omb321100 bts3900 gsm v1r2 data configuration based on lmt issue1.21

www.huawei.com

Copyright © 2010 Huawei Technologies Co., Ltd. All rights reserved.

英文标题 :40-47pt

副标题 :26-30pt

字体颜色 : 反白内部使用字体 :

FrutigerNext LT Medium

外部使用字体 : Arial

中文标题 :35-47pt

字体 : 黑体副标题 :24-28pt

字体颜色 : 反白字体 : 细黑体

BTS3900 GO V1R2 Data Configuration based on LMT

Copyright © 2010 Huawei Technologies Co., Ltd. All rights reserved. Page2

References

BSC6900 LMT User Guide

BSC6900 Initial Configuration Guide

BTS3900 Initial Configuration Guide


Objectives

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

Know the principle of data configuration

Master BTS3900 GO initial data configuration though

Web LMT

Understand the meaning of some important

parameters


Contents

1. 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


Contents

1. Web LMT Introduction

2. Steps of Data Configuration

Copyright © 2010 Huawei Technologies Co., Ltd. All rights reserved. Page9Page9

Steps of Data Configuration

END

START

Configuring the Logical Data

Configuring the Equipment Data

Activating the BTS Configuration

Configuring the Transmission Data

Configuring the BTS Clock

Optional Configuration



END

START







ADD BTS1

2

3

ADD BTSCABINET

ADD BTSRXUCHAIN

4ADD BTSRXUBRD

SET BTSRXUBP


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

BTSDESC >, <SEPERATEMODE>,<SERVICEMODE>,<FLEXABISMODE >, <ABISBYPASSMODE>,<ISCONFIGEDRING >,<MPMODE >, <MAINPORTNO >,<IPPHYTRANSTYPE >,<SRANMODE>;

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 bearer mode of the BTS

FLEXABISMODE: Service timeslot assignment mode for

the BTS

ABISBYPASSMODE: Whether to enable the BTS to

support bypass

ISCONFIGEDRING: Whether to enable the BTS to

support ring networking


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

of the 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>,<CN>,

<SRANMODE>, <TYPE>, <CABINETDESC>;

CN: Number of the cabinet

SRANMODE: Whether to support the SRAN mode

TYPE: Type of a cabinet

CABINETDESC: Descriptive information of the BTS

cabinet


Step 3 ADD BTSRXUCHAIN

ADD BTSRXUCHAIN: <IDTYPE>, <BTSID>, <RCN>,

<TT>, <HCN>,<HSRN>,<HSN>,<HPN>

RCN: Number of the RXU chain or ring

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

chain topology.

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

RXU chain or ring is located


ADD BTSRXUCHAIN: <IDTYPE>, <BTSID>,

<RCN>, <TT>,

<HCN>,<HSRN>,<HSN>,<HPN>;

HSRN: Number of the subrack where the head board of

the RXU chain or ring is located.

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

RXU chain or ring is located.

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

in the RXU chain or ring.

Step 3 ADD BTSRXUCHAIN


Step 4 ADD BTSRXUBRD

ADD BTSRXUBRD: <IDTYPE>, <BTSID>,

<BT>,<CN>,<SRN>,

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

BT: Type of the newly added RXU board


SRN: Number of the subrack where the BTS board is

located

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

RXUNAME: Name of an RXU


Step 4 ADD BTSRXUBRD

ADD BTSRXUBRD: <IDTYPE>, <BTSID>,

<BT>,<CN>,<SRN>,

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

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]),

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 Standard : GU, GO, UO, LTE



END

START







5

6

7

Configuring the TRXConfiguring the Binding Between a GSM Cell and a BTS Configuring the Binding Between a Logical TRX and a Physical TRX

Board

8

Configuring a GSM Cell


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

ADD GCELLFREQ

This command is used to add frequencies to a GSM internal

cell

ADD GCELLOSPMAP

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

an originating signaling point (OSP)


Step 5 Configuring a Cell-ADD 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, uniquely identifying a cell in a BSC

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 Cell-ADD GCELLFREQ ADD GCELLFREQ: <IDTYPE>, <CELLID>,

<FREQ1>,<FREQ2>;

FREQ1: Frequency 1

FREQ2: Frequency 2

EXAMPLE

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

FREQ2=2;


Step 5 Configuring a Cell- ADD GCELLOSPMAP ADD GCELLOSPMAP: <IDTYPE>, <CELLID>,

<CELLNAME>, <OPC>;

IDTYPE: Type of an index

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

CELLNAME: Name of a cell, uniquely identifying a cell in a

BSC

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

signaling network

EXAMPLE

ADD GCELLOSPMAP: IDTYPE=BYID, CELLID=0, OPC=1000;


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

binding between the logical TRX and the cell


Step 6 Configuring the TRX-ADD GTRX ADD GTRX: < IDTYPE>, <CELLID>, <TRXID>,

<FREQ> ， <ISMAINBCCH>;

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

unique

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

ISMAINBCCH: Whether to enable the TRX to carry the

main BCCH in the cell


Step 7 Configuring the Binding Between 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

BSC

CELLNAME: Name of a cell, uniquely identifying a cell

in a BSC

BTSID: ID of the BTS

BTSNAME: Name of the BTS


Step 8 Configuring the Binding Between 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>; TRXID: ID of the TRX

TRXTP: Type of the TRX board bound to the TRX

TRXPN: Number of the channel bound to the TRX on the TRX board

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

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

Subrack No)


Step 8 Configuring the Binding Between a Logical and Physical TRX ADD TRXBIND2PHYBRD: <TRXID>, <TRXTP>,

<TRXPN>, <RXUIDTYPE>,<CN>,<SRN>,

<SN>,<ANTPASSNO>;


SRN: Number of the subrack where the BTS board is

located

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

ANTPASSNO: Number of the antenna feeder channel

mapped to the RXU


Configuring the TRX-SET GTRXCHAN (Optional) Run the SET GTRXCHAN command to set the channel attributes

of the TRX.

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

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


Configuring the TRX-SET GTRXDEV (Optional) Run the SET GTRXDEV command to set the device attributes of

the TRX.

SET GTRXDEV: <POWL >,<POWT >,<OPTL >,<SDFLAG >, <TCHAJFLAG >,<PL8PSK >,<RCVMD > ,<SNDMD >, <CPS >

POWL: Power Level

POWT: Power Type

OPTL: TRX Priority

SDFLAG: Shut Down Enabled

TCHAJFLAG: TCH Rate Adjust Allow

PL8PSK: TRX 8PSK Level

RCVMD: Receive Mode

SNDMD: Send Mode

CPS: Allow Dynamic Shutdown TRX



END

START







TDM/HDLC1

IP Over FE/GE

IP Over E1

2

3


Configuring TDM/HDLC Transmission 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

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 that connects to the BTS.

Value range: BTS, BSC6900, and DXX


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

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

SRN: Number of the subrack where the BSC6900 board

connected to the BTS is located

SN: Number of the slot

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

to the BSC6900

EXAMPLE

ADD BTSCONNECT: IDTYPE=BYID, BTSID=1, INPN=0,

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

Configuring TDM/HDLC Transmission Data


Step 1 ADD DEVIP: <SRN>, <SN>, <DEVTYPE >, <IPADDR >,

<MASK >

Run the ADD DEVIP command to add the device IP address of the

FG2a board.

Step 2 ADD ETHIP: <SRN>, <SN>, <PN >, <IPINDEX>, <IPADDR >,

<MASK >

Run the ADD ETHIP command to add the port IP address of the

FG2a board.

Step 3 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.

Configuring IP Over FE/GE Transmission Data


Step 4 SET BTSETHPORT : <IDTYPE>, <BTSID>, <PN >,

<RATE >, <MTU>

Run the SET BTSETHPORT command to set the port attributes of

the BTS.

Step 5 SET BTSIP : <IDTYPE>, <BTSID>, <BTSIP >, <BSCIP>,

Run the SET BTSIP command to set the IP address of the BTS.

Step 6 ADD BTSIPRT: <IDTYPE>, <BTSID>, <DSTIP >,

<DSTMASK >, <NEXTHOP> (Optional)

When the BSC6900 and the BTS are on different network

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

the BTS.



Step 7 ADD BTSESN: <IDTYPE>, <BTSID>,

<MAINDEVTAB >, <BAKDEVTAB >

Run the ADD BTSESN command to add the Equipment

Serial Number of the BTS..

Step 8 Add an adjacent node : ADD ADJNODE :

<ANI>, <NAME >, <NODET >

ANI: Adjacent Node ID

NAME: Node Name

NODET: Node Type



Step 9 Add an IP path ADD IPPATH :<ANI>,

<PATHID >, <ITFT >, <TRANST> ,<

PATHT>,<IPADDR> , <PEERIPADDR >, <TXBW> ,

<RXBW >

ANI: Adjacent Node ID

PATHID: IP path ID

ITFT: Interface Type

TXBW: Forward Bandwidth

RXBW: Backward Bandwidth



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

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

Run the ADD BTSCONNECT command to add a

connection between the BTS and the BSC6900.

Step 2 ADD a PPP link (Optional)

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

<TSBITMAP> ,<LOCALIP>, <PEERIP>

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

<PN >, <TSBITMAP>

Configuring IP Over E1 Transmission Data


Step 3 Add an MLPPP group (Optional)

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

<MPTYPE> , <LOCALIP> ,<PEERIP>

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

<PPPLNKN> <TSBITMAP>

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

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

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

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

>



Step 4 Add BTS IP Route ADD BTSIPRT

(Optional)

Step 5 Set BTS Equipment Serial Number (SET

BTSESN)

Step 6 Add an adjacent node (ADD ADJNODE)

Step 7 Add an IP path (ADD IPPATH)




END

START







SET BTSIPCLKPARA

1

SET BTSCLK2


Set BTS IP Clock Server

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

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

SYNTIMEHOUR >, < SYNTIMEMIN >,< MASTERIPADDR >,

BTSID: BTD Index

CLKPRTTYPE : Clock Protocol Type

SYNMODE : Clock Synchronization Mode

SYNTIMEDAY : Days of Inter Sync Period

SYNTIMEHOUR : Hours of Inter Sync Period

SYNTIMEMIN : Minutes of Inter Sync Period

MASTERIPADDR : Master Clock Server IP Address


Set Clock Type of BTS SET BTSCLK (Optional):

<BTSID> <ClkType> <TRANSTYPE>

BTSID: BTS Index

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

BSC Clock), EXTSYN_CLK(External Sync clock), IP_TIME(IP

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)

Set Clock Type of BTS



END

START







ACT BTS


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



END

START







1

2

Neighboring cell relations configurationGPRS/EDGE configuration


Configuring the Neighboring Cell Relations To configure the neighboring cell relations, you need to

configure the external 2G cell, external 3G cell, and

neighboring cells for a cell to meet the handover

requirement.BSC1

Cell1

Cell2

Cell3

BSC2

Cell a

Cell b

Cell c

Uni-directional neighboring cells

Bidirectional

neighboring cells


Configuring the Neighboring Cell Relations Add a 2G external cell. (ADD GEXT2GCELL)

Add a 3G external cell. (ADD GEXT3GCELL)

Add a 2G neighboring cell for the specified

originating cell. (ADD G2GNCELL)

Add a 3G neighboring cell for the specified

originating cell. (ADD G3GNCELL)


Configuring the Neighboring Cell Relations Add a 2G external cell. (ADD GEXT2GCELL)

Add a 2G neighboring cell for the specified originating

cell. (ADD G2GNCELL)


Configuring GPRS/EDGE

Page51

To configure GPRS/EDGE the cell need to be enable

with packet channels. Also the cell should be activated

with GPRS and EDGE function, according to

requirement.

Cell, with no GPRS/EDGE

Cell with GPRS

Cell with GPRS and EDGE


Configuring GPRS/EDGE Run the （ SET GCELLGPRS) command to set the parameters

as follows:

If external PCU is used, set GPRS to

SupportAsExtPcu(Support as external Pcu)

If built-in PCU is used, set GPRS to

SupportAsInnPcu(Support as built-in PCU)

If EDGE is used in the cell set EDGE to YES


Configuring GPRS/EDGE Run the (SET GTRXCHAN) command to set Channel Type

to PDTCH(PDTCH) for at least one channel.


Configuring GPRS/EDGE To set idle timeslots for data (in TDM transmission mode) :

(SET BTSIDLETS)

To set IPPATH for data (in IP transmission mode) : (ADD

IPPATH)


Summary

The concept of Web LMT

Initial GSM data configuration steps of BTS3900

Configuring the Equipment Data, Logical Data,

Transmission Data, Clock Data

Activating the BTS Configuration Optional Configuration

Thank youwww.huawei.com

omb321100 bts3900 gsm v1r2 data configuration based on lmt issue1.21

Documents