NEC America, Inc. reserves t he right to change th e specifications, functions, or
features, at any time, without notice.
NEC America, Inc. has prepared this document for use by its employees and
customers. The information contained herein is the property of NEC America,
Inc. and shall not be reproduced without prior written approval from NEC
America, Inc.
This manual covers the installation of the Fusion system.
2. How to Follow This Manual
This manual consists of the following chapters:
• CHAPTER 1 (INTRODUCTION)
Explains ho w to use this manual.
• CHAPTER 2 (GENERAL)
Outlines the Fusion system configuration and lists available service features.
• CHAPTER 3 (SYSTEM CONFIGURATION)
Explains the hardwa re configurati on of the Fusi on syst em.
• CHAPTER 4 (INSTALLATION)
Consists of the foll owing topics:
•Static Cautions
• Switch Settings (PA-M96, PA-FCHA, PA-24DTR)
• CHAPTER 5 (DATA PROGRAMMING)
Provides basic data assignment procedures using the following examples:
•Installing a new Fusion network
•Upgrading a CCIS network
• CHAPTER 6 (POST INSTALLATION TEST)
Explains how to perform installation tests, focusing on the Fusion link connection test.
• CHAPTER 7 (TROUBLESHOOTING)
Explains Fusion-related system messages and the repair procedures.
NDA-24299CHAPTER 1
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INTRODUCTION
Related Manuals
3. Related Manuals
For install ation of the Fusion syste m , the followin g manuals are required:
•NEAX2400 IPX Circuit Card Manual
•NEAX2400 IPX Installation Manual
•NEAX2400 IPX Office Data Specification
To use this manual, the reader should have sufficient knowledge of the installation of both the CCIS No. 7 and
the ACIS systems. For more information on these systems, refer to the related manuals.
CHAPTER 1NDA-24299
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CHAPTER 2GENERAL
1. What is Fusion and its Advantages
The main advantages of the Fusion network are as follows:
1.1 Improved Inter-Office Service Features
The Fusion system can eli minate th e constr aints no rmally as sociate d with net wor k servic es that are of f ered
using Common Channel Inter-Office Signaling (CCIS).
1.2 Use of Telephone Numbers
A Fusion system allows you to use telephone numbers in addition to the existing station numbers. (In the
remainder of this manual, the existing station numbers are referred to as Physical Station Numbers.) Fusion
service features are activated when a telephone number is dialed. The telephone number, which can be
assigned on a station basis, is a unique number on a Fusion network. If required, numbering plan data,
which is identical to that of an existing station number, can be used to maintain consistency of the
numbering plan. When this plan is adopted, you can use the same numbering plan data after introducing
the Fusion system. Figure 2-1 illustrate s the use of teleph one number s in the Fusion netw ork.
Note:
A maximum of 16 digits can be used as a telephone number.
Telephone Number can be assigned to a station by using the LENs or by the Physical Station Number depending on the program ming
as shown below.
¥ When using LENs
STN: 2000
LENS: 000010
LENS
¥ When using Physical Station Number
STN: 2000
LENS: 000010
Physical Staio n N u m b er
Fusion features are activated when a Telephone Number is dialed.
Telephone Num ber
410001
dialing a Telephone Number.....
LENS: 000010 410000
S TN : 20 00 410 000
Fusion features
are activated.
Fusion Netw ork
Telephone Num ber: 410000
Telephone N um ber: 410000
STN: 2000
LENS: 000010
STN : 2000
LENS: 000010
STN a
STN : 2000
Telephone Num ber: 410000
STN b
STN : Physical Station Numb er
STN: 2500
Telephone N umber: 410001
Figure 2-1 Telephone Number
NDA-24299CHAPTER 2
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Revision 1.0
GENERAL
Free Numbering
2. Free Numbering
A telephone number can be assigned to a desired station on the Fusion network with the simple command
operation shown in Figure 2-2.
In this figure, the user is changing the location of Telephone Number "411111" to N ode B.
C
h
MAT
Telephone #: 411111
STN: 2000
Node A
Logical N um ber
411111
Node A
a
n
g
e
l
o
c
a
t
i
o
n
Node C
Note:
Telephone #: 411111
STN: 2000
Node B
Note
user
The AlGSN command is used for assigning Telephone Numbers. See 5.6 “Assignment of Telephone
A Fusion network has one Network Control Node (NCN) and Local Nodes (LNs). The NCN has the
Centralized-MAT, which runs on Windows 95/NT. The MAT can collect fault information from all nodes
on the network. The NCN has Network Data Memory, which stores the data related to the network level.
The telephone numbers, for exampl e, can be change d with the Central ized-MAT at the NCN. The MAT als o
allows th e user to ma nage network-level office data. Refer to Figure 2-3
Fault inform ation can be collected at NCN via Fusion Link.
Node C
Fault Infor mation
Node A
Node B
December 12 1997
AM 3:12:13
Node B FCH Failure
M G: 00
U : 02
PRT
13-H
1. xxxx xxxx 0010 1222
4. x0010 1110 10110 1FFF
7. E23C CAAB 12 00 0 0000
NEC
MAT
13-H
1. xxxx xxxx 0010 1222
4. x0010 1110 10110 1FFF
7. E23C CAAB12 000 0000
G : 11
Note
: : :
Note:
Actual system message is indicated in a different format.
Figure 2-3 Centralized MAT on Fusion Network
CHAPTER 2NDA-24299
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Fusion Network
NCN
Fa ult In for m a tio n
NCN : Network Control N ode LN: Local N ode
Fusion Link
Node B
FC H fa ult....
LN
LN
GENERAL
Fusion System Configuration
3. Fusion System Configuration
The Fusion system can be conf igured i n the foll owing two wa ys. Figure 2-4 shows a Fusion system with Fusion
Call Control Handler (FCH) cards.
Node BNode ANode C
4.9 ft
DTI
FCH
HUB
FCH
HUB
CPU
LAN I
DTI
CPU
LANI
DTI: Digital Trunk Interface FCH: Fusion Call Control Handler LANI: LAN Interface
DTI
Fusion Link
1.5M
4.9 ft
FCH
Dch: 64K-1.5M
HUB
10BASE-T10BASE-T10BASE-T
Fusion Link
1.5M
4.9 ft
Dch: 64K-1.5M
DTI
FCH
4.9 ft
HUB
Figure 2-4 Fusion System Configuration (with FCH)
Figure 2-5 shows a Fusion system without Fusion Call Control Handler (FCH) cards.
his figure shows a Fusion system w ithout Fusion Call Control Handler ( FCH) cards.
DTIDTIDTI
DTI
T1 LinkT1 Link
Node BNode ANode C
DTI
DTIDTI
CPU
LANI
DTI
CPU
LANI
Fusion LinkFusion Link
10BASE-T10BASE-T
T I: D ig ita l T ru n k In te rfac e L A NI: LA N Inter fa c e
Figure 2-5 Fusion System Configuration (without FCH)
CPU
LANI
HUB
CPU
LANI
NDA-24299CHAPTER 2
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GENERAL
Node
4. Node
A Fusion network consists of the following types of nodes:
•Network Control Node
The Network Control Node, which must be assigned on a Fusion network, manages other nodes on the
network. This no de has the Ce ntral ized- MAT to coll ect fa ult i nformat ion f rom other nodes on the netw or k.
Multiple nodes cannot be assigned as a Network Control Node.
•Local Node
All nodes other than the Network Control Node are called Local Nodes. Fault information generated at a
Local Node is sent to the Network Control Node via a Fusion link, allowing the Network Control Node to
collect the fault information. A Fusion network can have a maximum of 16 nodes on the network.
Figure 2-6.
See
Note:
The actual number of nodes varies with system configurations.
•Center Node (for Centralized Billing - Fusion)
This node collects the billing information from other nodes as well as the self-node. For this reason, the
node is called Center Node for Cent rali zed Bil ling - Fusion. Mul tiple Cent er Nodes can be as signed on th e
network by spe cifying the poll ing dest inations , which ca n be set by the ASYDL command - S YS 1 Ind ex es
608 through 639. At the Center Node, the user can select “polling destinations” by setting 1 to the FPC of
the corresponding nodes. For more information, see the NEAX2400 IPX Office Data Specification.
A Fusion network can have a maximum of 16 nodes.
N13
N14
N12
N15
N11
N16
N10
N1
N2
N9
N3
N4
N5
N6
N7
N8
N: Node
Figure 2-6 Maximum System Configuration
CHAPTER 2NDA-24299
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Fusion netw ork
GENERAL
Data Memory Configuration
5. Data Memory Configuration
Each node on a Fusion network has the following three kinds of Data Memory:
•Data Memory (DM)
•Local Data Memory (LDM)
•Network Data Memory (NDM) - Programmable only by the NCN.
When the contents of the NDM are changed at NCN, the new data is automatically copied to the NDM of each
node. The NDM of the NCN functions as primary memory. Figure 2-7 shows how a telephone number change
is performed in a Fusion network.
When telephone numbers are changed, the change at the NCN will affect all nodes on the network. In this
figure, data change at Node A is automatically transferred to each node.
410000
Centralized
MAT
Data Change...
Telephone Number Change
410000 410001 (for self-Node)
420000 420001 (for Node B)
430000 430001 (for Node C)
440000 440001 (for Node D)
Note:
The data must be manually transferred with the CBCN command when the Fusion system is
410001
TCP/IP
configured for the first time or the system is once initialized at the NCN.
NCN
Node A
updating NDM
at each node
NDM (master)
Node B
LN
Node C
LN
Node D
LN
copy
copy
copy
420000
NDM
NDM
440000
NDM
430000
420001
430001
440001
Figure 2-7 Network Data Memory
NDA-24299CHAPTER 2
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GENERAL
Fusion Network Examples
When the NDM (primary) is modified, the new data is automatically copied. See Figure 2-8
Change...
Fusion Link
NCN
DM
LDM
NDM
(m a ste r)
copy
The standard size of each mem ory is as follows:
LNLN
DMDM
LDM
NDM
LDM
NDM
copy
DM (Data Memory): 4M Bytes
LDM (Local Data Memory): 2M Bytes
NDM (N e tw o rk D a ta M e mo ry) : 2M B y tes
NCN: Network Control Node LN: Local Node
Figure 2-8 Network Data Memory Copy
6. Fusion Network Examples
Figure 2-9 and Figure 2-10 show ex amples of Fusi on networks. When i ncorporating the Fusion sys tem with the
existing CCIS network, connect all nodes via CCIS links.
Note:
To co nnect a CCIS network and Fusion network, use STNs and TEL Ns re spectively.
3x x x : CCIS for Nod e C
[Closed N um bering]
2x x x : CCIS for Nod e B
1xxx: self-Node
4xxxxx: FU SIO N acc ess
5x x x : CCIS a c c e s s f o r
C C IS Ne two rk
NCN
Node A
FPC = 1
PC =10
LN
Node C
FPC= 3
FCC S
CCIS
PC = 12
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
TELN
410000
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
STN: 3000
TELN
430000
STN: 1000
STN: Physical Station Number TELN: Telephone Number FPC: FUSION Point Code PC: Po in t Code (CCIS)
Figure 2-9 Closed Numbering Fusion-CCIS Network
CHAPTER 2NDA-24299
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Revision 1.0
S
I
C
C
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
STN: 1001
FCC S
CCIS
TELN
410001
C CIS
Network
"5xxx"
LN
Node B
FPC = 2
PC = 11
TELN
420000
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
STN: 2000
[Open Numbering]
LN
Node C
"82"
FPC= 3
PC = 12
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
STN: 2000
TELN
430000
81: CCIS for Node B
82: CCIS for Node C
8x: CCIS access for
CCIS Network
4x...: Fusion access
FCCS
CCIS
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
STN: 2000
NCN
Node A
"80"
FPC = 1
PC =10
TELN
410000
S
I
C
C
410001
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
STN: 2001
GENERAL
Fusion Network Exampl es
CCIS
Network
"8x"
FCCS
LN
CCIS
TELN
Node B
"81"
FPC = 2
PC = 11
STN: 2000
TELN
420000
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
Figure 2-10 Open Numbering Fusion-CCIS Network
[conditions for telephone number digits]
When incorporating the Fusion system with the CCIS netwo rk, consider the conditions in Table 2-1 as to the
available telephone number digits.
Telephone Number
Composition
4 digits or less Note
4~8digitsNote
9 digits or moreNote
Display
D
term
ATTCON/
DESKCON
Inter-Office
Service
MCI
××× ×××
×-×-××
--- --×
Table 2-1 Available Tele phone Nu mber Dig its
SMDR
CCISFusion
×:Availab le-:Not available
Note:
When the network is Open Numbering, the “digits” in the table abo ve must be the number of “office code
digits + telephone number digits”.
NDA-24299CHAPTER 2
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GENERAL
Tandem Connections via Fusion Link
7. Tandem Connections via Fusion Link
Tandem connections via FCCS-ACIS can be established. In Figure 2-11, STN (A) can place a tandem call via
FCCS-ACIS.
Tandem connection FCCS
ACIS is established.
LN
Node A
calling party
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
STN (A)
Figure 2-11 Tandem Connections via Fusion Link
FCCS
TELN
430000
FCCS
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
... ... ... ... ...
STN (B)
NCN
Node B
TELN
410000
ACIS
O
C
CO
T
CHAPTER 2NDA-24299
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CHAPTER 3SYSTEM CONFIGURATION
Fusion systems can be divided into the following two types:
•Fusion system with FCH
•Fusion system without FCH
Note:
FCH (Fusion Call Control Handler) : PA-FCHA
This chapter explains the system configuration of each Fusion system.
1. FUSION System without FCH
An example system configuration of Fusion system which does not use a DTI to carry D-channel is shown
below. In this configuration, Fusion link is established between nodes via Ethernet. The DTI card carries Bchannels only in this example. See Figure 3-1 below.
This figure shows a Fusion System Configura tion without FCH.
Node A
TS W/IN TTS W/IN T
MUX
DTIDTI
B-channel
Node B
MUX
10 Base T
CPU
PCI Bus
TSW (Time Division Sw itch): P H-SW 10
MUX: PH-PC36
LA NI (L AN In te rfa c e ): P Z-P C19
DTI (Digital Trunk Interface): P A-24DT R
Note:
A maximum of 4 HUBs can be cascaded between the originating node and the incoming node.
LANI
(Restriction by operating condition of Ethernet.)
Figure 3-1 FUSION System Configuration without FCH
Max. 100m
Note
Max. 100m
10 Base T
LANI
CPU
PCI Bus
D-channel
Fusion Link
HUB
NDA-24299CHAPTER 3
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SYSTEM CONFIGURATION
Fusion System with FCH
2. Fusion System with FCH
2.1 System Configuration
A sample system configuration of Fusion system which uses a DTI to carry D-channel is shown below. In
this configurat ion, Fusion link is established bet w een nodes via the T1 link. See Figure 3-2 below.
This figure shows a Fusion S ystem Configuration with FCH .
Node A
TSW /INTTSW /INT
MUX
DTIDTI
FCH
10 Base T
......
HUB
CPU
PCI Bus
TSW (Time Division Switch): PH-SW 10
HUB: PA-M96
MUX: PH-PC36
LANI (LAN Interface): PZ-PC19
FCH (Fusion Call Control Handler): PA-FCH A
DTI (Digital Trunk Interface): P A-24DTR
LANI
ch 0
D/ID/I
FCHFCH
10 Base T
D-channel (example)
Fusion Link
B-channel / D -channel
ch 23
FCH
10 Base T
......
HUB
10 Base T
LAN I
PCI Bus
Node B
MUX
CPU
Figure 3-2 Fusion System Configuration with FCH
CHAPTER 3NDA-24299
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SYSTEM CONFIGURATION
Fusion System with F CH
Note:
When a direct connection is added to the existing Fusion system with FCH card between the two nodes, it
is required to execute Make Busy operation (MB Key ON/OFF) on the FCH cards to prevent from packet
loop.
Node BNode A
DTI
CPU
LANI
10BASE-T
DTIDTI
FCH
Fusion Link
1.5M
MB key ON/OFF
HUB
Connect the HUBs with a cross cable
DTI
FCH
HUB
CPU
LANI
DTI : Digital Trunk InterfaceFCH : Fusion Call Control Handler LANI : LAN Interface
Figure 3-3 Add a Direct Connection to Fusion System with FCH
On other occasions for adding direct connection (connect cross cable between the HUBs) to the Fusion
network consists of mu ltiple n odes, also perform th e MB key ON/OFF oper ation on j ust a sin gle FCH card
to prevent from packet loop. See Figure 3-3
When the system applies dual configura tion, MB Key ON/OFF opera tion is to be exe cuted to an FCH car d
on each #A/#B side.
2.2 Redundancy of FUSION Link
FCH (PA-FCHA) card handles a Fusion link, occupying one time slot of a frame by D/I function equipped on
the DTI card. In terms of redundancy, Fusion system (with FCH) can have one of the following configuratio ns.
•Redundant Configuration (LANI, HUB, FCH, and DTI)
•Redundant Conf igu rat ion (HUB, FCH, and DTI)
•Redundant Configuration (FCH and DTI)
•Non Redundant Conf iguration
NDA-24299CHAPTER 3
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SYSTEM CONFIGURATION
Fusion System with FCH
Figure 3-4 shows LANI, HUB, FCH, and DTI in a fully redundant configuration.
CPU#0
CPU#1
LANI#0-A
LANI#0-B
LANI#1-A
LANI#1-B
....
HUB0
HUB1
....
Redundancy
10 Base T
10 Base T
Figure 3-4 Redundant Configuration (LANI, HUB, FCH, and DTI)
Figure 3-5 shows HUB, FCH, and DTI in a redundant configuration.
PCI Bus
PCI Bus
LANI#0CPU#0
10 Base T
LANI#1CPU#1
10 Base T
....
HUB
HUB
....
10 Base T
10 Base T
10 Base T
FCH0
FCH1
FCH
FCH
DTI
to the same route
DTI
DTI
to the same route
DTI
Figure 3-5 Redundant Configuration (HUB, FCH, and DTI)
Figure 3-6 shows FCH and DTI in a redundant configura ti on.
LANI#0CPU#0
PCI Bus
LANI#1CPU#1
PCI Bus
CHAPTER 3NDA-24299
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10 Base T
....
HUB
10 Base T
Figure 3-6 Redundant Configuration (FCH and DTI)
10 Base T
10 Base T
Redundancy
FCH
FCH
DTI
to the same route
DTI
Redundancy
In this case, no redundancy is taken as to Fusion link.
SYSTEM CONFIGURATION
Fusion System with F CH
CPU#0
PCI Bus
PCI Bus
LANI#0
10 Base T
LANI#1CPU#1
10 Base T
Figure 3-7 Non-Redundant Configuration
Note:
Be sure that the system configurations shown below are not available. The Node composed of dual-HUB
system cannot apply to the opposite side agai nst a Node with single-HUB configuration.
This section exp lains condition s when designing a Fu sion network. I n the follo wing diagram, a Fu sion Link
is printed in a thick line w h ile a CCIS link is printed in a do tted line.
Condition 1:The maximum number of nodes on a Fusion network is sixteen (16) nodes.
exam ple 1
Node A
FCCS
4
FCCS
Node B
3
F
C
C
S
S
C
C
F
1
FCCS
example 2
Node A
FCCS
FCCS
1
S
C
C
F
Node B
2
Node C
2
FCCS
Node D
Node D
R ou tin g fro m N o d e A No d e CRo u ting fro m No de D N o d e C
Node A Node B Node D Node C
1
Node A Node D Node C
2
Node A Node B Node C
3
No d e A N o d e C
4
exam ple 3
Node A
FCCS
Node B
FCCS
Node C
FCCS
Node D
Node A
N o de D Nod e A No de B Nod e C
1
No d e D N o de B N o d e C
2
example 4
FCCS
Node B
FCCS
Node C
FCCS
Node C
Node D
FCCS
Node E
Figure 3-9 Fusion Network Topologies
CHAPTER 3NDA-24299
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SYSTEM CONFIGURATION
System Considerations
Condition 2:A maximum of four (4) Non ACD nodes can be connected as tandem nodes with 1D
channel.
•64k (1D-channel) will support 4 nodes
•128k (2D-channels) will support 5 n odes
•256k (4D-channels) will support 6 n odes
See Figure 3-10.
Node A
maximum 4 Non ACD nodes
FCCSFCCS
Node B
Node CNode D
Tandem Connection over FCCS links
FCCS
Figure 3-10 Fusion Tandem Connections
Condition 3:The available connection-route number ranges from 1 to 1023.
Condition 4:The available connection-trunk number of each route ranges from 1 to 4095.
See Figure 3-11.
DTI
card
:
:
:
:
DTI
card
IPX/IMX
DTI
card
:
:
:
:
DTI
card
T1
T1
IPX/IMX
DTI
card
:
:
:
:
DTI
DTI
card
card
T1
T1
DTI
card
:
:
:
:
DTI
card
IPX/IMX
C_RT
D ch
D ch
Max 4095 trunks per connection-route
B ch
max 4095 ch
A maximum of 4095 ports can be assigned on a
connection-route basis between nodes.
D ch: Data Link
B ch: Connection Trunk
Figure 3-11 Maximum Number of Ports between Nodes
NDA-24299CHAPTER 3
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SYSTEM CONFIGURATION
System Considerations
Condition 5:Up to eight (8) routes can be assigned as alternate routes for a connection trunk.
See Figure 3-12.
Node
Alt-C_RT1
Alt-C_RT2
Node A
Alt-C _RT: Alternate C onnection Route
Alt-C_RT3
Alt-C_RT4
Alt-C_RT8
Node
Node
Node
:
:
:
:
Node
Figure 3-12 Connection Trunk Alternate Routing
Condition 6:Connection trunks and the Fusion data link must be assigned on an “associated” basis.
See Figure 3-13.
NCN
Centralized
MAT
Node A
updating NDM
at each node
Node C
copy
430000
Node B
430001
TCP/IP
Data Change...
Figure 3-13 Fusion Network on an Associated Basis
Condition 7:One Fusion data link must be assigned on each T1 link.
Condition 8:A maximum of eight (8) data links can be used for a connection trunk for redundancy.
CHAPTER 3NDA-24299
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LN
NDM
SYSTEM CONFIGURATION
Condition 9:The maximum data link speed is “1.5 Mbps.”
Condition 10: Connec tion Trunks (B ch) conform to the following specifications:
•Existing external tr unk cannot be used as alternat e routes for connection tr unks.
•Billing information on connection trunks cannot be output.
•Under the following condi tions, “connection trunk seizure NG” will occur:
Data Link Failure
Connection Trunk all busy
LANI (built-in) - FCH failure
•Connection test for connection trunks is not provided.
•Nailed Down connection is not provided for connection trunks.
•PAD value for connection trunks is fixed to 0 db.
•Echo canceller (EC) / MPC control is not provided.
System Considerations
•Nailed Down connection is not provided for connection trunks.
Condition 11: If a “layer 2 failure” occu rs , the connections are released.
Condition 12: When fusion links and CCIS links coexist on a Fusion network, the following conditions
should be considered:
A Fusion link may be used as a CCIS link through data programming. In this instance, if the other node
accommodates a dedicated CCIS card, CCIS will not work even if the self-node accommodates a FusionLink-Card. Therefore, the same Fusion-Link-Card must be accommodated at both nodes. Figure 3-15
shows an example of CCIS-FUSION networks.
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SYSTEM CONFIGURATION
System Considerations
3.2 Centralized Billing - Fusion (Polling Method)
This section explains the conditions of Centralized Billing - Fusion, focusing on when CCIS links are
involved. To use this feature, select Center Node(s) on the Fusion network. See Figure 3-14.
Example 1
- Node A (Fusion - C enter Node) collects the billing information of N odes B and C via FCCS using polling method.
¥ N o d e A tr ie s to colle c t th e b illin g in fo rmatio n o f No d e B , a n d N o d e C v ia F CCS u s in g p o llin g me th od .
(N o d e A c a n n o t co lle c t th e b illin g in fo rm atio n of N o d e C v ia F CCS.)
¥ N o d e C s e n d s th e b illin g in formation v ia C CIS, ig n o rin g p o llin g from No d e A .
¥ N o d e C d e lete s th e s e lf-Po in t Co d e (CCIS) wh en re q u ir in g to s end b illin g in fo r ma tio n fo r pollin g from No d e A .
Fusion - Center Node
CCIS - Center Node
SMDR equipment
IPX
Node A
CCIS
1
234
4
5
515
56
876
6
6
64
4
65
6
646
465
46
0
2
22
213
1
6
313
546
0
1
5465
31
4
Billin g In formation
of N ode C
Fusion Network
polling
FCCS
pol ling
IPX
igno res
DPC0:
Node A
Node C
¥ Node A tries to collect the billing i nformation of Node B via FCC S using pollin g method.
(Node A cannot collect the billin g i nformation of Node B via FCC S.)
¥ Nod e B s e n d s th e b illin g in fo r ma tio n to No de C v ia C CIS, ign o r in g p o llin g fro m No d e A .
¥ Nod e B d e le t es the s e lf-Po in t Code (CCIS) w h e n r e quiring to s e n d b illin g in fo rmation f or p o llin g fro m No de A .
¥ N o d e A c o lle c ts th e b illin g in fo r m a t ion o f No de B a n d No d e C v ia F CCS u s in g p o llin g m eth o d .
¥ N o d e A s e n d s th e b illin g in fo r m a t ion o f Nod e A , N od e B , an d No d e C.
- Example 7
¥ N o d e A c o lle c ts billin g in fo r ma t io n o f No de B a nd No d e C v ia F CCS by p ollin g metho d.
(B illin g info r matio n o f N od e B c a n n o t be c o llec te d.)
¥ N o d e B s e n d s b illin g in fo r ma t io n to No d e D v ia CCIS, ign o r in g p ollin g f ro m No d e A.
¥ N o d e B d e le t e s the s e lf -No d e P oin t Co d e (CCI S ) w he n Nod e B wa nts to s e n d b illin g info r matio n .
¥ N o de A c o lle c ts th e b illin g info rm ation o f No de B, No d e C, an d No d e D whic h a re s to r e d in No d e B a n d No de C b y p o llin g meth od .
¥ N o de D s e n ds b illing in f o rmation t o No de B .
: Comm on C hanel
Inte r-O f fice S ig n a lin g (C C IS)
SMD R equipm ent
Fusion - Center Node
IPX
Node A
B
i
l
l
i
n
g
I
o
n
f
f
o
N
o
d
e
C
1
2
3
4
5
1
8
5
7
6
6
6
6
4
4
6
6
0
4
5
2
6
2
2
4
6
2
1
6
5
1
3
4
3
1
6
0
3
5
1
4
3
6
1
5
4
r
m
a
t
i
o
n
Fusion Network
4
5
5
6
6
4
6
5
FCCS
FCCS
IPX
Node C
Billing Information
of Node B
Figure 3-14 Centralized Billing - Fusion (3/3)
CHAPTER 3NDA-24299
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Revision 1.0
SYSTEM CONFIGURATION
System Considerations
3.3 Centralized Management Report-Fu sio n
For collection of fault information in a Fusion network, the Centralized Management Report-Fusion is
used. This feature provides automatic reporting of fault occurrence from Local Nodes to Center Node.
Figure 3-15 shows service conditions for this feature.
Node B
13-H
1. xx x x xxxx 0010 1222
4. x0010 1110 10110 1FF F
7. E23 C CAAB12 000 0000
NEC
Centralized MAT
Fusion
Node D
FCCS
FCCS
Node A
FCCS
Fault!
FCCS
Node C
Figure 3-15 Centralized Management Report-Fusion
•Center Node for Centralized Management Report-Fusion is specified in the following system data:
ASYDL, SYS1, Index 532 (FPC of Center Node for Centralized Management Report-Fusion).
•At Center Node, system messages received from the other nodes are stored in the buffer memory for
Centralized Management Report-Fusion.
•The MAT connected to Center Node polls only the self-node.
•Office Name (ASYD, Index 96 through 115) is used for identification of each node.
•When a system message p rint e r is conn ected to a node oth er than C e nt er Node, system messages sent
to Center Node are also output to the system message printer.
•When a system message has been sent to Center Node, the message is regarded as an old message.
•When t he s ystem fails trans mis sion of a sys tem me ssag e to Cente r Nod e, retry operation i s executed.
When the retry operation also fails, transmission is aborted, and the message is sent together with the
next system message.
NDA-24299CHAPTER 3
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Revision 1.0
SYSTEM CONFIGURATION
System Considerations
The following explains service conditions for the network including both FCCS and CCIS links.
Example: 1
When the network compri ses FCCS and CCIS links (See Figure 3-16.)
Node A: To send system messages to Node C via Office B, assign Point Code of Node C (12) to ASYD, SYS
1, Indexes 184 and 185.
Node B: To send system messages to Node C, assign Fusion Point Code of Node C (3) to ASYDL, SYS1, Index
532. When this syste m data is assig ned , system mess age s recei ved from Node A are also transf err ed
to Node C. How ever, when data is not as signed (0), system messa ges received from Node A are
ignored and not transferred to Node C.
System me ssages rec eived fro m Node A are not o utput to the syst em messag e printer connect ed to
Node B.
Node C: Received system messages are stored in the memory area for Cent ralized Manag ement Report-Fusion.
Node D: To send system messages to Node C, assign Fusion Point Code of Node C (3) to ASYDL, SYS1, Index
532.
CHAPTER 3NDA-24299
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SYSTEM CONFIGURATION
System Considerations
Example: 2
When both FCCS and CCIS links are established between two nodes (See Figure 3-17).
Node D:When Point Code of Node C (12) is assigned to ASYD, SYS 1, Indexes 184 and 185, System
messages are sent to Node C with use of CCIS. When this system data is not assigned (0), and
Fusion Point Code of Node C (3) is assigned to ASYDL, SYS 1, Index 532, system messages are
sent to Node C using FCCS.
NDA-24299CHAPTER 3
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Revision 1.0
SYSTEM CONFIGURATION
System Considerations
Example: 3
When a node is li nked with LAN interface (See Figure 3-18.)
Node A:To send system messages to Node E, assign Point Code of Node C (1) to ASYD, SYS 1, Indexes
184 and 185.
Node B:To send system messages to Node E, assign Point Code of Node C (1) to ASYD, SYS1, Indexes
184 and 185. When this system data is assigned, system messages received from Nodes C and D
are also transferred to Node E. However, when this data is not assigned (0), system messages
received from Nodes C and D are igno red and not tra nsferred to Node E.
System messages received from Nodes C and D are not output to the system message printer
connected to Node B.
Node C/D: To send system messages to Node E via Node B and Node A, assign Fusion Point Code of Node B
(11) to ASYDL, SYS 1, Index 532.
Node E:Received system messages are stored in the memory area for Centralized Management Report-
Fusion.
CHAPTER 3NDA-24299
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Revision 1.0
3.4 Fusion Attendant/Desk Console
3.4.1Operator Call
The user can place an operator call from each node by assigning the access code using the ASPAL/
ASPAN command, which allows the user to specify an appropriate node on the Fusion network by
entering th e FPC. In this example, a station user at N ode B can ca l l up an operat or at Node C or Node
E by dialing “90” or “91.” See Figure 3-19.
SYSTEM CONFIGURATION
System Considerations
Note 1:
Regar di ng the followi ng data (Waiting Call Display data), be sure to develop the unif ied data at eac h node:
ASYD, SYS2, INDEX 8
ASYD, SYS2, INDEX 9
Note 2:
When the connection routes (C_RT) are all busy, the operator call becomes in Night ATT mode.
Each node can specify a terminating node for Ring Down calls using the system data. In this example,
Node A and Node D specify Node C and Node E as the terminating node respectively. The t er mina ti ng
node is assigned with us e of the ASYDL c ommand ( SYS 1, Index 640). Note that self-FPC is assigned
at the termi n ating node. Se e Figure 3-20.
Note 1:
When assigning the da ta regar ding the call termination to ATT, be sure to develop the unified data at each
node.
Note 2:
Note 3:
Terminating node cannot be assigned differently at each tenant (TN).
When the connection routes (C_RT) are all busy, any attempted call via C.O. Line is not connected to the
ATT. As a res ult, the c alling pa rty is provided with the ringbac k tone , and e ven when a C_RT later b ecomes
idle, the ringback tone connection is still maintained, and the C.O. call does not terminate to the ATT.
ASYDL - Node A
Index 640
FPC = 3 (Node C)
Node providing ATTCON/DESKCON
Data Programming (Node A )
PSTN
Node A
FPC = 1
Ring Down Call
Node C
FPC = 3
Fusion Network
Node B
PSTN
Node D
FPC = 4
Ring Down Call
Node E
FPC = 5
ASYDL - Node D
Index 640
FPC = 5 (Node E)
Node providing
ATTCON/DESKCON
Data Programming (Node D)
ASYDL - Node C
Index 640
FPC = 3 (Node C)
self-node FPC
Data Programming (Node C)
Ring Down Call
PSTN
Figure 3-20 Ring Down Calls on a Fusion Network
CHAPTER 3NDA-24299
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Revision 1.0
: Node having ATTCON
: Node w/o ATTCON
SYSTEM CONFIGURATION
System Considerations
3.4.3Day/Night Change
Day/Night information is transferred from an ATTCON/DESKCON to predetermined nodes. In this example,
Node C specifies Node A and Node B a s destination nod es by assignin g FPCs 1 and 2 in Inde xes 704-735. Node
A and Node B specify Node C as a terminating node for Ring Down calls from PSTN by assigning FPC 3 in
Index 640. Node E specifies Node D as a destination. See Figure 3-21.
Note 1:
When assigning ATTCON/DESKCON on the Fusion network, be sure to develop the unified System Data
at each node.
Note 2:
Terminating node cannot be assigned differently at each tenant (TN).
by ATTCON/DESKCON
Data Programming (Node C)
ASYDL - Node C
Index 704 - 735
D/N information are
transferred: FPC: 1, 2
: Day mode
: Night mode
Day
Fusion System with ATTCON/DESKCON
Node A
FPC = 1
D/N information
Node C
FPC = 3
Node B
FPC = 2
Node D
FPC = 4
D/N information
Node E
FPC = 5
ASYDL - Node E
Index 704 - 735
D/N information are
transferred: FPC: 4
Data Programming (Node E)
Night
Figure 3-21 Day/Night Information Transfer by ATTCON/DESKCON
When an ATTCON/DESKCON is not provided on the Fusion network, Day/Night information is effective for
a node accommodating an exter nal key box. See Figure 3-22.
by External Key Box
ATTCON
: Day mo de
: Night mode
Key Box
Day
Node A
Node B
Node C
Fusion System without
ATTCON/DESKCON
Figure 3-22 Day/Night Information Transfer
NDA-24299CHAPTER 3
Node D
Node E
Key Box
Night
External Key Box
ATTCON
Page 29
Revision 1.0
SYSTEM CONFIGURATION
System Considerations
This page is for your notes.
CHAPTER 3NDA-24299
Page 30
Revision 1.0
CHAPTER 4INSTALLATION
This chapter covers the installation of the Fusion system. The following topi cs are covered:
•How to set switches on the following circuit cards:
PA-M96 (HUB)
PA-FCHA (FCH)
PA-24DTR (DTI)
•How to mount the circuit cards
•How to run the 10 BASE-T cables
1. Anti-Static Caution
This manual provides Static Caution indicators when describing work involving static-sensitive components.
When performing work a ccompani ed b y this mark, b e sure t o use t he anti -s tati c kit. Figure 4-1 shows the Static
Caution indicator.
ATTENTION
Contents
Static Sensitive
Handling
Precautions Requir ed
Figure 4-1 Static Caution Indicator
NDA-24299CHAPTER 4
Page 31
Revision 1.0
INSTALLATION
Anti-Static Caution
Figure 4-2 shows the an ti-s tat ic kit tha t is provide d and ho w to use it . Use th e kit when hand ling s tati c-sens itiv e
components such as circuit cards and cables.
Connect the ground wire to the earth terminal of the frame.
PBX
Earth Terminal
Ground Wire
Conductive Sheet
Wrist Strap
Ground Cable
Figure 4-2 How to Use the Anti-static Kit
CHAPTER 4NDA-24299
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Revision 1.0
INSTALLATION
Anti-Static Caution
1.1 Circuit Cards Required
Depending on the system typ e, the follo wing circuit car ds are required for in stallation of t he Fusion system.
See Figure 4-3.
•Fusion with FCH
HUB (PA-M96)
FCH (PA-FCHA)
DTI (PA-24DTR)
•Fusion without FCH
DTI (PA-24DTR)
HUB (PA-M96)
Before starting installation, make sure th at all necessary cards are at yo ur site.
DTI (PA-24DTR)
HUB (PA-M96)
FCH (PA-FCHA)
1234
12345678
OFF
1234
1234
OFF
OFF
12345678
OFF
2345678
1OFF
123458
12345678
12345678
OFF
OFF
1
OFF
OFF
12345678
12345
OFF
DTI: Digital Trunk Interface
FCH: Fusion Call Control Handler
4
6
2
0
A
E
C
Figure 4-3 Circuit Cards for Fusion
1234
1234
OFF
OFF
78
123456
123456
OFF
OFF
1234567 8
12345678
OFF
OFF
234567
1
8
234567
1
OFF
OFF
12345678
12345678
OFF
OFF
78
4
6
2
0
A
E
C
C
A
0
2
6
4
8
NDA-24299CHAPTER 4
Page 33
Revision 1.0
INSTALLATION
Key Setting on Circuit Car ds
2. Key Setting on Circuit Cards
2.1 PA-M96 (HUB)
After referring to Figure 4-4 and Table 4-1, set the SEL switch on the H UB (PA-M9 6) card(s).
Note:
OPE
ST7
ST0
SENSE
TP7-X
TP6-X
TP5-X
TP4-X
TP3-X
TP2-X
TP1-X
TP0-X
MB
~
CR7
CR0
4
6
2
0
A
E
C
C
E
A
0
2
6
4
HUB (PA-M96) Card
~
4
2
6
0
E
C
A
.
Set the SENSE Switch arrow to the proper direction,
referring to Table 4-1.
1 and 4 to F of the SENSE Switch are not available in this version.
0Polarity indication on the STn lamps for TPn-Xports.
STANDARD
SETTING
1Not used.
4
2
6
0
E
C
A
2×TPn-X ports operate as a repeater HUB. (Standard setting)
3
Data-Packet-Collision indication on the STn lamps for TPn-X
ports.
4-FNot used.
CHAPTER 4NDA-24299
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Revision 1.0
DESCRIPTION
INSTALLATION
Key Setting on Circuit Cards
2.2 PA-FCH A (FCH)
Set the switches on t he FCH (PA-FCHA) card( s) by refer ring to Fig ure 4- 5, Table 4-2, and Table 4-3 . This
card has DIP switches, whose key settings determine the ti m e slots of th e Fusion link. In Figure 4-5, CH3
is designated as the D/I channel in an example.
Standard setting
(When the DTI is connected with the card’s front cable)
Fusion link test mode
(When the DTI is connected with the card’s front cable)
STANDARD
SETTING
DESCRIPTION
The fusion data link speed inserted onto the T1
interface Note 3
SW14-2SW14-3SPEED (Note 2)
ONON64Kbps × n (1~24)
ONOFF48Kbps × n (1~24)
OFFON56Kbps × n (1~24)
OFFOFFNot used
4
ONLAPD signal link performs as “network.”
OFFLAPD signal link performs as “user.”
Note 1:
64Kbps is used for T1 or E1 interface.
56Kbps is used for T1 interface with bit steali n g.
48Kbps is used for T1 interface with both bit stealing and Zero Code Suppression (or Bit 7 Stuffing) .
Note 2:
Note 3:
When n is bigger than 1, Time Slot Sequence Integrity (TSSI) must be guaranteed at the network side.
The following is an example key setting when n = 2.
SW11-1 = ON
SW11-2 = ON
ON
1
OFF
CH
021324354657687
SW11
CHAPTER 4NDA-24299
Page 36
Revision 1.0
ON
1
OFF
CH
829310411512613714815
SW12
ON
1
OFF
CH
16217318419520621722823
SW13
INSTALLATION
Key Setting on Circuit Cards
2.3 PA-24DTR (DTI)
There are two types of the PA-24DTR (DTI) card as shown below. Refer to Figure 4-6 and Table 4-4 to set
each switch to the proper positions.
DTI (PA-24DTR) Card
Note:
Dots printed in DIP switches represe n t the standard settings.
Alarm Sending when this circuit card is in NOPE state.
Key Setting on Circuit Cards
Table 4-4 Switch Setting Patterns for the DTI Card (Continued)
INSTALLATION
SWITCH NAME
SW5D
1234
OFF
Note:
This switch sett ing is applicable for a sys tem that adopts Associated Channel In ter of fice Signalling (A CIS) .
2.4 Digital PAD Setting
The PA-24DTR card is equipped with a mask R OM in which th e follo wing t ypical PAD patterns ha ve bee n
already written. PAD value is determined with the selection of a desired PAD pattern, which can be done
by key sett ing of the SW 58 (ele ments 4, 5, 6) on t he card, and pr ogramming of t he PAD data by the ARTD
command - CDN = 30 (PAD). Refer to Table 4-5 for the PAD patterns and ARTD data.
Key setting of SW 39-3,4 correspond to PAD values. (Regardless of PAD patterns)
0000Through Through Through Through Through Through Through Through
Stands for 3[dB] GAIN.
NDA-24299CHAPTER 4
Page 41
Revision 1.0
INSTALLATION
Mounting Circuit Cards in PIM
3. Mounting Circuit Cards in PIM
3.1 Mounting HUB (PA-M96) in a PIM
Mount the HUB (PA-M96) card in an appropriate slot of a PI M as shown in Figure 4-7. When the MAT is
connected via a HUB card, be sure to use a dedicated HUB for the Fusion link.
Note:
HUB (PA-M96) can be mounted anywhere in a PIM of any IMG stack. However, if your system is 1-IMG
type, mount the HUB in PIM0.
Mount a HUB card in an appropriate slot providing the anti-static kit.
3.2 Mounting FCH (PA-FCHA) and DTI (PA-24DTR) Cards
Mount the FCH (PA-FCHA) and the DTI (PA-24DTR) card in appropriate slots in a PIM. Mount the two
cards in adjacent slots since these cards must be connected on the front connectors. Figure 4-8 shows an
example with the FCH and DTI cards mounted in PIM 1.
PIM 1
PIM 0
DTI (PA-24DTR)
DTI (PA-24DTR)
FCH(PA-FCHA)
FCCH(PA-FCCHA)
HUB
HUB
HUB
HUB
ATTENTION
Contents
Static Sensitive
Handling
Precautions R equired
Anti-static Kit
Figure 4-8 Mounting FCH and DTI Cards
NDA-24299CHAPTER 4
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Revision 1.0
INSTALLATION
Connecting Cables
4. Connecting Cables
4.1 Connecting DTI-FCH Front Cables
Connect the furnished front cable to the connectors on the DTI and FCH cards. Use DTI and CN2
connectors on the FCH and DTI cards respectively. Since an FCH card is equipped with one Handler
circuit, a maximum of f i ve FCH cards can be connected to a DTI card. (Se e Figure 4-9.) Ho wev er, if a DCH
card is also cascad ed, a maximum of thr ee FCH cards ca n be added to the DTI card. (DCH is e quipped with
two Handler circuits per card.)
Figure 4-11 shows sample cable connections, where HUB (PA-M96) cards are provided in a dual
configuratio n and the FCH (PA-FCHA) card is loca ted in PIM 1 (1-I MG system/IMG0) . When HUB cards
are provided in a dual configuration, the two HUB cards must be connected on each front edge connector
with a 10 B ASE-T cross cable. Ho we v er , when dual LANIs (LANI-A and LANI-B) are us ed for each CPU,
the cross cable connection bet w een HUBs for FCH#0 and #1 is not necessary.
Note:
The Ethernet cables shown in the e xamples in this secti on are NO T availab le fr om NEC. The customer must
provide these cables, depending on the system configuration. See “Chapter 6 Connecting 10 BASE-T
Cables.”
DTI (PA-24DTR)
ATTENTION
FCH (PA-FCHA)
DTI
P
I
M
1
(
H
P
U
A
B
-
M
9
10 BASE T cable
(cross)
(
H
P
I
M
0
P
U
A
B
-
M
9
6
)
(
H
P
U
A
B
-
M
9
6
)
6
)
GT
LANI (PZ-PC19)
Contents
Static Se n sitive
Handling
Precautions Required
10 BASE T cable
(straight)
MAT
REAR VIEW
to MAT
Note
: 10 BASE-T cable (for Fusion Link)
Note:
When connecting the MA T us ing a HUB card, be sure to use a dedicated HUB for the M AT.
Figure 4-11 Overall 10 BASE-T Connections
CHAPTER 4NDA-24299
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Revision 1.0
GT
LANI (PZ-PC19)
10 BASE T cable
(straight)
: 10 BASE-T cable (for MAT)
INSTALLATION
Connecting Cables
4.3 10 BASE-T Connection Procedure
The pattern for 10 BASE-T cable connections may vary, depending on the system configuration (such as
the number of IMG stacks or the mounting location/number of the FCH/HUB cards, etc.). According to
your system configu rat ion, connect necessary Ethernet cables:
4.3.1Procedure for 1-IMG System
If your system is 1-IMG type, the 10 BASE-T connection should use either of the following cables:
1. Cable unit specified as SR1201 ETIF CAU-n
2. Cables, other than those of SR1201 ETIF CAU-n, that are provided by the user
Based on the cable type, perform the following:
4.3.2When using cable unit SR1201 ETIF CAU-n
1. Referring to Figure 4-13 through Figur e 4- 15, connect the 10 BASE-T straight cables, between the
LANI (PZ-PC19) and HUB (PA-M96) cards, and between the HUB and FCH (PA-FCHA) cards. If
the HUB is in a dual configuration, also connect the 10 BASE-T cross cable between HUB#0 and
HUB#1.
Note:
When dual LANIs are used in both Slot 00 and 03 of CPR#0/CPR#1, be sure to use at least two
HUB cards. Use one HUB for the internal LANI (in Slot 00), and use the other HUB for external
LANI (in Slot 03). If FCH is al so in a dual conf igurati on, the 10 BASE-T cross connection between
the two HUBs is not required.
2. If your system needs more FCH (PA-FCHA) and/or HUB (PA-M96) cards, provide the required
Ethernet connection(s) for the added card(s) using the following cables:
•When adding FCH card in PIM0: UTP CTG5 ST CA-D
•When adding HUB card in PIM0: UTP CTG5 CRS CA-D
•When adding FCH card in PIM1: UTP CTG5 ST CA-K
•When adding HUB card in PIM1: UTP CTG5 CRS CA-K
•When adding FCH card in PIM2: UTP CTG5 ST CA-M
•When adding HUB card in PIM2: UTP CTG5 CRS CA-M
•When adding FCH card in PIM3: UTP CTG5 ST CA-N
•When adding HUB card in PIM3: UTP CTG5 CRS CA-N
The cables cited abo ve and use d in F i gure 4-13 through F igure 4-15 are for the 1-IMG sys tem only and a r e
not available in the 4-IM G/I MX- U syst em.
NDA-24299CHAPTER 4
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INSTALLATION
Connecting Cables
4.3.3When not using the cable unit SR1201 ETIF CAU-n
When your system doesn’ t use t he cable unit cla ssif ied as SR1201 ETIF CAU-n, perform the 10 B ASET connections as instructed below:
1. Depending on your system configuration, connect the 10 BASE-T straight cable(s) between the
HUB (PA-M96) and LANI (PZ-PC19) cards. Use the cable UTP CTG5 ST CA-O, which must be
provided by the user.
When a single LANI is used for each CPR (Slot 00 only), and the HUB is in a dual configuration,
connect HUB#0 to LANI#0 and HUB#1 to LANI#1, using two 10 BASE-T cables.
When dual LANIs are used in both Slot 00 and 03 of CPR#0/CPR#1, use at least two HUB cards
as separate 10 BASE-T connection terminals: One HUB for the internal LANI (LANI-A in Slot 00
of each CPR) and the other for the external LANI (LANI-B: in Slot 03 of each CPR).
2. When HUB is in a dual conf i gurati on, con nect t he 10 BASE-T cross cable between the HUB cards.
Use the cable UTP CTG5 CRS CA-F, which must be provided by the user.
When using more than two HUB cards, connect the cross cable(s) for the remaining HUB cards,
except the HUB card used for the MAT connection.
3. Connect the 10 BASE-T straight cable(s) between the HUB and FCH (PA-FCHA) cards. Use the
following cables, which must be provided by the user.
UTP CTG5 ST CA-F:When the HUB and FCH are in the same PIM (PIM0)
UTP CTG5 ST CA-O:When the HUB and FCH are in different PIMs
When FCH is in a dual configura tion, connect FCH#0 to the HUB#0 side, and FCH#1 to the HUB#1
side.
4.3.4Procedure for 4-IMG System
When your system is 4-IMG type, the procedure for 10 BASE-T connection is as follows. Because the
HUB (PA-M96) can be mounted anywhere i n a PIM of any IMG, the Ethernet cables mus t be arranged
by the user, depending on the system configuration.
1. Depending on your system configuration, connect the 10 BASE-T straight cable(s) between the
HUB (PA-M96) and LANI (PZ-PC19) cards. Use the following cables, prepared by the user:
UTP CTG5 ST CA-O:When the HUB and LANI are in the same IMG (IMG0)
UTP CTG5 ST CA-X:When the HUB and LANI are in different IMGs
When a single LANI is used for each CPR (Slot 00 only), and the HUB is in a dual configuration,
connect HUB#0 and HUB#1 to LANI#1 using two 10 BASE-T cables.
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Connecting Cables
When dual LANIs are used in both Slot 00 and 03 of CPR#0/CPR#1, be sure to use at least two
HUB cards as separate 10 BASE-T connection terminals. Use one HUB for the internal LANI
(LANI-A: in Sl ot 00 of each CPR), and use the other for the externa l LANI (LANI -B in Slot 03 of
each CPR).
2. When the HUB is in a dual configuration, connect the 10 BASE-T cross cable between the HUB
cards. Use the following cables, which are provided by the user.
UTP CTG5 CRS CA-F:When the HUB and HUB are in the same PIM
UTP CTG5 CRS CA-O:When the HUB and HUB are in different PIMs but in the same IMG
UTP CTG5 CRS CA-X:When the HUB and HUB are in different IMG stacks
When using more than two HUB cards, also connect the cross cable(s) for the remaining HUB
card(s), except the HUB for the MAT connection.
This step is not necessary when your system uses dual LANIs for CPU#0/CPU#1 and FCH is also
in a dual configuration.
3. Connect the 10 BASE-T straight cable(s) between the HUB and FCH (PA-FCHA) cards. Use the
following cable, which must be provided by the user.
UTP CTG5 ST CA-F:When the HUB and FCH are in the same PIM
UTP CTG5 ST CA-O:When the HUB and FCH are in different PIMs but in the same IMG
UTP CTG5 ST CA-X:When the HUB and FCH are in different IMG stacks
When FCH is in a dual conf igurat ion, connect FCH#0 t o the HUB#0 side and FCH#1 to the HUB#1
side.
4.3.5Procedure for IPX-U and IMX-U Systems
When your system is the IPX-U or IMX-U type (configured to a maximum of 4 L ocal Nodes + 1ISW),
the procedure for the 10 BASE-T connection is as follows. Because this system already has a Fusion
link via the HUB (PA-M96) cards, this section gives details related only to the connection between the
HUB and FCH (PA-FCHA) cards.
1. Refer to the NEAX2400 IPX Installation Manual (IMX-U Type) or the NEAX2400 IMX
Installation Manual (IMX-U Type) to make sure that the necessary 10 BASE-T (both straight and
cross) connections between the ISW and each LN (Local Node) are all securely provided.
2. Connect the 10 B ASE -T straight cable(s) be tween the HUB ( PA-M96) and FCH (PA-FCHA) cards.
Use the following cable, which must be provided by the user.
UTP CTG5 ST CA-F:When the HUB and FCH are in the same PIM
UTP CTG5 ST CA-O:When the HUB and FCH are in different PIMs but in the same IMG
UTP CTG5 ST CA-X:When the HUB and FCH are in different IMG stacks but in the same LN
UTP CTG5 ST CA-A0:When the HUB and FCH are in different LNs
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Connecting Cables
When dual FCH is provided for the HUB dedicated to each internal LANI card (LANI-A: in Slot
00 of each CPR), connect FCH#0 to HUB#0 and FCH#1 to HUB#1.
When your system also uses the external LANI cards (LANI-B in Slot 03 of each CPR), prepare
another set of FCH cards for the HUB dedicated to the external LANI cards. Then, if the FCH is in
dual configuration, connect one FCH to the HUB for No. 0 system of the external LANI, and the
other to the HUB for the No. 1 system of the external LANI.
Figure 4-12 sho ws an e xa mple of a HUB in a du al co nf igur atio n a nd th e FCH c ard moun ted i n PIM
1 of the 1 IMG system.
DTI
P
I
M
1
3
Connect HUB and FCH using a
10 BASE-T straight cable.
R e fe r to fig u res lis te d o n th e
following pages.
2
Connect two HU B cards using
a 10 B A S E -T cro ss ca ble.
(When H U B is in dual
config uration.) Note
P
I
M
0
1
Connect the LANI and the
HUB card using a 10 BASE-T
straight cable. Eight
10 BASE-T connectors
(TP 0-X - T P7 -X ) are
furnishe d on the fro nt edge
Cables Contained in each cable unit are as follows:
SR1201 ETIF CAU-A: UTP CTG5 ST CA-D, UTP CTG5 ST CA-J
SR1201 ETIF CAU-DA: UTP CTG5 ST CA-D, UTP CTG5 ST CA-J, UTP CTG5 CRS CA-F
The cables cited in Figure 4-13 can be used in the 1-IMG system only.
HUB
Connectors for 10 BASE-T
FCH
(PA-FCHA)
(PA-M96)
CN
= 10 BASE-T Connector
Use 10 B A SE-T connectors.
TP7-X
TP6-X
TP5-X
TP4-X
TP3-X
TP2-X
TP1-X
TP0-X
FRONT VIEW
FRONT VIEW
10 BASE-T
<F C H in P IM 0 (P a ttern 1)> <FCH in P IM0 (Pa tte rn 2 )>
When dual LANIs are used in both slot 00 and 03 of OPR (Pattern 3 or 4), be sure to use at least two
HUB cards: One HUB for internal LANI (in slot 00) and the other for external LANI (in slot 03).
However, if this is the cas e, and FCH is also in a dual conf igurat ion, the 10 BASE- T “cross” connection
between the HUBs is not required.
Figure 4-13 Examples of Ethernet Cable Connection-FCH in PIM0 (1-IMG System) (2/2)
CHAPTER 4NDA-24299
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BASEU
INSTALLATION
Connecting Cables
Figure 4-14 shows some typical examples where 10 BASE-T cables are conne cted to the FCH ca rd(s) mounte d
in PIM1 of 1-IMG system, under the conditions in Table 4-7:
Table 4-7 Connection of 10 BASE-T Cables to FCH Card(s) in PIM1 of 1-IMG
Cables contained in eac h cable unit are as follows:
SR1201 ETIF CAU-B: UTP CTG5 ST CA-K, UTP CTG5 ST CA-J
SR1201 ETIF CAU-DB: UTP CTG5 ST CA-I, UTP CTG5 ST CA-J, UTP CTG5 CRS CA-F
The cables cited in Figure 4-14 can be used in the 1-IMG system only.
FCH
HUB
CN
Use 10 BASE-T connectors.
Con n e cto r s fo r 1 0 B A S E - T
(PA-FCHA)
(PA-M96)
= 10 BASE-T Connector
TP7-X
TP6-X
TP5-X
TP4-X
TP3-X
TP2-X
TP1-X
TP0-X
FRONT VIEW
FRONT VIEW
10 BASE-T
<F C H in P IM1 ( P a tte rn 1)> <F CH in P IM1 (Patte r n 2 )>
TOPU
PIM 3
PIM 2
FANU
CN
PIM 1
FCH
TOPU
FANU
CN
FCH
CN
FCH
ATTENTION
Contents
Static Sensitive
Handlin g
Precautions Required
PIM 3
PIM 2
UTP CTG5 ST CA-I
PIM 1
CN
UTP CTG5 ST CA-K
CN
HUB
UTP CTG5 ST CA-J
BASEU
CNCN
UTP CTG5 ST CA-K
PIM 0
06040503020100
BSCM
LPM
06040503020100
CN
CN
HUB
UTP CTG5 CRS CA-F
UTP CTG5 ST CA-J
BASEU
CNCN HUB
PIM 0
CN
06040503020100
CN
CN
BSCM
LPM
06040503020100
Figure 4-14 Examples of Ethernet Cable Connection-FCH in PIM1 (1-IMG System)
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INSTALLATION
Connecting Cables
Figure 4-15 shows some typical examples where 10 BASE-T cables are conne cted to the FCH ca rd(s) mounte d
in PIM2 of 1-IMG system, under the conditions in Table 4-8:
Table 4-8 Connection of 10 BASE-T Cables to FCH Card(s) in PIM2 of 1-IMG
Cables contained in eac h cable unit are as follows:
SR1201 ETIF CAU-C: UTP CTG5 ST CA-M, UTP CTG5 ST CA-J
SR1201 ETIF CAU-DC: UTP CTG5 ST CA-K, UTP CTG5 ST CA-J, UTP CTG5 CRS CA-F
The cables cited in Figure 4-15 can be used in the 1-IMG system only.
HUB
Connectors for 10 BASE-T
FCH
(PA-FCHA)
(PA-M96)
CN
= 10 BASE-T Connector
Use 10 BASE-T connectors.
TP7-X
TP6-X
TP5-X
TP4-X
TP3-X
TP2-X
TP1-X
TP0-X
FRONT VIEW
FRONT VIEW
10 BASE-T
<FC H in P IM 2 (P atte rn 1 )> <FC H in P IM 2 (Pa ttern 2 )>
Figure 4-15 Examples of Ethernet Cable Connection-FCH in PIM2 (1-IMG System) (1/2)
CHAPTER 4NDA-24299
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CN
CN
CN
UTP CTG5 CRS CA-F
HUB
UTP CTG5 ST CA-J
BASEU
CNCN
CN
PIM 0
HUB
0604 0503020100
CN
CN
BSCM
LPM
0604 0503020100
<F C H in P IM2 (P a tte rn 3 )> <FCH in P IM2 (P a tte rn 4 )>
INSTALLATION
Connecting Cables
ATTENTION
Contents
Static S ens itiv e
Handling
Precautions Required
TOPU
PIM 3
PIM 2
PIM 1
PIM 0
LPM
CN
FCH
UTP CTG5 ST CA-M
CN
CN
CN
HUB
UTP CTG5 ST CA-J
FANU
CN
FCH
UTP CTG5 ST CA-J
CNCN
CN
HUB
CN
CN
0604 0503020100
BSCMBSCM
0604 0503020100
CN
FCH
FANU
UTP CTG5 ST CA-M
CN
CN
CN
HUB
UTP CTG5 ST CA-J
CN
FCH
CNCN
CN
CN
TOPU
PIM 3
UTP CTG5 ST CA-K
PIM 2
PIM 1
CN
PIM 0
CN
CN
HUB
0604 0503020100
UTP CTG5 ST CA-J
0604 0503020100
LPM
BASEU
Note:
BASEU
When dual LANIs are used in both Slot 00 and 03 of CPR (Pattern 3 or 4), be sure to use at least
two HUB cards : One HUB for internal LANI (in Sl ot 0 0) and the other for external LANI (in Slot
03). However, if this is the case, and FCH is also in a dua l configuration, the 10 BASE-T “cross”
connection between the HUBs is not required.
Figure 4-15 Examples of Ethernet Cable Connection-FCH in PIM2 (1-IMG System) (2/2)
NDA-24299CHAPTER 4
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INSTALLATION
Connecting Cables
Figure 4-16 shows some typical examples where 10 BASE-T cables are conne cted to the FCH ca rd(s) mounte d
in PIM3 of 1-IMG system, under the following conditions:
Table 4-9 Connection of 10 BASE-T Cables to FCH Card(s) in PIM3 of 1-IMG
Cables contained in eac h cable unit are as follows:
SR1201 ETIF CAU-D: UTP CTG5 ST CA-N, UTP CTG5 ST CA-J
SR1201 ETIF CAU-DD: UTP CTG5 ST CA-L, UTP CTG5 ST CA-J, UTP CTG5 CRS CA-F
The cables cited in Figure 4-16 can be used in the 1-IMG system only.
FCH
HUB
CN
Use 10 BASE- T connectors.
Connectors for 10 BASE-T
(PA-M96)
= 10 BASE-T Connector
TP7-X
TP6-X
TP5-X
TP4-X
TP3-X
TP2-X
TP1-X
TP0-X
FRONT VIEW
FRONT VIEW
(PA-FCHA)
10 BASE-T
<F CH in P IM3 (P a tte rn 1 )> <FCH in P IM3 (P a tte rn 2 )>
When dual LANIs are used in both Slot 00 and 03 of CPR (Pattern 3 or 4), be sure to use at le ast two
HUB cards: One HUB for internal LANI (in Slot 00) and the other for external LANI (in Slot 03).
However, if this is the case, and FCH is also in a dual configuration, the 10 BASE-T “cross”
connection between the HUBs is not required.
Figure 4-16 Examples of Ethernet Cable Connection-FCH in PIM3 (1-IMG System) (2/2)
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CHAPTER 4NDA-24299
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CHAPTER 5DATA PROGRAMMING
This chapter explains how to set Fusi on network data , using the following data categories:
•System Data
•Numbering Plan Data
•Station Data
•Fusion Link Data
Figure 5-1 shows the overall data programming proced ure:
System Data
Numbering Plan Data
Station Number Data
ASYDN
NCN:
LN:
ASYDL
ANPDANPDL
ASPAASPAL
STN
SSC
SSCA
OGC
OGCA
LCR
LCRS
UNIF
:
:
:
------
Physical Number
ASDT
AFMU
ALRTN
-----SSC
-----OGC
OGCA
LCR
LCRS
:
:
:
TELN Note
Telephone Number
ALGNL
ALGSL
Note: Telephone Number is
available only in self
node.
ANPDN
ASPAN
----SSC
SSCA
OGC
OGCA
LCR
LCRS
:
:
:
:
TELN
Telephone Number
ALGNN
ALGSN
Fusion Link Data
with FCH
w/o FCH
ACRD
ACRD
ACTK
AFPC
MBCT
AFCH
AFRT
AFPC
Figure 5-1 Data Programming Flow Chart
NDA-24299CHAPTER 5
ACAN
: Available command at NCN.
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DATA PROGRAMMING
Network Data Programming Summary
1. Network Data Programming Summary
This section provides a summary of the data programming of Fusion systems.
1.1 Brand-new Fusion Network
To install the Fusion network as a brand-new system, follow the overall data programming procedure
below.
1.1.1System Data
•Decide an NCN and LN on the network.
•Assign System Data for each node. Use the ASYDN command for the NCN and the ASYDL
command for all nodes. The system data includes the size of LDM, NDM, Fusion Point Code
(FPC), etc.
Note:
The data becomes effective by executing “Non-Load Initial” after setting the FPC .
•Assign unit data using the AFMU command for each node that exists on the network. Note that the
AFMU command is available at NCN only.
•Assign Logical Route Numbers for all routes (external trunk) on the network using the ALRTN
command. Note that the ALRTN command is available at NCN only.
1.1.2Numbering Plan Data
•ANPDN→ ASPAN (for NCN only): Assign numbering plan data for telephone number.
•ANPDL→ ASPAL (for NCN and LN): Assign numbering plan data for Service Codes, Trunk
Access Codes, etc., other than STN (physical station) and TELN.
•ANPD → ASPA (for NCN and LN): Assign numbering pla n data for Physical Stat ion Number using
STN.
Note:
The Numbering Plan data for the LDM and/or NDM cannot use separate Tenant Numbers (TN), so be sure
to assign the following data on the ASYDL command.
•ASYDL command, SYS1, INDEX 800
b1 = 1 (ASPAL command tenant data table development on LDM = Common)
b2 = 1 (ANPDL command tenant data table development on LDM = Common)
1.1.3Station Numbering
•Assign Telephone and/or Physical Station Numbers using the following command:
ALGNN → ALGSN: Assign telephone number on the network. (NCN only)
ASDT: Assign Physical Number for each node as required. (available for NCN and LN)
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DATA PROGRAMMING
Network Data Programming Sum ma ry
1.1.4Fusion Link Data
•Assign the Fusion link data using the following commands:
Fusion with FCH:ACRD → ACTK → ACAN → MBCT → AFCH → AFPC → AFRT
Fusion w/o FCH:ACRD → ACTK → ACAN → MBCT → AFPC
1.2 Upgrading a CCIS Network
To install the Fusion system to an existing CCIS network, follow the overall programming procedure
below:
1.2.1System Data
•Decide an NCN and LN on the network.
•Assign System Data for each node. Use the ASYDN command f or NCN and the ASYDL command
for LN. The system data includes the size of LDM, NDM, Fusion Point Code (FPC), etc.
Note:
The data becomes effective by executing “Non-Load Initial” after setting the FPC .
•Assign unit data using the AFMU command for each node that exists on the network. Note the
AFMU command is available at NCN only.
•Assign Logical Route Numbers of all routes (external trunk) on the network using the ALRTN
command. Note that the ALRTN command is available at NCN only.
1.2.2Numbering Plan Data
•ANPDN→ ASPAN (for NCN only): Assign numbering plan data for telephone number.
•When “Operator Call” or “Priority Call (ATT )” is used on the Fusion netw or k, repla ce the existing
numbering plan data f or these features using the ANPDL and ASPAL c o m mands.
Note:
The Numbering Plan data for the LDM and/or NDM cannot use separate Tenant Numbers (TN), so be sure
to assign the following data on the ASYDL command.
•ASYDL command, SYS1, INDEX 800
b1 = 1 (ASPAL command tenant data table development on LDM = Common)
b2 = 1 (ANPDL command tenant data table development on LDM = Common)
1.2.3Station Numbering
•Assign telephone numbers using the following commands :
ALGNN → ALGSN: Assign telephone number at network level. (NCN only)
1.2.4Fusion Link Data
•Assign the Fusion link data using the following commands:
Fusion with FCH: ACRD → ACTK → ACAN → MBCT → AFCH → AFPC → AFRT
Fusion w/o FCH: ACRD → ACTK→ ACAN → MBCT → AFPC
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DATA PROGRAMMING
Network Data Programming Summary
Note:
When the Fusion system i s incorpor ated in an e xisti ng CCIS networ k, all nod es must be l inked via CCIS on
the networ k .
If there are any nodes linked via ACIS alone, add the CCIS link before installing the Fusion link. (See
Figure 5-2.) Refer to CCIS-related manuals for more de tailed infor m ation.
1.3 Fusion Link Data
•Assign the Fusion link data using the following commands:
Figure 5-3 shows how to upgrade an existing CCIS network, focusing on the Numbering Plan. The example data
setting assumes the e xisting netw ork uses this par ticular numbering. F or more detaile d information on how to assi gn
telephone numbers, see Assignment of Telephone Numbers.
Assign these codes using ANPD L
and ASPAL commands if these features
are provided on the Fusion network.
Assign this using the ANPDN
and ASPAN commands.
Numbering Plan Data for Telephone Numbers
To assign telephone numbers "4xxxxx," set the Numbering Plan data at Network Control Node (in this instance Node A) as follows:
ANPDNASPAN
1st DC = 4 NND = 61st DC = 4 SSC = 16 (Logical Number)
Figure 5-3 How to Upgrade the Numbering Plan Data of an Existing CCIS Network
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DATA PROGRAMMING
Assignment of System Data
2. Assignment of System Data
STEP 1: ASYDL and ASYDN
Assign the number of data memory blocks for the Network Data Memory (NDM) and the Local Data
Memory (LDM). Use the ASYDN command for the NCN. Use the ASYDL command for all nodes.
Figure 5-4 shows ASYDL Indexes 513 and 514 as an example .
LNLN
Index 513 (LDM)=01H
ASYDL
Index 514 (NDM )=01H
LN
Note
LN
NCN
ASYDN
Index 514 (NDM )=01H
ASYDL
Index 513 (LDM)=01H
Index 514 (NDM )=01H
Note:
ASYDL must be assigned at each node on the network.
Figure 5-4 Assignment of Memory Block
(1) Assign the fo llowing data to all node s.
•ASYDL, Index 513Local Data Memory (LDM) usage
Assign 1 for bit(s) corresponding to the data memory block to be used as Local Data Memory (LDM).
Assign 01H for systems having 2M-LDM.
•ASYDL, Index 514Network Data Memory (NDM) usage
Assign 1 for bit(s) corresponding to the data memory block to be used as Network Data Memory (NDM).
Assign 01H for systems having 2M-NDM.
Allowable memory block of LDM and NDM assigned by ASYD are shown in Figure 5-5.
LN
NCN : Network Control N ode
LN: Local Node
LN
LN
LN
Each bit corresponds to one block having 2M Bytes.
block #4
block #3
block #2
block #1
block #0
block #2
block #1
block #0
LDM blocks
(INDEX 513)
N DM blo c k s
(IN D EX 514)
Note: These bits are normally assigned as "0" (i.e. "01H" is norm ally set for both INDEX 513 and 514). T he flagging of the bit(s)
is possible but only if your system sh ould use the b it-corresponding M emory Block(s) for some reaso n.
Figure 5-5 LDM and NDM Allocation (ASYDL)
(2) Assign the data to NCN only.
•ASYDN, Index 514Network Data Memory (NDM) usage
Assign 1 for bit(s) corresponding to the data memory block to be used as Network Data Memory (NDM).
Assign 01H for systems having 2M-DM.
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Relationship between Bit and Block N um ber
INDEXBit (Setting)Meaning
513
(LDM )
514
(NDM)
0 (1)
1 (0) No te
2 (0) No te
3 (0)
4 (0)
5 (0)
6 (0)
7 (0)
0 (1)
1 (0) No te
2 (0) No te
3 (0) No te
4 (0) No te
5 (0)
6 (0)
7 (0)
Mem ory Block #0
Mem ory Block #1
Mem ory Block #2
Not used
Mem ory Block #0
Mem ory Block #1
Mem ory Block #2
Mem ory Block #3
Mem ory Block #4
Not used
STEP 2: ASYDL
Assign the self-Fusion Point Code (self-FPC) at each node. FPC ranges from 1 to 253. Use the
ASYDL command. (Index 512 b0-b7)
•Index 512 self-Fusion Point Code
Assign a unique FPC for each node.
Figure 5-6 shows an example of FPC assignment.
ASYDL Index 512 (b0-b7)
10
LN
1
NCN
11
LN
LN
21
LN
DATA PROGRAMMING
Assignment of System Data
NCN: Network Control Node
LN: Local Node
22
2
LN
STEP 3: ASYDL
Note:
Provided that the DP (10 or 20 pps) is set in the Signal Selecting for Outgoing C.O./Tie Line calls, assign
this data to bit4=1 (DP relay broadcasting is valid) when a call is originated at the node which doesn’t
accommodate C.O./Tie Line Trunk. The listed conditions for DTI circuit card have to be followed:
•Firmware
•When PA-24DTR circuit card is used, turn the SW13/6C No.8 switch to OFF.
Call Origination to
C.O. line, Tie line
12
LN
24
LN
23
LN
Figure 5-6 Self-FPC Assignment
Assign the data of DP (Dial Pulse) relay broadcasting to Fusion Link using the ASYDL command
(Index 527, b4): 0/1=DP relay broadcasting is invalid/valid.
Note
PA-24DTRSP3010:Issue 11 or later
Node ANode BN ode C
NECNECNEC
FCCS
DTIDTIDTIDTI
FCCS
COT
DP signal
Pu b lic
Network
ELC
Originating Node
Node accomm odating
the C.O./Tie Line Trunk
Fusion Network
DP signal
TLT
FCCS: Fusion Call Control Signal
Figure 5-7 DP Signal Relay Broadcasting over Fusion Link (example)
NDA-24299CHAPTER 5
Private
Network
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DATA PROGRAMMING
Assignment of System Data
STEP 4: ASYDL and ASYDN
Assign other system data using the ASYDL/ASYDN command.
When Timing Start is use d, assign the fo llowing data.
Index 161b6 : 0/1=-/Timing Start using “#” code
b7 : 0/1=-/Timing Start using “*” code
Index 170b4 : 0/1=Timing Start out of Service/Timing Start in Service
Index 640Fusion Point Code (FPC) of node providing ATTCON
Note 1
Note 2
Index 704~735 (ASYDL)
FPC of the node to which ATTCON transfers the Day/Night changeov er information.
Assign FPC of a terminating node for House Phone, Off-Hook Alarm and Ring Down (IC) calls from PSTN.
Day/Night informati on is tr ans fer red from the terminating node.
Note 1:
Note 2:
Note 3:
When Timing Start is in service, Called Sub Address for ISDN Network cannot be dialed.
This data is necessary at each node. Assign the self-FPC at the terminating node.
This data is necessary at the node providing ATTCON.
Index 800
For ASYD Lb0 : 0/1 = ALGNL, ALGSL on a UGN (TN) basis/-
b1 : 0/1 = ASPAL on a TN basis/b2 : 0/1 = ANPDL on a TN basis/b4 : 0/1 = AFRSL, ASTPL, AUNEL on a TN basis/b5 : 0/1 = ASTPL on a TN basis/b7 : 0/1 = AAEDL on a TN basis/-
Note 3
For ASYD Nb0 : 0/1 = ALGNN, ALGSN on a UGN (TN) basis/-
b1 : 0/1 = ASPAN on a TN basis/b2 : 0/1 = ANPDN on a TN basis/b4 : 0/1 = AFRSN, ASTPN on a TN basis/b5 : 0/1 = ASTPN on a TN basis/b6 : 0/1 = ARSCN on a TN basis/b7 : 0/1 = AAEDN on a TN basis/-
CHAPTER 5NDA-24299
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DATA PROGRAMMING
Assignment of System Data
When “diffe rent numbe ring d evel opmen t on a TN ba sis” is not required, set the above bits. Figure 5-8 shows
the display of the ASYDN command Index 514 as an example.
1
Note 4:
Figure 5-8 ASYDN Command Display (Example)
Be sure to execute “Non-Load Initial” after setting the FPC data. The assigned FPC becomes effective by
this operation.
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DATA PROGRAMMING
Assignment of FPC and MG and UNIT into Network
3. Assignment of FPC and MG and UNIT into Network
3.1 AFMU
Assign the module accommodation data by giving Module Group Number and Unit Number on an FPC
basis. This data is necessary to allocate unique Network ID (NID) to each MG/UNIT of the whole Fusion
network nodes.
Note:
This data can be set at the NCN only . A uni que NID is assigned to each MG/UNIT aut omatically by entering
the AFMU data.
•When the Fusi on network is configured for the first time:
Enter the AFMU command data for all the Fusion network nodes (FPCs). Then, a unique NID is
assigned automatically to each MG/UNIT in the assigned order.
•When the Fusion network is already configured and a module/unit is to be expanded:
Enter the AFMU command da ta related to th e expanded module/unit. Then, a unique NID numbe r, nex t
to the last existing NID number, is automatically assigned to the expanded module/unit.
Figure 5-9 shows an example data assignment for this particular network.
MG=1
MG=0
PBX
U 3
U 2
U 0
U 1
U 3
U 2
U 1
U 0
FPC=11
MG=1
MG=0
FPC=13
U 0
U 2
U 0
PBX
LN
Node
U 1
U 3
U 1
PBX
U 3
U 2
U 0
U 1
MG=0
LN
Node
FPC=12
C
B
MAT
NCN
Node
A
PBX
U 3
U 2
MG=1
U 0
U 1
U 3
U 2
MG=0
U 1
LN
Node
D
U 0
FPC=1
Data Assignment at NCN
FPC = 1 , M G = 0, UN IT = 0
UN IT = 1
UN IT = 2
UN IT = 3
MG = 1,UNIT = 0
UN IT = 1
UN IT = 2
UN IT = 3
FPC = 11, M G = 0, UNIT = 0
UN IT = 1
UN IT = 2
UN IT = 3
MG = 1,UNIT = 0
UN IT = 1
UN IT = 2
UN IT = 3
FPC = 12, M G = 0, UNIT = 0
UN IT = 1
UN IT = 2
UN IT = 3
FPC = 13, M G = 0, UNIT = 0
UN IT = 1
UN IT = 2
UN IT = 3
MG = 1,UNIT = 0
UN IT = 1
Node A
Node B
Node C
Node D
Figure 5-9 Assignment of Module Accommodation Data
The AFMU command display should look similar to Figure 5-10.
AFMU (Assignment of FPC and MG and UN IT for Network Data Memory)
FPC
1
MG
0
WRT?
Y
Note:
For more information on each parameter, see the “Office Data Specification” manual.
CHAPTER 5NDA-24299
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UNIT
1
Figure 5-10 AFMU Command Display
FPC (Fusion Point Code): 1- 253
MG (Module Group Number): 0 - 7
FPC (Fusion Point Code): 1-253
U (U n it Nu mb er): 0 - 3
MG (Module Group Number): 0 - 7
DATA PROGRAMMING
Assignment of Logical RT in Network DM (NDM)
4. Assignment of Logical RT in Network DM (NDM)
4.1 ALRTN/ARTKN
Use this command to assign Logical Route Numbers to all external trunks used on a Fusion network.
Assign unique telephone numbers to the whole route for external trunks on the network (including COT,
DAT, Dummy Route, etc.) using this command. The data can be set at the NCN only and should be set for
ever y external route in every node . Ref er to Figure 5-11 .
The "Logical Route Numbers" should be alloted to the whole external trunks, such as the Non-F u sion trunks including COT, TLT, DAT
and LCR as well as DTI's B ch and D ch (used for Fusion). Assign the necessary data by using the ALRTN command.
Internal
Trunk
Fusion-RelatedDTI
B ch
D ch
External
COT
TLT
Non-Fusion
DAT
LCR
....
Figure 5-11 Telephone Number Required
Figure 5-12 shows an example data assignment of this “Logical Route” data.
COT: RT 3
LCN
Node C
FPC=12
NCN
Node A
FPC=1
COT: RT 25
TLT: RT 15
LCN
Node B
FPC=11
DAT: RT 23
DAT: RT 7
DAT: RT 27
DAT: RT 1
Logical Route Number
should be allotted to
all the trunks shaded here.
Assignment of Numbering Data for Telephone Numbers
The ALRTN command di splay should look similar to Figure 5-13:
DTI (PA-24DTR) Card
OPE
N-OPE
PCM
FRM
BER
RMT
AIS
SW13B
BL23
BL00
MB
CN2
SW25
1234
OFF
OFF
SW4D SW5D
12345678
12345678
OFF
OFF
SW39
2345678
1
12345678
OFF
OFF
1234
OFF
1234
OFF
1
OFF
SW58
12345678
12345678
OFF
1234
OFF
2345678
1234567
OFF
SW6C
Figure 5-13 ALRTN Command Display
5. Assignment of Numbering Data for Telephone Numbers
STEP 1: ANPDN
Make a telephone numbering plan on the network. The explanation is given here on the assumption
that the network adopts the numbering plan shown in Figure 5-14. Therefore, modify the data
assignment explained here when you ass ign the data on your network.
White numerals on black background are telephone numbers.
FPC=11
LN
Node
TELN:420000
STN 2000
B
FPC=13
LN
Node
TELN:440000
D
STN 2000
STN: Physical Station Number
TELN: Telephone Number
Figure 5-14 Telephone Numb er All oca tio n
CHAPTER 5NDA-24299
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FPC =1
NCN
Node
A
TELN:410000
STN 2000
TELN:410001
STN 2001
FPC=12
LN
Node
C
TELN:430000
STN 2000
ANPDN
ASPAN
STEP 2: ANPDN
Assign Pre-transla tion Data for t he telephone nu mbers planned in Step 1 using th e ANPDN command
at NCN. Figure 5-15 shows the data setting for ANPDN.
DATA PROGRAMMING
Assignment of Numbering Data for Telephone Numbers
- ANPDN Data Sheet (example)
- NCN (Node A)
TN = 1 1st DC = 4 CI = N (Normal) NND = 6 BLF = 0
TN = 1 1st DC = 4 CI = H (Hooking) NND = 6 BLF = 0
Figure 5-15 ANPDN Sample Data Sheet
The ANPDN command display should look similar to Figure 5-16:
ANPDN (Assignment of Numbering Plan for Network Data Memory)
TN
1N
NND
6
1stDC
4
BLF
1
CI
Telephone Number
4 x x x x x
6 digits
1stDC (1st Digit Code): ASCII 0 - 9, *, #
CI (Connection Index)
N: Normal
H: Hooking
B: Busy
Perform the Numbering Plan data setting by using ANPD command as assigned by ANPDN command.
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DATA PROGRAMMING
Assignment of Numbering Data for Telephone Numbers
STEP 3: ASPAN
Assign special acces s code data f or the telepho ne numbers usin g the ASPAN command. SRV=TELN
is the data for telephone numbers. Figure 5-17 and Figure 5-18 show a sample data sheet and
command display for ASPAN.
- ASPAN Data Sheet (example)
- NCN (Node A)
TN = 1 ACC = 4 CI = N (Normal) SRV = TELN NND = 6
TN = 1 ACC = 4 CI = H (Hooking) SRV = TELN NND = 6
Figure 5-17 ASPAN Sample Data Sheet
ASPAN (Assignment of Special Access Code Data for Network Data Memory)
CI
N
Note:
TN
1
SRV
TELN
1st DC
4
NND
6
Available SRV is telephone number only. For more information, see the “Office Data Specification”.
SRV (Kind of Service)
TELN: Telephone Number
ACC (Access Code): max 6 digits
CI (Connection Index)
N: Normal
H: Hooking
B: Busy
SRV (Kind of Service)
TELN: Telephone Number
NND (Maximum Number of Digits):
1 - 16 (digits)
Telephone Number
4 x x x x x
6 digits
Note
Figure 5-18 ASPAN Command Display
Note:
The Numbering Plan data for the LDM and/or NDM cannot use separate Tenant Numbers (TN), so be sure
to assign the following data on the ASYDL command.
•ASYDL command, SYS1, INDEX 800
b1 = 1 (ASPAL command tenant data table development on LDM = Common)
b2 = 1 (ANPDL command tenant data table development on LDM = Common)
CHAPTER 5NDA-24299
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DATA PROGRAMMING
Assignment of Telephone Numbers
6. Assignment of Telephone Numbers
This section explains how to program telephone numbers. To program telephone numbers, use ALGSN
command. A telephone number can be assigned to a station with the use of the LENs or the Physical Station
Number depending on programming.
Note:
The Fusion link must be oper a tional before telephone numbers can be programmed in the Fusion networ k.
COMMAND: ALGSN/ATSTN
Assign telephone numbers to Physic al Station Number (Type 2) or to physical LENS (Type 1) using
the ALGSN/ATSTN command. Figure 5-19 an d Figure 5-20 sh ow an example data sheet-Type 2 and
the command display for ALGSN.
- ALGSN Data Sheet (example)
- NCN (Node A )
Type = 2 UG N = 1 TE LN = 410000 F PC = 1 TN = 1 STN = 2000
Type = 2 UG N = 1 TE LN = 410001 F PC = 1 TN = 1 STN = 2000
Type = 2 UG N = 1 TE LN = 420000 F PC = 11 TN = 1 ST N = 2000
Type = 2 UG N = 1 TE LN = 430000 F PC = 12 TN = 1 ST N = 2000
Type = 2 UG N = 1 TE LN = 440000 F PC = 13 TN = 1 ST N = 2000
Note:
This data is an example of telephone numbers assigned by the ALGSN command.
Telephone Number
:
:
:
:
Figure 5-19 ALGSN Data Sheet (Example)
Physical S tation Number
Node A
Node B
Node C
Node D
NDA-24299CHAPTER 5
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DATA PROGRAMMING
Assignment of Telephone Numbers
ALGSN (Assignment of Teleph one S tat i on Data In Netw or k)
TYPE
11
TELN
41000
FPC
1
WRT?
Y
UGN
Telephone Number
LENS
000100
Physical LENS
For Help, press F1
ALGSN (Assignment of Teleph one S tat i on Data In Netw or k)
TYPE
21
TELN
41000
FPC
1
WRT?
Y
UGN
Telephone Number
TN
1
For Help, press F1
NUM
STN
2000
Physical Station Num ber
NUM
Figure 5-20 ALGSN Command Display (Example)
CHAPTER 5NDA-24299
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6.1 Assignment of Connection Route/Trunk Data
STEP 1: ACRD
Using the ACRD command, assign the connection route data of Fusion link. The data must be
assigned for both B-channel and D-channel. Assign appropriate data referring to Table 5-1.
Figure 5-21 shows an example of route numbers for B-ch and D-ch.
Route 10
M
S
0
0
4
I
2
E
A
X
N
C
E
N
DATA PROGRAMMING
Assignment of Telephone Numbers
S
M
0
I
0
2
X
4
E
A
N
C
E
Route 12
N
Node A
FPC = 1
:
Fusion Network
:
B ch
D ch
Route 11
B-ch: Bearer ChannelD-ch: Data Channel FPC: Fusion Point Code
Figure 5-21 B-ch and D-ch (Example)
The ACRD command display should look similar to Figure 5-22.
This figure shows an example of data setting for a B-ch route.
0: Calling Party Releas e
1: 2: First Party Release
3: -
CDN 4:SMDR (SMDR for station-to-station call)
Assign 0.
CDN 5:LSG (Line Signal)
12: B channel for No.7 CCIS/ISDN
13: D channel for No.7 CCIS/ISDN
DATA PROGRAMMING
Assignment of Telephone Numbers
Note:
CDN 6:PAD
Note
0: Depending Key Setting of Circuit Card
1: Send 8 dB, Receive 0 dB
2: Send 4 dB, Receive 4 dB
3: Send 8 dB, Receive 12 dB
4: Send 8 dB, Receive 8 dB
5-6: 7: 0 dB
When PAD data is assigned by AFPD command, AFPD data takes precedence over this data. For more
information on AFPD command, see the “Office Data Spe cification.”
CDN 7:TRKS (Trunk Select)
0: FIFO
1: LIFO
CDN 8:TC/EC
0: No MPC/EC
1: EC
2: MPC
3: -
CDN 9:FINT (Fusion Interface Kind)
0: Fusion
1-15: Not used
NDA-24299CHAPTER 5
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DATA PROGRAMMING
Assignment of Telephone Numbers
CDN 10:FPEG (Fusion Trunk Peg Count)
Assign 0.
CDN 11:TC (Timer Class)
0: 1: 1 sec.
2: 2 sec.
3: 8 sec.
4: 20 sec.
5-7: -
CDN 12:MTC (Miscellaneous Timer Counter)
CDN 13:STSEQ (Status Enquiry)
0: 1: cancel
CDN 14:FGH (Fusion Gateway Handler)
Assign 0.
CDN 15:MMN (Kind of Multiple Equipment)
0: TDM
1: MM-Node
2-3: -
CDN 16:Fusion Link
0: via DTI
1: via ISW
2: Fusion ove r IP (R outer)
3-15: Not used
Assign the connection trunk data of both B-channel and D-channel using the ACTK command.
Assign the Connection Equipment Number (C_LENS) referring to Figur e 5-23 through Figure 5-26 .
The ACTK co m m and display should look similar to Figure 5-23.
ACTK (Assignment of Con nection Trunk Data for Local Data Memory)
C_RT
10
C_LENS
WRT?
Y
C_TK
1
000010
Figure 5-23 ACTK Command Display (example)
The mounting location of the FCH, DTI cards can be classified into the following two types:
Regular Density Slot (16-port slot) -See Figure 5-24.
High Density Slot (32-port slot) -See Figure 5-25 and Figure 5-26.
DATA PROGRAMMING
Assignment of Telephone Numbers
C_RT: Connection Route (1-1023)
C_TK: Connection Trunk (1-4095)
C_LENS: Connection Line Equipment Number s
6.1.1When FCH is mounted in a Extended Density Slot
If the FCH is to be mounted in the Extended Density Slot, the connection trunk should be assigned as
shown in the figures below. If the card’s mounting location is in any of the Slot Nos. 04, 06, 08, or 15,
17, 19, the following extended Group should be used for the Dch trunk: G27, 29, or 31. Figure 5-24
shows an e xample where the cards are mounted in dens it y Slot s 04 or 05.
04
example
02
00
DPWR
PWR
Figure 5-24 Mounting FCH and DTI Cards in Regular Density Slots
05
06 07 08 09 10 11 12 13 14 15 16 17
23
19
15
07
06
09 11
08
10
14
13
12
18
17
16
32 Port
22
21
20
05
04
16 Port
FRONT VIEW
18
19
20
21
15
05
07
09
11
TSW/MUX
TSW/MUX
03
14
13
000102 04
06
08
10
12
16 Port
19
18
17
16
32 Port
23
23
22
21
20
PIM
22
NDA-24299CHAPTER 5
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DATA PROGRAMMING
Assignment of Telephone Numbers
Table 5-2 Data Programming Sheet for Regular Density Slot
If the FCH is to be mounted in the High Den si ty Slot, the conne ction trunk data should be assigned as
shown in Figure 5-25. Figure 5-25 shows when these cards are mounted in Slots 11 and 12.
Unbusy the connection trunk data assigned in the previous step using MBCT (Make Busy of
Connection Trunk) command. This step is required for both B-channel and D-channel trunk. The
MBCT command should look similar to Fig ure 5-27.
MBCT (Make Busy of Connection Trunk for Local)
C_RT
1
MB
0
WRT?
Y
C_TK
5
C_RT: 1-1023
C_TK: 1- 4095
Make Busy Information
0: Make Idle
1: Make Busy (Outgoing)
Figure 5-27 MBCT Command Display
7. Assignment of FCH Related Data
STEP 1: For Fusion with FCH only:
•Assign FCH Number on an FCH (PA-FCHA) circuit card basis.
•The FCH Number must conform to the following conditions:
•FCH Number range must be between 1 and 255.
•At the network level, the same FCH Numbers can be assigned. However, they must be unique at the
node level.
CHAPTER 5NDA-24299
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DATA PROGRAMMING
Assignment of FCH Related Data
Figure 5-28 shows a sample data as signment when FCH cards are locate d in the PIM 0 slot 4 and PIM 2 slot 11.
S
M
0
I
0
X
2
4
A
E
N
C
E
N
FCH card
LENS 011190
PIM 2 Slot 11
LENS: 000270FCHN=1
PIM 0 Slot 04
FCHN=2
PBX
Data Assignment
AFCH (Assignment of FCH Number for.....)
FCHN: 1 FCHEN: 00 0 27 0
FCHN: 2 FCHEN: 01 0 19 0
odd No.
Lv=0
Use "odd number" as the Group No. and "Level 0" for the FCHN.
Bch (TK8)
Bch (TK1)
example 1
(Regular-density slot 04)
DTI
Slot No.
Group No.
FCH
05
04
012703
00
02
Dch (TK1)
Bch (TK23)
Bch (TK9)
Dch (TK2)
Use this LENS.
example 2
(High-density slot 11)
DTI
Slot No.
11
Group No.
19
12
23
22
21
FCHEN
Extended Group
Dch (TK2)
xx x 19 0
MG U
FCH
Gr
Lv
20
Use this LENS.
FCHEN
xx x 27 0
MG U
Gr
Lv
Dch (TK1)
Bch (TK23)
Bch (TK17)
Bch (TK16)
Bch (TK9)
Bch (TK8)
Bch (TK1)
Figure 5-28 Assignment of FCH Number
The AFCH c ommand disp lay should look similar to Figure 5-29.
Note:
Un title d - Eclip s e Cmd
File View
Help
AF C H (A s s ig nme n t of F C CH N u m b e r fo r... ..)
FCHN
1
FCHNEN
000270
WRT?
Y
Before assigni ng FCHN, assign the tr unk data using the ACTK command.
Figure 5-29 AFCH Command Display (example)
NDA-24299CHAPTER 5
FCHN (1 -2 5 5 )
FCHEN
x x x x x x
MGUGr
Lv
MG: 0-7
U: 0-3
Group: 00 - 31
Lv: 0-7
Page 85
Revision 1.0
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