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Metasys Intelligent Fire Network
• Point-To-Point Configuration
• Connecting the Fire OWS
• Connecting the Fire-Net NCM
• Connecting an IFC Panel
• Connecting an INA
Commissioning and Troubleshooting Procedures
• Setting the Ground Fault Switch
• Node Addresses
• IFC Panel System Programming for Style 7 FN
• FN Stats Program
• LED Indicators
© 2000 Johnson Controls, Inc.
Code No. LIT-448196
*Indicates those sections where changes have occurred since the last printing.
IFC-1010/2020 Technical Manual 448
IFC Networking Section
Technical Bulletin
Issue Date 0300
Page
www.johnsoncontrols.com
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Table of Contents
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Summary of Contents for Johnson Controls Metasys Intelligent Fire Network

  • Page 1: Table Of Contents

    IFC-1010/2020 Technical Manual 448 IFC Networking Section Technical Bulletin Issue Date 0300 Metasys Intelligent Fire Network Introduction Page • Application Details • Theory of Operation • Specifications Engineering Procedures • Planning Considerations • Design Considerations • Ground Fault Detection • Point-To-Point Configuration Installation Procedures •...
  • Page 2 • Windows NCM350 Setup • Changing Threshold and Style • N2 or FN Connection Appendix • Cooperative Control-By-Event • IFC Panel CCBE Programming • System Software Zones *Indicates those sections where changes have occurred since the last printing. IFC Networking—Metasys Intelligent Fire Network...
  • Page 3: Introduction

    (see the Secondary Reporting section of this document for the exceptions and differences in configuration). The Primary Reporting Metasys Intelligent Fire Network is an interface that allows Intelligent Fire Controller (IFC) fire alarm system products and the Fire OWS to communicate over a true peer-to-peer network while meeting the requirements of UL 864 UOJZ and NFPA 72 for Local and Proprietary Protective Signaling Systems.
  • Page 4 NFPA 72. The FN can be configured as either bus (Style 4, twisted pair wire only) or point-to-point. To achieve the best communication reliability across the network and for best fault tolerance, use Style 7 whenever possible. IFC Networking—Metasys Intelligent Fire Network...
  • Page 5 S T E P E N T E R L A M P T E S T mifnsys Intelligent Network Annunciator Figure 1: Primary Reporting Metasys Intelligent Fire Network in a Style 7 Loop Topology IFC Networking—Metasys Intelligent Fire Network...
  • Page 6 Notification Appliances Technical Manual (FAN 408) and the other technical bulletins in the IFC-1010/2020 Technical Manual (FAN 448). CAUTION: Only use the hardware specified by Johnson Controls and listed in the documentation. If other hardware is used, the Fire Network will not meet the UL 864 UOJZ requirements.
  • Page 7 IFC panels are within a single building. The INA has EIA-RS232 printer and CRT terminal interfaces used to record/display network status and an EIA-RS485 interface for ACM Series annunciators. IFC Networking—Metasys Intelligent Fire Network...
  • Page 8 Serial Interface Board required for the IFC panel to connect to the MIB. Fiber Optic Repeater RPT-F Fiber Optic/Copper Repeater RPT-WF Copper Wire Repeater RPT-W Intelligent Network Annunciator PRN-4 or PRN-3 Dedicated (required for each Fire OWS) and Optional Printers IFC Networking—Metasys Intelligent Fire Network...
  • Page 9 Number Sales Literature Metasys Intelligent Fire Network Product LIT-447032 Fire Management Sales Resource Bulletin Manual (FAN 447) Metasys Intelligent Fire Network Media Options LIT-447034 Fire Management Sales Resource Manual (FAN 447) Product Bulletin Fire Operator Workstation (Fire OWS) Product LIT-447036...
  • Page 10: Theory Of Operation *10

    UL Listed for fire alarm service. For details on the N1 LAN, refer to the N1 ARCNET Local Area Network Technical Bulletin (LIT-636017) in the Network Communications section of the Metasys Network Technical Manual (FAN 636). IFC Networking—Metasys Intelligent Fire Network...
  • Page 11: Specifications *11

    ** This rating is based on full use of the power supply capacity and excludes the power requirements for high capacity battery chargers and/or optional notification appliance circuit power supplies, which may be required to supplement the main power supply and/or audio amplifier power requirements. IFC Networking—Metasys Intelligent Fire Network...
  • Page 12 IFC Networking—Metasys Intelligent Fire Network...
  • Page 13: Engineering Procedures

    The second is a system that can supply 120 VAC with sufficient capacity to operate these devices under a maximum load for 24 hours. This power must be provided by multiple engine-driven generators, one of which is arranged for automatic starting. IFC Networking—Metasys Intelligent Fire Network...
  • Page 14 This rating is based on full use of the power supply capacity and excludes the power requirements for high capacity battery chargers and/or optional notification appliance circuit power supplies, which may be required to supplement the main power supply and/or audio amplifier power requirements. IFC Networking—Metasys Intelligent Fire Network...
  • Page 15: Design Considerations *15

    • internode connection: bus or point-to-point Distance limitations also need to be considered when designing the system and vary per medium selected. For details, refer to Distance Capabilities in the Engineering Procedures section later in this bulletin. IFC Networking—Metasys Intelligent Fire Network...
  • Page 16 Node 4 With a single break communication is style4 severed, Nodes 5 and 6 can no longer communicate with Nodes 1-4 and additional communication faults may occur. Figure 3: Style 4 Communication with a Single Break IFC Networking—Metasys Intelligent Fire Network...
  • Page 17 (See the Style 7 Operation section of this document.) For additional information regarding Style 4 and Style 7 wiring styles, refer to the Performance and Capacities of Signaling Line Circuits section of the NFPA 72, National Fire Alarm Code. IFC Networking—Metasys Intelligent Fire Network...
  • Page 18 Metasys Network Technical Manual (FAN 636). 4. Change the INAs programming to Style 7. See the Partial System Programming section of the Intelligent Network Annunciator (INA) Technical Bulletin (LIT-448193) located in the IFC-1010/2020 Technical Manual (FAN 448). IFC Networking—Metasys Intelligent Fire Network...
  • Page 19 If the distance required for a circuit segment is greater than permitted, a Repeater module (Model RPT-W) must be inserted into the circuit segment at intervals less than or equal to the length restriction. IFC Networking—Metasys Intelligent Fire Network...
  • Page 20 West Penn Wire D980, NEC Article 760, 3,000 18 AWG, UL 1424 1 Pair Unshielded Contact Manufacturer 1-1,400 1,200- 1-100 Brand-Rex 93782-01, 2,000 16 AWG, 1 Pair Unshielded Continued on next page . . . IFC Networking—Metasys Intelligent Fire Network...
  • Page 21 If the total length exceeds the maximum allowable length for a given threshold, the network may lose communication. Separately powered repeaters may be employed at each node in a point-to-point series connection to ensure data regeneration. IFC Networking—Metasys Intelligent Fire Network...
  • Page 22 100- 2,000 1,500 1,250 Belden High 1-300 1-250 1-200 1-150 1-100 1-100 1-50 1-10 9583, 9575 300- 250-450 200-400 150-300 100- 100-150 50-100 2,000 Note: In noisy environments, use shielded cable and/or threshold setting high. IFC Networking—Metasys Intelligent Fire Network...
  • Page 23 - attenuation of the coupler - attenuation of connector between fiber and receiver - attenuation of connector between fiber and transmitter number of fiber optic cable sections - attenuation per unit length - distance between transmitter and receiver IFC Networking—Metasys Intelligent Fire Network...
  • Page 24 In addition, the total system path length is related to the worst case delay allowing for sending a signal from one part of the network to any other part. If this delay becomes excessive, the ARCNET protocol may no longer operate correctly, resulting in data loss. IFC Networking—Metasys Intelligent Fire Network...
  • Page 25 700,000 600,000 500,000 400,000 300,000 200,000 100,000 0 50 100 150 200 250 300 350 400 450 500 550 600 650 700 750 Total Number of Nodes/Repeaters graph Figure 4: Node vs. Medium Distance Limitations IFC Networking—Metasys Intelligent Fire Network...
  • Page 26 SIB-NET board field installed in IFC panel MIB-F MIB-WF MIB-OWS-W ISA bus at back of computer Fire OWS MIB-OWS-F MIB-OWS-WF MIB-OWS-W ISA slot next to N1 LAN ARCNET board Fire-Net NCM MIB-OWS-F MIB-OWS-WF MIB-W Main ARCNET board in INA MIB-F MIB-WF IFC Networking—Metasys Intelligent Fire Network...
  • Page 27 Note: Wiring from the MIB-W that is situated outside the building: • cannot exceed 100 m (3,000 ft) • must be underground and in conduit • cannot cross any power lines • cannot be in the same conduit as power lines IFC Networking—Metasys Intelligent Fire Network...
  • Page 28 ... . Mib3 STATB PULSE STATB PULSE A HI RCVDA A HI RCVDA B HI STATA B HI STATA RCVDB RECON RCVDB RECON Figure 5: MIB-W IFC Networking—Metasys Intelligent Fire Network...
  • Page 29 NFPA Style 7 (Class A) 62.5/125 Micrometers Fiber Type 820 Nanometers Wave Length ST Style, Bayonet Connectors LEDs Indicates network activity on the port. See Table 15 and Figure 27. MIB-WF Connects to Devices RPT-F RPT-WF Another MIB-F IFC Networking—Metasys Intelligent Fire Network...
  • Page 30 Note: There are no special restrictions for running fiber optic cable between buildings. Note: Fiber optic cable attenuation is not to exceed 10 dB at 820 nanometers (each fiber). TXB RXB TXA RXA TXB RXB TXA RXA mib4 MIB-F MIB-F Figure 6: MIB-F IFC Networking—Metasys Intelligent Fire Network...
  • Page 31 Figure 7: MIB-WF Note: If the SW1 switch is in the On position, ground fault detection is enabled. If the SW1 switch is in the Off position, the MIB-WF will not have ground fault detection enabled. IFC Networking—Metasys Intelligent Fire Network...
  • Page 32 Network Node Network Node Network Node Network Node Node 3 Node 4 Node 2 Node 1 point On twisted pair point-to-point segments, terminating resistors are required on each end of every segment. Figure 9: Point-to-Point Configuration IFC Networking—Metasys Intelligent Fire Network...
  • Page 33 Style 7 system. Network Node Network Node Node 3 Node 4 Ports Ports Network Node Network Node wire1 Node 5 Node 6 Figure 10: Wiring an Entire NFPA Style 4 or Style 7 System Point-to-Point IFC Networking—Metasys Intelligent Fire Network...
  • Page 34 (refer to Figure 11). A repeater can be bus-wired to each of a central facility’s existing nodes (located within the same room) to support point-to-point connections to the remaining buildings in the system. IFC Networking—Metasys Intelligent Fire Network...
  • Page 35 Note: Unused ports may have terminating resistors in place or removed as desired. Table 13: On-Board Terminating Resistors Resistor Port A Port B RPT-W RPT-WF MIB-W MIB-WF Terminating resistors do not apply to fiber optic cable. IFC Networking—Metasys Intelligent Fire Network...
  • Page 36 IFC panel for its addressable device SLCs, etc. Since ground fault detection is required in Canada, it is suggested that either fiber optic cable medium be used exclusively, or follow the guidelines set forth within this section of the manual. IFC Networking—Metasys Intelligent Fire Network...
  • Page 37 (SW3) at each repeater. Example 3 and Figure 15 show the proper application of ground fault detection when a number of repeaters are positioned on the FN between two nodes. IFC Networking—Metasys Intelligent Fire Network...
  • Page 38 Twisted Pair Wire Twisted Pair Wire Ports Ports Ports Ground Fault Ground Fault Detection Ground Fault Detection Enabled Feedthrough Disabled MIB-W Enabled MIB-W RPT-W Power Power Supply Supply Node IFC Node gfd2 Figure 13: Point-To-Point (Example 1) IFC Networking—Metasys Intelligent Fire Network...
  • Page 39 Twisted Pair Wire Ports Ports Ports Ground Fault Ground Fault Ground Fault Detection Detection Feedthrough Enabled Enabled MIB-W MIB-W Disabled RPT-W Power Power Supply Supply IFC Node IFC Node Sw3off Figure 14: Point-To-Point (Example 2) IFC Networking—Metasys Intelligent Fire Network...
  • Page 40 MPS-24A power supply by the MPS-24A power supply in the left node. in the right node. Repeater Repeater Repeater Repeater Repeater Node Node gfd3 Figure 15: Maximum Point-to-Point Series Repeater Ground Fault Feedthrough Configuration (Example 3) IFC Networking—Metasys Intelligent Fire Network...
  • Page 41 IFC Node Node Node Node Ground Fault Detection Ground Fault Detection Ground Fault Detection Ground Fault Detection Ground Fault Detection Ground Fault Detection Disabled Disabled Disabled Disabled Enabled Disabled gfdbus Figure 16: Bus (Example 1) IFC Networking—Metasys Intelligent Fire Network...
  • Page 42 Note: On remotely powered nodes, ground fault detection is processed through the main power supply (MPS-24A or MPS-24B). Ground faults that occur on a remotely powered INA will be reported to the network as a fault within the node containing the power supply. IFC Networking—Metasys Intelligent Fire Network...
  • Page 43 Connecting the requires an MIB-OWS board to be field installed for the FN connection. Fire-Net NCM For details, refer to the Appendix A: Fire-Net NCM section of the Network Control Module 300 Series Technical Bulletin (LIT-6360251). IFC Networking—Metasys Intelligent Fire Network...
  • Page 44 SIB-NET. Connect P2 on the MIB to J6 on the SIB-NET. Using the four standoffs and screws supplied, secure the MIB to the SIB-NET. SIB-NET mib1 Figure 18: Installing the MIB on the SIB-NET IFC Networking—Metasys Intelligent Fire Network...
  • Page 45 Repeaters can connect to each of the three MIB types: wire, fiber optic Repeater cable, or to both. For detailed instructions on how to wire a repeater to a MIB, refer to the Repeaters Technical Bulletin (LIT-448197). IFC Networking—Metasys Intelligent Fire Network...
  • Page 46 IFC Networking—Metasys Intelligent Fire Network...
  • Page 47 The Fire-Net NCM must have an FN (Fire Network) and Metasys Network node address between 70-79. Fire OWS must have an FN and Metasys Network node address between 150-159. Addresses above 249 must not be used on the FN. IFC Networking—Metasys Intelligent Fire Network...
  • Page 48 • If the NCM is a 101 with N2 connected fire panels, it may register Error Log 171, and object log does not exist. • If the NCM is not connected to either the N2 Fire System or the FN, it may register additional errors. IFC Networking—Metasys Intelligent Fire Network...
  • Page 49 Press Enter. The following message appears: 1(PSYS). PRESS 1=INST,2=STY,3=TDLY,4=AVPS,5=ZBND,6=EXTEQ, 7=LOCP,8=ISIB,9=PARM: 4. Type Press Enter. The following message appears: 8(ISIB). PRESS 1=INSTL,2=ANN,3=XINT 5. Type Press Enter. The following message appears: 3(XINT). DO YOU WANT TO CHANGE THE EXTERNAL INTERFACE? IFC Networking—Metasys Intelligent Fire Network...
  • Page 50 (No). Press Enter. The following message appears: DO YOU WANT TO CHANGE THE MIB-W THRESHOLD FOR CHANNEL A? 9. Type (No). Press Enter. The following message appears: DO YOU WANT TO CHANGE THE MIB-W THRESHOLD FOR CHANNEL B? IFC Networking—Metasys Intelligent Fire Network...
  • Page 51 2. At a Fire OWS, open the Metasys Program group. 3. Double click on the FN Stats icon (Figure 21). The FN Statistics Program window appears (Figure 22). STATS icon Figure 21: FN Stats Icon IFC Networking—Metasys Intelligent Fire Network...
  • Page 52 Fire OWS that you are working on (Figure 24). Note: The current version of FN Stats supports viewing the statistics of the Fire OWS where you are running the program, but not of other Fire OWSs on the FN. IFC Networking—Metasys Intelligent Fire Network...
  • Page 53 Once you have viewed the data and want to reset the Fire OWS counters, return to the PC FN Statistics dialog box by clicking on the Address button and check the Initialize FN Statistics dialog box (Figure 26). IFC Networking—Metasys Intelligent Fire Network...
  • Page 54 The FN Stats program will identify how often the retries and resyncs occur. Table 14 shows the counters that are part of the FN Stats program and what they indicate. IFC Networking—Metasys Intelligent Fire Network...
  • Page 55 If the counters show retries, recons, or resyncs, there is a problem with the FN segment. Note: There can be a 10-35-second delay between the cause of a problem and when it shows up on the counter. IFC Networking—Metasys Intelligent Fire Network...
  • Page 56 Illuminates when the MIB has not STATB* received valid data from the MIFN on Port B. RCVDB Green Illuminates when the MIB is receiving data from the MIFN on Port B. *Not on all MIB revisions. IFC Networking—Metasys Intelligent Fire Network...
  • Page 57 5 4 3 2 1 ..Mib3a STATB PULSE RECON A HI RCVDA B HI STATA RCVDB RCVDA RCVDB RECON Figure 27: Diagnostic Indicator Locations Showing Older and New Model MIB Daughter Board IFC Networking—Metasys Intelligent Fire Network...
  • Page 58 IFC Networking—Metasys Intelligent Fire Network...
  • Page 59 Local Protective Signaling System. There can be a maximum of four nodes (IFC-1010/2020 panels) connected Capacity to the Fire NC on the Secondary Reporting configuration of the MIFN and any combination of Fire and/or INA devices. IFC Networking—Metasys Intelligent Fire Network...
  • Page 60 Code Download Type, Archive Device Address, etc. Set the Code . Set the other parameters as needed. Download Type = Fire 6. Do code and Data Download to download selected code when done with NCSETUP. IFC Networking—Metasys Intelligent Fire Network...
  • Page 61 It is not necessary to use a UPS at the NCM or the special UL 864 Fire Recognized NCM hardware since the loss of the NCM will not affect communication between primary fire alarm panels or displays when connected this way. IFC Networking—Metasys Intelligent Fire Network...
  • Page 62 N E X T A U T O S T E P E N T E R L A M P T E S T MIFN Intelligent Network Annunciator Mifnsecondary Figure 28: Secondary Reporting Metasys Intelligent Fire Network IFC Networking—Metasys Intelligent Fire Network...
  • Page 63 IFC panels’ nodes can react to the alarm by receiving the broadcast alarm and activating one or more reverse zones. Once a reverse zone is activated in a receiving IFC panel, through standard CBE interlocking programmed actions in that IFC panel are accomplished. IFC Networking—Metasys Intelligent Fire Network...
  • Page 64 CCBE programming in the receiving IFC panel, or an enclosed (nested) equation with the format: Operator (----Operands----) CCBE programming can be accomplished by entering full point programming or partial point programming on the particular IFC-1010/02020 panel that the software zone is associated with. IFC Networking—Metasys Intelligent Fire Network...
  • Page 65 4=OPTNS Options - Selecting the optional features associated with any detector or module. 5=AMAP Annunciator Point Mapping - Selecting Annunciator Point Mapping for any detector, module, or zone. 6=CCBE Cooperative Control-By-Event - Edit the CCBE associated with reverse activated zones. IFC Networking—Metasys Intelligent Fire Network...
  • Page 66 PRESS 1=TYPID, 2=CBE, 3=LBL, 4=OPTNS, 5=AMAP, 6=CCBE ENTER LXX (D/M) YY, ZXXX OR AXXPYY FOR PT. INSTALL (BCKSPC TO ABORT) :Z220 ENTER COOPERATIVE CONTROL-BY-EVENT OR (N8Z1 N8Z2 N8Z3 N8Z4 AND [N9Z1 N9Z2 N9Z3 N9Z4] AND [N10Z1 N10Z2 N10Z3 N10Z4]) IFC Networking—Metasys Intelligent Fire Network...
  • Page 67 Once Option 1 has been selected, Option 2 (POINT) must be selected. This option will print out status information of all installed points for the particular IFC-1010/2020 panel the report is requested from. IFC Networking—Metasys Intelligent Fire Network...
  • Page 68 (20 Characters Maximum) (AxxPyy) (Zxxx) CBE: CCBE: Alphanumeric Label Annunciator Mapping Address Type ID (20 Characters Maximum) (AxxPyy) (Zxxx) CBE: CCBE: Job Name: _________________________________ Job Takeoff Form: _______________________________ Sheet___of__ Completed by: ______________________________ ______________________________ Date:________ Engineer: __________________________________ IFC Networking—Metasys Intelligent Fire Network...
  • Page 69 Notes IFC Networking—Metasys Intelligent Fire Network...
  • Page 70 Note IFC Networking—Metasys Intelligent Fire Network...
  • Page 71 Notes IFC Networking—Metasys Intelligent Fire Network...
  • Page 72 Notes Controls Group www.johnsoncontrols.com 507 E. Michigan Street FAN 448 P.O. Box 423 IFC-1010/2020 Technical Manual Milwaukee, WI 53201 Printed in U.S.A. IFC Networking—Metasys Intelligent Fire Network...

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