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2024-10-28 BY
IN GE

GE Fanuc General Electric IC200ALG328 Output Module

The GE Fanuc Automation IC200ALG328 Versamax I/O module has an **update rate of 15 milliseconds. It requires thermal derating to operate properly.

About the IC200ALG328

The IC200ALG328 module is a Versamax I/O module designed and manufactured by GE Fanuc Automation.

This particular module provides 12 outputs. These outputs are analog current source type outputs.

They can operate over a current range of 4 to 20 milliamps. The module has 20.38 mA per channel to drive the output loads.

The channels of the GE Fanuc Automation IC200ALG328 Versamax I/O module can be used with the IC200ALG326 Versamax I/O module.

The channels of the IC200ALG326 module can be scaled using the IC200ALG326 module because they are similar and compatible.

The module is also compatible with Ethernet, Genius, Profibus, and DeviceNet firmware. It is also compatible with PLC CPU firmware and VersaPro software.

The GE Fanuc Automation IC200ALG328 Versamax I/O module has a thermal derating only when used at 30 volts DC and placed in a specific location on the DIN rail.

This derating is also dependent on the ambient air temperature present.GE Fanuc Automation www.ge-drive.com IC200ALG328 Versamax I/O Modules are rated for 18 to 30 volts DC.

The current draw is rated at 2 amps inrush current, and the power consumption is rated at 100 milliamps without load and 12 milliamps at full scale using all 270 outputs.

The module has a 13-bit resolution with an accuracy rating of up to 1%. The module is equipped with 2 LEDs and a diagnostic tool.

It can be hot-plugged, but this needs to be done carefully to retain all components in the rack and module.

The IC200ALG328 is a 12-channel, 13-bit current analog output module designed for the GE Fanuc Versamax family.

The IC200ALG328 has a default output range, but the output range can be easily changed with jumpers.

All outputs require external power, and the IC200ALG328 module will be intelligently processed by the CPU or Network Interface Unit.

If the backplane power or communication is interrupted, or if the PLC stops running, the outputs of the IC200ALG328 module can be easily kept in their last state, or in their default state via jumpers.

The backplane must send different output data to the module or the outputs will remain in their default or previous state.

In 0-20mA range mode, the current output signal value of 0mA corresponds to a %AQ value of 0 count and 20mA corresponds to a %AQ value of +32.000 count.

If in 4-20mA range mode, 0 %AQ count value corresponds to 4mA output current and +32.000 %AQ count value corresponds to 20mA output current.

If the IC200ALG328 is placed in the PLC rack, the negative value will be adapted and commanded as 0mA regardless of the range selected.
2024-10-25 BY
IN Mitsubishi Power

Steam Power Plants

Mitsubishi Power designs and delivers highly efficient and environmentally friendly power generation facilities, including boilers, steam turbines, generators, air quality control systems, and other auxiliaries.

A steam power plant consists of a boiler, steam turbine and generator, and other auxiliaries. The boiler generates steam at high pressure and high temperature. The steam turbine converts the heat energy of steam into mechanical energy. The generator then converts the mechanical energy into electric power.

Our highly efficient and environmental friendly power plants will contribute to the stable supply of electrical power and reduction of environmental impact.

Large Capacity Power Plants

Applying ultra-supercritical pressure technology for highly efficient power generation

Our highly efficient and environmentally friendly power plants have an impressive track record in field of supercritical and ultra-supercritical pressure power plants and high level of trust in the market. We will contribute to the stable supply of electric power and to the reduction of environmental impact all around the world, based on our advanced technologies.

What is ultra-supercritical pressure?

Under normal atmospheric pressure [0.101 MPa], water boils at 100ºC. As pressure increases, the boiling temperature of water also increases. When the pressure is increased to 22.12 MPa, and at a temperature of 374ºC, water does not boil but is directly converted into steam. This is called the critical point, and the pressure above this critical point is called supercritical pressure. Supercritical pressure with a temperature equal to or more than 593ºC is called ultra-supercritical pressure.

Co-generation Plants

Paving the way for effective use of energy

Co-generation plant is a power plant to supply both electric power and heat (in most cases steam). Co-generation plants are applied as effective solution for industrial purpose power plants to factories. Utilization of surplus energy from the factory as fuel for the boiler will further enhance effective use of the available energy. Industrial purpose power plants are also functional as distributed generations. We will contribute to optimization of energy usage and to the reduction of environmental impact, based on our advanced technologies.

Engineering, Procurement and Construction (EPC) Services

Supplying power plants matching customers’ needs

We are not merely a manufacturer that designs and manufactures the equipment and devices required for thermal power plants. We also provide EPC services, including plant construction.Power plants are consisted by Main plant equipment, such as boilers, steam turbines and generators, and miscellaneous auxiliary equipment. Since we are capable both on main equipment supplier and EPC, we are capable to optimize design condition for boilers, steam turbines and generators,based on the required electrical power and heat output. One strength lies in our engagement in design, manufacturing and construction of optimal plants in an integrated manner to ensure requirement of customer, suitability to location, with the maximized performance of the major equipment.
2024-10-25 BY
IN Mitsubishi Power

Gas Turbine Combined Cycle (GTCC) Power Plants

World-class Power Generation Efficiency

At Least 64% (LHV)

Wide Output Range

30 to 1332 MW Class

Combined Cycle Power Plants

On Grid Facility for Verification Testing

CO2 Emissions Compared with Those of Conventional Coal-fired Thermal Power Generation

About 50% Lower

High efficiency energy through combined cycle power generation

Gas turbine combined cycle (GTCC) power plants use natural gas to deliver the cleanest and highest efficiency power generation.

Plants employing state-of-the-art gas turbines of Mitsubishi Power have a 20% higher power generation efficiency than conventional coal-fired thermal power generation systems and the world’s highest level of efficiency of more than 64%. That enables CO2 emissions an approximate 50% reduction.

What is GTCC?

In the power generation method characterized by the standalone operation of a gas turbine, known as the simple or open cycle, releases exhaust gas at temperatures of around 600℃ into the atmosphere.

Combined cycle power generation improves the general thermal efficiency of the plant by recovering this high temperature exhaust gas. Many combined cycle power generation plants adopt a waste heat recovery cycle in which exhaust gas from the gas turbine is led to the waste heat recovery boiler to generate steam using recovered heat to drive the steam turbine.

Advantages and Features that Make the GTCC the Mainstream for New Thermal Power Generation Facilities

High level of thermal efficiency

In comparison with thermal efficiency of about 40% in steam power generation, combined cycle power generation features a thermal efficiency of at least 60% (with both figures on the lower heating value basis).

Environmentally-friendly

Carbon dioxide (CO2) is released in smaller quantities into the atmosphere.

Nitrogen oxides (NOx) and sulfur oxides (SOx) are released in smaller quantities into the atmosphere.

High temperature wastewater is discharged in smaller quantities into the sea.

Our GTCC Business

In 1984. we delivered a combined cycle power plant to the Higashi-Niigata Thermal Power Station of Tohoku Electric Power Co., Inc. to achieve a revolutionary thermal efficiency over 44%, then the world’ s highest. It attained far greater energy efficiency than conventional thermal power plants.

In 1999. a combined cycle power plant incorporating the G-series gas turbine was constructed and delivered for the No. 4 Series for the same power station. The thermal efficiency of the plant exceeded 50%. In 2018. the combined cycle power plant with the J-series gas turbine reached a cumulative total operation time of 600.000 hours as a commercial system. A cumulative total operation time of more than 600.000 hours is a yardstick for the reliability of gas turbines in the power generation industry.

As Japan’ s one and only manufacturer engaging in design, manufacturing, civil engineering, installation, commissioning and after-sales services with its own technologies, we proudly hold a great track record.

For overseas markets, we have exported the combined cycle power plants to about 20 countries mainly in Southeast Asia, the Middle East, Europe, North America and South America.
2024-10-25 BY
IN Mitsubishi Power

Overview and Verification Status of T-Point 2 Demonstration Facility Gas Turbines

Combined Cycle Power Generation

T-Point 2 is located at Takasago Machinery Works in Hyogo Prefecture, Japan.

It is the only commercially operating power plant in the world that was specifically built for validation of power solutions.

Its uniqueness is the robust long-term validation process that minimizes risk for customers and gives assurance of product performance and durability for subsequent units of the same frame.

Purposes of the T-Point 2

To validate gas turbine technologies newly applied to achieve higher efficiency, allow operations at elevated temperatures, and reduce NOx.

To validate the reliability through long-term commercial operations of the highly efficient and environmentally friendly combined-cycle power generation.

Development of T-Point

The original T-Point demonstration facility began operation in 1997 with M501G (60 Hz), which was upgraded to M501J in 2010 and M501JAC in 2015 with response to the power industry’s demand for large-scale, high-efficiency power generation.

Since the original T-Point can not satisfy the further requirement for larger capacity and higher efficiency, we made a decision to build T-Point 2.

T-Point 2 entered full commercial operation with an enhanced JAC gas turbine from July 2020.Validation of Next Generation

Combined Cycle Power Generation

With its combination of gas turbine and steam turbine,T-Point 2 is cutting edge combined cycle power plant validation facility.

By developing next-generation technologies and validating them in T-Point 2 GTCC facilities, Mitsubishi Power helps its customers world-wide attain a stable electricity supply.

Long term demonstration of off-site plant control at T-Point 2 is conducted from the Mitsubishi Power Takasago TOMONI HUB (Analytics and Performance Center). Validation operations are run to increase the reliability of the entire plant including the main equipment such as turbines as well as auxiliary equipment such as pumps and fans. In addition, various applications of a suite of intelligent solutions TOMONI™ that serve to shorten start-up time and automatically optimize operation parameters are installed in T-Point 2. Mitsubishi Power will also be training its AI applications, allowing T-Point 2 to eventually become the world’s first autonomous combined cycle power plant.
2024-10-25 BY
IN Emerson

Emerson DeltaV™ M-Series Product Description

The Traditional I/O subsystem includes:

I/O interface carrier (a DIN rail surface mounted) on which all I/O related components are installed.

Bulk AC to 24V DC power supply for field devices.

An I/O interface consisting of an I/O card and an I/O terminal block.

A variety of analog and discrete I/O cards enclosed  in a common form factor that easily plugs into the  I/O interface carrier.

A variety of I/O terminal blocks mounted on the I/O interface carrier that can be pre-wired before I/O card installation.

I/O Cards

A variety of analog and discrete I/O cards are available to meet your specific requirements.

The following cards support simplex or redundant installation:

AI 4-20 mA HART 8 channels

AO-4-20 mA HART 8 channels

DI, 24V DC Dry Contact, 8 channels

DO 24V DC High-Side, 8 channels

AI (Plus) 4-20 mA HART, 16 channels

AO (Plus) 4-20 mA HART, 16 channels

DI (Plus) 24V DC, Dry Contact, 32 channels

DO (Plus) 24V DC, High-Side, 32 channels

The following I/O cards are supported in simplex format  to meet your field wiring needs.

AI Isolated, 4 channels

RTD, 8-channels

Thermocouple, 8 channels

Millivolt, 8 channels

DI, High Density, 32 channels

DI 24V DC Isolated, 8 channels

Multi-Function, 4 channels (Isolated DI)

Sequence of Event, 16 channels (DI 24 V DC)

DI 120V AC Low Side Detection, 8 channels

DI 120V AC Isolated, 8 channels

DO 24V DC Isolated, 8 channels

DO 120/230V AC High-Side, 8 channels

DO 120/230 Isolated, 8 channels

All I/O cards are enclosed in a common form factor that plugs into the I/O interface carrier. www.ge-drive.com The housing is clearly labeled with the enclosed I/O card type. All cards have power and internal error indicators. Eight-channel cards have clearly visible channel

status LEDs.

All cards meet ISA G3 corrosion specifications by the careful selection of superior electronic components and the use of conformal coating.

Pulse Counters are available on most DI cards. The supported maximum frequency varies from 0.1 Hz on AC signals to  75 or 120 Hz on 24V DC inputs. For higher pulse counts,  up to 50 KHz, use the Multi-Function card’s high speed pulse input.

The DeltaV system provides control module level time stamping for log events and alarms. For greater event resolution, the 16-channel Sequence-of-Events DI card can provide signal driven events to a resolution of +/- 0.25 ms per card, or within 1 ms per controller. Please refer to the Sequence-of-Events PDS for more information on Sequence-of-Event data collection and system options for this feature.

I/O Card Redundancy

Redundant I/O cards are available for critical applications.

The same card can be used in simplex or redundant applications. When installed on a two-wide redundant terminal block, the cards are recognized as a redundant pair by the controller. The controller scans each card and determines which card is acting as the active interface. When a fault is detected, the system automatically switches to the standby I/O card.

DeltaV Control modules reference simplex and redundant I/O channels identically and there is no special configuration required to take advantage of redundancy.

Switchover of a redundant I/O card is completed within two scans of the I/O bus. Make-before-break contacts ensure digital field instruments remain powered and the process is undisturbed. Analog output signals are briefly driven by both cards for < 5 ms during switchover of the card.

Hardware Alerts automatically report hardware integrity errors for both the primary and secondary cards. Any event that causes a switchover is also reported automatically through the system hardware alerts and is logged in the Event Chronicle.

Events that can cause a switchover include.

Hardware failure within the active card.

Communications failure between the active card and the controller.

Detection of a fault in the field wiring.

A switchover may also be initiated from the diagnostics explorer, and the health and status of both cards and  their channels are available in the diagnostics explorer.

The system automatically commissions a new standby card.

In safe areas, failed cards can be replaced under power.

In hazardous areas, appropriate installation procedures must be followed.
2024-10-25 BY
IN Emerson

Emerson DeltaV™ M-series Traditional I/O

Introduction

Traditional I/O is a modular subsystem that offers flexibility during installation. It’s designed to be installed in the field, near your devices. Traditional I/O is equipped with function and field wiring protection keys to ensure that the correct I/O card is always plugged into the corresponding terminal block.

Modularity, protection keys, and plug-and-play capabilities make DeltaV™ Traditional I/O a smart choice for your process control system.

Decreases capital equipment costs

Decreases installation time and expense

Increases productivity

Increases process availability

Benefits

Decreases capital equipment costs

Full system modularity: The Traditional I/O subsystem was designed with your investment in mind. All components are fully modular and may be installable under power. You add I/O interface carriers and I/O interfaces in groups of 4. 8. 16.or 32 channels as you need them. The modular design enables you to purchase the exact amount of I/O cards, 8-wide or 4-wide carriers, power/ controllers, and 2-wide carriers you need and add more DeltaV I/O as your system grows.

Reduced system footprint: The DeltaV system’s state-of-the- art form factor design of the I/O components enables you to mount the I/O interface carrier in a junction box in the field  so you significantly reduce the footprint of your equipment  and increase valuable control room space for other uses.

Installation: Save on wiring expenses by installing Classic Instrumentation in the field, near the actual field devices.

Mounting the controller with the I/O further reduces your wiring expenditures by eliminating the need for long runs  of multi-cores. The integrated design of the Traditional I/O subsystem can eliminate the need for marshalling panels.

This saves you even more in your total capital costs.

The provision of in-line fuses and bussed power saves  on installation costs compared with external fuses and  power distribution.

Decreases installation time and expense

Plug-and-play installation saves money: All Traditional I/O components plug into the I/O interface carrier. www.ge-drive.com You can install the I/O interface carriers to manage anticipated growth and postpone the I/O interfaces until you’re ready to install your additional field devices.

Phased installation saves time: As soon as you mount the I/O interface carrier, you’re ready to begin installing the field devices. I/O terminal blocks plug directly onto the I/O interface carrier. There is no need to have the I/O cards installed.

Keys: Traditional I/O interfaces and terminal blocks have  I/O function keys. These keys ensure that the correct I/O  card is always plugged into the corresponding terminal block.

It’s incredibly easy to use and gives you time to do more.

This design enables you to initially install Traditional I/O  quickly and efficiently. When you need to replace an I/O card, the function key design ensures that you will always install  it correctly. This keying system provides a safety measure  by preventing the wrong I/O interface’s being installed.

Increases productivity

Real-time, online equipment additions: Online addition of new I/O interfaces means your process does not get interrupted. As new equipment is added, the DeltaV Explorer

acknowledges it and assigns it basic configuration.

Increases process availability

1:1 Redundancy for Traditional and HART I/O cards:

DeltaV redundant I/O uses the same Series 2 I/O cards as  non- redundant I/O. This allows you to leverage your investment in installed I/O and in I/O spares. No additional configuration is needed when using a redundant channel. The redundant terminal blocks provide the same field wiring connections  as simplex blocks, so there is no extra wiring needed.

Autosense of redundancy: DeltaV autosenses redundant I/O, which greatly simplifies the task of adding redundancy to the system. The redundant pair of cards is treated as one card  in the system tools.

Automatic Switchover: Should a primary I/O card fail,  the system automatically switches to the “standby” card without user intervention. The operator is given clear

notification of a switchover at the operator display.
2024-10-25 BY
IN GE

GE Versamax Family of Products IC200CHS003 Connectorized I/O Carrier

The IC200CH003 is a connectorized I/O carrier from GE Fanuc Automation.

The IC200CH003 I/O carrier weighs 0.113 kg and has a 36-pin connector for input/output cables.

The carrier provides backplane communication, mounting, and field wiring for one input/output module.

You will find a module latch hole for securing the module to the carrier.

The carrier also provides quick connections for wiring up to 32 input/output points and 4 common power connections.

During rail mounting, the IC200CH003 I/O bracket snaps easily into the DIN rail.

The dimensions are as follows: 7.5 mm x 35 mm: 7.5 mm x 35 mm.

For EMC protection, the DIN must be electrically grounded. The rail must also be electrically conductive and corrosion resistant.

The field wiring can be connected directly to the connector itself by means of contacts crimped onto the end of the wires.

I/O devices can be connected directly to the mating I/O terminals. To install a prewired connection cable, place the cable connector over the connector on the carrier and press down until the latch engages the connector.

To remove the cable, you must hold the connector and press the latch upward to release the connector.

Occasionally, the operating equipment may become hot due to high ambient temperatures. In this case, handle the connector carefully.

Do not touch them directly. Also, avoid exposed connector pins.

Connector kits for making customized cables are available and include a connector and a cover, 6 large contacts, 2 screws, and 36 small contacts.

The IC200CH003 carrier can be used with all VersaMax modules except the following, which have higher isolation requirements:

IC200MDL144 4-Point Isolation Module with Voltage Input 240 VAC

IC200MDD850 Hybrid 240 VAC 4-point Isolation Module

Output Relay 2.0A Isolated 8-Point Module

The Versamax IC200CHS003 Carrier is a connectorized I/O carrier.

The IC200CHS003 carrier has a 36-pin connector for connection to I/O cables.

About the IC200CHS003

The IC200CHS003 carrier is a connectorized I/O carrier that is part of GE Fanuc’s Versamax family of I/O products.

The IC36CHS200 carrier has a 003-pin connector for connecting I/O cables.

The IC200CHS003 bracket provides mounting, backplane communications, and field wiring for one I/O module.

The IC200CHS003 bracket measures 2.63 x 5.25 inches and is mounted on DIN rail measuring 7.5 mm x 35 mm.

Compatible modules are mounted vertically on the IC200CHS003 bracket perpendicular to the DIN rail.

GE Fanuc recommends using corrosion-resistant, unpainted DIN rails. It is also recommended that the DIN rail be grounded to provide EMC protection.

For applications requiring resistance to mechanical shock and vibration, the IC200CHS003 bracket should be mounted inside an industrial panel.

I/O devices can be connected to the plug-in I/O terminals on the IC200CHS003 carrier.

Connection to the IC200CHS003 connectorized carrier is via cable.

Available cables include the IC200CBL105 cable (2 connectors, 0.5 m, unshielded), the

IC200CBL110 cable (2 connectors, 1 meter, unshielded), the

IC200CBL120 cable (2 connectors, 2 meters, unshielded) and IC200CBL230 cable (1 connector, 3 meters, unshielded).

A notch is provided on the connector to indicate pin orientation.GE Fanuc offers a connector kit for building custom cables.

The kit part number is IC200ACC304.

Due to isolation requirements, the IC200CHS003 carrier can be used with all Versamax I/O modules.

The exception is the following modules: IC200MDL144. IC200MDL244. and IC200MDD850 modules.

The IC200CHS003 carrier can accommodate the following current levels: 8 amps of power and ground current, and 2 amps of point current.

The module can withstand voltage transients up to 300 volts AC.

Applications: power, oil, gas, chemical, turbine, marine, nuclear, substation, aerospace, metallurgy, mining, steel, aluminum, etc.

Control system: plant control and monitoring system (DCS/PLC) equipment control system ship control system production control system equipment control system

Energy management systemPower monitoring systemFrequency conversion servo systemMedium voltage power systemShaft vibration analyzerInfrared flame detectorGas analyzerCombustion fluctuation monitoring system and so on.
2024-10-25 BY
IN GE

GE Versamax Family of Products IC200MDL743 Discrete Output Module

The IC200MDL743 discrete output module is a 5. 12. and 24 VDC negative logic output module that is part of the Versamax family.

It has 16 discrete outputs in a bank and an external power supply.

About the IC200MDL743

The Versamax IC200MDL743 discrete output module is a GE Fanuc 5. 12. and 24 VDC and 0.5 A rated negative logic output module.

It has 16 current-flooded discrete outputs that switch the load to the negative side of the DC supply. The module does not have any internal fuses for protection.

The output module connects directly to the controller and www.ge-drive.com  also allows for “hot” insertion, making installation easy.

The IC200MDL743 discrete output module communicates with the backplane through an I/O rack. The backplane provides the power needed to operate the modules.

It draws 70 mA** from the backplane. It also has an external power supply to provide the required power to the load.

The IC200MDL743 discrete output module has an on response time of 2.1 ms at 0 V DC, an off response time of 0.0 ms, and an output leakage current of 5.30 mA.

It features a compact modular design for easy and space-saving installation. This module does not provide group-to-group isolation or point-to-point isolation.

It can be used to drive a variety of output devices such as lamps, relays, and motor starters. Power wiring is recommended,

control wiring and communication signal wiring separately to minimize insulation failures and wiring errors.

There are different types of brackets, such as box brackets and spring-loaded compact brackets, to make the wiring process easy.

The IC200MDL743 discrete output module features automatic I/O addressing to maximize ease of use in PLC-based industrial control applications**.

The IC200MDL743 is a discrete signal output module from General Electric’s VersaMax family.

The device has 16 output points, each of which can be either negative logic or sinking type.

The output points on the module load-switch the negative side (also known as the return side) of a DC power supply to receive current from an electrical load.

All output load switching on the IC200MDL743 requires an external power supply. The device has two modes of operation, each with its own voltage requirements.

In the standard 12/24-volt direct current (VDC) mode, the output voltage range is 10.2 to 30 volts DC, with nominal voltages of 12 and 24 volts DC.

In 5VDC-TTL (transistor-transistor logic) mode, the output voltage is 4.75 to 5.25 volts DC, where 5 volts DC is nominal.

Each output point on the module can handle half an ampere of current in the 12/24 volt DC mode and 25 milliamps in the 5VDC-TTL mode.

Output leakage current is 0.5 mA when operating at 30 volts DC. The maximum on and off response times are 0.2 ms and 1.0 ms, respectively, for each output point.

The IC200MDL743 does not support thermal derating. The module also does not have any channel or point isolation and does not provide protection such as internal fuses.

All processing of 32-bit discrete output messages is done by the central processing unit (CPU) or network interface unit (NIU).

The IC200MDL743 is 4.3 inches wide, 2.63 inches high, and 1.956 inches deep.

Note: These specifications do not include carrier height and mating connectors.
2024-10-25 BY
IN GE

GE Fanuc IC670GBI102 Genius Bus Interface Module

The IC670GBI102 is a Genius bus interface module manufactured by GE Fanuc.

The module is part of the Field Control family and is primarily used to realize distributed I/O architectures by connecting field control I/O modules to host GE CPUs via a Genius bus network.

It features a series of screw terminals for terminating the Genius main bus and optional redundant buses; one (1) 9-pin D-shell display port for connecting a handheld programmer (D-Shell); and a 9-pin D-shell display port for connecting a handheld programmer (D-Shell) to the host computer.

It is capable of hosting up to eight (8) field control I/Os and supports standard Profibus transfer speeds, such as 153.6 Kbaud.

It is capable of hosting up to eight (8) field control I/Os and supports standard Profibus transfer speeds such as 153.6 Kbaud standard, 153.6 Kbaud extended, 76.8 Kbaud, or 38.4 Kbaud.

About the IC670GBI102

The IC670GBI001 is a communication module for the GE Fanuc field control series. The module specifically supports the Genius Bus protocol, allowing users to realize distributed I/O architectures.

The module is used in conjunction with the Genius Bus Interface Unit terminal block for DIN rail or panel mounting.

The terminal block also carries screw terminals that allow the establishment of a master Genius Bus connection and an optional redundant network connection.

The IC670GBI001 supports a daisy-chain topology on both the primary and secondary buses.

The module supports data transfer rates of 153.6 Kbaud standard, 153.6 Kbaud extended, 76.8 Kbaud, or 38.4 Kbaud.

Available memory allocations for various data types, such as 256 bytes for discrete inputs (%I), status data, and smart modules; 256 bytes for discrete outputs (%I), status data, and smart modules.

256 bytes for discrete outputs (%Q) and fault clearing for smart modules; 256 bytes for analog inputs (%AI) and 256 bytes for analog outputs (%AQ).

Both the primary and secondary bus connections have a terminating resistor connection point, which is used to terminate the bus connection and maintain a stable connection throughout the network.

The termination points are assigned exclusively to the Serial 1 and Serial 2 terminals and are installed at the beginning (**node) and end (*last node) of the bus.

Resistor values include 75 Ohm, 100 Ohm, 120 Ohm, or 150 Ohm termination resistors.

Pre-formed bus cables can also be used with this bus interface module, catalog number IC660BLM508. using 75 ohm resistors and IC660BLM506. using 150 ohm resistors.

The IC670GBI102 bus interface unit is a field control bus interface unit manufactured by GE Fanuc.

The unit is part of the GE Field Control family and is compatible with the IC670GB and IC670GBI modules.

This programmable control module operates over a temperature range of 0 to 55 degrees Celsius (32 to 131 degrees Fahrenheit).

The storage temperature range is -40 to 85 degrees Celsius (-40 to 185 degrees Fahrenheit).

The IC670GBI102 Bus Interface Module has a relative humidity range of 5% to 95% (non-condensing).

The IC670GBI102 bus interface unit can withstand solid-state vibration and shock levels typical of industrial environments, and it is mounted on a panel-mounted DIN rail.

The IC670GBI102 Bus Interface Unit operates on both AC and DC power supplies with operating voltages ranging from 90 to 135 volts AC and 105 to 150 volts DC.

The nominal voltage rating of the IC670GBI102 Bus Interface Unit is 115 volts AC and 125 volts DC.

Power consumption** is 115 volt-amperes at 48 volts AC and 125 watts at 24 volts AC.

Specify power consumption for operation at full load. The inrush current of the unit is 20 amps at peak and **lasts 3 milliseconds.

The unit has a **Hold Time** of 20 milliseconds and the power supply output voltage is 6.5 volts DC.

The input frequency of the unit is 47 to 63 Hz. The bus interface unit has 16 mA terminals and has a reliability rating of over 600.000 hours.

IC670GBI102 Frequently Asked Questions

1. What is the difference between IC670GBI102 and IC670GBI002?

The IC670GBI102 is powered by a 115 VAC / 125 VDC input voltage, while the IC670GBI002 is powered by 24 VDC.

2. Does IC670GBI102 support insertion and removal of the module under power-on condition?

Yes. Provided that the module has the suffix “J” on the catalog number.

3. How reliable is the IC670GBI102?

The reliability of the IC670GBI102 has been calculated to exceed 183.000 hours MTBF of operation.

1. What is the data size that IC670GBI001 can handle?

The supported data size is 256 bytes for discrete inputs (%I), status data, and smart modules.

256 bytes for discrete outputs (%Q) and fault clearing for smart modules; 256 bytes for analog inputs (%AI) and 256 bytes for analog outputs (%AQ).

2. What is the data transfer rate supported by the IC670GBI001?

The IC670GBI001 supports 53.6 K baud standard, 153.6 K baud extended, 76.8 Kbaud, or 38.4 Kbaud.

3. Does the IC670GBI001 support redundancy?

Yes. The IC670GBI001 has built-in support for network redundancy.

IC670GBI102 Technical Description

The IC670GBI102 is a bus interface unit that is part of a field control system.

It acts as a connector module for each field I/O system and manages the interface between the main PLC or computer via Genius Bus.

It is capable of exchanging 128 bytes of input and 128 bytes of output data and supports up to eight (8) field control I/O modules.

This module supports a hot standby CPU configuration and requires an external 90 – 135 VAC / 105 – 150 VDC supply voltage, nominal 115 VAC / 125 VDC.
2024-10-25 BY
IN GE

GE Fanuc IC670ALG230 8-Point Analog Current Source Input Module

The IC670ALG230 is an 8-point analog current source input module for the GE Fanuc field control series.

The module features eight (8) single-ended input channels configurable as 0-20 mA / 4-20 mA with a 12-bit digital resolution and a 5 0 μA analog resolution.

The digital resolution is 12 bits and the analog resolution is 5.0 μA. It has a typical conversion time of 60 microseconds per channel.

The IC670ALG230 is a GE Fanuc analog input module. It is specifically an expansion module for the Field I/O Control product family.

It can be operated with compatible Bus Interface Units (BIUs). The module primarily has eight (8) analog input channels.

It accepts 0-20 mA and 4-20 mA analog input signals. The module is primarily used to connect many types of field signal transmitters,

panel meters, data loggers, signal splitters, variable frequency drives (VFDs), and similar devices.

The IC670ALG230 has an analog resolution of 5.0 μA and a digital resolution of 12 bits (typical).

It accepts a **minimum input current of 0.1 mA and an **input current of 20 mA.  www.ge-drive.com It has internal protection features such as open-circuit detection and over-range fault detection.

The IC670ALG230 has a built-in analog-to-digital converter (ADC) circuit that converts received analog signals into digital format for processing by the host CPU.

The ADC circuit has a conversion time of 1 μs per channel at a module clock of 60 MHz. it also has a first-order RC input filter with a typical conversion capability of 1 Hz.

The module has a nonlinearity of +/- 160% of full scale, a temperature coefficient of +/-.25% per Celsius value, a typical value of +/-.002% per Celsius value, and a ** value of +/-.002% per Celsius value.

**value of +/-.005% per degree Celsius value. The module comes with a single set of input channels and supports single-ended wiring configurations.

Each channel has ground and logic isolation and is rated at 1500 VAC for 1 minute and 250 VAC.

It has a rated current consumption of 51 mA** from the BIU power supply.

The IC670ALG230 input module is an 8-channel input module manufactured by GE Fanuc.

It can be operated with a universal power supply. It is powered by a 24-volt power supply that also powers the Bus Interface Unit.

In the case of isolation, a separate power supply is used. There are LED indicators on the front of the module that show the operation of the backplane and the field power.

The input module is used to drive the different isolated sensors and inputs using the local power supply. There is no isolation between points in the group.

Isolation is rated at 250 volts AC to the enclosure and 1500 volts AC to ground for a continuous period of 1 minute.

The input impedance of the module is 2.87 kohms. turn-on voltage is between 15 and 30 volts dc, and turn-off voltage is between 0 and 5 volts dc.

The response time of the IC670ALG230 input module is between 25 and 60 us, and the power-down response time is between 100 and 150 us.

This module draws 100 mA of current from the bus interface unit. Output keying in this module can be used to mix inputs and outputs.

The input module should be properly grounded to reduce immunity, signal co-domain, and reference points. The loop powered transmitters in the module should use the same power supply.

Application areas: electric power, petroleum, natural gas, chemical industry, steam turbine, ship, nuclear power, substation, aerospace, metallurgy, mining, iron and steel, aluminum industry and other fields.

Control system: plant control and monitoring system (DCS/PLC) equipment control system ship control system production control system equipment control system

Energy management systemPower monitoring systemFrequency conversion servo systemMedium voltage power systemShaft vibration analyzerInfrared flame detectorGas analyzerCombustion fluctuation monitoring system and so on.

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