NEC ND-71762E User Manual

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Page 1

ND-71762(E)

ISSUE 2

No.7 CCIS System Manual

AUGUST, 2002

NEC Corporation

To view the latest issue of this document go to NEC Knowledgebase @ http://www.kbase.cns.nec.com.au &search for NEC-7141

Page 2

LIABILITY DISCLAIMER

NEC Corporation reserves the right to change the specifications, functions, or features, at any time, without notice.

NEC Corporation has prepared this document for use by its employees and customers. The information contained herein is the property of NEC Corporation and shall not be reproduced without prior written approval from NEC Corporation.

All brand names and product names on this document are trademarks or registered trademarks of their respective companies.

NEC Corporation

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PRODUCT LIABILITY

BEFORE THE USE OF THIS MANUAL

1. FOR SAFETY USE

Here explains the safety use for the customer, which prevents danger to the life and damage to the property accidentally. The following are symbols and their meanings. Please read the following carefully before using this manual.

SYMBOLS

DESCRIPTION

DANGER

This symbol indicates danger. You might be involved in a situation that could cause deadly and bodily injury if you take wrong action.

WARNING

This symbol indicates warning. You might be involved in a situation that could cause bodily injury and serious system fault if you take wrong action.

ATTENTION

This symbol indicates attention. The system might not acheive its performance or lead to the system stall if you take wrong action.

This telephone system is designed for use in the country NEC provides and can not be used in any other country.

If system-down, malfunction, defects, and external factors (such as electricity failure) cause profit loss indirectly, NEC does not take any responsibilities for the profit loss.

We pay careful attention to making this manual, however, when you find mistakes on this manual, notify to NEC.

Contact the supplier or the service technician if the system needs repairs and installation.

Please read all the manuals related to your system carefully.

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PRODUCT LIABILITY

2. NOTICE WHEN USED

2.1 Consideration of PBX, Power-related Equipment and Peripheral Equipment

This item describes the consideration before using PBX, the power-related equipment, and the peripheral equipment (such as console, MDF, DAU, telephone, PC, printer, etc).

Preserve the following:

DANGER

When the system gives off smoke or burning smell, it might cause a fire, an electric shock, or a failure if the system keeps operating. Turn off the power and confirm the smoke disappears, and then contact supplier.

PWR

If equipment (such as PBX, Main Power, cabinet, and peripheral equipment) fall down and be broken, turn off the power, and then contact the supplier.

If the inside of PBX or Main Power is wet by liquid such as water, turn off the power. It might cause a fire, an electric shock, or a failure if the system keeps operating.

Do not touch the internal parts of Main Power for the purpose of disassembly and remodeling. It might cause a fire, an electric shock, or a failure. (NEC does not take any responsibilities if the system or the equipment is disassembled or remodeled.)

Do not put any container (such as vase, cup, and cosmetics) on Main Power and peripheral equipment. It might cause a fire, an electric shock, or a failure.

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PRODUCT LIABILITY

DANGER

Do not damage, remake, forcefully bend, forcefully extract, nor forcefully twist an electric code and a wiring to/from PBX, Main Power and peripheral equipment. It might cause a fire, an electric shock, or a failure. If the wiring is damaged, ask the supplier to fix it.

dust

PWR

Insert the electric plug into the outlet properly. Confirm no dust is on the blade of plug; it might cause a fire.

Do not use other than the power designated when installed.

PWR

Do not try to fix or move Main Power by yourselves without the supplier or service technician’s help. Please ask them when the repair or the movement is necessary.

Do not put any metal or combustible object into a vent of PBX, Main Power, and the peripheral equipment. If the object is in those equipment, turn off the power and ask the supplier. It might cause a fire, an electric shock, or a failure if the system keeps operating.

Be careful of using the display part which the peripheral equipment has. In the case of liquid crystal, the liquid is leaked and causes harm to human body and systems.

Before connecting customer-provided equipment (such as the other company products) with NEC products such as PBX and peripheral equipment, ask the supplier and make

sure your equipment is compatible with NEC product. If it is not confirmed, do not connect them. It might cause a fire or an electric shock.

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WARNING

Fix the equipment. Do not put any object on PBX and Main Power; it might be dangerous if the object should fall down.

When plugging off a plug, be sure to grip the plug and extract it. If you grip the code and extract it, it might cause a fire and an electric shock.

If a fault is considered as the lightening cause, ask the supplier.

Other than fulfilling the appropriate humidity and temperature, it is necessary to consider the maintenance operation and the all-time ventilation in non-loading operation during day-off and night. For example, when the height above floor is 1 m (3.281 feet), the temperature should be from 20 to 25 °C (68 to 77 °F ) and the humidity should be more or less 50 %.

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PRODUCT LIABILITY

Connection:

PWR:

Rcv:

Snd:

ENT

155

Protocol:

TCP

Connection:

PWR:

Snd:

TCP

ENT

WARNING

Be careful of using a battery as following:

Rechargeable lead battery is used as the emergency battery of PBX. Check the backup for an electricity failure.

Battery electrolyte is harmful to human body. If the battery electrolyte is put on the cloth, clean it using enough amount of water.

Do not cause the battery short intentionally. Do not put it near fire or put it into fire. Do not damage it, such as disassembly, falling, and impact.

The battery life varies depending on the surroundings. The battery life is approximately three years. If the battery is used outside with high temperature, the battery life is shortened to approximately one year.

If not replacing terminal or dead battery, the PBX system will not work in case such as power failure. Besides it might cause smoking or fire due to leaking battery electrolyte. Perform the periodic diagnosis surely. Note that the battery is one of periodic replacement parts whose cost are charged to the customer. We recommend you to make a contract with supplier or service technician about the routine maintenance.

Do not touch the peripheral equipment by wet hand. Do not wet the peripheral equip-

PWR:

Snd:

155 53 13 123

Rcv:

TCP UDP

Connection:

1 2 3

5 6

ENT

ment.

Do not touch the ink head and the internal of the printer. When replacing the ink ribbon or the paper, make sure it is cool enough.

Snd Rcv:

PWR

TCP

nne

ctio

UDP

N T

155

123

Do not drop nor impact the peripheral equipment. It might cause a failure.

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Thinner

ATTENTION

Do not use benzine, thinner, and alcohol for cleaning. When it is difficult to clean dust and dirt, put weaken neutral detergent onto a cloth, and give the cloth a wiring. Clean dust and dirt with the cloth, and rub them with a dry cloth.

Do not place equipment in the following:

Locations which receive direct sunlight

Locations where the moisture exceeds the allowed level

Locations which might be wet with water, oil, and chemicals

Locations which is particularly low in temperature (such as an ice compartment)

Locations which receive the electric wave or the magnetism from TV and (two-way) radio

Locations which receive the illegal electric wave

Note that the life of PBX and Main Power is shorten if placed in the location affected by much of hydrogen sulfide or salt, such as seaside area.

2.2 Notice Regarding Lightenning Strikes

WARNING

It is necessary to take proper procedures to avoid damage to the PBX caused by local lightening strikes and other electrical surges. As for grounding conductors, there needs to be two-type grounding conductors; one is below 10 (Type 1) and the other is below 100 circuit installment, therefore, it must be used as isolated system to keep from electricity difference caused by lightening strikes. The Type 1 is used when connecting the FE of PBX, the PE of Main Power, MDF, etc. Extract the ground terminal (grounding electrode of three terminals) from the earth board same with that of the main equipment. The ground terminal attached with AC100V plug outlet is used for MAT, printer, MODEM, and measurement machine for maintenance.

Ω

Ω (Type 2). In particular, the Type 1 is used for the electronics

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2.3 Periodic Repair Parts and Disposables

PRODUCT LIABILITY

ATTENTION

Replace the periodic repair parts such as fan, battery, backup battery, HD, fuse, and display. If not change the parts and past the periodic term, sudden traffic fault might lead to the whole system failure and damaging. Replace the disposables such as ink ribbon, FD, recording paper, and headset. We recommend you to make a contract for the maintenance service.

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This page is for your notes.

PRODUCT LIABILITY ND-71762 (E) PL- 8 Issue 2

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ND-71762 (E)

ISSUE 2

AUGUST, 2002

NEAX2400 IPX

Internet Protocol eXchange

No.7 CCIS System Manual

TABLE OF CONTENTS

Page

CHAPTER 1 INTRODUCTION . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1

1.GENERAL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1

2.HOW TO FOLLOW THE MANUAL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1

2.1 Configuration of the No. 7 CCIS System Manual . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1

CHAPTER 2 GENERAL INFORMATION FOR CCIS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2

1.GENERAL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2

2.DESCRIPTION OF CCIS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2

3.SYSTEM CONFIGURATION . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4

3.1 Outline . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4

4.NETWORK CONFIGURATION . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6

4.1 Types of Network . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 8

4.2 Examples of Network Configuration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 9

4.2.1 Main-Satellite Configuration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9

4.2.2 Campus Configuration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10

4.2.3 Main-Remote Configuration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11

4.3 CCIS Network Modes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12

4.3.1 Associated Mode . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12

4.3.2 Quasi-Associated Mode . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .13

4.4 CCIS Network Redundancy . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 13

5.DIGITAL NETWORK AND NETWORK SYNCHRONIZATION . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14

5.1 Outline . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14

5.2 Office Rank . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16

5.2.1 Source Office . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16

5.2.2 Sub-Source Office . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 17

5.2.3 Receiver Office and Local Receiver Office . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 18

5.3 Clock Pulses from M-OSC/EXT. OSC and Connection with PLO/OSC . . . . . . . . . . . . . . . . . . . 19

5.4 Clocks Extracted from DTI and Connection of PLO/TSW . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 20

5.5 Automatic Clock Route Changeover . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .22

5.5.1 Automatic Route Changeover on Fault to M-OSC/EXT. OSC of Input Clock Route . . . . 22

5.5.2 Automatic Route Changeover on Fault to DTI of Input Clock Route . . . . . . . . . . . . . . . . 22

6.NETWORK THROUGH FCCS GROUPS AND NEAX2000 IPS Internet Protocol Server . . . . . . . . . . . 25

6.1 Network Configuration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 25

6.2 Conditions for Network Establishment . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .26

6.3 FCCS Group (FUG) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 27

6.4 Interactions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 28

CHAPTER 3 SWITCH SETTING SHEETS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29

1.GENERAL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29

2.LIST OF CIRCUIT CARDS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29

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TABLE OF CONTENTS (CONTINUED)

Page

CHAPTER 4 INSTALLATION PROCEDURE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 30

1.GENERAL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 30

2.PRECAUTIONS ON INSTALLATION . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 30

3.INSTALLATION PROCEDURE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 32

3.1 General Flow of Installation Procedure . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 32

3.2 Setting of Switch Positions and Mounting of the Circuit Cards . . . . . . . . . . . . . . . . . . . . . . . . . . 33

3.3 Cable Termination and Cross Connection from the MDF to the DSU . . . . . . . . . . . . . . . . . . . . . 35

3.4 Front Cable Connection between DTI and CCH . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 43

3.5 Cable Running from PBX to the MODEM for Analog CCIS Line . . . . . . . . . . . . . . . . . . . . . . . . . 44

CHAPTER 5 INSTALLATION TEST PROCEDURE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 49

1.GENERAL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 49

2.INSTALLATION TEST PROCEDURE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 49

2.1 Overall Test for CCIS Line . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 49

2.1.1 Overall Test of CCIS Tie Line Outgoing Call . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 50

2.1.2 Overall Test of CCIS Tie Line Incoming Call . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 52

2.1.3 Test of Connection and Alternate Routing to All Tie Lines . . . . . . . . . . . . . . . . . . . . . . . . 53

2.1.4 Test of Tandem Connection to Tie Line . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 55

2.1.5 PAD Setting . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 57

2.2 CCIS Service Feature Functional Test . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .58

2.2.1 Test of Interoffice Station to Station Connection . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 59

2.2.2 Test of Outgoing Call Connection to Tie Line Trunk . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 60

2.2.3 Test of Transfer Services . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 61

2.2.4 Test of Services from ATTCON . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62

2.2.5 Test of other Services . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 63

3.TEST RESULT REPORT . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64

3.1 CCIS Service Feature Functional Test . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .64

3.1.1 Test of Interoffice Station to Station Connection . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64

3.1.2 Test of Outgoing Call Connection to Tie Line Trunk . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64

3.1.3 Test of Transfer Services . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64

3.1.4 Test of Services from ATTCON . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 65

3.1.5 Test of Other Services . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 65

CHAPTER 6 BASIC DATA ASSIGNMENT . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66

1.GENERAL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66

2.DATA ASSIGNMENT . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 67

2.1 Port Allocation and Related Command . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 67

2.2 Basic Data Assignment Procedure . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 68

2.3 FCCS Data Assignment Procedure . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .76

CHAPTER 7 CCIS SERVICE FEATURES . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 81

1.GENERAL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 81

CHAPTER 8 MAINTENANCE PROCEDURE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 84

1.GENERAL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 84

2.SYSTEM MESSAGES . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 84

2.1 The Relationship between System Messages and Lamp Indications . . . . . . . . . . . . . . . . . . . . . 85

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TABLE OF CONTENTS (CONTINUED)

Page

2.2 Technical Terms for Explaining Message Detail Data . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 86

2.2.1 Circuit Card Mounting Information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 87

2.3 How to Proceed with Diagnostic Work from System Message . . . . . . . . . . . . . . . . . . . . . . . . . . 89

2.4 System Messages . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 91

3.CCIS (Common Channel Interoffice Signaling) Line Fault . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 114

3.1 Check Point . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 114

3.2 CCIS Line Control . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 114

3.3 Fault Repair Procedure for Digital CCIS Line . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 115

3.4 Fault Repair Procedure for Analog CCIS Line . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 116

4.CCIS LINE OPERATING MODE CONTROL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 118

5.INSERTION/EXTRACTION OF CIRCUIT CARDS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 119

5.1 CCH Circuit Card . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 119

5.2 DTI Circuit Card . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 120

5.3 CCT Circuit Card . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 121

5.4 PLO/OSC Circuit Card . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 122

ND-71762 (E) TABLE OF CONTENTS

Page iii Issue 2

Page 14

This page is for your notes.

TABLE OF CONTENTS ND-71762 (E) Page iv Issue 2

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INTRODUCTION

CHAPTER 1 INTRODUCTION

1. GENERAL

This manual describes the installation procedures, maintenance, etc. for connecting No. 7 CCIS (Common Channel Interoffice Signaling) lines to the PBX. The configuration of this manual is described in Section 2: “HOW TO FOLLOW THE MANUAL” of this chapter.

2. HOW TO FOLLOW THE MANUAL

2.1 Configuration of the No. 7 CCIS System Manual

Table 1-1 Configuration of the No. 7 CCIS System Manual

CHAPTER TITLE DESCRIPTION

1 INTRODUCTION Describes the No. 7 CCIS System Manual and how to use it.

3 SWITCH SETTING SHEETS Describes the switch setting for each circuit card.

4 INSTALLATION PROCEDURE Describes how to connect CCIS lines to the PBX.

6 BASIC DATA ASSIGNMENT Describes the basic data assignment for establishing CCIS link.

8 MAINTENANCE PROCEDURE Describes the PBX maintenance procedure for CCIS.

Note: Because the system name varies depending on the country to be provided, each system is described as fol-

GENERAL INFORMATION FOR CCIS

INSTALLATION TEST PROCEDURE

CCIS SERVICE FEATURES Describes the functions, operating procedure, and office data as-

Describes the specification and configuration of the PBX.

Describes the PBX installation test procedure for CCIS.

signment procedure for each CCIS service feature.

lows in this manual.

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CHAPTER 2 GENERAL INFORMATION FOR CCIS

1. GENERAL

This chapter describes the functional outline of CCIS, hardware required for CCIS, and service features which can be provided by CCIS.

2. DESCRIPTION OF CCIS

The modular architecture and wide range of voice and data features available with the digital PBX’s have been developed with emphasis on continued enhancement within a single PBX. In order to meet the growing demand for further enhancement on a network level, NEC developed a networking system employing Common Channel Interoffice Signaling (CCIS). The CCIS system links together individual PBX systems (nodes) to form a transparent voice and data network which acts as a single large PBX, even though terminals within the network are, in fact, connected to different PBX’s. Common Channel Interoffice Signaling (CCIS) derives its name from the fact that a signaling channel (link), separate from voice and data channels, is provided between nodes for the sole purpose of signal exchange. This signaling link is used in common by all voice and data links for exchange of information relating to addressing (e.g. dialed digits, calling/called number); supervisory functions (e.g. call setup and termination); and network accounting and management (e.g. centralized billing and fault reporting.) This is unlike conventional tie line networks which exchange signaling information over the same links as are for voice transmission (Associated Channel Interoffice Signaling.) The block diagrams in Figure 2-1 and 2-2 illustrate the difference between Common Channel Interoffice Signalling (CCIS) and Associated Channel (In-band) Interoffice Signaling (ACIS).

Figure 2-1 Associated Channel (In-Band) Interoffice Signaling

SIGNALING AND VOICE VIA THE SAME LINK

TRUNK TRUNK

SND REG REG

CONTROL CONTROL

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GENERAL INFORMATION FOR CCIS

Figure 2-2 Common Channel Interoffice Signaling

COMMUNICATION LINK

SIGNALING LINK

REG

CONTROL CONTROL

Some advantages of the separate signaling link provided by CCIS are:

(a) Network Transparency

Because CCIS allows data relating to service features and station/trunk status to be exchanged between nodes at a high rate of speed (64 Kbps), service is provided to all users as though the CCIS network was a single PBX.

(b) Centralized Facilities

Centralized Management: Fault messages from all nodes can be directed to one centralized (management)

node.

Centralized Billing: Billing information for all nodes in the network can be processed at one central

location.

Centralized Attendant Service: It is not necessary in a CCIS network to have an Attendant Console at each

node in the network. Attendant services can be provided to multiple nodes from one or more central location(s).

Because network signaling is carried over separate signaling links, more efficient use can be made for network trunks (reduced call holding time, reduced connection time, etc.). In another word, the number of trunk circuits, which required to provide a specified traffic capacity, can be reduced.

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(d) Network Reliability

Alternate Routing provides the CCIS network with maximum reliability. If the signaling link between two nodes should fail, signaling is sent over an alternate route, via another node, without loss of service. Directlyconnected redundant links can also be provided to assure the reliability of the network.

(e) Reduction in Personnel

Because management, cost accounting, and services, such as Attendant operation, can be centralized, the number of people necessary to administer the network can be reduced.

(f) Reduced Hardware

Signaling over a common channel; better utilization of trunking facilities; and centralized management and services all result in a vast reduction in hardware when a CCIS network, rather than a conventional Tie line network, is used.

3. SYSTEM CONFIGURATION

3.1 Outline

This Section describes the hardware configuration and its specification, the names of interface equipment and other related subjects. Figure 2-3 shows No. 7 hardware configuration, respectively. The control signal circuit used for CCIS is classified into the digital circuit and analog circuit. The CCH card can be used for both digital and analog control signal circuit and the CCT card is used for digital one. CCH sends control signals to and receives from the distant office. Also, for network synchronization, PLO/OSC or TSW (Phase Lock Oscillator/Oscillator or Time Division Switch) are used. For the analog control signal circuit, CCH circuit card is used with MODEM.

Table 2-1 shows the CCIS interface specifications and their applications.

Table 2-1 CCIS Interface Specifications

TYPE OF

FACILITY

Voice Frequency Circuit

1.544 Mbps 48-64 kbps T1-D3 T1 Channel Used with T1 (24DTI) lines.

2.048 Mbps 64 kbps E1 E1 Channel Used with E1 (30 DTI) lines.

AT&T IS DDS 56 kbps V. 35,

SIGNALING

RATE

4.8 kbps RS-232C, V. 24, V. 28MODEM V27

INTERFACE

SPECIFICATION

V. 28/V.11

INTERFACE

EQUIPMENT

or equivalent

NEC DCP DSU or equivalent

APPLICATION

Used for a CCIS Tie Line (4ODT) Network.

Used if network has extensive Tie Lines, with heavy traffic conditions, and AT&T IS Digital Data Service is available.

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GENERAL INFORMATION FOR CCIS

Figure 2-3 Hardware Configuration of No. 7 CCIS System

No.7 CCIS Speech Line and Signalling Line

No.7 CCIS Speech Line

No.7 CCIS Signalling Line

MDF

CCT

Note 1

DTI

CCH

Note 1

TRK

CCHMODEM

Note 2

Speech

Path

System

PLO

Note 1: When using one channel of the DTI as the Control Link. Note 2: When using Analog MODEM as the Control Link.

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4. NETWORK CONFIGURATION

With application of No. 7 CCIS added to the PBX, a network of multiple functions as if it were a single PBX. Since calls can be freely transferred between one PBX and another, most of the existing station services can be ap-

plied to inter-PBX call connections.

Further, using the CENTRALIZED BILLING-CCIS service and the CENTRALIZED SYSTEM MANAGEMENT REPORT-CCIS service, billing information and fault information can be processed at one center point instead of processing at each PBX concerned. Figure 2-4 shows an example of PBX interoffice network for CCIS Digital Line, and Figure 2-5 shows an example of network configuration for CCIS Analog Line.

Figure 2-4 Example of Network Configuration for CCIS Digital Line

ATI

PBX

DTI

CCH

CCT

COT C.O

DTI

CCH

CCT

PBX

ATI

Failure, charging information

PBXPBX

DTI

CCH

DTI

CCH

CCT

COT

DTI

CCH

C.O

DTI

CCH

CCT

ATI

One channel of DTI shall be used for signals.

indicates a speech line. indicates a signal line.

COT

C.O

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COT

C.O

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GENERAL INFORMATION FOR CCIS

Figure 2-5 Example of Network Configuration for CCIS Analog Line

ATI

PBX

TRK

CCH

COT

TRK

CCH

COT

MODEM

C.O

PBX

ATI

Failure, charging information

PBXPBX

ATI

COT

TRK

CCH

TRK

CCH

COT

C.O

MODEM

MODEMMODEM

C.O

indicates a speech line. indicates a signal line.

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4.1 Types of Network

CCIS networks can be divided into the following types, depending upon the numbering plan used:

Main-Satellite Networks Main-Remote/Campus Networks

Both networks provide uniformity of services throughout the CCIS network, and, because of numbering plan flexibility, station users are not conscious of the distance between nodes.

Main/Satellite Network: In this type of network, offices are connected by means of a numbering plan consisting of a three-digit office code, which denotes the location, and four-digit station numbers. An example of a Main/Satellite Network is shown in Figure 2-6.

Main-Remote/Campus Network: In these types of networks, offices are connected by means of a numbering plan consisting of four or five digit station numbers. The first one or two digit(s) of these station numbers are used to denote the location. An example of a Main-Campus Network is shown in Figure 2-7. Figure 2-8 shows an example of a Main-Remote Network. In this network, a part of the Main Office is installed as a Remote Office at a nearby site, either within or outside the premises of the Main Office. An advantage of this network is that it requires far less cabling than would be necessary if stations were connected to a single PBX. Network numbering specifications are summarized in Table 2-2.

TYPE OF

NETWORK:

NUMBERING PLAN:

ACCESS METHOD

NETWORK SIZE:

Table 2-2 Network Specifications

MAIN-SATELLITE NETWORK

Office Code: Three digits

Sta. No.:Four digits

-XXX-XXXX XXXXX

Sta. No.

Office Code

Access Code

Large (Nationwide)

MAIN-REMOTE/CAMPUS

Office Code: First one or two digits of

Sta. No.: Max. five digits

Small (PBX Premises)/ Medium (Local Area)

NETWORK

Station Number.

Sta. No.

Office Code

REMARKS

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GENERAL INFORMATION FOR CCIS

4.2 Examples of Network Configuration

4.2.1 Main-Satellite Configuration

Figure 2-6 shows an example of a Main/Satellite configuration for a nationwide corporate network. This type of network results in cost savings and increased efficiency by providing:

• Leased lines versus toll lines.

• Centralized Attendant Service.

• One central location for call accounting.

• A central MAT (Maintenance Administration Terminal) for network management, control and remote maintenance.

• Seven-digit on-net numbering.

• Feature transparency.

226-XXXX

225-XXXX

CITY

Figure 2-6 Nationwide Corporation

CORPORATE

HEADQUARTERS

227

ALL

CONSOLES

CITY

CENTRALIZED

BILLING AND

MANAGEMENT

CITY

222-XXXX

223-XXXX

224-XXXX

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4.2.2 Campus Configuration

Figure 2-7 shows an example of a Campus network. This type of network provides:

• A uniform numbering plan: the first one or two digit(s) of the station number indicate(s) the location. In this numbering plan, four and/or five-digit station numbering can be used.

• Network access to Common Carrier services.

• Centralized Attendant service and network maintenance.

Figure 2-7 University/Campus Environment

61XXX

DORMITORY

LOCAL

TRUNKS

60XX

COMMON

CARRIER

ADMIN.

BLDG.

AND

COMPUTER

CENTER

LECTURE

HALL

CENTRALIZED

BILLING

CENTRALIZED

MANAGEMENT

LIBRARY

63XX

62XXX

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4.2.3 Main-Remote Configuration

Figure 2-8 shows an example of a Main/Remote configuration for a manufacturing/plant environment. This type of network provides the following advantages:

• A central trunk location for trunking efficiency.

• Centralized management capability.

• Centralized attendant service.

• Centralized billing for inter-departmental accounting.

• Four digit inter-building and intra-city numbering.

• Feature transparency.

• Reduced calling.

Figure 2-8 Manufacturing/Plant Environment

4XXX

5XXX

PLANT 1

PLANT 2

CENTRALIZED

ALL

CONSOLES

BILLING

MAIN

OFFICE

3XXX

CENTRALIZED MANAGEMENT

TRAINING

CENTER

61XX

ALL

TRUNKS

WAREHOUSE

60XX

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4.3 CCIS Network Modes

The signaling channels of a CCIS network can be connected in one of two ways: Associated Mode or Quasi-Associated Mode.

4.3.1 Associated Mode

An Associated Mode network is configured with a signaling channel (data link) between all nodes in the network. Signaling functions for all inter-node calls are carried over these dedicated signaling channels. In an Associated Mode Network, if one of the signaling links should fail, signaling can easily be rerouted via another node. An example of an Associated Mode network is shown in Figure 2-9 below.

Figure 2-9 Associated Mode Network

NODE

Communication Channel

Common Signaling Channel

NODE

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4.3.2 Quasi-Associated Mode

In Figure 2-10 below, nodes A and B, and A and C are connected in the Associated Mode. Nodes B and C are connected in the Quasi-Associated Mode. In this configuration, signaling data between nodes B and C is routed via node A, while the communication channels are established directly between nodes B and C. This type of network reduces the hardware necessary to establish the signaling links.

Figure 2-10 Quasi-Associated Mode Network

NODE

Communication Channel

Common Signaling Channel

NODE

4.4 CCIS Network Redundancy

To provide maximum network reliability, two levels of redundancy are provided for the signaling links.

(1) Signaling Channel Redundancy

Redundancy of the inter-node signaling links is provided directly between the nodes by adding one more link than is necessary for the signaling traffic. This is the N+1 method. If one link fails, signaling is automatically routed via an alternate link.

(2) Alternate Signaling Path Redundancy

An alternate method of providing network signaling redundancy is to configure the network so that an alternate path is provided between the nodes. In the network shown in Figure 2-9, if the signaling link(s) directly connecting nodes B and C should fail, the signaling would automatically be reconnected via node A without loss of service. (Node A would be designated as the Signaling Transfer Point [STP]).

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>=>=>

5. DIGITAL NETWORK AND NETWORK SYNCHRONIZATION

5.1 Outline

To set up a digital network, it is necessary to establish clock level synchronization among the offices composing the network. Among various kinds of synchronizing methods, the PBX is using Receiver synchronization as the standard method. As for the office ranks, there are the following four kinds:

• Source Office

• Sub-Source Office

• Receiver Office

• Local Receiver Office

Refer to Table 2-3 for synchronization method at network-level. For types of PBX applicable for each office hierarchy, refer to Table 2-4.

Table 2-3 Office Ranks and Kind of Oscillator

OFFICE RANK

Source Office

Sub-Source Office

Receiver office

Local Receiver Office

OSC M-OSC

(Note 2)

—

——

—— —

EXT. OSC

(Note 1)

—— —

(High Precision Oscillator)

××

PLO/OSC

PLO/TSW

(Subordinate Oscillator)

—

××

REMARKS

×: Applicable —: Not Applicable

The clock precision is as follows. M-OSC EXT. OSC High precision - PLO/OSC Subordinate - PLO/TSW

Note 1: M-OSC (Master Oscillator) and EXT. OSC (External Oscillator <for back up>) is not to be furnished by

NEC.

Note 2: High Precision Oscillator - PLO (PH-CK17) / OSC (PA-CK14)

Subordinate Oscillator - PLO (PH-CK16) / TSW (PH-SW10) For the 1-IMG system, the OSC/TSW card is used in place of PLO.

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Table 2-4 Office Hierarchy and PBX

GENERAL INFORMATION FOR CCIS

SYSTEM

Single System Dual System REMARKS

OFFICE RANK

Source Office

Sub-Source Office

Receiver office

Local Receiver Office

×: Applicable —: Not Applicable

—

××

S: SOURCE OFFICE SS: SUB-SOURCE OFFICE R: RECEIVER OFFICE LR: LOCAL RECEIVER OFFICE : DIRECTION OF CLOCK SIGNAL SUPPLY

LR LR LR

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5.2 Office Rank

5.2.1 Source Office

The Source Office supplies clock pulses generated by the M-OSC in the self office to the PLO/OSC (High Precision Oscillator) in the self office. Figure 2-11 shows the clock supply routes.

Figure 2-11 Clock Supply Routes

This figure shows an example of the clock supply routes when the PLO0 is in ACT side.

Two systems each

M-OSC 0

M-OSC 1

PLO 0

(PH-CK17)

/OSC 0

(PA-CK14)

ACT Change

PLO 1

(PH-CK17)

/OSC 1

(PA-CK14)

ACT

32.768 MHz

8 kHz (FH)

To Switch System side

Clock Synchronization

Note: For 1-IMG system, the OSC (PA-CK14) card is used. For 4-IMG system, PLO (PH-CK17) card is

used.

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5.2.2 Sub-Source Office

The Sub-Source Office extracts carrier clocks (24DTI: 1.544 MHz/30DTI: 2.048 MHz) from the DTI opposing to the Source Office and supplies them to the PLO/OSC (High Precision Oscillator) in the user office. In preparation for complete clock down from the Source Office, the Sub-Source Office is provided with external oscillators (EXT. OSC) for backup. Figure 2-12 shows the routes for carrier clock extraction and for backup clocks.

Figure 2-12 Clock Extraction and Backup Routes

This figure shows an example of the clock supply routes when the PLO0 is in ACT side.

Two systems each

From DTI

External

OSC 0

External

OSC 1

Clock receiving route

(max. 4 routes)

PLO 0

(PH-CK17)

/OSC 0

(PA-CK14)

ACT Change

PLO 1

(PH-CK17)

/OSC 1

(PA-CK14)

ACT

32.768 MHz

8 kHz (FH)

To Switch System side

CLOCK Synchronization

For Backup

Note: The OSC (PA-CK14) card is used for the 1-IMG system only.

The PLO (PH-CK17) card is used for the 4-IMG system.

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5.2.3 Receiver Office and Local Receiver Office

For connecting the DTI (Digital Trunk Interface) of the user office to the DTI of a higher-ranking office, the user office must establish clock synchronization with the higher-ranking office concerned. A Receiver Office or a Local Receiver Office extracts carrier clocks (24DTI: 1.544 MHz/30DTI: 2.048 MHz) from the DTI opposing to the higher-ranking office and establishes clock synchronization with the higher-ranking office by supplying the extracted carrier clocks to the PLO/TSW (Subordinate oscillator) in the user office. Figure 2-13 shows the routes for clock extraction.

Figure 2-13 Routes for Extracted Clocks

This figure shows an example of the clock supply routes when PLO0/TSW0 is in ACT side.

Two systems each

From DTI

Clock receiving route

(max. 4 routes)

PLO 0

(PH-CK16)

/TSW 0

(PH-SW10)

ACT Change

PLO 1

(PH-CK16)

/TSW 1

(PH-SW10)

ACT

32.768 MHz

8 kHz (FH)

To Switch System side

CLOCK Synchronization

Note: The TSW (PH-SW10) card is used for the 1-IMG system only.

The PLO (PH-CK16) card is used for the 4-IMG system.

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5.3 Clock Pulses from M-OSC/EXT. OSC and Connection with PLO/OSC

Two clock pulses from the M-OSC/EXT. OSC can be supplied to each PLO/OSC. Figure 2-14 shows the diagram of connection between the M-OSC and the PLO/OSC.

Figure 2-14 Diagram of Connections between M-OSC and PLO/OSC

IDF/MDF for PCM

Route 3

Route 2

Route 1

Route 0

M-OSC 1

M-OSC/EXT. OSC

M-OSC 0

Installation Cable (25p)

Route 3

Route 2

Route 1

Route 0

M-OSC 1

M-OSC 0

PLO 1

(PH-CK17)

/OSC 1

(PA-CK14)

Backplane wiring

Cross-connection of PLOs

Multiple-connection of DTIs

PLO 0

(PH-CK17)

/OSC 0

(PA-CK14)

Note: The OSC (PA-CK14) card is used for the 1-IMG system only.

The PLO (PH-CK17) card is used for the 4-IMG system.

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5.4 Clocks Extracted from DTI and Connection of PLO/TSW

Extracted clocks for a maximum four routes can be supplied to the PLO/TSW. The priority among the four routes is Route 0, 1, 2, and 3 in an ascending order. To supply extracted clocks to the PLO/TSW, the Champ-connector cable extending from the DTI and the Champconnector cable extending from the PLO/TSW are brought into the IDF/MDF for the PCM, where they are to be connected with each other. Figure 2-15 shows the diagram of connections between the PLO/TSW and the DTI.

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GENERAL INFORMATION FOR CCIS

Figure 2-15 Diagram of Connections between PLO/TSW and DTI

IDF/MDF for PCM

In-House Cable for PCM End-end grounding (Shielded cable)

PCM

Champ Connector (LT Connector)

Installation cable (25p)

BWB

DTI 3

DTI 2

DTI 1

DTI 0

Cross- Connection wires

Champ Connector

Route 3

Route 2

Route 1

Route 0

M-OSC 1

M-OSC 0

Route 3

Route 2

Route 1

Route 0 M-OSC 1

M-OSC 0

Note: The TSW (PH-SW10) card is used for the 1-IMG system only.

The PLO (PH-CK16) card is used for the 4-IMG system.

PIM

BWB

PIM/TSWM/ISWM

PLO 1

(PH-CK16)

/TSW

(PH-SW10)

Installation cable (25p)

PLO 0

(PH-CK16)

/TSW

(PH-SW10)

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5.5 Automatic Clock Route Changeover

5.5.1 Automatic Route Changeover on Fault to M-OSC/EXT. OSC of Input Clock Route

Priority order for automatic route changeover on fault occurrence to the M-OSC/EXT. OSC which are supplying clocks is shown in Figure 2-16.

Figure 2-16 Route Automatic Changeover Priority Order (DCS connection)

Changeover

sequence

M-OSC/EXT.OSC 0

M-OSC/EXT.OSC 1

PLO/OSC Self Running

High

Priority order

Low

5.5.2 Automatic Route Changeover on Fault to DTI of Input Clock Route

Priority order for automatic route changeover on fault occurrence to the DTI which is extracting clocks is shown in Figure 2-17.

Figure 2-17 Route Automatic Changeover Priority Order (DTI connection)

Changeover

sequence

Route 0

High

Route 1

Route 2

Route 3

PLO/TSW Self Running

CHAPTER 2 ND-71762 (E) Page 22 Issue 2

Priority order

Low

Page 37

GENERAL INFORMATION FOR CCIS

Table 2-5 shows the algorithm for changeover of input clocks from the DTI. The Table shows how the PLO selects a specific route for input clocks according to the input clock status of four routes, thus establishing clock synchronization. For example, in a case where Route 1, which has been selected due to a fault occurrence to clock input Route 0, has also become faulty, Table 2-5 should be looked up as follows:

STEP 1: Look at Route 1 block under “Selected Route Before changeover” (the current input clock route) column.

STEP 2: Under “Each Route Input Clock Status” column, look for the block which shows that only Routes 0 and

1 are faulty.

STEP 3: Under “Route To Be Selected After Changeover” column located at the right extremity of the Table,

Route 2 is indicated in the block corresponding to the block found in Step 2.

If a route of which priority order is higher than the current route has been restored to normal, the route is changed over to that specific route.

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Table 2-5 Algorithm of Changeover of Input Clocks from DTI

SELECTED

ROUTE BEFORE

CHANGEOVER

Route 0

Route 1

Route 2

EACH ROUTE INPUT CLOCK STATUS (Note)

ROUTE 0 ROUTE 1 ROUTE 2 ROUTE 3

ROUTE TO BE

SELECTED AFTER

CHANGEOVER

— × ** Route 1

—— × *Route 2

——— × Route 3

— — — — PLO/TSW Self Running

× *** Route 0

—— × *Route 2

——— × Route 3

— — — — PLO/TSW Self Running

× *** Route 0

— × ** Route 1

——— × Route 3

REMARKS

Route 3

Note:

— — — — PLO/TSW Self Running

× *** Route 0

— × ** Route 1

—— × *Route 2

— — — — PLO/TSW Self Running

Priority order is Route 0, 1, 2, and 3 in an ascending order. × :Normal — : Fault (Clock Down, etc.) * : Normal or Faulty

• When power for the PLO/TSW is turned on, Route 0 is selected.

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...

6. NETWORK THROUGH FCCS GROUPS AND NEAX2000 IPS Internet Protocol Server

6.1 Network Configuration

The network through multiple FCCS Networks (FCCS Groups) and NEAX2000 IPS Internet Protocol Server system can be realized to manage the telephone number data in those systems altogether and to centralize functions in the network.

* FCCS Group: network where multiple NEAX2400 IPXs are connected via FCCS link. * In this section, NEAX 2400 IPX system is described as IPX and NEAX2000 IPS Internet Protocol Server system

is described as IPS.

This figure shows an example of centralized functions activation.

IPS

Node A

;:;;::;:

;:;::;::;:

Node G

Centralized System Manage

-ment Report-CCIS Alarm information occurred at IPXs in FCCS Groups and IPS can be collected via Centralized MAT.

Centralized Maintenance - CCIS IPXs in FCCS Groups and IPS can be managed via Centralized MAT.

Node B

FCCS Network

;:;;::;:

;:;::;::;:

Centralized MAT

Node C

Node D

;:;;::;:

;:;::;::;:

FCCS Network

ALARM

Node E

Number Portability - CCIS

Telephone Number data can be carried to the remote FCCS Network via simple command operation.

;:;;::;:

;:;::;::;:

... ... ... ... ...

200000 390000

;:;;::;:

;:;::;::;:

Node F

;:;;::;:

;:;::;::;:

390000 200000

: FCCS

: : CCIS

...

... ...

...

... ...

...

... ...

...

... ...

ND-71762 (E) CHAPTER 2

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Issue 2

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GENERAL INFORMATION FOR CCIS

1. The following table shows the network type classification.

CONNECTION TYPE A MAXIMUM

TYPE

IPX - IPX IPS - IPX IPX - IPX IPS - IPX

1 FCCS CCIS 120,000 FCCS service CCIS service

2 CCIS CCIS 120,000 CCIS service CCIS service

NUMBER OF TELEPHONE

NUMBER

SERVICE

IPX: NEAX 2400 IPX IPS: NEAX 2000 IPS Internet Protocol Server

For these network types, the following services are realized or enhanced.

Number Portability - CCIS [N-46] Centralized Maintenance - CCIS [C-167] Centralized Billing - CCIS [C-55] Centralized System Management Report - CCIS [C-57] Message Center Interface - CCIS [C-67]

For availability of the other services in this network, see “Feature and Specifications Manual”.

2. There are two connection types for the network. a.) IPS - IPX connection b.) IPX - IPX connection

6.2 Conditions for Network Establishment

• IPS - IPX

1. Additional IPS cannot be connected to IPS that has already been connected with IPX. (Only one SPAN is allowed for IPX-IPS connection.)

2. A maximum number of routes and that of nodes for the IPS system are given by subtracting the number of routes (LGRT) used for the IPX system from 899 (maximum number of routes in an FCCS group).

Note: This condition is applied to the IPX side. The IPS system may accommodate up to 255 nodes (including IPX)

because the maximum number of Point Codes (PCs) assigned at IPS system is 255.

3. When a signal route is deleted, another signal route can be shared with multiple routes (the voice route is required per route). However, when the network is established using EVENT BASED-CCIS (For details, ISDN System Data Design Manual), the signal route is required per route.

• IPX - IPX

1. The maximum number of nodes per FCCS group is 253.

2. The maximum number of routes assigned in each FCCS group is 899.

3. An individual NCN and NDM exist in each FCCS group.

CHAPTER 2 ND-71762 (E) Page 26 Issue 2

Page 41

GENERAL INFORMATION FOR CCIS

6.3 FCCS Group (FUG)

1. Since multiple FCCS networks are connected in the network, FCCS network group number is required to distinguish each FCCS network from others. An FCCS network group is called FCCS group (FUG), and a maximum of 4 FUGs can be connected in the network.

2. A center FUG should be specified from among multiple FUGs in the network. It is the sole node allowed assigning and deleting telephone numbers within the self FUG and the others.

3. The network consists of FUGs and NEAX2000IPS systems within the range of 2 SPANs from the center FUG and within the range of 4 SPANs from end to end.

NETWORK CONFIGURATION

FUG1

2SPAN

1SPAN

IPX

;:;;::;:

;:;::;::;:

IPX

;:;;::;:

CCIS

FUG2 (Center FUG)

CCIS

;:;;::;:

IPX

;:;::;::;:

;:;;::;:

IPX

;:;::;::;:

IPX IPX

;:;;::;:

;:;::;::;:

;:;;::;:

;:;::;::;:

CCIS

2SPAN

1SPAN

FUG4

;:;::;::;:

;:;;::;:

;:;::;::;:

IPX

;:;;::;:

;:;::;::;:

IPX

;:;;::;:

;:;::;::;:

CCIS

IPX

1SPAN

IPX

;:;;::;:

;:;::;::;:

IPX IPX

;:;;::;:

;:;::;::;:

;:;;::;:

;:;::;::;:

CCIS

2SPAN

CCIS

FUG3

IPX

;:;;::;:

1SPAN

Centralized MAT

;:;;::;:

;:;::;::;:

IPX

IPX IPX

;:;;::;:

;:;::;::;:

;:;;::;:

;:;::;::;:

CCIS

2SPAN2SPAN

ND-71762 (E) CHAPTER 2

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GENERAL INFORMATION FOR CCIS

6.4 Interactions

1. PS Roaming and Hand-over services cannot be activated in the network. To execute Roaming service, the Q.931a line should be connected exclusively.

2. The OAI/ACD service in the network is executed on the same condition in the normal CCIS network.

3. ISDN transmitting information (16-digit caller number service. Attribute information notification service (BC, LLC, HLC) and Calling sub-address transfer service) assigned by ARTD, CDN98: CI = 1 can be transmitted for the IPX to IPX connection only.

4. Broad Band (N × 64kbps tranfer rate) is available for the IPX to IPX connection only.

5. ATTENDANT CONSOLE [A-3] (see Feature Programming Manual) service is available only if the attendant console in the IPX is used.

CHAPTER 2 ND-71762 (E) Page 28 Issue 2

Page 43

SWITCH SETTING SHEETS

CHAPTER 3 SWITCH SETTING SHEETS

1. GENERAL

This chapter shows switch setting on the individual circuit cards used in the basic CCIS network (not including circuit cards related to Network through FCCS Groups and NEAX2000 IPS). These sheets are used when setting the switches on the circuit cards during system installation. The contents of the Switch Setting for each circuit card contains of the following information.

• Mounting slot(s) in the related Module

• Location of switches and switch setting positions

• Note(s) pertaining to switch positions

2. LIST OF CIRCUIT CARDS

Table 3-1 is the list of Circuit Cards required for CCIS features. Please refer to “Circuit Card Manual” for more information.

Table 3-1 List of Circuit Cards for CCIS

SYMBOL CIRCUIT CARD REMARKS

CCH PA-2CCHA For Digital/Analog CCIS Line

CCT

DTI

OSC PA-CK14 Oscillator (High precision oscillator for the 1-IMG system)

TSW PH-SW10

PLO

PA-24CCTA For Digital CCIS Line (1.544 Mb/s)

PA-30CCTB For Digital CCIS Line (2.048 Mb/s)

PA-DTA/PA-24DTR For Digital CCIS Line (1.544 Mb/s)

PA-30DTS For Digital CCIS Line (2.048 Mb/s)

Time Division Switch (Subordinate oscillator for the 1-IMG system)

PH-CK16 Subordinate Oscillator (for the 4-IMG system)

PH-CK17 High Precision Oscillator (for the 4-IMG system)

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INSTALLATION PROCEDURE

CHAPTER 4 INSTALLATION PROCEDURE

1. GENERAL

This chapter explains the installation procedure for connecting the PBX and the CCIS line. The scope of the installation procedure explained in this manual is shown in Figure 4-1. For procedures not explained in this manual, refer to the Installation Manual:

2. PRECAUTIONS ON INSTALLATION

This manual provides “Static Caution” indicators (Figure 4-2) on pages where work involving static-sensitive components is described.

Figure 4-1 Scope of the Installation Procedure

PBX

PLO

Cable Running from PBX to the MODEM for Analog CCIS Line (See Section 3.5)

CCH MODEM

Setting of Switch Positions on the Circuit Cards (See Section 3.2)

DTI

Front Cable Connection

CCH

CCT

between the DTI and CCH (See Section 3.4)

MDF/IDF

DSU

CCIS LINE (ANALOG LINE)

CCIS LINE (DIGITAL LINE)

Cross Connection from MDF to DSU (See Section 3.3)

CHAPTER 4 ND-71762 (E) Page 30 Issue 2

Page 45

Figure 4-2 Static Caution Indication

INSTALLATION PROCEDURE

The 3M Model 8012 Portable Field Service Kit (Figure 4-3) is recommended as an effective countermeasure against static electricity. The kit is available from NEC.

Figure 4-3 3M Model 8012 PORTABLE FIELD SERVICE KIT

Wrist Strap

Place the Circuit Card on a conductive sheet.

Connect ground wire to the Earth terminal of the Module Group.

ND-71762 (E) CHAPTER 4

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INSTALLATION PROCEDURE

3. INSTALLATION PROCEDURE

3.1 General Flow of Installation Procedure

This section describes installation procedure divided into installation procedure items shown in Figure 4-1. The work flow and the reference paragraphs are shown below.

• For Digital CCIS Line

START

Setting of switch positions and mounting of the circuit cards.

Cable running from the PBX to the MDF.

Cable termination and cross connection from the MDF to the DSU.

Front cable connection between DTI and CCH.

END

• For Analog CCIS Line

START

Setting of switch positions and mounting of the CCH card.

Refer to paragraph 3.2: “Setting of Switch Positions and Mounting of the Circuit Cards”.

Refer to “Cable Running from the PBX to MDF, ATTCON, MAT, and SMDR” of the Installation Manual.

Refer to paragraph 3.3: “Cable Termination and Cross Connection from the MDF to the DSU”.

Refer to Figure 4-12 “Front Cable Connections between DTI/CCT and CCH”.

Refer to paragraph 3.2: “Setting of Switch Positions and Mounting of the Circuit Cards”.

Cable Running from the PBX to the MODEM for Analog CCIS Line.

Refer to paragraph 3.5: “Cable Running from PBX to the MODEM for Analog CCIS Line”.

END

CHAPTER 4 ND-71762 (E) Page 32 Issue 2

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INSTALLATION PROCEDURE

3.2 Setting of Switch Positions and Mounting of the Circuit Cards

The setting of switch positions and mounting of circuit cards should be performed according to the flowchart below.

START

Unpack the circuit cards. Unpack each circuit card and remove it from the

polyethylene bag.

Clean the connector portion of the circuit cards.

Wipe the connector portion clean using a soft cloth moistened with pure trichloroethylene or methanol (medical alcohol). Make sure that no lint or dust remains on the connector after cleaning.

Circuit cards which are already mounted should be extracted and cleaned as per the above instructions.

Confirm the mounting positions of the circuit cards.

Confirm the mounting position of each circuit card by referring to the Module Face Layout of the Circuit Card Manual.

Confirm that the color code of the card puller tab coincides with that of the card mounting slot.

Confirm the slot number on the module. Slot numbers are indicated at the top of each module, and range from 00 to 23.

Perform switch setting. Set the required switches according to the Switch

Setting Sheets in CHAPTER 3.

END

Mount the circuit cards. After the switches have been set, insert the card in the

module. Refer to Figure 4-4.

ND-71762 (E) CHAPTER 4

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INSTALLATION PROCEDURE

Figure 4-4 Circuit Card Mounting (Partial Insertion)

About 50 mm (2 inches)

CHAPTER 4 ND-71762 (E) Page 34 Issue 2

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INSTALLATION PROCEDURE

3.3 Cable Termination and Cross Connection from the MDF to the DSU

Cable termination and cross connection from the MDF to the DSU should be performed according to the flowchart below:

Note: Provide the necessary cross connections at the MDF by using copper of 0.5 mm diameter (24AWG). Dual

core twisted wire is used for speech path, and single-core wire is used for control. It is recommended that wires of different colors be used for trunks, station lines, etc., so that they can easily be distinguished.

START

Check terminal location on the PBX side of the MDF

24DTI/30DTI Card 24CCT/30CCT Card

Referring to Figure 4-5, identify the lead names for those cards and the terminal location of the leads.

PLO/TSW Card Referring to Figure 4-6 through 4-7,

identify the lead names for the PLO/ TSW (

Note) card and the terminal

location of the leads.

Cross Connection When accepting sync.

clocks from External High-Stability

Referring to Figure 4-8 or Figure 4-9, provide the necessary cross connections.

Oscillator

When accepting sync. clocks from other office (master or sub-

Referring to Figure 4-10 or Figure 411, provide the necessary cross connections.

master office)

END

Note: For the 1-IMG system: the Phase Lock Oscillator function equipped with TSW card can be used for Digital

Interface, and while the OSC (PA-CK14) card is used when the system requires a high precision oscillator.

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INSTALLATION PROCEDURE

Figure 4-5 LT Connector Leads Accommodation for DTI/CCT

Accommodated in *1

LT1, 5, 7, 11 Connector

26 1 27 E 2 E 28 3 29 RB 4 RA

30 POUTB 5 POUTA 31 6 32 7 33 TB 8 TA 34 9 35 10 36 11

37 12 38 13 39 14 40 15 41 16 42 17 43 18 44 19 45 20 46 21 47 22 48 23 49 24 50 25

LT Connector Name

Slot No.

LT0 LT1 LT2 LT3 LT4 LT5 LT8 LT9 LT10 LT11

02 03 04 05 06

Accommodated in *2

LT2, 4, 8, 10 Connector

26 1 27 2 28 3 29 4 30 5 31 6 32 7 33 8 34 9 35 E 10 E 36 11 37 RB 12 RA 38 POUTB 13 POUTA 39 14 40 15 41 TB 16 TA 42 17 43 18 44 19 45 20 46 21 47 22 48 23 49 24 50 25

07 08 09 10 11 12 13 14 15 16 17 18 19 2000 01 21 22 23

Accommodated in *3

LT3, 5, 9, 11 Connector

26 1 27 2 28 3 29 4 30 5 31 6 32 7 33 8 34 9 35 10 36 11 37 12 38 13 39 14 40 15 41 16 42 17 43 E 18 E 44 19 45 RB 20 RA 46 POUTB 21 POUTA 47 22 48 23 49 TB 24 TA 50 25

LT6 LT7

Group No.

PIM

Highway Block

15 19

14 18 13 17

12 16

01 03 05 07 09 11

00 02 04 06 08 10

0 2345 67891011

0100030205

09 11

08 10

15 19 23

14 18 22

13 17 21

12 16 20

*3*1*2

CHAPTER 4 ND-71762 (E) Page 36 Issue 2

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INSTALLATION PROCEDURE

Figure 4-6 PLO Pin Assignments for Receiving Clock (1-IMG System)

Since PLO circuit is equipped with TSW card, PLO input leads appear on the LT connector labeled PLO.

TSW mounting slots

TSW card is mounted in slots 13 and 14 of PIM0.

LT cable connector

00 01 02 03 04 05 06 07 08 09 10 11 12 13 14 15 16 17 18 19 20 21 22 23

PIM0

Universal Slots Universal Slots

Front View

Backplane

TSW

Connect an LT cable to the connector labeled PLO on PIM0 backplane.

PIM0

PLO

PLO connector Pin Assignment

Pins are assigned as follows on PLO connector. When clock is distributed from a digital interface, use one pair of DIUxxx leads among a maximum of 4 inputs. DIU leads have the following precedence: DIU0xx(High) DIU3xx(Low). On the contrary, to receive clock from an external high-stability osillator, use DCSxx leads.

for PLO

equipped

with TSW #0

for receiveing clock from

a High-Stability Oscillator

PIN No.

26 27 28 29 30 31 32 33

LEAD

NAME DCSB0 DIU0B0 DIU1B0 DIU2B0 DIU3B0

SYN0B0 SYN1B0

PIN No.

1 2 3 4 5 6 7 8

LEAD NAME

DCSA0 DIU0A0 DIU1A0 DIU2A0 DIU3A0

SYN0A0 SYN1A0

for PLO

equipped

with TSW #0

PLO Connector PLO Connector

for distributing clock from

a digital interface

LEAD

NAME DCSB0 DIU0B0 DIU1B0 DIU2B0 DIU3B0

PIN No.

1 2 3 4 5 6 7 8

DCSA0 DIU0A0 DIU1A0 DIU2A0 DIU3A0

SYN0A0 SYN1A0

No.

26 27 28 29 30 31 32 33

SYN0B0 SYN1B0

LEAD

NAME

for PLO

equipped

with TSW #1

40 41 42 43 44 45 46 47 48 49 50

DCSB1 DIU0B1 DIU1B1 DIU2B1

DIU3B1 SYN0B1 SYN1B1

15 16 17 18 19 20 21 22 23 24 25

DCSA1 DIU0A1 DIU1A1 DIU2A1 DIU3A1

SYN0A1 SYN1A1

for PLO

equipped

with TSW #1

40 41 42 43 44 45 46 47 48 49 50

SYN0B1 SYN1B1

DCSB1 DIU0B1 DIU1B1 DIU2B1 DIU3B1

15 16 17 18 19 20 21 22 23 24 25

DCSA1 DIU0A1 DIU1A1 DIU2A1 DIU3A1

SYN0A1 SYN1A1

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INSTALLATION PROCEDURE

Figure 4-7 PLO Pin Assignment for Receiving Clock (4-IMG System)

PLO input leads appear on the LT connectors labeled EXCLK0 and EXCLK1.

PLO mounting slots

PLO card is mounted in slots 21 and 23

00 01 02 03 04 05 06 07 08 09 10 11 12 13 14 15 1617 18 19 20 21 22 23

Front View

of TSWM.

TSWM

LT cable connectors

Backplane

TSW

Connect LT cables to the connectors labeled EXCLK0 and EXCLK1 on the TSWM backplane.

TSWM

EXCLK1

EXCLK0

EXCLK0/EXCLK1 connector Pin Assignment

Pins are assigned as follows on EXCLK0/EXCLK1 connector. When clock is distributed from a digital interface, use one pair of DIUxxx leads among a maximum of 4 inputs. DIU leads have the following precedence: DIU0xx(High) DIU3xx(Low). On the contrary, to receive clock from an external high-stability osillator, use DCSxx leads.

34PH EXCLK CA-A Cable Lead Accommodation

EXCLK1

EXCLK0

TSWM

REAR VIEW

26 27 28 29 30 31 32 33 34 35 36 37 38

FM1

FM0 SYN1B SYN0B

DIU3B DIU2B DIU1B DIU0B DCSB

1 2 3

SYN1A

SYN0A

DIU3A

DIU2A

DIU1A

DIU0A

DCSA 12 13

EXCLK0

PLO

PLOEXCLK1

34PH EXCLK CA-A

Installation Cable To Digital Interface and/or DCS

CHAPTER 4 ND-71762 (E) Page 38 Issue 2

MDF

Page 53

INSTALLATION PROCEDURE

Figure 4-8 Cable Connection Diagram for Accepting Synchronization Clocks from an External High-

Stability Oscillator (TSW)

Cable Connection Diagram

Provide the following wirings at the MDF. The following connection diagram shows an example where the system has the TSW cards in a dual configuration.

maximum 400 meters (1320feet) (24AWG)

PBX

MDF

M-OSC #0

(Master Oscillator)

/EXT. OSC #0

(External

Oscillator)

CLK

M-OSC #1

(Master Oscillator)

/EXT. OSC #1

(External

Oscillator)

TSW

PLO

LT Connector Cable

PLO

DCSA0

DCSB0

DCSB1

DCSA1

PCM Cable(IP)

BASEU

CLK

ND-71762 (E) CHAPTER 4

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INSTALLATION PROCEDURE

Figure 4-9 Cable Connection Diagram for Accepting Synchronization Clocks from an External High-

Stability Oscillator (PLO)

Cable Connection Diagram

Provide the following wirings at the MDF. The following connection diagram shows an example where the system has the PLO cards in a dual configuration.

maximum 400 meters (1320feet) (24AWG)

ISW

MDF

M-OSC #1

(Master Oscillator)

/EXT. OSC #1

(External

Oscillator)

PLO#1

EXCLK1

LT Connector Cable

PCM Cable(IP)

DCSA

DCSB

CLK

BASEU

Note:

PLO#0

EXCLK0

EXCLK1

LT Connector Cable

EXCLK0

DCSB

DCSA

This diagram shows connections for a system having dual PLOs.

PCM Cable(IP)

M-OSC #0

(Master Oscillator)

/EXT. OSC #0

(External

Oscillator)

CLK

CHAPTER 4 ND-71762 (E) Page 40 Issue 2

Page 55

INSTALLATION PROCEDURE

Figure 4-10 Cable Connection Diagram for Receiving Clock from a Digital Interface (TSW)

Cable Connection Diagram

Perform the following wirings at the MDF. The following connection diagram shows an example where the Digital Trunk POUT leads are used as the 1st clock distribution route.

BASEU

PBX

Digital

Interface

TSW

PLO

LT Connector

Installation Cable

maximum100

meters(330 feet)

(24AWG)

Installation Cable

PLO

for PLO #0

for PLO #1

maximum 200 meters (660feet) (24AWG)

MDF

RA RB

TB POUTA POUTB

DIU0A0 DIU0B0

DIU1A0 DIU1B0

DIU2A0 DIU2B0

DIU3A0 DIU3B0

DIU0A1 DIU0B1

DIU1A1 DIU1B1

DIU2A1 DIU2B1

DIU3A1 DIU3B1

Note 1

Note 2

PCM Cable(2P)

PCM

Carrier

Equipment/

DSU

to other node

CLK

Note 1:

Note 2:

PLO has a maximum of 4 inputs. DIU0xx leads are used for the 1st clock distribution routs. Thus, DIU3xx leads are used for the 4th. The first input has the highest priority.

This connection is required for a dual-TSW system.

ND-71762 (E) CHAPTER 4

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INSTALLATION PROCEDURE

Figure 4-11 Cable Connection Diagram for Receiving Clock from a Digital Interface (PLO)

Cable Connection Diagram

This figure shows an example of distributing clock from a digital interface. This example also assumes that the Digital Trunk POUT leads are used as the 1st clock distribution route.

maximum 200 meters (660feet) (24AWG)

IMG

Digital Interface

IMG/ISWM

PLO#0

EXCLK0

PLO#1

EXCLK1

LT Connector

Installation Cable

maximum 100 meters (330 feet) (24AWG)

Installation Cable

RA RB

TB POUT A POUT B

DIU0A0 DIU0B0 DIU1A0 DIU1B0 DIU2A0 DIU2B0 DIU3A0 DIU3B0

DIU0A1 DIU0B1 DIU1A1 DIU1B1 DIU2A1 DIU2B1 DIU3A1 DIU3B1

MDF

Note 1

Note 2

PCM Cable (2P) to other node

PCM

Carrier

Equipment

DSU

CLK

Note 1:

PLO has a maximum of 4 inputs. DIU0xx leads are used for the 1st clock distribution routes. Thus, DIU3xx leads are used for the 4th. The first input has the highest priority.

Note 2:

The connection is required for a dual PLO system.

CHAPTER 4 ND-71762 (E) Page 42 Issue 2

Page 57

3.4 Front Cable Connection between DTI and CCH

Figure 4-12 Front Cable Connections between DTI/CCT and CCH

When MODEM is not used

PBX

INSTALLATION PROCEDURE

MDF

DTI/CCT

CCH

Front Cable connection

CCH DTI/CCT

TRK

Note 2

CNx

Front

Note 1

Note 1: For cross connections between DTI and CCIS Line, refer to Figure 4-10 and 4-11. Note 2: The connector name varies depending on the card.

CCIS Line

ND-71762 (E) CHAPTER 4

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INSTALLATION PROCEDURE

3.5 Cable Running from PBX to the MODEM for Analog CCIS Line

START

By referring to Figure 4-15 through 4-16, confirm the connector name on the PIM backplane, then connect the installation cable (25P) to the LT connector.

Connect the MODEM which is connected to analog CCIS line to the installation cable.

END

Figure 4-13 Connection of MODEM Cables for Analog CCIS Line

PBX

PA-2CCHA

LT CONNECTOR

MDF

INSTALLATION CABLE

MODEM

CHAPTER 4 ND-71762 (E) Page 44 Issue 2

Page 59

When MODEM is used

PBX

INSTALLATION PROCEDURE

Figure 4-14 Connecting Route Diagram for CCH

MDF

CCH

Cable length is maximum 15 meters (50 feet). The MODEM to be used is a synchronous MODEM of 2400, 4800, or 9600 bps, and the communication method is limited to 4-wire full duplex communications.

RD SG SG ER ER

RT RT

ST2 ST2

RS RS SD SD

MODEM

ND-71762 (E) CHAPTER 4

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Issue 2

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INSTALLATION PROCEDURE

Figure 4-15 Connection between PBX and MODEM

(a) Cable Connection when Accommodated in *1 (Refer to Figure 4-16)

PBX MODEM

LT Connector

(Circuit No. 0) (Circuit No. 1)

4-SD0 2-SD

1-RD0 3-RD

29-RS0 4-RS

27-SG0 7-SG

3-ST20 15-ST2

28-RT0 17-RT

2-ER0 20-ER

PBX MODEM

LT Connector

8-SD1 2-SD

5-RD1 3-RD

33-RS1 4-RS

31-SG1 7-SG

7-ST21 15-ST2

32-RT1 17-RT

6-ER1 20-ER

(b) Cable Connection when Accommodated in *2 (Refer to Figure 4-16)

PBX MODEM

(Circuit No. 0) (Circuit No. 1)

PBX MODEM

LT Connector

20-SD0 2-SD

17-RD0 3-RD

45-RS0 4-RS

43-SG0 7-SG

19-ST20 15-ST2

44-RT0 17-RT

18-ER0 20-ER

LT Connector

CHAPTER 4 ND-71762 (E) Page 46 Issue 2

LT Connector

24-SD1 2-SD

21-RD1 3-RD

49-RS1 4-RS

47-SG1 7-SG

23-ST21 15-ST2

48-RT1 17-RT

22-ER1 20-ER

LT Connector

Page 61

Figure 4-15 Connection between PBX and MODEM (Continued)

INSTALLATION PROCEDURE

PBX MODEM

(Circuit No. 0) (Circuit No. 1)

LT Connector

12-SD0 2-SD

9-RD0 3-RD

37-RS0 4-RS

35-SG0 7-SG

11-ST20 15-ST2

36-RT0 17-RT

10-ER0 20-ER

LT Connector

PBX MODEM

LT Connector

16-SD1 2-SD

13-RD1 3-RD

41-RS1 4-RS

39-SG1 7-SG

15-ST21 15-ST2

41-RT1 17-RT

14-ER1 20-ER

LT Connector

ND-71762 (E) CHAPTER 4

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Issue 2

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INSTALLATION PROCEDURE

Figure 4-16 LT Connector Leads Accommodation for 2CCH

LT Connector Accommodation

Accommodated in *1

LT0, 2, 4, 6, 8, 10 Connector

26 1 RD0 27 SG0 2 ER0 28 RT0 3 ST2 0 29 RS0 4 SD0 30 5 RD1 31 SG1 6 ER1 32 RT1 7 ST2 1 33 RS1 8 SD1 34 SCKB0 9 SCKA0 35 TDB0 10 TDA0 36 RDB0 11 RDA1 37 12 38 SCKB1 13 SCKA1 39 TDB1 14 TDA1 40 RDB1 15 RDA1 41 16 42 17 43 18 44 19 45 20 46 21 47 22 48 23 49 24 50 25

LT Connector Name

Slot No.

LT0, 2, 4, 6, 8, 10 Connector

26 1 27 2 28 3 29 4

30 5 31 6 32 7 33 8 34 9 35 10 36 11

37 12 38 13 39 14 40 15 41 16 42 17 RD0 43 SG0 18 ER0 44 RT0 19 ST2 0 45 RS0 20 SD0 46 21 RD1 47 SG1 22 ER1 48 RT1 23 ST2 1 49 RS1 24 SD1 50 25

LT0 LT1 LT2 LT3 LT4 LT5 LT8 LT9 LT10 LT11

02 03 04 05 06

Accommodated in *2

LT1, 3, 5, 7, 9, 11 Connector

26 SCKB0 1 SCKA0 27 TDB0 2 TDA0 28 RDB0 3 RDA0 29 4 30 SCKB1 5 SCKA1 31 TDB1 6 TDA1 32 RDB1 7 RDA1 33 8 34 9 35 10 36 11 37 12 38 13 39 14 40 15 41 16 42 17 43 18 44 19 45 20 46 21 47 22 48 23 49 24 50 25

LT6 LT7

07 08 09 10 11 12 13 14 15 16 17 18 19 2000 01 21 22 23

Accommodated in *3

LT1, 3, 5, 7, 9, 11 Connector

26 1 27 2 28 3 29 4 30 5 31 6 32 7 33 8 34 9 RD0 35 SG0 10 ER0 36 RT0 11 ST2 0 37 RS0 12 SD0 38 13 RD1 39 SG1 14 ER1 40 RT1 15 ST2 1 41 RS1 16 SD1 42 SCKB0 17 SCKA0 43 TDB0 18 TDA0 44 RDB0 19 RDA0 45 20 46 SCKB1 21 SCKA1 47 TDB1 22 TDA1 48 RDB1 23 RDA1 49 24 50 25

15 19

14 18 13 17

12 16

Group No.

PIM

Highway Block

PWR

01 03 05 07 09 11

00 02 04 06 08 10

PWR

0 2345 67891011

CHAPTER 4 ND-71762 (E) Page 48 Issue 2

0100030205

09 11

08 10

15 19 23

14 18 22

13 17 21

12 16 20

*3*2*1

Page 63

INSTALLATION TEST PROCEDURE

CHAPTER 5 INSTALLATION TEST PROCEDURE

1. GENERAL

This chapter describes the installation tests that are performed after system start up and after the office data has been assigned. The following test procedure are covered.

• Overall Test for CCIS Line

• CCIS Service Feature Functional Test

2. INSTALLATION TEST PROCEDURE

2.1 Overall Test for CCIS Line

Tests are to be performed to check CCIS Lines by connecting them to a trunk on an individual basis. The speech path conditions (speech level, presence of noise, one-way speech, no speech, etc.) over the connection to the distant office will be checked. Release of the trunk used will also be checked.

• Overall Test Procedure

START

END

Overall Test of CCIS Tie Line Outgoing Call: Paragraph 2.1.1

Overall Test of CCIS Tie Line Incoming Call: Paragraph 2.1.2

Test of Connection and Alternate Routing to All Tie Lines: Paragraph 2.1.3

Test of Tandem Connection to Tie Line: Paragraph 2.1.4

PAD Setting: Paragraph 2.1.5

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INSTALLATION TEST PROCEDURE

2.1.1 Overall Test of CCIS Tie Line Outgoing Call

START

Station A’

LC LC

ATTCON

ATI

Seizure of trunk to be tested

When seizing from a station

When seizing from an ATTCON

OFFICE A OFFICE B

PBX

(PBX to be tested)

Place the trunk to be tested into idle state, and make busy all other trunks.

Station A’ dials the number for station B’ in the B Office.

An ATTCON sets up the connection with a specific trunk designated by Individual Trunk Access for CCIS TRK service and dials the number for Station B’ in the B Office.

Station B’

PBX

END

Call termination to Station B’ in

The call terminates to Station B’ via a CCIS Tie Line.

the B Office

Check of speech conditions After the call has been answered at the ATTCON,

check the speech conditions including speech level, presence of noise and one-way speech state.

Release

When all CCIS Tie Line Trunks have been checked and a fault

Perform fault localization procedure when a fault has occurred to CCIS Tie Line (See Procedure A)

has been detected

If the distant office is faulty, make a request to the distant office for repair.

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Page 65

(Procedure A)

START

A DTI/CCT is in use as the speech lines of No. 7 CCIS.

On the DTI/CCT card, set its MB switch UP.

In any office other than the Clock Master Office, disconnect the DTI cable connector at the DTI side (Back place of the PIM)

PLO alarm is generated, but ignore it.

The PLO starts running by itself.

Make the following connection at the MDF using a paired wire.

INSTALLATION TEST PROCEDURE

DTI/CCT LEADS

MDF

CROSS CONNECTION

The DTI does not recover. System message “3-J” is not displayed. (CCH/CCT Link Failure may occur, but ignore it.) The DTI/CCT is faulty.

The DTI recovered. System message “3-J” is not displayed. (CCH/CCT Link Failure may occur, but ignore it.) The DTI/CCT is normal.

Call the distant office and ask for repair.

An analog trunk is in use as the speech lines of No. 7 CCIS.

Remove the cross connection wires and disconnect them from the external line side.

END

Connect a telephone set to the trunk accommodating terminals concerned on the MDF, and talk with the caller.

Normal Call the Distant Office and ask for repair.

Abnormal Replace the trunk card with a spare card.

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INSTALLATION TEST PROCEDURE

2.1.2 Overall Test of CCIS Tie Line Incoming Call

START

STATION A’

OFFICE A

LC LC

PBX

(PBX to be tested)

OFFICE B

PBX

STATION B’

Seizure of trunk to be tested Place the trunk to be tested into idle state, and make busy all

other trunks.

Termination of incoming call to station A’ in the self office

An incoming call from the distant office terminates to Station A’.

Check of speech After the call has been answered at Station A’, check the

speech conditions including speech level, presence of noise and one-way speech state.

Release

When all CCIS Tie Line Trunks have been checked and

Perform fault localization procedure when a fault has occurred to CCIS Tie Line. (See Procedure A of Paragraph 2.1.1)

a fault has been detected

If the distant office is faulty, make a request to the distant office for repair.

END

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Page 67

2.1.3 Test of Connection and Alternate Routing to All Tie Lines

START

INSTALLATION TEST PROCEDURE

Test the trunks in the primary route one at a time

Make all the trunks in the primary route busy.

Test the trunks in the alternate route one at a time.

Make busy all trunks in the primary route except the trunk to be tested.

Station “A” calls Station “B” via the primary route.

After Station “B” answers, check the normality of the speech condition including the speech level, presence of noise, and one-way speech.

Release.

Make busy all trunks in the alternate route except the trunk to be tested.

Station “A” calls Station “B” via the alternate route.

After Station “B” answers, check the normality of the speech condition including the speech level, presence of noise, and one-way speech.

END

Release.

Cancel the Make Busy condition of the trunks.

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INSTALLATION TEST PROCEDURE

Figure 5-1 Combination of Tie Line Network and Public Network

Basic/Primary Route

TRKs

Station A Station B

PBX to be tested

TRKs

Tie Line Network

Alternate Route

Public Network

PBX

Figure 5-2 Tie Line Network

Basic/Primary Route

PBX

TRKs

Station A Station B

PBX to be tested

TRKs

Alternate Route

PBX

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2.1.4 Test of Tandem Connection to Tie Line

Figure 5-3 Test of Tandem Connection to Tie Line

INSTALLATION TEST PROCEDURE

STATION A

START

PBX

ATTCON

(1): Direct tandem connection by dial-in (2): Tandem connection via ATTCON (3): Tandem connection via Station

TRKs

Test of direct dial-in tandem connection

IRT

(1)

(2)

PBX

BASIC/PRIMARY ROUTE

TRKs

(3)

TRKs

STATION C

PBX

ALTERNATE ROUTE

PBX

Test of Basic/Primary Route

PBX

STATION B

Station A calls Station B .

Confirm speech between Stations A and B .

Release.

Test of Alternate Route.

Make busy all the trunks in the primary route.

Station A calls Station B .

Confirm speech between Stations A and B .

Release.

Make idle all the trunks.

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INSTALLATION TEST PROCEDURE

END

Test of tandem connection via ATTCON

Test of tandem connection via station

Staton A dials the access code for the ATTCON.

The ATTCON answers and sets up a tandem connection to Station B .

The ATTCON releases, and speech between Station A and B is confirmed.

Release.

Station A calls Station C .

Station C , after answering, makes a Switch Hook

Flash (SHF) and calls Station B .

After Station B answers, Station C releases. Speech between Stations A and B is confirmed.

Release.

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INSTALLATION TEST PROCEDURE

2.1.5 PAD Setting

When setting up a No.7 CCIS Network, PAD setting differs from that in the case of analog network.

(a) For an outgoing call to/incoming call from a Tie Line:

• Via “ARTD” command (CDN=30) or by switch setting on the circuit card (DTI/CCT).

(b) For a tandem Tie Line connection:

• Via “APAD” command or switch setting on the circuit card

At both the originating and terminating offices, 0 dB is set to the outgoing side and 8 dB is set to the terminating of the DTI/CCT route via “ARTD” command or switch settings. At the tandem office, 0 dB is set for both the terminating and originating sides of each DTI/CCT route via “APAD” command. This arrangement is shown in Figure 5-4.

Figure 5-4 Example of PAD Setting for CCIS

ORIGINATING OFFICE

0dB

-8dB

TERMINATING OFFICE

0dB

-8dB

DTI/CCT

0dB

TANDEM OFFICE

DTI/CCT

0dB

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INSTALLATION TEST PROCEDURE

2.2 CCIS Service Feature Functional Test

The purpose of this test is to verify that CCIS service features are programmed and operate as per the Job Specification. For the operating procedure pertaining to each service feature, refer to CHAPTER 7: “List of Service Features for CCIS (1/2)”.

• CCIS Service Feature Functional Test Procedure

START

Test of Interoffice Station to Station Connection: Paragraph 2.2.1

Test of Outgoing Call Connection to Tie Line Trunk: Paragraph 2.2.2

Test of Transfer Services: Paragraph 2.2.3

Test of Services from ATTCON: Paragraph 2.2.4

Test of other Services: Paragraph 2.2.5

END

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INSTALLATION TEST PROCEDURE

2.2.1 Test of Interoffice Station to Station Connection

Test Outline:

Tests are to be performed on interoffice station to station connection and on normal operations of various system services.

START

Trunk Line Check No. 7 CCIS Line

Busy Line Service Check Step Call-CCIS (S-59)

Bridge-In Service Check Call Back-CCIS (C-44)

Executive Right-of-Way-CCIS (E-8)

END

Ring Back Tone Check Voice Call-CCIS (V-7)

Ringing Check Distinctive Ringing-CCIS (D-75)

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INSTALLATION TEST PROCEDURE

2.2.2 Test of Outgoing Call Connection to Tie Line Trunk

Test Outline:

Tests are to be performed to determine whether outgoing trunk connections to each route, restriction of connections services when all trunks are busy, etc. operate as specified.

START

All Trunk Busy Service Check Outgoing Trunk Queuing-CCIS (O-12)

SMDS Service Check Centralized Billing-CCIS (C-55)

END

Centralized Management Service Check

Centralized System Management Report-CCIS (C-57)

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INSTALLATION TEST PROCEDURE

2.2.3 Test of Transfer Services

Test Outline:

Tests are to be performed on interoffice transfer services when the call has encountered line busy or when the call has not been answered.

START

Transfer Service Check Call Transfer-All Calls-CCIS (C-50)

Call Forwarding Service Check Call Forwarding-All Calls-CCIS (C-45)

Call Forwarding-Busy Line-CCIS (C-46)

Call Forwarding-Don’t Answer-CCIS (C-47)

END

Call Forwarding Assignment-AttendantCCIS (C-94)

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INSTALLATION TEST PROCEDURE

2.2.4 Test of Services from ATTCON

Test Outline:

Tests are to be performed on the functions of the Attendant Console (ATTCON) and various interoffice services to be provided via the ATTCON.

START

END

Call Termination to

Attendant Camp-on with Tone Indication-CCIS (A-45)

ATTCON Check

Serial Call-CCIS (S-52)

Busy Verification-CCIS (B-9)

Information Display on

Calling Number Display-CCIS (C-52)

ATTCON Check

Night Service Check Direct-In-Termination-CCIS (D-74)

Night Connection-Fixed-CCIS (N-15)

Centralized Day/Night Mode Change-CCIS (C-56)

LDN Night Connection-CCIS (L-29)

Other Service Check Individual TRK Access-CCIS (I-19)

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2.2.5 Test of other Services

Test Outline:

INSTALLATION TEST PROCEDURE

Tests are to be performed on various kinds of interoffice services when D

START

Message Reminder-CCIS (M-34)

Message Waiting Lamp Setting-Attendant-CCIS (M-35)

Message Waiting Lamp Setting-Station-CCIS (M-36)

Data Line Service Data Communication-CCIS (D-41)

END

term

, etc. are used.

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INSTALLATION TEST PROCEDURE

3. TEST RESULT REPORT

3.1 CCIS Service Feature Functional Test

3.1.1 Test of Interoffice Station to Station Connection

SPECIAL

SERVICE FEATURE

ACCESS

CODE

Line Check No.7 CCIS Line

PROVIDED CHECK REMARKS

Busy Line

Step Call-CCIS (S-59)

Service Check

Bridge-In Service Check

Ring Back

Call Back-CCIS (C-44)

Executive Right of Way-CCIS (E-8)

Voice Call-CCIS (V-7)

Tone Check

Ringing Check Distinctive Ringing-CCIS (D-75)

3.1.2 Test of Outgoing Call Connection to Tie Line Trunk

SPECIAL

All Trunk Busy Service

SERVICE FEATURE

Outgoing Trunk Queuing-CCIS (O-12)

ACCESS

CODE

Check

SMDS

Centralized Billing-CCIS (C-55)

Service Check

Centralized Management

Centralized System Management Report-CCIS (C-57)

Service Check

PROVIDED CHECK REMARKS

3.1.3 Test of Transfer Services

SPECIAL

SERVICE FEATURE

Transfer Service Check

CHAPTER 5 ND-71762 (E) Page 64 Issue 2

Call Transfer-All Calls-CCIS (C-50)

Call Forwarding-All Calls-CCIS (C-45)

ACCESS

CODE

PROVIDED CHECK REMARKS

Page 79

SERVICE FEATURE

Call Forwarding Service Check

Call Forwarding-Busy Line-CCIS (C-46)

Call Forwarding-Don’t Answer-CCIS (C-47)

Call Forwarding AssignmentAttendant-CCIS (C-94)

3.1.4 Test of Services from ATTCON

SERVICE FEATURE

ATTCON Call Termination Check

ATTCON Display

Attendant Camp-on with Tone Indications-CCIS (A-45)

Serial Call-CCIS (S-52)

Busy Verification-CCIS (B-9)

Calling Number Display-CCIS

(C-52) Function Check

SPECIAL

ACCESS

CODE

SPECIAL

ACCESS

CODE

INSTALLATION TEST PROCEDURE

PROVIDED CHECK REMARKS

Night Service Check

Direct-In Termination-CCIS (D-74)

Night-Connection-Fixed-CCIS

(N-15)

Centralized Day/Night Mode Change

CCIS (C-56)

LDN Night Connection-CCIS (L-29)

Other Service

Individual Trunk Access-CCIS (I-19) Check

3.1.5 Test of Other Services

SERVICE FEATURE

Message Reminder-CCIS (M-34)

Message Waiting Lamp Setting-Attendant-CCIS (M-35)

Message Waiting Lamp Setting-Station-CCIS (M-36)

Data Line

Data Communication-CCIS (D-41) Service

SPECIAL

ACCESS

CODE

PROVIDED CHECK REMARKS

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BASIC DATA ASSIGNMENT

CHAPTER 6 BASIC DATA ASSIGNMENT

1. GENERAL

This chapter explains how to program office data which are necessary for establishing a CCIS Tie Line Connection. For easy understanding, office data programming is explained using an example of a CCIS network in this chapter. Accordingly, when programming data at your site, some minor data modifications may be unavoidable. For other features associated with CCIS, see CHAPTER 7 “List of Service Features for CCIS (1/2)”.

24CCT/30CCT

This circuit card provides an interface between 24/30 trunks and the PBX at 1.544/2.048 Mbit/s. Being equipped with a Common Channel Handler (CCH), this circuit card can be used as an interface for a Common Channel Interoffice Signaling (CCIS) network.

2CCH

This circuit card provides two Common Channel Handlers (CCH). By using together with 24DTI/30DTI to establish the digital CCIS line or used as an interface for the analog CCIS.

24DTI/30DTI

This circuit card provides an interface for a digital CCIS line, using together with the 2CCH card.

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2. DATA ASSIGNMENT

(Ref

2.1 Port Allocation and Related Command

BASIC DATA ASSIGNMENT

(Reference 1)

• 24CCT is mounted in slot 10 (PIM).

• Last TS (CH) is used for CCIS signal CH.

• RTx = Speech CH, RTy = Signal CH.

24CCT

ACSC

(CCH Location)

U G

XX X 12

G15

G14

G13

G12

10Slot

ATR K

RTy TK1 (Signal CH)

ATR K

RTx (Speech CHs)

ATR K

RTy TK2 (CCH)

erence

• 24DTI is mounted in slot 10 (PIM).

• 2CCH is mounted in slot 9 (PIM).

• Last TS (CH) is used for CCIS signal CH.

• RTx = Speech CH, RTy = Signal CH.

2CCH

24DTI

G11

(CCH#1)

G15

ATR K

RTy TK1 (Signal CH)

G14

ATR K

RTx (Speech CHs)

Note

G13

ACSC

(CCH Location)

U G

XX X 10

ATR K

RTy TK2 (CCH)

Note: Only one CCH (CCH#0/CCH#1) can be assigned.

This example is applicable when CCH#0 is used.

G10

(CCH#0)

G12

10Slot

(Reference 3)

• 30CCT is mounted in slot 10 (PIM).

• TS16 is used for CCIS signal CH.

• RTx = Speech CH, RTy = Signal CH.

30CCT

G15

ATR K

10Slot

RTx (Speech CHs)

ATR K

RTy TK1 (Signal CH)

ATR K

RTx (Speech CHs)

ATR K

RTy TK2 (CCH)

ACSC

(CCH Location)

U G

XX X 12

G14

G13

G12

(Reference 4)

• 30DTI is mounted in slot 10 (PIM).

• 2CCH is mounted in slot 9 (PIM).

• TS16 is used for CCIS signal CH.

• RTx = Speech CH, RTy = Signal CH.

2CCH

(CCH)

Note

ACSC

(CCH Location)

U G

XX X 10

ATR K

RTy TK2 (CCH)

Note: Only one CCH (CCH#0/CCH#1) can be assigned.

This example is applicable when CCH#0 is used.

30DTS

G11

(CCH#1)

G10

(CCH#0)

G15

G14

G13

G12

10Slot

ATR K

RTx (Speech CHs)

ATR K

RTy TK1 (Signal CH)

ATR K

RTx (Speech CHs)

No assignment

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BASIC DATA ASSIGNMENT

2.2 Basic Data Assignment Procedure

This section explains “How to program necessary data associated with a CCIS network” using the following example. Note that Node A is your office.

Figure 6-1 Example of a CCIS Network

• In this figure, five letters such as AAAAA, represent mounting location of CCT card or CCH card.

Node A

PC = 10

“810”

PC : Point Code RT : Route CCH : Common Channel Handler “8xx” : Office Code

: Speech Line : Signaling Line

TK4 TK5

CCH2: CCCCC

RT11 CCH0: AAAAA

CCH1: BBBBB

RT12

CCH0’: DDDDD

CCH1’: EEEEE

Node C

PC = 30

“830”

TK7

TK8

Node B

PC = 20

“820”

Centralized Billing Office

Centralized Management Office

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BASIC DATA ASSIGNMENT

STEP 1: Point Code & Miscellaneous Data Assignment

COMMAND NAME

ASYD

Since Point Code is used to identify each office in a CCIS network, any identical PCs are not allowed in the same network. The following three kinds of point codes may be programmed in the system. The first PC, Originating Point Code (OPC), is mandatory. The remaining two Point Codes can be assigned as required.

• Originating Point Code (OPC): assigned by Indexes 180 and 181.

• Centralized Billing Point Code (DPC 0): assigned by Indexes 182 and 183.

• Centralized Management Point Code (DPC 1): assigned by Indexes 184 and 185.

1) Originating Point Code (OPC): The OPC is a self-office code, which should be assigned without exception. 14 bits can be used for specifying OPC. Note that available PC ranges from 1 to 16367 (PCs16368~16383 are used for Loop Back Test). Node A whose OPC is 10, for example, should be assigned as follows.

0b50b40b30b20b10

Index 181 Index 180

2) Centralized Billing Point Code (DPC 0):

0b70b60b50b41b30b21b10

Note 1

PC 10

The DPC 0 is used when billing information of the PBX (Node A) should be sent to the Centralized Billing Office. When DPC 0 is assigned as “20”, for example, billing information of Node A can be obtained at Node B whose PC is 20. When this Centralized Billing feature is not necessary, skip these Indexes.

Note 1: Assign DPC 0 = 00 Hex to Centralized Billing Office.

3) Centralized Management Point Code (DPC 1): Note 2 The DPC 1 is used when system messages of the PBX (Node A) should be transmitted to the Centralized Management Center, from which all PBXs in the network can be managed. When DPC 1 is assigned as “30”, for example, system messages can be automatically sent to Node C whose PC is 30 in this case.

Note 2: Assign DPC 1 = 00 Hex to Centralized Management Office.

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BASIC DATA ASSIGNMENT

Miscellaneous Data

1) Index 186: b6 must be assigned as 1 (CCIS is in service). The remaining data should be determined depending on customer’s requirements.

0b71b60b51b40b30b21b11

Example (Index 186)

b0: 0/1 = CCIS Link Reconnection is not available/available.

When either of the two parties that are engaged in a Station-to-Station/Station-to-Trunk/Trunk-to-Trunk con-

nection via CCIS link transfers the call to another station, CCIS Link Reconnection will be provided. By establishing new link after the call transfer, the most proper routing can be provided for the two parties which are eventually connected. Note 3, Note 4

In the following cases, Link Reconnection is provided:

Exmaple 1:

1. A call between Station A and B is established.

2. Station B transfers the call to Station C.

3. After connecting to Station C, Station B hungs up.

4. Link between Station A and C is reestablished. At this time Link between Node A and B is released.

Node A

Station A

Node B

(1) Station A made a call to Station B

(3) Station B transferred the call to Station C

Station C

(4) Link between Station A and C is reestablished, and Link between Node A and B is released.

Exmaple 2:

1. A call between Station A and Station B is established.

2. Station B transfers the call to Station C.

3. After connecting to Station C, Station B hungs up.

4. Link c (between Station A and C) is reestablished. at this time, Link a and b are released.

Node A

Station A

(4) Link Reconnection is provided between Station A and C, by using Link c.

At this time, LInk a and

b are released.

(1) Station A made a call to Station B

Link a

Link c

Link b

Station B

(3) Station B hungs up

Node B

(3) Station B hungs up

Station B

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(2) Station B transferred the call to StationC

Station C

Page 85

BASIC DATA ASSIGNMENT

Note 3:

When either of the two parties that are eventually connected (after a call transfer) is ATTCON, Link Reconnection cannot be provided. (At this point, even if the ATTCON transfers the call to a station in the same node and Station-to-Station connection is established, this function is not available.) In addition, this function is not provided when either of the two parties that are eventually connected has a held party.

In the following case, Link Reconnection is not provided:

Example 3:

1. A call between Station A and Station B is established.

2. Station B transfers the call to ATTCON C.

3. After connecting to ATTCON C, Station B is released.

4. At this time, Link between Station A and ATTCON C is not reestablished.

5. ATTCON C transfers the call to Station D.

6. After connecting to Station D, ATTCON C is released.

7. Link Reconnection (between Station A and D) is not provided.

Station A

Node B

Station B

Station D

Transfer to Station D

ATTCON C

Node A

Station A made a call to Station B

Station B transferred the call to Attendant Console C

Note 4: In case a call is connected to the announcement trunks used for Delay Announcement-UCD service and

ACD Delay Announcement service, Link Reconnection function is not provided. (At this time, if the call is eventually connected to UCD station/ACD agent position after the UCD station/ACD agent position becomes idle state, this function is provided.)

2) Index 187:Assign 00 Hex always.

COMMAND NAME

STEP 2: Route Data Assignment

ARTD

Assign the following three routes for this feature:

• Speech Path Route (Traffic Route)

• Signaling Route

• Dummy Route (Flag Route).

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BASIC DATA ASSIGNMENT

Assign each route data in accordance with the table shown below. Note that data assignment in this table is a typical example.

ROUTE

24567813152830434950

Speech 2234120121010/11

Signaling 22041001307000

Dummy 0004101000000

CDN

The other data than above should be set “0” (default data).

COMMAND NAME

STEP 3: Numbering Plan Data

ANPD & ASPA

Assign Numbering Plan Data referring to the following example using the ANPD command.

TN: 1 1st DC: 8 CI: N/H NND: 3 BLF 0

Assign Special Access Code, using the ASPA command referring to the following example. Note that “LCR” must be selected in the ASPA command to activate CCIS features.

(for accessing Node B)

TN: 1 ACC: 820 CI: N/H

SRV: LCR

RT: 31 2nd DT: 0 AH: 0 SUB: 0

(for accessing Node C)

TN: 1 ACC: 830 CI: N/H

SRV: LCR

RT: 31 2nd DT: 0 AH: 0 SUB: 0

Note: In this example, RT31 is dummy route.

Assign Reverse Numbering Plan Data using ARNP command. This assignment is required for speech path route only (not for a signalling route number and a dummy route number). In the Open Numbering Network, office code of the Self-node (including ACC for the originating call) must be assigned to RT0. The number of digits for office code must be identical in the network. This data is used for originating office code display on SMDR, D

term

, DESK CONSOLE/ATT and so on.

In addition to these commands, other commands related to “LCR” such as AFRS, AUNE, AOPR and AMND are required. For more detailed information on the LCR feature, see the “Feature Programming Manual”.

STEP 4: Restriction Data

COMMAND NAME

ARSC & ARRC

Assign route restriction data as to the already assigned route as required.

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BASIC DATA ASSIGNMENT

STEP 5: Assignment of Trunk Data

COMMAND NAME

ATR K & M BT K

Assign trunk(s) to desired LENs using the ATRK command. In this instance, the MBTK command is not required for the signaling trunk.

Note: See 2.1 “Port Allocation and Related Command”.

STEP 6: Assignment of DPC

COMMAND NAME

ADPC

Assign the associated PC on an RT (for speech path) number basis. In the case of the example illustrated in Figure 6-1, appropriate data is as follows.

RT PC

11 20

12 30

STEP 7: Assignment of Common Channel Signaling Controller (CSC)

COMMAND NAME

ACSC

Assign the location of the CCH using the ACSC command. The following is sample data assignment. In this sample, Node A is equipped with three DTI cards. Note that if the system employs one CCIS link, enter the same data in CSCG130 and CSCG131.

CSCG MG U G CICG CSCG MG U G CICG

AA A AA 0 CCH 0

BBBBB1 CCCCC1

130 (Basic/ Primary Route)

Note 1: In the case of actual data entry, enter corresponding LEN numbers instead of letters such as “AAAAA”. Note 2: Refer to 2.1 “Port Allocation and Related Command”.

BBBBB2 CCCCC2

BBBBB3 CCCCC3 CCH 2

BBBBB4 CCH 1 CCCCC 4

BBBBB5 CCCCC5

BBBBB6 CCCCC6

BBBBB7 CCCCC7

131 (Alternate Route)

CCCCC0

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STEP 8: Assignment of Circuit Identification Code1

COMMAND NAME

ACIC1

Assign the CSCG for Basic/Primary Route. The odd numbered CSCG for Alternate Route assignment.

PC CSCG

20 130

STEP 9: Assignment of Circuit Identification Code2

COMMAND NAME

ACIC2

Assign Circuit Identification Codes (CICs), which correspond to “trunk” number. Although trunk number and the CIC number may not be identical, the same CIC number must be given to one speech line between two nodes as illustrated in Figure 6-2.

PC CIC LEN

20 1 XXXXXX

2XXXXXX 0 81624–992

NXXXXXX 2 2101826–994

Relationship between CICG and CIC

CICG CIC (1 ~ 999)

1 1 91725–993

3 3 11 19 27 – 995

4 4 12 20 28 – 996

5 5 13 21 29 – 997

6 6 14 22 30 – 998

7 7 15 23 31 – 999

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Figure 6-2 CIC Number Assignment

The CIC number must be identical between two nodes as shown below.

BASIC DATA ASSIGNMENT

CCH0

TK4

Node A Node B

CCH1

TK5

CIC=1

CCIS line

CIC=2

CCIS line

CIC=1

CIC=2

CCH0’

TK7

CCH1’

TK8

When your network includes a tandem connection, be sure to assign PCs of the all nodes in the network. As Figure 6-3 “Example of a CCIS Network (Tandem)” shows, assign PCs 40 and 50 in addition to that of Node B (PC=20), which is directly connected to Node A.

Figure 6-3 Example of a CCIS Network (Tandem)

A sample office data assignment sheet for Node A is as follows.

Node A Node B Node D Node E

PC=10 PC=20 PC=40 PC=50

Node C

PC=30

Sample Office Data Assignment for Node A

PC CSCG CIC LEN

ACIC/ACIC2 command

20 130 1 xxxxxx

(for Node B) 2 xxxxxx

40 130 1 –

(for Node D) 2 –

50 130 1 –

(for Node E) 2 –

Note: Press the “SPACE” bar to skip LEN and press the “RETURN” key.

ND-71762 (E) CHAPTER 6

N xxxxxx

N–

Note

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BASIC DATA ASSIGNMENT

2.3 FCCS Data Assignment Procedure

This section explains the basic data assignment to be required when CCIS services are activated in an FCCS Network. Feature and Specifications Manual shows the CCIS services allowed in an FCCS Network. See “FCCS Network System Manual” and “Office Data Specification Manual” for details.

Note: This data setting is necessary for the following services since they may be provided to FCCS system.

• CENTRALIZED MAINTENANCE-CCIS [C-167]

• NUMBER PORTABILITY-CCIS [N-46]

For details of this feature, see “Feature Programming Manual”.

When the above features are used, there are conditions of FCCS data assignment as described below.

1. When connecting the stand-alone PBX, non-FCCS system, with another FCCS Group (FUG) or NEAX2000IPS, (a) The system must be the NCN. (b) The system is programmed as the FCCS Network configured by one NCN only. (c) Use the NDM of the system to program the network data.

2. When connecting the NEAX2400IPX system and the NEAX2000IPS system, CIC (Circuit Identification Code) =1 should always be assigned using ACIC2 command.

3. Common Channel Handler (CCH) location of the Common Channel Signaling Controller Group (CSCG) data (CCH location per CSCG) must be programmed against each PC of the connected IPX or IPS system using ACSCL command.

4. PCs (Point Codes) in the network through FUGs and IPS are programmed as unique (All PCs used in the network are different). For the system to be connected with the next system via CCIS link or the large sized network, this assignment is basically recommended.

5. The CCH to be used is selected as follows.

when the call is processed using the speech line (Bch), the outgoing/incoming route (Logical Route: LRT)

decides CCH. LRT → PC → CSCG → CCH when the call is processed without speech line (Bch) - inter-office service such as CALL BACK, MES-

SAGE WAITING service, MCI, etc., the called party’s number or PC of the destination decides CCH. (a) the called party’s number → LRT → PC → CSCG → CCH (b) PC → CSCG → CCH when logging into IPS or IPX in the remote FUG from the Centralized-MAT, PC of the node to be logged

in decides CCH. (a) IPS

PC → CSCG → CCH

(b) IPX in Remote FUG

FUG + FPC → PC → CSCG → CCH *FUG and FPC to be designated for logged-in node are converted automatically within the system.

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BASIC DATA ASSIGNMENT

Note that the data to be required varies depending on the node.

(a) Node providing CCIS trunk

See the basic data assignment procedure in the previous section

STEP 1: ASYD - Assign the unique PC for the self-node (OPC). STEP 2: ARTD - Assign the CCIS route data. STEP 3: ATRK - Assign the CCIS trunk data. STEP 4: MBTC - Assign IDLE status of trunks by designating Route Number and Trunk Number. STEP 5: ADPC - Assign the destination PC (Point Code) on RT (for speech path) number basis for all the nodes

in the network. STEP 6: ACSC - Assign the location of the CCH in CSCG (Common Channel Signaling Controller Group). STEP 7: ACIC1 - Assign CSCG for Basic/Primary Route. The odd numbered CSCG for Alternate Route assign-

ment. STEP 8: ACIC2 - Assign CICs (Circuit Identification Codes) corresponding to trunk number. Although trunk

number and the CIC may not be identical, the same CIC must be given to one speech line between two

nodes. Be sure to assign PCs of all nodes in the network corresponding to ADPC/ACIC1 command.

Note 1: When connecting the NEAX2400IPX system and the NEAX2000IPS system, CIC (Circuit Identification

Code) =1 should always be assigned using ACIC2 command.

STEP 9: ARNPL - Assign the access code for LCR/LCRS as assigned in ASPAN associated with the logical

routes for each external trunk assigned in ARTD/ ARTDN command. STEP 10: AMND - Assign the number of necessary digits to be received by the Register (ORT/IRT) circuit.

Note 2: The MND is the total number of ACC + Telephone Number.

(b) Node using the CCIS trunk in the remote node via FCCS line

STEP 1: ASYD - Assign the unique PC of self-node (OPC). STEP 2: ADPCL - Assign the destination Point Code (PC) on LGRT (for speech path) number basis for all the

nodes in the network. STEP 3: ACSCL - Assign the location of the CCH and FPC of the node which accommodates CCIS trunk in

CSCG (Common Channel Signaling Controller Group) for all nodes in the network.

Note 1: CSCG no. assigned in ACSC is not available.

STEP 4: ACIC1 - Assign the CSCG for Basic/Primary Route. The odd numbered CSCG for Alternate Route as-

signment. STEP 5: ARNPL - Assign the access code for LCR/LCRS as assigned in ASPAN associated with the logical

routes for each external trunk assigned in ARTD/ ARTDN command. STEP 6: AMND - Assign the number of necessary digits to be received by the Register (ORT/IRT) circuit.

Note 2: The MND is the total number of ACC + Telephone Number.

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BASIC DATA ASSIGNMENT

STEP 1: ALRTN - Assign the Logical Route Numbers to all external trunks used in the network. Assign unique

Logical Route Numbers to the whole routes for external trunks on the network (including COT, DAT,

dummy route, etc.) using this command. When the network accommodating multiple FCCS Networks

(FUGs) and/or NEAX7400ICS M100IMX is established, the data must be set at the NCN in each FUG

and is to be set for every external route in all the nodes. STEP 2: ARSCN - Assign route restriction information according to the Route Restriction Class (RSC) of the

Logical Route Number in the network. STEP 3: ANPDN - Assign the minimum number of digits needed to determine the service (Telephone Number)

which is required to the first digit received (pre-translation). STEP 4: ASPAN - Assign the special access code. Assign Abbreviated Digit Code (ADC) for connected FUGs

using AEADN command. STEP 5: AFRSN - Assign the NPC (Number Pattern Code) and OPR (Outgoing Route Selection Number) for

dummy route number. STEP 6: AOPRN - Assign the routes and in what order these routes will be selected corresponding to the data

assigned by AFRSN command. STEP 7: ARNPL - Assign the access code for LCR/LCRS as assigned in ASPAN associated with the logical

routes for each external trunk assigned in ARTD/ ARTDN command. STEP 8: AMND - Assign the number of necessary digits to be received by the Register (ORT/IRT) circuit.

Note 2: The MND is the total number of ACC + Telephone Number.

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BASIC DATA ASSIGNMENT

Data Assignment of Network through FCCS Groups and NEAX7400ICS M100IMX When CCH in the remote node is used via CCIS line, the data assignment shown below is required for inter-office service.

Example

Office Code: 76

FPC1

PC1

IMX (NCN)

FCCS

FPC2

CCIS

Office Code: 75

PC3

PC2

LGRT1

IMX (LN)

CCH:00020 ACC:75

M100IMX

In the example figure, FPC1(PC1) must be set the following data for inter-office service activated between FPC1(PC1) and PC3 (provided that CCIS data assignment is already programmed at FPC2(PC2) and PC3).

STEP 1: ADPCL - Assign PC for each speech path (Logical Route).

Example: LGRT=1, PC3 STEP 2: ACSCL - Assign the location of CCH in CSCG (Common Channel Signaling Controller Group) and FPC

node where accommodates CCH.

• Basic/Primary Route

CSCG

(2-254: even

number)

GROUP

(CIC Group

No.)

0200020

1200020

2200020

3200020

4200020

5200020

6200020

7200020

FPC

COMMON CHANNEL SIGNALING

CONTROLLER LENS (CCH)

MG U G

• Alternate Route

CSCG

(2-254: odd

number)

GROUP

(CIC Group

No.)

0200020

1200020

2200020

3200020

4200020

5200020

6200020

7200020

FPC

ND-71762 (E) CHAPTER 6

COMMON CHANNEL SIGNALING

CONTROLLER LENS (CCH)

MG U G

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BASIC DATA ASSIGNMENT

STEP 3: ACIC1 - Allocate CSCG no. against the remote node in the network.

Assign the point code assigned in ADPCL in PC parameter and CSCG no. (even number) for basic route

assigned in ACSCL to CSCG parameter.

*CSCG no. for alternate route assignment is not necessary.

Example: PC=3, CSCG=2 STEP 4: ARNPL - Assign the access code for speech route (Logical Route)

*The assignment for signal route and dummy route is not necessary.

Example: LGRT=1, ACC=75 STEP 5: ARNP -Assign the self-office code to RT0 in the open numbering network.

This number is used for Calling number identification on SMDR, D

term

, DESK CONSOLE, ATTENDANT CONSOLE, and inter-office services. Example: RT=0, ACC=76

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CCIS SERVICE FEATURES

CHAPTER 7 CCIS SERVICE FEATURES

1. GENERAL

Table 7-1 shows the list of CCIS service features. As for details of service features which are shown in Table 7-1, refer to “Feature Programming Manual” that explains each service feature by the following items.

• General Description

• Operating Procedure

• Service Conditions

• Interactions

•Programming

(1) General Description

(2) Operating Procedure

This item explains the procedure to be followed for receiving a specific service feature concerned. When testing a service feature, perform installation test work steps by referring to this item.

(3) Service Conditions

This item explains the functional outline of a specific service feature concerned and the matter of caution (hardware requirements, etc.) related to performance of that service feature. It is recommended that these items be referred to for more extensive knowledge of the service feature concerned.

(4) Interactions

This item explains the service conditions or hardware requirements when using together with other service features.

(5) Programming

This item explains the procedure of assigning various kinds of data required for performance of a specific service feature concerned. When recording necessary data into Data Programming Sheets provided in the “Office Data Specifications”, make data entry by referring to this item.

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CCIS SERVICE FEATURES

Table 7-1 List of Service Features for CCIS (1/2)

SERVICE CODE No. SERVICE FUNCTION NAME REMARKS

A-45 Attendant Camp-On with Tone Indication - CCIS A-46 Attendant Controlled Conference - CCIS A-71 Automatic Recall - CCIS A-87 Automatic Number Identification (ANI) - CCIS Note

A-126 ANI - CCIS (16 digit) Note

B-9 Busy Verification - CCIS B-10 Brokerage Hotline - CCIS C-44 Call Back - CCIS C-45 Call Forwarding - All Calls - CCIS C-46 Call Forwarding - Busy Line - CCIS C-47 Call Forwarding - Don’t Answer - CCIS C-48 Call Forwarding - Intercept - CCIS C-49 Call Forwarding - Override - CCIS C-50 Call Transfer - All Calls - CCIS C-51 Called Station Status Display - CCIS C-52 Calling/Called Number Display - CCIS C-53 Call Processing Indication - CCIS C-54 Call Transfer - Attendant - CCIS C-55 Centralized Billing - CCIS C-56 Centralized Day/Night Mode Change - CCIS C-57 Centralized System Management Report - CCIS C-58 Consultation Hold - All Calls - CCIS C-94 Call Forwarding Assignment - Attendant - CCIS

C-163 CCIS Networking via IP C-167 Centralized Maintenance - CCIS

D-70 Deluxe Traveling Class Mark - CCIS D-71 Dial Access to Attendant - CCIS D-72 Digital Display - Station - CCIS D-73 Digital Display - Trunk - CCIS D-74 Direct-In - Termination - CCIS D-75 Distinctive Ringing - CCIS

D-76D Do not Disturb - D

term

- CCIS

D-91 Dialed Number Display - Recall - CCIS Note

D-93D Dual Hold D

term

- CCIS E-8 Executive Right-of-Way - CCIS E-9 Elapsed Time Dispaly - CCIS

E-20 E911 - ANI Unified Number of Digits - CCIS Note F-12 Flexible Numbering of Stations - CCIS

H-10D Hands-Free Answerback - D

term

- CCIS H-11 House Phone - CCIS H-12 Hotline - CCIS

Note:

This feature is available in North America only.

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CCIS SERVICE FEATURES

Table 7-1 List of Service Features for CCIS (2/2)

SERVICE CODE No. SERVICE FUNCTION NAME REMARKS

I-16 Incoming Call Identification - CCIS I-17 Individual Attendant Access - CCIS I-18 Inter-Position Transfer - CCIS I-19 Individual Trunk Access - CCIS

L-25 Look Ahead Routing - CCIS

Note 1

L-29 LDN Night Connection - CCIS

M-34 Message Reminder - CCIS

M-34D Message Reminder -D

term

- CCIS M-35 Message Waiting Lamp Setting - Attendant - CCIS M-36 Message Waiting Lamp Setting - Station - CCIS M-37 Miscellaneous Trunk Access - CCIS M-38 Miscellaneous Trunk Restriction - CCIS M-40 Multiple Call Forwarding - All Calls - CCIS M-41 Multiple Call Forwarding - Busy Line - CCIS M-42 Multiple Call Forwarding - Don’t Answer - CCIS M-43 Multiple Console Operation - CCIS M-67 Message Center Interface - CCIS

N-15 Night Connection - Fixed - CCIS N-16 Night Connection - Flexible - CCIS

N-36 Name Display - OAI - CCIS

Note 2

N-37 Name Display - System - CCIS N-38 Node Number Suppression - CCIS

Note 2

N-46 Number Portability - CCIS O-11 Off-Hook Queuing - CCIS O-12 Outgoing Trunk Queuing - CCIS P-28 Paging Access - CCIS R-22 Restriction from Outgoing Calls - CCIS S-52 Serial Call - CCIS

S-53D Service Display - D

term

- CCIS S-55 Single-Digit Station Calling - CCIS S-56 Station-Controlled Conference - CCIS S-57 Station-to-Station Calling - CCIS S-58 Station-to-Station Calling -Operator Assistance - CCIS S-59 Step Call - CCIS S-73 Supervisory Call - CCIS T-26 Toll Restriction - 3/6-digit - CCIS T-27 Trunk Answer from Any Station - CCIS

U-5 Uniform Numbering Plan - CCIS V-7 Voice Call - CCIS

Note 1:

This feature is available in North America only.

Note 2: This feature is not available in North America.

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MAINTENANCE PROCEDURE

CHAPTER 8 MAINTENANCE PROCEDURE

1. GENERAL

This chapter describes the system messages related to basic CCIS Network (not including messages related to Network through FCCS Groups and NEAX2000IPS, procedures for CCIS Line operating mode control, and procedures for extracting/inserting the circuit cards for CCIS while the system is in service. For other matters, refer to the System Operation and Maintenance Manual.

2. SYSTEM MESSAGES

System messages are displayed during routine diagnosis, system operation status controlling and fault occurrences. This paragraph explains the following items for each system message related to CCIS:

(1) Meaning (2) Related System Message (3) Example of Printout (4) Message Detail Data (5) Diagnostic Work Note 2

Note 1

For those system messages which are not explained in this chapter, refer to the System Operation and Maintenance Manual.

Note 1: Paragraph 2.2: “Technical Terms for Explaining Message Detail Data” explains technical terms used in

the explanation.

Note 2: Paragraph 2.3: “How to Proceed with Diagnostic Work from System Message” explains how to perform

diagnosis.

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MAINTENANCE PROCEDURE

2.1 The Relationship between System Messages and Lamp Indications

When the system has detected a fault, the corresponding system message is displayed, at the same time, the related lamp on the TOPU.

Table 8-1 shows the relationship between system messages and default lamp indications.

Table 8-1 System Messages and Lamp Indications on TOPU

SYSTEM MESSAGE LAMP ON THE TOPU

No. NAME MJ MN SUP PWR

13-A CCH Clock Failure ×

13-B

13-C CCH C-Level Infinite Loop (Temporary) ×

13-D

13-E

13-F

13-G CCH B-Level Infinite Loop (Temporary) ×

13-H CCS Link Failure (Permanent) ×

13-I CCS Link Failure (Temporary)

13-J

13-K CCH Reset Interrupt Failure ×

CCH C-Level Infinite Loop (Permanent)

CCH Lock Up Failure (Permanent)

CCH Lock Up Failure (Temporary)

CCH B-Level Infinite Loop (Permanent)

Restoration from CCS Link Failure

17-A CCH MBR Key Turn ON

17-B CCH MBR Key Turn OFF

Note: ×: Default Lamp Indication.

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MAINTENANCE PROCEDURE

2.2 Technical Terms for Explaining Message Detail Data

Some technical terms are used to explain the detail data in each system message and circuit card information. Some technical terms and the circuit card mounting information, which are used in common to explain the various system message, are shown below.

Phase 1 Restart Processing Execution

All the processing being executed is suspended, and the system operations are allowed to restart from the monitor program without any hardware controlling involved. More specifically, the processing on calls being handled by the programs are abandoned, and all the connections already established are maintained.

Phase 3 Restart Processing Execution

By initializing each PM (Line/Trunk circuit card), the following processes are executed:

• Forcibly releasing the calls connected with the initialized Lines/Trunks.

• Releasing the related links.

Data for Analysis by NEC Engineers

These message detail data are used by NEC engineers when analyzing faults, and thus they are not used in ordinary fault repair works.

When a fault is complicated one, the data are used when reporting the fault to NEC or when NEC engineers inquire about the fault.

CHAPTER 8 ND-71762 (E) Page 86 Issue 2

NEC ND-71762E User Manual

Specifications and Main Features

Frequently Asked Questions

User Manual

CHAPTER 1 INTRODUCTION

1. GENERAL

2. HOW TO FOLLOW THE MANUAL

2.1 Configuration of the No. 7 CCIS System Manual

CHAPTER 2 GENERAL INFORMATION FOR CCIS

1. GENERAL

2. DESCRIPTION OF CCIS

3. SYSTEM CONFIGURATION

3.1 Outline

4. NETWORK CONFIGURATION

4.1 Types of Network

4.2 Examples of Network Configuration

4.2.1 Main-Satellite Configuration

4.2.2 Campus Configuration

4.2.3 Main-Remote Configuration

4.3 CCIS Network Modes

4.3.1 Associated Mode

4.3.2 Quasi-Associated Mode

4.4 CCIS Network Redundancy

5. DIGITAL NETWORK AND NETWORK SYNCHRONIZATION

5.1 Outline

5.2 Office Rank

5.2.1 Source Office

5.2.2 Sub-Source Office

5.2.3 Receiver Office and Local Receiver Office

5.3 Clock Pulses from M-OSC/EXT. OSC and Connection with PLO/OSC

5.4 Clocks Extracted from DTI and Connection of PLO/TSW

5.5 Automatic Clock Route Changeover

5.5.1 Automatic Route Changeover on Fault to M-OSC/EXT. OSC of Input Clock Route

5.5.2 Automatic Route Changeover on Fault to DTI of Input Clock Route

6. NETWORK THROUGH FCCS GROUPS AND NEAX2000 IPS Internet Protocol Server

6.1 Network Configuration

6.2 Conditions for Network Establishment

6.3 FCCS Group (FUG)

6.4 Interactions

CHAPTER 3 SWITCH SETTING SHEETS

1. GENERAL

2. LIST OF CIRCUIT CARDS

CHAPTER 4 INSTALLATION PROCEDURE

1. GENERAL

2. PRECAUTIONS ON INSTALLATION

3. INSTALLATION PROCEDURE

3.1 General Flow of Installation Procedure

3.2 Setting of Switch Positions and Mounting of the Circuit Cards

3.3 Cable Termination and Cross Connection from the MDF to the DSU

3.4 Front Cable Connection between DTI and CCH

3.5 Cable Running from PBX to the MODEM for Analog CCIS Line

CHAPTER 5 INSTALLATION TEST PROCEDURE

1. GENERAL

2. INSTALLATION TEST PROCEDURE

2.1 Overall Test for CCIS Line

2.1.1 Overall Test of CCIS Tie Line Outgoing Call

2.1.2 Overall Test of CCIS Tie Line Incoming Call

2.1.3 Test of Connection and Alternate Routing to All Tie Lines

2.1.4 Test of Tandem Connection to Tie Line

2.1.5 PAD Setting

2.2 CCIS Service Feature Functional Test

2.2.1 Test of Interoffice Station to Station Connection

2.2.2 Test of Outgoing Call Connection to Tie Line Trunk

2.2.3 Test of Transfer Services

2.2.4 Test of Services from ATTCON

2.2.5 Test of other Services

3. TEST RESULT REPORT

3.1 CCIS Service Feature Functional Test

3.1.1 Test of Interoffice Station to Station Connection

3.1.2 Test of Outgoing Call Connection to Tie Line Trunk

3.1.3 Test of Transfer Services

3.1.4 Test of Services from ATTCON

3.1.5 Test of Other Services

CHAPTER 6 BASIC DATA ASSIGNMENT

1. GENERAL

2. DATA ASSIGNMENT

2.1 Port Allocation and Related Command

2.2 Basic Data Assignment Procedure

2.3 FCCS Data Assignment Procedure

CHAPTER 7 CCIS SERVICE FEATURES