sdr common command summary

SDR common command summary

1 CC Command

1.1 PRM Parameter configuration command (Reference code Prmlpub.c):

1) ShowPrm: View BP board configuration

telnet CC type ShowPrm show the following results:

CC-> ShowPrm

bIsBpOK [0] = 0!!!

bIsBpOK [1] = 0!!!

bIsBpOK [2] = 1!!!

bIsBpOK [3] = 0!!!

bIsBpOK [4] = 0!!!

tPrmCtlVar.tBpIns [0]. tSynPnt.bySub = 0, byL2State = 0, byMskChgState = 0, dwBitmap = 0!





Arguments detailed

a) bIsBpOk [BP_MAX]:

BP said the veneer is configured, 1 represents the configuration, 0 is not configured; BP_MAX that the location of BP board, 0 corresponds to slot 4, 1 corresponds to the slot 5, And so on 4 Corresponding slots 8

b) WORD16 　 byMskChgState:

byMskChgState 0 BP veneer　that　the　parameters　of　all　the　carrier　is　not　configured　or　has　been　configured　go　back　to　the ACK a;

Low　12-bit　bitmap,　respectively,　the BP card　is　not　bound　to　the　carrier　frequency　in　the　configuration　parameters;

Highest　profile DSPAddr parameters　that　do　not　return　ACK;　highest　participation　low　one　that　configuration BUC

Number,　there　did　not　return　ACK.

c) DWORD dwBitmap;

dwBitmap 0 carrier　on　behalf　of BP load　for　all　the　veneer　back ACK;

　 dwBitmap low 12 BIT with　each BP 12 FUTrx corresponding　veneer,　bit 1 for this　photo

FuTrx for　carrying,　is　waiting　for　response,　response　to　the　ACK,　then　this bit bitmap　clear　0.

　　　　 d) BYTE byL2State:

CC Communications and BP is　normal,　1　link　links,　0　links　broken, FF link　status　unknown;

　　　　 e) tPrmCtlVar.tBpIns [3]. tSynPnt.bySub:

Examples　of　synchronization　reference　point

typedef enum tagESynbase (

SYNBASE_IDLE, / * 0: no　sync * /

SYNBASE_PWRON, / * 1: power on report submitted　to　synchronize * /

SYNBASE_SET, / * 2: SET synchronization * /

SYNBASE_GET, / * 3: GET synchronization * /

SYNBASE_TST * 4: TST synchronization * /

) TESynbase;

2) ShowTrxInBp 　 byBPIndex:　view　the　wireless　configuration　of　the　cell　and　binding　of　BP transceiver board　(byBPIndex)　carrier

Enter telnet CC 6 slots ShowTrxInBp 2 shows the　carrier　bound BP board　as　follows:

CC-> ShowTrxInBp 2

tOldAllTrxInPerBp.byBandTrxNum = 6!

BPTrxindex = 0, SectorNo = 1, TrxNo = 1, IPTBSetupFlag = 0, NeedIpTbFlag = 1!!












tCurAllTrxInPerBp.byBandTrxNum = 6!













BP [2]. IsBand = 1!!!

Arguments　detailed

a. tOldAllTrxInPerBp.byBandTrxNum last　configuration　the　number　of　carrier　binding

tCurAllTrxInPerBp.byBandTrxNum The　configuration　of　the　carrier　bound　the　number　of

b. BPTrxindex corresponding BP board DSP's Index (0-11), SectorNo and TrxNo cell　binding　and　the　corresponding　carrier　transceiver

c. bIPTBSetupFlag:　said　bearing　is　established,　one　that　set　up,　0　not　established d. byNeedIpTbFlag:

0　binding　relations　have　not　changed;

An increase　in　binding　relations　that　do　not　need　to　delete　the　previous IPTB bearing;

2 that　changes　in　binding　relations,　need　to　remove　the　previous　host,　create;

　　 3 that　remove　binding　relationship,　need　to　remove　the　bearing

　　 3)　ShowBoardFlag　CellIndex view　the　district　of　the　physical　configuration　of　all TRX relations, IQ distribution,　and　host　is　configured　successfully

telnet CC type ShowBoardFlag 1 shows　a　plot　of　all　the TRX configuration　is　as　follows

　　 CC-> ShowBoardFlag 1

tGetBoardInfoAck. [1] [0] -> bPhyLogOK = 1, bIPTBBracsOK = 1, bIQCfgOK = 1!!!







a) tGetBoardInfoAck. [cell　number]　[transceiver　number], where　transceiver　number　is　started　from　0

b) bPhyLogOK physical　logic　is configured:　1 for configuration

c) bIPTBBracsOK whether　to　create IPTB bearing　success: 1 for success

d) bIQCfgO IQ configuration　is　successful: 1 for success

4) CCShowHelp command　help　function

Enter CCShowHelp telnet CC

CC-> CCShowHelp

Prm-> ShowBoardFlag bySectorNo [1-24]

Prm-> ShowPrm

Prm-> ShowBitmap byBpIndex [0-4]

Prm-> ShowTrxInBp byBPIndex [0-4]


Command　ShowBoardFlag, ShowPrm,　ShowTrxInBp　have　stated　above,　while ShowBitmap see ShowPrm in　dwBitmap.

1.2 IQ configuration query commands (refer to code prmDynAssign.C)

1) ShowIQCfg shows　the　logical　configuration, RRU, BP carrier　binding　relationship　between　the IQ

Enter ShowIQCfg telnet CC

CC-> ShowIQCfg

Global variable [gtIQCfgGroup] record (byIQCfgGroupNum: 1)

*************************************[ 0 ]:********* **************************

bySectorNo = 1

byFHMode = 255

---------------------------------------

byPerGroupTrxNum = 1:

gtIQCfgGroup.atPerIQCfgGroupAttr [0]:

byTrxNo = 1

byTruNum = 1

byBandSta = 0

tBpTruPos: (1,1,4,0)

tRuTruPos: (3,1,1,1)

************************************************** *************************


a. bySectorNo cell　number,　byFHMode　configuration　hopping　mode:　1,　said　base-band　frequency　hopping,　and　2　radio　frequency　hopping,　if　configured　as　a　base-band　frequency　hopping,　the　following　also　print　out　a　list　of　the　baseband　frequency.

b. byPerGroupTrxNum: Jumping　the　number　of　sites　frequently,　byTrxNo　wireless　transceiver　number,　byTruNum　joint　working　model　with　multi-carrier, the　carrier said the　number of　the TRX binding, byBandSta　bound　state　the　specific　condition　is　defined　as　follows:

/ * BP TRU and RU TRU definition　of　the　binding　state * /

# Define BP_RRU_BAND_ACK (BYTE) 0

# Define BP_RRU_BAND_NACK (BYTE) 1

# Define BP_RRU_BAND_TIMEOUT (BYTE) 2

# Define BP_RRU_BAND_WAITTIMEOUT (BYTE) 3

# Define BP_RRU_NOBANDED (BYTE) 4

c. tBpTruPos and tRuTruPos: BP's carrier　and　the RRU that the　carrier　channel　corresponding IQ

　　　　 tBpTruPos: (1,1,4,0): BpRackNo,　BpShelfNo,　BpSlot,　CHIQID (CH IQ channel　number 0,1,2 ...., 11)

tRuTruPos: (3,1,1,1):　RuRackNo, RuShelfNo,　RuSlot,　byTruNo (RU internal　carrier

0,1,2 ... ...., 6)

2) dbtr 52 shows　platform　database　access BP and FS of　the　corresponding　relationship　between IQ

telnet CC type dbtr 52

CC-> dbtr 52

Table [R_CHSWIT] record (Primary Memory: 2)

************************************************** *****************************

byRackNo (*) byShelfNo (*) bySlotNo (*) byDirection (*) byCHIQID (*) byFSPortID (*) byFSIQID (*) byFSSlotNo (*) byFSRackNo byFSShelfNo byUsedFlg byServType dwStatus

************************************************** *****************************

1140000311110

1141000311110

stop at: 2


a. byRackNo (BP board　rack　where　the number) byShelfNo (chassis　number) bySlotNo (slot　number),

b. byDirection 0　on　behalf　of　the　uplink,　a　representative　of　downlink c. byCHIQID 　 BP board channel　number CH IQ d. byFSPortID 　 FS light　slogan e. byFSIQID 　　 FS's IQ port　number f. byFSSlotNo (FS where　the　slot number) byFSRackNo (chassis　number)　byFSShelfNo　

(chassis　number) g. byUsedFlg use　state　of　the　exchange　relations h. byServType 　 0: WCDMA 1: GSM i. dwStatus state 0:　A,　1:　Remove

3) dbtr 53 shows　platform　database　access RRU and FS of　the　corresponding　relationship　between IQ

telnet CC type dbtr 53

CC-> dbtr 53

Table [R_RRUSWT] record (Primary Memory: 2)

************************************************** ***************************

byRackNo (*) byShelfNo (*) bySlotNo (*) byDirection (*) byFSPortID (*) byFSIQID (*) byRRURackNo byRRUShelfNo byRRUSlotNo byRuTxID byServType dwStatus

************************************************** *****************************

113000311010

113100311010

stop at: 2


a. byRackNo (FS plate　rack　where　the number) byShelfNo (chassis　number) bySlotNo (slot　number)

b. byRRURackNo (RRU board　where　the　rack number) byRRUShelfNo (chassis number) byRRUSlotNo (slot　number) byRuTxID (RU carrier　No.)

c. Other　parameters　consistent　with db52

Supplement

a) dbtr52 Show　table　of　contents　is FSAgent Platform　Module　issued　after　the IQ distribution　allocated　to FS, FS response　generated　after　the　ACK.

b) dbtr53 Show　table　of　contents　is FSAgent Platform　Module　issued　after　the IQ distribution　configuration　to RRU, RRU response　generated　after　the　ACK.

c) If　two　tables　are　empty,　there　is　a　reported IQ distribution will fail　alarm.

1.3 silent positioning command

1) BspShowUdpInfo: See　bearing,　bearing　each　carrier　to　create　four　were　carrying CS services, PS business　bearing, CS business　with　the　road　bearing, PS business　with　the　road　load. G SPS　in　the　parameter　configuration,　finish　the　IQ　configuration　module　to　the　platform　for　the　establishment　of　BRACS　bearing,　if　carrying　no　data,　some　two-way　silent.

Enter BspShowUdpInfo telnet CC

CC-> BspShowUdpInfo

index = 0, vlanid = 65535, Qos = 0x0, rncport = 16640, nodebport = 21384,

rncip = 118.18.1.3, nodebip = 118.18.1.111, bpip = 193.252.4.32,

rncmac = 00-d0-d0-a0-69-12,

bpmac = 40-00-c0-fc-04-20



rncmac = 00-d0-d0-a0-69-12,

bpmac = 40-00-c0-fc-04-20



rncmac = 00-d0-d0-a0-69-12,

bpmac = 40-00-c0-fc-04-20



rncmac = 00-d0-d0-a0-69-12,

bpmac = 40-00-c0-fc-04-20 　

Parameter　Description

a) index0 to 3 represents the 4-way bearing

b) rncport IBSC the　port　number,　nodebport BTS port　number

c) rncip IPABIS's IP address, nodebip CC's IP address, bpip BP's DSP IP address　of　the　primary　nuclear

d) rncmac IBSC's IPBB board MAC address, bpmac BP board MAC address

2) BspShowUdpCount port (port　number):　see　the　corresponding　upper　and　lower　load　line　data　can　be　located　up　and　down　the　silent

telnet CC type BspShowUdpCount port (BTS port　number)

　 CC-> BspShowUdpCount 21384

Rnc to Bpc ETH CDESCs Statistics:

general_Cnt: 37150

noTci_Cnt: 37150

tci1_Cnt: 0

tci2_Cnt: 0

PPPoE_Cnt: 0

IPv4_Cnt: 37150

TCP_Cnt: 0

UDP_Cnt: 37150

Bpc to Rnc ETH CDESCs Statistics:

general_Cnt: 9747

noTci_Cnt: 9747

tci1_Cnt: 0

tci2_Cnt: 0

PPPoE_Cnt: 0

IPv4_Cnt: 9747

TCP_Cnt: 0

UDP_Cnt: 9747

value = 0 = 0x0


a. Rnc to Bpc ETH CDESCs Statistics: downlink　data　reception

Bpc to Rnc ETH CDESCs Statistics: uplink　data　reception

b. general_Cnt, IPv4_Cnt:, UDP_Cnt:　the　number　of　received　packets c. 2 times　as　long　as　the　continuous　input　of　the　command,　whether　the　changes　

observed　packets　can　locate　the　specific　problem　is　upstream　or　downstream　silent.

1.4 Database Query command (see code ACCESS.C)

1) ShowDBsVar: View　the　database　(TDbsCtrlVar)　in　the　current　and　previous　physical　logical　configuration

Enter ShowDBsVar telnet CC

CC-> ShowDbsVar

CurLogTrxNum: 2

OldLogTrxNum: 2

CurLogTrx [0]. SectorNo: 1

CurLogTrx [0]. TrxNo: 1

CurLogTrx [1]. SectorNo: 1

CurLogTrx [1]. TrxNo: 2

OldLogTrx [0]. SectorNo: 1

OldLogTrx [0]. TrxNo: 1

OldLogTrx [1]. SectorNo: 1

OldLogTrx [1]. TrxNo: 2

IsNeedIQCfg: 0

IsNeedRadioReq: 1

byTrxIndex: 0

CurTruNum: 1

CurRRUPos [3,1,1,1]

OldTruNum = 1

OldRRUPos [3,1,1,1];

byTrxIndex: 1

CurTruNum: 1

CurRRUPos [3,1,1,2]

OldTruNum = 1

OldRRUPos [3,1,1,2];


a. CurLogTrxNum: Current　number　of　configurable　logic　carrier, OldLogTrxNum:　The　last　time　the　number　of　configurable　logic　carrier

b) byTrxIndex index　number,　CurRRUPos [3,1,1,1] the　current　physical　configuration　of　the RRU of　the　rack　number,　chassis　number,　slot　number,　carrier　number

c) bIsNeedIQCfg: the　need　for IQ configure　flags,　0　do　not

d) bIsNeedRadioReq: the　need　for　wireless　parameter　signs,　one　needs

2) ShowBandTable n:　View　the　current　database　(TTrx)　in　the　RU　and　the　binding　relationship　between　BP,　n　said　the　configuration　of　the　BBU　LMT　uniform　number　of　physical　carrier

telnet CC type ShowBandTable　1

CC-> ShowBandTable 1

bIsBand = 1,

Bp [1,1,4,0],

Ru [3,1,1,2]


a. bIsBand IQ is　bound　successfully, 0 means success, 1 for failure

b. Bp [1,1,4,0]: BP rack　number,　chassis　number,　slot　number,　CHIQ number　(DSP　Carrier)

Ru [3,1,1,2]: RU rack　number,　chassis　number,　slot　number,　carrier　number

1.5 Veneer status query command (refer to code GccAlarmPro.c)

Function　name ShowStateInfo (BYTE byType, BYTE bySectorNo, BYTE byTrxNo) when byType = 0 query　cell　state, the　first　two　parameters　can　be　input　at　this　time; when byType = 1 Query View　fu　and　channel　state.

1) ShowStateInfo 0,1 inquiries　District 1 state

telnet CC type ShowStateInfo 0,1

CC-> ShowStateInfo 0,1

(1,0 xff, 0xff): AD2, OP2, AV0x0.


AD operating　state　(1　block, 2 solutions　closed), OP operating　state　(1　block, 2 solutions　closed), AV can　state

AV Status:

# Define AV_AD_DIFFERENCE (BYTE) 0x10 / * issued　to BP status　timeout * /

# Define AV_FS (BYTE) 0x04 / * IQ binding　before　and　after　the　state * /

# Define AV_BP (BYTE) 0x40 / * BP board　state * /

# Define AV_ALM (BYTE) 0x02 / * GSPS alarm * /

# Define AV_RRU (BYTE) 0x20 / * RRU veneer　state * /

# Define AV_RUDP_BREAK (BYTE) 0x80 / * RUDP link　state * /

# Define AV_OFFLINE (BYTE) 0x08 / * power　down,　the　initial　state * /

# Define AV_AIF_ALM (BYTE) 0x01 / * AIF caused　alarm　status * /

2) ShowStateInfo1, 1,1 inquiry　district　1,　TRX1　state

telnet CC type ShowStateInfo 1,　1, 1

CC-> ShowStateInfo 1,1,1

(1,1,0 xff): SectorAD2, AD2, OP2, AV0x0.

(1,1,0): SectorAD2, TrxAd2, AD2, OP2, AV0x0.









(1,1,0 xff): FU state

(1,1, TS): 8 time　slots　of　the　state

　 3) DbsShowTableRecord 　 5 (table number), 0 (bIsDbEx) View　platform　database　status　and　type　of　veneer

telnet CC type DbsShowTableRecord 5,0

Table [R_BOARD] record (Primary Memory: 8)

************************************************** ************************ byRackNo (*) byShelfNo (*) bySlotNo (*) wBoardType byManualOp dwStatus

************************************************** ************************

11,115,008

1115155041

1113156033

11,815,300

11,315,108

21,115,800

201 000

202 000

stop at: 8


a) byRackNo (*) byShelfNo (*) bySlotNo (*) single　board　position

b) wBoardType veneer　type

# Define OMS_ANT_TYPE (WORD16) 0

# Define OMS_RET_TYPE (WORD16) 70

# Define OMS_CSA_TYPE (WORD16) 150

# Define OMS_FSA_TYPE (WORD16) 151

# Define OMS_BPC_TYPE (WORD16) 152

# DefineOMS_UBPG_TYPE 　　　 (WORD16) 153

# Define OMS_SEA_TYPE (WORD16) 154 /

# Define OMS_PM483_TYPE (WORD16) 155

# Define OMS_SAA_TYPE (WORD16) 156

# Define OMS_FAA_TYPE (WORD16) 157

# Define OMS_DTR_TYPE (WORD16) 158

# Define OMS_TTR_TYPE (WORD16) 159

# Define OMS_FCE_TYPE (WORD16) 160

c) byManualOp: veneer　artificial　state 0 normal,　1　block

dwStatus for　the　state　field,　record　the　main　object　of　the　running;

0 for the　external　veneer (BP, RRU, prepared CC, prepare　FS)　state　the　normal,　8　with　the　main　equipment　for　the　board (CC, FS)　state　the　normal　veneer

Concrete　veneer　state　bitmap:

Field　name

Macro　name

Value Explanation

byManualOp

Bit0 = 1 / 0

Artificial　occlusion / de-closed,　if　this　bit,　indicating　artificial　occlusion.

Local　communities　and　have　this AAL2

Veneer　veneer　only　baseband　support　blocking　operations

Bit2 ~ Bit7

Reservation

dwStatus Bit0 = 1 / 0

Fault / normal

Bit1 = 1 / 0

Where　the　veneer　failure / normal (only　AAL2, AAL5 and E1,　the　local　district,　tower　up)

Bit2 = 1 / 0

Remote　manual　occlusion / de-closed,　if　this　bit,　indicating　the　remote　manual　occlusion. (AAL2 use)

Bit3 = 1 / 0

The　main　reserve,　on　the CCS effective, RBI effective　when　used　in B09/B09A

Bit4 = 1 / 0

Initialize / normal

Bit5 = 1 / 0

Not　available / available;　on　the　veneer　is　as　follows:

B09/B09A/B06C/B03C: only WDDL invalid. Bit6 = 1 / 0

Test / normal

Bit7 = 1 / 0

Under　the　power / normal

Bit8 = 1 / 0

Amplifier　Disable / amplifier　enable;　current RTR series　of　single　board, HPA series　of　single　board, LPA series　veneer　effective

Bit9 = 1 / 0

Did　not　shake　hands with　the RNC / RNC to　shake　hands　with　the　success　of

Bit10 ~ Bit31

Reservation

1.6 Alarm query command (refer to code GccAlmFunc.c)

1) ShowAIFAlm 　 byBpIndex display bitmap byBpIndex AIF alarm　value　0　to　4

telnet CC type ShowAIFAlm 0 4 slots display bitmap　BP's AIF

CC-> ShowAIFAlm 0

AIFAlm BitMap:

0,0,0,0,0,0,0,0,0,0,0,0,0


1) The first　0　downlink　data　is　reported　FPGA,　0　for　no　alarm,　1　for　alarm.

2) representatives　of　the　other 12 0 12 IQ channel,　is　detected　by　the DSP to　the　uplink　data.　

2) ShowBoardState (BYTE byRack, BYTE byShelf, BYTE bySlot) shows　the　state　veneer　and　veneer　type

Enter ShowBoardState telnet CC 　 1, 1,3 display　rack 1, machine　frame　1,　slot 3 veneer　state

CC-> ShowBoardState 1,1,3

Pos = 1,1,3, Type = 151, State = 2


a) Pos veneer　location

b) Type veneer　type: Specific　type　as　defined　in　the　command　description DbsShowTableRecord 5,0

c) State veneer　state

　　　　　　 / * OP state　definitions * /

# Define DISABLED (BYTE) 0x01

# Define ENABLED 　 (BYTE) 0x02

3) ShowGspsAlm 　 Alarm　display　bitmap GSPS

Enter ShowGspsAlm telnet CC

CC-> ShowGspsAlm

AL_PRM_DIF_ALMCODE: 0

AL_RD_PRM_ALMCODE: BPIndex0 ~ 4:0,0,0,0,0

AL_L3NORES_ALMCODE: BPIndex0 ~ 4:0,0,0,0,0

AL_IQ_ERROR_ALMCODE: 0

AL_IPTB_ERROR_ALMCODE: 0

AL_REQ_RFPRM_TIMEOUT: 0


These　are　the　6 GSPS detection　alarm, 0 for no　warning,　a　report　on　behalf　of　a　warning

4) OMSAlmMan:　search　platform　database　alerts　help　command

telnet CC type OMSAlmMan:

CC-> OmsAlmMan

>>>>>>>>>>>>>>>>>>>> Oms FM Manual <<<<<<<<<<<<<<<<<<<<

01> AlmMapDumpAlmInfo: Display Alarm Map

Usage: AlmMapDumpAlmInfo rack, shelf, slot

02> DumpAllAlmInfo: Display Fault Map

03> DumpSyncAlmMap: Display Sync Alarm Map

Usage: DumpSyncAlmMap rack, shelf, slot

04> ShowAlmGroupInfo: Display Alarm Group Infomation

Usage: ShowAlmGroupInfo GroupId

05> ShowAlmCurQueue: Display Cur Alm Queue

06> ShowAlmHisQueue: Display History Queue

07> ShowAlmBoardInfo: Display AlmBoard Object Info

08> OmsFaultTest: send fault from shell. Simulate a fault.

Usage: OmsFaultTest flag, almcode, subalmcode

09> OmsShowAlmCode: Display almCode and faultCode map info.

10> OmsShowAlmCodeEx: Display almCode and subalmcode and faultCode map info.

11> OmsShowFaultCode: Display faultCode and almCode map info.

12> OmsShowAlmCodeName: Display almCode name.

Usage: OmsShowAlmCodeName 0

13> OmsShowFaultCodeName: Display faultCode name.

Usage: OmsShowFaultCodeName 0

14> OmsDumpStateList: Output Board StatusList in State Trace.

Usage: OmsDumpStateList

15> OmsSetAlmStormTick: Set AlmStrom time limit.

Usage: OmsSetAlmStormTick tickvalue

>>>>>>>>>>>>>>>>>>>>>>>>>>>><<<<<<<<<<<<<<<<<<<<<< <<<<<<


By AlmMapDumpAlmInfo command　can　query　to　each　alarm　bit　map　veneer

7. Veneer　exception　reset　query

1) ShowReboot view　the　reset　reasons

Enter ShowReboot telnet CC

CC-> ShowReboot

From Poweron = 6195 s,

[RebootType]: Hard Power Off Reboot [Diff = 652]

Reset　Type:

1,　the　watchdog　reset.

2,　the　software　reset. Divided　into:

1) normal　soft　reset　(reboot　function,　such　as　manual　input, or　high-level　application　software　download　called　reset　function　reset　itself)　2)　abnormal　soft　reset　(such　as　data　resulting　from　cross-border　anomalies,　etc.).

3,　the　hardware　power-down　reset.

4, CPU reset　pin　reset　pulse　signal　received. RST by　veneer　on　the　front　panel reset　button,　this　is　the　case.

　　

2) ShowUserMem order　to　retain　the　memory　view,　unusual　for　reset　record

o Reset　the　record　carrier　is　to　retain　the　information　memory　and　reset　the　log

o Reset　the　log　acquisition　method　re: ftp to　the　main　control　board,　and　from　the / ROOT / log directory　for OssRec.log (the　current　log)　and OssRecBak.log (earlier　log　backup)

Query command to run version 1.8

1) version: Displays　the　current　running　version　of　the　specification　package　creation　date　and　other　information

o Enter　the version telnet CC

CC-> version

VxWorks (for ZTE MPC8360 BOARD) version 5.5.2.

Kernel: WIND version 2.6.

Made on Aug 17 2008, 01:13:02.

Boot line:

qefcc (0,0) host: vxWorks e = 192.252.1.16 h = 192.1.1.1 u = cca pw = cca tn = cca

o Parameter　Description

a. VxWorks version 5.5.2. 　 VxWorks version　of　the Kernel: kernel　version

b. Made on Aug 17 2008, 01:13:02. Specifications　Package　Created

2) ShowBMCVersion: Displays　the　current　operating　specifications　package　version　number　and　store　location　information

　　

o Enter ShowBMCVersion telnet CC

　　　　 CC-> ShowBMCVersion

Run BMC Version ------------- 4.00.020b

Run BMC File Length --------- 3940847

Bak BMC Version ------------- 4.00.021a

Bak BMC File Length --------- 3901559

Running Status -------------- boot normal

Run Package Path ------------ / ROOT/sw2 /

Run Package Version --------- 4.00.020b

Bak Package Path ------------ / ROOT/sw1 /

Bak Package Version --------- 4.00.021b 　


a. Run BMC Version is　running　standard　package　version　number

b. Bak BMC Version backup　specification　package　version　number c. Run Package Path main　storage　path　using　standard　packages d. Bak Package Path alternate　storage　path　specification　package

3) SwShowName: show　the　version　of　the　specification　package　version　number　corresponding　to　the　version　of　the　name

o Enter SwShowName telnet CC

CC-> SwShowName

================================================== ======

D = 00048, H = 0x00030, SW_CSA, CSA veneer　Software

D = 65584, H = 0x10030, SW_CSA_FPGA, CSA veneer FPGA software

D = 00096, H = 0x00060, SW_BPC, BPC veneer　Software

D = 65632, H = 0x10060, SW_BPC_FPGA, BPC veneer FPGA software

D = 524384, H = 0x80060, SW_BPC_DSP, BPC single　board DSP software

D = 262196, H = 0x40034, SW_AMC_MMC, BPC, FSA veneer MMC Software

D = 327732, H = 0x50034, SW_AMC_MMC, BPC, FSA veneer MMCBOOT Software

D = 00052, H = 0x00034, SW_FSA, FSA veneer　Software

D = 65588, H = 0x10034, SW_FSA_FPGA, FSA veneer FPGA software

D = 00069, H = 0x00045, SW_RTR, RTR veneer　Software

D = 65605, H = 0x10045, SW_RTR_FPGA, RTR veneer FPGA software

D = 524357, H = 0x80045, SW_RTR_DSP, RTR single　board DSP software

D = 393285, H = 0x60045, SW_RTR_EPLD, RTR veneer EPLD Software

D = 00209, H = 0x000d1, SW_TTR, TTR veneer　Software

D = 65745, H = 0x100d1, SW_TTR_FPGA, TTR veneer FPGA software

D = 524497, H = 0x800d1, SW_TTR_DSP, TTR single　board DSP software

D = 00208, H = 0x000d0, SW_DTR, DTR Single　Board　Software

D = 65744, H = 0x100d0, SW_DTR_FPGA, DTR veneer FPGA software

D = 524496, H = 0x800d0, SW_DTR_DSP, DTR single　board DSP software

D = 00097, H = 0x00061, SW_UBPG, UBPG veneer　Software

D = 65633, H = 0x10061, SW_UBPG_FPGA, UBPG veneer FPGA software

D = 524385, H = 0x80061, SW_UBPG_DSP, UBPG single　board DSP software

D = 00197, H = 0x000c5, SW_PRTR, PRTR veneer　Software

D = 65733, H = 0x100c5, SW_PRTR_FPGA, PRTR FPGA software　veneer

D = 393219, H = 0x60003, SW_PRTR_EPLD, PRTR veneer EPLD Software

D = 00133, H = 0x00085, SW_MRTR, MRTR veneer　Software

D = 65669, H = 0x10085, SW_MRTR_FPGA, MRTR veneer FPGA software

D = 393218, H = 0x60002, SW_MRTR_EPLD, MRTR veneer EPLD Software

D = 131073, H = 0x20001, SW_BOOT_82XX, 82XX BOOT software

D = 131074, H = 0x20002, SW_BOOT_852, 852 BOOT software

D = 131076, H = 0x20004, SW_BOOT_RTR, RTR BOOT software

D = 131078, H = 0x20006, SW_BOOT_PRTR, PRTR BOOT software

D = 131077, H = 0x20005, SW_BOOT_MRTR, MRTR BOOT software

D = 262197, H = 0x40035, SW_SAA_MMC, SA veneer MMC Software

D = 327733, H = 0x50035, SW_SAA_MMCBOOT, SA veneer MMCBOOT Software

D = 262199, H = 0x40037, SW_PM_MMC, PM veneer MMC Software

D = 327735, H = 0x50037, SW_PM_MMCBOOT, PM veneer MMCBOOT Software

D = 262242, H = 0x40062, SW_FCE_MMC, FCE veneer MMC Software

D = 327778, H = 0x50062, SW_FCE_MMCBOOT, FCE veneer MMCBOOT Software

============== SwShowName "pattern "====================

1.9 packet capture tool for use

1) telnet CC type　M88E61XXSetMonitor　0,8,1

Role:　To　establish　a　CC　port　to　the　debug　port　on　the　abis　image

Note:　Use　the　packet　capture　tool,　need　to　debug　port　cable　to　connect　directly　to　PC,　can　not　connect　through　the D-LINK card.

2)　packet　capture　tool　for　use:

a)　Open　the　packet　capture　tool　Ethereal,　capture　used　in　small　networks　where　the　network　card,　click　the　start　be.

b)　filter　on　the　knock　ip.addr　==　118.18.1.3　(ibsc　access　ip　address,　this　can　be　in　the　background　ibsc　IP　information　in　global　variables　found.　different　circumstances　will　be　different)

3) telnet CC type　M88E61XXDelMonitor　0,8

Role:　Use　complete　packet　capture　tool,　to　cancel　the　CC　abis　port　to　the　debug　port　on　the　image,　or　can　not　connect　to　the CC on LMT

2. UBPG command

2.1 BUC command (refer to code BucInfo.c)

1) BucShowPhyAndLogInfo: Display　physical　logic,　that　logic TRX binding　of BP-board DSP channel　(0　-　11).

o telnet BP board　input BucShowPhyAndLogInfo

BUC Physical and Logic relations:

TruNo BtsNo TrxNo

------------------

0 1 2

113

214

315

416

511

621

722

823

924

1025

1126


a. TruNo: DSP DSP channel　number　that　corresponds　to　the　12-channel　carrier

b. BtsNo (Cell　No.) And TrxNo (transceiver　No.):　The　logical DSP channel　bonding　and　the　transceiver　cell

　　　 2) BucShowBTSAttrs (BYTE byTruNo): View　the　carrier's　wireless　cell　configuration　parameters, byTruNo can BucShowPhyAndLogInfo command　query　to　the

　　　　　

o telnet BP board　input BucShowBTSAttrs 0 view　the carrier's　wireless　cell　configuration 0

　　　　　 <BTS Attribute>

ItfLvBnd: 0,10,15,20,25,63

ItvPrd: 31

Connetion fail Criterion: 1, value: 64,0,0

RACHLdIndPrd: 2, RACHLdThd: 80, RACHBusyThd: 47

PCHLdIndPrd: 2, PCHLdThd: 80

T3105_SDCCH: 28, T3105_TCH: 10, Ny1: 8

BCCH ARFCN: 51

bIsSateAbis: 1

BSIC: 53

bPageExtActived: 0

bExIndication: 0

byFHMode: 1

PCTestPeriod: 240

bGprsSupported: 0

bEgprsSupport: 0, bEgprsPacketChReqSupport: 0, bDTMSupport: 0

bPageCoordinationSupport: 0, bIRSupportUp: 0, byPCUFrameType: 0

byPpchOvldIndPrd: 0

byRachAccessMin: 0, by8PSKLowerLevel: 0, byTaMin: 0, byTaMax: 0

wTrxFuncMode: 0, bySiteType: 18

o Parameters:

See　the　following　structure BTS property　description

typedef struct

(

BYTE abyItfLvlBnd [6]; / * Interference　with　the　level　threshold * /

BYTE byItvPrm; / * interference　with　reporting　cycle * /

TConFailCrtAttr tConFailCrtAttr; / * Connection　failed　attribute * /

BYTE byRachLdIndPrd; / * RACH overload　instruction　cycle * /

BYTE abyCcchLdThd [2]; / * BYTE [0]: PCH overload threshold; BYTE [1]: RACH overload　threshold * /

BYTE byCcchLdIndPrd; / * PCH overload　instruction　cycle * /

BYTE byRachBusyThd; / * BYTE [0]:: T3105_SDCCH BYTE [1]: T3105_TCH * /

BYTE abyBtsAirTm [2]; / * BYTE [0]:: T3105_SDCCH BYTE [1]: T3105_TCH * /

BYTE byNy1; / * Ny1 value * /

TBcchArfcnAttr tBcchArfcnAttr; / * BCCH absolute　frequency * /

BOOLEAN bIsSateAbis; / * whether　the　satellite Abis * /

BYTE byBsic; / * BSIC value * /

BOOLEAN bPageExtActived; / * whether　to　support　the　expansion　of　paging * /

BOOLEAN bExIndication; / * whether　to　expand　the　carrier　frequency * /

BYTE byFHMode; / * 0 indicated　no　frequency　hopping;　1,　said　base-band　frequency　hopping;　2,　said RF frequency　hopping * /

TPreMsrPrmAttr tPreMsrPrmAttr; / * report　pretreatment　measurement　parameters * /

TPCPrmAttr tPCPrmAttr; / * Power　Control　parameters * /

BYTE byPCTestPeriod; / * whether　to　do　performance　measurement, 0: do　not　do a: to　do　* /

TGPRSAttrs tGprsAttrs; / * GPRS parameters * /

TEgprsSupportAbility tEgprsSupportAbility; / * EGPRS parameters * /

BYTE byPpchOvldIndPerd; / * PPCH overload　cycle * /

TSetCellCfgInfoExt tSetCellCfgInfoExt; / * extension　field　of　residential　properties * /

WORD16 wTrxFuncMode; / * bit　by bit from　low　to high: 0 ~ 3: delay count; 4: IRC; 5 ~ 7: Single / double　density (expansion); 8 ~ 15: reserved * /

BYTE bySiteType; / * site　type　description * /

) TBTS_ATTR;

3) BucShowPwrCtrlPrm (BYTE byTruNo): View byTruNo background　configuration　of　the　power　control　parameters

　　

o telnet BP board　input BucShowPwrCtrlPrm 0 view 0 carrier power　control　parameters

BucShowPwrCtrlPrm 0

bPwrCtrlUp: 1

bPwrCtrlDw: 0

byUlevHqave: 6

byDlevHqave: 6

byUqualHqave: 6

byDqualHqave: 6

byPCDLevWeight: 2

byPCDQualWeight: 2

byPCULevWeight: 2

byPCUQualWeight: 2

byLRxLevUL: 22

byURxLevUL: 30

byLRxQualUL: 2

byURxQualUL: 0

byLRxLevDL: 26

byURxLevDL: 34

byLRxQualDL: 2

byURxQualDL: 0

byPCULIncrLevN: 4

byPCULDecrLevN: 4

byPCULIncrQualN: 4

byPCULDecrQualN: 4

byPCDLIncrLevN: 4

byPCDLDecrLevN: 4

byPCDLIncrQualN: 4

byPCDLDecrQualN: 4

byPCULIncrLevP: 3

byPCULDecrLevP: 3

byPCULIncrQualP: 3

byPCULDecrQualP: 3

byPCDLIncrLevP: 3

byPCDLDecrLevP: 3

byPCDLIncrQualP: 3

byPCDLDecrQualP: 3

byMsTxPwrMax: 39

byMsTxPwrMin: 39

byBsTxPwrMin: 10

bRapidUpPCInd: 1

bRapidDownPCInd: 0

bFastAverageInd: 2

byPCMinInterval: 0

byFreqBand: 24

abyPwrDecrLimit: 22,20,18,16,14,12,10,2

byIncreaseStep: 2

byDecreaseStep: 99


　　　　 Specific　parameter　description,　see　the　following power control:

typedef struct TagTPCPrmAttr

(

BOOLEAN bPwrCtrlUp; / * whether　to　conduct　uplink　power　control: 1 - To　control; 0 - do　not　control * /

BOOLEAN bPwrCtrlDw; / * if　you　want　to　power　down　control: 1 - To　control; 0 - do　not　control * /

BYTE byUlevHqave; / * upstream　level　measurement　data　the　average　cycle * /

BYTE byDlevHqave; / * down-level　survey　data　the　average　cycle * /

BYTE byUqualHqave; / * average　uplink　bit　error　rate　measurement　data　cycles * /

BYTE byDqualHqave; / * measurement　data　downlink　bit　error　rate　of　cycle * /

BYTE byPCDLevWeight; / * for　the　power　control　downlink RXLEV weighted　coefficient * /

BYTE byPCDQualWeight; / * for　the　power　control　downlink RXQUAL weighted　coefficient * /

BYTE byPCULevWeight; / * for　uplink　power　control　weighting　coefficient RXLEV * /

BYTE byPCUQualWeight; / * for　uplink　power　control　weighting　coefficient RXQUAL * /

BYTE byLRxLevUL; / * up　power　caused　by　the　increase　in RXLEV low　threshold * /

BYTE byURxLevUL; / * lead　to　lower RXLEV high　uplink　power　threshold * /

BYTE byLRxQualUL; / * up　power　caused　by　the　increase　in RXQUAL low　threshold　(value　tends　to　7)　* /

BYTE byURxQualUL; / * up　power　caused　by　reduced RXQUAL high　threshold　(value　tended　to　0)　* /

BYTE byLRxLevDL; / * caused　by　the　increased　downlink　power RXLEV low　threshold * /

BYTE byURxLevDL; / * lead　to　lower RXLEV high　downlink　power　threshold * /

BYTE byLRxQualDL; / * caused　by　the　increased　downlink　power RXQUAL low　threshold * /

BYTE byURxQualDL; / * lead　to　lower RXQUAL high　downlink　power　threshold * /

BYTE byPCULIncrLevN; / * uplink L_RXLEV_UL threshold　compared　with　the　use　of　treatment　as　the　samples * /

BYTE byPCULDecrLevN; / * uplink U_RXLEV_UL threshold　compared　with　the　use　of　treatment　as　the　samples * /

BYTE byPCULIncrQualN; / * uplink L_RXQUAL_UL threshold　compared　with　the　use　of　treatment　as　the　samples * /

BYTE byPCULDecrQualN; / * uplink U_RXQUAL_UL threshold　compared　with　the　use　of　treatment　as　the　samples * /

BYTE byPCDLIncrLevN; / * L_RXLEV_DL downlink　threshold　compared　with　the　use　of　treatment　as　the　samples * /

BYTE byPCDLDecrLevN; / * U_RXLEV_DL downlink　threshold　compared　with　the　use　of　treatment　as　the　samples * /

BYTE byPCDLIncrQualN; / * L_RXQUAL_DL downlink　threshold　compared　with　the　use　of　treatment　as　the　samples * /

BYTE byPCDLDecrQualN; / * U_RXQUAL_DL downlink　threshold　compared　with　the　use　of　treatment　as　the　samples * /

BYTE byPCULIncrLevP; / * uplink　threshold　compared　with L_RXLEV_UL handle　the　number　used　in P * /

BYTE byPCULDecrLevP; / * uplink　threshold　compared　with U_RXLEV_UL handle　the　number　used　in P * /

BYTE byPCULIncrQualP; / * uplink　threshold　compared　with L_RXQUAL_UL handle　the　number　used　in P * /

BYTE byPCULDecrQualP; / * uplink　threshold　compared　with U_RXQUAL_UL handle　the　number　used　in P * /

BYTE byPCDLIncrLevP; / * the　downlink　compared　with L_RXLEV_DL treatment　threshold　used　in　the P number * /

BYTE byPCDLDecrLevP; / * the　downlink　compared　with U_RXLEV_DL treatment　threshold　used　in　the P number * /

BYTE byPCDLIncrQualP; / * the　downlink　compared　with L_RXQUAL_DL treatment　threshold　used　in　the P number * /

BYTE byPCDLDecrQualP; / * the　downlink　compared　with U_RXQUAL_DL treatment　threshold　used　in　the P number * /

BYTE byMsTxPwrMax; / * MS in　the　serving　cell　in　the　maximum　allowable　transmit　power (dbm) * /

BYTE byMsTxPwrMin; / * MS in　the　serving　cell　in　the　minimum　allowable　transmission　power (dbm) * /

BYTE byBsTxPwrMin; / * BTS in　the　service　district　in　the　minimum　allowable　transmission　power (level) * /

BOOLEAN bRapidUpPCInd; / * whether　uplink　fast　power　control * /

BOOLEAN bRapidDownPCInd; / * whether　downlink　fast　power　control * /

BOOLEAN bFastAverageInd; / * whether　the　fast　average * /

BYTE byPCMinInterval; / * power　control　the　minimum　time　interval * /

BYTE byFreqBand; / * TRX-band, GSM and DCS in　the　same　power　level　corresponds　to　a　different　power　dbm. * /

BYTE abyPwrDecrLimit [8]; / * decrease　the　maximum　power,　8　corresponding　to　different　signal　quality　grade　8　different　values. * /

BYTE byIncreaseStep; / * Step　up * /

BYTE byDecreaseStep; / * steps　down * /

) TPCPrmAttr;

　　　 4) BucShowChnAttrs (BYTE byTruNo): View byTruNo 8 channel　specific　configuration

o telnet BP board　input BucShowPwrCtrlPrm 0 0 8 See　carrier specific　configuration　channel

BucShowChnAttrs 0

TN0 byChComb: 4, byTSC: 5, byHSN: 0, byMAIO: 0

ARFCN: 51,


ARFCN: 51,


ARFCN: 51,


ARFCN: 51,


ARFCN: 51,


ARFCN: 51,


ARFCN: 51,


ARFCN: 51,

　　


a) byChComb channel combinations, the specific　definition:

# Define TCHFULL (BYTE) 0x00

/ * TCH / F + FACCH / F + SACCH / TF * /

# Define 　 TCHHALF 　 (BYTE) 0x01

/ * TCH / H (0,1) + FACCH / H (0,1) + SACCH / TH (0,1) * /

# Define 　 TCHHALF2 　 (BYTE) 0x02

/ * TCH / H (0) + FACCH / H (0) + SACCH / TH (0) + TCH / H (1) * /

# Define SDCCH (BYTE) 0x03

/ * SDCCH / 8 + SACCH/C8 * /

# Define MAINBCCH (BYTE) 0x04

/ * FCCH + SCH + BCCH + CCCH * /

# Define BCCHCOMB (BYTE) 0x05

/ * FCCH + SCH + BCCH + CCCH + SDCCH / 4 + SACCH/C4 * /

# Define BCH (BYTE) 0x06

/ * BCCH + CCCH * /

# Define BCCHWITHCBCH (BYTE) 0x07

/ * Combination of 05 with CBCH * /

# Define SDCCHWITHCBCH (BYTE) 0x08

/ * Combination of 03 with CBCH * /

# DefinePBCCHCOMB (BYTE) 0x0c / * PBCCH + PCCCH + PDTCH + PACCH + PTCCH * /

# Define PDTCHwithPCCCH (BYTE) 0x0d

/ * PCCCH + PDTCH + PACCH + PTCCH * /

# Define PDTCH (BYTE) 0x0e

/ * PDTCH + PACCH + PTCCH * /

# Define TCHHCOMB (BYTE) 0x0f

/ * TCH / H + FACCH / H + SACCH / TH + PDTCH / H + PACCH / H * /

# Define COMBNULL (BYTE) 0xFF

/ * Dynamic　channel * /

5) void BucShowRTPLinkID (BYTE byTruNo): View byTruNo bearing　port　number

　　

o telnet BP board　input BucShowRTPLinkID 0 view　the carrier's　port　number 0

UBPG-> BucShowRTPLinkID 0

CS RTP LinkID: 21384

CS RTCP LinkID: 21385

PS RTP LinkID: 21386

PS RTCP LinkID: 21387


a. CS RTP LinkID: CS service　port　number,　investigation　and　need　to　use　the　port　number　silent

b. PS RTP LinkID: PS service　port　number

　　　　　　　 c) CS RTCP LinkID and PS RTCP LinkID: With　road　traffic　channel,　the　current　system　has　not　been　achieved

　　　 6) void BucShowAIFCfg (BYTE byTruNo): View AIF channel　configuration

o telnet BP board　input BucShowAIFCfg 0 view 0 AIF carrier channel　configuration

　　 BucShowAIFCfg 0

There is 5 AIF Channel.

0. WARFCN: 33, wChannelBit: 0x1





o Parameters:

a. AIF Channel. Configurable　number　of　channels,　the　baseband　frequency　hopping　carrier　configuration　corresponds　to 5　channels

b. wARFCN and wChannelBit: Display　frequency　corresponding　to　channel　bit　map,　the　specific　data　structure　below:

　 typedef struct

(

WORD16 wARFCN; / * frequency,　if　the　frequency　meaningless,　compared　to 0xFFFF * /

WORD16 wChannelBit; / * channel　bitmap　with 16 bits　to　describe　the　carrier / frequency　channel　occupied　by　the　situation. Bit 0 corresponds　to　channel　0,　bit 1 corresponds　to　channel　1,　and　so　on. Corresponding　bit　is　1,　that　occupy　this　channel * /

) TAifConfig

　　　 7) void BucShowTruState (BYTE byTruNo): View byTruNo of　FU,　and　various　state TS

o telnet BP board　input BucShowTruState 0 view 0 carrier status

　　 BucShowTruState 0

BUC AD state: 2

TN0 AD state: 2

TN1 AD state: 2

TN2 AD state: 2

TN3 AD state: 2

TN4 AD state: 2

TN5 AD state: 2

TN6 AD state: 2

TN7 AD state: 2

　　　　　

o Parameters:

a. BUC AD state: Fu State, 1 block, 2 solutions　of　closed

b. TN AD state: the　state　of　each　channel, 1 block, 2 solutions　of　closed

　　　

8) void BucShowCCAddr (): see BUC access　to　the IP and MAC address　CC,

o telnet BP board　input BucShowCCAddr

　　 BucShowCCAddr

CC IP Addr: 193.252.1.16

CC MAC Addr: 40:0: c1: fc: 1:10

　 9) void BucShowDspAddr (): View DSP3 a　core　of　user　plane　and　control　plane　of IP and MAC address

o telnet BP board　input BucShowDspAddr ()

　　 UBPG-> BucShowDspAddr

DSP [0] Core [0]:

DSP control IP Addr: 192.252.4.32

DSP control MAC Addr: 40:0: c0: fc: 4:20

DSP user IP Addr: 193.252.4.32


DSP [0] Core [1]:





DSP [0] Core [2]:





o Parameters:

a. IP address　allocation:

BBU all IP and MAC address　of　veneer　are　calculated　by　the　CC. For UBPG single IP and MAC address　of　the　board, CC calculated　after　configuration　to　the BP CPU, then CPU write I2C years. BP DSP loaded　after　reboot I2C access　to　the CC from　the　user　plane IP and MAC address, BP CPU and　its　own IP and MAC address.

b. 192 for　the　control　surfaces　that　address, 193 address　that　the　user　plane

　　　 10) BucShowDspCfgSynState (BYTE byTruNo): see BUC status　of　synchronization　parameters　to　the DSP can

Location BUC is　synchronized　to　the DBB has　the　correct　parameters　in

o telnet BP board　input BucShowDspCfgSynState 0

　　 BucShowDspCfgSynState 0

DSP state: 2 (0: INI, 1: DOWNLOAD, 2: RUNNING)

DSP cfg syn point: 3 (0: TrxAttr, 1: FHSAttr, 2: CommLink, 3: TrxChnState)

DSP cfg syn table: 1,1,1,1

o Parameters: a. DSP cfg syn point: The　last　time BUC to DBB synchronization point; BUC

will　detect　if　there　are　parameters　to　change,　will　be issued to　the DBB parameters.

b) DSP cfg syn table: 1　(TrxAttr),　1　(FHSAttr),　1　(CommLink),

1 (TrxChnState), both　as a representative　of　four　parameters　are　synchronized　to　the　DBB,　to 0 for parameter　is　not　synchronized

c) OAMM synchronization DBB parameters:

i) TRX attributes:

1) the　definition　of　residential　property,　including　the BSIC, whether　satellite　ABIS,　whether　the　expansion　of　residential,　etc.

2) Set　the GPRS business-related　property. * /

3) EDGE service　support　capacity-related　attributes　defined

4) eight time　slots　of　channel　type　and　configuration,　and　channel　state TSC

5) load　configuration　port

ii) FHSAttr:

1) The carrier　frequency　where　the　cell's BCCH frequency

2) frequency-hopping　pattern　and　frequency　list

　　 3) AIF-channel configuration

iii) COMMLINK:

Effective TRU bitmap,　which　carrier　at　work, bit0 ~ bit11 respectively TRU0 ~ TRU11

iiii) TrxChnState:

Synchronized to the　channel　state　property DBB

11) void BucShowInfoHelp (): BUC command　help　function,　by　the　command　to　view　all　the　orders BUC

o telnet BP board　input BucShowInfoHelp

BucShowInfoHelp

1.BucShowPhyAndLogInfo

2.BucShowBTSAttrs (BYTE byTruNo)

3.BucShowPwrCtrlPrm (BYTE byTruNo)

4.BucShowChnAttrs (BYTE byTruNo)

5.BucShowRTPLinkID (BYTE byTruNo)

6.BucShowAIFCfg (BYTE byTruNo)

7.BucShowTruState (BYTE byTruNo)

8.BucShowCCAddr

9.BucShowDspAddr

10.BucShowDspCfgSynState (BYTE byTruNo)


Simple　way　to　enter　the　command:　for　example,　view　the　physical　logic　command BucShowPhyAndLogInfo,　can　also　be　used BucShowInfo 1;

View　the　carrier　state BucShowTruState 0 0 can　also　be　used BucShowInfo 6, 0 alternative.

2.2 BP board FPGA register command

Write　command:　BspSetFPGAReg 0x address, 0x value

Read　command:　BspGetFPGAReg 0x address

Specific　Parameters:

2.3 UB pool query command

1) ShowUB: see　if　there　is　one　or　more　of　the UB pool　exhausted:

o telnet BP board　input ShowUB

UB info for Sys Ub Pool!

#######################

-UBSize-TotalNum UsedNum-MaxUsed-Lack

6420000960

12810000100048

2561000030

320,500,010

384,120,010

448,120,010

5121100010

576,100,000

640,100,000

704,100,000

768,100,000

832,100,010

16384200120

UB info for User Ub Pool!

#######################

-UBSize-TotalNum UsedNum-MaxUsed-Lack

64,100,000

128,100,000

256,100,000

512,400,000

960,500,000

39,681,000

o Parameters:

a) Sys Ub Pool System　Pool　Group:　General　for　the　message　when　the　application　memory,　or　internal　use　of　OSS.

b) User Ub Pool User　Pool　Group:　General　users OSS_GetUB application　from　the　pool.

c) UB pool　run　out　of　ways　to　judge:　When TotalNum (the　number　of　all　UB)　field　value == UsedNum (the　number　of　used　UB)　field　value,　it　means　you　run　out　of　a　pool　of　UB.

3. FS command

3.1 FS board commonly used commands

1) DumpFsIQCfgPara: Display FS IQ configuration　parameters　panel

o telnet FS board　input DumpFsIQCfgPara

FS-> DumpFsIQCfgPara

************************************************** ******************

Total Number: 12

byServType byBspCHIQID byDirection byFsPortID byFsIQID byOpType

1540200

1541200

1560210

1561210

1570220

1571220

1580230

1581230

1590240

1,591,240

1550250

1551250

************************************************** ******************

o Parameters:

a) byServType:　0: WCDMA 1: GSM

b) byBspCHIQID: And　the BP board　corresponding　CHIQID,　the　corresponding　order:　slot 8 (0 -　11),　slot 7 (12 -　23),　slot 6 (24 -　35),　slot 5 (36 -　47),　trough　Bit 3 (48 -　59)

c) byDirection:　0: Downlink　1:　Uplink

d) byFsPortID: FS board　optical　port ID

e) byFsIQID: FS board IQID

f) byOpType: Operation　Type: 0:　A,　1:　Remove

2) DumpFsRruAddrCfgPara: Display FS board RRU MAC \ IP and　optical　port IP configuration　parameters

o telnet FS board　input DumpFsRruAddrCfgPara

FS-> DumpFsRruAddrCfgPara

-------------------------------------------------- --------------

byFibPortId = 0

byRruNum = 1

byRackNo = 3

byShelfNo = 1

bySlotNo = 1

byRruId = 3

abyRruFiberMacAddr = 64.0.200.252.0.3

abyRruFiberIpAddr = 200.252.0.3

abyRruFiberIpMask = 255.0.0.0

abyLeftMchIpAddr = 192.252.1.16

abyRightMchIpAddr = 192.252.2.16

abyFsFiberIpAddr = 200.252.3.254

o Parameters:

byFibPortId: light　slogan

byRackNo: RRU Rack　No.

byShelfNo: RRU machine　frame　number

bySlotNo: RRU slot　No.

ucRruId: RRU ID

abyRruFiberMacAddr: RRU optical　port MAC address

abyRruFiberIpAddr: RRU optical　port IP address

abyRruFiberIpMask: RRU optical　port IP mask

abyLeftMchIpAddr: CSA 1 slot IP address

abyRightMchIpAddr: CSA 2 slot IP address

abyFsFiberIpAddr: Fs optical　port IP address

3.2 FS register address query command:

1)　Check　the　channel　configuration　register　in　the　uplink IQ, different　slots　in　the BP board　register　corresponds　to　a　different　address

o telnet FS board　input d 0x610020c0, see 4 slots BP board　line IQ channel　configuration

FS-> d 0x610020c0

610020c0: 0001 0000 0002 0000 0003 0000 0005 0000 *................*

610020d0: 0004 0000 0000 0000 0030 0000 0035 0000 *......... 0 ... 5 ..*

610020e0: 0031 0000 0032 0000 0033 0000 0034 0000 *. 1 ... 2 ... 3 ... 4 ..*

610020f0: 0000 0000 0000 0000 0000 0000 0000 0000 *................*

61002100: 0,000,000,000,000,000 0,000,000,000,000,000 *................*

61002110: 0,000,000,000,000,000 0,000,000,000,000,000 *................*

61002120: 0,000,000,000,000,000 0,000,000,000,000,000 *................*

61002130: 0,000,000,000,000,000 0,000,000,000,000,000 *................*

61002140: 0,000,000,000,000,000 0,000,000,000,000,000 *................*

61002150: 0,000,000,000,000,000 0,000,000,000,000,000 *................*

61002160: 0,000,000,000,000,000 0,000,000,000,000,000 *................*

61002170: 0,000,000,000,000,000 0,000,000,000,000,000 *................*

61002180: 0,000,000,000,000,000 0,000,000,000,000,000 *................*

61002190: 0,000,000,000,000,000 0,000,000,000,000,000 *................*

610021a0: 0000 0000 0000 0000 0000 0000 0000 0000 *................*

610021b0: 0000 0000 0000 0000 0000 0000 0000 0000 *................*

o Parameters:

a) Each FS optical　port　24　ports

1,　the　corresponding　optical　port　port　number 0-23

2　optical　port　corresponding　to　port　number 24-47

3　Light　exit　port　number　corresponding　to 48-51

4　optical　port　port　number　corresponding　to 52-75

5,　optical　port　corresponding　to　port　number 76-89

Corresponding　optical　port on the 6th port　number 90-113

b) a　representative　of　an IQ channel WORD32 are:

000100001 1 Luminous　exit　port

000,200,001 Luminous　exit　port 2





0030000048 that　corresponds　to the 3rd light　exit　port 0

0035000053 light　that　corresponds　to the 3rd exit　port 5

0031000049 light that　corresponds　to the 3rd exit　port 1



0034000052 0034000052 light　that　corresponds　to the 3rd exit　port 4

c) address　of　the　other　slots BP board　inquiry

Slots　8BP:　0x61002000

Slots　7BP:　0x61002030

Slots　6BP:　0x61002060

Slots　5BP:　0x61002090

d) downstream IQ channel　configuration　address　offset　only　in　the　uplink　address 0X800,　which　slots 8BP downstream RQ configuration　check　address　0x61002800,　and　the　downlink　and　uplink　channel　configuration　line.

3)　Other FS register　address:

4. RRU command

4.1 RRU common command set

1) man: See　all RRU help　command

o telnet RRU enter　the man, show　the　following:

DTR-> man

Command Parameter Help Info.

man - Prints this help list.

init9516 - Initializes Ad9516.



drst - Displays information about the board reset.

hr - Prints the run log.

prntenv - Prints macro names of all events.

rst - Resets RRU.

dcfg - Displays parameters configurations, such as radio mode,

power-lvl, center frequence, Tx / Rx frequece, channel

bandwidth, and so on.

svi - Displays head of ther versions, such as CPU, FPGA, DSP.

dalm - Displays alarms failed to recover till now.

dalmqk - Displays all alarms in queue.

dalmcfg - Displays configurations of temperature limit, dry-node

status.

dpll - Displays status of 10M PLL.

dhi - Displays firmware version NO. of FPGA, DSP.

clk - Prints current date and time.

dcd AlarmCode Prints information of appointed AlarmCode.

value = 67 = 0x43 = 'C'

o Parameter　description:

On　the　left　show　the　Run　command　on　the　right　shows　the　role　of　the　command　description

2)　drst　display　reset　reasons

o telnet RRU enter drst

DTR-> drst

********************* RruReset Info *********************

0 2000 - 1 - 2 0: 2:23 RST_ALL_BOARD MID_CMD 0

1 2000 - 1 - 2 0: 1:32 RST_CPU_HOT MID_BBU 100

2 2000 - 1 - 3 5:44: 2 RST_ALL_BOARD MID_RMCM 3

3 2000 - 1 - 2 2:49:58 RST_CPU_HOT MID_BBU 100


5 2000 - 1 - 2 20: 1: 2 RST_CPU_HOT MID_BBU 100






value = 0 = 0x0

o Reset　reason　description:

3) hr: Show RRU power　running　track,　can　be　judged RRU unusual　in　that

o telnet RRU type: hr display　trajectory

4) dcfg: Display　and　optical　port　carrier　slot　corresponding　relationship

o Enter dcfg telnet RRU

DTR-> dcfg

byRadioMode = 1, byPowerLvl = 0, wCentreFreq = 18050, byOperBand = 3

byNum = 4

byCarrier = 0, byDirection = 0, byFsIQID = 0, byOpType = 0, byServiceType = 1





a) byRadioMode 0 on　behalf　of WCDMA, 1 on　behalf　of GSM, byPowerLvl power　level

wCentreFreq center　frequency,　byOperBand: 3 on　behalf　of 1800M, 8 representatives 900M

b) byCarrier carrier　number,　byDirection: 0 up 1 down, byFsIQID: FS on　IQID,

byOpType: 0 establishment, 1 deleted

4.2 RRU common register

5. Troubleshooting

5.1 Silent investigation methods

1) Check the　silent TRX binding　of BP board:

telnet to　the CC type　the　following　command:

a) ShowPrm: View BP board　configuration

b) ShowTrxInBp 　 byBPIndex view　the　configuration　of　the BP board　binding　of TRX, TRX can　be　found　in　the　silent　which BP bound　to　the　plate,　while　carrying　through bIPTBSetupFlag positioning　silent TRX is　created, a creation, 0 did　not　create,　if　not　to　create　a　certain　quiet,　need　to　find CC's PRM investigation.

2) Check the　port　number　of　the　silent　carrier

telnet to　the　silent TRX binding BP board:

a)　BucShowPhyAndLogInfo:　see　silent TRX corresponding　carrier　number

b) BucShowRTPLinkID Carrier　number:　See　the　port　number　corresponding　to　a　silent　carrier (CS RTP)

3) positioning　the　port　number　is　correct

　 Method　1:　View IBSC data　probe R_TRX table PORTNO value　and　2)　query CS 　 RTP values　are　the　same.

Method 2: IBSC issued　by　the OAM message RTP port　configuration　information　can　be　confirmed,　the　specific　message　decode:

RTP port　configuration　information: 10 80 00 0B 03 5A 54 45 7D 00 FF FF FF 7A 01 01 01 40 08

Message　Structure

Property Length Level Meaning PKG_HEAD 4 M

MSG_HEAD 5 M

RtpPort attribute > = 6 O

PKG_HEAD : 10 80 00 03 5A 54 45 0B

MSG_HEAD : 7D 00 FF FF FF

RtpPort attribute : 7A 01 01 01 40 08

Field Length

Meaning

Attribute Id

1 0x7a

TrxNum 1 Configure　the　number　of　carrier　frequency TrxPort 1

4 Carrier　frequency　of a port　resources　(the　carrier　frequency　is　allocated　for　each　of　four　consecutive　ports,　one　for CS operations RTP / RTCP, PS business, RTP / RTCP. The　port　resources　for　the　four　consecutive　ports　of　the　first　port　number.)

TrxPort 2

4 Port　resources, carrier　frequency 2

... ....

TrxPort N

4 Carrier　frequency　of n-port　resources

4)　Position　the　up　and　down　the　silent

　　　 telnet to　the CC type　the　following　command:

　　　　 BspShowUdpCount 　 port (port　number):　see　corresponding　data　load　of　the　upper　and　lower　rows　show　the　results

　　　　 Rnc to Bpc ETH CDESCs Statistics: iBSC to　the BTS downlink　data　reception

Bpc to Rnc ETH CDESCs Statistics: BTS uplink　data　reception　to iBSC

2 times　as　long　as　the　continuous　input　of　the　command,　whether　the　changes　observed　packets　can　locate　the　specific　problem　is　upstream　or　downstream　silent.

5.2 Mobile network troubleshooting methods can not

　 1) for inquiries BCCH carrier　status

　　　 a) Background　check:

In ibsc dynamic　data　management,　see BCCH state,　if　the　state　of　occlusion　for　the　management　of　direct　solution　in　the　background　manually　closed;　if　the　operation　state　of　occlusion,　observed LMT / OMCB whether　the　alarm　in　the　veneer.

　　 b) CC Query: telnet CC type

o ShowStateInfo 1, Cell, Trx query GSPS records FU and　the　logic　state　of　each　TS; o DbsShowTableRecord 　 5 (table number), 0 (bIsDbEx) View　platform　database

BP veneer　state,　the　specific　parameter　description,　see CC command　query.

c) BP check: telnet BP type

　　　　　 BucShowTruState 　 byTruNo (BCCH carrier)　board　recording BP query　the　status　of FU and TS

　

2) investigation RRU

o View RRU correctly　obtain　frequency　allocation,　allocation　of　frequencies　to　meet　the　requirements　whether　the　frequency　offset　from　positive　and　negative 10M

Telent RRU type: d 0x0d001600 view　the　frequency　allocation

d 0x0d0006ec view　the　center　frequency

o Test whether　the　function　of　the　output　downstream RRU

1) Telent RRU, type:　input d 0x0f00010c View　register　values,　normal　to　1,　if　the　first　manual　for　the 0 to 1 (such　a　problem　requires bsp staff　look　into　the　problem).

2)　register 0x0d000a02 revised　0xc111,　if　output　is　issued dsp power　switch　is　off.　

o RRU downlink　communication　is　normal　investigation

1) checkblock alarm　registers　check: Telent RRU type d 0x0d000400

UPBG to RRU downlink　communications 0x0d000400 normal　conditions　the　low　6 (bit0-bit5　order　on　behalf　of　six　carriers)　read　as 0, if　there　is an alarm;

　　　　　　　　 2) 60ms clock　alarm　register　check: Telent RRU type d 0x0d000402

0x0d000402 the bit0 read　as 0 (just on　electricity,　need　to　read　twice　to　the　second　date),

bit0 behalf　of 60ms loss　alarm　bit, bit1-bit6 order　on　behalf　of　six　carriers 60ms loss　alarm　bit, 0 no　alarm, 1 with　alarm

　　　　　　　　 3) If　the　above　warning,　need　to　detect　what UBPG and FS of 10ms with　no　warning

a) telnet BP board:　input BspGetFPGAReg 0x18 read　register　value,　if　it　is one that　is 10 ms　clock　error,　1　normal.

　　　　　 b) telnet FS board:　input d 0x6100021c see　if　there FS 10ms error　(need　more　knock　several　times),　as　shown　below.

　　　　　　　　

o RRU uplink　communication　is　normal　investigation

1) UBPG 60ms clock to　check whether　it　is　normal

　 telnet BP board:　input BspGetFPGAReg 0x1b read　register value; Bit11 ~ Bit0: representatives　of　the　various　carrier 60ms up　to　receive　status　indicating　super-frame, one that 60ms loss, 0 for normal.

3) Troubleshooting　system　message:

o Tracking UM I　signaling,　see MS is　received　to　the　system　message o BUC system　message　View　method:

telnet BP board:

　　　　　　 Enter　BucShowSIBitmap　byTruNo　bitmap　display　system　news　situation

Enter　BucShowSI　byTruNo　display　system　information　storage　conditions　BUC

Global　variable　directly:　tSIPerTrxSendToDBB　(SI　issued　to　the DBB cache),　the　global　variables　available　to　address　the　global　variable　address　input d 0x, can　display　the　contents　of　SI,　if　the　content　is　empty　on　behalf　of BUC not　issued　system　messages　to　the　DBB.

o DBB query　system　message:

Monitoring　tool　in　the DBB input　variables　gatSIRecvBitMapSub,　you　can　check　whether　the　access　system　messages　DBB.