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Highlights

 Supports two independent 10/100 Ethernet LANs. LAN1 has only one port and is dedicated to highspeed Ethernet and whereas LAN2 comprises of 3 switched ports configurable as either an embedded Ethernet controller or an embedded PROFINET controller. All four ports are located on the front panel, as shown in Figure 1.

 The embedded communications interface has dedicated processing capability, which permits the CPU to independently support LAN1 and LAN2 with:

o up to 16 combined SRTP Server and Modbus TCP Server connections out of which Modbus TCP cannot exceed more than 8 connections (or) up to 16 simultaneous SRTP Server connections (or) up to 8 simultaneous Modbus TCP Server connections.

o 8 Clients are permitted; each may be SRTP or Modbus TCP or a Combination of both.

o up to 8 simultaneous Class 1 Ethernet Global Data (EGD) exchanges.

o When used in combination for optimal performance, user must not exceed 4 Channels for Server (Modbus/SRTP) & 4 Channels for client (Modbus/SRTP), 8 PROFINET nodes and 8 EGD data exchanges.

 Ability to display serial number and date code in PME Device Information Details.

 Operating temperature range -40C to 70C (-40F to 158F).

User Features

The PACSystems* RSTi-EP EPSCPE100. is an enhanced performance standalone 1GHz programmable controller equipped with 1MB of user memory and four Ethernet ports to run real time deterministic control applications. LAN1 is dedicated to highspeed Ethernet and LAN2 comprised of 3 switched ports configurable as either an embedded Ethernet controller or an embedded PROFINET controller, which provides the PROFINET functionality and supports only simplex mode of operation. It is a standalone PLC that supports distributed I/O. From now on in rest of the document this controller will be referred to as CPE100.

The CPE100 is programmed and configured over Ethernet via GE’s Proficy Machine Edition (PME) software. It can control/process up to 2K I/O points.

Highlights include:

 A built-in PACSystems RSTi-EP PLC CPU

o User may program in Ladder Diagram, Structured Text, Function Block Diagram.

o Contains 1Mbytes of configurable data and program memory.

o Supports auto-located Symbolic Variables that can use any amount of user memory.

o Reference table sizes include 2k bits for discrete %I and %Q and up to 2k words each for analog %AI and %AQ. Bulk memory (%W) also supported for data exchanges.

o Supports up to 512 program blocks. Maximum block size is 128KB.

The PACSystems* RX3i Redundancy CPU can be used to 

perform real time control of machines, processes, and 

material handling systems. The CPU communicates with the 

programmer and HMI devices via a serial port using SNP 

Slave protocol. It communicates with I/O and smart option 

modules over a dual backplane bus that provides: 

▪ High-speed PCI backplane for fast throughput of new advanced I/O. 

▪ Serial backplane for easy migration of existing Series 90*-30 I/O. 

Features 

▪ Hot standby (HSB) redundancy. Two redundant units 

make up a redundancy system. Each unit requires one 

Redundancy CPU (IC695CRU320) and a redundancy 

Memory Xchange module (IC695RMX128/228) configured as a redundancy link. 

▪ Contains 64 Mbytes of battery-backed user memory and 

64 Mbytes of non-volatile flash user memory. 

▪ Provides access to bulk memory via reference table %W. 

▪ Configurable data and program memory. 

▪ Programming in Ladder Diagram, Structured Text, 

Function Block Diagram, and C. Refer to PACSystems RX7i 

& RX3i CPU Programmer’s Reference Manual, GFK-2950. 

▪ Supports auto-located Symbolic Variables that can use 

any amount of user memory. 

▪ Reference table sizes include 32Kbits for discrete %I and 

%Q and up to 32K words each for analog %AI and %AQ. 

▪ Supports most Series 90-30 modules and expansion 

racks. For a list of supported I/O, Communications, 

Motion, and Intelligent modules, refer to the PACSystems 

Functions

The Programmable Coprocessor Module (PCM) is a

Coprocessor to the PLC CPU.  It can be programmed

to perform operator interface, real time computations,

data storage, data acquisition and data communica

tions functions.  It communicates with the PLC CPU

over the backplane and can access user and system

data using extensions to the powerful MegaBasic lan

guage.  No application program support is required in

the PLC CPU.

Many PCMs can be supported in a single IC697 PLC

system and each can accommodate an optional ex

pansion memory up to 512 Kbytes.

Dual tasking allows running a MegaBasic program at

the same time the PCM is used as a communications

interface.  Operation of the module may be initialized

by a pushbutton or by an attached PCM development

system.  The status of the PCM is indicated by three

green LEDs on the front of the module.

Installation

• Installation should not be attempted without refer

ring to the applicable Programmable Controller

Installation Manual (see reference 5).

• Make sure rack power is off.

• Install expansion memory if required.

• Connect the battery to either of the battery con

nectors on the module. (See figure 2)

• Install in the rack. (See figure 1)

• Turn on power.

The module should power up and blink the top LED.

When the diagnostics have completed successfully the

top LED stays on.

Features

• Single slot Coprocessor

• Dual Tasking

• MegaBasic

• CCM2 Protocol

• 12 Mhz, 80C186 microprocessor

• 90% of an IBM AT performance

• Up to 96 Kbytes battery-backed CMOS logic and

data memory on board

• Supports up to 512 Kbytes optional expansion memory

• Programmed by IC647. IC640 or IBM-compatible

Personal Computer

• Two RS-422/RS-485 or RS-232 serial ports

• High performance access to PLC memory

• Real time calendar clock synchronized to PLC

• Reset pushbutton

• Three Status LEDs

• Soft Configuration (No dip switches or jumpers)

with MS-DOS or Windows based programming

software configuration function

• Simultaneous communications on both ports at up

to 9.6 Kbaud, or up to 19.2 Kbaud individually.

Expansion Memory

The PCM can operate with or without an expansion

memory daughter board.  The base memory on the

PCM board has up to 95 Kbytes user memory.  The ex

pansion memory daughter board permits expansion of

program/data memory by 64. 128. 256 or 512 Kbytes.

The battery which supports this memory is located on

the base board housing as shown in figure 2.

Features

Available in 64. 128. 256 and 512 Kbytes

For expansion of CPU 771. CPU 772. or PCM

Memory retained by battery on CPU or PCM

Does not require additional slot

Configurable for data and program storage

Error checking by CPU checksum routine

No tools required for installation

Field Installable

Functions

This CMOS Expansion Memory is available in four

versions; 64. 128. 256 and 512 Kbytes. This memory

may be used to expand logic and data memory in ei

ther the CPU 771 (IC697CPU771) and CPU 772

(IC697CPU772) modules, or the Programmable Co

processor Module (IC697PCM711).  It is installed as a

daughter board and resides in the same slot as the

module it serves.  Memory on this board supplements

memory available on the base board.

CMOS Expansion Memory

Memory is retained in the event of power loss by the

battery on the base board housing.

Logic program memory is continually error-checked

by the PLC CPU as a background task.

The PCM error checks storage memory when power

is  cycled and on hard or soft resets.

•Expander Modules

Up to seven Expander modules can be daisy

chained off the Base Converter module to in

crease the number of inputs of the total subsys

tem up to a maximum of 120.

The Base Converter module accepts any mix of

the two Expander module types.

A common user scaling factor applies to all in

puts on each Expander module, however each

Expander module may be individually scaled as required.

•Current Input Expander module – catalog number

IC697ALG440

The Current Expander module has 16 current

inputs each accepting up to Ç 20 mA.

•Voltage Input Expander module – catalog number

IC697ALG441

The Voltage Expander module has 16 differen

tial voltage inputs each accepting up to Ç 10V signals.