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Trane Engineered Smoke Control System for Tracer Summit manual Setting the I/O bus addresses

Models: BAS-APG001-EN Engineered Smoke Control System for Tracer Summit

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Setting the I/O bus addresses

Setting the I/O bus addresses

Setting the I/O bus addresses

Each EX2 on the link with the Tracer MP581 must have a unique address. Configure the address using the DIP switches on the EX2 circuit board (Figure 50). Table 23 shows the DIP switch settings for expansion modules 1 through 4.

Figure 50. DIP switch on board

Table 23. EX2 DIP switch settings

EX2 module	D1	D2

1	Off	Off

2	Off	On

3	On	Off

4	On	On

Input/output terminal wiring

All input/output terminal wiring for the EX2 module must meet the fol- lowing requirements:

•All wiring must be in accordance with the National Electrical Code and local codes.

•Use only 18 AWG twisted-pair wire with stranded, tinned-copper conductors.

•Binary output wiring must not exceed 20 ft (6.1 m) and must be in conduit.

•Binary input wiring must not exceed 20 ft (6.1 m) and must be in conduit.

•Analog and 24 Vdc output wiring distances depend on the specifica- tions of the receiving unit. Use shielding for analog and 24 Vdc outputs.

•Do not run input/output wires in the same wire bundle with ac-power wires.

BAS-APG001-EN

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Trane Engineered Smoke Control System for Tracer Summit manual Setting the I/O bus addresses, Input/output terminal wiring

Contents

Engineered Smoke Control System Applications Guidefor TRACER SUMMIT BAS-APG001-ENPage Engineered Smoke Control System Applications Guidefor TRACER SUMMIT BAS-APG001-ENSeptemberBAS-APG001-EN NOTICE Page Contents ContentsBAS-APG001-EN BAS-APG001-EN ContentsContents BAS-APG001-EN ContentsBAS-APG001-EN ContentsChapter Smoke control overviewCompartmentation method Methods of smoke controlDilution method Pressurization methodTable 1: Recommended minimum pressure difference Methods of smoke controlAirflow method Chapter 1 Smoke control overviewFigure 2: Sample airflow method Buoyancy method Applications of smoke control methodsZoned smoke control Applications of smoke control methods3.If the system has a return air damper, it closes Chapter 1 Smoke control overviewStairwell smoke control Compensated pressurization techniqueApplications of smoke control methods Non-compensatedpressurization technique Chapter 1 Smoke control overviewFigure 5: Sample non-compensatedsystem Elevator shaft smoke control Applications of smoke control methodsBAS-APG001-EN Atrium smoke control Smoke exhausting techniqueChapter 1 Smoke control overview Smoke filling technique Natural smoke venting techniqueApplications of smoke control methods Figure 8: Sample natural smoke venting techniqueSmoke detection and system activation Underground building smoke controlChapter 1 Smoke control overview Stairwell smoke control detection and activation Zoned smoke control detection and activationElevator smoke control detection and activation Atrium smoke exhausting detection and activationHorizontal grid Vertical gridChapter 1 Smoke control overview Figure 9 Sample stratificationNo-smokeapproach Design approaches to smoke controlTenability approach Dedicated system approachDesign considerations for smoke control PlugholingChapter 1 Smoke control overview Design considerations for smoke control Smoke feedbackBAS-APG001-EN Chapter 1 Smoke control overviewZone operating modes Pre-installationconsiderationsAlarm mode Associated equipmentFire alarm system equipment Chapter 2 Pre-installationconsiderationsBeam smoke detectors Area smoke detectorsDuct smoke detectors Manual pull stationsFire alarm control panel Chapter 2 Pre-installationconsiderationsSprinkler flow devices Manual switches Audible trouble indicatorSmoke control system equipment LightsSmoke dampers Chapter 2 Pre-installationconsiderationsVerification of operation equipment FansAssociated equipment BAS-APG001-ENEquipment supervision Chapter 2 Pre-installationconsiderationsTracer MP581 programmable controller Alarm response System testingAutomatic smoke control matrix Automatic weekly self-testingFirst smoke zone in alarm Chapter 2 Pre-installationconsiderationsFirst smoke zone in alarm EquipmentCable distance considerations Response timesResponse times Table 7. NFPA response time requirementsTable 8. Cabling practices and restraints Chapter 2 Pre-installationconsiderationsMaximum distance TypeSmoke control system overview Installation diagramsChapter 3 Installation diagrams System riser diagramsSystem termination diagrams System termination diagramsFigure 12. Sample fan starter wiring diagram Tracer MP581 to FSCS wiring Chapter 3 Installation diagramsFigure 13. Sample FSCS panel •Tracer MP581 and FSCS must be in the same room System termination diagramsFigure 14. Tracer MP581 to FSCS wiring Chapter 3 Installation diagramsTracer MP581 to FACP wiring System termination diagramsFACP Figure 15. Tracer MP581 to FACP wiring Chapter 3 Installation diagramsMounting the hardware Installing the Tracer Summit BMTX BCUAvoid equipment damage Operating environment requirementsChapter 4 Installing the Tracer Summit BMTX BCU Clearances12 in. 30 cm Mounting the hardware Figure 17. BMTX BCU enclosure dimensionsMounting the back of the enclosure Chapter 4 Installing the Tracer Summit BMTX BCUFigure 18. Enclosure mounting holes Wiring high-voltageac power Wiring high-voltageac powerHazardous voltage Chapter 4 Installing the Tracer Summit BMTX BCU Use copper conductors onlyHazardous voltage Wiring high-voltageac power Figure 19. AC wiringBAS-APG001-EN Chapter 4 Installing the Tracer Summit BMTX BCU EMI/RFI considerationsChecking the earth ground Hazardous voltageFigure 20. Checking the earth ground EMI/RFI considerationsChapter 4 Installing the Tracer Summit BMTX BCU Connecting the main circuit boardFigure 22. Connecting the frames Connecting the main circuit boardInstalling the door Chapter 4 Installing the Tracer Summit BMTX BCUFigure 23. Installing the door BAS-APG001-EN LonTalk connections Ethernet connection Chapter 4 Installing the Tracer Summit BMTX BCUInstallation guidelines Table 13. Tracer MP581 specifications SpecificationsEquipment damage Selecting a mounting locationOperating environment requirements Selecting a mounting locationClearances and dimensions Figure 26. Minimum clearances for enclosure12 in. 30 cm Selecting a mounting location Figure 27. Tracer MP581 enclosure dimensionsTop view Left viewFigure 28. Enclosure mounting holes Mounting the back of the enclosureWiring high-voltageac power Wiring high-voltageac powerCircuit requirements Table 15. Tracer MP581 modelsWiring high-voltagepower Hazardous voltageUse copper conductors only Wiring high-voltageac power Hazardous voltageBAS-APG001-EN Checking the earth ground EMI/RFI considerationsHazardous voltage To check the quality of the earth groundEMI/RFI considerations Figure 31. Checking the earth groundBAS-APG001-EN Input/output wiring guidelines Wiring inputs and outputsProviding low-voltagepower for inputs and outputs Wire routingWiring inputs and outputs Figure 32. Wire routingFigure 33. Screw-terminallocations Screw terminal locationsWiring universal inputs Wiring binary inputsWiring inputs and outputs Figure 35. Wiring analog outputs Wiring analog outputsWiring inputs and outputs Wiring binary outputsEquipment damage Checking binary inputsChecking binary outputs Checking outputsEquipment damage Checking 0–10Vdc analog outputsChecking 0-20mA analog outputs Equipment damageBAS-APG001-EN Checking outputsWiring LonTalk to the Tracer MP581 3.At the last controller on the LonTalk link Wiring LonTalk to the Tracer MP581Figure 39. Connecting the cables Installing the circuit boardFigure 40. Connecting the frames Installing the circuit board24 Vac power connector Figure 41. 24 Vac power-supplycable connectionService Pin button Figure 42. Service Pin button and LED locationsInterpreting LEDs Table 19. Red Service LED Service LEDBinary output LEDs Table 18. Binary output LEDsComm LED Status LEDTable 20. Green Status LED Table 21. Yellow Comm LEDInstalling the door Removing the doorFigure 43. Aligning the enclosure door BAS-APG001-EN Installing the doorBAS-APG001-EN Table 22. Operating environment specifications Installing the EX2 expansion moduleStorage environment Mounting locationChapter 6 Installing the EX2 expansion module Mounting the metal-enclosuremodule Terminal stripsTerminal strips Figure 45. Terminal strip locationsChapter 6 Installing the EX2 expansion module AC-powerwiringHazardous voltage Hazardous voltageAC-powerwiring Wiring AC-powerto the metal-enclosuremoduleEquipment damage Equipment damageFigure 47. Power and ground terminals Chapter 6 Installing the EX2 expansion moduleI/O bus wiring I/O bus wiringFigure 48. I/O bus wiring example Figure 49. I/O bus wiring example Chapter 6 Installing the EX2 expansion moduleInput/output terminal wiring Setting the I/O bus addressesSetting the I/O bus addresses Figure 50. DIP switch on boardChapter 6 Installing the EX2 expansion module Analog output and universal input setupUniversal inputs Binary outputsBAS-APG001-EN Analog output and universal input setupChapter 6 Installing the EX2 expansion module Interpreting EX2 LEDsBinary output LEDs Figure 52. LED locations on the EX2Communications LEDs Status LEDInterpreting EX2 LEDs Table 25. Status LEDBAS-APG001-EN Chapter 6 Installing the EX2 expansion moduleProgramming Response timesTable 27. Time response requirements Chapter 7 Programming Operational prioritySubsequent alarms Subsequent alarmsTable 28. Operational priority Chapter 7 Programming Figure 53. Subsequent alarms—FirstreactionSmoke alarm annunciation Smoke alarm annunciationFigure 54. Smoke alarm annunciation Chapter 7 Programming From requirements 33.2.1 and 33.2.2, we can see that there is a decoupling between annunciation and reaction. The series of network variables shown in Figure 54, nvoSwitch05 through nvoSwitch12, are used to directly control the smoke alarm LEDs on the FSCP. For example, a smoke alarm for floor 1 is received. The mechanical system reacts by pressurizing floor 2 and exhausting floor 1. Following that, floor 2 goes into smoke alarm. The alarm needs to be annunciated even though the mechanical system does not react. In this case, nvoSwitch06 passes the smoke alarm state to MP580-3by using a custom binding. At MP580-3,the binary output that controls the floor 2 smoke alarm LED is turned onWeekly self-testof dedicated systems Weekly self-testof dedicated systemsFigure 55. Triggering the automatic self-testAST Figure 56. Mechanical reactions during AST Chapter 7 ProgrammingWeekly self-testof dedicated systems Figure 57 needs to be introducedFigure 57. ast overridesense Figure 58. Effect of AST on damper control Chapter 7 ProgrammingEnd process verification End process verificationFigure 59. Sample TGP showing fail test technique Figure 60. ast actuator fail checka End process verification Figure 61. ast actuator fail checkbBAS-APG001-EN Chapter 7 Programming Communication watchdogBAS-APG001-EN Communication watchdogChapter 7 Programming Figure 67. Control of the FSCP Comm Fault LED Communication watchdogBAS-APG001-EN Chapter 7 Programming Lamp test and audio alarm silenceBAS-APG001-EN Lamp test and audio alarm silenceNondedicated smoke purge Chapter 7 ProgrammingControlling damper actuators Constant-volumesystem Variable-air-volumesystemUL-testedprograms Variable-air-volumesystemBAS-APG001-EN Chapter 7 ProgrammingNetwork variable bindings OverviewBinding network variables Receiving data Tracer MP580/581 bindingsSending data Heartbeated network variablesCustom bindings UUKL binding list watchdog communicationCustom bindings Function Chapter 8 Network variable bindingsOriginator NetworkMP580-A Custom bindingsMP580-B Mechanical systemUUKL binding list smoke alarm status Table 32. Smoke alarm custom bindingsChapter 8 Network variable bindings UUKL binding list FCSP override control Custom bindingsTable 33. FSCP override custom bindings On/Off status UUKL binding list actuator Open/Close orChapter 8 Network variable bindings Table 34. Actuator status custom bindingsUUKL binding list FSCP control UUKL binding list actuator failure statusCustom bindings Table 35. Actuator failure status bindingsUnderstanding bindings Custom binding reportChapter 8 Network variable bindings Binding types NodeBasic binding shapes and the hub/target system Network AddressChapter 8 Network variable bindings Address tableFigure 72. Rovers view of a fan-outbinding Figure 73. Rovers view of a fan-inbindingDesigning bindings Binding rules and limitsUnderstanding bindings Chapter 8 Network variable bindings Stacking bindings on unique binding pathsFigure 74. One-waysubnet/node binding Understanding bindingsFigure 75. Two-waysubnet/node bindings BAS-APG001-ENFigure 76. Group binding Chapter 8 Network variable bindingsUnderstanding bindings Figure 77. Group binding uniquenessBAS-APG001-EN Chapter 8 Network variable bindings Understanding bindings Figure 79. Mixed subnet/node and group bindingsBAS-APG001-EN BAS-APG001-EN Chapter 8 Network variable bindingsAppendix A ReferencesBAS-APG001-EN Appendix A ReferencesPage Trane