5. l Hardware data defines physical hardware and closely related functions. It is the basic data
of the UAP8100 MGW. Configuration of hardware data is the basis of configuring other
data of the UAP8100 MGW. Therefore, configuring hardware data is the first procedure
for data configuration.
l This chapter includes the following configuration procedures:
p Configuring MGW frames and cascading.
p Configuring MGW boards and frames cascading.
p Configuring clock.

6. l One shelf can be inserted with 3 frames. The equipment supports 3 shelves and 9 frames
at most.

7. l Frame 1 is the main control frame by default, which can not be added or removed. Frame
1 will be automatically generated.
l The central switching frame must be configured in frame 0.
l The extended control frame must be configured in frame 8, and frame 8 can be only
configured as extended control frame.
l Command：ADD FRM
p [Frame No.] refers to the number of a frame. It is the unique identifier of a frame.
"Frame No." is a uniformly numbered identifier, The parameter is of numeric type.
The value range is [0-8].
p [Frame type] refers to the type of a frame. It can be SERVICE (Service Frame),
SWITCH (Central Switching Frame), CONTROL (Control Frame).
p [Cabinet No.] refers to the number of a shelf. It is the unique identifier of a cabinet.
Cabinets are uniformly numbered.
p [Location in Cabinet] defines the location of a frame in a cabinet. It can be
UNDERSIDE (Underside), MIDDLE (Middle), TOP (Top).
l Sample: Add a service frame named "Service Frame A" and numbered 2 at the underside
of the cabinet 1, with Board NO. being 0, and description being "One service frame"
l ADD FRM: FN = 2, FT = SERVICE, SHF=1, LOC=UNDERSIDE, FNM = "Service Frame A", FD =
"One service frame".

9. l To add a board, the designated frame must exist.
l The following parameters must be specified: frame No, slot No., board position, board
type, hardware type and backup type. Different backup types have different sub-parameters.
If 1+1 backup is selected, the sub-parameter is board No.
l Some boards must be inserted in the front of backplane, and some must be inserted at the
back.
l Some boards must be configured to the designated position .
l Command：ADD BRD
p [Slot No.] refers to the number of the slot where a board is located. The value
range is [0-15].
p [Board position]: It can be FRONT (Front), BACK (Back).
p [Board type] refers to the type of a board.
p [Hardware type] refers to the hardware type of a board.
p [Backup type] : It can be LOADSHARE (Not Backup), ONEBACKUP(1+1Backup).
p [Board No.] : It refers to the No. of a board. The boards of the same type are
numbered in sequence. The active and standby boards in 1+1 backup mode use
the same No.

10. l (continued)
l Sample: Add an FTNU board in back slot 6 of frame 1, and backup type is 1+1 and the
board No. is 0:
l ADD BRD: FN=1, SN=6, BP=BACK, BT=TNU, HBT=FTNU, BS=ONEBACKUP, BN=0;

13. l There are two options for TNU cascading configuration:
p TNU directly connecting TCLU and cascading TCLU via BLU.
p TCLU optical port is connected via the BLU TDM optical port, BLU cascading is
selected.
l Command：ADD FRMLNK
p [Link type] means cascading is performed via TNU or via BLU.
p [Peer TCLU No.] refers to the number of the cascaded TCLU.
l Sample: Add frame link: BLU cascading, the No. of the cascaded TCLU is 1.
l ADD FRMLNK: TP=BLU, BN=0, LKBN=1;

15. l Command：MOD CLKSRC
l Sample: Configure priority of GPS reference source as 1, priority of line clock 1 as 1,
priority of line clock 2 as 1, priority of external synchronous reference source as 1,the type
of external synchronous reference source as E1,whether external synchronous reference
source is forcing SSM level as FORCE, and SSM type of external synchronous reference
source as PRC.
l MOD CLKSRC GPSPRI=FIRST,LINE1PRI=FIRST,LINE2PRI =FIRST, EXTPRI=FIRST,
SRCTYPE=EXT2MBIT,FSSM=FORCE, EXTSSM=PRC;

16. l Specify the board through which the clock reference source is imported.
l Command：MOD CLK
p [Select Mode of Reference Source]: Indicates whether to select automatically or
specify manually the external clock reference source.
p [Clock Level]: Needs to be configured only when the independent CLK boards are
adopted. It shall be consistent with the actual level of the reference source.
p [Type of clock signal of external synchronous output]: The output clock signals of
UAP8100 MGW include “2.048 Mbit/s” and “2.048 MHz”. Its value depends on
the clock signal type that clock-receiving equipment needs
l Sample: Set "Select mode of reference source" as MANUAL, "Set main reference source"
as EXT, "Clock level" as TWO, and "Type of clock signal of external synchronous output" as
Ext2MHz:
l MOD CLK: MODE=MANUAL, GRADE=TWO, TYPE=EXT2MHZ, SRC=EXT;
l .

17. l The pUAPose of configuring line clock source is to specify from which port and from which
TDM interface board the CLK board extracts line clock source.
l Command：SET LINECLK
p [Line Clock]: Refers to the configured line clock. It can be “LINE1” or “LINE2”.
p [Board Type], [Board No. ]and [Port No.]: Indicate from which port and from which
TDM interface board the CLK board extracts link clock source.
l Sample: Set that the E32 board in board No. 0 and port No. 0 provides line clock to LINE1
of the CLK board:
l SET LINECLK: LINE = LINE 1, BT = E32, BN = 0, PN = 0;

19. l MGW works as the bearer equipment and accomplishes the service proceeding under the
control of MGC.
l MGW first interconnects with MGC to exchange control messages through the H.248 protocol.
Then it interconnects with other equipments.

21. l Gateway Control Interface is HRB interface.
l HRB interface: Refers to the IP interface on the back interface board opposite to an HRU
board.
l Command：ADD IPADDR
l Sample: Add IP address: Board type is OMU, board No. is 0, interface type is ETH, interface
number is 0, interface IP address is 10.10.10.2, interface IP address mask is 255.255.0.0,
and Master or secondary flag is SLAVE.
l ADD IPADDR: BT=OMU, BN=0, IFT=ETH, IFN=0, IPADDR = "10.10.10.2",
MASK="255.255.0.0", FLAG = SLAVE;

22. l [Interface speed]: It refers to the speed mode of an interface.
l When MGW interconnects with MGC, the interface speed often adopts the “M100” type.
l Command：MOD IPIF
p [Duplex mode]: When MGW interconnects with MGC, the interface speed often
adopts the “FULL” type.
p [Interface speed]: M100
l Sample: Configure the speed of Ethernet interface 0 on OMU 0 as 100Mbps and duplex
mode as full.
l MOD IPIF: IFT=ETH, BT=OMU, BN=0, IFN=0, SPEED=M100, DUPLEX=FULL;

23. l VirtualMedia Gateway (VMGW) function divides a physicalMGW into multiple different logical
VMGWs. Each VMGW is identified by VMGW ID and managed by differentMGC. The system can
allocate bearer resources of the MGW equipment to different virtualMGWs in exclusive or resource
sharingmode to improve the flexibility of the equipment.
l VMGW ID: Refers to the uniform logical number of a VMGW. 16 VMGWs at most.
l VMGW MID Type: MGW can adopt IP address, domain name or device name to identify one
VMGW MID type.
p When the VMGW MID adopts the “Domain name” type, it is in the format of “Domain
name: Port No.”, for example, “www.UAP8100 MGW.net: 5555”. The domain name of the
UAP8100MGW and the local port No. used to set up the H.248 link are recommended.
p When the VMGW MID adopts the “IP address” type, it is in the format of “IP address: Port
No.”, for example, “10.110.80.132: 5555. The IP address of the gateway control interface
and the local port No. used to set up the H.248 link are recommended.
p When the VMGW MID adopts the “Device name” type, it is in the text format, for example,
“UAP8100MGW”.
l WhenMGW interconnectswith MGC, the VMGW MID often adopts the “IP address” type.
p No matter which VMGW MID type is adopted, ensure that it is consistent with the
Equipment ID parameter configured through the ADD MGW command at the MGC side.
Otherwise, the gateway can not register normally.
p No matter which VMGW MID Type you select, you need to confirm only one point that
VMGW MID must be consistent with that of MGC side.

24. l (continued)
l Command: SET VMGW
l Sample: Set a virtual media gateway: the virtual media gateway No. is 15, the virtual media
gateway MID is "10.110.80.148:5555", and the ID type is IP:
l SET VMGW: VMGWID=15, MIDTYPE=IP, MID="10.110.80.148:5555", CONFIRM=Y;

25. l For a specified VMGW, you need to configure its home MGC.
l You can configure a VMGW with 3 MGCs at most, one of which must be, and only one is,
the master MGC. At any time, the VMGW can only be under the control of one MGC. The
VMGW will switch to the control of the slave MGC only when the master MGC fails or
communication between VMGW and the master MGC is abnormal.
l VMGW ID: Refers to the uniform logical number of a VMGW and indicates for which
VMGW you will configure the MGC.
l MGC No.: Refers to the uniform logical number of a MGC within the VMGW. You can
configure three MGCs at most for a VMGW.
l MGC MID Type: Can adopt the three types of IP address, domain name and device name
to identify a MGC.
l Command：ADD MGC
l Sample: Add an MGC for VMGW 1: media gateway controller No. is 1, media gateway
controller MID type is IP, media gateway controller MID is 10.110.80.150:6666, and
master/slave flag is SLAVE.
l ADD MGC: VMGWID=1, MGCIDX=1, MIDTYPE=IP, MID="10.110.80.150:6666",
MSS=SLAVE;

26. l To establish a H248 signaling link between a designated VMGW and a designated MGC.
l H248 signaling link No.: All the H.248 signaling links should be uniformly numbered
without repetition.
l VMGW ID and MGC ID: Indicate between which VMGW and MGC the H.248 signaling link
is established..
l Transfer protocol type: Refers to the transport layer protocol type to sustain H.248
signaling link. It can be UDP, TCP, SCTP or IMA. This parameter shall be consistent with
the Transmission Protocol Type parameter of command SET H248PARA. When the
UAP8100 MGW is interconnected with the UAP8100 MGC of Huawei, the UDP is usually
used to sustain H.248 links.
l Peer IP Address, Peer Port No., Local IP Address and Local Port No.: Establishing a
complete link includes configuration of source address + source port No. and destination
address + destination port No. Because the four parameters together identify an H.248
signaling link uniquely, the four parameters of one link cannot be completely the same
with those of another link.
l Command: ADD H248LNK
l Sample: ADD H248LNK: LINKID=43, VMGWID=13, MGCIDX=0, TT=UDP,
LOCALIP="192.168.1.1", LOCALPORT=2945, PEERIP="10.110.214.147", PEERPORT=2945,
LINKNAME="H248LNK_UDP“;

27. l Set H248 protocol related parameters for VMGW, including H248 protocol codec type,
transport protocol, authentication type.
l Codec Type: Refers to the codec type of H.248 protocol. It can be Binary or Text. It is
Binary by default. It shall be consistent with the H.248 protocol codec type of the
interconnectingMGC.
l Transmission Protocol Type: Refers to the protocol type on the transport layer for bearer of
H.248 protocol. It can be UDP, TCP, SCTP or IMA. This parameter shall be consistent with
the H.248 transmission protocol type of the interconnecting MGC. The default value is
UDP, which is also the common protocol to sustain H.248 signaling link between UAP8100
MGW and MGC.
l Authentication Type: Refers to the authentication type of H.248 packet intermediate
authentication header in non-IPSEC mode. It can be No Authentication Header or HMAC.
It is No Authentication Header by default.
l Command: SET H248PARA
l Sample: Set H.248 protocol parameters for the virtual media gateway 15, H.248 protocol
codec type is binary codec, transport protocol type is UDP protocol, authentication type is
HMAC based intermediate authentication header, HMAC type is MD5 abstract algorithm,
authentication key is "123456". Do not set the other H.248 protocol parameters.
l SET H248PARA: VMGWID=15, CT=BINARY, TT=UDP, ST=HMAC, HT=MD5, KEY="123456",
CONFIRM=Y;

28. l This procedure is to activate a VMGW and enable it to send a registration request to the
MGC.
l Command: ACT VMGW

31. l Configure frame format and line code format of all ports of E32 .
l Command: SET E1PORT
p [Frame Structure]: For the port of E32, "DOUBLE_FRAME"
p [line Code Structure]: For the port of E32, "HDB3"
l Sample: Set frame format of port 0 on the E32 board in slot 3 of frame 1 as CRC multi-frame,
Tx and Rx line code format as HDB3:
l SET E1PORT: FN=1, SN=3, SPN=0, FS=CRC_MULTIGRAME, TXCS=HDB3, RXCS=HDB3;

32. l Add timeslots for interface boards. TDM interface board type can be E32 S2L. After this
command is executed, the corresponding relationship between physical timeslot and TID,
VMGW ID, and trunk type should be configured. Only after the configuration, can the
timeslots bear services.
l The information of board type and board No. specified should be recorded in the slot
table.
l An E32 has up to 1024 physical timeslots. So if the board type is set to E32, the end TID
minus start TID should be smaller than 1024.
l There is only one relay type within a relay range, the default value is Extern.
p Inside for the protection channels in a 1:N backup protection group
p Extern in other cases, for example, if the UAP8100 MGW interconnects with the
PSTN switch
l You must configure VMGW at first, and then configure TDM slots.
l Command: ADD TDMIU
l Sample: Add timeslots for an interface board. The board No. is 0, board type is E32, start
TID is 0, end TID is 512, VMGW ID is 0, and relay type is inside:
l Add TDM inside timeslots with TID being from 0 to 512 .
l ADD TDMIU: BN=0, BT=E32, TIDFV=0, TIDLV=512, VMGWID=0, RT=INSIDE;

34. l The following message will be displayed at maintenance output window
l Tid Context MGWID State
l 2304 0 0 Free
l 2305 0 0 Free
l 2306 0 0 Free
l 2307 0 0 Free
l 2308 0 0 Free
l …
l 2331 0 0 Free
l 2332 0 0 Free
l 2333 0 0 Free
l 2334 0 0 Free
l 2335 0 0 Free