K-WANG

+086-15305925923
Service expert in industrial control field!
NameDescriptionContent
Adequate Inventory, Timely Service
pursuit of excellence 
Ship control system
Equipment control system
Power monitoring system
Current position:
   
Brand
GE IC693PBS201 PLC Profibus DP network slave module
❤ Add to collection

GE IC693PBS201 PLC Profibus DP network slave module

+86-15305925923
Mr.Wang
wang@kongjiangauto.com

GE IC693PBS201 PLC Profibus DP network slave module

19000.00
¥19000.00
Weight:3.550KG
Quantity:
(Inventory: 50)
Consultation
Accessories
  • ABB-Binary I/O m
    Original :¥15774.00
    With a price :¥15774
    Quantity  
  • ABB-Optical star
    Original :¥9993.00
    With a price :¥9993
    Quantity  
  •   
    Original :¥
    0.00
      
      With the total price :¥
    0.00
Product parameters
  • Telephone:+86-15305925923
  • contacts:Mr.Wang
  • Email:wang@kongjiangauto.com
Description

GE IC693PBS201 PLC Profibus DP network slave module




GE IC693PBS201 PLC Profibus DP network slave module

4、 GE Fanuc Profibus DP Network Product Description

The GE Fanuc series PACSystems supports Profibus DP master/slave modules 5136-PFB-VME for 90-70.

5136-PFB-VME, as a standard VME module, can be plugged into PAC70 systems and 90-70 PLCs

On the central rack and configured as "3rd PartyVME" by its programming software. This interface card uses 256K bytes

Standard memory and 1K byte short I/O storage area.

According to the working principle of Profibus DP, the DP master station should know the detailed information of all slave stations on the network

(e.g. station address and I/O quantity for each slave station). Utilizing the SST Profibus Configuration software package

These configuration information can be generated and saved as binary files (*. bss). This configuration information file can be accessed from

Download the serial port of 5136-PFB-VME to the module. This interface card can support up to 96 DP slave stations (such as stations)

If the number exceeds 32, a repeater is required.

4.1 The configuration steps for the 90-70 system using 5136-PFB-VME are as follows:

Establish a 90-70 Profibus DP network (Version 2.0)

4.1.1 Introduction

The 90-70 5136-PFB-VME interface program PB_0825 mentioned in this article can be completed in just 3ms (CPU915)

120 word slave data exchange. This program is a ladder diagram program that can be obtained through GEFanuc.

This article provides a detailed introduction on how to use the 5136-PFB-VME interface card to connect to the Profibus DP network in a 90-70 PLC.

The interface program PB_0825 mentioned in the article can support two 5136-PFB-VME interface cards. Of course, you can also

This interface program is used in PLC systems with only one interface card.

5136-PFB-VME, as a standard VME module, can be plugged into the central rack of 90-70 PLCs and can be used by 90-70

The programming software configuration is "3" PartyVME ". This interface card uses 256K bytes of standard memory and 1K bytes of short I/O

Storage area.

4.1.2 Hardware Installation

4.1.2.1 Setting Short I/O Address

The 5136-PFB-VME interface card occupies a short address interval of 1K bytes on the VME bus, and this memory interval can be occupied by 90-

Use the VME-Read/Write instruction (AM=29H) in CPU 70 to access. The starting address of this memory area is dialed

Set the 1st to 6th positions of code switch S1, and the switch settings in the following figure will connect the ground of two 5136-PFB-VME modules

The addresses are set to 8000H and 7000H respectively. Here, the interface card with address 8000H is referred to as the first card,

7000H is called the second card.

Short I/O Base Address

Base Address

position 1

Position 2

Position 3

position 4

position 5

position 6

8000H

OFF

ON

ON

ON

ON

ON

7000H

ON

OFF

OFF

OFF

ON

ON

The first card is set to 8000H, and the second card is set to 7000H

These two interface cards can be inserted into any slot on the mainframe, but there must be no empty slots between these two modules and the CPU.


GEFanuc Automation Network and Communication

Profibus DP network

The interface program consists of three basic subroutine blocks: Init_0, Init_1, and Assign. Init_0 is used to initialize the first block

Port card (with an I/O address of 8000H). Init_1 is used to initialize the interface card with an I/O address of 7000H. Assign subroutine

Used to exchange slave data between CPU and interface card.

Due to the internal use of the% L variable in the Init_0, Init_1, and Assign blocks, these three blocks must

Called in PB0 and PB1.

Note: After successfully initializing the first interface card with Init_0, the variable "Init_0_oK" (% T00217) will be set to

1. After successfully initializing the second interface card (with an I/O address of 7000H), the variable 'Init_1_SK'

(% T00233) will be set to 1. Variables% T00209 to% T00256 are reserved for initialization program use, user

Please do not use these variables in the program The variables% L00001 to% L01320 of subroutines PB-0 and PB_1 are assigned

When using program blocks, user programs should use variables with addresses of% L01320 or higher.

Steps:

4.1.3.1 Call the Init_0 and Init_1 subroutine blocks

Wg: Set whether the watchdog of the interface card is working. Fill in 1 to allow the watchdog to work, and fill in 0 to prohibit it from working.

Tx: The data sent from the master station to the slave station (i.e., the output of the slave station) is temporarily stored at the starting address in the% L variable. length

512 words. Its meaning is consistent with the BT parameters. Note that all output data from the slave station is in ascending order of the slave station address

The sequence is arranged in blocks, and the word length of each output data block from the slave station must be a multiple of 4 (for example, on the bus)

There are 4 slave stations with addresses 3, 4, 6, and 8 respectively. If the Tx parameter is% L01750, slave station 3 has 5 bytes

The output data from station 4 has 10 bytes and station 6 has 1 byte. Then the output data block from station 3

%Starting from L01750, the output data from station 4 starts from% L01754, and the output data from station 6 starts from

%Starting from L01762, the output data from station 8 starts from% L01766. Users can calculate each slave station themselves

The offset address of the output data in% L, and then use the MOV instruction to move the actual output data (% Q) to this address

Some% L. However, after the Assign program block is called for the first time, it will automatically calculate the output data of each slave station

%The offsets in L are stored in the TF parameters.

TF: The offset address of the output data block of each slave station calculated after the first call of the Assign program block. long

120 words. If TF=% L01501, calculated according to the above example, then after the first call of the Assign program block,

%L01501=1750,% L01502=1754,% L01503=1762,% L01504=1766. The user program should be in

After assigning the program, use indirect addressing to move the actual output data from the slave station to% L01750,% L01754

%L01762,% L01766. As shown below:

Mov

%O001

@L01501

RF: The offset address of each slave input data block calculated by the Assign program block, which has the same meaning as the TF parameter

Like. Length of 120 words.

Rx: The starting address of the data received by the master station from the slave station (i.e., the input from the slave station) is temporarily stored in the% L variable. long

The degree is 512 words, and its meaning is similar to the TX parameter.

St: Slave station status word, with a length of 120 words. Each status word represents the status of a slave station, with the first word representing the station's location

The status of the slave station with address 0, and the second status word represents the status of the slave station with address 1. The height of the status word

The byte stores the sequence number of the slave station (for example, if there are 4 slave stations on the bus with addresses 3, 4, 6, and 8, then this

The sequence numbers of the slave stations are 0, 1, 2, and 3, respectively. The low byte of the status word contains the current status information of the slave station

If it is 80H, it means that the slave station is working normally; If it is 00H, it means that the slave station has a fault, which may

It is a cable or connector malfunction or configuration error. If the entire status word is FFO0H, it means that the slave is not present

It is configured in the SST Profibus configuration software.

be careful:

If you only have one 5136-PFB-VME interface card in your system, you only need to use the program blocks PB-0 or PB_1

One of them.

  • HIMA CPU 01 Controller Module
  • Westinghouse WPX3000e/WPX3400e electric high-pressure cleaning machine
  • Westinghouse WGen2000, WGen3600, and WGen3600V portable generators
  • Westinghouse WGen5500 Generator
  • Westinghouse WGen20000 Generator
  • Westinghouse WPro8500 and WPro12000 portable generators
  • Westinghouse iGen4500DFc Dual Fuel Digital Variable Frequency Generator
  • Watlow Series L Temperature Limiting Controller
  • Watlow Series F4P Series 1/4 DIN (96 × 96mm) Temperature/Process Controller
  • Watlow EZ-ZONE ® RME (Expansion) Module
  • Watlow EZ-ZONE ® RMA (Access) module
  • Watlow PM PLUS ™ 6 Series PID Integrated Controller
  • Watlow Immersion Heater
  • Watlow F4T Controller Installation and Failure
  • Watlow DIN-A-MITE ® Style C Solid State Power Controller
  • Watlow plug-in heater
  • Watlow Series 942 Controller
  • Watlow Series 988 Controller
  • Watlow Series 146 Temperature Regulator
  • Watlow PM LEGACY ™ Limit controller
  • Johnson AE55/NIE55 Installation Guide
  • Watlow Series 96 Temperature Controller
  • Watlow PM PLUS ™ PID/Integrated Limit Controller
  • Watlow Ceramic Fiber Heater
  • Watlow Power Series microprocessor based SCR power controller
  • Watlow thermocouple products
  • Watlow Series 965 Controller
  • Watlow PM3 LEGACY ™ PID controller
  • Watlow Series 93 Controller
  • Watlow EZ-ZONE ® PM PID controller
  • Watlow CLS200 series controller
  • YAMAHA RCX40 4-axis robot controller
  • YASKAWA Z1000 series HVAC dedicated frequency converter
  • YASKAWA HV600&Z1000U series HVAC dedicated frequency converter
  • YASKAWA Power Regenerative Unit R1000 Series
  • YASKAWA AC Drive P1000 Industrial Fan and Pump Special Frequency Converter
  • YASKAWA FP605 series industrial fan pump dedicated driver
  • YASKAWA GA500 series AC micro driver
  • YASKAWA AC Drive G7 Series (Model CIMR-G7U)
  • YASKAWA U1000 series 24V power supply options (PS-U10L/PS-U10H)
  • YASKAWA GA800 industrial AC frequency converter Key issues
  • YASKAWA GA800 Industrial AC Inverter
  • YASKAWA AC Drive V1000 Compact Vector Control Drive
  • YASKAWA Control Pack CP-317M System Controller
  • YASKAWA VARISPEED-626M/656MR5 series vector control frequency converter
  • YASKAWA AC Servo Drive HR Series (CACR-HR) Multi functional/Positioning Control
  • YASKAWA MP2000 series machine controller communication module
  • Yokogawa AQ1100 series OLTS multi field tester
  • YOKOGAWA AQ7280 Optical Time Domain Reflectometer
  • YOKOGAWA AQ2200 Series Multi Application Testing System
  • YOKOGAWA AQ6150B/AQ6151B Optical Wavelength Meter
  • YOKOGAWA AQ6360 Optical Spectrum Analyzer
  • Yokogawa AQ6375E Spectral Analyzer Remote Control
  • Yokogawa DL350 Scope Order Communication Interface
  • Yokogawa 701944/701945 100:1 High Voltage Probe
  • Yokogawa CA700 pressure calibrator
  • Yokogawa DLM5000HD series high-definition oscilloscope
  • Yokogawa AQ1210 Series OTDR Multi Field Tester
  • Yokogawa AQ1000 OTDR Optical Time Domain Reflectometer
  • YOKOGAWA WT1801R series precision power analyzer communication interface
  • YOKOGAWA DLM3034HD/DLM3054HD High Definition Oscilloscope
  • YOKOGAWA AQ23011A/AQ23012A Modular Framework Equipment
  • YOKOGAWA DLM3054HD Mixed Signal Oscilloscope
  • YOKOGAWA CW500 Power Quality Analyzer
  • YOKOGAWA CA500/CA550 Multi functional Process Calibration Instrument
  • YOKOGAWA AQ7420 High-Resolution Reflectometer
  • YOKOGAWA FG410/FG420 arbitrary waveform editor
  • Yokogawa Model 701905 Conversion Cable
  • YOKOGAWA MY600 Digital Insulation Resistance Tester
  • YOKOGAWA AQ7290 Series Optical Time Domain Reflectometer OTDR
  • YOKOGAWA LS3300 AC Power Calibrator
  • Yokogawa AQ6377E Optical Spectrum Analyzer Remote Control
  • Yokogawa AQ6361 Optical Spectrum Analyzer
  • Yokogawa IS8000 Integrated Software ECU Monitoring and Synchronization Function
  • Yokogawa ROTAMASS TI Coriolis Mass Flow Meter
  • Yokogawa ROTOMETER RAMC Metal Variable Area Flow Meter
  • Yokogawa SL1000 high-speed data acquisition unit input module
  • ​Yokogawa FLXA402T turbidity and chlorine liquid analyzer Installation and wiring
  • Yokogawa WTB10-DO Series Dissolved Oxygen Measurement System Terminal Box
  • Yokogawa Model 702928 PBD0200 Differential Probe
  • YOKOGAWA ADMAG TI Series AXW Electromagnetic Flow Meter (25-450mm) Installation and Operation
  • YOKOGAWA ADMAG TI series AXW electromagnetic flowmeter (25-1800mm)
  • YOKOGAWA DO30G Dissolved Oxygen Sensor
  • YOKOGAWA SC4AJ Conductivity Sensor
  • YOKOGAWA SC210G Conductivity Detector
  • Yokogawa PH4/OR4 series pH and ORP sensor (IM12B10B00-01EN)
  • Yokogawa OR8EFG KCl filled ORP sensor (IM12C07J01-01E)
  • YOKOGAWA FU24 pH/ORP Composite Sensor with Pressure Compensation (IM 12B06J03-03EN-P)
  • Yokogawa SC200 Intelligent Two Wire Conductivity Transmitter System (IM12D08B01-01E)
  • YOKOGAWA CENTUM VP Integrated Production Control System (TI33J01A10-01EN)
  • ABB AO2000-LS25 Laser Analysts User Manual
  • YOKOGAWA FA-M3 positioning module (with analog voltage output)
  • YOKOGAWA FA-M3 Series Basic Modules
  • YOKOGAWA EJA110E Diff erential Pressure Transmitter
  • Zygo 3D Optical Profiler
  • Zygo Mark II 4-inch interferometer system
  • Zygo NewView 9000 3D Optical Contour Analyzer Core Features
  • Zygo NewView 9000 3D Optical Profilometer Technology
  • Zygo Profilometer Standard Operating Procedure
  • Zygo’s Guide to Typical Interferometer Setups
  • ZYGO Laser Interferometer Accessory Guide OMP-0463AM
  • ZYGO MetroPro 9.0 Reference Guide (OMP-0347M)
  • Zygo Device Standard Operating Procedure (SOP)
  • Zygo Verify Laser Interferometer
  • Zygo MicroLUPI interferometer
  • ZYGO ZMI-1000 Displacement Measuring Interferometer System
  • Zygo's ZMI 2000 displacement measurement interferometer system
  • ABB IGCT Technology: A Revolutionary Breakthrough in High Voltage Inverters
  • Siemens 6AG1204-2BB10-4AA3 Ethernet Switch
  • Siemens 6ES7193-4JA00-0AA0 Terminal Module
  • Siemens ET200SP 6ES7193-6PA00-0AA0 server module
  • Siemens 6ES7231-0HC22-0XA0 Analog Input Expansion Module
  • Siemens 6ES7350-2AH01-0AE0 Counter Module
  • Siemens 6ES7421-7DH00-0AB0 Digital Input Module
  • Siemens 6AV2124-2DC01-0AX0 Comfort Panel
  • Siemens 6ES7193-4CA40-0AA0 ET 200S Electronic Module
  • STOBER POSIDRIVE ® MDS 5000 installation method
  • Siemens 7XV5653-0BA00 dual channel binary signal transmitter
  • Bently Nevada 3500/65 145988-02 Channel Temperature Monitor
  • Thinklogical Velocity KVM-34 series KVM fiber extender
  • Watlow MLS300 Series Controller
  • ​DHR NLS3000 NLC System (Navigation Control System)
  • Watlow Anafaze CLS200 Series Controller
  • CyberPower UT650EG / UT850EG User’s Manual
  • Thermal Solutions EVS series gas regulated boilers
  • Bosch Rexroth HM20 Hydraulic Pressure Sensor
  • ABB SPAU 341 C Voltage Regulator
  • Rockwell Automation 1585 Ethernet Media