MGC INX-10A Operation Manual

Download

Page 1

INX-10A Series

Intelligent NAC Expander Panel

LT-899 Rev. 6.1 September 2014

Installation and Operation Manual

Page 2

Page 3

Table of Contents

1.0 Introduction 11

1.1 The INX-10A Intelligent NAC Expander Panel ............................................................... 12

1.1.1 Compatible Fire Alarm Control Panels............................................................................ 12

1.1.2 Features.......................................................................................................................... 12

1.1.3 General Notes................................................................................................................. 13

1.2 Contact Us ..................................................................................................................... 14

1.2.1 General Inquiries............................................................................................................. 14

1.2.2 Customer Service ............................................. ... ... ... .... ... ...................................... .... .... 14

1.2.3 Technical Support...................................... ... .... ... ... ... .... ... ... ... ........................................ 14

1.2.4 Website........................................................................................................................... 14

2.0 INX-10A Overview 15

2.1 INX-10A Components .................................................................................................... 16

3.0 Installation 17

3.1 Enclosure Dimensions ................................................................................................... 17

3.2 INX-10ADS Mechanical Installation .......................................... .... ... ... ... .... ... ... ... ... .... ... . 17

3.2.1 Installation Tips............................................................................................................... 18

3.3 INX-10AC Mounting Instructions ......................... ... ... .... ... ... ... ... .... ... ... ... .... ... ... ... ... .... ... . 19

3.4 Enclosure Dimensions ................................................................................................... 20

3.5 Installing the INX-10A Enclosure ................................................................................... 20

3.5.1 Installation Tips............................................................................................................... 22

3.6 Chassis Board Connections ........................................................................................... 23

4.0 Indication & Controls 24

4.1 Indication and Controls .................................................................................................. 25

4.1.1 Common Indicators......................................................................................................... 26

4.1.2 Trouble LEDs.................................................................................................................. 26

4.1.3 Other LEDs..................................................................................................................... 27

4.1.4 Flash Rate....................................................................................................................... 27

4.1.5 Controls........................................................................................................................... 27

5.0 Operation 28

5.1 Circuit Types ................................... .... ... ... ... .... ...................................... .... ... ................. 29

5.1.1 NAC (Output) Circuits Types .......................................................................................... 29

5.2 Intelligent NAC Expander (INX) Modes ........................................................... ... ... .... ... . 30

5.2.1 INX Internal Sync Mode.................................................................................................. 30

Page 4

Table of Contents

5.2.2 INX External Sync Mode.................................................................................................30

5.2.3 INX Mode with Redundant Input ..................................................................................... 31

5.2.4 Independent Mode - Driving Signals and Strobes...........................................................31

5.3 Power Supply Modes ..................................................................................................... 31

5.3.1 NAC Outputs as Power Supply Outputs .........................................................................31

5.3.2 NAC Outputs for Door Release....................................................................................... 31

5.3.3 NAC Outputs for 4 Wire Smoke Supply ..........................................................................31

5.4 Evacuation Codes ..........................................................................................................32

5.4.1 Single stage codes..........................................................................................................32

5.4.2 Two-stage codes.................... .... ... ... ... ... .... ...................................... .... ... ........................ 32

5.5 Horn Strobe Rates ......................................................................................................... 32

5.5.1 Single Stage....................................................................................................................32

5.5.2 Two-stage codes.................... .... ... ... ... ... .... ...................................... .... ... ........................ 32

6.0 Configuration 34

6.1 DIP Switches .................................................................................................................. 35

6.1.1 Using the DIP switches........................................................................ ... ... ... .... ... ... ... .....35

6.2 DIP Switch Configuration ............................................................................................... 36

6.2.1 Setting Loop Base Address, Disabling Addressable Loop Interface.... ... ... ... .... ... ... ... ... .. 36

6.2.2 Setting Protocols, Reporting, Charger, Battery Installed ................. .... ... ... ... .................. 40

6.2.3 Charger Settings, Synchronization Settings, NAC Input Settings .................................. 41

6.2.4 Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions .................................. 42

6.2.5 Setting Strobe Types, NAC 1-3 Supply Settings, NAC 4 Output Function...................... 43

6.3 Single Stage Addressing ................................................................................................44

6.3.1 Single Stage with Basic Reporting Addressing...............................................................44

6.3.2 Software Configuration - Single Stage with Basic Reporting Addressing ...................... 45

6.3.3 Single Stage with Enhanced Trouble Reporting Addressing ......................................... 47

6.3.4 Software Configuration - Single Stage with Enhanced Trouble Reporting Addressing...48

6.3.5 Single Stage with Basic Reporting and Power Supply Output Addressing ............... ..... 50

6.3.6 Software Configuration - Single Stage with Basic Reporting and Power Supply Output

Addressing......................................................................................................................51

6.3.7 Single Stage with Enhanced Reporting and Power Supply Output Addressing ............. 53

6.3.8 Software Configuration - Single Stage with Enhanced Reporting and Power Supply

Output Addressing .........................................................................................................55

6.4 Two Stage Addressing Options ...................................................................................... 57

6.4.1 Two Stage with Basic Reporting Addressing ..................................................................57

6.4.2 Software Configuration - Two Stage with Basic Reporting Addressing .......................... 59

6.4.3 Two Stage Address Assignment with Enhanced Trouble Reporting .............................. 61

6.4.4 Software Configuration - Two Stage Address Assignment with Enhanced Trouble

Reporting.........................................................................................................................63

6.4.5 Two Stage with Basic Reporting and Power Supply Output Addressing .......................65

6.4.6 Software Configuration -Two Stage with Basic Reporting and Power Supply Output

Addressing .....................................................................................................................67

6.4.7 Two Stage Address Assignment with Enhanced Trouble Reporting and Power Supply

Addressing .....................................................................................................................69

Page 5

Table of Contents

6.4.8 Software Configuration - Two Stage Address Assignment with Enhanced Trouble

Reporting and Power Supply Addressing....................................................................... 71

6.4.9 Adding Functions in the FX-2000 Configurator Software.................. ... ... .... .................... 72

6.5 Independent Mode Configuration Options ..................................................................... 73

6.5.1 NACs 1 and 2 Configured as Signals ............................................... ... ... .... ... ... ... ... ........ 73

6.5.2 NAC1, NAC2 and NAC3 Configured as Signals ............................................................ 75

7.0 Wiring 77

7.1 Wiring Tables ................................................................................................................. 78

7.2 Main Board Terminal Connections ................................................................................. 79

7.2.1 SLC Loop Wiring - Class B .... ... ... ... .... ... ....................................... ... ... ... .... ... ... ... ... .... ... . 80

7.2.2 SLC Loop Wiring - Class A .... ... ... ... .... ... ....................................... ... ... ... .... ... ... ... ... .... ... . 80

7.2.3 Synchronized Input from FACP Wiring - Class B........... ... ... ... ... .... ................................. 81

7.2.4 Synchronized Input from FACP Wiring- Class A............................................................. 81

7.2.5 Synchronized Input from INX-10A Wiring - Class B Single Slave................................... 82

7.2.6 Synchronized Input from INX-10A SIngle Stage Wiring - Class B Multiple Slaves......... 83

7.2.7 Synchronized Input from INX-10A Two Stage Wiring - Class B Multiple Slaves........ ... . 84

7.2.8 Relay Contact Activation from FACP - Single Stage ...................................................... 85

7.2.9 Relay Contact Activation from FACP - Two Stage.......................................................... 86

7.2.10 Relay, Ground Supervision and Auxiliary Supply Wiring ................................................ 87

7.2.11 Supervision of Auxiliary Supply Wiring ........................................................................... 87

7.2.12 NAC CIrcuit Wiring - Class B .......................................................................................... 88

7.2.13 NAC CIrcuit Wiring - Class A .......................................................................................... 88

7.3 Power Supply Connections ............................................................................................ 89

7.4 System Checkout ........................................................................................................... 90

7.4.1 Before Turning The Power ON ....................................................................................... 90

7.4.2 Power-up Procedure..................................... .... ... ... ....................................... ... ... ... .... ... . 90

7.5 Troubleshooting ............................................................................................................. 90

7.5.1 Circuit Trouble......................... ... ... ... ....................................... ... .... ... ... ... ........................ 90

7.5.2 Ground Fault................................................................................................................... 90

7.5.3 Battery Trouble ............................................................................................................... 90

7.5.4 Common Trouble............................................................................................................ 91

8.0 Warranty & Warning Information 92

9.0 Appendix A - Specifications And Features 96

10.0 Appendix B - Power Supply & Battery Calculations 97

11.0 Appendix C - Sample Applications 98

11.1 Minimal Size Single Stage Addressable System - Factory Default Settings................... 98

11.2 Minimal Two Stage Addressable System ....................................................................... 99

Page 6

Table of Contents

11.3 Minimal ULC Two Stage Addressable System ............................................................... 100

12.0 Appendix D - FX-2000 and FleX-Net Series ULI Compatible Devices 101

12.1 Horns and Bells...............................................................................................................101

12.2 Synchronized Strobes..................................................................................................... 101

Page 7

List of Figures

Figure 1 INX-10ADS Installation Instructions and Dimensions ........................................................... 18

Figure 2 INX-10AC Mounting Instructions ........................................................................................... 19

Figure 3 INX-10A Dimensions ............................................................................................................. 20

Figure 4 FA-300TR Dimensions .......................................................................................................... 21

Figure 5 Flush mounting the enclosure ............................................................................................... 21

Figure 6 INX-10A Chassis Board Connectors and Jumpers ............................................................... 23

Figure 7 Main Board highlighting Common Indicators, Trouble LED’s, Other LED’s .......................... 25

Figure 8 Common Indicators ............................................................................................................... 26

Figure 9 Trouble LEDs ........................................................................................................................ 26

Figure 10 Additional LEDs ..................................................................................................................... 27

Figure 11 Evacuation Codes ................................................................................................................. 33

Figure 12 DIP switch positions .............................................................................................................. 35

Figure 13 DIP switch address example ............................................................................................... 36

Figure 14 Configurator CLIP/Advance Protocol Device Address Space window .................................. 38

Figure 15 FX-2000 Configurator Settings - INX-10A Single Stage with Basic Reporting ...................... 45

Figure 16 Secutron MR-2100/2200/2900 Configuration Settings - INX-10A Single Stage with Basic

Reporting ...............................................................................................................................

Figure 17 FX-3500/3500RCU/MR-2350 Configuration Settings - INX-10A Single Stage with Basic

Reporting ...............................................................................................................................

Figure 18 FX-2000 Configurator Settings - INX-10A Single Stage with Enhanced Reporting .............. 48

Figure 19 Secutron MR-2100/2200/2900 Configuration Settings - INX-10A Single Stage with Enhanced

Reporting ...............................................................................................................................

Figure 20 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Single Stage with Enhanced

Reporting ...............................................................................................................................

Figure 21 FX-2000 Configurator Settings - INX-10A Single Stage with Basic Reporting and Power

Supply Output .......................................................................................................................

Figure 22 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Single Stage with Basic

Reporting and Power Supply Output .....................................................................................

Figure 23 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Single Stage with Basic

Reporting and Power Supply Output .....................................................................................

Figure 24 FX-2000 Configurator Settings - INX-10A Single Stage with Enhanced Reporting and

Power Supply Output ............................................................................................................

Figure 25 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Single Stage with

Power Supply Output ............................................................................................................

Figure 26 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Single Stage with Enhanced

Reporting and Power Supply Output .....................................................................................

Figure 27 FX-2000 Configurator Settings - INX-10A Two Stage with Basic Reporting ......................... 59

Figure 28 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Two Stage with Basic

Reporting ...............................................................................................................................

Figure 29 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Two Stage with Basic

Reporting ...............................................................................................................................

Figure 30 FX-2000 Configurator Settings - INX-10A Two Stage with Enhanced Reporting ................. 63

Figure 31 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Two Stage with Enhanced

Reporting ...............................................................................................................................

Figure 32 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Two Stage with Enhanced

Reporting ...............................................................................................................................

Figure 33 FX-2000 Configurator Settings - INX-10A Two Stage with Power Supply Output ................ 67

Figure 34 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Two Stage with Power

Supply Output .......................................................................................................................

Figure 35 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Two Stage with Power

Page 8

List of Figures

Supply Output ........................................................................................................................ 68

Figure 36 FX-2000 Configurator Settings - INX-10A Two Stage with Enhanced Reporting and

Power Supply Addressing ......................................................................................................

Figure 37 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Two Stage with Enhanced

Reporting and Power Supply Addressing ..............................................................................

Figure 38 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Two Stage with Enhanced

Reporting and Power Supply Addressing ..............................................................................

Figure 39 Add Devices Window ............................................................................................................. 72

Figure 40 Main Board Terminal Blocks .................................................................................................. 79

Figure 41 SLC Loop Wiring - Class B .................................................................................................... 80

Figure 42 SLC Loop Wiring - Class A .................................................................................................... 80

Figure 43 Synchronized Input from FACP Wiring - Class B .................................................................. 81

Figure 44 Synchronized Input from FACP Wiring - Class A .................................................................. 81

Figure 45 Synchronized Input from INX-10A Wiring - Class B Single Slave ......................................... 82

Figure 46 Synchronized Input from INX-10A Wiring - Class B Multiple Slaves .................................... 83

Figure 47 Synchronized Input from INX-10A Wiring - Class B Multiple Slaves .................................... 84

Figure 48 Relay Contact Activation from FACP - Single Stage ............................................................. 85

Figure 49 Relay Contact Activation from FACP - Two Stage ................................................................ 86

Figure 50 Relay, Ground Supervision and Auxiliary Supply Wiring ....................................................... 87

Figure 51 Relay, Ground Supervision and Auxiliary Supply Wiring ....................................................... 87

Figure 52 NAC CIrcuit Wiring - Class B ................................................................................................. 88

Figure 53 NAC CIrcuit Wiring - Class A ................................................................................................. 88

Figure 54 Power Supply Connections .................................................................................................... 89

Page 9

List of Tables

Table 1 Compatible Fire Alarm Control Panels ........................................................................... 12

Table 2 INX-10A Components .................................................................................................... 16

Table 3 INX-10A Chassis Board Connectors and Jumpers .......................... ... ... .... ... ... ... ... .... .... 23

Table 4 Setting INX-10A Base Address/ Disabling Addressable Loop Interface ........................ 36

Table 5 INX-10A Base Address DIP switch positions ......................... ........................................ 37

Table 6 Setting Protocols, Enabling Second Stage, Setting AC Fail Reporting, Enabling

Charger, Battery Installed .............................................................................................. 40

Table 7 Charger Settings, Synchronization Settings, NAC Input Settings .......................... .... ... . 41

Table 8 Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions .................................. 42

Table 9 Setting Strobe Types, NAC 1-3 Supply Settings, NAC 4 Output Function .................... 43

Table 10 Configuring Single Stage Functions ............................................................................... 45

Table 11 Configuring Single Stage with Enhanced Reporting Functions ..................................... 47

Table 12 Assigning Addresses - Single Stage with Basic Reporting and Power Supply Output .. 51

Table 13 Assigning Addresses - Single Stage Application, 1 Power Supply Output .................... 54

Table 14 Configuring Two Stage Functions .................................................................................. 57

Table 15 Configuring Two Stage Address Assignment with Enhanced Trouble Reporting .......... 61

Table 16 Assigning Addresses - Two Stage Application, 1 Power Supply Output ....................... 65

Table 17 Configuring Two Stage Address Assignment with Enhanced Trouble Reporting and

Power Supply Addressing ............................................................................................. 70

Table 18 Independent Mode DIP Switch Settings - NAC1 and NAC2 configured as Signals ....... 73

Table 19 Independent Mode DIP Switch Settings - NAC1, NAC2 and NAC3 configured

as Signals............................................................................................................... 75

Table 20 Wiring Table for Input Circuits ........................................................................................ 78

Table 21 Wiring Table for NAC and Auxiliary Power Circuits ....................................................... 78

Table 22 Description of features provided by SLC Interface and Contact Interface ..................... 85

Table 23 Power Supply Electrical Ratings .................................................................................... 89

Table 24 INX-10A, INX-10ADS and INX-10AC Specifications and Features ............................... 96

Table 25 FX-2000 and FLeX-Net Series ULI Compatible Horns and Bells .................................. 101

Table 26 FX-2000 and FLeX-Net Series ULI Compatible Synchronized Strobes ......................... 101

Page 10

List of Tables

Page 11

Introduction

1.0 Introduction

This document provides inform ation for the successful installation, operation and configuration of the INX-10A, the INX-10ADS, and the INX-10AC. Unless specifically mentioned, INX-10A can hereafter be used to refer to any of the INX-10A, the INX-10ADS, or the INX-10AC.

This chapter explains

• Feature Overview

• Contact Information

Page 12

1.1 The INX-10A Intelligent NAC Expander Panel

Mircom‘s INX-10A is an Intelligent NAC Expander Panel and operates in CLIP (Classic Loop Interface Protocol) mode. Available as a 10 Amp configuration, the INX-10A extends the power capabilities of existing notification appliance circuits and provides power for other ancillary devices.

The INX-10A also has the ability to operate with any UL Listed 24 VDC conventional fire alarm control panel to provide Notification Appliance Circuit expansion.

1.1.1 Compatible Fire Alarm Control Panels

Table 1 Compatible Fire Alarm Control Panels

Manufacturer Fire Alarm Control Panel Series

Mircom FleX-Net

FX-2003-12N FX-2017-12N

Introduction

Secutron MR-2100 / MR-2200 Series

1.1.2 Features

• Supports 2 synchronized panels on one node to meet sync timing requirements

FX-2009-12N FX-2003-6 FX-2003-12 FX-2003S-12 FX-2017-12A FX-2017S-12A FX-2009-12 FX-2009S-12 FX-3500 FX-3500RCU

MR-2900 Series MR-2350

• Supports up to 14 panels per node using minimal configuration (7 SLC points per

booster)

• Supports up to 6 panels per node using maximum configuration (15 points for extended

trouble reporting and two-stage operation).

• Outputs used as power supply outputs do not require panel configuration or SLC

addresses

• Utilizes DIP switches for configuration

• DC regulated outputs

Page 13

Introduction

• Configurable NAC, Power and Door Holder Outputs

• Configurable AC Power fail delay

• Enable or disable Ground fault

• Separate Relay for Ground Fault and Common Trouble available on terminals

• Enable or disable the Battery Charger on activation

• Class A or B output signals

• Horn/Strobe syn c pr ot ocols include Mircom, Amseco, Gentex, Syste m Sens or and

Wheelock

• Ability to sync outputs for multiple INX-10A units

• 2 wire horn/strobe Sync mode allows audible notification appliances (horns) to be

silenced while visual notification appliances (strobes) continue to operate

• Audible signals may be configured for Steady, Temporal Code, California Code and

March Time

• Output fault notification to FACP

• Built-in charger for sealed lead acid or gel type batteries up to and including 40 Ah

storage capacity.

• Enclosure fits 4 Ah, 7 Ah, and 12 Ah batteries. 18 Ah batteries will fit in the INX-10ADS

only. The INX-10A series can charge 40 Ah batteries but they must be placed in an external battery cabinet (BC-160).

• 2.5 Amp max current per output

• 1.7 Amp auxiliary power output

• Unit includes power supply and charger, red enclosure, cam lock, transformer and

battery leads

• Compatible with 24VDC fire panels

• Surface or flush-mountable

1.1.3 General Notes

Circuits And Zones

Circuits refers to an actual electrical interface, Input (Detection), NAC Notification Appliance Circuit) which connect audible and visible notification appliances to the fire alarm system control unit (Signal), or Relay.

Wiring Styles

• Input Circuits are configured as Class B (Style B).

• NAC Circuits may be individually wired as Class A (Style Z) or Class B (Style Y) without

affecting the number of circuits available.

• Signal Line Circuit Class A (Style 7) and Class B (Style 3).

Page 14

1.2 Contact Us

For General Inquiries, Customer Service and Technical Support you can contact us Monday to Friday 8:00 A.M. to 5:00 P.M. E.S.T.

1.2.1 General Inquiries

Toll Free 1-888-660-4655 (North America Only)

Introduction

Local 905-660-4655 Email [email protected]

1.2.2 Customer Service

Toll Free 1-888-MIRCOM5 (North America Only) Local 905-695-3535 Toll Free Fax 1-888-660-4113 (North America Only) Local Fax 905-660-4113 Email [email protected]

1.2.3 Technical Support

Toll Free 1-888-MIRCOM5 (North America Only)

888-647-2665

International 905-647-2665 Email [email protected]

1.2.4 Website

www.mircomgroup.com

Page 15

2.0 INX-10A Overview

This chapter lists the components of the INX-10A.

This chapter explains

• INX-10A Components

INX-10A Overview

Page 16

2.1 INX-10A Components

W= 5.94" H= 3.94" D= 3.86"

BA-110 10AH

The following table describes the components of the INX-10A.

Table 2 INX-10A Components

Model Description

INX-10A Overview

INX-10A

INX-10ADS

Intelligent NAC Expander, 10 Amps.

Intelligent NAC Expander, 10 Amps. Mounts into the BBX1024DS.

INX-10AC

BA-104, BA-1065, BA110, BA-117

Intelligent NAC Expander, 10 Amps Addressable Chassis

Mounts into the BB-5008 or BB5014 enclosure.

12 VOLT Batteries (4 Ah to 12 Ah).

18 Ah batteries fit in the INX10ADS only.

Maximum 40 Ah batteries with an external enclosure.

Page 17

This chapter describes the installation of the INX-10ADS, INX-10AC, and INX-10A.

This chapter explains

• How to mount the Enclosure

• Main Chassis Board Connections

3.1 Enclosure Dimensions

Dimensions of Enclosure (minus built in trim ring) 14.5” x 4.2” x 26” Distance between horizontal mounting screws 12” Distance between vertical mounting screws 23.5” Complete Dimensions of Enclosures 16.3” x 5.5” x 27.5”

Installation

3.0 Installation

3.2 INX-10ADS Mechanical Installation

The INX-10ADS comes with an BBX-1024DS or BBX-1024DSR enclosure which are suitable for flush or surface mounting, and have a built-in trim ring.

Page 18

Installation

1.3 "

1.7 "

2.0 "

Top View

2.1 "

1.3 "

6.0 "

9.5 "

Side View

14.50

26.00

4.20

12.00

23.90

Figure 1 INX-10ADS Installation Instructions and Dimensions

3.2.1 Installation Tips

• Group the incoming wires through the top o f the enclosure. Use a wire tie to group wir es

for easy identification and neatness.

• Be sure to connect a solid Earth Ground (from building system ground / to a cold water

pipe) to the Chassis Earth Ground Mounting Lug, and to co nnect the Earth Gro und Wire Lugs from the Main Chassis to the ground screw on the Backbox.

Attention: DO NOT install cable through bottom of the box. This space is reserved

for Batteries.

Page 19

3.3 INX-10AC Mounting Instructions

All twelve black circles represent mounting studs. Use #6 HEX nuts provided to secure to backbox BB-5008 or BB-5014.

All twelve black circles represent mounting studs. Use #6 HEX nuts provided to secure chassis to backbox BB-5008 or BB-5014.

INX-10A Board

Battery

Transformer

The INX-10AC mounts into the BB-5008 or BB-5014 enclosure as shown in Figure 2.

Installation

Figure 2 INX-10AC Mounting Instructions

Page 20

3.4 Enclosure Dimensions

19.85 "

14.23 "

4.42 "

1.00 "

1.20 "

3.45 "

Top View

1.00 "

1.42 "

Side View

11.00 "

14.10 "

External Dimensions Mounting Dimensions

Outer Dimensions 14.23” x 4.42” x 19.85” Distance between upper mounting screws 11” Distance between lower mounting screws 11” Distance between upper and lower mounting screws 14.1” FA-300TR Dimensions 17” x 22.5”

3.5 Installing the INX-10A Enclosure

The INX-10A can be surface mounted with four screws as shown in Figure 3 or flush mounted as shown in Figure 5 on page 21.

Installation

Figure 3 INX-10A Dimensions

Page 21

To Surface Mount the Enclosure

TRIM RING

WALL

WOOD OR

METAL STUD

BACKBOX

1. Using the INX-10A back plate as a template, mark the top of the two mounting hole locations 11” apart as shown in Figure 3 INX-10A Dimensions.

2. Place the screws halfway into the wall in the position shown using a suitable screw.

3. Hang the box onto the two screws.

4. Screw the other two screws at the bottom of the panel.

5. Tighten all four screws into place.

Trim Ring Dimensions

17"

Installation

Adhere to surface

22.5"

around the INX-10A backbox

Figure 4 FA-300TR Dimensions

Figure 5 Flush mounting the enclosure

Page 22

To Flush Mount the Enclosure

1. Unscrew and remove Main Chassis and Transfor mer from the enclosure.

2. Unscrew the wingnut and remove the door.

3. Mount the backbox into the wall.

4. After the wall is finished, peel the adhesive cover from the trim ring and stick to the wall surface around the backbox.

Note: Figure 3 shows a cross-section of the semi-flush mounted backbox and the trim

ring. Allow a minimum depth of 1” above the wall surface for proper door opening.

3.5.1 Installation Tips

• Group the incoming wires through the top o f the enclosure. Use a wire tie to group wir es

for easy identification and neatness.

• Be sure to connect a solid Earth Ground (from building system ground / to a cold water

pipe) to the Chassis Earth Ground Mounting Lug, and to co nnect the Earth Gro und Wire Lugs from the Main Chassis to the ground screw on the Backbox.

Installation

Attention: DO NOT install cable through bottom of the box. This space is reserved

for Batteries.

Page 23

3.6 Chassis Board Connections

The Main Chassis is preinstalled in the INX-10A Enclosure as show n in Figure 1 INX-10ADS Installation Instructions and Dimensions on page 18. The connections are shown in Figure 6 INX-10A Chassis Board Connectors and Jumpers on page 23 and are described in Table 3 INX-10A Chassis Board Connectors and Jumpers on page 23.

Installation

AUX OUTPUT TROUBLE

JW1

POWER ON

ADD. LINE ACTIVITY/ ALARM

SYNCH. OUT TROUBLE

GFAULT

JW2

COMMON

TROUBLE

BATTERY/

CHARGER TROUBLE

CPU FAIL

P3 P4

ACK.

P1 P2

BUTTON

Figure 6 INX-10A Chassis Board Connectors and Jumpe rs Table 3 INX-10A Chassis Board Connectors and Jumpers

Connector/Jumper Description

P1,2 Connection for 29VAC AC In

P3,4

JW1

JW2 Factory set (closed), leave in place

Connection to Battery Red(+) to P3 Black(-) to P4

Auxiliary Power Supervision. Factory set ON. Leave in place for supervision. Remove for non-supervision.

Page 24

Indication & Controls

4.0 Indication & Controls

This chapter describes the LED indicators and controls of the INX-10A.

This chapter explains

• Main Chassis Board LED Indicators

• Flash Rates

• Acknowledge button

• DIP switches

Page 25

4.1 Indication and Controls

The INX-10A has 5 main annunciation indicators located on the main display panel. For troubleshooting purposes there are 3 trouble LED indicators located directly on the main board. There are also other LED’s for SLC activity, synchronized input and output activity, and trouble and alarm relay. These indicators are only visible after opening the enclosure. Indicators may be Amber, Red, or Green, and may illuminate continuously (steady), or at the Trouble Flash Rate. For additional info rmation see 4.1.4 Flash Rate on page 27.

There is one control button, the acknowledge button, located underneath the main display panel. There are also five DIP switches used for configuration. For additional information see

6.0 Configuration on page 34. Figure 7 displays the LED indicators and the control button on the INX-10A main board.

+ +

ADDRESSABLE LOOP

RECV1

RECV2 XMIT

+ +

SYNCH. INPUT 1

INPUT

ACTIVE

+ +

SYNCH. INPUT 2

INPUT

ACTIVE

TROUBLE RELAY ALARM RELAY

SYSTEM

NC NO C

NO C

ALARM RELAY

ALARMOKNAC ON TROUBLE NAC ON

OTHER LEDs

see section 4.1.3

Z-YZ

YZ+Z

NAC 1

Indication & Controls

Z-YZ

NAC 2

TROUBLE

YZ+Z+Z-YZ

NAC 3

NAC ON

YZ+Z

TROUBLE

NAC ON

YZ+Z+Z-YZ

NAC 4

TROUBLE

YZ+Z+Z-YZ

NAC ON

NAC 5

TROUBLE

+ +

SYNCH OUTPUTS

TROUBLE LEDs

see section 4.1.2

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

P3 P4 P1 P2

JW1

CONFIGURATION DIP SWITCHES

COMMON INDICATORS

see section 4.1.1

ACKNOWLEDGE BUTTON

POWER ON

ADD. LINE ACTIVITY/ ALARM COMMON TROUBLE

BATTERY/ CHARGER TROUBLE

CPU FAIL

Figure 7 Main Board highlighting Common Indicators, Trouble LED’s, Other LED’s

Page 26

4.1.1 Common Indicators

Figure 8 Common Indicators

Figure 9 Trouble LEDs

The main display panel has 5 common LED indicators; Power On, Add. Line Activity/Alarm, Common Trouble, Battery / Charger Trouble and CPU fail.

Indication & Controls

Power On

The Power On LED Indicator activates steady green while the main AC power is within acceptable levels. It flashes green to display a trouble whe n the level falls below the power-fail threshold and the panel is switched to s tandby (battery) power.

Addressable LIne Activity / Alarm (Add. Line Activity / Alarm)

The Addressable Line Activity / Alarm Indicator flashes red whenever there is activity on the addressa ble circuit(s). It activates steady red when there is an alarm.

Common Trouble

The Common Trouble LED Indicator activates steady amber to indicate any active trouble and flashes for restored troubles. To clear the trouble and reset the panel press the acknowledge button. The additional troubleshooting LED’s on the main board can provide more information on what the trouble is. See 4. 1.2 Trouble LEDs below for a description.

Battery / Charger Trouble

POWER ON

ADD. LINE ACTIVITY/ ALARM

COMMON TROUBLE

BATTERY/ CHARGER TROUBLE

CPU FAIL

The Battery / Charger Trou ble L ED Ind ica to r a cti vates ste ady amber when the Battery is either low (below 20.4 VDC), or the Battery or Charger are disconnected. It flashes amber for a restored trouble. For configuration information see 6.2.2 Setting Protocols, Reporting, Charger, Battery Installed on page 40.

CPU Fail

The CPU Fail LED Indicator flashes amber when the processor ceases functioning.

4.1.2 Trouble LEDs

The main board has three onboard LEDs to aid in troubleshooting. The door must be opened in order to view these LEDs.

Auxiliary Supply Trouble

Flashes amber when there is a trouble with the auxiliary supply output, check for shorts or excessive load.

Synchronized Output Trouble

Flashes amber when there is a trouble with the synchronized output. Check the circuit for presence of EOL or short.

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

Page 27

Ground Fault Trouble

Flashes amber when there is a ground fault trouble. To correct the fault, check for any external wiring touching the chassis. Jumper, a wire loop, must be installed to enable Ground Fault detection. For wiring information see 7.2.10 Relay, Ground S upervision and Auxiliary Supply Wiring on page 87. For configuration information see 6.2.2 Setting Protocols, Reporting, Charger, Battery Installed on page 40.

4.1.3 Other LEDs

+ +

ADDRESSABLE LOOP

RECV1

RECV2 XMIT

+ +

SYNCH. INPUT 1

INPUT

ACTIVE

Figure 10 Additional LEDs

Addressable (SLC) Loop Indicators

Three LEDs. Two LED’s that flash green for incoming activity for each loop, and one that flashes red for outgoing loop activ ity.

+ +

ACTIVE

SYNCH. INPUT 2 TROUBLE RELAY ALARM RELAY

INPUT

SYSTEM

Indication & Controls

NC NO C

ALARM RELAY

ALARMOKNAC ON TROUBLE NAC ON TROUBLE NAC ON TROUBLE NAC ON TROUBLE NAC ON TROUBLE

YZ+Z

NAC 1

Z-YZ

YZ+Z

NAC 2

YZ+Z+Z-YZ

NAC 3

YZ+Z+Z-YZ

NAC 4

YZ+Z+Z-YZ

NAC 5

+ +

SYNCH OUTPUTS

Synchronized Input Indicators

Two LEDs. One LED on each input that flashes green for incoming activity.

Trouble Relay Indicator

One LED that is steady green for system OK.

Alarm Relay Indicator

One red LED that is steady red when an alarm is activated .

NAC Circuit Indicators

Each NAC Circuit has one red LED that flashes when activated and one amber that activates solid when a trouble occurs. To clear the trouble and reset the panel press the acknowledge button.

Synchronized Output Indicators

Two LEDs. One LED on each output that flashes green for outgoing activity.

4.1.4 Flash Rate

Trouble Flash

20 flashes per minute, 50% duty cycle.

4.1.5 Controls

Acknowledge Button

This button is used to clear any trouble indications on the INX-10A.

Configuration DIP switches

The DIP switches are used for a variety of different configuration settings. For more information see Chapter 6.0 Configuration on page 34.

Page 28

5.0 Operation

This chapter describes operational capabilities of the INX-10A

This chapter explains

• Circuit Types

• Synchronization Modes

• Power Supply Modes

• Evacuation Codes

Operation

Page 29

Operation

NOTICE TO USERS, INSTALLERS, AUTHORITIES HAVING JURISDICTION, AND OTHER INVOLVED PARTIES

This product incorporates field-programmable software. In order for the product to comply with the requirements in the Standard for Control Units and Accessories for Fire Alarm Systems, UL 864, certain programming features or options must be limited to specific

values or not used at all as indicated below.

Program feature or option Permitted in UL 864? (Y/N) Possible settings

Second Stage Enabled YES

AC Trouble YES

Battery/Charger Trouble YES

Ground Fault YES

Second Stage Enabled/Disabled (Free loop addresses base +7 to base +11)

Return Specific ULC Trouble/Free loop addresses base +2 to base +4

5.1 Circuit Types

Any failure on the SLC loop activates any configured NAC Circuits.

Attention: If th e INX-10A has configured NAC circuits the Evacuation Rate or Strobe

Rate MUST be set via the appropriate DIP switches or a trouble will sound. For more information see 6.2.3 Charge r Settings, Synchronization Settings, NAC Input Settings on page 41 and 6.2.4 Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions on page 42.

Settings permitted in UL 864

Second Stage Enabled

Reporting of ULC Specific trouble is permitted

5.1.1 NAC (Output) Circuits Types

Signal

For audible devices such as bells and piezo mini-horns. While sounding, these follow the pattern appropriate for the condition;

• the configured Evacuation Code (default is T emporal Code) during Single-Stage Alarm

• Two-Stage General Alarm

• or the Alert Code during Two-Stage’s Alert (First) Stage.

Strobe

For visual devices such as strobes that use no code pattern (they are continuous) and follow input contact.

Synchronized Strobes

For visual devices such as strobes that support Mircom/Amseco, System Sensor, Gentex, Wheelock proprietary code patterns, configure to the appropriate pattern.

DC Power Supply

Uses no code pattern (they are continuous) and cannot be silenced. Configured via DIP switches and is not allocated an SLC address.

Page 30

5.2 Intelligent NAC Expander (INX) Modes

The INX-10A is capable of synchronizing signal rates internally or receiving the signals externally. The INX-10A also has the ability to synchronize the signal rates for another INX-

10A in a Master - Slave relationship.

Attention: When using multiple INX-10A panels in a Master - Slave relationship,

always assign a lower address to the master INX-10A panel.

5.2.1 INX Internal Sync Mode

In this mode all signal and sync strobe rates are produced in the INX-10A. When a NAC circuit is commanded by the FACP to turn on, the NAC output signals are produced based on how the DIP switches are configured.

The Sync Outputs will be activated when one of the NAC circuits has been activated. If two stage operation is used, Sync Output1 is to produce the rate for first stage signal and Sync Output 2 is to produce the second stage signal.

Operation

To enable this mode set DIP SW3, Bit 8 to zero. For information on configuring signal and strobe rates see Table 8 Setting Alert Rates,

Evacuation Rates, NAC 5 Output Functions on page 42 and Table 9 Setting Strobe Types, NAC 1-3 Supply Settings, NAC 4 Output Function on page 43.

5.2.2 INX External Sync Mode

When one of the Sync Inputs is activated, the INX-10A outputs follow the signal pattern of the Sync Input. The INX-10A must be configured as a slave to operate in this mode.

All synchronization signals are supplied from the FACP or Master INX-10A. To enable this mode for Bell Signals set DIP SW3, Bit 8 to one, and set Alert (DIP SW4, Bits 1-

3) Evacuation (DIP SW4, Bits 4-6) and Strobe (DIP SW5, Bits 1-3) rates to zero. The NAC and Sync outputs are to follow the Sync Inputs.

To enable this mode for other signals for sync Horn Strobes, set DIP SW3, Bit 8 to one and set Alert (DIP SW4, Bits 1-3) and Evacuation (DIP SW4, Bits 4-6) to use the Strobe Manufacturer Sync Rate (1-0-0) and Strobe (DIP SW5, Bits 1-3) to match the protocol being used in the system. The NAC and Sync Outputs are to follow the Sync Inputs.

If the INX-10A loses synchronization with the FAC P during alarm, the INX-10A will default to the internal configured rate. A trouble will be generated back to the FACP. The INX-10A will

continue to use the default rate until the FACP is reset.

Attention: External Sync Mode cannot be used in conjunction with Independent

Mode.

Page 31

5.2.3 INX Mode with Redundant Input

The system continuously monitors the SLC loop. If there is no activity for a notable time (80 seconds typical), an SLC trouble will be generated. While SLC trouble is active, if either of the Sync Inputs are activated then all NAC outputs follow.

5.2.4 Independent Mode - Driving Signals and Strobes

The INX-10A can drive Signals and Str obes on separate NAC circuits. To enabled Independent Mode set SW4 Bit 4-6 to 010, 110, 001, 101, or 011 and set SW5 Bit

1-3 to 100, 110, 001 or 101. When using a Tw o stage application SW4 bits 1-3 are required to set the alert rate. For a comprehensive description of Independent Mode options see Table 9 Setting Strobe Types, NAC 1-3 Supply Settings, NAC 4 Output Function on page 43.

5.3 Power Supply Modes

In addition to the operation modes above, some or all of the NAC outputs can be configured as power supply outputs. The circuit ratings are same as the NAC circuits. Three types of power output can be configured as described below:

Operation

5.3.1 NAC Outputs as Power Supply Outputs

Any NAC output can be configured as a power supply. SLC and Sync Inputs are ignored for the power supply outputs.

For configuration information see Chapter 6.2.4 Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions on page 42 and Chapter 6.2.5 Setting Strobe Types, NAC 1-3 Supply Settings, NAC 4 Output Function on page 43.

5.3.2 NAC Outputs for Door Release

Only NAC 4 and/or 5 can config ured for this option, NAC 4 or 5 are turned off (cut su pply) when any alarm input is active. This is used for devices which must be unpowered during alarm like door releases. The output will also turned off when the primary power to the INX10A has been lost.

5.3.3 NAC Outputs for 4 Wire Smoke Supply

Only NAC 4 and/or 5 can configured for this option, NAC 4 and 5 can be selected to turn-of f for 4 seconds when an alarm ends (inputs inactive for more than five seconds). This is typically used to reset four wires detectors.

For configuration information see Chapter 6.2.5 Setting Strobe Types, NAC 1-3 Supply Settings, NAC 4 Output Function on page 43.

Page 32

5.4 Evacuation Codes

5.4.1 Single stage codes

Continuous

On 100% of the time.

Temporal Code

0.5 second on, 0.5 second off, 0.5 second on, 0.5 second off, 0.5 second on, 0. 5, 1.5 second off, then repeat.

March Code

0.5 second on, 0.5 second off.

California Code

5 seconds on, 10 seconds off.

5.4.2 Two-stage codes

Operation

Alert Code

0.5 second on, 2.5 seconds off.

General Alarm

Evacuation code as selected from above.

5.5 Horn Strobe Rates

Horn Strobe rates are fixed at the following rates.

5.5.1 Single Stage

Temporal Code

3 of 0.5 second on, 0.5 second off, 1.5 second pause, then repeat.

5.5.2 Two-stage codes

Alert Code

0.5 second on, 2.5 seconds off.

Temporal Code

3 of 0.5 second on, 0.5 second off, 1.5 second pause, then repeat.

Page 33

Operation

Figure 11 Evacuation Codes

Page 34

Configuration

6.0 Configuration

The chapter describes how to configure the INX-10A with the DIP switches located on the main board.

This chapter explains

• Using DIP Switches

• Single Stage and Two Stage Addressing

• Adding Functions in the FX-2000 configurator

• Assigning Protocols

• Trouble Reporting

• AC Fail Delay

• Charger and Battery Settings

• Synchronization Settings

• Configuring NACs

• Alert and Evacuation Rates

• Strobe Types

Page 35

6.1 DIP Switches

1 2 4 8

OFF

5 6 7

0-1-1-0-0-0-1-10-1-1-0-0-0-1-1

The following diagram displays the five DIP switches used by the INX-10A.

DIP SW1

DIP SW2

DIP SW3

DIP SW4

DIP SW5

Configuration

POWER ON

ADD. LINE ACTIVITY/ ALARM

COMMON TROUBLE

BATTERY/ CHARGER TROUBLE

CPU FAIL

ACK. BUTTON

6.1.1 Using the DIP switches

Configuring the INX-10A is done with 5 banks of DIP switches. They are named SW1, SW2, SW3, SW4 and SW5. Each bank has 8 switches, numbered 1 to 8. Flipping a switch up places it in the ON position. For the purposes of the configur ation t a bles ON = 1 and OFF = 0 . For an illustration of the DIP switch settings see Figure 12.

Figure 12 DIP switch positions

Page 36

6.2 DIP Switch Configuration

ALL SWITCHES OFF

2 3 4 5 6 7

ALL SWITCHES ON

2 3 4 5 6 7

SW1

SW4

SW3

SW5

SW2

234567

8763 4 521

Configuration is done via a group a five DIP switches located to the left of the LED display board.

6.2.1 Setting Loop Base Address, Disabling Addressable Loop Interface

Use DIP switch 1 to

• Enable or disable the addressable loop.

• Set the Base Address of the INX-10A.

To configure the desired address, refer to Figure 13 and Table 5.

To disable, configure all switches to 0.

Table 4 Setting INX-10A Base Address/ Disabling Addressable Loop Interface

DIP switch 1 Bits Default Setting = 0 Activated Setting = 1 Notes/

ALL SWITCHES OFF

ALL SWITCHES ON

Additional Diagrams

Configuration

All

(1-8)

Addressable Loop Disabled

Sets the INX-10A base address. For an addressing example see Figure 13.

Address is set to 85

OFF

DIP Switches

Figure 13 DIP switch address example

Page 37

Table 5 INX-10A Base Address DIP switch positions

Configuration

Address

1 1000 0000 26 0101 1000 51 1 100 1100 76 0011 0010 2 0100 0000 27 1101 1000 52 0010 1100 77 1011 0010 3 1100 0000 28 0011 1000 53 1010 1100 78 0111 0010 4 0010 0000 29 1011 1000 54 0110 1100 79 1111 0010 5 1010 0000 30 0111 1000 55 1110 1100 80 0000 1010 6 0110 0000 31 1111 1000 56 0001 1100 81 1000 1010 7 1110 0000 32 0000 0100 57 1001 1100 82 0100 1010 8 0001 0000 33 1000 0100 58 0101 1100 83 1100 1010 9 1001 0000 34 0100 0100 59 1 101 1100 84 0010 1010

10 0101 0000 35 1100 0100 60 0011 1100

11 1101 0000 36 0010 0100 61 1011 1100 12 0011 0000 37 1010 0100 62 0111 1100 13 1011 0000 38 0110 0100 63 1111 1100

14 0111 0000 39 1110 01 00 64 0000 0010 15 1111 0000 40 0001 0100 65 1000 0010

16 0000 1000 41 1001 0100 66 0100 0010 17 1000 1000 42 0101 0100 67 1100 0010

Bit

Setting

Address

Bit Setting

Address

Bit Setting

Address

85 1010 1010 Two Stage 86 0110 1010 87 1110 1010 88 0001 1010 Two Stage

89 1001 1010 90 0101 1010 Single St age

91 1101 1010 92 0011 1010

Bit Setting

Application with Enhanced Reporting

Application with Basic Reporting

Application with Enhanced Reporting

18 0100 1000 43 1101 0100 68 0010 0010 19 1100 1000 44 0011 0100 69 1010 0010 20 0010 1000 45 1011 0100 70 0110 0010 21 1010 1000 46 0111 01 00 71 111 0 0 010 22 0110 1000 47 1111 0100 72 0001 0010 23 1110 1000 48 0000 1100 73 1001 0010 24 0001 1000 49 1000 1100 74 0101 0010 25 1001 1000 50 0100 1100 75 1101 0010

Attention: When using multiple INX-10A panels in a Master - Slave relationship,

always assign a lower address to the master INX-10A panel.

Notes: Shaded addresses are the recommended range of addresses used for a single

INX-10A. Ensure that there are enough addresses for reporting a nd configured NACs. The

highest address that a Single Stage Application with Basic Reporting with 5 configured NACs can be assigned is 93.

93 1011 1010 94 0111 1010 95 1111 1010 96 0000 0110 97 1000 0110 98 0100 0110 99 1100 0110

Single St age Application with Basic Reporting

Page 38

Configuration

Base Address Offset for the FX-2000 and MR-2100/2200/2900 Series Panels

The FX-2000 and MR-2100/2200/2900 series of panels reserve addresses 101 to 199 for CLIP modules. As a result, you must offset the addresses of INX-10A devices by 100 when you add these devices on the FX-2000 or MR-2100/2200/2900 configurator.

Base Address Offset for the FX-3500/3500RCU and MR-2350 Panels

For the FX-3500/3500RCU and MR-2350, CLIP device addresses start at 201. As a result, you must offset the addresses of INX-10A devices by 200 when you configure these devices

on the Configurator.

Attention: The FX-3500/3500RCU and MR-2350 panels must be configured with a

CLIP address space before you can add INX-10A panels to them. See the following procedure for instructions on how to add a CLIP address space to an FX-3500/3500RCU and MR-2350.

To configure an FX-3500/3500RCU and MR-2350 loop with a CLIP address space

1. Start the Configurator, and then open your job.

2. Select Base I/O from your job tree. The CLIP/Advance Protocol Address Space configuration window appears. By

default, the entire address space is assigned to AP devices and there is no address space reserved for CLIP modules. (That is, Allowable CLIP Addresses is set to None for both Sensors and Modules.) To reserve address space for CLIP devices, you must add the number of CLIP devices to the AP Start value.

3. Enter 100 in the AP Start column for the loop that your INX-10A is connected to, and then press the Tab key.

The entries for allowable CLIP addresses for Sensors and Modules change to 1-99 and 201-299, respectively. This allows you to enter 99 CLIP sensors and 99 CLIP modules to the loop. Your CLIP/Advance Protocol Address window should look similar to Figure 14 (assuming your INX-10A is connected to Loop 2),.

Figure 14 Configurator CLIP/Advance Protocol Device Address Space window

Page 39

Configuration

A value of 100 in a loop’s AP Start column configures the FX-3500/3500RCU and MR-2350 with the maximum address space for CLIP modules (201-299). If you enter a smaller value for AP Start, the address space for CLIP modules and the number of CLIP devices you can add are reduced. For example, if you enter 50 in the AP Start column, the CLIP module address space for the loop changes to 201-249 and you can only configure 49 CLIP modules for that

loop.

Note: For all the FX-3500/3500RCU and MR-2350 examples in this chapter, the

maximum CLIP device address space is assumed. That is, the AP Start is set to 100 and the CLIP modules address space is 201-299.

Page 40

6.2.2 Setting Protocols, Reporting, Charger, Battery Installed

ALL SWITCHES OFF

2 3 4 5 6 7

ALL SWITCHES ON

2 3 4 5 6 7

SW1

SW4

SW3

SW5

SW2

234567

Use DIP switch 2 to set device protocols, enable second stage reporting, set AC fail reporting, enabling or disabling the Charger, and if a battery is installed.

T able 6 Setting Protoco ls, Enabling Second Stage, Setting AC Fail Reporting, Enabling

Charger , Battery Installed

Configuration

DIP switch 2 Bits

Default Setting = 0 Activated Setting = 1

ALL SWITCHES OFF

1 Reserve

Setting for Mircom FACPs (Pro-2000)

Enable Enhanced Reporting (AC, Battery/

Charger and Earth Ground) *See Board LED’s for

further trouble shooting*

4 Second Stage Enabled

Configure Report Delay for AC fail

ALL SWITCHES ON

Setting for Secutron and other non-Mircom FACPs

Free loop addresses base +2 to base +4

Free loop addresses base +8 to base +12 or if Enhanced Reporting is enabled frees addresses base +11 to base +15

Notes/ Additional Diagrams

For non-Mircom panels Signal Silence must be configured as a Control module in the proprietary configuration software.

Base address is set by SW1

5-6

The digits below refer to the corresponding bit number i.e. 01 means that bit 5 = 0 and bit 6 = 1 see corresponding diagram

5-6 00 = No Delay

5-6 10 = One Hour

5-6 01 = Two Hours

5-6 11 = Three Hours

7 Charger Enabled Charger Disabled 8 Battery Installed

No Battery Required and Charger Disabled

SW2

234567

SW2

234567

SW2

234567

SW2

234567

Page 41

6.2.3 Charger Settings, Synchronization Settings, NAC Input Settings

ALL SWITCHES OFF

2 3 4 5 6 7

ALL SWITCHES ON

2 3 4 5 6 7

SW1

SW4

SW3

SW5

SW2

234567

Use DIP switch 3 to configure charger, synchronization and NAC Input settings.

Table 7 Charger Settings, Synchronization Settings, NAC Input Settings

Configuration

DIP switch 3 Bits

Default Setting = 0 Activated Setting = 1

ALL SWITCHES OFF

Charger Cut When all NACs activated

ALL SWITCHES ON

Charger Always “ON”

2-6 Reserve

Independent Mode NAC 1 and 2 = Signals Configured NACs = Sync Strobes

Independent Mode NAC 1 to 3 = Signals Configured NAC’s = Sync Strobes

Independent mode is active if

SW4 Bit 4-6 Evacuation Rates is set to 010, 110, 001, 101, or 011

AND

SW5 Bit 1-3 Setting Strobe Manufacturer Type set to 100, 110, 001 or 101.

8 Synchronous Signal Master Synchronous Signal Slave

Notes/ Additional Diagrams

Remember Bit 7 on DIP

Switch 2 must be set to “OFF” to enable Charger

SW3

234567

For a comprehensive description of Independent Mode options see 6.5 Independent Mode Configuration Options on page 74

Attention: If Independent Mode is not being used SW3-7 must be set to OFF.

SW3

234567

Page 42

6.2.4 Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions

ALL SWITCHES OFF

2 3 4 5 6 7

ALL SWITCHES ON

2 3 4 5 6 7

Use DIP switch 4 to configure Alert and Evacuation Rates, and NAC Output functions.

Table 8 Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions

Configuration

DIP switch 4 Bits

SW1

234567

SW2

SW3

SW4

SW5

ON ON

234567

Default Setting = 0 Activated Setting = 1

ALL SWITCHES OFF

ALL SWITCHES ON

Notes/ Additional Diagrams

1-3 Setting Alert Rates (Alert Rates are only used in Two Stage Applications)

1-3 000 - Disable (No Output)

1-3 100 - Uses Strobe Manufacturer Sync Rate

1-3 010 - Continuous

1-3

110 - 0.5s ON, 2.5s OFF, Repeat

(20 PPM as in FA-1000 or FX-2000)

1-3 001 - 20 PPM, 50% Duty Cycle

SW4

234567

18234567

234567

4-6 Setting Evacuation Rates

4-6

000 - Disable

If the INX-10A has NAC circuits configured the

SW4

234567

Evacuation Rate or Strobe Rate MUST be enabled or a trouble will sound.

4-6

100 - Uses Strobe Manufacturer Sync Rate

NOT AFFECTED BY SIGNAL SILENCE

4-6 010 - Continuous

4-6 110 - Temporal

4-6 001 - March Time

4-6 101 - California

4-6 011 - 120 PPM, 50% Duty Cycle

7-8

NAC 5 Output Settings

7-8 00 - Normal NAC

7-8 10 - Continuous Supply

7-8 01 - Cut on Alarm

7-8 11 - 4 seconds Cut on Reset

SW4

234567

SW4

234567

SW4

234567

SW4

234567

SW4

234567

SW4

234567

SW4

234567

SW4

234567

SW4

234567

SW4

234567

Page 43

6.2.5 Setting Strobe Types, NAC 1-3 Supply Settings, NAC 4 Output Function

ALL SWITCHES OFF

2 3 4 5 6 7

ALL SWITCHES ON

2 3 4 5 6 7

SW1

SW4

SW3

SW5

SW2

Use DIP switch 5 to configure Strobe types, NAC 1-3 settings and NAC 4 output functions.

Table 9 Setting Strobe Types, NAC 1-3 Supply Settings, NAC 4 Output Function

DIP switch 5 Bits

Default Setting = 0 Activated Setting = 1

ALL SWITCHES OFF

1-3 Setting Strobe Manufacturer

000 - Disable

1-3

If the INX-10A has NAC circuits configured the Evacuation Rate or Strobe Rate MUST be enabled or a trouble will sound.

1-3 100 - Mircom/Amseco

1-3 010 - Not Used

ALL SWITCHES ON

Configuration

Notes/ Additional Diagrams

SW5

234567

SW5

234567

SW5

234567

1-3 110 - System Sensor

1-3 001 - Secutron/Gentex

1-3 101 - Wheelock

1-3 011 - System Sensor 2 Alternate Setting

4 NAC 1 - NAC NAC 1 - Continuous Supply 5 NAC 2 - NAC NAC 2 - Continuous Supply 6 NAC 3 - NAC NAC 3 - Continuous Supply

7-8 NAC 4 Output Settings

7-8 00 - NAC

7-8 10 - Continuous Supply

SW5

234567

SW5

234567

SW5

234567

SW5

234567

SW5

234567

SW5

234567

7-8 01 - Cut on Alarm

7-8 11 - 4 seconds Cut on Reset

SW5

234567

18234567

Page 44

6.3 Single Stage Addressing

Address Assignments are done via DIP s witch 2(SW 2) which is loc ated to the left of the Main LED display board. The addresses for the functions are dependant upon the Base Address of the INX Panel.

There are two types of addressing options

• Basic Reporting

• Enhanced Reporting

In addition, the addressing can be changed by having NACs configured as Power Supplies. For further information on setting the Base Address of the INX Panel see Figure 13.

Attention: Ensure that the configuration is set correctly on the INX-10A DIP

switches and the Fire Panel Configuration Software.

Configuration

6.3.1 Single Stage with Basic Reporting Addressing

To configure the recommended base address

Set DIP switch SW1 as: 1-0-1-1-1-0-1-0

ON-OFF-ON-ON-ON-OFF-ON-OFF

To configure the INX for Single Stage with Basic Reporting in a Mircom system

Set DIP switch SW2-1 to SW2-4 as: 0-0-1-1

OFF-OFF-ON-ON

To configure the INX for Single Stage with Basic Reporting in a Secutron system

Set DIP switch SW2-1 to SW2-4 as: 0-1-1-1

OFF-ON-ON-ON

Attention: If NACs are configured the Evacuation Rate must be set on SW2 4-6. For

more information see Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions on page 42.

SW1

SW2

234567

Page 45

Configuration

Table 10 Configuring Single Stage Functions

Function Address Recommended

Device Address

Common Trouble Base Address 93 Signal Silence Base Address + 1 94 Activate NAC1, return NAC1 line status Base Address + 2 95 Activate NAC2, return NAC2 line status Base Address + 3 96 Activate NAC3, return NAC3 line status Base Address + 4 97 Activate NAC4, return NAC4 line status Base Address + 5 98 Activate NAC5, return NAC5 line status Base Address + 6 99

Notes: Table 10 represents all NACs configured as NAC circuits.

Mircom recommends always using the upper range of addresses available for the INX-10A.

When adding devices to FX-2000 and MR-2100/2200/2900 configurations, add 100 to the recommended device address (see Figures 15 and 16).

When adding devices to FX-3500/3500RCU and MR-2350 co nfigurations, add 200 to the recommended device address (see Figure 17).

If any NAC circuit is configured as a Power Supply, see 6.3.5 Single Stage with Basic Reporting and Power Supply Output Addressing for an explanation on addressing.

6.3.2 Software Configuration - Single Stage with Basic Reporting Addressing

Figure 15 FX-2000 Configurator Settings - INX-10A Single Stage with Basic Reporting

Page 46

Configuration

Figure 16 Secutron MR-2100/2200/2900 Configuration Settings - INX-10A Single S tage

with Basic Reporting

Figure 17 FX-3500/3500RCU/MR-2350 Configuration Settings - INX-10A Single Stage

with Basic Reporting

Page 47

6.3.3 Single Stage with Enhanced Trouble Reporting Addressing

To configure the recommended base address

Set DIP switch SW1 as: 0-1-0-1-1-0-1-0

SW1

OFF-ON-OFF-ON-ON-OFF-ON-OFF

To configure the INX for Single Stage with Enhanced Trouble Reporting in a Mircom System

Configuration

234567

Set DIP switch SW2-1 to SW2-4 as: 0-0-0-1

OFF-OFF-OFF-ON

SW2

234567

To configure the INX for Single Stage with Enhanced Trouble Reporting in a Secutron System

Set DIP switch SW2-1 to SW2-4 as: 0-1-0-1

OFF-ON-OFF-ON

SW2

234567

Attention: If NACs are configured the Evacuation Rate must be set on SW2 4-6. For

more information see Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions on page 42.

Table 11 Configuring Single Stage with Enhanced Reporting Functions

Function Address Recommended

Device Address

Common Trouble Base Address 90 Signal Silence Base Address + 1 91 Monitor AC trouble Base Address + 2 92 Monitor Battery/Charger trouble Base Address + 3 93 Monitor Earth Ground Fault Base Address + 4 94 Activate NAC1, return NAC1 line status Base Address + 5 95 Activate NAC2, return NAC2 line status Base Address + 6 96 Activate NAC3, return NAC3 line status Base Address + 7 97 Activate NAC4, return NAC4 line status Base Address + 8 98 Activate NAC5, return NAC5 line status Base Address + 9 99

Page 48

Configuration

Notes: Table 11 represents all NACs configured as NAC circuits.

Mircom recommends always using the upper range of addresses available for the INX-10A.

When adding devices to FX-2000 and MR-2100/2200/2900 configurations, add 100 to the recommended device address (see Figures 18 and 19).

When adding devices to FX-3500/3500RCU and MR-2350 configurations, add 200 to the recommended device address (see Figure 20).

If any NAC circuit is configured as a Power Supply see 6.3.7 Single Stage with Enhanced Reporting and Power Supply Output Addressing for an explanation on addressing.

6.3.4 Software Configuration - Single Stage with Enhanced Trouble Reporting Addressing

Figure 18 FX-2000 Configurator Settings - INX-10A Single Stage with Enhanced

Reporting

Page 49

Configuration

Figure 19 Secutron MR-2100/2200/2900 Configuration Setting s - INX-10 A Single S tage

with Enhanced Reporting

Figure 20 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Single Stage

with Enhanced Reporting

Page 50

Configuration

6.3.5 Single Stage with Basic Reporting and Power Supply Output Addressing

In order to maximize the amount of addresses available, if a NAC circuit is configured as a Power Supply, the next configured NAC Circuit is assigned the address reserved for the previous Circuit.

Example Application

• NAC 5 configured as a Power Supply.

• INX-10A Common Trouble reporting address is 194.

To configure the recommended base address

Set DIP switch SW1 as: 0-1-1-1-1-0-1-0

OFF-ON-ON-ON-ON-OFF-ON-OFF

To configure the INX for Single Stage with Basic Reporting in a Mircom System

SW1

234567

Set DIP switch SW2-1 to SW2-4 as: 0-0-1-1

OFF-OFF-ON-ON

SW2

234567

To configure the INX for Single Stage with Basic Reporting in a Secutron System

Set DIP switch SW2-1 to SW2-4 as: 0-1-0-1

OFF-ON-OFF-ON

SW2

234567

To configure NAC 5 as a Continuous Power Supply

Set DIP switch SW4-7 and SW4-8 as: 1-0

ON-OFF

SW4

234567

Attention: If NACs are configured the Evacuation Rate must be set on SW2 4-6. For

more information see Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions on page 42.

Page 51

Configuration

Table 12 Assigning Addresses - Single Stage with Basic Reporting and Power Supply

Output

Function Address Recommended

Device Address

Common Trouble Base Address 94 Signal Silence Base Address + 1 95 Activate NAC1, return NAC1 line status Base Address + 2 96 Activate NAC2, return NAC2 line status Base Address + 3 97 Activate NAC3, return NAC3 line status Base Address + 4 98 Activate NAC4, return NAC4 line status Base Address + 5 99

Notes: Mircom recommends always using the upper range of addresses available for

the INX-10A. Mircom recommends always using the upper range of NACs (NAC5 then NAC4

then NAC3 etc.) when configuring as a Power Supply. When adding devices to FX-2000 and MR-2100/2200/2900 configurations, add

100 to the recommended device address (see Figures 21 and 22). When adding devices to FX-3500/3500RCU and MR-2350 co nfigurations, add

200 to the recommended device address (see Figure 23).

6.3.6 Software Configuration - Single Stage with Basic Reporting and Power Supply Output Addressing

Figure 21 FX-2000 Configurator Settings - INX-10A Single Stage with Basic Reporting

and Power Supply Output

Page 52

Configuration

Figure 22 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Single Stage

with Basic Reporting and Power Supply Output

Figure 23 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Single Stage

with Basic Reporting and Power Supply Output

Page 53

Configuration

6.3.7 Single Stage with Enhanced Reporting and Power Supply Output

Addressing

In order to maximize the amount of addresses available, if a NAC circuit is configured as a Power Supply, the next configured NAC Circuit is assigned the address reserved for the previous Circuit.

Example Application

• NAC 5 configured as a Power Supply.

• INX-10A Common Trouble reporting address is 194.

To configure the recommended base address

Set DIP switch SW1 as: 1-1-0-1-1-0-1-0

ON-ON-OFF-ON-ON-OFF-ON-OFF

To configure the INX for Single Stage with Enhanced Reporting in a Mircom System

SW1

234567

Set DIP switch SW2-1 to SW2-4 as: 0-0-0-1

OFF-OFF-OFF-ON

SW2

234567

To configure the INX for Single Stage with Enhanced Trouble Reporting in a Secutron System

Set DIP switch SW2-1 to SW2-4 as: 0-1-0-1

OFF-ON-OFF-ON

SW2

234567

To configure NAC 5 as a Continuous Power Supply

Set DIP switch SW4-7 and SW4-8 as: 1-0

ON-OFF

SW4

234567

Attention: If NACs are configured the Evacuation Rate must be set on SW2 4-6. For

more information see Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions on page 42.

Page 54

Configuration

Table 13 Assigning Addresses - Single Stage Application, 1 Power Supply Output

Function Address Recommended

Device Address

Common Trouble Base Address 91 Signal Silence Base Address + 1 92 Monitor AC trouble Base Address + 2 93 Monitor Battery/Charger trouble Base Address + 3 94 Monitor Earth Ground Fault Base Address + 4 95 Activate NAC1, return NAC1 line status Base Address + 5 96 Activate NAC2, return NAC2 line status Base Address + 6 97 Activate NAC3, return NAC3 line status Base Address + 7 98 Activate NAC4, return NAC4 line status Base Address + 8 99

Notes: Mircom recommends always using the upper range of addresses available for

the INX-10A. Mircom recommends always using the upper range of NACs (NAC5 then NAC4

then NAC3 etc.) when configuring as a Power Supply. When adding devices to FX-2000 and MR-2100/2200/2900 configurations, add

100 to the recommended device address (see Figures 24 and 25). When adding devices to FX-3500/3500RCU and MR-2350 configurations, add

200 to the recommended device address (see Figure 26).

Page 55

Configuration

6.3.8 Software Configuration - Single Stage with Enhanced Reporting and

Power Supply Output Addressing

Figure 24 FX-2000 Configurator Settings - INX-10A Single Stage with Enhanced

Reporting and Power Supply Output

Figure 25 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Single Stage

with Power Supply Output

Page 56

Configuration

Figure 26 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Single Stage

with Enhanced Reporting and Power Supply Output

Page 57

6.4 Two Stage Addressing Options

Address Assignments are done via DIP switch 2(SW2) which is located to the left of the Main LED display board. The addresses for the functions are dependant upon the Base Address of the INX Panel.

For Further information on setting the Base Address of the INX Panel see Figure 13 DIP switch address example on page 36.

Attention: Ensure that the configuration is set correctly on the INX-10A DIP

switches and the Fire Panel Configuration Software.

6.4.1 Two Stage with Basic Reporting Addressing

To configure the recommended base address

Set DIP switch SW1 as: 0-0-0-1-1-0-1-0

OFF-OFF-OFF-ON-ON-OFF-ON-OFF

SW1

Configuration

234567

To configure the INX for Two Stage with Basic Reporting in a Mircom system

Set DIP switch SW2-1 to SW2-4 as: 0-0-1-0

OFF-OFF-ON-OFF

To configure the INX for Single Stage with Basic Reporting in a Secutron system

Set DIP switch SW2-1 to SW2-4 as: 0-1-1-0

OFF-ON-ON-OFF

Attention: If NACs are configured the Evacuation Rate must be set on SW2 4-6. For

more information see Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions on page 42.

Table 14 Configuring Two Stage Functions

Function Address Recommended

SW2

234567

SW2

234567

Device Address

Common Trouble Base Address 88 Signal Silence Base Address + 1 89 Activate NAC1, return NAC1 line status Base Address + 2 90 Activate NAC2, return NAC2 line status Base Address + 3 91 Activate NAC3, return NAC3 line status Base Address + 4 92 Activate NAC4, return NAC4 line status Base Address + 5 93

Page 58

Configuration

Table 14 Configuring Two Stage Functions

Function Address Recommended

Device Address

Activate NAC5, return NAC5 line status Base Address + 6 94 Second Stage NAC1 Base Address + 7 95 Second Stage NAC2 Base Address + 8 96 Second Stage NAC3 Base Address + 9 97 Second Stage NAC4 Base Address + 10 98 Second Stage NAC5 Base Address + 11 99

Notes: Table 14 represents all NACs configu re d as NAC circu its.

Mircom recommends always using the upper range of addresses available for the INX-10A.

When adding devices to FX-2000 and MR-2100/2200/2900 configurations, add 100 to the recommended device address (see Figures 27 and 28).

When adding devices to FX-3500/3500RCU and MR-2350 configurations, add 200 to the recommended device address (see Figure 29).

If any NAC circuit is configured as a Power Supply see 6.4.5 Two Stage with Basic Reporting and Power Supply Output Addressing for an explanation on addressing.

Page 59

Configuration

6.4.2 Software Configuration - Two Stage with Basic Reporting Addressing

Figure 27 FX-2000 Configurator Settings - INX-10A Two Stage with Basic Reporting

Figure 28 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Two Stage

with Basic Reporting

Page 60

Configuration

Figure 29 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Two Stage with

Basic Reporting

Page 61

Configuration

6.4.3 Two Stage Address Assignment with Enhanced Trouble Reporting

To configure the recommended base address

Set DIP switch SW1 as: 1-0-1-0-1-0-1-0

ON-OFF-ON-OFF-ON-OFF-ON-OFF

To configure the INX for Two Stage with Enhanced Trouble Reporting in a Mircom System

SW1

234567

Set DIP switch SW2-1 to SW2-4 as: 0-0-0-0

OFF-OFF-OFF-OFF

To configure the INX for Two Stage with Enhanced Trouble Reporting in a Secutron System

Set DIP switch SW2-1 to SW2-4 as: 0-1-0-1

OFF-ON-OFF-ON

Attention: Two Stage Enhan ced repo rting is mandatory to meet ULC re quirements.

Attention: If NACs are configured the Evacuation Rate must be set on SW2 4-6. For

more information see Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions on page 42.

Table 15 Configuring Two Stage Address Assignment with Enhanced Trouble

Reporting

SW2

234567

Function Address Recommended

Common Trouble Base Address 85 Signal Silence Base Address + 1 86 Monitor AC trouble Base Address + 2 87 Monitor Battery/Charger trouble Base Address + 3 88 Monitor Earth Ground Fault Base Address + 4 89 Activate NAC1, return NAC1 line status Base Address + 5 90 Activate NAC2, return NAC2 line status Base Address + 6 91 Activate NAC3, return NAC3 line status Base Address + 7 92 Activate NAC4, return NAC4 line status Base Address + 8 93

Device Address

Page 62

Configuration

Table 15 Configuring Two Stage Address Assignment with Enhanced Trouble

Reporting (Continued)

Function Address Recommended

Device Address

Activate NAC5, return NAC5 line status Base Address + 9 94 Second Stage NAC1 Base Address + 10 95 Second Stage NAC2 Base Address + 11 96 Second Stage NAC3 Base Address + 12 97 Second Stage NAC4 Base Address + 13 98 Second Stage NAC5 Base Address + 14 99

Notes: Table 15 on the previous page represents all NACs configured as NAC circuits.

Mircom recommends always using the upper range of addresses available for the INX-10A.

When adding devices to FX-2000 and MR-2100/2200/2900 configurations, add 100 to the recommended device address (see Figures 30 and 31).

When adding devices to FX-3500/3500RCU and MR-2350 configurations, add 200 to the recommended device address (see Figure 32).

If any NAC circuit is configured as a Power Supply see 6.4.7 Two Stage Address Assignment with Enhanced T ro uble Repor ting an d Power Supply Add ressing for an explanation on addressing.

Page 63

Configuration

6.4.4 Software Configuration - Two Stage Address Assignment with Enhanced Trouble Reporting

Figure 30 FX-2000 Configurator Settings - INX-10A Two Stage with Enhanced

Reporting

Figure 31 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Two Stage

with Enhanced Reporting

Page 64

Configuration

Figure 32 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Two Stage with

Enhanced Reporting

Page 65

Configuration

6.4.5 Tw o Stage with Basic Reporting and Power Supply Output Addressing

In order to maximize the amount of addresses available, if a NAC circuit is configured as a Power Supply, the next configured NAC Circuit is assigned the address reserved for the previous Circuit.

Example Application

• NAC 5 configured as a Power Supply.

• INX-10A Common Trouble reporting address is 190.

To configure the recommended base address

Set DIP switch SW1 as: 0-1-0-1-1-0-1-0

OFF-ON-OFF-ON-ON-OFF-ON-OFF

To configure the INX for Two Stage with Basic Reporting in a Mircom system

SW1

234567

Set DIP switch SW2-1 to SW2-4 as: 0-0-1-0

OFF-OFF-ON-OFF

SW2

234567

To configure the INX for Single Stage with Basic Reporting in a Secutron system

Set DIP switch SW2-1 to SW2-4 as: 0-1-1-0

OFF-ON-ON-OFF

SW2

234567

To configure NAC 5 as a Continuous Power Supply

Set DIP switch SW4-7 and SW4-8 as: 1-0

ON-OFF

SW4

234567

Attention: If NACs are configured the Evacuation Rate must be set on SW2 4-6. For

more information see Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions on page 42.

Table 16 Assigning Addresses - Two Stage Application, 1 Power Supply Output

Function Address Recommended

Common Trouble Base Address 90 Signal Silence Base Address + 1 91 Activate NAC1, return NAC1 line status Base Address + 2 92 Activate NAC2, return NAC2 line status Base Address + 3 93

Device Address

Page 66

Configuration

Table 16 Assigning Addresses - Two Stage Application, 1 Power Supply Output

Function Address Recommended

Device Address

Activate NAC3, return NAC3 line status Base Address + 4 94 Activate NAC4, return NAC4 line status Base Address + 5 95 Second Stage NAC1 Base Address + 6 96 Second Stage NAC2 Base Address + 7 97 Second Stage NAC3 Base Address + 8 98 Second Stage NAC4 Base Address + 9 99

Notes: Mircom recommends always using the upper range of addresses available for

the INX-10A. When adding devices to FX-2000 and MR-2100/2200/2900 configurations, add

100 to the recommended device address (see Figures 33 and 34). When adding devices to FX-3500/3500RCU and MR-2350 configurations, add

200 to the recommended device address (see Figure 35). Troubles occurring on a NAC cir cuit are only reported via the first stage address.

Page 67

Configuration

6.4.6 Software Configuration -Two Stage with Basic Reporting and Power

Supply Output Addressing

Figure 33 FX-2000 Configurator Settings - INX-10A Two Stage with Power Supply

Output

Figure 34 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Two Stage

with Power Supply Output

Page 68

Configuration

Figure 35 FX-3500/3500RCU/MR-2350 Config urator Settings - INX-10A Two Stage with

Power Supply Output

Page 69

Configuration

6.4.7 Two Stage Address Assignment with Enhanced Trouble Reporting and

Power Supply Addressing

In order to maximize the amount of addresses available, if a NAC circuit is configured as a Power Supply, the next configured NAC Circuit is assigned the address reserved for the

previous Circuit.

Attention: Two Stage Enhan ced repo rting is mandatory to meet ULC re quirements.

Example Application

• NAC 5 configured as a Power Supply.

• INX-10A Common Trouble reporting address is 194.

To configure the recommended base address

Set DIP switch SW1 as: 1-1-1-0-1-0-1-0

ON-OFF-ON-OFF-ON-OFF-ON-OFF

SW1

234567

To configure the INX for Two Stage with Enhanced Trouble Reporting in a Mircom System

Set DIP switch SW2-1 to SW2-4 as: 0-0-0-0

OFF-OFF-OFF-OFF

To configure the INX for Two Stage with Enhanced Trouble Reporting in a Secutron System

Set DIP switch SW2-1 to SW2-4 as: 0-1-0-1

OFF-ON-OFF-ON

To configure NAC 5 as a Continuous Power Supply

Set DIP switch SW4-7 and SW4-8 as: 1-0

ON-OFF

SW2

SW4

234567

Attention: If NACs are configured the Evacuation Rate must be set on SW2 4-6. For

more information see Setting Alert Rates, Evacuation Rates, NAC 5 Output Functions on page 42.

Page 70

Configuration

Table 17 Configuring Two Stage Address Assignment with Enhanced Trouble

Reporting and Power Supply Addressing

Function Address Recommended

Device Address

Common Trouble Base Address 87 Signal Silence Base Address + 1 88 Monitor AC trouble Base Addre ss + 2 89 Monitor Battery/Charger trouble Base Address + 3 90 Monitor Earth Ground Fault Base Address + 4 91 Activate NAC1, return NAC1 line status Base Address + 5 92 Activate NAC2, return NAC2 line status Base Address + 6 93 Activate NAC3, return NAC3 line status Base Address + 7 94 Activate NAC4, return NAC4 line status Base Address + 8 95 Second Stage NAC1 Base Address + 10 96 Second Stage NAC2 Base Address + 11 97 Second Stage NAC3 Base Address + 12 98 Second Stage NAC4 Base Address + 13 99

Notes: Mircom recommends always using the upper range of addresses available for

the INX-10A. When adding devices to FX-2000 and MR-2100/2200/2900 configurations, add

100 to the recommended device address (see Figures 36 and 37). When adding devices to FX-3500/3500RCU and MR-2350 configurations, add

200 to the recommended device address (see Figure 38). Troubles occurring on a NAC cir cuit are only reported via the first stage address.

Page 71

Configuration

6.4.8 Software Configuration - Two Stage Address Assignment with Enhanced Trouble Reporting and Power Supply Addressing

Figure 36 FX-2000 Configurator Settings - INX-10A Two Stage with Enhanced

Reporting and Power Supply Addressing

Figure 37 Secutron MR-2100/2200/2900 Configurator Settings - INX-10A Two Stage

with Enhanced Reporting and Power Supply Addressing

Page 72

Configuration

Figure 38 FX-3500/3500RCU/MR-2350 Configurator Settings - INX-10A Two Stage with

Enhanced Reporting and Power Supply Addressing

6.4.9 Adding Functions in the FX-2000 Configurator Software

1. Open Job in Configurator.

2. Select the appropriate loop.

3. Click INSERT > ADD DEVICE.

4. From the Add Devices window, use the drop down menus to select the type of virtual device Supv Opt Mod, the base address of the INX panel. how many NAC circ uits are being supervised.

5. Click ADD > CLOSE to return to the main window.

Figure 39 Add Devices Window

6. Add the appropriate TAG(s) to the new devices by double clicking the appropriate cell.

7. To assign correlations to each virtual device right click the device and select ADD CORRELATIONS and then select the appropriate items to ADD.

Page 73

6.5 Independent Mode Configuration Options

NAC circuits on the INX-10A can be configured to drive both Signals and Strobes.

6.5.1 NACs 1 and 2 Configured as Signals

To configure NAC1 and NAC2 to drive signals set SW3-7 to 0 (OFF). Configure the Strobe Manufacturer and Signal Rate by setting SW4-4, SW4-5, SW4-6, SW5-1

SW5-2 and SW5-3 as described in Table 18.

Notes: Using Independent Mode in a Two Stage Application

When driving Signals and Strobes in a Two Stage Application configure the Alert Rate by setting SW4-1, SW4-2 and SW4-3 as follows:

100 - Uses Strobe Manufacturer Sync Rate

010 - Continuous

Configuration

234567

1 10 - 0.5s ON, 2.5s OFF, Repeat (20 PPM as in FA-1000 or FX-2000)

001 - 20 PPM, 50% Duty Cycle

234567

Table 18 Independent Mode DIP Switch Settings - NAC1 and NAC2 configured as

Signals

NAC3 NAC4 and NAC5 NAC1 and NAC2 CONFIGURE SWITCHES AS SHOWN

Strobe Manufacturer

(SW5 1-3)

Signal Rate

(SW4 4-6)

SW3 SW4 SW5

Mircom/Amseco Continuous

234567

Mircom/Amseco Temporal

234567

Mircom/Amseco March Time

234567

Mircom/Amseco California

Mircom/Amseco 120 PPM, 50% Duty Cycle

System Sensor Continuous

234567

Page 74

Configuration

Table 18 Independent Mode DIP Switch Settings - NAC1 and NAC2 configured as

Signals (Continued)

NAC3 NAC4 and NAC5 NAC1 and NAC2 CONFIGURE SWITCHES AS SHOWN

Strobe Manufacturer

(SW5 1-3)

Signal Rate

(SW4 4-6)

System Sensor Temporal

System Sensor March Time

System Sensor California

System Sensor 120 PPM, 50% Duty Cycle

Secutron/Gentex Continuous

Secutron/Gentex Temporal

Secutron/Gentex March Time

SW3 SW4 SW5

234567

Secutron/Gentex California

Secutron/Gentex 120 PPM, 50% Duty Cycle

Wheelock Continuous

Wheelock Temporal

Wheelock March Time

Wheelock California

Wheelock 120 PPM, 50% Duty Cycle

234567

Page 75

6.5.2 NAC1, NAC2 and NAC3 Configured as Signals

To configure NAC1, NAC2 and NAC3 to drive signals set SW3-7 to 1 (ON). Configure the Str obe Manu fa ctur er and Signa l Rate by setting SW4-4, SW4-5, SW4-6, SW5-1

SW5-2 and SW5-3 as described in Table 19.

Notes: Using Independent Mode in a Two Stage Application

When driving Signals and Strobes in a Two Stage Application configure the Alert Rate by setting SW4-1, SW4-2 and SW4-3 as follows:

100 - Uses Strobe Manufacturer Sync Rate

010 - Continuous

1 10 - 0.5s ON, 2.5s OFF, Repeat (20 PPM as in FA-1000 or FX-2000)

Configuration

234567

001 - 20 PPM, 50% Duty Cycle

T able 19 Independent Mode DIP Switch Settings - NAC1, NAC2 and NAC3 configured as

Signals

NAC4 and NAC5 NAC1, NAC2 and NAC3 CONFIGURE SWITCHES AS SHOWN

Strobe Manufacturer

(SW5 1-3)

Signal Rate

(SW4 4-6)

SW3 SW4 SW5

Mircom/Amseco Continuous

234567

Mircom/Amseco Temporal

234567

Mircom/Amseco March Time

234567

Mircom/Amseco California

234567

Mircom/Amseco 120 PPM, 50% Duty Cycle

234567

System Sensor Continuous

System Sensor Temporal

234567

Page 76

Configuration

T able 19 Independent Mode DIP Switch Settings - NAC1, NAC2 and NAC3 configured as

Signals (Continued)

NAC4 and NAC5 NAC1, NAC2 and NAC3 CONFIGURE SWITCHES AS SHOWN

Strobe Manufacturer

(SW5 1-3)

Signal Rate

(SW4 4-6)

System Sensor March Time

System Sensor California

System Sensor 120 PPM, 50% Duty Cycle

Secutron/Gentex Continuous

Secutron/Gentex Temporal

Secutron/Gentex March Time

Secutron/Gentex California

SW3 SW4 SW5

234567

Secutron/Gentex 120 PPM, 50% Duty Cycle

Wheelock Continuous

Wheelock Temporal

Wheelock March Time

Wheelock California

Wheelock 120 PPM, 50% Duty Cycle

234567

Page 77

7.0 Wiring

This chapter describes the proper field wiring for the INX-10A.

This chapter explains

• Maximum wiring distances

• Wiring Terminal Connections

• Wiring Power Supply Connections

Wiring

Page 78

7.1 Wiring Tables

Table 20 Wiring Table for Input Circuits

Wire Gauge Maximum Wiring Run to Last Device (ELR)

(AWG) ft m

22 2990 910 20 4760 1450 18 7560 2300 16 12000 3600 14 19000 5800 12 30400 9200

Note: Maximum Loop Resistance Should Not Exceed 100 Ohms.

Wiring

Table 21 Wiring Table for NAC and Auxiliary Power Circuits

TOTAL SIGNAL LOAD

Amperes ftmftmftmftm Ohms

0.06 2350 716 3750 1143 6000 1829 9500 2895 30

0.12 1180 360 1850 567 3000 915 4720 1438 15

0.30 470 143 750 229 1200 366 1900 579 6

0.60 235 71 375 114 600 183 950 289 3

0.90 156 47 250 76 400 122 630 192 2

1.20 118 36 185 56 300 91 470 143 1.5

1.50 94 29 150 46 240 73 380 115 1.2

1.70 78 24 125 38 200 61 315 96 1.0

2.0 70 21 112 34 178 54 285 86 0.9

2.25 62 19 100 30 158 48 250 76 0.8

2.50 56 17 90 27 142 43 230 70 0.72

MAXIMUM WIRING RUN TO LAST DEVICE (ELR) MAX. LOOP 18AWG 16AWG 14AWG 12AWG

RESISTANCE

Notes: Main Board NAC Circuits are rated for 2.5 Amperes each.

Maximum Voltage Drop Should Not Exceed 1.8 Volts

Page 79

7.2 Main Board Terminal Connections

POWER ON

ADD. LINE ACTIVITY/ ALARM COMMON TROUBLE

CPU FAIL

BATTERY/ CHARGER TROUBLE

JW1

P3 P4 P1 P2

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

MAIN DISPLAY PANEL

+ +

ADDRESSABLE LOOP

+ +

SYNCH. INPUT 1

+ +

SYNCH. INPUT 2

TROUBLE RELAY ALARM RELAY

NC NO C

ALARM RELAY

NO C

NAC 1

YZ+Z

Z-YZ

NAC 5

YZ+Z+Z-YZ

NAC 4

YZ+Z+Z-YZ

NAC 3

YZ+Z+Z-YZ

NAC 2

YZ+Z

Z-YZ

+ +

SYNCH OUTPUTS

AUX. SUPPLY

SUPV

GF EGND

ACK. BUTTON

CPNONC

Wire devices to terminals as shown below. See 7.1 Wiring Tables on page 78, Table 21 Wiring Table for NAC and Auxiliary Power Circuits on page 78 and 9.0 Appendix A - Specifications And Features - for more information.

Wiring

Figure 40 Main Board Terminal Blocks

Attention: DO NOT exceed power supply ratings: Total current including Main

Notes: The Terminal Blocks are depluggable for ease of wiring.

All power limited circuits must use type FPL, FPLR, or FPLP power limited cable.

Chassis, AUX, and NAC circuits is 10A max.

Ground Fault Detection is required at all times. INX Ground fault de tection can only be disabled IF it is interfering the FACPs Ground Fault Detection operation AND the FACP is used to manage the Ground Fault Detection.

Page 80

7.2.1 SLC Loop Wiring - Class B

+ +

ADDRESSABLE LOOP

POWER ON

ADD. LINE ACTIVITY/ ALARM

COMMON TROUBLE

CPU FAIL

BATTERY/ CHARGER TROUBLE

JW1

P3 P4 P1 P2

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

MAIN DISPLAY PANEL

ACK. BUTTON

FX-2000

ADDRESSABLE LOOP CONNECTIONS

TO NEXT DEVICE IN LOOP

+ +

ADDRESSABLE LOOP

POWER ON

ADD. LINE ACTIVITY/ ALARM

COMMON TROUBLE

CPU FAIL

BATTERY/ CHARGER TROUBLE

JW1

P3 P4 P1 P2

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

MAIN DISPLAY PANEL

ACK. BUTTON

FX-2000

ADDRESSABLE LOOP CONNECTIONS

TO NEXT DEVICE IN LOOP

FROM LAST DEVICE IN LOOP

Wiring

Figure 41 SLC Loop Wiring - Class B

7.2.2 SLC Loop Wiring - Class A

Figure 42 SLC Loop Wiring - Class A

Page 81

7.2.3 Synchronized Input from FACP Wiring - Class B

SYNCH SIGNAL FROM FACP

NAC CIRCUIT FROM FACP

+ +

MP-300 3.9K EOL

Wiring

MAIN DISPLAY PANEL

POWER ON

ADD. LINE ACTIVITY/ ALARM COMMON TROUBLE

BATTERY/ CHARGER

TROUBLE

CPU FAIL

ACK. BUTTON

+ +

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

P3 P4 P1 P2

SYNCH INPUT1

JW1

Figure 43 Synchronized Input from F ACP Wiring - Class B

Attention: DO NOT USE AN SLC LOOP IN THIS APPLICATION.

7.2.4 Synchronized Input from FACP Wiring- Class A

SYNCH SIGNAL FROM FACP

NAC CIRCUIT FROM FACP

+ +

Figure 44 Synchronized Input from F ACP Wiring - Class A

Attention: DO NOT USE AN SLC LOOP IN THIS APPLICATION.

MAIN DISPLAY PANEL

POWER ON

ADD. LINE ACTIVITY/ ALARM

COMMON TROUBLE

BATTERY/ CHARGER

TROUBLE

CPU FAIL

ACK. BUTTON

+ +

SYNCH INPUT1

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

P3 P4 P1 P2

JW1

Page 82

7.2.5 Synchronized Input from INX-10A Wiring - Class B Single Slave

SYNCH SIGNAL FROM INX-10A CLASS B ONLY

MP-300 3.9K EOL

Wiring

MAIN DISPLAY PANEL

AUX OUTPUT TROUBLE

POWER ON

SYNCH. OUT TROUBLE

GFAULT

ADD. LINE ACTIVITY/ ALARM

JW2

COMMON TROUBLE

BATTERY/ CHARGER

TROUBLE

CPU FAIL

P3 P4 P1 P2

ACK. BUTTON

+ +

SYNCH OUTPUTS

JW1

+ +

SYNCH INPUT1

MAIN DISPLAY PANEL

ACK. BUTTON

AUX OUTPUT TROUBLE

POWER ON

SYNCH. OUT TROUBLE

GFAULT

ADD. LINE ACTIVITY/ ALARM

JW2 COMMON TROUBLE

BATTERY/ CHARGER TROUBLE

CPU FAIL

P3 P4 P1 P2

JW1

MASTER SLAVE

Figure 45 Synchronized Input from INX-10A Wiring - Class B Single Slave

Attention: CLASS B WIRING ONLY

Page 83

Wiring

7.2.6 Synchronized Input from INX-10A SIngle Stage Wiring - Class B Multiple Slaves

SYNCH SIGNAL FROM INX-10A CLASS B ONLY

MP-300 3.9K EOL MP-300 3.9K EOL

MAIN DISPLAY PANEL

AUX OUTPUT TROUBLE

POWER ON

SYNCH. OUT TROUBLE

ADD. LINE

GFAULT ACTIVITY/ ALARM

JW2 COMMON TROUBLE

BATTERY/ CHARGER

TROUBLE

CPU FAIL

P3 P4 P1 P2

ACK. BUTTON

+ +

SYNCH OUTPUTS

JW1

+ +

SYNCH INPUT1

MAIN DISPLAY PANEL

ACK. BUTTON

POWER ON

ADD. LINE ACTIVITY/ ALARM

COMMON TROUBLE

BATTERY/ CHARGER TROUBLE

CPU FAIL

MASTER SLAVE 1

Figure 46 Synchronized Input from INX-10A Wiring - Class B Multiple Slaves

Attention: SYCNHRONIZING SIGNALS FROM THE INX-10A CAN USE CLASS B

WIRING ONLY MIRCOM RECOMMENDED SETUP FOR MULTIPLE SLAVES

+ +

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

P3 P4 P1 P2

SYNCH OUTPUTS

+ +

SYNCH INPUT1

MAIN DISPLAY PANEL

AUX OUTPUT TROUBLE

POWER ON

SYNCH. OUT TROUBLE

GFAULT

ADD. LINE ACTIVITY/ ALARM

JW2 COMMON TROUBLE

BATTERY/ CHARGER

TROUBLE

CPU FAIL

P3 P4 P1 P2

ACK. BUTTON

JW1

SLAVE 2

Page 84

Wiring

7.2.7 Synchronized Input from INX-10A Two Stage Wiring - Class B Multiple Slaves

SYNCH SIGNAL FROM INX-10A CLASS B ONLY

+ +

SYNCH OUTPUTS

MAIN DISPLAY PANEL

POWER ON

ADD. LINE ACTIVITY/ ALARM

JW2 COMMON TROUBLE

BATTERY/ CHARGER

TROUBLE

CPU FAIL

ACK. BUTTON

MP-300 3.9K EOL

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

P3 P4 P1 P2

+ +

SYNCH INPUT1

JW1

SYNCH INPUT2

+ +

MAIN DISPLAY PANEL

AUX OUTPUT TROUBLE

POWER ON

SYNCH. OUT TROUBLE

GFAULT

ADD. LINE ACTIVITY/ ALARM

JW2 COMMON TROUBLE

BATTERY/ CHARGER

TROUBLE

CPU FAIL

P3 P4 P1 P2

ACK. BUTTON

MASTER SLAVE 1

Figure 47 Synchronized Input from INX-10A Wiring - Class B Multiple Slaves

+ +

SYNCH OUTPUTS

JW1

MP-300 3.9K EOL

+ +

SYNCH INPUT1

MAIN DISPLAY PANEL

POWER ON

ADD. LINE ACTIVITY/

JW2

ALARM

COMMON TROUBLE

BATTERY/ CHARGER

TROUBLE

CPU FAIL

P3 P4 P1 P2

ACK. BUTTON

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

+ +

SYNCH INPUT2

JW1

SLAVE 2

Attention: SYCNHRONIZING SIGNALS FROM THE INX-10A CAN USE CLASS B

WIRING ONLY MIRCOM RECOMMENDED SETUP FOR MULTIPLE SLAVES

Page 85

7.2.8 Relay Contact Activation from FACP - Single Stage

RELAY CONTACT ACTIVATION FROM FACP - SINGLE STAGE

To FACP input congured for

FACP Alarm Relay

COM

trouble

Wiring

Aux Power

+ +

SYNCH INPUT1

MAIN DISPLAY PANEL

POWER ON

ADD. LINE ACTIVITY/ ALARM COMMON TROUBLE

BATTERY/ CHARGER

TROUBLE

CPU FAIL

ACK. BUTTON

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

P3 P4 P1 P2

JW1

Figure 48 Relay Contact Activation from FACP - Single Stage

Attention: DO NOT USE AN SLC LOOP IN THIS APPLICATION.

Disable the addressable loop by setting DIP switch SW1 to all 0 (OFF).

NONC CP

TROUBLE RELAY

Table 22 Difference between features provided by SLC Interface and Contact Interface

Feature Description SLC Interface Contact Interface

All Call N/A N/A NAC by NAC activation Yes No NAC circuit trouble reporting Yes No Common trouble reporting Yes Yes Enhanced trouble reporting Yes No

Page 86

7.2.9 Relay Contact Activation from FACP - Two Stage

RELAY CONTACT ACTIVATION FROM FACP - TWO STAGE

+ +

SYNCH INPUT1

POWER ON

ADD. LINE ACTIVITY/ ALARM COMMON TROUBLE

CPU FAIL

BATTERY/ CHARGER TROUBLE

JW1

P3 P4 P1 P2

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

MAIN DISPLAY PANEL

ACK. BUTTON

FACP Second Stage Alarm Relay

COM

Aux Power

TROUBLE RELAY

NONC CP

To FACP input congured for trouble

FACP First Stage Alarm Relay

COM

+ +

SYNCH INPUT2

Wiring

Figure 49 Relay Contact Activation from FACP - Two Stage

Attention: DO NOT USE AN SLC LOOP IN THIS APPLICATION.

Disable the addressable loop by setting DIP switch SW1 to all 0 (OFF).

Page 87

7.2.10 Relay, Ground Supervision and Auxiliary Supply Wiring

POWER ON

CPU FAIL

BATTERY/ CHARGER TROUBLE

JW1

P3 P4 P1 P2

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

MAIN DISPLAY PANEL

ACK. BUTTON

TROUBLE RELAY ALARM RELAY

NC NO C

ALARM RELAY

NC NO C

COMMON TROUBLE CONTACTS 28 VDC, 1 AMP RESISTIVE LOAD

AUX. SUPPLY

+-SUPV

GF EGND

REMOVE TO DISABLE GROUND FAULT SUPERVISION

1.7AMPS MAXIMUM 24VDC REGULATED

ATTENTION!

Ground Fault Detection is required at all times. INX Ground fault detection can only be disabled IF it is interfering the FACP’s Ground Fault Detection operation AND the FACP is used to manage the Ground Fault Detection.

CP NC NO

ADD. LINE ACTIVITY/ ALARM

COMMON TROUBLE

Wiring

Figure 50 Relay, Ground Supervision and Auxiliary Supply Wiring

7.2.11 Supervision of Auxiliary Supply Wiring

MAIN DISPLAY PANEL

ACK. BUTTON

ITEM THAT REQUIRES

SUPERVISION

+-SUPV

AUX. SUPPLY

AUX OUTPUT TROUBLE

POWER ON

SYNCH. OUT TROUBLE

GFAULT

ADD. LINE ACTIVITY/ ALARM

JW2

COMMON TROUBLE BATTERY/ CHARGER TROUBLE

CPU FAIL

P3 P4 P1 P2

EOLR-1A EOL SUPERVSION

JW1

RELAY

SUPV

Figure 51 Relay, Ground Supervision and Auxiliary Supply Wiring

Page 88

7.2.12 NAC CIrcuit Wiring - Class B

POWER ON

CPU FAIL

BATTERY/ CHARGER TROUBLE

JW1

P3 P4 P1 P2

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

MAIN DISPLAY PANEL

ACK. BUTTON

NAC 1

YZ+ Z+

Z- YZ-

NAC 5

YZ+ Z+ Z- YZ-

NAC 4

YZ+ Z+ Z- YZ-

NAC 3

YZ+ Z+

Z- YZ-

NAC 2

YZ+ Z+

Z- YZ-

3.9K 1/2W ELR Listed S5434 Mircom Model MP-300

ADD. LINE ACTIVITY/ ALARM

COMMON TROUBLE

POWER ON

CPU FAIL

BATTERY/ CHARGER TROUBLE

JW1

P3 P4 P1 P2

AUX OUTPUT TROUBLE

SYNCH. OUT TROUBLE

GFAULT

JW2

MAIN DISPLAY PANEL

ACK. BUTTON

NAC 1

YZ+ Z+

Z- YZ-

NAC 5

YZ+ Z+ Z- YZ-

NAC 4

YZ+ Z+ Z- YZ-

NAC 3

YZ+ Z+

Z- YZ-

NAC 2

YZ+ Z+

Z- YZ-

ADD. LINE ACTIVITY/ ALARM

COMMON TROUBLE

Wiring

Figure 52 NAC CIrcuit Wiring - Class B

7.2.13 NAC CIrcuit Wiring - Class A

Figure 53 NAC CIrcuit Wiring - Class A

Page 89

7.3 Power Supply Connections

P1 P2

P3 P4

BATTERY

SEC. TX

Battery Battery

red

green

blk

yellow

240 VAC 50Hz 120 VAC 60Hz N GND

brown

blue

black

red

black

blk

green

white

To AC Input

EARTH GROUND LUG

120 VAC

240V

WX-058 Cable Assembly

The power supply is preinstalled as part of the Main Chassis. The following table displays the electrical ratings. Figure 54 Power Supply Connections shows the proper connections to wire

the Power Supply successfully.

Table 23 Power Supply Electrical Ratings

Connector/Jumper Description

Electrical input ratings 120 VAC, 60 Hz, 2 A / 240 VAC, 50 Hz, 1A Power supply total current 10 A maximum Battery Fuse Replace with WX-058 Battery Cable Assembly

Wiring

Figure 54 Power Supply Connections

Attention: DO NOT exceed power supply ratings. Wire as shown using proper wire

gauges.

Connect batteries after the system main A.C. power is turned on to reduce

sparking.

Page 90

7.4 System Checkout

The following are the recommended steps before and during the powering up of the INX-10A.

7.4.1 Before Turning The Power ON

1. T o prevent sparking, DO NOT con nect the batteries first. Conn ecting the batteries is only to be done after the system has been powered from the main AC Supply.

2. Check all field (external) wiring for opens, shorts, and ground.

3. Check that all interconnection cables are secure, and that all connectors are plugged-in properly.

4. Check all Jumpers and Switches for proper setting.

5. Check the AC power wiring for proper connection.

6. Check that the chassis is connected to EARTH GROUND (cold wa ter pipe).

7. Close the front cover plate before powering the system from main AC supply.

7.4.2 Power-up Procedure

Wiring

1. After completing 7.4.1 Before Turnin g The Power ON procedures, power-up the panel. The green AC-ON LED should illuminate.

2. Since the batteries are not connecte d, the Battery Trouble LED should illuminate, the Common Trouble LED should flash and the Trouble Relay (on the main board) will be active.

3. Connect the batteries while observing correct polarity; the red wire is positive (+) and black wire is negative (-).

4. All indicators should extinguish except for normal power AC-ON green LED.

7.5 Troubleshooting

The following are common methods to solving Circuit Ground Fault, Battery and Common troubles.

7.5.1 Circuit Trouble

Normally when a circuit trouble occurs, the Common Trouble indicator will be illuminated and the common trouble relay will be active. Additionally, the corresponding LED on the main board will be illuminated. This can be viewed by opening the panel and looking the top of the board. To correct the fault, check for open wiring on that particular circuit loop.

7.5.2 Ground Fault

This panel has a common ground fault detector. To correct the fault, check for any external wiring touching the chassis or other Earth Ground connection.

7.5.3 Battery Trouble

Check for the presence of batteries and their conditions. Low voltage (below 20.4V) will cause a battery trouble. If battery trouble condition persists, replace batteries as soon as possible.

Page 91

7.5.4 Common Trouble

If only a common trouble is indicated on the main panel and none of those above confirming trouble indicators are on, then check the following for possible fault

• any missing interconnection wiring

• improperly secured cabling

Wiring

Page 92

8.0 Warranty & Warning Information

Warning Please Read Carefully

Note to End Users: This equipment is subject to terms and conditions of sale as follows:

Note to Installers

This warning contains vital information. As the only individual in contact with system users, it is your responsibility to bring each item in this warning to the attention of the users of this system. Failure to properly inform system end-users of the circumstances in which the system might fail may result in over-reliance u pon the system. As a result, it is imperative that you properly inform each customer for whom you install the system of the possible forms of failure.

System Failures

This system has been carefully designed to be as effective as possible. There are circumstances, such as fire or other types of emergencies where it ma y not provid e protectio n. Alarm systems of any type may be compromised deliberately or may fail to operate as expected for a variety of reasons. Some reasons for system failure include:

•Inadequate Installation A Fire Alarm system must be installed in accordance with all the applicable codes and standards in order to provide adequate protection. An inspection and approval of the initial installation, or, after any changes to the system, must be conducted by the Local Authority Having Jurisdiction. Such inspections ensure installation has been carried out properly.

•Power Failure Control units, smoke detectors and many other connected devices r eq uire an a deq ua te power supply for proper operation. If the system or any device connected to the system operates from batteries, it is possible for the batteries to fail. Even if the batteries have not failed, they must be fully charged, in good condition and installed correctly. If a device operates only by AC power, any interruption, however brief, will render that device inoperative while it does not have power. Power interruptions of any length are often accompanied by voltage fluctuations which may damage electronic equipment such as a fire alarm system. After a power interruption has occurred, immediately conduct a complete system test to ensure that the system operates as intended.

•Failure of Replaceable Batteries Systems with wireless transmitters have been designed to provide several years of battery life under normal conditions. The expected battery life is a function of the device environment, usage and type. Ambient conditions such as high humidity, high or low temperatures, or large temperature fluctuations may reduce the expected battery life. While each transmitting device has a low battery monitor which identifies when the batteries need to be replaced, this monitor may fail to operate as expected. Regular testing and maintenance will keep the system in good operating condition.

•Compromise of Radio Frequency (Wireless) Devices Signals may not reach the receiver under all circumstances which could include metal objects placed on or near the radio path or deliberate jamming or other inadvertent radio signal interference.

•System Users A user may not be able to operate a panic or emergency switch possibly due to permanent or temporary physical disability, inability to reach the device in time, or unfamiliarity with the correct operation. It is important that all system users be trained in the correct operation of the alarm system and that they know how to respond when the system indicates an alarm.

•Automatic Alarm Initiating Devices Smoke detectors, heat detectors and other alarm initiating devices that are a part of this system may not properly detect a fire condition or signal the control pa nel to alert o ccup a nt s of a fire condition for a number of reasons, such as: the smoke detectors or heat detector may have been improperly installed or positioned; smoke or heat may not be able to reach the

Page 93

alarm initiating device, such as when the fire is in a chimney, walls or roofs, or on the other side of closed doors; and, smoke and heat detectors may not detect smoke or heat from fires on another level of the residence or building.

•Software Most MGC products contain software. With re spect to th ose produ ct s, MGC does no t warra nty that the operation of the software will be uninterrupted or error-free or that the software will meet any other standard of performance, or that the functions or performance of the software will meet the user’s requirements. MGC shall not be liable for any delays, breakdowns, interruptions, loss, destruction, alteration or other problems in the use of a product arising our of, or caused by, the software.

Every fire is different in the amount and rate at which smoke and heat are generated. Smoke detectors cannot sense all types of fires equally well. Smoke detectors may not provide timely warning of fires caused by carelessness or safety hazards such as smoking in bed, violent explosions, escaping gas, improper storage of flammable materials, overloaded electrical circuits, children playing with matches or arson.

Even if the smoke detector or heat detector operates as intended, ther e may be circumst ances when there is insufficient warning to allow all occupants to escape in time to avoid injury or death.

•Alarm Notification Appliances Alarm Notification Appliances such as sirens, bells, horns, or strobes may not warn people or waken someone sleeping if there is an intervening wall or door. If notification appliances are located on a different level of the residence or premise, then it is less likely that the occupants will be alerted or awakened. Audible notification appliances may be interfered with by other noise sources such as stereos, radios, televisions, air conditioners or other appliances, or passing traffic. Audible notification appliances, however loud, may not be heard by a hearingimpaired person.

•Telephone Lines If telephone lines are used to transmit alarms, they may be out of service or busy for certain periods of time. Also the telephone lines may be compromised by such things as criminal tampering, local construction, storms or earthquakes.

•Insufficient Time There may be circumstances when the system will operate as intended, yet the occupants will not be protected from the emergency due to their inability to respond to the warnings in a timely manner. If the system is monitored, the response may not occur in time enough to protect the occupants or their belongings.

•Component Failure

Although every effort has been made to make this system as reliable as possible, the system may fail to function as intended due to the failure of a component.

•Inadequate Testing Most problems that would prevent an alarm system from operating as intended can be discovered by regular testing and maintenance. The complete system should be tested as required by national standards and the Local Authority Having Jurisdiction and immediately after a fire, storm, earthquake, accident, or any kind of construction activity inside or outside the premises. The testing should include all sensing devices, keypads, consoles, alarm indicating devices and any other operational devices that are part of the system.

•Security and Insurance Regardless of its capabilities, an alarm system is not a substitute for property or life insurance. An alarm system also is not a substitute for property owners, renter s, or other occup ant s to act prudently to prevent or minimize the harmful effects of an emergency situation.

Page 94

IMPORTANT NOTE: End-users of the system must take care to ensure that the system, batteries, telephone lines, etc. are tested and examined on a regular basis to ensure the minimization of system failure.

Limited Warranty

Mircom Technologies Ltd., MGC Systems Corp. and MGC System International Ltd. together with their subsidiaries and affiliates (collectively, MGC) warrants the original purchaser that for a period of three years from the date of shipment, proprietary manufactured product shall be free of defects in materials and workmanship, under normal use. During the warranty period, MGC shall, at its option, repair or replace any defective product upon return of the product to its factory, at no charge for labor and materials. Non-proprietary, third party or OEM product shall be warranted in accordance with the warranty period of the manufacturer. Any replacement and/or repaired parts are warranted for the remainder of the original warranty or ninety (90) days, whichever is longer. The original owner must promptly notify MGC in writing that there is defect in material or workmanship, such written notice to be received in all events prior to expiration of the warranty period.

International Warranty

The warranty for international customers is the same as for any customer within Canada and the United States, MGC shall not be responsible for any customs fees, taxes, or VAT that may be due.

Conditions to Void Warranty This warranty applies only to defects in parts and workmanship relating to normal use. It does not cover:

•damage incurred in shipping or handling;

•damage caused by disaster such as fire, flood, wind, earthquake or lightning;

•damage due to causes beyond the control of MGC such as excessive voltage, mechanical shock or

•water damage;

•damage caused by unauthorized attachment, alterations, modifications or foreign objects;

•damage caused by peripherals (unless such peripherals were supplied by MGC);

•defects caused by failure to provide a suitable installation environment for the products;

•damage caused by use of the products for purposes other than those for which it was designed;

•damage from improper maintenance;

•damage arising out of any other abuse, mishandling or improper application of the products.

Warranty Procedure

To obtain service under this warranty, please return the item(s) in question to the point of purchase. All authorized distributors and dealers have a warranty program. Anyone retu rning goods to MGC must first obtain an authorization number. MGC will not accept any shipment whatsoever for which prior authorization has not been obtained. NOTE: Unless specific preauthorization in writing is obtained from MGC management, no credits will be issued for custom fabricated products or parts or for complete fire alarm system. MGC will at its sole option, repair or replace parts under warranty. Advance replacements for such items must be purchased.

Page 95

Note: MGC’s liability for failure to repair the product under this warranty after a reasonable

WARNING: Mircom recommends that the entire system be completely tested on a re gular basis. However, despite frequent testing, and due to, but not limited to, criminal tampering or electrical disruption, it is possible for this product to fail to perform as expected.

NOTE: Under no circumstances shall Mircom be liable for any special, in cidental, or consequen tial damages based upon breach of warranty, breach of contract, negligence, strict liability, or any other legal theory . Such damages inc lude, but are not limited to, loss of p rofit s, loss of the product or any associated equipment, cost of capital, cost of sub stitute or replacement equipment, facilities or services, down time, purchaser’s time, the claims of third parties, including customers, and injury to property.

MIRCOM MAKES NO WARRANTY OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE WITH RESPECT TO ITS GOODS DELIVERED, NOR IS THERE ANY OTHER WARRANTY, EXPRESSED OR IMPLIED, EXCEPT FOR THE WARRANTY CONTAINED HEREIN.

number of attempts will be limited to a replacement of the product, as the exclusive remedy for breach of warranty.

Disclaimer of Warranties

This warranty contains the entire warranty and shall be in lieu of any and all other warranties, whether expressed or implied (including all implied warranties of merchantability or fitness for a particular purpose) and of all other obligations or liabilities. MGC neither assumes nor authorizes any other person purporting to act on its behalf to modify or to change this warranty, or to assume for it any other warranty or liability concerning this product.

This disclaimer of warranties and limited warranty are governed by the laws of the province of Ontario, Canada.

Out of Warranty Repairs MGC will at its option repair or replace out-of-warranty products which are returned to its factory according to the following conditions. Anyone returning goods to MGC must first obtain an authorization number. MGC will not accept any shipment whatsoever for which prior authorization has not been obtained.

Products which MGC determines to be repairable will be repaired and returned. A set fee which MGC has predetermined and which may be revised from time to time, will be charged for each unit repaired.

Products which MGC determines not to be repairable will be replaced by the nearest equivalent product available at that time. The current market price of the replacement product will be charged for each replacement unit.

The foregoing information is accurate as of the date of publishing and is subjec t to change or revision without prior notice at the sole discretion of the Company

Page 96

Appendix A - Specifications And Features

9.0 Appendix A - Specifications And

Features

Table 24 INX-10A, INX-10ADS and INX-10AC Specifications and Features

INX-10A, INX-10ADS and INX-10AC Chassis

General Micro-controller based design, fully configurable from DIP Switches on front

panel.

NAC Circuits 5 Style Y or Z (Class B or A) configurable as strobes or audibles. Terminals are

labeled “NAC”. Power limited / 24 VDC regulated / 2.5 A @ 49° C per Circuit

Aux. Power Supply. Terminals are labelled AUX PWR.

Power limited / 24 VDC Filtered (special application) / 1.7 A @ 49° C

Auxiliary relays (resistive loads)

Electrical ratings AC line voltage

Battery Charging capability 4 Ah to 40 Ah batteries

Compliance System Model INX Addressable NAC Expander

Must be connected to a Listed Power Limited Source of Supply. Terminals are labelled “GROUND” and “TROUBLE”.

Ground Fault Form C, 1 Amp, 28 VDC Common Trouble Form C, 1 Amp, 28 VDC

120V 60Hz / 240V, 50Hz 2 Amps / 1 Amp (primary)

Maximum allowable current

NAC Circuits 24VDC regulated, Power Limited

Type 2 x 12VDC, Gel-Cell/Sealed Lead-Acid

Current Consumption standby: 200 mA

Applicable Standards ULC S527-99, UL 864 R9 and UL

120V @ 4.25A 240V @ 2.125A

10A Total, 2.5A maximum per circuit

alarm: 350 mA

1481 R5

Page 97

Appendix A - Specifications And Features

10.0 Appendix B - Power Supply & Battery

Calculations

Use the form below to determine the required Main Chassis and Secondary Power Supply (batteries).

IMPORTANT NOTICE

The main AC branch circuit connection for Fire Alarm Control Unit must provide a dedicated continuous power without provision of any disconnect devices. Use #12 AWG wire with 600-volt insulation and proper over-current circuit protection that complies with the local codes. Refer to9.0 Appendix A - Specifications And Features for specifications.

Power Requirements (All currents are in amperes)

Model Number Description Qty Standby

INX-10A Main Chassis (10 Amp) X 0.200 = 0.350 = INX-10ADS Chassis (10 Amp) X 0.200 = 0.350 = INX-10AC Chassis (10 Amp) X 0.200 = 0.350 = Signal Load (bells, horns, strobes, and etc.) X Auxiliary Power Supply =

Total currents (Add above currents) STANDBY (A)(B)

Total

Standby

Alarm

Total

Alarm

= =

Total Current Requirement

ALARM (B)______ Amps.

Battery Capacity Requirement

([STANDBY (A)______ ] X [(24 or 60 Hours)___ ]) + ([ALARM (B)______ ] X [*Alarm in Hr.] _____) = (C)______AH

Battery Selection

Multiply (C) by 1.20 to derate battery. Batteries BA-104(4AH), BA-1065(7AH) and BA-110(12AH) will fit into the INX-10A, BA-117 (18 Ah) fit in the

INX-10ADS only *Use 0.084 for five minutes of alarm or 0.5 for thirty minutes of alarm as a multiplier figure.

Page 98

Appendix A - Specifications And Features

11.0 Appendix C - Sample Applications

11.1 Minimal Size Single Stage Addressable System - Factory Default Settings

In a minimal size system the INX-10A will require 7 addresses. The following are the specs for the system.

Base Address 193 Protocol System Sensor AC Failure Report Delay No Delay Charger Yes Battery Yes Cut Charger when NACs activated Yes Alert Rate N/A Evacuation Rate Temporal Strobe Type None NAC 4 Output Settings NAC NAC 5 Output Settings NAC

SW1

SW2

SW3

SW4

234567

SW5

234567

Page 99

11.2 Minimal Two Stage Addressable System

In a minimal size system the INX-10A will require 7 addresses. The following are the specs for the system.

Base Address 188 Protocol System Sensor AC Failure Report Delay 2 hour Charger Yes Battery Yes Cut Charger when NACs activated Yes Alert Rate Follow Inputs Evacuation Rate Temporal Strobe Type None NAC 4 Output Settings NAC NAC 5 Output Settings Continuous Supply

Appendix A - Specifications And Features

SW1

SW2

SW3

SW4

SW5

234567

Page 100

Appendix A - Specifications And Features

11.3 Minimal ULC Two Stage Addressable System

In a minimal size system the INX-10A will require 7 addresses. The following are the specs for the system.

Base Address 185 Protocol System Sensor AC Failure Report Delay 2 hour Charger Yes Battery Yes Cut Charger when NACs activated Yes Alert Rate Follow Inputs Evacuation Rate Temporal Strobe Type None NAC 4 Output Settings NAC NAC 5 Output Settings Continuous Supply

SW1

SW2

SW3

SW4

SW5

234567

100