DCS; Industrial control system
NameDescriptionContent
NEW CENTER
Current Location:

ABBIndustrial Networks Connecting Controllers via OPC

From:ABB | Author:LIAO | Time :2025-08-27 | 818 Browse: | Share:

Abstract

In order to modernize their infrastructure and keep up with the state of the art,

ABB Power Systems decided to replace the older controller AC450 with a new

generation of controllers called AC800M. Just like its predecessor, its main task is to

work as a sequencer in an otherwise mostly unchanging topology. Although the new

controller AC800M provides modern communication features and a sophisticated

application development system, it lacks of a communication interface compatible

with the residing controllers AC160. A hardware approach addressing this problem

is in development, but not available at this point of time. Thus the decision was

made to realize the connection using OPC, a widely spread and open software

communication interface standard with a high potential of reusability. In addition,

it was aimed at gaining additional knowledge about the OPC interface, which is

commonly used in industry.

In this thesis, we evaluate adequate hardware and software to realize this connection and we have programmed the controllers with applications to evaluate its

performance and integrity. In addition, we are making considerations about redundancy that is vital in automation business in order to increase reliability and

availability. We have shown that it is possible to interconnect controllers using

OPC with satisfactory average performance results. Due to high maximum round

trip times and high complexity when realizing redundancy, it is recommended to

use such a system for testing purposes or non-critical operational applications, but

not for critical systems. In this thesis we also identify and judge several alternative

ways of connection.

Acknowledgements

First of all, I would like to thank Prof. Dr. Bernhard Plattner of the Computer

Engineering and Networks Laboratory TIK at the Swiss Federal Institute of Technology ETH Zurich for supporting and supervising this Master’s Thesis. Special

thanks go to my advisors Rainer Baumann and Bernhard Tellenbach of TIK for

their straightforward and helpful support during my work.

Secondly I would like to thank Dr. Esther Gelle and Pascal Aebli of ABB for

enabling this Master’s Thesis in the first place as well as providing aid throughout

this thesis. Special thanks also to Stephan Egli for supporting me with the first

steps, Swen Woldau for numerous hints concerning AC160 and AF100 as well as

Juerg Beck for AC800M tips and tricks. Finally I would like to thank everyone else

at PSPD for the provided aid and making my work so convenient not only in a

technical but also in a human manner.

Baden, June 2007

Martin Pfister

Chapter 1

Introduction

This chapter will provide a rough overview of the problem treated by this Master’s

Thesis. All technical devices and expressions will be explained more precisely in

the next chapter. Please note that since this is a public thesis, it does not contain

sensitive company-internal data.

1.1 ABB Power Systems

ABB Power Systems is one of the world’s leading providers of infrastructure for

controlling combined cycle power stations and waste-to-energy plants. Such a

plant control infrastructure includes several hardware parts consisting of controllers,

input/output-boards and communication devices as well as many software components to engineer, run, observe and analyze the power plant. A power plant control

system has to satisfy a broad variety of different needs, from the efficient and reliable control of the turbines and associated supporting functions (such as lube oil)

to easy configuration and operation as well as to sophisticated analysis functions

addressing technical and economical aspects.

1.2 Problem Statement

Due to high investment costs, the technical management of power plants is a slowgoing business with long life-cycles. Thus, a considerable amount of hardware

devices currently in use are tens of years old. For future applications within ABB

Power Systems it will be necessary to connect a controller of the newest series used

within ABB, Control IT AC800M, with an older controller of the type Advant

Controller 160 (AC160). The problem is that these two controllers do not share

a fast communication interface of similar type and therefore cannot communicate

directly. The standard communication intended for AC160 is Advant Fieldbus 100

(AF100). However, AC800M can support a whole range of buses except for AF100.

As a consequence, the communication must be implemented using some relaying

technique.

1.2.1 The Use of OPC

It was decided in advance to realize the relaying connection using OPC. This solution was chosen because OPC is an open standard and very common in process and

automation industry. Furthermore, this solution offers a high potential to be used

for similar problems, since a lot of devices support this specification. However, OPC

is normally not used for fast controller-to-controller communication but for slower

visualization and logging purposes and there is no performance data available for

this kind of connection. The use of OPC is therefore both challenging as well as

interesting to gain more insights and know-how.

It is also to mention that a hardware solution addressing our problem is not

available yet. It is therefore necessary to have an alternative way using already

  • ENTERASYS A4H254-8F8T Ethernet switch
  • ENTERASYS C2RPS-CHAS2 SecureStack c2 Redundant power supply chassis
  • ENTERASYS A2H124-24 Ethernet edge switch
  • EMG LID43.03 Reference voltage source
  • EMERSON PR6426010-110+C0N021916-240 32mm Eddy Current Sensor
  • EMERSON PR6423/011-110+C0N021 Eddy Current Signal Converter
  • EMERSON VE4003S2B1 DeltaV™ M-series Traditional I/O
  • EMERSON 2500M/AI4UNIV analog input module
  • EMERSON PMCspan PMC Expansion Mezzanine
  • EMERSON PR6424/011-140 16mm Eddy Current Sensor
  • EMERSON KJ3242X1-BK1 12P4711X042 S-Series H1 Card
  • EMERSON 960132-01 FX-316 Positioning Servo Drive 230 VAC
  • EMERSON KJ4006X1-BD1 Interface Terminal Block
  • EMERSON 1C31181G01 module
  • EMERSON CE4003S2B6 I/O Termination Block
  • EMERSON KJ4001X1-CK1 40-Pin Mass Termination Block
  • EMERSON VE4012S2B1 Module
  • EMERSON KL4103X1-BA1 CHARMs Smart Logic Solver Carrier
  • EMERSON A6370D/DP Overspeed Protection Monitor
  • EMERSON P188.R2 Industrial interface module
  • EMERSON VE3008 CE3008 KJ2005X1-MQ1 12P6381X042 MQ Controller
  • EMERSON TPMC917 4MB SRAM with Battery Backup and 4 Channel RS232
  • EMERSON P152.R4 Multifunctional module
  • EMERSON DA7281520 P152 Processor board
  • EMERSON PR6423/008-110 8mm Eddy Current Sensor
  • EMERSON PR6423/000-131 8mm Eddy Current Sensor
  • EMERSON MVME61006E-0163R VMEbus Single-Board Computer
  • EMERSON Ovation 5X00453G01 Remote I/O Node Controller Module
  • EMERSON 5X00070G04 Analog input
  • EMERSON Ovation 5X00070G01 Analog Input Module
  • EMERSON Ovation 5X00790G01 Compact Controller Module
  • EMERSON 5X00846G01 HART analog output module
  • EMERSON 1C31113G01 Digital output module (5-60VDC)
  • EMERSON KJ4110X1-BA1 I/O terminal module
  • EMERSON CSI3125 A3125/022-020 Shaft-Vibration Monitor
  • EMERSON 5X00273G01 Digital output module
  • EMERSON KJ4001X1-NB1 12P3368X012 REV:E 1-Wide I/O Carrier Extender Left
  • EMERSON KJ4001X1-NA1 12P3373X012 REV:C 1-Wide I/O Carrier Extender Right
  • EMERSON A6312/06 Speed and Key Monitor
  • EMERSON KJ4001X1-BE1 8-Wide I/O Carrier
  • EMERSON KJ2005X1-MQ1 KJ2005X1-MQ2 13P0072X082 MQ Controller
  • EMERSON 5X00226G03 - Ovation™ I/O Interface Controller, Electronics Module
  • EMERSON PR6423/00R-010+CON031 Vibration sensor
  • EMERSON 9199-00002 A6120 Control Module
  • Emerson Ovation 1C31234G01 - Ovation™ 16 Channel Compact Digital Input
  • Emerson Ovation KJ3002X1-BF1 12P1732X042 Controller module
  • Emerson Ovation 5X00226G01 I/O Interface Module
  • Emerson Ovation™ Controller Model OCR1100(5X00481G04/5X00226G04)
  • Emerson Ovation 5X00499G01 Digital Input 24Vdc Single 32CH
  • Emerson Ovation 5X00500G01 32-Channel Digital Output Module
  • Emerson ovation VE4001S2T2B4 Analog output card
  • Emerson ovation 5X00501G01 5X00502G01 Ethernet link controller
  • EMERSON A6824R 9199-00098-13 Module
  • EMERSON A6140 9199-00058 Industrial Control Module
  • EMERSON 1C31194G03 Industrial Control Module
  • EMERSON DB1-1 Industrial Control Module
  • EMERSON PMC-IO-ADAPTER I/O module
  • EMERSON L0115012 L0115032 Control module
  • EMERSON PMC-IO-PROZESSOR Process control module
  • EMERSON PMC PROFINET Manage Gigabit Ethernet switches
  • EMERSON A3120022-000 CSI3120 Bearing-Vibration Monitor
  • EMERSON SE3008 KJ2005X1-SQ1 12P6383X032 Controller
  • EMERSON 1000554 Printed circuit board
  • EMERSON PR6423/002-041 Sensor module
  • EMERSON 1C31232G02 Westinghouse control module
  • Abaco TRRM940 Switch
  • Abaco SWE440A Switch
  • Abaco NETernity™ RM984RC Ethernet Switch
  • Abaco NETernity™ GBX411 Ethernet Switch
  • Abaco NETernity™ GBX25
  • Abaco NETernity SWE540A
  • Abaco CP3-GESW8-TM8 Ethernet switch
  • Abaco SWE440S Ethernet switch
  • Abaco SWE450S 100GbE 3U VPX Switch Aligned to SOSA™ Standard
  • Abaco SWE550S 100GbE 6U VPX Switch Aligned to SOSA™ Standard
  • Abaco SPR870A Wideband Digital Receiver/Exciter
  • Abaco SPR507B Serial FPDP XMC/PMC
  • Abaco ICS-1572A Transceiver Module
  • Abaco daq8580 FMV Compression System
  • Abaco VP868 FPGA Card
  • Abaco HPC2812 Rugged 6U VPX High Performance Computer with Dual Intel
  • Abaco VSR347D 3U VPX Rugged Virtual Secure Router
  • Abaco VSR8000 Fully Rugged, COTS System Secure Router
  • Abaco RES3000 Compact, Rugged Ethernet Switches
  • Abaco PMC238 Expansion Card
  • Abaco EXP238 PMC/XMC Expansion Card for XVB603 VME Single Board Computer
  • Abaco VME-REPEAT-A-L VMEbus Repeater Link
  • Abaco VME-4514A VME Analog I/O Input/Output Board
  • Abaco VME-3128A Analog I/O
  • Abaco VME-3125A analog-to-digital Conversion board
  • Abaco VME-3123A VME Analog I/O Input Boards
  • Abaco PMC239/F Analog input/output board
  • Abaco PEX431 Multi-fabric Switch
  • Abaco CPCI-100A-BP 2-slot IndustryPack carrier for 3U CompactPCI
  • Abaco PMC522 Serial Controller
  • Abaco PMC522/FP Serial Controller
  • Abaco VME-2170A Digital Output 32-bit optically isolated
  • Abaco VME-1129 Digital Input Board 128-bit high voltage
  • Abaco IP-OCTALPLUS232 Eight EIA-232 asynchronous serial ports
  • Abaco IP-DIGITAL482 Digital I/O with 48 TTL Channels
  • Abaco PMC523 16-Port Serial Controller
  • EMERSON CE4003S2B1 M-series Traditional I/O
  • EMERSON SE3008 DeltaV™ SQ Controller
  • EMERSON 1C31227G01 - Ovation™ 8 Channel Analog Input
  • EMERSON 1C31224G01 - Ovation™ 8 Channel Analog Input
  • ABB UNS0119A-P,V101 3BHE029154P3 3BHE029153R0101 Digital input
  • ABB 3BDH000050R1 AM811F Battery Module
  • ABB 3ASC25H705-7 Digital output board
  • ABB UDD406A 3BHE041465P201 control board
  • ABB 3BHE014967R0002 UNS 2880B-P,V2: COB PCB Assembled
  • ABB PPC380AE02 HIEE300885R0102 module
  • ABB NU8976A99 HIER466665R0099 Processor Module
  • ABB DIS0006 2RAA005802A0003G Digital Input Module
  • ABB Bailey IMDS003 infi 90 Digital Output Slave Module
  • ABB XO08R1-B4.0 Expand the output relay module
  • ABB VA-MC15-05 Controller module
  • ABB VA-3180-10 Controller module
  • ABB 72395-4-0399123 Excitation module
  • ABB PU516A 3BSE032402R1 Engineering Board - PCI
  • ABB 3BHE044481R0101 3BHE044477P3 PPE091A101 Module
  • ABB UCD224A102 Control unit
  • ABB SNAT603CNT SNAT 603 CNT Motor Control Board
  • ABB SNAT634PAC Drive board
  • ABB UAD149A0011 Servo controller
  • ABB UCD224A103 Industrial controller module
  • ABB 3BHE029154P3/3BHE029153R0101 UNS0119A-P,V101 Processor Module
  • ABB ARCOL 0338 ARCOL 0346 Solid-state motor starter
  • ABB ARCOL 0339 Solid-state motor controller