP signaling tracing. ii. Open the SCCP signaling tracing of the MTP3 signaling tracing to the HLR office. iii. Open the SCCP signaling tracing of the MTP3 signaling tracing to the BSC/RNC office. iv. Trace the failure observation of the MM, VLRMAP, MSCMAP, MCC, and SCCP modules. 2. Perform the local-office call dialing test, and perform debugging according to signaling and call loss. END OF STEPS
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Figure
Figure 1 OVERALL FLOW OF THE MSCS DATA CONFIGURATION .. 2 Figure 2 START PROCESS OF THE OMM SERVER ..................... 4 Figure 3 START INFORMATION OF THE OMM SERVER............... 4 Figure 4 LOGIN Window ...................................................... 5 Figure 5 NetNumn M30 MSCS/MGW OMM SYSTEM Window ...... 6 Figure 6 CONFIGURATION & MANAGEMENT MAIN Window........ 7 Figure 7 MML TERMINAL Window .......................................... 7 Figure 8 COMMAND EXECUTION OPERATIONS ........................ 8 Figure 9 SINGLE BCTC SHELF WITH FULL CONFIGURATION.....20 Figure 10 SIGNALING SERVICE IP CONFIGURATION ...............25 Figure 11 ADJACENT OFFICE ID ALLOCATION ........................26 Figure 12 THE HOME OFFICE DATA CONFIGURATION FLOW .....30 Figure 13 PHYSICAL CONFIGURATION FLOW .........................35 Figure 14 FLOW OF LOADING VERSION FILES .......................59 Figure 15 VERSION LOADING..............................................61 Figure 16 CONFIGURING VERSION PATH ..............................61 Figure 17 VERSION FILE PATH.............................................62 Figure 18 Load Version .......................................................63 Figure 19 CREATING OMP BOOT FILES .................................64 Figure 20 CONNECTION DESCRIPTION .................................65 Figure 21 CONNECT TO DIALOG BOX ...................................65 Figure 22 COM1 PROPERTIES ..............................................66 Figure 23 PRESS ANY KEY TO STOP AUTO-BOOT ....................66 Figure 24 BOOT PASSWORD................................................67 Figure 25 3GPLAT BOOT .....................................................67 Figure 26 CONFIG SELECTION.............................................68 Figure 27 ENTER OMP’S OMC IP ADDRESS ............................68 Figure 28 ENTER OMP’S OMM MAC ADDRESS ........................69 Figure 29 ENTER OMP’S GATEWAY IP ADDRESS .....................69 Figure 30 OMC SERVER IP ADDRESS ....................................70 Figure 31 CONFIG SELECTION.............................................70 Figure 32 OMM IP ADDRESS ...............................................71 Figure 33 FTP CONFIG........................................................71 Figure 34 OMPCFG FILE......................................................72
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Figure 35 CONFIG SELECTION.............................................72 Figure 36 OMP BOOT TYPE ..................................................73 Figure 37 CONFIG SELECTION.............................................73 Figure 38 BUREAU NO. .......................................................74 Figure 39 CONFIG SELECTION.............................................74 Figure 40 3GPLAT BOOT .....................................................75 Figure 41 USER NAME AND PASSWORD ................................78 Figure 42 STATUS..............................................................79 Figure 43 VERSION LOADING..............................................80 Figure 44 BATCH VERSION LOADING BY DEFAULT ..................81 Figure 45 AREA TREE ....................................................... 118 Figure 46 ADDING RESOURCES ......................................... 118 Figure 47 RESOURCE ADDING DIALOG BOX ........................ 119 Figure 48 FLOW OF MSCS-MGW INTERCONNECTION CONFIGURATION ............................................. 122 Figure 49 SIGTRAN CONFIGURATION FLOW ........................ 146 Figure 50 CONFIGURATION FLOW ...................................... 159 Figure 51 FLOW OF CONFIGURING A DIRECT-ASSOCIATED OFFICE IN IP DOMAIN ...................................... 171 Figure 52 QUASI-ASSOCIATED NETWORKING BETWEEN MSCS AND 2G MSC/PSTN (BASED ON M3UA) ...... 180 Figure 53 FLOW OF M3UA TRANSIT EXCHANGE ................... 181 Figure 54 QUASI-ASSOCIATED NETWORKING BETWEEN MSCS AND 2G MSC/PSTN (BASED ON M2UA) ...... 182 Figure 55 FLOW OF M2UA TRANSIT EXCHANGE ................... 183 Figure 56 TDM OFFICE INTERCONNECTION CONFIGURATION FLOW............................................................. 187 Figure 57 QUASI-ASSOCIATION BETWEEN MGW AND RNC .... 198 Figure 58 DIRECT-ASSOCIATION BETWEEN MGW AND RNC... 198 Figure 59 FLOW OF CONFIGURING MSCS-RNC INTERCONNECTION ......................................... 199 Figure 60 QUASI-ASSOCIATED NETWORKING BETWEEN MSCS AND BSC ............................................... 214 Figure 61 DIRECT-ASSOCIATED NETWORKING BETWEEN MSCS AND BSC ............................................... 214 Figure 62 FLOW OF CONFIGURING MSCS-BSC INTERCONNECTION ......................................... 215 Figure 63 ANALYSIS ORDER OF NUMBER ANALYZERS ........... 266 Figure 64 NETWORKING DIAGRAM..................................... 338 Figure 65 BOARD LAYOUT OF THE BCTC SHELF ................... 341
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Figures
Figure 66 QUERYING THE STATUS OF THE NARROW-BAND SIGNALING LINK ............................................. 364 Figure 67 CHECKING THE REASON FOR LINK BROKEN.......... 364
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Table
Table 1 LOGIN PARAMETER DESCRIPTION.............................. 5 Table 2 PARAMETERS IN THE SYNA COMMANDS..................... 9 Table 3 PARAMETERS IN THE SYN COMMANDS......................10 Table 4 OFFICE NUMBER ALLOCATION PRINCIPLE ..................13 Table 5 IP ADDRESS ALLOCATION PRINCIPLE OF THE INTERNAL NETWORK OF THE NMS .......................13 Table 6 IP ADDRESS ALLOCATION PRINCIPLE OF THE EXTERNAL NETWORK OF THE NMS.......................15 Table 7 IP ADDRESS ALLOCATION PRINCIPLE OF THE EXTERNAL NETWORK OF THE NMS.......................16 Table 8 IP ADDRESS ALLOCATION PRINCIPLE OF THE INTERNAL NETWORK OF THE IP MANAGEMENT SYSTEM ...........................................................17 Table 9 AN INSTANCE OF MC INTERFACE IP ADDRESSES ........25 Table 10 PARAMETERS IN THE ADD NE COMMAND ................32 Table 11 PARAMETERS IN THE SET PCINFO COMMAND .........34 Table 12 PARAMETERS IN THE ADD RACK COMMAND ............36 Table 13 PARAMETERS IN ADD SHELF COMMAND .................38 Table 14 PARAMETERS IN THE ADD UNIT COMMAND.............39 Table 15 PARAMETERS IN ADD MODULE COMMAND ..............41 Table 16 MSCS BOARD TYPES .............................................43 Table 17 PARAMETERS IN THE ADD UNIT COMMAND.............44 Table 18 PARAMETERS IN THE ADD UNIT COMMAND.............47 Table 19 PARAMETERS IN THE ADD UNIT COMMAND.............48 Table 20 PARAMETERS IN THE ADD UNIT COMMAND.............50 Table 21 PARAMETERS IN THE ADD SVRINF COMMAND.........51 Table 22 CAPACITY AND LOAD-SHARING CONFIGURATION......52 Table 23 PARAMETERS IN THE SET MSCSCAPACITY COMMAND ........................................................53 Table 24 PARAMETERS IN THE SET DATASIZE COMMAND ......55 Table 25 PARAMETERS IN THE ADD IMSILOAD COMMAND ....57 Table 26 VERSION DESCRIPTION OF OMP BOOT FILE .............63 Table 27 PARAMETERS IN THE SET OMP COMMAND ..............76 Table 28 PARAMETERS IN SYNA COMMAND ..........................77
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Table 29 Board Version Files................................................79 Table 30 BOARD INDICATOR STATUSES ................................81 Table 31 PARAMETERS IN THE BADD STONE COMMAND ........83 Table 32 Office Information Configuration .............................84 Table 33 PARAMETERS IN THE ADD OPC COMMAND ..............85 Table 34 PARAMETERS IN THE ADD LOFC COMMAND ............88 Table 35 PARAMETERS IN THE ADD MSCCFG COMMAND ........90 Table 36 PARAMETERS IN THE ADD CC COMMAND ................96 Table 37 PARAMETERS IN THE ADD MNC COMMAND..............97 Table 38 VLR CONFIGURATION FLOW ...................................97 Table 39 PARAMETERS IN THE ADD VLRSYS COMMAND.........98 Table 40 PARAMETERS IN THE ADD VLRCAP COMMAND ...... 101 Table 41 PARAMETERS IN THE ADD VLRSRV COMMAND ...... 104 Table 42 PARAMETERS IN THE ADD MRNSH COMMAND ....... 109 Table 43 VIRTUAL MSC CONFIGURATION ............................ 110 Table 44 PARAMETERS IN THE ADD VMSC COMMAND .......... 111 Table 45 PARAMETERS IN THE ADD REGIONMAP COMMAND ...................................................... 112 Table 46 RESOURCE TYPES, KEY FIELDS AND VALUE RANGES OF THE MGCF.................................................. 116 Table 47 FLOW DESCRIPTION............................................ 122 Table 48 PARAMETERS IN THE ADD IP ADDRESS COMMAND ...................................................... 124 Table 49 INTERFACE REAL INTERFACE .............................. 125 Table 50 ADD IP ADDRESS REAL INTERFACE..................... 126 Table 51 PARAMETERS IN THE ADD BFD AUTH COMMAND ... 127 Table 52 PARAMETERS IN THE ADD BFD SESSION COMMAND ...................................................... 128 Table 53 PARAMETERS IN THE ADD IP ROUTE COMMAND.... 130 Table 54 PARAMETERS IN THE ADD ADJOFC COMMAND ...... 132 Table 55 PARAMETERS IN THE ADD CODECTPL COMMAND .. 137 Table 56 PARAMETERS IN THE ADD TOPO COMMAND .......... 139 Table 57 PARAMETERS IN THE ADD MGWBEARMOD COMMAND ...................................................... 143 Table 58 PARAMETERS IN THE ADD SCTPCONN COMMAND .. 148 Table 59 PARAMETERS IN THE ADD ASP COMMAND ............ 151 Table 60 PARAMETERS IN THE ADD AS COMMAND .............. 152 Table 61 PARAMETERS IN THE ADD M3UART COMMAND...... 155 Table 62 PARAMETERS IN THE ADD SIOLOCAS COMMAND... 157 Table 63 PARAMETERS IN THE ADD MGCSCFG COMMAND.... 160
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Tables
Table 64 PARAMETERS IN THE ADD MGSTPL COMMAND ...... 162 Table 65 PARAMETERS IN THE ADD MGSCFG COMMAND...... 163 Table 66 PARAMETERS IN THE ADD TIDANL COMMAND....... 165 Table 67 PARAMETERS IN THE ADD TIDENTR COMMAND..... 167 Table 68 BEARER MODES OF MAIN INTERFACES .................. 169 Table 69 ADJACENT OFFICE ATTRIBUTES ............................ 176 Table 70 PARAMETERS IN THE ADD TOPO COMMAND .......... 178 Table 71 PARAMETERS IN THE ADD M2UAIPLNK COMMAND ...................................................... 185 Table 72 PARAMETERS IN THE ADD N7LKS COMMAND ........ 189 Table 73 PARAMETERS IN THE ADD N7LNKE1 COMMAND .... 191 Table 74 PARAMETERS IN THE ADD N7ROUTE COMMAND.... 193 Table 75 ARRANGEMENT MODE OF SIGNALING SETS............ 194 Table 76 PARAMETERS IN THE ADD N7OFC COMMAND ........ 196 Table 77 PARAMETERS IN THE ADD ADJOFC COMMAND ...... 201 Table 78 PARAMETERS IN THE ADD RNCOFC COMMAND ...... 205 Table 79 PARAMETERS IN THE ADD TOPO COMMAND .......... 208 Table 80 PARAMETERS IN THE ADD RNCMGWTOPO COMMAND ...................................................... 212 Table 81 PARAMETERS IN THE ADD ADJOFC COMMAND ...... 217 Table 82 PARAMETERS IN THE ADD BSCOFC COMMAND ...... 221 Table 83 PARAMETERS IN THE ADD TOPO COMMAND .......... 223 Table 84 MAIN PARAMETERS IN THE ADD RNCMGWTOPO COMMAND ...................................................... 226 Table 85 PARAMETERS IN THE ADD ECC COMMAND............. 231 Table 86 PARAMETERS IN THE ADD SSPN COMMAND .......... 232 Table 87 PARAMETERS IN THE ADD TPDNAL COMMAND ...... 236 Table 88 PARAMETERS IN THE ADD LAI COMMAND ............. 237 Table 89 PARAMETERS IN THE ADD LAI COMMAND ............. 242 Table 90 PARAMETERS IN THE ADD GCI COMMAND............. 246 Table 91 PARAMETERS IN THE ADD SAI COMMAND ............. 248 Table 92 PARAMETERS IN THE ADD GTT COMMAND ............ 251 Table 93 PARAMETERS IN THE ADD GT COMMAND .............. 255 Table 94 SSN .................................................................. 258 Table 95 PARAMETERS IN THE ADD IMSIANA COMMAND .... 262 Table 96 PARAMETERS IN THE ADD NDCMNC COMMAND ..... 264 Table 97 PARAMETERS IN THE ADD NCCFG COMMAND ........ 265 Table 98 DAS FOR PRE-ANALYZING THE CALLED NUMBER ..... 267 Table 99 ORIGINATING DAS .............................................. 267 Table 100 FORWARDING DAS ............................................ 269
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Table 101 ROAMING DAS.................................................. 270 Table 102 PARAMETERS IN THE ADD ENTR COMMAND ........ 271 Table 103 ANALYZER ENTRY TYPES .................................... 272 Table 104 COMMON DASS................................................. 273 Table 105 PARAMETERS IN THE ADD DAS COMMAND .......... 274 Table 106 PARAMETERS IN THE SET LDASTMPLT COMMAND ...................................................... 276 Table 107 PARAMETERS IN THE ADD ACRTMPLT COMMAND ...................................................... 279 Table 108 PARAMETERS IN THE ADD TPDNAL COMMAND .... 283 Table 109 CALL SERVICE TYPES......................................... 297 Table 110 ENABLED OPTIONS............................................ 303 Table 111 PARAMETERS IN THE ADD TG DT COMMAND........ 309 Table 112 PARAMETERS IN THE ADD TG ATM COMMAND ..... 315 Table 113 PARAMETERS IN THE ADD TG RTP COMMAND...... 322 Table 114 PARAMETERS IN THE ADD SPCM COMMAND ........ 326 Table 115 PARAMETERS IN THE ADD INPCM COMMAND ...... 328 Table 116 PARAMETERS IN THE ADD RT COMMAND............. 330 Table 117 PARAMETERS IN THE ADD RTS COMMAND........... 332 Table 118 PARAMETERS IN THE ADD CHAIN COMMAND ...... 333 Table 119 NEGOTIATION DATA INSTANCE ........................... 338 Table 120 SIGTRAN IP ADDRESS INSTANCE OF THE MC INTERFACE ..................................................... 340 Table 121 DATA PLANNING OF THE LOCAL EXCHANGE CONFIGURATION ............................................. 340 Table 122 DATA PLANNING OF THE PHYSICAL CONFIGURATION ............................................. 341 Table 123 DATA PLANNING OF THE CAPACITY AND LOAD SHARING CONFIGURATION ............................... 342 Table 124 DATA PLANNING OF THE OFFICE DATA CONFIGURATION ............................................. 343 Table 125 DATA PLANNING OF THE VLR CONFIGURATION ..... 344 Table 126 RESOURCE PLANNING INSTANCE ........................ 346 Table 127 PARAMETERS IN THE ADJACENT MGW OFFICE INTERCONNECTION DATA CONFIGURATION ........ 347 Table 128 PARAMETERS IN THE ADJACENT HLR OFFICE INTERCONNECTION DATA CONFIGURATION ........ 349 Table 129 PARAMETERS IN THE ADJACENT RNC OFFICE INTERCONNECTION DATA CONFIGURATION ........ 351
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Tables
Table 130 PARAMETERS IN THE LOCATION UPDATE DATA CONFIGURATION ............................................. 352 Table 131 PARAMETERS IN THE CALL DATA CONFIGURATION .. 354 Table 132 LINK STATUS DESCRIPTION ............................... 361 Table 133 COMMON REASONS FOR LINK BROKEN AND THE SOLUTIONS .................................................... 362
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Index A
I
Active/standby mode ......... 47 Active/standby networking.................... 122 Address planning............. 122 Adjacent office ......... 123, 172 Association ..................... 173
Inter-office ....................... 47 Interconnection ................. 23 Interconnection data ......................... 3, 121 Internal network ............... 12 Interworking ................... 172 IP address ...................... 359 IP protocol stack ............. 359
B Background ........................1 BFD configuration ............ 122 Billing system ................... 12 BOSS............................... 12 Broadband...................... 175
C Cable connection .................1 Commissioning.................. 47 crossover network cable ............................ 357 Crossover network cable ............................ 359
D
L LAN ...................................1 link......................... 361–364 Link ............................... 358 Load-sharing .................. 122 Load-sharing mode ............ 46 local office ...................... 359 Loop-back interface ......... 359
M M3UA............................. 357 MML Terminal......................3 MTP2 ............................. 362 MTP3 ...................... 361–362
Data configuration ....... 3, 365 Data Synchronization ...........3 Destination signaling point ............................ 249 Dual-server ...................... 14
N
E
OMM Client .........................3 OMM server ........................1
Network section .............. 123
O
External network ............... 12
P
F Floating IP ........................ 14
G
physical configuration ....................... 360–361 Physical configuration ........ 34 Protocol stack ................. 121
GT routing ...................... 249 GT translation data .......... 250 GT translation selector ..... 249
Q
H
R
H248 configuration .......... 123 Hardware installation ...........1
Rack ..................................1 Radio office ...................... 23
Quasi-associated ............. 182
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Roaming number ............. 108 Roaming number prefix .... 108
S SCCP ............................. 249 SCTP configuration .......... 359 Shelf..................................1 signaling link .... 361, 363–365 signaling point ................ 362 Signaling point .................. 22 Signaling point code ........ 177 Signaling Point Code .......... 22 Signaling Route ............... 184 signaling tracing .............. 362 SIGTRAN ........................ 358 SIGTRAN configuration ..... 123 Source signaling point ...... 249
T Tandem office ................. 176 Topological node.............. 123
V VLR ............................... 108
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