Category: GE

User RAM Memory

The CPX928 has a built-in memory board with 6

Mbytes of battery-backed CMOS RAM memory for

user data (program, configuration, and register data) storage.

User Flash Memory

The CPX928 has 256K of built-in, non-volatile flash

memory for user data (program, configuraton, and

register data) storage.  Use of this flash memory is optional.

Firmware Storage in Flash Memory

This CPU uses flash memory for storing the operating

system firmware.  This allows firmware to be updated

without disassembling the module or replacing

EPROMs.  The operating system firmware is updated

by connecting a PC compatible computer to the mod

ule’s serial port and running the software included

with the firmware upgrade kit.

Functions

The CPX 928 is a single slot PLC CPU that is

programmed and configured by MS-DOS or

Windows based programming software to perform

real time control of machines, processes and material

handling systems. It communicates with I/O and

smart option modules over the rack-mounted

backplane using the VME C.1 Standard format.

Supported option modules include LAN Interface

modules, Programmable Coprocessor, Alphanumeric

Display Coprocessor, Bus Controller for IC660/661 I/O

products, Communications modules, I/O Link

Interface, and all of the IC697 family of discrete and

analog I/O modules.

Features

Single slot CPU with three serial ports

Provides 6 Mbytes of battery-backed memory in

the same slot

Contains 256K of non-volatile user flash memory

Supports BMA in release 7.92 and later

Supports floating point calculations

12K inputs and outputs (any mix), and up to 8K

analog I/O

0.4 microseconds per boolean function

96 MHz, 80486DX4 microprocessor

Supports IC66 (can be IC660 or IC661) and IC697 I/O

Programmed by MS-DOS software products, or

Windows based software products running on

Windows 95 or Windows NT over Ethernet

TCP/IP or through an SNP port

Configurable data and program memory

Battery-backed calendar clock

Three position operation mode switch

Password controlled access

Remote programmer keyswitch

memory protection

Seven status LEDs

Software configuration (No DIP switches

or jumpers)

Reference information inside front door

In-system upgradable firmware

Specifications

Data

Channels: 1 duplex

Formats: RS-232 (3-wire/5-wire), TTL, RS-422. RS-485 (2-wire/4-wire),

Manchester,Biphase, SensorNet, DTMF control

Baud Rate: 250 kbps to 512 kbps (depending on data format)

Bit Error Rate: <1.0E-9

Optical

Mode: Multimode

Optical Budget: 13 dB

Emitter: LED

Wavelength: 850 nm

Operating Distance: 3.2 mi (5.2 km)

Gain Control: Optical Automatic Gain Control (OAGC)

Transmitter Launch Power: -17 dBm

Receiver Sensitivity: -30 dBm

Electrical

Input Power: 13.5 VDC regulated

Current Requirement: 220 mA

Power Consumption: 3.5 W

Power Factor: 2

Protection: Solid-state short circuit protection

Power Supply: Model 613P (optional)

Environmental

Operating Temperature: -40 to 167 °F (-40 to 75 °C)

Maximum Humidity: 95% relative, noncondensing

Standards

Emmissions: FCC Part 15. ICES-003. AS/NZS 3548. EN55022

Immunity: ENV50204. EN61000-4-2. -3. -4. -5. -6. -11

Safety: UL 1950. CAN/CSA 22.2. NO. 950-95

Mechanical

Dimensions (LWD), Standalone Units: 5.0″ x 2.8″ x 1.5″

Dimensions, Rack Units: 1 slot (1.0″)

Weight: Standalone 0.22 lbs (0.1 kg); rack 0.55 lbs (0.25 kg)

Construction: Plastic (standalone); Aluminum (rack)

Standard Features

Two-way data transmission over two multimode fibers

Supports multiprotocol data formats including RS-232. TTL,

RS-422. RS-485. Manchester, Biphase, and SensorNet

Unique data translation function

User-configurable data format

13 dB optical budget

Optical AGC

SMARTS™ diagnostics

Standalone and rack configurations

Specifications

Data

Channels: 1 duplex

Formats: RS-232 (3-wire/5-wire), TTL, RS-422. RS-485 (2-wire/4-wire),

Manchester,Biphase, SensorNet, DTMF control

Baud Rate: 250 kbps to 512 kbps (depending on data format)

Bit Error Rate: <1.0E-9

Optical

Mode: Multimode

Optical Budget: 13 dB

Emitter: LED

Wavelength: 850 nm

Operating Distance: 3.2 mi (5.2 km)

Gain Control: Optical Automatic Gain Control (OAGC)

Transmitter Launch Power: -17 dBm

Receiver Sensitivity: -30 dBm

Overview

The S710D data transceiver provides two-way transmission of

multiprotocol data over two multimode fibers.

Data Translation

The S710D also features the unique data translation function that

allows input of one data format and output of a different format.  Data

formats are selected during installation and can be easily changed in

the field via rotary switch.

Superior Diagnostics

The SMARTS™ diagnostic technology provides an extensive array of

system status LEDs.  The integrity of the data paths can be tested with

a built-in data transmission test generator. It is not necessary to

connect to an external data device.

Standard Features

Two-way data transmission over two multimode fibers

Supports multiprotocol data formats including RS-232. TTL,

RS-422. RS-485. Manchester, Biphase, and SensorNet

Unique data translation function

User-configurable data format

13 dB optical budget

Optical AGC

SMARTS™ diagnostics

Standalone and rack configurations

ATEX Marking

II 3 G   Ex nA IIC T5 X 0°C

Module Installation

Modules must be mounted on a DIN rail.

1. Allow sufficient finger clearance for opening PNS door.

2. Allow adequate clearance for communications port cables.

3. Allow adequate space for power wiring.

The PNS with power supply attached fits into a 70mm deep enclosure.

Rated thermal specifications are based on a minimum clearance of 5.1cm

(2in) above and below the equipment and 2.54cm (1in) to the left of the

PNS module.

You may need to allow more space for installation of cables and

connectors than what is required for heat dissipation. To avoid impacting

mechanical reliability and signal quality, cable installation must comply

with the minimum bend radius specified by the cable manufacturer.

Grounding

The VersaMax PROFINET Scanner must have a separate shield ground connection to provide shielding for its two ports.

Attach a wire with a stab-on connector to the grounding terminal on the bottom of the module. Connect a ring terminal on

the other end of the wire to a grounded enclosure. Where the ring terminal contacts a painted enclosure panel, either install

a star lock washer between the terminal and the panel to cut through the paint, or scrape the paint away down to clean,

bare metal to ensure a good contact. Note: The star lock washer method is suitable for a shield ground, but not suitable for

a safety ground.

General Installation Requirements

This product is intended for use with the Product Sub Family system. Its components are considered open

equipment (having live electrical parts that may be accessible to users) and must be installed in an ultimate

enclosure that is manufactured to provide safety. As a minimum, the enclosure shall provide a degree of

protection against solid objects up to 12mm (e.g. fingers). This equates to a NEMA/UL Type 1 enclosure or an

IP20 rating (IEC60529) providing at least a pollution degree 2 environment.

Installation in Hazardous Areas

The following information is for products bearing the UL marking for Hazardous Locations or ATEX marking for

explosive atmospheres:

▪ EQUIPMENT LABELED WITH REFERENCE TO CLASS I, GROUPS A, B, C & D, DIV. 2 HAZARDOUS LOCATIONS IS

SUITABLE FOR USE IN CLASS I, DIVISION 2. GROUPS A, B, C, D OR NON-HAZARDOUS LOCATIONS ONLY

▪ Equipment labeled with  II 3 G is suitable for use in Group 2 Category 3 environments.

▪ WARNING – EXPLOSION HAZARD – SUBSTITUTION OF COMPONENTS MAY IMPAIR SUITABILITY FOR CLASS I,

DIVISION 2;

▪ WARNING – EXPLOSION HAZARD – WHEN IN HAZARDOUS LOCATIONS, TURN OFF POWER BEFORE REPLACING

OR WIRING MODULES; AND

▪ WARNING – EXPLOSION HAZARD – DO NOT DISCONNECT EQUIPMENT UNLESS POWER HAS BEEN SWITCHED

OFF OR THE AREA IS KNOWN TO BE NONHAZARDOUS.

▪  WARNING – EXPLOSION HAZARD – USB PORT IS ONLY FOR USE IN NONHAZARDOUS LOCATIONS, DO NOT

USE UNLESS AREA IS KNOWN TO BE NON-HAZARDOUS.

Features

• Supports redundant power supplies. Use of the second

power supply is optional.

• Supports “hot swap” of a redundant power supply that is de-energized.

• Standard PROFINET alarm and diagnostics reporting.

• Supports configuration using Classless InterDomain

Routing (CIDR) with subnetting and supernetting.

• Each network interface module can be connected into a

daisy-chain/line, star, or ring (redundant media) topology.

• Supports Media Redundancy Protocol (MRP) client mode operation.

• Can be upgraded in the field; supports firmware updates via USB port.

• Provides Maintenance Mode to allow servicing of the

remote node while maintaining network connections.

(Requires firmware version 1.10 or later.)

• Supports Hot-Standby CPU Redundancy using

PROFINET I/O. If the PNS loses communications with

the Primary IO-Controller, it switches to the Secondary

IO-Controller. (Requires firmware version 2.00 or later)

Note: The USB port is for firmware upgrades only. It

is not intended for permanent connection

The VersaMax* PROFINET Scanner (PNS) module interfaces a remote node of VersaMax modules to a PROFINET

IO-Controller. The PROFINET Scanner scans the modules in its node, retrieving input data and providing output data,

and publishes input data on the PROFINET Network at the configured production rate. The PNS manages PROFINET

communication and module configuration between an IO-Controller and modules within the remote node. If network

communications are lost, the PNS manages I/O states according to the individual module configurations.

The PNS is available in two versions to allow you to use the network media that meet the requirements of your application.

IC200PNS001: Two 10/100 Mbps copper interfaces

IC200PNS002: Two 100Mbps Multi-Mode fiber (MMF) ports

The PNS module’s main Remote IO functions include:

• Scanning all the modules within its stick (input and output scan).

• Publishing data onto the PROFINET network to an IO-Controller at a customer-specified production period.

• Receive data from an IO-Controller on the PROFINET network at a customer-specified production period.

• Managing PROFINET communication and module configuration between an IO-Controller and modules within the PNS node.

• Managing the state of the I/O when communications is lost

• Publishing fault information (alarms, diagnostics, etc.) to IO-Controller