3. MBTS GSM V100R007 Initial Data Configuration Based on LMT

7/14/2019 3. MBTS GSM V100R007 Initial Data Configuration Based on LMT

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MBTS Initial Data

Configuration basedon LMT

www.huawei.com

Copyright © 2012 Huawei Technologies Co., Ltd. All rights reserved.



References BSC6900 LMT User Guide

BSC6900 Initial Configuration Guide

BTS3900 Initial Configuration Guide

Copyright © 2012 Huawei Technologies Co., Ltd. All rights reserved. Page1



Objectives Upon completion of this course, you will be able to:

Know the principle of data configuration

Master BTS3900 GSM initial data configuration through

Web LMT


Understand the meaning of some important parameters



Contents1. Web LMT Introduction

2. Steps of Data Configuration




Web LMT Introduction The LMT provides graphical user interface (GUI) for you

to operate and maintain the BSC6900 and BTS. The alarm management, trace management, performance

monitoring, and device maintenance can be performed


through menu operations.

The MML commands can be run for data configuration

and O&M on the Web-LMT.



Web LMT Introduction




MML Command Window




Contents1. Web LMT Introduction

2. Steps of Data Configuration




Steps of Data ConfigurationSTART

Configuring the Logical Data

Configuring the Equipment Data


END

Activating the BTS Configuration

Configuring the Transmission Data

Configuring a Clock for a BTS



Configuring the Equipment Data ADD BTS1

2

3

ADD BTSCABINET

ADD BTSRXUCHAIN

4 ADD BTSRXUBRD



START


END



Configuring the BTS Clock



Step 1 ADD BTS ADD BTS: < BTSID>, <BTSNAME>, <BTSTYPE>, < BTSDESC >,

<SEPERATEMODE>,<SERVICEMODE>,<FLEXABISMODE >,

<ABISBYPASSMODE>,<ISCONFIGEDRING >,<MPMODE >,<MAINPORTNO >, <IPPHYTRANSTYPE > ,<SRANMODE>,

<RFUCFGBYSLOT>, <WORKMODE>,

<TSASSIGNOPTISW>,<BTS3012SRANMODE>,<MainBMPMode>,<INTRA

Clock data ACT BTSLogical DataEquipment

DataTransmission

Data


BBPOOLSWITCH>; BTSID: ID of the BTS. The BTS ID must not conflict with other BTS IDs

in the BSC.

BTSNAME: Name of the BTS. The BTS name must not conflict with

other BTS names in the BSC.

BTSTYPE: Type of the BTS

BTSDESC: Peer equipment type of the BTS. This parameter indicates

whether to connect the BTS to the BSC or cascade the BTS to

another BTS.



Step 1 ADD BTS ADD BTS

SEPERATEMODE: Whether to enable the BTS to support the

separation between the physical and logical.

SERVICEMODE: Service type of the BTS.


DataTransmission

Data


FLEXABISMODE: Service timeslot assignment mode for theBTS.

ABISBYPASSMODE: Whether to enable the BTS to support

the bypass function.

ISCONFIGEDRING: Whether to enable a BTS to support ring

topology.



Step 1 ADD BTS ADD BTS

MPMODE: Timeslot multiplexing mode at the Abis interface of

the BTS.

MAINPORTNO: Number of the port to which the active OML


DataTransmission

Data


o t e BTS is connected

PPHYTRANSTYPE: Type of the physical IP transmission

medium

SRANMODE: Whether to enable the BTS to identify an object in the BTS in normalized mode, for example, to identify a

board by the slot No., subrack No., and cabinet No. and to

identify a transmission port by the port No. in a board



Step 2 ADD BTSCABINET ADD BTSCABINET: <IDTYPE>, <BTSID>,<BTSNAME>,<CN>,

<SRANMODE>, <TYPE>, <CABINETDESC>, <ISMAINCABINET>,

<MAINCABINETSRN>;

CN: Number of the cabinet where the BTS board is located.


DataTransmission

Data


SRANMODE: Whether the data configuration of theSingleRAN BTS supports normalized SingleRAN mode.

TYPE: Type of a cabinet.

CABINETDESC: Descriptive information of the BTS cabinet



Step 3 ADD BTSRXUCHAIN ADD BTSRXUCHAIN: <IDTYPE>, <BTSID>, <BTSNAME>, <RCN>,

<TT>,<HCN>,<HSRN>,<HSN>,<HPN>,<TCN>,<TSRN>,<TSN>,<TP

N>

RCN: Number of the RXU chain or ring


DataTransmission

Data


TT: RXU topology type, that is, RXU ring topology or RXUchain topology.

HCN: Number of the cabinet where the head board of the

RXU chain or ring is located



Step 3 ADD BTSRXUCHAIN ADD BTSRXUCHAIN:

HSRN: Number of the subrack where the head board of theRXU chain or ring is located.

HSN: Number of the slot where the head board of the RXU


DataTransmission

Data


chain or ring is located.

HPN: The number of the optical port of the head board in

the RXU chain or ring.



Step 4 ADD BTSRXUBRD ADD BTSRXUBRD: <IDTYPE>, <BTSID>, <BT>,<CN>,<SRN>,

<SN>,<RXUNAME>,<RXUCHAINNO>,< RXUPOS>

BT: Type of the newly added RXU board



DataTransmission

Data


: um er o e su rac w ere e oar s oca e

SN: Number of the slot where the BTS board is located

RXUNAME: Name of an RXU

RXUCHAINNO: Number of the RXU chain where the board is

located

RXUPOS: Position of the RXU board on an RXU chain.



Step 4 SET BTSRXUBP SET BTSRXUBP: <IDTYPE><BTSID><RXUIDTYPE><RXUCHAINNO

><RXUPOS ><RXUTYPE><SndRcvMode ><WORKINGSTANDARD >

SndRcvMode: RFU Antennal Sending Receiving Mode

GUI Value Range: SGL_ANTENNA(Single Feeder[1TX + 1RX]),

SGLDOUBLE_ANTENNA(Single Feeder[1TX + 2RX]),

Transmission

DataClock data ACT BTSLogical Data

Equipment

Data


DOUBLE_ANTENNA(Double Feeder[2TX + 2RX]),

DOUBLEFOUR_ANTENNA(Double Feeder[2TX + 4RX]),

DOUBLESINGLE_ANTENNA(Double Feeder[1TX + 1RX]),

DOUBLEDOUBLE_ANTENNA(Double Feeder[1TX + 2RX])

WORKINGSTANDARD: Working mode of the RXU board

GSM_AND_UMTS(GSM AND UMTS), UMTS(UMTS), GSM(GSM),

GSM_AND_LTE(GSM AND LTE), LTE(LTE)




Configuring a GSM Cell5

6

7

Configuring the TRX

Configuring theBinding Between a

GSM Cell and a BTS



START


Configuring theBinding Between a

Logical TRX and a

Physical TRX Board

8

END






Step 5 Configuring a Cell Configuring a GSM cell involves configuring a cell, mapping

between the cell and the OPC and frequencies for the cell.

ADD GCELL

This command is used to add GSM internal cells.

Transmissio

n DataClock data ACT BTSLogical Data

Equipment

DataTransmission

Data


ADD GCELLOSPMAP

This command is used to add the mapping between a cell and

an originating signaling point (OSP).

ADD GCELLFREQ

This command is used to add frequencies to a GSM internal

cell.



Step 5 Configuring a CellADD GCELL ADD GCELL: <CELLID>, <CELLNAME>, <TYPE>, <MCC>, <MNC>,

<LAC>, <CI>;

CELLID: Index of a cell, uniquely identifying a cell in a BSC

CELLNAME: Name of a cell uni uel identif in a cell in a BSC


DataTransmission

Data


TYPE: This parameter specifies the frequency band of new

cells.

MCC: Mobile country code

MNC: Mobile network code

LAC: Location area code

CI: Identity code of a cell



Step 5 Configuring a CellADD GCELLOSPMAP ADD GCELLOSPMAP: <IDTYPE>, <CELLID>, <CELLNAME>,

<OPC>;

IDTYPE: Type of an index


DataTransmission

Data


BSC6900.

CELLNAME: Name of a cell. This parameter uniquely

identifies a cell in a BSC6900.

OPC: Code of the original signaling point (OSP) in the

signaling network.



Step 5 Configuring a CellADD GCELLFREQ ADD GCELLFREQ: <IDTYPE>, <CELLID>, <FREQ1>,<FREQ2>;

FREQ1: Frequency 1

FREQ2: Frequency 2


DataTransmission

Data


EXAMPLE ADD GCELLFREQ: IDTYPE=BYID, CELLID=0, FREQ1=1,

FREQ2=2;



Step 6 Configuring the TRX Configuring the TRX for the BTS. This involves

configuring the logical TRX and BCCH.

ADD GTRX

This command is used to add a logical TRX and configure the


DataTransmission

Data


binding between the logical TRX and the cell

SET GTRXCHAN (Optional)

This command is used to set the TRX channel attributes and

specify the BCCH.

SET GTRXDEV (Optional)

This command is used to set the device attributes of a TRX.



Step 6 Configuring the TRXADD GTRX

ADD GTRX: < IDTYPE>, <CELLID>, <TRXID>, <FREQ>，

<ISMAINBCCH>;

TRXID: Index of a TRX, uniquely identifying a TRX in a


DataTransmission

Data


.

FREQ: Frequency of the TRX, Value Range: 0~1023

ISMAINBCCH: Whether to enable the TRX to carry the main

BCCH in the cell



Step 6 Configuring the TRXSET GTRXCHAN SET GTRXCHAN: <TRXID>,<CHNO>,<CHTYPE>,<GPRSCHPRI>,

<TSPRIORITY>;

TRXID: ID of the TRX. The TRX ID must be globally unique

CHNO: Number of the channel in the TRX


DataTransmission

Data


CHTYPE: Type and function of the channel

GRRSCHPRI: EGPRS priority type of the channel

TSPRIORITY: Assignment priority level of the channel. If this

parameter is less, the assignment priority level of the

channel is higher. Value Range: 0~7



Step 6 Configuring the TRXSET GTRXDEV (Optional) SET GTRXDEV: <POWL >,<POWT >,<OPTL >,<SDFLAG >,

<TCHAJFLAG >,<PL8PSK >,<RCVMD > ,<SNDMD >, <CPS >…..

POWL: Power Level

POWT: Power Type


DataTransmission

Data


SDFLAG: Shut Down Enabled

TCHAJFLAG: TCH Rate Adjust Allow

PL8PSK: TRX 8PSK Level

RCVMD: Receive Mode SNDMD: Send Mode

CPS: Allow Dynamic Shutdown TRX



Step 6 Configuring the TRXSET GTRXDEV (Optional) SET GTRXDEV: <POWL >,<POWT >,<OPTL >,<SDFLAG >,

<TCHAJFLAG >,<PL8PSK >,<RCVMD > ,<SNDMD >, <CPS >…..

POWL: Power Level

POWT: Power Type


DataTransmission

Data


SDFLAG: Shut Down Enabled

TCHAJFLAG: TCH Rate Adjust Allow

PL8PSK: TRX 8PSK Level

RCVMD: Receive Mode SNDMD: Send Mode

CPS: Allow Dynamic Shutdown TRX



Step 7 Configuring the BindingBetween a GSM Cell and a BTS ADD CELLBIND2BTS: <IDTYPE>, <CELLID>, <BTSID>;

IDTYPE: Type of an index

CELLID: Index of a cell, uniquely identifying a cell in a

BSC6900.


DataTransmission

Data


CELLNAME: Name of a cell. This parameter uniquely

identifies a cell in a BSC6900.

BTSID: Index of the BTS, uniquely identifying a BTS in a

BSC6900.

BTSNAME: Name of the BTS, uniquely identifying a BTS in a

BSC6900.



Step 8 Configuring the BindingBetween a Logical and Physical TRX Configuring the binding between a logical TRX and a

physical TRX board in the BTS cabinet.

ADD TRXBIND2PHYBRD: <TRXID>, <TRXTP>, <TRXPN>,

<RXUIDTYPE>,<CN>,<SRN>, <SN>,<ANTPASSNO>;


DataTransmission

Data


TRXID: Index of a TRX, uniquely identifying a TRX in aBSC6900.

TRXTP: Type of the TRX board bound to the TRX

TRXPN: Number of the channel bound to the TRX on the TRXboard.

RXUIDTYPE: Index type of the RXU. GUI Value Range:

RXUNAME(By RXU Name), RXUPOS(By RXU Position No),



Step 8 Configuring the BindingBetween a Logical and Physical TRX ADD TRXBIND2PHYBRD:


SRN: Number of the subrack where the BTS board is located.


DataTransmission

Data


ANTPASSNO: Number of the antenna feeder channel mapped

to the RXU.




1



START


IP Over E1

TDM/HDLC

2

3

END






IP-Based Networking on the AbisInterface IP over Ethernet Networking (Layer 2)

In this networking mode, the BSC6900 and the base station

communicate with each other through the IP network, and the

data transmitted between them is processed by the switch


according to the data link layer protocol. TheFG2a/GOUa/FG2c/GOUc/FG2d/GOUd board of the BSC6900

functions as the Abis interface board and provides FE/GE ports



IP-Based Networking on the AbisInterface IP over Ethernet Networking (Layer 3)


communicate with each other through the IP network, and the

data transmitted between them is processed by the router


according to the IP protocol. TheFG2a/GOUa/FG2c/GOUc/FG2d/GOUd board of the BSC6900

functions as the Abis interface board and provides FE/GE ports



IP-Based Networking on the AbisInterface IP over E1 Networking


communicate with each other through the SDH/PDH network.

The PEUa/POUc board functions as the Abis interface board. The


PEUa board provides E1/T1 ports, and the POUc board providesSTM-1 ports and OC-3 ports.

Equipment Transmission



Step 1 SET ETHPORT: <SRN>, <SN>, < BRDTYPE >, < PTYPE >, < PN

>,< AUTO> (Optional)

Run this command to set attributes of an Ethernet port on the

Configuring IP Over FE/GETransmission Data


DataTransmission

Data


FG2a, GOUa, FG2d, FG2c, GOUd and GOUc boards.

Step 2 SET ETHREDPORT :<SRN>, <SN>, <PN> (Optional)

Run this command to add active and standby Ethernet ports.

Equipment Transmission



Step 1 SET ETHPORT: <SRN>, <SN>, < BRDTYPE >, < PTYPE >, < PN

>,< AUTO> (Optional)

Run this command to set attributes of an Ethernet port on the



DataTransmission

Data



Step 2 SET ETHREDPORT :<SRN>, <SN>, <PN> (Optional)

Run this command to add active and standby Ethernet ports.

Cl k dL i l DEquipment Transmission



Step 3 ADD DEVIP: <SRN>, <SN>, <DEVTYPE >, <IPADDR >, <MASK

> (Optional)

Run this command to add a device IP address for a board. The



DataTransmission

Data


device IP address is the logical IP address of the board. As an

expansion of the port IP address, the logical IP address is used to

communicate with peer devices

Example

ADD DEVIP: SRN=0, SN=24, DEVTYPE=LOGIC_IP,

IPADDR="10.171.35.123";

Cl k d t ACT BTSL i l D tEquipment Transmission



Step 4 ADD ETHIP: <SRN>, <SN>, <PN >, <IPINDEX>, <IPADDR >,

<MASK > Run the ADD ETHIP command to add the port IP address of the



Clock data ACT BTSLogical Dataq p

DataTransmission

Data


Step 5 ADD IPRT: <SRN>, <SN>, <DSTIP >, <DSTMASK >,

<NEXTHOP> (Optional)

When the BSC6900 and the BTS are on different network

segments, run the ADD IPRT command to add an IP route to the

BSC6900.

Clock data ACT BTSLogical DataEquipment Transmission



Step 6 ADD BTSDEVIP: <IDTYPE>, <BTSID>, < BTSNAME >, <

PT >

Run this command to configure IP address on a BTS that uses the

IP transmission mode.


Clock data ACT BTSLogical Dataq p

Data Data


Step 7 SET BTSIP : <IDTYPE>, <BTSID>, <BTSNAME >, <BTSCOMTYPE >, < BTSIP>,< BSCIP>,< BTSMUTIP>

Run this command to set the communication address of a BTS that

uses the IP transmission mode.

Step 8 SET BTSETHPORT: <IDTYPE>, <BTSID>

Run this command to set the parameter settings of an Ethernet

port on a BTS that supports SingleRAN or uses the IP transmissionmode




Step 9 ADD BTSIPRT: <IDTYPE>, <BTSID>, < BTSNAME >, <

RTIDX> (Optional)

Run this command to add the route to a BTS that uses the IP

transmission mode.


Clock data ACT BTSLogical DataData Data


Step 10 ADD BTSESN: <IDTYPE>, <BTSID>, <DEVTYPE>,<MAINDEVTAB>, <BAKDEVTAB>

Run this command to add an equipment serial number (ESN) so as

to response to the DHCP request from the BTS.




Step 11 ADD ADJNODE: <IDTYPE>, <BTSID>, < BTSNAME >, <

RTIDX> (Optional)

Run this command to add an adjacent node. It indicates an

adjacent network device of BSC.




Step 12 ADD IPPATH: <IDTYPE>, <BTSID>, <DEVTYPE>,<MAINDEVTAB>, <BAKDEVTAB>

Run this command to add an IP path.

IP path is an important transmission resource. It carries the userplane data between the BSC and other NEs.





D tTransmission



Step 1 ADD BTSCONNECT: <IDTYPE>, <BTSID>, <INPN>,

<DESTNODE>, <SRN>, <SN>, <PN>;

Run the ADD BTSCONNECT command to add a connection

Configuring IP Over E1Transmission Data



.

Step 2 ADD a PPP link (Optional)

ADD PPPLNK: <SRN>, <SN>, <BRDTYPE >, <PPPLNKN >,

<TSBITMAP> ,<LOCALIP>, <PEERIP>

ADD BTSPPPLNK: <IDTYPE>, <BTSID>, <PPPLNKN >, <PN

>, <TSBITMAP>


D tTransmission

D t



Step 3 Add an MLPPP group (Optional)

ADD MPGRP: <SRN>, <SN>, <BRDTYPE >, <MPGRPN>,

<MPTYPE> , <LOCALIP> ,<PEERIP>


C SgData Data


, , , ,

<PPPLNKN> <TSBITMAP>

ADD BTSMPGRP: <IDTYPE>, <BTSIP>, <MPGRPN>,

<CN>,<SRN>,<SN> , <LOCALIP> ,<PEERIP>

ADD BTSMPLNK: <IDTYPE>, <BTSIP>, <MPGRPN>,

<PPPLNKN>, <PN>, <CN>,<SRN>,<SN> , <TSBITMAP >


DataTransmission

Data



Step 4 Add an adjacent node (ADD ADJNODE)

Step 5 Set set the IP address of the BTS(SET BTSIP)


gData Data


Step 6 ADD the ESN of the BTS(ADD BTSESN)

Step 7 Add an IP path (ADD IPPATH)


DataTransmission

Data



Configuring TDM/HDLCTransmission Data ADD BTSCONNECT: <IDTYPE>, <BTSID>, <INPN>,

<DESTNODE>, <SRN>, <SN>, <PN>;

INPN: Number of a BTS port

INCN: Number of the in-port cabinet on a BTS

Data Data


INSRN: Number of the in-port subrack on a BTS

INSN: Number of the in-port slot on a BTS

DESTNODE: Type of the object the BTS is connected to. Value

range: BTS, BSC6900, and DXX

C fi i TDM/HDLC



ADD BTSCONNECT:

SRN: Subrack number of the BSC6900 board that is connected tothe BTS

SN: Slot number of the BSC6900 board that is connected to the

Configuring TDM/HDLC

Transmission Data


BTS

PN: Number of the port through which the BTS is connected to the

BSC6900

EXAMPLE

ADD BTSCONNECT: IDTYPE=BYID, BTSID=9, INPN=0,

DESTNODE=BSC, SRN=11, SN=0, PN=1;






START


SET BTSIPCLKPARA1

SET BTSCLK2

END




TransmissionData


Data



Set BTS IP Clock Server Set BTS IP Clock Server SET BTSIPCLKPARA :<BTSID>, <

CLKPRTTYPE >, < SYNMODE >,< SYNTIMEDAY >,<

SYNTIMEHOUR >, < SYNTIMEMIN >,< MASTERIPADDR >,

BTSID: Index of the BTS, uniquely identifying a BTS in a BSC6900.

DataData


SYNMODE : Synchronization mode of the IP clock

SYNTIMEDAY : Interim synchronization period (in days

SYNTIMEHOUR : Interim synchronization period (in hours)

SYNTIMEMIN : Interim synchronization period (in minutes)

MASTERIPADDR : It must be the valid address of the A, B, or C

type and cannot be the broadcast address or network address


DataTransmission

Data



Set Clock Type of BTS SET BTSCLK (Optional): <BTSID>

<ClkType> <TRANSTYPE>

BTSID: BTS Index

CLOCK TYPE: INT_CLK(Internal Clock), TRCBSC_CLK(Trace

Set Clock Type of BTS


oc , _ x erna ync c oc , _

Clock), IP_TRANSFER(Trace Transport Clock),

TRCGPS_CLK(Trace GPS Clock), UM_CLK(Um Clock),

PEER_CLK(Peer Clock), SYNETH_CLK(SynEth Clock)

TRANS TYPE: E1(E1), T1(T1), FE(FE)






START


ACT BTS

END





DataTransmission

Data



Activating the BTS Configuration CHK BTS: <IDTYPE>, <BTSID>;

Use this command to check the BTS data integrity.

ACT BTS: <IDTYPE>, <BTSID>;

IDTYPE: Index type of the BTS.


BTSID: ID of the BTS.

BTSNAME: Name of the BTS



Summary The concept of Web LMT

Initial GSM data configuration steps of BTS3900

Configuring the Equipment Data, Logical Data,

Transmission Data, Clock Data





Thank you. .

Documents

3. MBTS GSM V100R007 Initial Data Configuration Based on LMT