MGC RAXN-LCDG Network Remote Graphic Annunciator Installation Guide

MGC RAXN-LCDG Network Remote Graphic Annunciator

Introduction

MGC graphical LCD remote shared display is the RAXN-LCDG. The RAXN-LCDG provides
an exact replica of the main FleX-NetTM or MMXTM Fire Alarm Panel display (except with a 9-event 24-line graphical display) at a remote location. It is equipped with a simple menu system complete with a directional keypad and switches for Enter, Menu, Cancel and Info. The RAXN-LCDG supports up to a maximum of 41 frames, 13 for the first header P5, and 14 frames per headers P6 and P7. A ”frame” is a measure of display capacity. Each display module has its own frame measure. The displays available are RAX-1048TZDS (3 frames), IPS-2424DS (2 frames), and FDX-008W/KI (1 frame). There are five types of enclosures available: the BB-1001D/R (MMX-BB-1001D/R), BB-1002D/R (MMX-BB- 1002D/R), BB-1003D/R (MMX-BB-1003D/R), BB-1008D/R (MMX-BB-1008D/R), and BB- 1012D/R (MMX-BB-1012D/R) which can take 1,2,3,8 and 12 chassis respectively. The RAXN-LCDG may also be mounted in the BB-5008 and the BB-5014 backboxes as part of a central location or node.

Installation Instructions

BACKBOX MODEL

| HEIGHT

OF BACKBOX H (IN.)

| WIDTH

OF BACKBOX

(IN.)

| HORIZONTAL

MOUNTING HOLE DIM. A (IN.)

| VERTICAL

MOUNTING HOLE DIM. B (IN.)

---|---|---|---|---
BB-1001D/R(MMX-BB-1001D/R)| 9.0”| 12.75”| 9.95”| 7.5”
BB-1002D/R(MMX-BB-1002D/R)| 18.0”| 12.75”| 9.95”| 16.5”
BB-1003D/R(MMX-BB-1003D/R)| 26.5”| 12.75”| 9.95”| 24.9”
BB-1008D/R(MMX-BB-1008D/R)| 33.0”| 22.5”| 9.95”| 35.2”
BB-1012D/R(MMX-BB-1012D/R)| 45.0”| 22.5”| 9.95”| 52.0”

Jumper Settings

There are 3 jumpers located on the top left-hand side of the board position left to right as JW2, JW1 and JW3.

silenced.

DIP Switch Settings

Each RAXN-LCDG Shared Display Annunciator needs to be assigned a unique address via the DIP switches of SW1 located on the top right-hand side of the board.
The RAXN-LCDG DIP switches are defined as:

DIP switches are for assigning an address to the RAXN-LCDG. Binary addresses 33 to 39 are available with the least significant bit being switch SW1-1 and the most significant bit being SW1-6. The ON setting is active binary. DIP switches SW1-7 and SW1-8 are not used and left in the OFF position.
For example, address 33 is set by placing DIP switches SW1-6 and SW1-1 to the ON position and all the other DIP switches to the OFF position.
Refer to Network Fire Alarm Manual as to whether addresses 37 to 39 are available.
THE ON SETTING IS ACTIVE. The addresses available for a RAXN-LCDG are 33 to 39 per each node. Set the address as follows in the table below:

RAXN-LCDG Remote Annunciator Address Setting (DIP SWITCH SW1)

RAXN-LCDG Address| SW1- 1| SW1- 2| SW1- 3| SW1- 4| SW1- 5| SW1- 6| SW1- 7| SW1- 8
---|---|---|---|---|---|---|---|---
33| ON| OFF| OFF| OFF| OFF| ON| ****

Leave in “OFF” position as Factory Set.

34| OFF| ON| OFF| OFF| OFF| ON
35| ON| ON| OFF| OFF| OFF| ON
36| OFF| OFF| ON| OFF| OFF| ON
Refer to Network Fire Alarm Manual as to whether addresses 37 to 39 are available
37| ON| OFF| ON| OFF| OFF| ON
38| OFF| ON| ON| OFF| OFF| ON
39| ON| ON| ON| OFF| OFF| ON

Cable Connections

On the RAX-1048 Adder Annunciator Chassis:
P1: Connects to the RAXN-LCDG main annunciator chassis, or to the previous display modules RAX-1048TZDS, IPS-2424DS or other display adder.
P2: Connects to the next RAX-1048TZDS, IPS-2424DS or other display adder.

On the IPS-2424DS Programmable Input Switches Module (shown here as an example):
P1: Connects to the RAXN-LCDG main annunciator chassis, or to the previous display module.
P2: Connects to the next display module.

On the RAXN-LCDG Shared Display Chassis:
P5: Connects to the first display module. This connector can support up to13 frames. P6: Connects up to 13 frames.
P7: Connects up to 13 frames.
If all headers are used, the RAXN-LCDG can support up to a maximum of 41 frames. Terminals: See Wiring Instructions on page 5 for details.
SW1: See DIP Switch Settings on page 3 for details.

Note: The last annunciator must have a 120 ohm E.O.L. resistor connected to the RS-485 output terminals.

Wiring Instructions

The RS-485 wiring to the RAXN-LCDG Display Module is recommended to be twisted shielded pair as shown in the diagram to the right. The wire gauge may be:

• 22 AWG up to 2000 ft.
• 20 AWG up to 4000 ft.

The RS-485 wiring from the fire alarm control panel to the annunciator(s) must be point-to-point from the fire alarm panel to the annunciator(s) must be point-to-point from the fire alarm panel to the first annunciator, then to the next annunciator, and so on. No star wiring or T-tapping is allowed. Each RAXN-LCDG Shared Display has a 120 ohm end-of-line resistor on its RS-485 output terminals. This is removed on all except the last wired module

The 24 VDC field wiring needs to be of an appropriate gauge for the number of annunciators and the total wiring run length. Use the Current Drain for Battery Calculations on page 7 to calculate the maximum current for all annunciators summed together.

Note: All circuits are power limited and must use type FPL, FPLR, or FPLP power limited cable.

ATTENTION: Accidentally connecting any of the 24 VDC wires to the RS-485 wiring will result in damage to the annunciator and/or to the fire alarm control panel to which it is connected.

|

Note: All circuits are power limited and must use type FPL, FPLR, or FPLP power limited cable.

---|---
ATTENTION: Accidentally connecting any of the 24 VDC wires to the RS-485 wiring will result in damage to the annunciator and/or to the fire alarm control panel to which it is connected.
Total Maximum Current for all Annunciators| Maximum Wiring Run to Last Annunciator| Max. Loop Resistance|
18AWG| 16AWG| 14AWG| 12AWG
Amperes| ft| m| ft| m| ft| m| ft| m| Ohms
0.12| 1180| 360| 1850| 567| 3000| 915| 4250| 1296| 15
0.30| 470| 143| 750| 229| 1200| 366| 1900| 579| 6
0.60| 235| 71| 375| 114| 600| 183| 850| 259| 3
0.90| 156| 47| 250| 76| 400| 122| 570| 174| 2
1.20| 118| 36| 185| 56| 300| 91| 425| 129| 1.5
1.50| 94| 29| 150| 46| 240| 73| 343| 105| 1.2
1.70| 78| 24| 125| 38| 200| 61| 285| 87| 1.0

Specifications and Features

Enclosure Models

• BB-1001D/R (MMX-BB-1001D/R): Backbox for one annunciator chassis with keylock door.
• BB-1002D/R (MMX-BB-1002D/R): Backbox for up to two annunciator chassis with keylock door.
• BB-1003D/R (MMX-BB-1003D/R): Backbox for up to three annunciator chassis with keylock door.
• BB-1008D/R (MMX-BB-1008D/R): Backbox for up to eight annunciator chassis with keylock door.
• BB-1012D/R (MMX-BB-1012D/R): Backbox for up to twelve annunciator chassis with keylock door.

Notes: Enclosure finish: painted semi-gloss off white, except for models with suffix “R” which are painted red.
Material: BB-1001D/R (MMX-BB-1001D/R), BB-1002D/R (MMX-BB-1002D/R) are 18GA, BB-1003D/R (MMX-BB-1003D/R) is 16 GA CRS. BB-1008D/R (MMX-BB-1008D/R), BB- 1012D/R (MMX-BB-1012D/R) backboxes are 16 GA CRS, Doors are 14 GA.
See Installation Instructions on page 1 for enclosure dimensions.

Module Models
RAXN-LCDG Remote Shared Display LCD Annunciator

• 24V DC nominal.
• Interconnects via one ribbon cable (or wiring) to the Network Fire Alarm Panel or to previous RAXN-LCDG.
• Provides exact functions as the Network Fire Alarm main display.
• Standby: 117 mA Max., All LEDs ON: 150 mA Max.

RAX-1048TZDS Adder Annunciator (48 Display Points)(3 frames)

• Interconnects via one ribbon cable from RAXN-LCDG or previous display module and to the next display module.
• Annunciation of up to 48 additional points.
• Standby: 22 mA Max., All LEDs ON: 262 mA Max.

IPS-2424DS Adder Annunciator (48 Display Points)(2 frames)

• Interconnects via one ribbon cable from RAXN-LCDG or from previous display module and to the next display module.
• Annunciation of up to 48 additional points.
• Standby: 10 mA Max., All LEDs ON: 262 mA Max.

Battery Calculations

Current Drain for Battery Calculations
The following are the currents for the RAXN-LCDG to which is added the number of RAX-1048TZDS, IPS-2424DS or FDX-008W/KI used:

The Normal Standby Current is used for battery size calculations (see the Network Fire Alarm Manual for battery calculations) and includes the current drain for the Trouble Buzzer, Trouble LED, and one alarm LED.
The Maximum Alarm Current is used to calculate the wire size required (see Wiring Table on page 5).

Warranty and Warning Information

WARNING!
Please read this document CAREFULLY, as it contains important warnings, life- safety, and practical information about all products manufactured by the Mircom Group of Companies, including Mircom and Secutron branded products, which shall include without limitation all fire alarm, nurse call, building automation and access control and card access products (hereinafter individually or collectively, as applicable, referred to as “Mircom System”).

NOTE TO ALL READERS

1. Nature of Warnings. The within warnings are communicated to the reader out of an abundance of caution and create no legal obligation for Mircom Group of Companies, whatsoever. Without limiting the generality of the foregoing, this document shall NOT be construed as in any way altering the rights and obligations of the parties, governed by the legal documents that apply in any given circumstance.

2. Application. The warnings contained in this document apply to all Mircom System and shall be read in conjunction with:

   • the product manual for the specific Mircom System that applies in given circumstances;
   • legal documents that apply to the purchase and sale of a Mircom System, which may include the company’s standard terms and conditions and warranty statements;
   • other information about the Mircom System or the parties’ rights and obligations as may be application to a given circumstance.

3. Security and Insurance. Regardless of its capabilities, no Mircom System is a substitute for property or life insurance. Nor is the system a substitute for property owners, renters, or other occupants to act prudently to prevent or minimize the harmful effects of an emergency situation. Building automation systems produced by the Mircom Group of Companies are not to be used as a fire, alarm, or life-safety system.
   NOTE TO INSTALLERS:
   All Mircom Systems have been carefully designed to be as effective as possible. However, there are circumstances where they may not provide protection. Some reasons for system failure include the following. As the only individual in contact with system users, please bring each item in this warning to the attention of the users of this Mircom System. Failure to properly inform system end-users of the circumstances in which the system might fail may result in over-reliance upon 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:

4. Inadequate Installation. All Mircom Systems must be installed in accordance with all the applicable codes and standards in order to provide adequate protection. National standards require an inspection and approval to be conducted by the local authority having jurisdiction following the initial installation of the system and following any changes to the system. Such inspections ensure installation has been carried out properly.

5. Inadequate Testing. Most problems that would prevent an alarm a Mircom System from operating as intended can be discovered by regular testing and maintenance. The complete system should be tested by the local authority having jurisdiction 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.
   NOTE TO USERS:
   All Mircom Systems have been carefully designed to be as effective as possible. However, there are circumstances where they may not provide protection. Some reasons for system failure include the following. The end user can minimize the occurrence of any of the following by proper training, testing and maintenance of the Mircom Systems:

6. Inadequate Testing and Maintenance. It is imperative that the systems be periodically tested and subjected to preventative maintenance. Best practices and local authority having jurisdiction determine the frequency and type of testing that is required at a minimum. Mircom System may not function properly, and the occurrence of other system failures identified below may not be minimized, if the periodic testing and maintenance of Mircom Systems is not completed with diligence and as required.

7. Improper 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. A Mircom System may not function as intended during an emergency situation where the user is unable to operate a panic or emergency switch by reason of permanent or temporary physical disability, inability to reach the device in time, unfamiliarity with the correct operation, or related circumstances.

8. Insufficient Time. There may be circumstances when a Mircom 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.

9. Carelessness or Safety Hazards. Moreover, 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 or children playing with matches or arson.

10. Power Failure. Some Mircom System components require adequate electrical power supply to operate. Examples include: smoke detectors, beacons, HVAC, and lighting controllers. 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 Mircom Systems or other electronic equipment. After a power interruption has occurred, immediately conduct a complete system test to ensure that the system operates as intended.

11. Battery Failure. If the Mircom 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. Some Mircom Systems use replaceable batteries, which have a limited life-span. The expected battery life is variable and in part dependent on 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. Moreover, some Mircom Systems do not have a battery monitor that would alert the user in the event that the battery is nearing its end of life. Regular testing and replacements are vital for ensuring that the batteries function as expected, whether or not a device has a low-battery monitor.

12. Physical Obstructions. Motion sensors that are part of a Mircom System must be kept clear of any obstacles which impede the sensors’ ability to detect movement. Signals being communicated by a Mircom System may not reach the receiver if an item (such as metal, water, or concrete) is placed on or near the radio path. Deliberate jamming or other inadvertent radio signal interference can also negatively affect system operation.

13. Wireless Devices Placement Proximity. Moreover all wireless devices must be a minimum and maximum distance away from large metal objects, such as refrigerators. You are required to consult the specific Mircom System manual and application guide for any maximum distances required between devices and suggested placement of wireless devices for optimal functioning.

14. Failure to Trigger Sensors. Moreover, Mircom Systems may fail to operate as intended if motion, heat, or smoke sensors are not triggered.
    a. Sensors in a fire system may fail to be triggered when the fire is in a chimney, walls, roof, or on the other side of closed doors. Smoke and heat detectors may not detect smoke or heat from fires on another level of the residence or building. In this situation the control panel may not alert occupants of a fire.
    b. Sensors in a nurse call system may fail to be triggered when movement is occurring outside of the motion sensors’ range. For example, if movement is occurring on the other side of closed doors or on another level of the residence or building the motion detector may not be triggered. In this situation the central controller may not register an alarm signal.

15. Interference with Audible Notification Appliances. Audible notification appliances may be interfered with by other noise sources such as stereos, radios, televisions, air conditioners, appliances, or passing traffic. Audible notification appliances, however loud, may not be heard by a hearing-impaired person.

16. Other Impairments. Alarm notification appliances such as sirens, bells, horns, or strobes may not warn or waken a sleeping occupant if there is an intervening wall or door. It is less likely that the occupants will be alerted or awakened when notification appliances are located on a different level of the residence or premise.

17. Software Malfunction. Most Mircom Systems contain software. No warranties are provided as to the software components of any products or stand-alone software products within a Mircom System. For a full statement of the warranties and exclusions and limitations of liability please refer to the company’s standard Terms and Conditions and Warranties.

18. Telephone Lines Malfunction. Telephone service can cause system failure where telephone lines are relied upon by a Mircom System. Alarms and information coming from a Mircom System may not be transmitted if a phone line is out of service or busy for a certain period of time. Alarms and information may not be transmitted where telephone lines have been compromised by criminal tampering, local construction, storms or earthquakes.

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

20. Integrated Products. Mircom System might not function as intended if it is connected to a non-Mircom product or to a Mircom product that is deemed non-compatible with a particular Mircom System. A list of compatible products can be requested and obtained.

Warranty

Purchase of all Mircom products is governed by:

• https://www.mircom.com/product-warranty
• https://www.mircom.com/purchase-terms-and-conditions
• https://www.mircom.com/software-license-terms-and-conditions

CANADA – Main Office 25 Interchange Way Vaughan, ON L4K 5W3
Tel: 888-660-4655
905-660-4655
Fax: 905-660-4113

U.S.A
4575 Witmer Industrial Estates Niagara Falls, NY 14305
Tel: 888-660-4655
905-660-4655
Fax: 905-660-4113

© MGC 2018
Printed in Canada
Subject to change without prior notice
www.mircom.com

firealarmresources.com

References

• Fire Alarm Resources | Download fire alarm documents
• Mircom - Smart Buildings. Smarter Solutions.
• Product Warranty - Mircom
• TERMS AND CONDITIONS OF PURCHASE - Mircom
• Software License Terms and Conditions - Mircom

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