Triconex Trident Planning And Installation Manual

Version 1.2
Table of Contents

Advertisement

Quick Links

Trident
Version 1.2
Planning and Installation
Guide
Triconex
An Invensys Company

Advertisement

Table of Contents
loading
Need help?

Need help?

Do you have a question about the Trident and is the answer not in the manual?

Questions and answers

Ильдар
June 11, 2025

Чем отличаются версии базовых плат 7400208C-020 и 7400208B-020?

Subscribe to Our Youtube Channel

Summary of Contents for Triconex Trident

  • Page 1 Trident Version 1.2 Planning and Installation Guide Triconex An Invensys Company...
  • Page 2 Triconex is a registered trademark of Invensys Systems, Inc. in the USA and other countries. Cause & Effect Matrix Programming Language Editor (CEMPLE), TriStation 1131, and Trident are trademarks of Invensys Systems, Inc. in the USA and other countries. All other brands or product names may be trademarks or registered trademarks of their respective owners.
  • Page 3: Table Of Contents

    Analog Output Modules ..............12 Digital Input Module ................13 Digital Output Module ................ 13 Pulse Input Module ................14 Solid-State Relay Output Module ............14 Logic Power ..................... 15 System Diagnostics and Status Indicators ..........16 Trident Planning and Installation Guide...
  • Page 4 ............... 33 Input/Output Processor ..............34 Logic Power ..................35 Communication Ports ................ 36 Model 2101 Main Processor Baseplate ........... 37 Logic Power Connections ..............39 Main Processor Alarm Connections ..........39 Alarm Contacts ................. 40 Trident Planning and Installation Guide...
  • Page 5 Model 2451 Solid-State Relay Output Baseplate ......112 I⁄O Extender Modules ................. 115 Model 2281 I⁄O Extender Module Kit ............. 116 Model 2291 I⁄O Extender Module Kit ............. 116 Model 2292 I⁄O Extender Module Kit ............. 116 Trident Planning and Installation Guide...
  • Page 6 Installing Additional I⁄O Columns ............146 Installing an I⁄O Extender Module ........... 146 Installing Other Components ..............148 Interconnect Assemblies ..............148 End Caps ..................148 Slot Covers ..................148 Terminal Covers ................148 Installing Modules .................. 148 Trident Planning and Installation Guide...
  • Page 7 ............. 180 AO Status Indicators ................181 AO Field Alarm Indicator ................ 182 Digital Input Module Indicators ..............183 DI Status Indicators ................184 DI Field Power Indicator ................. 185 DI Point Indicators .................. 185 Trident Planning and Installation Guide...
  • Page 8 10BaseT Network Cables for TriStation ........... 212 10BaseT Cross-Over Cable ..............212 10BaseT Straight-Through Cable ............213 RS-232 Modbus Serial Cable ..............214 RS-485 Modbus Serial Cables ..............215 Cable Selection ..................217 Cable Termination ................. 217 Trident Planning and Installation Guide...
  • Page 9 Mounting Panel Drill Template ..........233 Appendix G EU Declaration of Conformity ..........235 Appendix H Warning Labels ................. 237 General Hazard ................... 238 Hazardous Voltage ..................239 Hot Surface ....................240 Glossary ....................... 241 Index ........................249 Trident Planning and Installation Guide...
  • Page 10 Contents Trident Planning and Installation Guide...
  • Page 11: Preface

    Preface This guide provides information for the planning and installation of a Trident system. Topics include: • System description • Theory of operation • Configuration • Installation and maintenance • Responding to alarm conditions Trident Planning and Installation Guide...
  • Page 12: How This Guide Is Organized

    • Appendix B, “Recommended Parts for Replacement”— Lists the parts recommended by Triconex to replace existing parts and to customize your system. • Appendix C, “Recommended Wiring Methods”— Provides information for proper wiring.
  • Page 13: Related Documents

    Related Documents xiii Related Documents The following Triconex manuals contain information that is relevant to the use of a Trident controller: • TriStation 1131 Developer's Guide for Trident Systems • TriStation 1131 Getting Started for Trident Users • TriStation 1131 Triconex Libraries Reference...
  • Page 14: Gathering Supporting Documentation

    Gathering Supporting Documentation Before contacting corporate technical support, please try to solve the problem by referring to the Triconex documentation. If you are unable to solve the problem, obtain the following information: • Error messages and other indications of the problem •...
  • Page 15: Fax

    Send your request to the Technical Support Manager. Toll-free number 800-325-2134, or Toll number 949-885-3375 E-mail ips.csc@invensys.com Training In addition to this documentation, Triconex offers in-house and on-site training. For information on available courses, please contact your regional customer center. Preface...
  • Page 16 Training Trident Planning and Installation Guide...
  • Page 17: Chapter 1 Theory Of Operation

    C H A P T E R 1 Theory of Operation This chapter provides an overview of the Trident controller. Topics include: “Controller Features” ........2 “Fault Tolerance”...
  • Page 18: Controller Features

    2 Controller Features Controller Features To ensure the highest possible system integrity at all times, the Trident controller includes the following features: • Provides Triple Modular Redundant (TMR) architecture, whereby each of three identical channels independently executes the application, and specialized hardware and software mechanisms vote all inputs and outputs.
  • Page 19: Fault Tolerance

    Fault tolerance provides an increase in safety and the availability of the controller and the process being controlled. The Trident controller provides fault tolerance through TMR architecture. The controller consists of three identical channels (except for the power modules which are dual-redundant).
  • Page 20: Controller Architecture

    For each I⁄O module, the controller can support an optional hot-spare module. If present, the hot-spare takes control if a fault is detected on the primary module during operation. The hot-spare position is also used for the online hot repair of a faulty I⁄O module. Trident Planning and Installation Guide...
  • Page 21: Main Processor Architecture

    Controller Architecture 5 Main Processor Architecture A controller contains three MPs. Each MP controls a separate channel and operates in parallel with the other two MPs. A dedicated I⁄O control processor on each MP manages the data exchanged between the MP and the I⁄O modules. A triplicated I⁄O bus, located on the baseplates, extends from one column of I⁄O modules to another column of I⁄O modules using I⁄O bus cables.
  • Page 22 NVRAM. A failure of one power source does not affect controller performance. If the controller loses power, the application and all critical data are retained indefinitely. Trident Planning and Installation Guide...
  • Page 23: Bus And Power Distribution

    • Compares data and flags disagreements with the output of the previous scan and program memory An important feature of the Trident controller architecture is the use of a single transmitter to send data to both the upstream and downstream MPs. This ensures that the same data is received by the upstream processor and the downstream processor.
  • Page 24 The right or left position holds the active I⁄O module and the other position holds the hot-spare I⁄O module. Each field connection on the baseplate extends to both active and hot- Trident Planning and Installation Guide...
  • Page 25: Controller Communications

    Controller Architecture 9 spare I⁄O modules. Consequently, both the active module and the hot-spare module receive the same information from the field termination wiring. A triplicated I⁄O bus transfers data at 2 megabits per second between the I⁄O modules and the MP. The I⁄O bus is carried baseplate-to-baseplate and can be extended to multiple columns of I⁄O modules.
  • Page 26: Physical Communication Interfaces

    • External host computers • Distributed control systems (DCS) • Open networks • Network printers • Other Trident or Tricon V9 controllers For CM specifications, see Chapter 3, “System Description.” For details about protocols, applications, and other topics concerning Ethernet networks, see the Trident Communication Guide.
  • Page 27: Communication Protocols

    Protocol for Serial Ports Modbus Slave Modbus Master Protocol for Net1 & Net2 Ports TriStation TCP/IP Triconex System Access Application (TSAA) Time Synchronization (Time Sync) Triconex Peer-to-Peer ® Hewlett-Packard JetDirect Network Printer Server Data Link Control (DLC)/Logical Link Control (LLC)
  • Page 28: Input/Output Modules

    The selection of the driving channel alternates among the channels so that all three channels are periodically tested. Each AO Module is guaranteed to remain in calibration for the life of the controller; periodic manual calibration is not required. Trident Planning and Installation Guide...
  • Page 29: Digital Input Module

    Controller Architecture 13 Digital Input Module A Digital Input Module contains the circuitry for three identical channels (A, B, and C). Although the channels reside on the same module, they are completely isolated from each other and operate independently. Each channel conditions signals independently and provides optical isolation between the field and the controller.
  • Page 30: Pulse Input Module

    32 individual relays. Each output has a loop-back circuit which verifies the operation of each relay switch independently of the presence of a load. Ongoing diagnostics test the operational status of the SRO Module. Trident Planning and Installation Guide...
  • Page 31: Logic Power

    Controller Architecture 15 The SRO Module is a non-triplicated module for use on non-critical points which are not compatible with high-side, solid-state output switches; for example, interfacing with annunciator panels. Logic Power Each module is designed to operate directly from redundant 24 volts DC power sources as shown on page 15.
  • Page 32: System Diagnostics And Status Indicators

    All internal diagnostic and alarm status data is available for remote logging and report generation. Reporting is done through a local or remote TriStation or host computer. For more information on reporting, see the TriStation 1131 Developer’s Guide. Trident Planning and Installation Guide...
  • Page 33: International Approvals

    C H A P T E R 2 International Approvals The Trident controller is evaluated at regular intervals to meet the standards specified by the following agencies: “Canadian Standards Association” ......18 “Factory Mutual”...
  • Page 34: Canadian Standards Association

    CAN/CSA C22.2 Safety Requirements for Electrical Equipment for No 1010.1-92 Measurement, Control, and Laboratory Use, Part 1: General Requirements Test Report A copy of the test report (1200275, dated May 2, 2001) is available upon request. Trident Planning and Installation Guide...
  • Page 35: Factory Mutual

    Factory Mutual 19 Factory Mutual Factory Mutual verifies the controller for use in Class I, Division 2 Temperature T4, Groups A, B, C, and D hazardous indoor locations in compliance with the following standards. Standard Title Number — — 3611 Electrical Equipment for use in Class I Division 2;...
  • Page 36: European Union Ce Mark

    Processor Modules and the Communication Modules must be mounted in a metal enclosure. Field and logic power supplies must be approved for use in safety extra-low- voltage (SELV) circuits according to the requirements of IEC 61010-1. Trident Planning and Installation Guide...
  • Page 37: Tüv Rheinland

    TÜV Rheinland 21 TÜV Rheinland TÜV Rheinland certifies controllers for use in safety-critical applications requiring maximum safety and uninterrupted operation, according to applicable DIN and IEC standards. The controller is certified to fulfill the requirements for SIL 3 and AK Classes 5 and 6 applications as defined in the following international standards.
  • Page 38: Semiconductor Equipment And Materials International (Semi)

    – For applications in which continuous, correct system operation must be assured, the controller and associated equipment should be installed in a locked cabinet with a general-hazard warning label attached prominently For a physical description of labels, see Appendix H, “Warning Labels.” Trident Planning and Installation Guide...
  • Page 39: System Description

    “Covers” ..........123 Trident Planning and Installation Guide...
  • Page 40: System Overview

    24 System Overview System Overview Physically, a Trident system consists of field-replaceable modules, the baseplates upon which modules are mounted, field wiring connections, and a TriStation 1131 programmer’s workstation. This section briefly describes these major elements and provides general specifications.
  • Page 41: Main Processor Module

    Communication Module Model Description Points 3201 Interfaces, Modbus master or slave, selectable RS-232/ Not applicable 485 serial ports, TriStation, Triconex Peer-to-Peer, TSAA, and TCP-IP/UDP-IP Analog Input Module Model Description Points 3351 4–20 mA, commoned, 6% over-range...
  • Page 42: Digital Output Module

    Non-triplicated, commoned in groups of 2 I⁄O Extender Modules Model Description 2281 I⁄O Extender Module Kit (without termination) 2291 I⁄O Extender Module Kit for I⁄O Baseplate (with termination) 2292 I⁄O Extender Module Kit for MP Baseplate (with termination) Trident Planning and Installation Guide...
  • Page 43: Configuration

    • Main Processor • Communication • I⁄O A basic Trident system consists of one MP assembly, an optional CM assembly, and up to 14 I⁄O assemblies. If AO or PI Modules are included, up to 10 I⁄O assemblies are allowed.
  • Page 44: Field Wiring

    Programmable Controllers and reflect the guidelines documented in the IEC 65A Type 3 Report: • Function Block Diagram (FBD) • Ladder Diagram (LD) • Structured Text (ST) A fourth language, Cause and Effect Matrix Programming Language Editor (CEMPLE), automates the implementation of CEM methodology. Trident Planning and Installation Guide...
  • Page 45: Environmental Specifications

    System Overview 29 Environmental Specifications General environmental specifications are listed in the table below. Feature Specification Operating temperature 0° C to 60° C (40° F to 120° F), ambient per IEC 60068-2-14, tests Na and Nb Extended operating –20° C to +70° C (–4° F to +158° F) temperature per IEC 60068-2-14, tests Na and Nb Storage temperature...
  • Page 46: Main Processor Module

    MP Baseplate A minimum Trident system has one MP Baseplate housing three MPs. Each MP Module serves as one channel of a Trident system. An MP Module consists of processors that execute the following firmware: • Application processor and system executive (SX) •...
  • Page 47: Operation

    Main Processor Module 31 Operation The three MPs communicate with each other using an inter-processor bus called TriBus. TriBus is a high-speed, fault-tolerant communication path between the MPs that is used primarily for voting and diagnostics. The three MPs communicate with I⁄O modules over a TMR HDLC I⁄O bus that operates at 2 megabits per second.
  • Page 48: Models 3101 Main Processor Module

    Models 3101 Main Processor Module PASS FAULT ACTIVE MODE REMOTE PROGRAM HALT ALARMS FIELD POWER LOGIC POWER SYSTEM ALARM PROGRAM ALARM OVER TEMPERATURE MP Module Front Panel LOCK COMMUNICATIONS IO BUS COMM BUS SERIAL LINK TRISTATION 3101 Trident Planning and Installation Guide...
  • Page 49: Main Processor Module Specifications

    Main Processor Module 33 Main Processor Module Specifications Application Processor Feature Specification SX Processor Motorola MPC860, 32-bit, 50 MHz Flash PROM 6 MB used for SX, IOX, and control application storage CRC-protected DRAM 16 MB used for SX control application execution and program and SOE data Byte parity NVRAM...
  • Page 50: Input/Output Processor

    2 Mbps HDLC, used to communicate I⁄O module diagnostic information between MP channels Debug port Used to access diagnostic information RJ-12 connector located on baseplate, shared with SX debug port I⁄O bus RS-485 2 Mbps HDLC Trident Planning and Installation Guide...
  • Page 51: Logic Power

    Main Processor Module 35 Logic Power Feature Specification Nominal input voltage 24 V DC Operational voltage range 24 V DC –15%/+20% + 5% AC ripple (+19.2 / +30 V DC) Logic power 8 W maximum Absolute maximum input voltage 33 V DC Absolute maximum reverse input voltage –0.6 V DC Input power interruption time from...
  • Page 52: Communication Ports

    Galvanic isolation 500 V DC System and IO Executive Debug Ports Feature Specification Connector RJ-12, Triconex proprietary pin-out Maximum cable length 8 m (25 ft) Protocol RS-232, 9600 bps, ASCII, asynchronous Galvanic isolation 500 V DC Trident Planning and Installation Guide...
  • Page 53: Model 2101 Main Processor Baseplate

    Main Processor Module 37 Model 2101 Main Processor Baseplate Chapter 3 System Description...
  • Page 54 Alarm 2 Left Serial Port Middle Serial Port MP Port Connectors Right Serial Port Left TriStation Port Left Debug Port Middle TriStation Port Middle Debug Port Right Debug Port Right TriStation Port Trident Node Address Trident Planning and Installation Guide...
  • Page 55: Logic Power Connections

    Main Processor Module 39 Logic Power Connections The MP Baseplate provides redundant, fused logic power connectors for the MP and I⁄O modules, which are directly connected to the MP Baseplate. Feature Specification Logic power 125 W, maximum Fuse 8 A, slow-acting Blown fuse indicator 20 mA Main Processor Alarm Connections...
  • Page 56: Alarm Contacts

    On baseplate Contact-to-protective-earth isolation 500 V DC, minimum Contact-to-functional-earth (logic) 800 V DC, minimum isolation MP Baseplate MP C MP A MP B Alarm 1/NC larm Simplified Schematic of MP Redundant Alarm Circuit larm 2/NC larm Trident Planning and Installation Guide...
  • Page 57: Communication Module 41

    • Other Trident systems • Tricon V9 systems A single Trident controller supports up to two CMs on one CM Baseplate. Each CM operates independently and supports three RS-232/485 serial ports and two Ethernet ports. Two CMs can provide redundant communication connections or additional independent communication ports.
  • Page 58: Serial Ports

    • JetDirect Network Printer Server DLC/LLC on both network ports • Triconex Peer-to-Peer communication among multiple Trident systems or a combination of Trident and Tricon systems • Time synchronization over network ports for multiple Trident systems or a combination of Trident and Tricon systems Trident Planning and Installation Guide...
  • Page 59: Model 3201 Communication Module

    Communication Module 43 Model 3201 Communication Module PASS FAULT ACTIVE CM Front Panel LOCK COMMUNICATIONS SERIAL SERIAL SERIAL LINK NET 1 LINK NET 2 3201 Chapter 3 System Description...
  • Page 60: Specifications

    0 V, no isolation isolation Protective-to-functional-earth 500 V DC isolation 12 V ±10%, 6 W maximum, current limited +12 V AUI output power 5 V ±5%, 3.75 W maximum, current limited +5 V MII output power Trident Planning and Installation Guide...
  • Page 61: Communication Ports

    Communication Module 45 Communication Ports Feature Specification Modbus ports 3 optically isolated RS-232/485 ports, configurable from TriStation Connector DB-9-pin DTE standard, shielded, located on baseplate RS-232 maximum cable length 15 m (50 ft) RS-485 maximum cable length 1.2 km (4,000 ft) Supported transmission rates 1200, 2400, 4800, 9600, 19.2 K, 38.4 K, 57.6 K, (bps)
  • Page 62 46 Communication Module Feature Specification Protocols (both network ports) JetDirect Network Printer Server DLC/LLC TCP/IP Time synchronization Triconex Peer-to-Peer TriStation TSAA Network address Derived from MP Baseplate address plug Galvanic isolation 500 V DC Trident Planning and Installation Guide...
  • Page 63: Model 2201 Communication Module Baseplate

    Communication Module 47 Model 2201 Communication Module Baseplate Chapter 3 System Description...
  • Page 64 Net 1 Left Module 10BaseT CM Port Connectors Net 1 Right Module 10BaseT Net 2 Left Module 10BaseT/100BaseTX Net 2 Right Module 10BaseT/100BaseTX Net 2 Right Module MII MAU Net 2 Left Module MII MAU Debug Trident Planning and Installation Guide...
  • Page 65: Input/Output Modules

    Input/Output Modules 49 Input/Output Modules Each I⁄O module occupies one of two slots that constitute an I⁄O set. The left module occupies the slot below the “L” label and the right module occupies the slot below the “R” label. At any time, the status of either the left or right module can be active or hot spare (for online replacement or back-up).
  • Page 66: Common Specifications

    500 µA maximum Reverse current isolation input to input Inrush current per input 2.4 A maximum Short circuit current limit per input 2.4 A maximum Functional-earth-to-logic-ground 0 V, no isolation isolation Protective-to-functional-earth 500 V DC, minimum isolation Trident Planning and Installation Guide...
  • Page 67: Field Power

    Input/Output Modules 51 Field Power Feature Specification Nominal field voltage 24 V DC Operational voltage range 24 V DC –15% or +20% + 5% AC ripple (19.2 to 30 V DC) Power See module specifications Absolute maximum input voltage 33 V DC Absolute maximum reverse input –0.6 V DC voltage...
  • Page 68: Analog Input Module

    The AI Module supports hot sparing for online replacement of a faulty module or continuous back-up to an active module. The AI Module is mechanically keyed to prevent improper installation in a configured baseplate. Trident Planning and Installation Guide...
  • Page 69: Model 3351 Analog Input Module

    Input/Output Modules 53 Model 3351 Analog Input Module PASS FAULT ACTIVE FIELD PWR AI Module Front Panel LOCK 3351 Chapter 3 System Description...
  • Page 70 54 Input/Output Modules Model 3351 Analog Input Module Simplified Schematic Analog Input Module Typical Point (1 of 32) Triplicated I/O Bus Isolated ASIC Transceiver Isolation Filtering Isolated ASIC Transceiver Isolated ASIC Transceiver Trident Planning and Installation Guide...
  • Page 71 Input/Output Modules 55 Model 3351 Analog Input Module Specifications Feature Specification Points 32, commoned Nominal input current 4–20 mA DC Operational current range 2–22 mA DC Absolute maximum field voltage 33 V DC Absolute maximum reverse field voltage – 0.6 V DC Absolute maximum input current 50 mA DC Input bandwidth (3dB)
  • Page 72: Model 2351 Analog Input Baseplate

    56 Input/Output Modules Model 2351 Analog Input Baseplate The following table lists the short circuit current specifications for field short-to- ground faults. Feature Specification Fault current 130 mA, typical 200 mA, maximum Trident Planning and Installation Guide...
  • Page 73 Input/Output Modules 57 Model 2351 Analog Input Baseplate Simplified Schematic AI Baseplate 32-Point AI Module Field Power (PS1 + Field Power (PS2) + Ω Spare Ω – Ω .01% Field Power (PS1) – Field Power (PS2) – Other Points Chapter 3 System Description...
  • Page 74 58 Input/Output Modules Model 2351 Analog Input Baseplate Field Connections +24 V #1 +24 V #2 24 V Return Shield Safety – Typical Point (1 of 32 Points Shown) 4-20 mA Transmitter – Trident Planning and Installation Guide...
  • Page 75: Model 2352 Analog Input External Termination Panel Baseplate

    Input/Output Modules 59 Model 2352 Analog Input External Termination Panel Baseplate Chapter 3 System Description...
  • Page 76 Model 2352 Analog Input External Termination Panel Baseplate Simplified Schematic AI Baseplate 32-Point AI Module Field Power (PS1 + Field Power (PS2) + Spare From External Termination Panels Field Power (PS1) – V + To Field Power (PS2) – External Termination Panels Trident Planning and Installation Guide...
  • Page 77 Input/Output Modules 61 Model 2352 Analog Input External Termination Panel Baseplate Field Connections +24 V #1 +24 V #2 24 V Return Shield Safety – Chapter 3 System Description...
  • Page 78: Model 9764-310 Rtd/Tc/Ai Termination Panel

    (+24 volts DC) from the AI Baseplate or from direct connection to the panel. Note Each 24V power source must be able to provide 0.5 amps minimally. Note Because the Model 9764-310 RTD/TC/AI Termination Panel connects 16 of the available 32 points, you must use two panels. Trident Planning and Installation Guide...
  • Page 79 1. For detailed specifications, see the Analog Devices catalog, Signal Conditioning and Data Acquisition Solutions. Note Signal conditioners must be ordered separately and are available from Triconex or directly from Analog Devices. For availability of signal conditioning modules of other types or with different input ranges, contact your regional customer center.
  • Page 80 64 Input/Output Modules Model 9764-310 RTD/TC/AI Termination Panel Simplified Schematic RTD/TC/AI Panel Baseplate 32-Point AI Module V + A Spare V + B 7BXX – Typical Signal Conditioner Trident Planning and Installation Guide...
  • Page 81 Input/Output Modules 65 Model 9764-310 RTD/TC/AI Termination Panel Field Connections (4–20 mA) A signal conditioner must be installed on used and unused points. A shorting plug must be installed on unused points. A typical point is shown. Chapter 3 System Description...
  • Page 82 RTD/TC/AI Termination Panel Pin-Outs Terminal Terminal Point Point Point Point – – Terminal Terminal Point Point Point Point – – Terminal Terminal Point Point Point Point – – Terminal Terminal Point Point Point Point – – Trident Planning and Installation Guide...
  • Page 83 Input/Output Modules 67 Connecting an RTD to an RTD/TC/AI Termination Panel Connecting a TC to an RTD/TC/AI Termination Panel Chapter 3 System Description...
  • Page 84 68 Input/Output Modules Connecting a Field Device to an RTD/TC/AI Termination Panel Field Transmitter – Trident Planning and Installation Guide...
  • Page 85: Analog Output Modules

    Input/Output Modules 69 Analog Output Modules The following analog output components are available. Model Description Current Type 3481 Analog Output Module 4 @ 4–20 mA Commoned 3482 High-Current Analog Output Module 2 @ 4–20 mA, Commoned, 2 @ 4–40 mA High Current 2481 Analog Output Baseplate...
  • Page 86: Model 3481 Analog Output Module

    70 Input/Output Modules Model 3481 Analog Output Module PASS FAULT ACTIVE PWR/LOAD AO Module Front Panel LOCK 3481 Trident Planning and Installation Guide...
  • Page 87 Input/Output Modules 71 Model 3481 Analog Output Module Simplified Schematic Triplicated I/O Bus I/O Controller(s) Field Circuitry Typical Point (4) Isolated µProc Selector Logic Transceiver Voltage Loopback Current Loopback Isolated µProc Selector Logic Transceiver Voltage Loopback Output Current Loopback Termination Isolated µProc Selector...
  • Page 88 800 Ω @ >28 V DC (1 A minimum) Over-range protection 36 V DC, continuous 0 V DC, continuous Switch time on leg failure 1 ms, typical 3 ms, maximum Functional-to-protective-earth 500 V DC, minimum isolation Functional-to-functional-earth (logic) 800 V DC, minimum isolation Trident Planning and Installation Guide...
  • Page 89: Model 3482 High-Current Analog Output Module

    Input/Output Modules 73 Model 3482 High-Current Analog Output Module PASS FAULT ACTIVE PWR/LOAD AO Module Front Panel LOCK 3482 Chapter 3 System Description...
  • Page 90 I/O Controller(s) Field Circuitry Typical Point (4) Isolated µProc Selector Logic Transceiver Voltage Loopback Current Loopback Isolated µProc Selector Logic Transceiver Voltage Loopback Output Current Loopback Termination Isolated µProc Selector Logic Transceiver Voltage Loopback Current Loopback Trident Planning and Installation Guide...
  • Page 91 Input/Output Modules 75 Model 3482 High-Current Analog Output Module Specifications Feature Specification Points 4, commoned-return, DC-coupled Output current range, Points 1–2 4–20 mA output, controlled 0–22 mA over-range 0 mA output capability (step function <2 mA) Output accuracy, Points 1–2 <0.25% (in range of 4–20 mA) of FSR (0–22 mA), from 0°...
  • Page 92: Model 2481 Analog Output Baseplate

    76 Input/Output Modules Feature Specification Functional-to-protective-earth 500 V DC, minimum isolation Functional-to-functional-earth 800 V DC, minimum (logic) isolation Model 2481 Analog Output Baseplate Trident Planning and Installation Guide...
  • Page 93 Input/Output Modules 77 Model 2481 Analog Output Baseplate Simplified Schematic 4-Point AO Module AO Baseplate Loop Power Field Power (PS1 ) – Field Power (PS2 ) – Selector Current Logic Loopback Other Points Load + Selector Current Logic Loopback Load – Selector Logic Current...
  • Page 94 78 Input/Output Modules Model 2481 Analog Output Baseplate Field Connections +24 V #1 +24 V #2 Safety – Unused Output Jumper * Typical Point (1 of 4 Points Shown) Field Load – * Short unused outputs Trident Planning and Installation Guide...
  • Page 95: Digital Input Module

    Input/Output Modules 79 Digital Input Module The following digital input components are available. Model Description Voltage Type 3301 Digital Input Module 24 V DC Commoned 2301 Digital Input Baseplate Direct Termination The Digital Input (DI) Module has three independent channels which process all data sent to the module.
  • Page 96: Model 3301 Digital Input Module

    80 Input/Output Modules Model 3301 Digital Input Module PASS FAULT ACTIVE FIELD PWR DI Module Front Panel LOCK 3301 Trident Planning and Installation Guide...
  • Page 97 Input/Output Modules 81 Model 3301 Digital Input Module Simplified Schematic Triplicated Digital Input Module Typical Point (1 of 32) I/O Bus Isolated ASIC Transceiver Isolation Filtering Isolated ASIC Transceiver Isolated ASIC Transceiver Chapter 3 System Description...
  • Page 98 <2 ms ≈36% test voltage Magnitude 0–5 V DC, ≈100 kΩ Output Impedance ADC scan time <1 ms for all 32 points Functional-to-protective-earth isolation 500 V DC, minimum Functional-to-functional-earth (logic) 800 V DC, minimum isolation Trident Planning and Installation Guide...
  • Page 99: Model 2301 Digital Input Baseplate

    Input/Output Modules 83 Model 2301 Digital Input Baseplate The following table lists the short circuit current specifications for field short-to- ground faults. Feature Specification Fault current 130 mA, typical 200 mA, maximum Chapter 3 System Description...
  • Page 100 84 Input/Output Modules Model 2301 Digital Input Baseplate Simplified Schematic DI Baseplate 32-Point DI Module Field Power (PS1 + Field Power (PS2) + Ω Spare – Field Power (PS1) – Field Power (PS2) – Other Points Trident Planning and Installation Guide...
  • Page 101 Input/Output Modules 85 Model 2301 Digital Input Baseplate Field Connections +24 V #1 +24 V #2 Safety – Field Contact – Typical Point (1 of 32 Points Shown) – Chapter 3 System Description...
  • Page 102: Digital Output Module

    The DO Module supports hot sparing for online replacement of a faulty module or continuous back-up to an active module. The DO Module is mechanically keyed to prevent improper installation in a configured baseplate. Trident Planning and Installation Guide...
  • Page 103: Model 3401 Digital Output Module

    Input/Output Modules 87 Model 3401 Digital Output Module PASS FAULT ACTIVE PWR/LOAD DO Module Front Panel LOCK 3401 Chapter 3 System Description...
  • Page 104 Switch Drive Isolated Circuitry ASIC Transceiver A or C Output Switch Drive Circuitry Isolated ASIC Transceiver Output Switch Drive Circuitry Isolated ASIC Output Transceiver Switch Load Drive Circuitry Voltage Loopback Return Detector To Other Points Trident Planning and Installation Guide...
  • Page 105 Input/Output Modules 89 Model 3401 Digital Output Module Specifications Feature Specification Points 16, commoned Nominal output voltage 24 V DC Operational voltage range 15–30 V DC Absolute maximum output voltage 33 V DC Absolute maximum reverse input voltage –0.6 V DC Output current Switching <4.8 A, self-limiting...
  • Page 106: Model 2401 Digital Output Baseplate

    90 Input/Output Modules Model 2401 Digital Output Baseplate Trident Planning and Installation Guide...
  • Page 107 Input/Output Modules 91 Model 2401 Digital Output Baseplate Simplified Schematic DO Baseplate 16-Point DO Module Field Power (PS1) Field Power (PS2) Other Points Ω Load + Load – Field Power (PS1) Voltage Loopback Field Power (PS2) Detector Chapter 3 System Description...
  • Page 108 92 Input/Output Modules Model 2401 Digital Output Baseplate Field Connections +24 V #1 +24 V #2 Safety – Typical Point (1 of 16 Points Shown) Field Load – Trident Planning and Installation Guide...
  • Page 109: Model 2402 Digital Output Baseplate

    Input/Output Modules 93 Model 2402 Digital Output Baseplate The Model 2402 Digital Output Baseplate is recommended for use with low-power loads only. Chapter 3 System Description...
  • Page 110 94 Input/Output Modules Model 2402 Digital Output Baseplate Simplified Schematic DO Baseplate 16-Point DO Module Field Power (PS1) Field Power (PS2) Other Points Ω Load + Load – Field Power (PS1) Voltage Loopback Field Power (PS2) Detector Trident Planning and Installation Guide...
  • Page 111 Input/Output Modules 95 Model 2402 Digital Output Baseplate Field Connections +24V #1 +24V #2 Safety Typical Point (1 of 16 Points Shown) Power Field Load CURRENT LIMITED DO BASEPLATE 7400227-- Chapter 3 System Description...
  • Page 112: Pulse Input Module

    Therefore, ringing on the input signal can result in many additional transitions being counted. The module is capable of counting over 32,000 transitions per second. Trident Planning and Installation Guide...
  • Page 113 Input/Output Modules 97 The PI Module has three independent input channels. Each input channel: • Receives pulse input voltages from each point • Converts the values to frequency (RPM) data • Transmits the values to the MPs on demand To ensure correct data for each scan, one value is selected using a mid-value selection algorithm.
  • Page 114: Model 3381 Pulse Input Module

    98 Input/Output Modules Model 3381 Pulse Input Module PASS FAULT ACTIVE FIELD PWR PI Module Front Panel LOCK 3381 Trident Planning and Installation Guide...
  • Page 115 Input/Output Modules 99 Model 3381 Pulse Input Module Simplified Schematic Triplicated PI Module Typical Point (1 of 6) I/O Bus Isolation Filtering Isolated ASIC Transceiver – Isolation Filtering Isolation Filtering Isolated ASIC Transceiver Isolation Filtering Isolation Filtering Isolated ASIC Transceiver Isolation Filtering Chapter 3 System Description...
  • Page 116: Model 3381 Pulse Input Module Specifications

    ± 0.1%, 0.5 to 2,000 Hz Measurement algorithm Gear multiple tracking Diagnostic Precision reference test Minimum scan update rate 20 ms Functional-to-protective-earth 500 V DC, minimum isolation Functional-to -functional-earth 800 V DC, minimum (logic) isolation Trident Planning and Installation Guide...
  • Page 117: Model 2381 Pulse Input Baseplate

    Input/Output Modules 101 Model 2381 Pulse Input Baseplate The following table lists the short circuit current specifications for field short-to- ground faults. Feature Specification Fault current 130 mA, typical 200 mA, maximum Chapter 3 System Description...
  • Page 118 Model 2381 Pulse Input Baseplate Simplified Schematic PI Baseplate 6-Point PI Module Field Power (PS1 + Field Power (PS2) + Blown Fuse Indicator Ω Comparator Spare Comparator Comparator Ω Shield Field Power (PS1) – Field Power (PS2) – Other Points Trident Planning and Installation Guide...
  • Page 119 Input/Output Modules 103 Model 2381 Pulse Input Baseplate Field Connections +24 V #1 +24 V #2 24 V Return Safety Resistor Block Configuration Block Sensor Block Resistor Block Configuration Block Sensor Block Note Unused points must be terminated. Chapter 3 System Description...
  • Page 120 Connecting an Unused Point The figure below shows a typical connection for point 2. Connecting a Passive Magnetic Sensor The figure below shows a typical connection for point 3. Optional Passive Termination Magnetic In– Resistor Sensor Shield Trident Planning and Installation Guide...
  • Page 121 Input/Output Modules 105 Connecting an Active Open-Collector Sensor with an Internal Resistor The figure below shows a typical connection for point 4. Active Internal Open- Pull-Up Collector – Resistor Sensor Shield Jumper Connecting an Active Open-Collector Sensor with an External Resistor The figure below shows a typical connection for point 5.
  • Page 122 The sensory blocks are configured to no points (spare) with the inputs shorted together. When a point is selected for use, the installed jumpers should be moved or removed as appropriate. Trident Planning and Installation Guide...
  • Page 123 Input/Output Modules 107 PI Baseplate Terminal Block Pin-Outs Configuration J23/J26 Signal Point 1 Point 2 Point 3 Point 4 Point 5 Point 6 IN1– Sensor J24/J25 Signal Point 1 Point 2 Point 3 Point 4 Point 5 Point 6 IN– Shield Resistor J29/J30 Signal...
  • Page 124: Solid-State Relay Output Module

    SRO Module. The SRO Module supports hot sparing for online replacement of a faulty module or continuous back-up to an active module. The SRO Module is mechanically keyed to prevent improper installation in a configured baseplate. Trident Planning and Installation Guide...
  • Page 125: Model 3451 Solid-State Relay Output Module

    Input/Output Modules 109 Model 3451 Solid-State Relay Output Module PASS FAULT ACTIVE SRO Module Front Panel LOCK 3451 Chapter 3 System Description...
  • Page 126 110 Input/Output Modules Model 3451 Solid-State Relay Output Module Simplified Schematic Triplicated I/O Controller(s) Field Circuitry Typical Point (2 of 32) I/O Bus Isolated ASIC Transceiver Isolated ASIC ASIC Transceiver Isolated ASIC Transceiver Trident Planning and Installation Guide...
  • Page 127 Input/Output Modules 111 Model 3451 Solid-State Relay Output Module Specifications Feature Specification Points 32, commoned in pairs ± 24 V Nominal input voltage ± 30 V Operational voltage range ± 33 V peak Maximum switching voltage Maximum switching power 15 W resistive <100 µA Maximum off-state leakage Maximum nominal current...
  • Page 128: Model 2451 Solid-State Relay Output Baseplate

    112 Input/Output Modules Model 2451 Solid-State Relay Output Baseplate Trident Planning and Installation Guide...
  • Page 129 Input/Output Modules 113 Model 2451 Solid-State Relay Output Baseplate Simplified Schematic 32-Point RO Module RO Baseplate Blown Fuse Indicator Fuse 750 mA Blown Fuse Indicator Fuse 750 mA Chapter 3 System Description...
  • Page 130 Load 2 Field Load 1 – AC Power Supply Field Load Field Load 1 – AC Power Supply Field Load Note Points on left terminal blocks are commoned together in pairs; for example, 1-2 and 3-4. Trident Planning and Installation Guide...
  • Page 131: I⁄O Extender Modules

    I⁄O Extender Modules 115 I⁄O Extender Modules The following I⁄O Extender Modules Kits are available. Model Description 2281 I⁄O Extender Module Kit (without termination) 2291 I⁄O Extender Module Kit for I⁄O Baseplate (with termination) 2292 I⁄O Extender Module Kit for MP Baseplate (with termination) The purpose of an I⁄O Extender Module is to: •...
  • Page 132: Model 2281 I⁄O Extender Module Kit

    Model 2292 I⁄O Extender Module Kit A Model 2292 I⁄O Extender Module Kit contains: • Two I⁄O Extender Modules • Three two-foot cables • Three DB-9-pin I⁄O bus terminators, one per channel • One MP Interconnect Assembly Trident Planning and Installation Guide...
  • Page 133: Connecting I⁄O Extender Modules

    I⁄O Extender Modules 117 Connecting I⁄O Extender Modules An I⁄O Extender Module is connected to the top, bottom, or both top and bottom of a column of baseplates. If a column of baseplates contains an MP Baseplate, logic power may be connected to the I⁄O Extender Module or to the MP Baseplate. If a column of baseplates does not contain an MP Baseplate, logic power can be connected to the I⁄O Extender Module at the top of the column or to the I⁄O Extender Module at the bottom of the column.
  • Page 134: Logic Power

    20 mA 24 V #1 24 V #2 Safety Connecting an I⁄O Extender Module DSP1 DSP2 Blown Fuse Indicators Channel C To Next Channel B Extender Module Channel A Note See Chapter 5 for ground connections. Trident Planning and Installation Guide...
  • Page 135: I⁄O Bus Cables

    I⁄O Extender Modules 119 I⁄O Bus Cables An I⁄O bus cable is required for each channel and is terminated at each end by a male 9-pin D connector suitable for rugged industrial applications. Various cable lengths are available. If the I⁄O bus length is greater than 6 meters (20 feet), the bus should be terminated. The maximum I⁄O bus length is 200 meters (650 feet) and includes: •...
  • Page 136: I⁄O Bus Termination

    (or shell) of the connector. When the I⁄O bus length exceeds 6 meters (20 feet), six I⁄O bus terminators should be installed on the open I⁄O bus connectors on the I⁄O Extender modules at each end of the I⁄O bus. DB-9 Plug with Terminator Trident Planning and Installation Guide...
  • Page 137: Interconnect Assemblies

    Interconnect Assemblies 121 Interconnect Assemblies Two interconnect assemblies are available: Model Description 2920 MP Interconnect Assembly 2921 I⁄O Interconnect Assembly MP Interconnect Assembly An MP Interconnect Assembly carries the I⁄O, communication, and system power buses between baseplates. Physically, an MP Interconnect Assembly consists of a small passive PCB in a molded plastic housing with two DIN-C 96-pin male connectors and mounts to the top or bottom of MP Baseplates to bridge adjacent baseplates.
  • Page 138: End Caps

    • Protect the top and bottom of each end-of-column baseplate • Cover the interconnect connector • Serve as a card guide I⁄O Baseplate/I⁄O Extender Module End Caps Bottom End Cap Top End Cap MP Baseplate End Caps Bottom End Cap Top End Cap Trident Planning and Installation Guide...
  • Page 139: Covers

    Covers 123 Covers The following types of covers are available. Model Description 2900 Slot Cover 2911 Terminal Cover Covers minimize exposure to: • Dust • Dripping/splashing liquids • Corrosive atmospheres One Slot Cover and one Terminal Cover are included with each I⁄O Baseplate. Slot Cover Terminal Cover Chapter 3 System Description...
  • Page 140 124 Covers Trident Planning and Installation Guide...
  • Page 141: Installation And Maintenance

    “Performing Routine Maintenance” ......165 CAUTION The Trident controller can be repaired while operating. However, the integrity of the controller can only be assured if the operator follows maintenance procedures correctly.
  • Page 142: Guidelines

    This section discusses issues to consider when installing and configuring your Trident controller. WARNING During installation of a Trident controller, take special care with all power sources to minimize the hazard of electrical shock. When unpacking the Trident controller, check the items against the shipping list to verify that everything you ordered is included.
  • Page 143: Maximum Points

    Solid-State Relay Output Module Mechanical Installation This section provides general guidelines for mounting a panel for controller components. WARNING In hazardous locations, a Trident controller must be mounted in a cabinet or rack with a sealed bottom. Chapter 4 Installation and Maintenance...
  • Page 144: Mounting A Panel

    128 Guidelines Mounting a Panel The Trident system is mechanically packaged into functional units that are DIN- rail-aligned on a panel mount. Each unit comprises one or more modules connected to a baseplate. Baseplates are concatenated along a DIN rail to form vertical columns.
  • Page 145 Guidelines 129 Depth Dimensions for Baseplate and Module Chapter 4 Installation and Maintenance...
  • Page 146 7.30 in. 185.4 mm Dimensions and 8.53 in. Clearances for 216.7 mm Installing MP Baseplates 1.23 in. 31.2 mm 8.56 in. 0.23 in. 217.4 mm 5.8 mm 3.29 in. 83.6 mm 3.52 in. 89.4 mm Trident Planning and Installation Guide...
  • Page 147 Guidelines 131 7.02 in. 166.7 mm 7.30 in. 185.4 mm 9.76 in. 247.9 mm Dimensions and 8.53 in. Clearances for 216.7 mm Installing I⁄O Baseplates 1.23 in. 31.2 mm 6.56 in. 0.23 in. 166.7 mm 5.8 mm 3.29 in. 83.6 mm 3.52 in.
  • Page 148: Using End Caps

    Cover unused baseplate slots with a Slot Cover (Model 2900) to minimize exposure to: • Dust • Dripping/splashing liquids • Corrosive atmospheres Using Terminal Covers Cover field terminals with a Terminal Cover (Model 2901) to minimize exposure • Dust • Dripping/splashing liquids • Corrosive atmospheres Trident Planning and Installation Guide...
  • Page 149: Typical Weights

    Guidelines 133 Typical Weights Component Weight in Pounds Weight in Kilograms Analog Input Module Analog Input Baseplate Analog Output Module Analog Output Baseplate Communication Module Communication Baseplate Digital Input Baseplate Digital Input Module Digital Output Baseplate Digital Output Module Main Processor Baseplate Main Processor Module Pulse Input Module Pulse Input Baseplate...
  • Page 150: Environment

    • For maximum reliability of the system, the average ambient temperature should be below 50°C (120°F). Heat load dissipation should be calculated to include both logic power and field power. Using the following table, sum Trident Planning and Installation Guide...
  • Page 151: Calculating Logic Power

    Relay Output 1. To convert watts to British thermal units: BTU = watts x 3.414 2. Without MAUs For more information about cooling, contact the Triconex Customer Response Center. Calculating Logic Power Note Information in this section is based on a fault condition in which only one of the redundant power sources is operational.
  • Page 152: Power Connections

    In critical environments, at least one power source should be an uninterruptible power supply (UPS), which can be shared by multiple Trident baseplates. The UPS should be rated for the total number of baseplates to be powered and for the duration of the maximum expected down time.
  • Page 153 Guidelines 137 Power Power Supply 1 Supply 2 – – Power Power Distribution Disconnect Disconnect Block Typical Connections for Logic Power Extender DSP1 DSP2 – DSP3 DSP4 Typical I/O Baseplate Baseplate Protective Earth Safety Ground Notes L should be connected to at one and only one place for the entire system, including I⁄O bus extensions up to 200 meters (650 feet) from the MP.
  • Page 154 I⁄O bus extensions up to 200 meters (650 feet) from the MP. Alternatively, L can be connected to a DCS master reference ground or other quiet earth. In simple environments, logic and field power can be combined and treated as one ground system. Trident Planning and Installation Guide...
  • Page 155: I⁄O Bus Considerations

    Guidelines 139 I⁄O Bus Considerations If the total length of the I⁄O bus is less than 6 meters (20 feet), the I⁄O bus can be operated without termination. If the I⁄O bus length is greater than 6 meters (20 feet), the bus should be terminated. The maximum I⁄O bus length is 200 meters (650 feet) and includes: •...
  • Page 156: I⁄O Bus Addressing

    When configuring a module in a TriStation project, you should identify it according to its baseplate address. Modules are logically added to match the physical DIN rail and baseplate configuration using the Insert Module dialog box in the TriStation Configuration Editor. Trident Planning and Installation Guide...
  • Page 157: Mp Baseplate Addressing

    Guidelines 141 If you physically change an I⁄O bus address, you should: • Cycle power or re-install the module • Change the TriNode address in the TriStation project MP Baseplate Addressing The address plug on the MP Baseplate identifies the TriNode address used by TriStation.
  • Page 158: Alarm Wiring

    For more information on program alarms, see the TriStation 1131 Developer's Guide. MP Baseplate MP B MP C MP A Alarm 1/NC larm Alarm Connections larm 2/NC larm Trident Planning and Installation Guide...
  • Page 159 Guidelines 143 DSP1 DSP2 – DSP3 Alarm 1 – 24 VDC Load FUSE DSP4 Power Source FUSE Alarm 2 – 24 VDC Power Source Typical Alarm Connections Chapter 4 Installation and Maintenance...
  • Page 160: Installation Procedures

    Interconnect Assembly between the two baseplates, allowing the second baseplate to move until the interconnect assembly snaps into place. Tighten the mounting screws on the second baseplate to 16 inch-pounds of torque. Install additional baseplates, interconnect assemblies, and extenders as needed. Trident Planning and Installation Guide...
  • Page 161 Installation Procedures 145 Interconnect Assembly Mounting Components Screws (4 places) Baseplate Screws (4 places) End Cap Chapter 4 Installation and Maintenance...
  • Page 162: Installing Additional I⁄O Columns

    Tighten the mounting screws on the second baseplate to 16 inch-pounds of torque. Install additional baseplates and extenders as needed. Installing an I⁄O Extender Module This section explains how to install an I⁄O Extender Module on a panel. Trident Planning and Installation Guide...
  • Page 163 Installation Procedures 147 M To install an I⁄O Extender Module: Install the I⁄O Extender Module as in step 3 page 146, but do not tighten the screws. If installing an I⁄O Extender Module adjacent to an MP Baseplate, attach an MP Interconnect Assembly between the two baseplates, allowing the I⁄O Extender Module to move until the Interconnect Assembly snaps into place.
  • Page 164: Installing Other Components

    The Pass Indicator should go on within about one minute. If it does not, and the Fault light persists longer than five minutes, check the diagnostic log to determine if there is a problem. Trident Planning and Installation Guide...
  • Page 165: Effective Grounding Methods

    Effective Grounding Methods 149 Effective Grounding Methods You should permanently connect the Trident system to a protective earth in order • Protect operations and maintenance personnel from electrical shock • Protect the system from damage or malfunction caused by lightning or other...
  • Page 166: Connecting Baseplates To Protective Earth

    Connecting Baseplates to Protective Earth WARNING Do not operate a Trident system without connecting each baseplate to a protective earth (AC safety ground) with a low-impedance cable. Improper grounding creates the potential for dangerous electrical shock—the Trident controller can produce significant leakage currents which must be shunted to earth.
  • Page 167 Effective Grounding Methods 151 Typical Ground Connection Connecting Baseplates to Protective Earth Protective Earth Safety Ground Chapter 4 Installation and Maintenance...
  • Page 168: Connecting To Signal Ground

    I⁄O bus extensions up to 200 meters (650 feet) from the MP. Alternatively, L can be connected to a DCS master reference ground or other quiet earth. In simple environments, logic and field power can be combined and treated as one ground system. Trident Planning and Installation Guide...
  • Page 169 Effective Grounding Methods 153 Power Power Supply 1 Supply 2 – – Power Power Distribution Disconnect Disconnect Block Grounding Field Extender Power Typical I/O Baseplate Notes L should be connected to at one and only one place for each set of redundant field power supplies.
  • Page 170: Connecting Shields To Earth

    Such bus bars are available from Phoenix Contact or other terminal block suppliers. You should individually connect each shield bus bar to a suitable, quiet ground point, such as a dedicated protective earth or a DCS master reference ground, as shown on page 155. Trident Planning and Installation Guide...
  • Page 171 Effective Grounding Methods 155 Typical Point (1 of 32 Points Shown) 4-20 mA Transmitter Connecting a Shield Ground to Earth Shield Bus Bar Dedicated Shield Ground, DCS Master Reference Ground (Functional Earth), or Protective Earth Chapter 4 Installation and Maintenance...
  • Page 172: Connecting To A Tristation Pc

    156 Connecting to a TriStation PC Connecting to a TriStation PC You can connect a Trident controller to a TriStation PC using a 10BaseT cross-over cable or an Ethernet network hub. This section provides instructions for both methods. An MP uses Ethernet protocol to communicate with a TriStation PC and requires the installation of an Ethernet card, a 10BaseT cross-over cable, and the Data Link Control (DLC) protocol in the PC.
  • Page 173 Connecting to a TriStation PC 157 TriStation PC, Rear View MP Baseplate with Modules DSP1 PASS PASS PASS DSP2 FAULT FAULT FAULT – ACTIVE ACTIVE ACTIVE DSP3 MODE MODE MODE DSP4 REMOTE REMOTE REMOTE PROGRAM PROGRAM PROGRAM HALT HALT HALT STATUS STATUS STATUS...
  • Page 174 COMM BUS COMM BUS COMM BUS Connecting an MP SERIAL SERIAL SERIAL Using a Network LINK LINK LINK TRISTATION TRISTATION TRISTATION 3101 3101 3101 Straight-Through Cables COAX MDIX POWER 10BASE-T External Ethernet Network Network Adapter Card Trident Planning and Installation Guide...
  • Page 175: Connecting Tristation To A Cm Port

    Connecting to a TriStation PC 159 Connecting TriStation to a CM Port If your Trident system includes a CM and you want to use a TCP/IP connection to the TriStation PC, you can connect the TriStation PC to the NET1 or NET2 port on the CM.
  • Page 176 Connector SERIAL SERIAL Connecting a CM LINK LINK NET 1 NET 1 Using a Network LINK LINK NET 2 NET 2 3201 3201 Straight-Through Cables COAX MDIX POWER 10BASE-T Network Adapter Card To External Network Trident Planning and Installation Guide...
  • Page 177: Connecting To Serial Ports On The Mp

    Serial ports on the MP can be used for communication as a Modbus slave. The Modbus master can be a DCS or PC. For information on configuring serial ports for Modbus communication, see the Trident Communication Guide. For information on cables, see “RS-232 Modbus Serial Cable”...
  • Page 178: Connecting To Serial Ports On The Cm

    Serial ports on the CM can be used for communication as a Modbus master, slave, or combination master/slave. For information on configuring serial ports for Modbus communication, see the Trident Communication Guide. For information on cables, see “RS-232 Modbus Serial Cable” on page 214 “RS-485 Modbus Serial Cables”...
  • Page 179: Configuring Output Voter Diagnostics

    If a failure occurs, replace the failed module immediately so that the fault tolerance capability remains in effect. Triconex guarantees that a glitch to a load lasts less than 2 milliseconds. To ensure safety, you should analyze the sensitivity of each load device attached to the controller for proper operation.
  • Page 180: Controller Verification

    You have now made every effort to ensure that your Trident controller is problem- free. However, should problems arise, please call a Triconex Field Service Engineer before starting up your process-control operation.
  • Page 181: Performing Routine Maintenance

    Performing Routine Maintenance 165 Performing Routine Maintenance Routine maintenance consists of the following tasks: • Checking the integrity of system power sources • Periodically enabling “disabled” Output Voter Diagnostics (OVD) • Verifying the integrity of spare modules You should establish a schedule for routine maintenance and adhere to it to ensure maximum safety and long service.
  • Page 182: Output Voter Diagnostics (Ovd)

    Output voter diagnostics (OVD) is a set of tests that detects failures in the output voting circuitry of DO Modules only. OVD runs without operator intervention or awareness and enables the Trident controller to continually verify its own integrity. CAUTION OVD may affect a controlled process! For this reason, Triconex provides special instructions for disabling OVD on selected DO points from TriStation.
  • Page 183: Chapter 5 Fault And Alarm Indicators

    If in doubt about the procedures, the operator should take whatever steps are necessary to ensure the safety of the plant and personnel, then call Triconex for assistance in implementing the repair procedures.
  • Page 184: Overview

    • By examining the indicators on the front panel of each module and consulting this chapter. • By using the Diagnostic Panel in the TriStation application. For more information, see the TriStation 1131 Developer’s Guide. Trident Planning and Installation Guide...
  • Page 185: Main Processor Indicators

    Main Processor Indicators 169 Main Processor Indicators This section describes indicators for the MP Module, including the MP status, system mode, alarm, and communications indicators. Pass (Green) PASS MP Status Fault (Red) FAULT Indicators ACTIVE Active (Yellow) Remote Mode (Green) MODE REMOTE Run Mode (Green)
  • Page 186: Mp Status Indicators

    Green — — Indicators/signal circuitry on the Replace the module. steady steady module are malfunctioning. 1. This symbol ( — ) means the indicator is not important for this condition. Trident Planning and Installation Guide...
  • Page 187: Mp System Mode Indicators

    Main Processor Indicators 171 MP System Mode Indicators The MP system mode indicators identify the current operating state of the controller. (Operational modes are set in TriStation 1131. For more information, see the TriStation 1131 Developer’s Guide.) Remote Program Halt Description Green Green...
  • Page 188: Mp Alarm Indicators

    (greater than prematurely. 60°C/140°F). 1. This symbol ( — ) means the indicator is not important for this condition. Trident Planning and Installation Guide...
  • Page 189: Mp Communication Indicators

    Main Processor Indicators 173 MP Communication Indicators The MP communication indicators identify the type of communication occurring on the controller. The TX light indicates the MP is transmitting a message and the RX light indicates the MP is receiving a message. I⁄O Bus Comm Bus Serial...
  • Page 190: Communication Module Indicators

    Serial 1 (Green/Green) Serial 2 (Green/Green) SERIAL Serial 3 (Green/Green) SERIAL Communication Indicators Net 1 Link (Green) LINK NET 1 Net 1 TX/RX (Green/Green) Net 2 Link (Green) LINK NET 2 Net 2 TX/RX (Green/Green) 3201 Trident Planning and Installation Guide...
  • Page 191: Cm Status Indicators

    Communication Module Indicators 175 CM Status Indicators The CM status indicators identify the processing state for the CM. A fault light indicates that the processor has an internal fault. Normal States Pass Fault Active Lock Description Action Green Green Module is operating normally. Normal status.
  • Page 192: Cm Communication Indicators

    — Green Green CM is communicating with steady blinking TriStation or with an Ethernet device through the Net 2 port. 1. This symbol ( — ) means the indicator is not important for this condition. Trident Planning and Installation Guide...
  • Page 193: Analog Input Module Indicators

    Analog Input Module Indicators 177 Analog Input Module Indicators This section describes the AI Module indicators and recommends actions for fault conditions. Pass (Green) PASS Fault (Red) AI Status FAULT Indicators Active (Green) ACTIVE FIELD PWR Field Power Field Power (Yellow) Indicator LOCK Unlock (Red)
  • Page 194: Ai Status Indicators

    Lock module using a #2 flat- blade screwdriver. steady baseplate. Green — — Indicators/signal circuitry on Replace the module. the module are malfunctioning. steady steady 1. This symbol ( — ) means the indicator is not important for this condition. Trident Planning and Installation Guide...
  • Page 195: Ai Field Power Indicator

    Analog Input Module Indicators 179 AI Field Power Indicator The AI field power indicator is lit when a field power problem has occurred. Field Description Action Power Yellow Field power from one or more To isolate the missing power source, use steady of the redundant sources is the TriStation Diagnostic Panel.
  • Page 196: Analog Output Module Indicators

    This section describes the AO Module indicators and recommends actions for fault conditions. Pass (Green) PASS Fault (Red) AO Status FAULT Indicators Active (Green) ACTIVE PWR/LOAD Field Alarm Field Alarm (Yellow) Indicator LOCK Unlock (Red) 3481 Trident Planning and Installation Guide...
  • Page 197: Ao Status Indicators

    Analog Output Module Indicators 181 AO Status Indicators The AO status indicators identify the processing state for the AO Modules. A fault light indicates that the module has an internal fault or is missing field power. Normal State Pass Fault Active Lock Description...
  • Page 198: Ao Field Alarm Indicator

    To determine the actual state, use a detected. A field error may be voltmeter, then correct the problem in the an open load or an out-of- external circuit. compliance error. If these steps do not solve the problem, replace the module. Trident Planning and Installation Guide...
  • Page 199: Digital Input Module Indicators

    Digital Input Module Indicators 183 Digital Input Module Indicators This section describes the DI Module indicators and recommends actions for fault conditions. Pass (Green) PASS DI Status Fault (Red) FAULT Indicators Active (Green) ACTIVE FIELD PWR Field Power Field Power (Yellow) Indicator Points Indicators...
  • Page 200: Di Status Indicators

    Lock the module using a #2 baseplate. flat-blade screwdriver. steady Green — — Indicators/signal circuitry on Replace module. the module are malfunctioning. steady steady 1. This symbol ( — ) means the indicator is not important for this condition. Trident Planning and Installation Guide...
  • Page 201: Di Field Power Indicator

    Digital Input Module Indicators 185 DI Field Power Indicator The DI field power indicator is lit when a field power problem has occurred. Field Description Action Power Yellow Field power from one or more To isolate the missing power source, use the TriStation Diagnostic Panel.
  • Page 202: Digital Output Module Indicators

    This section describes the DO Module indicators and recommends actions for fault conditions. Pass (Green) PASS Fault (Red) DO Status FAULT Indicators Active (Green) ACTIVE PWR/LOAD Field Power Power/Load (Yellow) Indicator Points 1 16 Points (Green) – Indicators LOCK Unlock (Red) 3401 Trident Planning and Installation Guide...
  • Page 203: Do Status Indicators

    Digital Output Module Indicators 187 DO Status Indicators The DO status indicators identify the processing state for the DO Module. A fault light indicates that the module has an internal fault. If you have a field fault and a module fault, resolve the field fault first. Normal State Pass Fault...
  • Page 204: Do Power/Load Indicator

    DO Point Indicator The DO point indicators identify whether the point is energized or not energized. Point (1-16) Description Green steady Field circuit is energized. No light Field circuit is not energized. Trident Planning and Installation Guide...
  • Page 205: Pulse Input Module Indicators

    Pulse Input Module Indicators 189 Pulse Input Module Indicators This section describes the PI Module indicators and recommends actions for fault conditions.<<get correct panel graphic>> Pass (Green) PASS Fault (Red) PI Status FAULT Indicators Active (Green) ACTIVE FIELD PWR Field Power Field Power (Yellow) Indicator Points...
  • Page 206: Pi Status Indicators

    Lock module using a #2 flat- blade screwdriver. steady baseplate. Green — — Indicators/signal circuitry on Replace the module. the module are malfunctioning. steady steady 1. This symbol ( — ) means the indicator is not important for this condition. Trident Planning and Installation Guide...
  • Page 207: Pi Field Fault Indicator

    Pulse Input Module Indicators 191 PI Field Fault Indicator The PI field fault indicator is lit when a field power problem has occurred. Field Description Action Yellow Field power from one or more To isolate the missing power source, use steady of the redundant sources is the TriStation Diagnostic Panel.
  • Page 208: Solid-State Relay Output Module Indicators

    This section describes the SRO Module indicators and recommends actions for fault conditions. Pass (Green) PASS SRO Status Fault (Red) FAULT Indicators ACTIVE Active (Green) Points Indicators LOCK Unlock (Red) 1 32 Points (Green) – Points Indicators 3451 Trident Planning and Installation Guide...
  • Page 209: Sro Status Indicators

    Solid-State Relay Output Module Indicators 193 SRO Status Indicators The SRO status indicators identify the processing state for the SRO Module. A fault light indicates that the module has an internal fault. Normal State Pass Fault Active Lock Description Action Green Green Module is operating normally.
  • Page 210: Sro Point Indicators

    194 Solid-State Relay Output Module Indicators SRO Point Indicators The SRO point indicators identify whether the point is energized or not energized. Point (1-32) Description Green steady Field circuit is energized. No light Field circuit is not energized. Trident Planning and Installation Guide...
  • Page 211: Replacing Modules

    If you find a module with damaged pins, please return it to Triconex for repair. • When replacing a module, you must use a #2 flat-blade screwdriver to lock or unlock the module.
  • Page 212: Replacing A Main Processor Module

    If the module is not properly seated, the Lock indicator stays on. The Active indicator does not go on until the MP Module is properly seated and locked. Contact the Triconex Customer Response Center to obtain a returned material authorization (RMA) number.
  • Page 213: Replacing A Communication Module

    CM is properly seated and locked. Re-attach all communication cables to the CM. Contact the Triconex Customer Response Center to obtain a returned material authorization (RMA) number. Return the module to Triconex for repair.
  • Page 214: Replacing An I⁄O Module Without A Hot Spare

    Never remove the currently active module. On the faulty I⁄O module, rotate the lock lever counter-clockwise until the module ejects from the baseplate. Contact the Triconex Customer Response Center to obtain a returned material authorization (RMA) number. Return the module to Triconex for repair.
  • Page 215: Replacing An I⁄O Module With A Hot Spare

    If the module is not properly seated, the Lock indicator stays on. The Active indicator does not go on until the I⁄O module is properly seated and locked. Contact the Triconex Customer Response Center to obtain a returned material authorization (RMA) number.
  • Page 216 200 Replacing Modules Trident Planning and Installation Guide...
  • Page 217: Appendix A Pin-Outs For Cables And Connectors

    “RS-232 Modbus Serial Cable” ......214 “RS-485 Modbus Serial Cables” ......215 Trident Planning and Installation Guide...
  • Page 218: Mp Baseplate Connectors

    Safety ground Modbus RS-232/RS-485 Serial Connector Pin-out information for a Modbus serial connector is shown on page 203. The Modbus port, which is DTE-compatible, is configured using TriStation to operate in either RS-232 or RS-485 mode. Trident Planning and Installation Guide...
  • Page 219: Rs-232 Pin-Outs

    MP Baseplate Connectors 203 RS-232 Pin-Outs DB-9 Pin Signal Direction RS-232 Function Carrier detect Receive data Transmit data Shield Data terminal ready — Signal ground — Not used (data set ready) Request to send Clear to send — Not used (ring indicator) Housing Shield —...
  • Page 220: Rs-485 Pin-Outs

    Description Transmit Data SD-A MP transmits serial data Transmit Data, Inverted SD-B Receive Data RD-A MP receives serial data Receive Data, Inverted RD-B Signal Ground Signal ground 5 V DC through 1k Ω Not used Trident Planning and Installation Guide...
  • Page 221: Cm Baseplate Connectors

    CM Baseplate Connectors 205 CM Baseplate Connectors The CM Baseplate provides the following connectors and MAUs: • Modbus RS-232/RS-485 serial connectors • Ethernet 10BaseT Net1 connectors • AUI 10-megabit Ethernet MAUs • Ethernet 100BaseTX Net2 connectors • MII Ethernet MAUs •...
  • Page 222: Rs-232 Pin-Outs

    MP ignores CTS and transmits data as soon as it is available Request to Send MP turns on RTS unconditionally Data Carrier Detect MP ignores DCD and always accepts data from Transmit Data MP transmits serial data Receive Data MP receives serial data Trident Planning and Installation Guide...
  • Page 223: Rs-485 Pin-Outs

    CM Baseplate Connectors 207 RS-485 Pin-Outs DB-9 Pin Signal Direction RS-485 Function — — — RD-A Receive data SD-A Transmit data — — — — Signal ground — — — SD-B Transmit data, invert RD-B Receive data, invert 5 V DC through 1k Ω Term Housing Shield...
  • Page 224: Ethernet 10Baset Net1 Connectors

    Ethernet 100BaseTX Net2 Connectors RJ-45 Shield Signal Direction Function 1 TD+ 2 TD– Transmit data + 3 RD+ Transmit data – 6 RD– Receive data + — — Receive data – — — Housing Shield — Safety ground Trident Planning and Installation Guide...
  • Page 225: Aui 10 Megabit Ethernet Mau Connectors

    CM Baseplate Connectors 209 AUI 10 Megabit Ethernet MAU Connectors Slide Clip DB15 Signal Direction Function Ground — Transmit data – Data output + Ground — Data input + Ground — Receive data – — Shield Ground MAU present detect CI–...
  • Page 226 Logic — MII MAU logic ground ground Logic — MII MAU logic ground ground Logic — MII MAU logic ground ground Logic — MII MAU logic ground ground Logic — MII MAU logic ground ground Trident Planning and Installation Guide...
  • Page 227 CM Baseplate Connectors 211 DB40 Signal Direction Function Logic — MII MAU logic ground ground Logic — MII MAU logic ground ground Logic — MII MAU logic ground ground Logic — MII MAU logic ground ground Logic — MII MAU logic ground ground Logic —...
  • Page 228: 10Baset Network Cables For Tristation

    Cross-over cables are used to link the Ethernet card on a PC to the 10BaseT Ethernet connectors on the MP Baseplate. Crossover 10BaseT cable TD– TD– RD– RD– Shield Shield Crossover Crossover 10BaseT cable 10BaseT cable RJ-45 RJ-45 Connector Connector Shield Trident Planning and Installation Guide...
  • Page 229: 10Baset Straight-Through Cable

    10BaseT Network Cables for TriStation 213 10BaseT Straight-Through Cable Straight-through cables are used to: • Link the 10BaseT connector on the MP Baseplate to an Ethernet network • Link the network hub to an Ethernet connector on a PC 10BaseT Straight-Through Cable TD–...
  • Page 230: Rs-232 Modbus Serial Cable

    Modbus connector on the MP Baseplate to a PC acting as the Modbus master. Cable pin-outs are shown below: RS-232 Modbus Serial Cable (Null Modem) Housing Housing Signal Ground Signal Ground MP Baseplate PC Female Connector Female Connector P1 (9 pins) P2 (9 pins) (molded hood) Housing Ground Trident Planning and Installation Guide...
  • Page 231: Modbus Serial Cables

    RS-485 Modbus Serial Cables 215 RS-485 Modbus Serial Cables RS-485 Modbus serial cables are used for point-to-point and multi-point connections between an MP or CM and a Modbus master. The first figure below shows a point-to-point connection between a Modbus master and one slave only.
  • Page 232 Network Trunk Trunk R Trunk T CM or MP RD-A RD-B SD-A SD-B Serial Port Shield RD-A RS-485 Modbus SD-B Master Network SD-A RD-B Ω 5 VDC through 1 K (optional) Signal Ground (optional) 1 KΩ Trident Planning and Installation Guide...
  • Page 233: Cable Selection

    RS-485 Modbus Serial Cables 217 Cable Selection When selecting an RS-485 cable for your Modbus network, you should observe the following guidelines: • Maintain a cable impedance of greater than or equal to 100 ohms. • Supply a separate shield for each twisted pair. •...
  • Page 234 Note Resistor values must match the characteristic impedance of the cable. Cable R Cable T Recommended Network Termination Using a Double-Pair Network Modbus Master Slave Note Resistor values must match the characteristic impedance of the cable. Trident Planning and Installation Guide...
  • Page 235: Diagread Cables And Debug Connectors

    Diagread Cables and Debug Connectors 219 Diagread Cables and Debug Connectors Diagread cables and debug connectors are available for the MP, Communication, and I⁄O modules. As shown below, different pins on a RJ-12 connector are used for the MP, Communication, and I⁄O modules. MPs and Left-Position CMs Diagread Cable Diagread Cable...
  • Page 236: Debug Connector For Left-Position Cms

    9-pin D-Sub-to-Modular Debug Connector for I⁄O Modules For the I⁄O modules, the Debug connector uses pins 4, 5 and 6. RJ-12 Signal Direction Description IOP Diagread Transmit Data IOP Diagread Receive Data — IOP Ground Trident Planning and Installation Guide...
  • Page 237: Debug Connector For Right-Position Cms

    Diagread Cables and Debug Connectors 221 Debug Connector for Right-Position CMs For the right-position CM, the Debug connector uses pins 4, 5, and 6. RJ-12 Signal Direction Description CM Diagread Transmit Data CM Diagread Receive Data — CM Ground Appendix A Pin-Outs for Cables and Connectors...
  • Page 238 222 Diagread Cables and Debug Connectors Trident Planning and Installation Guide...
  • Page 239: Appendix B Recommended Parts For Replacement

    A P P E N D I X B Recommended Parts for Replacement The table below lists the parts recommended by Triconex to replace existing parts. The table lists the parts, part numbers, relevant modules, and Triconex-approved manufacturers. Part Description...
  • Page 240 Trident Planning and Installation Guide...
  • Page 241: Appendix C Recommended Wiring Methods

    A P P E N D I X C Recommended Wiring Methods This appendix provides information related to recommended wiring. Topics include: • General considerations • Conduit shielding • Cable spacing • Tray considerations • Grounding Trident Planning and Installation Guide...
  • Page 242: General Considerations

    • Route shielded data cable along grounded surfaces such as metal cabinet walls and in conduit or trays. Single-shielded cable is most effective when routed along grounded surfaces. • Allow the minimum amount of unshielded wire that will accommodate the connection. Trident Planning and Installation Guide...
  • Page 243: Conduit Shielding

    Conduit Shielding 227 Conduit Shielding Conduit and cable trays route the network trunkline within the plant for short distances or for several miles. Often the same conduit carries both data and power wiring, creating a problem with electromagnetic interference. Your choice of materials and configuration for the cable conduit determines the degree of protection from this interference.
  • Page 244: Tray Recommendations

    • Ventilation slots or louvers should be used only in trays containing Data 3 cables. Refer to IEEE Standard 518-1982 for detailed information about tray and conduit spacing. Grounding For detailed information and instructions about grounding of the Trident system, “Effective Grounding Methods” on page 149. Trident Planning and Installation Guide...
  • Page 245: Non-Incendive Circuit Parameters

    Non-Incendive Circuit Parameters Special parameters apply to Main Processor Modules and Communication Modules for non-incendive communication circuits in the field. These parameters are shown in the following drawing, which are extracted from Triconex Drawing 9110043-001, REV. A. CLASS 1, DIV 2...
  • Page 246 10V/10V Communication Isc/Imax 1mA/1mA 30mA/30mA 1mA/1mA 30mA/30mA Circuits Ca/Ci 11nf/11nf 15uF/0 11nf/11nf 15uF/0 La/Li 1.3mH/1.3mH 85mH/0 1.3mH/1.3mH 85mH/0 (NOTE 2) Note 2 For detailed information on signal data (inputs or outputs), see the manufacturer’s documentation. Trident Planning and Installation Guide...
  • Page 247: Appendix E Upgrades And Repairs

    • Adding or replacing the last baseplate in a column without an I⁄O Extender Module • Adding or replacing the last baseplate in a column with an I⁄O Extender Module • Adding or replacing a baseplate between two baseplates Trident Planning and Installation Guide...
  • Page 248 Trident Planning and Installation Guide...
  • Page 249: Appendix F Mounting Panel Drill Template

    A P P E N D I X F Mounting Panel Drill Template The following figure shows where the mounting holes should be located. Trident Planning and Installation Guide...
  • Page 250 I/O Module Baseplate 2.50 in. 63.5 mm 7.30 in. 185.4 mm 2.50 in. Typical, non-accumulating 63.5 mm Extender Module Baseplate 3.29 in. 1.25 in. 83.6 mm 31.8 mm 6.56 in. 166.6 mm 8.56 in. 217.4 mm Trident Planning and Installation Guide...
  • Page 251: Eu Declaration Of Conformity

    The following declaration of conformity with the European Union directives for electromagnetic compatibility and low-voltage equipment is provided as a convenience. The declaration is the latest available at publication time may have been superseded. For updates, contact the factory. Trident Planning and Installation Guide...
  • Page 252 Special Measures and Limitations which must be Observed The product must be installed and operated as described in the Trident V1.2 Planning & Installation Guide. The products described above comply with the essential requirements of the directives of the directives specified.
  • Page 253: Warning Labels

    • General Hazard • Hazardous Voltage • Hot Surface Labels must meet the requirements of ANSI Z535, ISO 3864, and IEC 1310-1. Labels are available from Triconex upon request. Trident Planning and Installation Guide...
  • Page 254: General Hazard

    Safety orange per ANSI Z535.4 13 parts yellow, 3 parts warm red, ¼ part black The label must meet the requirements of ANSI Z535, ISO 3864, and IEC 1310-1. Labels are available from Triconex upon request. Trident Planning and Installation Guide...
  • Page 255: Hazardous Voltage

    Safety orange per ANSI Z535.4 13 parts yellow, 3 parts warm red, ¼ part black The label must meet the requirements of ANSI Z535, ISO 3864, and IEC 1310-1. Labels are available from Triconex upon request. Appendix H Warning Labels...
  • Page 256: Hot Surface

    Safety orange per ANSI Z535.4 13 parts yellow, 3 parts warm red, ¼ part black The label must meet the requirements of ANSI Z535, ISO 3864, and IEC 1310-1. Labels are available from Triconex upon request. Trident Planning and Installation Guide...
  • Page 257: Glossary

    Five-digit number that the system uses in place of a variable name when communicating with an external host. The alias is a convention of Modbus, an industry-standard protocol adopted by Triconex for use with its communication modules. Each alias contains a Modbus message type and the address of the variable in the system.
  • Page 258 Discrete memory variable or discrete input point that has been assigned to an SOE block. external host Computer, such as a mainframe, minicomputer, workstation, or PC that communicates with the controller over an Ethernet open network. Trident Planning and Installation Guide...
  • Page 259 Institute of Electrical and Electronics Engineers (IEEE) is a professional society for engineers. International Organization for Standardization (ISO) is a world-wide federation of national standards bodies (ISO member bodies) that promulgates standards affecting international commerce and communications. Trident Planning and Installation Guide...
  • Page 260 Network to which an external host can be connected. output poll time Time required by the controller to implement the outputs generated by the application in response to inputs from the controlled process. Protective earth. Programmable electronic system. Trident Planning and Installation Guide...
  • Page 261 Special self-test circuitry detects all stuck-on and stuck-off fault conditions in less than half a second. Safety instrumented system. Safety requirements specification. Trident Planning and Installation Guide...
  • Page 262 TSAA Triconex System Access Application (TSAA) protocol is a master-slave protocol in which the master (an external host) communicates with one or more slaves over an open network. TSAA supports a maximum of ten controllers.
  • Page 263 Glossary 247 voting Mechanism whereby each channel of a TMR system compares and corrects the data in each channel using a two-out-of-three majority voting scheme. Trident Planning and Installation Guide...
  • Page 264 248 Glossary Trident Planning and Installation Guide...
  • Page 265: Index

    AUI Ethernet MAU connectors system integrity wiring ambient temperatures baseplates Analog Input Baseplates addresses connecting depth dimensions schematics blown fuse indicators Analog Input Modules – description – I/O distribution – indicators – TriBus operations schematics Trident Planning and Installation Guide...
  • Page 266 Ethernet controller Ethernet 100BaseTX MP Modules Ethernet 10BaseT physcial interfaces I/O module debug Communication Modules MII Ethernet MAU AUI Ethernet MAU connectors Modbus RS-232/RS-485 serial debug connectors – description MP Baseplate logic power diagread cables Trident Planning and Installation Guide...
  • Page 267 MP Modules operations debug ports schematics MP Module I/O executive Digital Output Baseplates MP Module system executive connecting declaration of conformity, European Union schematics Digital Output Modules depth dimensions – description baseplates – indicators modules Trident Planning and Installation Guide...
  • Page 268 I/O control processors definition I/O diagnostics identifying I/O Extender Modules overview connecting tolerance – description field ground dimensions field power I/O modules grounding – typical wiring – field signal distribution debug connectors field wiring Trident Planning and Installation Guide...
  • Page 269 I/O modules hot-surface warning mechanical installation languages, programming MII Ethernet MAU connectors load glitches, DO Modules Modbus ports logging, remote logic ground Trident Planning and Installation Guide...
  • Page 270 AI Modules MP Baseplates AO Modules MP Module logic source testing DI Modules processors DO Modules I/O control MP Modules MP Module application PI Modules MP Module I/O theory programming languages Trident Planning and Installation Guide...
  • Page 271 International (SEMI) approval routine maintenance shielding, conduit RS-232 shields Modbus serial cables connecting pin-outs for CMs ground pin-outs for MP Modules signal description for CMs signal description for MP Modules RS-485 Modbus serial cables Trident Planning and Installation Guide...
  • Page 272 PC system executive debug ports, MP Ethernet connectors Modules programming languages systems trunks alarm cables configuring network diagnostics TÜV certification ground twisted-pair cables integrity alarms twisted-pair wiring – overview TXD designator Trident Planning and Installation Guide...
  • Page 273 Index 257 uninterruptible power supplies (UPS), sharing upgrades verifying spare modules voter circuitry warning labels general- hazard hazardous-voltage hot-surface wiring alarms classes considerations field recommended methods twisted-pair workstations, programming Trident Planning and Installation Guide...
  • Page 274 Index Trident Planning and Installation Guide...

Table of Contents

Save PDF