Category: ABB

Description

The wireless controller ARC600 is a compact solution-based device for remote control and monitoring of secondary substations in the distribution network, such

such as network disconnect switches, load disconnect switches and ring mains units (RMUs).

switches and ring mains units (RMUs) in the distribution network. It enables SCADA systems to wirelessly monitor and control field devices over the public communications infrastructure (cellular networks).

The wireless controller ARC600 utilises the built-in wireless communication capabilities for reliable and secure end-to-end communication.

Three switchgear devices can be remotely monitored and controlled, and can be expanded as needed using external I/O expansion modules.

The use of the wireless controller ARC600 in the distribution network improves the quality of power distribution and reduces outage times in affected areas.

Outage times and the overall impact on areas directly adjacent to these affected areas are reduced.

Additionally, by integrating legacy equipment, capital expenditures in the distribution network can be reduced and cost savings can be achieved more directly by promoting preventive maintenance.

By reducing the System Average Interruption Duration Index (SAIDI) and System Average Interruption Frequency Index (SAIFI), the

operating expenses can be reduced, resulting in lower penalties for undelivered energy.

The wireless controller ARC600 is also ideally suited for retrofitting into existing applications to remotely control these devices and further extend the life of the switchgear itself.

Communication with SCADA systems typically uses the IEC-104 protocol, but for existing installations using IEC-101 lines or modems, the ARC600 wireless controller also supports communication with SCADA systems.

The Wireless Controller ARC600 also supports IEC-101 communication (including dial-up) with SCADA systems.

Complete Communication System

The Wireless Controller ARC600 is often part of a complete communications system.

The system consists of an Arctic 600 series gateway or controller and a central M2M gateway, the ARM600 Communication Server.

The M2M gateway is an important part of the overall communications solution and has the functionality required to create a reliable end-to-end communications system.

– Static IP address for Arctic 600 series devices – standard SIM card can be used which is carrier independent

– VPN Concentrator – secure communications between a central location and remote sites

– Arctic Patrol – centralised device management application for monitoring Arctic 600 Series devices

– Firewall – network security system to control incoming and outgoing network traffic

Applications

The functionality of the wireless controllers ARC600 has been developed specifically for monitoring switchgear in secondary substations.

They are linked to the central control system (SCADA/DMS) that manages the utility network and are the heart of the secondary substation automation system.

Key features

– Highly reliable control and monitoring of up to three switchgears per ARC600

– Status information for three switchgear devices and three earthing disconnectors

– Disconnect switch position and grounding status via front LEDs

– Local and remote use of the disconnectors

– Actuator motor overload protection

– Measurement of load current in the motor circuit

– Motor overload protection based on current limiting (software fuse)

– Isolation switch open and close time measurement

– Supports Fault Passage Indication (FPI) for improved fault management

– Supports external MV directional fault indication and multi-function LV power quality metering

– Integrated Wireless Communications

– Always-on two-way communication based on cellular networks (GPRS, 3G, LTE)

– Communication monitoring and automatic reconnection

– High data security through internal VPN and firewalls

– Supports Arctic Patrol centralised device management application

– Protocol converters

– Reliably connects legacy IEC-101 and Modbus serial devices to modern IEC-104 and www.abb-drive.com Modbus TCP TCP TCP TCP/IP based control systems

– Built-in battery charger with advanced battery control features

– Temperature compensated charging

– Battery monitoring/testing (condition monitoring)

– Deep discharge protection

– IEC-101 SCADA compliant

– IEC 60870-5-101 slave (including dial-up) to support existing system installations

– Supports the possibility of future SCADA migration from IEC-101 to IEC-104. as the mode of operation is selected via parameterisation

– IEC-101 mode of operation as an unbalanced slave device

– Heater control to limit the effects of ambient temperature changes (e.g. condensation)

– Rugged aluminium housing design for easy DIN rail mounting

Load cells are machined from a single piece of stainless steel. The load cell is machined directly onto the steel piece and is positioned so that it is sensitive to forces in the direction of measurement and insensitive to forces in other directions.

The load cell is mounted to the base with four screws and the bearing housing is mounted to the top of the load cell with four screws.

Each load cell is calibrated and temperature compensated.

The load cells PFCL 201C/201CE/201CD are available in four measuring ranges and all models have the same external dimensions.

The load cell PFCL 201C is equipped with connectors for plugging and unplugging the connection cable.

The load cell PFCL 201CE is equipped with a connection cable with protective hose.

Load cell PFCL 201CD with acid-proof cable gland and PTFE insulated connecting cable.

Repeatability error

Repeatability error is the maximum deviation between repeated www.abb-drive.com readings under identical conditions. It is expressed as a percentage of the sensitivity at rated load.

Compensation Temperature Range

The temperature drift of a load cell is compensated for over a specific temperature range. This is the temperature range over which the load cell maintains the specified allowable temperature drift (i.e. zero drift and sensitivity drift).

Operating Temperature Range

The operating temperature range is the temperature range over which the load cell can operate within the specified accuracy. The load cell’s maximum allowable temperature drift (i.e. zero drift and sensitivity drift) does not necessarily remain constant throughout the operating temperature range.

Storage Temperature Range

The storage temperature range is the temperature range over which the load cell can be stored.

Zero Drift with Temperature

Zero drift is the variation of the sensitivity-related signal with temperature when the load cell is at zero load.

Sensitivity Drift with Temperature

Sensitivity drift is the variation of the signal with temperature, related to sensitivity, excluding zero drift, at rated load.

Compression

Compression is the total reduction in load cell height when the load is increased from zero to the rated value. The total reduction of the load cell height when increasing from zero to the rated value.

Measuring principle of the load cell

The measuring principle of the load cell is based on the Pressductor® technology and the fact that the magnetic permeability of magnetic materials changes under mechanical stress.

The load cell is a thin film machined on the load cell. The primary and secondary windings are wound at right angles through four holes in the load cell.

The primary winding is powered by alternating current, which generates a magnetic field around the primary winding. Since the two windings are wound at right angles to each other, no magnetic field is generated around the secondary winding as long as there is no load on the load cell.

When the sensor is subjected to a mechanical force in the measuring direction, the propagation of the magnetic field changes to encircle the secondary winding, generating an alternating voltage in this winding.

The control unit converts this alternating voltage into a DC voltage proportional to the external force. If the measuring force changes direction, the sensor signal also changes polarity.

Mounting arrangement

When choosing a mounting arrangement, it is important to remember to place the load cell in a direction that provides sufficient measuring force (FR) to achieve the highest possible accuracy.

There is no specific correct orientation for the load cell; it should be placed in the direction best suited to the application, taking into account the location of the screw holes. It is also possible to mount the load cell by suspending the roll below the load cell.

The load cell has the same sensitivity in tension and compression, so the load cell can be mounted in the easiest way possible.

Typical mounting methods are horizontal and inclined mounting.

AC 700F Controller

The AC 700F controller has a small footprint and supports PROFIBUS. it can support up to eight direct I/O modules.

As a member of Freelance, the AC 700F controller offers many advantages over PLC-based solutions:

Distributed process control systems (DCS) simplify engineering, commissioning and maintenance of automation systems.

Visualisation is directly integrated making configuration particularly easy.

The AC 700F can also be extended by Profibus remote I/O units. In addition, field devices can be connected to the AC 700 F. Due to the flexibility of Ethernet and the small footprint, the AC 700 F can also be used as a competitive intelligent Ethernet I/O in junction boxes in non-hazardous areas of the site.

The ABB AC700F is a controller from ABB that is part of the Freelance 800F distributed control system (DCS).The AC700F controller is suitable for automation applications that are smaller in size, require less reliability, and have a large number of control devices with a high degree of independence.

The AC700F controller has the following features:

Affordable: The AC700F controllers are cost-effective PLC controllers that provide a more affordable Micro DCS solution for small point-size process control applications.

Seamless Integration: The AC700F controller can be seamlessly integrated into the Freelance 800F system via Ethernet, making it easy for users to expand and upgrade the system.

Programming and Configuration Tools: The AC700F controller adopts the same integrated programming and configuration tools as the AC800F controller, i.e., Freelance Engineer Station (Control Builder F), which is convenient for users to carry out programming and configuration.

Data Integration: The data from the AC700F controller can be seamlessly integrated into the main system DCS operator station without the need for additional HMI programming, improving system integration and efficiency.

In addition, the AC700F controller is suitable for applications where the number of points with a single controller does not exceed 300 I/Os. It is compact and can be configured with local I/O modules. The entire project configuration can be achieved through only one tool, which is convenient for users to configure and maintain the system.

In short, the ABB AC700F controller is an affordable, easy to integrate and configure the controller, suitable for small point size process control applications, can help users to improve the level of control and efficiency of automation systems.

What are the applicable industries

The ABB AC700F controller is suitable for a wide range of industries, particularly those requiring smaller, less reliable, more independent automation applications with a larger number of control devices. The following are some of the industries where ABB AC700F controllers may be applicable:

Manufacturing: The AC700F controller is suitable for a variety of manufacturing application scenarios, such as production line automation, robotics control, packaging machinery and so on. It can help improve productivity, reduce energy consumption and minimise failure rates.

Energy and Utilities: The AC700F controller can be used in energy and utility fields such as power, water and gas. It can monitor and control various equipment and systems to ensure safe, reliable and efficient operation.

Building and Infrastructure: The AC700F controller is suitable for use in the building and infrastructure sector, such as building automation, intelligent transport systems, lighting control and more. It can help improve the management efficiency of facilities, reduce energy consumption and improve safety.

Food and Beverage Processing: AC700F controller can be used in food and beverage processing industry, such as production line automation, quality control and traceability. It can help improve product quality, reduce production costs and ensure food safety.

It is important to note that these are just some examples of industries where ABB AC700F controllers may be applicable. In fact, AC700F controllers can be customised and configured according to specific application requirements for a wider range of industry sectors.

What are the advantages of the AC700F controller

The ABB AC700F controller has the following advantages over traditional PLC controllers:

Affordable: AC700F controller adheres to the high cost-effective PLC controller, providing users with a more economical Micro DCS solutions, reducing the cost of automation systems.

Seamless Integration: AC700F controller can be seamlessly www.abb-drive.com integrated into Freelance 800F system through Ethernet, which is convenient for users to expand and upgrade the system, and improves the flexibility and scalability of the system.

Programming and Configuration Tool: AC700F controller adopts the same integrated programming and configuration tool as AC800F controller, i.e. Freelance Engineer Station (Control Builder F), users only need to face an engineering configuration tool, which simplifies the process of programming and configuration, and improves work efficiency.

Data Integration: AC700F controller data can be seamlessly integrated into the main system DCS operator station without additional HMI programming, achieving data sharing and centralised management, improving system integration and efficiency.

Powerful control functions: AC700F controller has powerful control functions, including sequence control, process control, motion control, etc., which can meet a variety of complex automation control needs.

Easy maintenance: AC700F controller has advanced diagnostic options and improved alarm operation, which can save costs during operation and maintenance phases and improve system reliability and stability.

With the advantages of affordability, seamless integration, programming configuration tools, data integration, powerful control functions and ease of maintenance, ABB AC700F controllers can help users improve the control and efficiency of automation systems.

AC500 CPU

We built the AC500 CPU to provide the ease of use, safety and reliability needed to adapt automation solutions to new challenges.

Dynamic and Adjustable Interaction

We have designed a range of fast processing CPUs with the right memory, performance and networking capabilities.

New demands can be easily met using one integrated software across the entire AC500 PLC range.

Networking

Our AC500 CPUs have a wide range of communication possibilities, including on-board and expansion modules that can be integrated into various combinations to form powerful network nodes for the smallest to the largest automation solutions.

These features link your automation solution to the past, keeping it up-to-date and leading it into tomorrow.

Applications

AC500 can be used in many different applications such as wind farms, solar trackers, high capacity circuit breaker production, large ships, tunnel automation, traffic control, packaging, printing presses and robotics.

By choosing the AC500 platform, you can participate in our expertise in different applications and software libraries (e.g. motion control, water, solar, drives).

The ABB AC500 CPU is a core component in industrial automation control systems, providing simple, safe and reliable automation solutions to meet new challenges.

It is flexible and scalable, offering a wide choice of models such as PM571. PM581 and PM591 to meet different control needs.

These CPUs are highly integrated, providing LCD display, operation buttons, SD card expansion port and two integrated serial communication ports for easy programming, data exchange and communication.

The AC500 CPUs also provide a variety of communication methods, including on-board www.abb-drive.com and expansion modules, supporting different combinations to form powerful network nodes for different automation solutions.

It also supports a variety of programming languages for user-friendly programming and maintenance.

In addition, AC500 CPU is equipped with high-speed counting and analogue channels, which can be applied in different fields of

such as wind turbines, solar tracking, large ships, tunnel automation, traffic control, packaging, printing machines and robotics.

In addition to the standard AC500 product, ABB offers the compact AC500-eCo PLC, which offers maximum flexibility and economy for the needs of small, modern control systems.

It offers 128kB or 512kB of program memory, supports functions such as high-speed counting and analogue channels.

It also integrates an RS485 serial port and an optional serial port for easy data exchange and communication.

In addition, AC500-eCo PLC also provides a variety of standard communication options, such as Modbus and Ethernet, etc., which is convenient for users to communicate with other devices.

In conclusion, ABB AC500 CPU is a powerful, flexible and scalable core component of industrial automation control system for different applications and scenarios, which can help users achieve simple, safe and reliable automation solutions.

The advantages and disadvantages of ABB AC500 CPU are listed below:

Pros:

Multiple model options: AC500 series CPUs offer multiple models, such as PM571. PM581 and PM591. to meet different control needs.

Expandability: The AC500 series CPUs are expandable and can be extended with expansion modules to increase the number of input and output points to meet larger scale control needs.

Integrated communication interface: AC500 series CPUs have integrated a variety of communication interfaces and support a variety of communication protocols, making it convenient to connect and communicate with other industrial automation equipment.

Programming software: AC500 series CPUs are programmed with unified programming software, supporting multiple programming languages, which is convenient for users to develop and debug programs.

Future-oriented investment protection: AC500 CPUs are designed with future expansion and upgrading in mind, and can be upgraded without replacing the entire system by replacing only the CPU module, effectively protecting the user’s investment.

Disadvantages:

Additional hardware and software investment may be required: although the AC500 CPU is powerful in its own right, in some cases additional hardware and software investment may be required to meet specific control requirements.

Learning and training costs: as the AC500 CPU has a wide range of functions and programming options, user training and learning may be required to make full use of its capabilities.

In summary, the ABB AC500 CPU offers a variety of advantages such as scalability, integrated communication interfaces and future-proof investment protection, but also has some disadvantages such as the potential need for additional hardware and software investments as well as learning and training costs. However, these drawbacks do not affect the widespread use and popularity of AC500 CPUs in industrial automation control systems.

AC500

With the AC500 PLC series, we offer a reliable and powerful platform for designing and creating scalable, cost-effective and flexible automation solutions.

Scalable

The scalability of the AC500 PLC is achieved by offering a wide range of devices to design and realise configurations suitable for simple control tasks or complex automation solutions.

The AC500 PLC provides flexibility of movement through an integrated software.

Cost effective

The AC500 PLC series includes a variety of CPUs, I/O modules, communication modules, communication interface modules and accessories.

The ‘all modules on any CPU concept’ combined with our www.abb-drive.com lifecycle policy helps our customers to react quickly, flexibly and economically to new requirements.

Flexibility

Our AC500 is designed to provide the ease of use, safety and reliability needed to extend automation systems to meet new challenges.

Memory, performance and network capabilities mean more functionality, advanced visualisation, more comfortable operation – for better individual customer solutions.

Compact HMI

Scalable PC-based SCADA system for real-time plant operations.

Based on ABB’s premium technology 800xA DCS systemWith its leading object-oriented engineering platform, it can be used in a wide variety of industries, from a single operator workstation, with 50 signals, and can be scaled to applications with thousands of signals and workplaces.

The Compact HMI is designed with Microsoft Windows® Interactive Standards and supports Windows 10 2016 LTSC and Windows Server 2019.This provides superior ease of use, unrivalled performance and cost savings.

Compact HMI not only connects directly to a wide range of OPC-compliant controllers, but also comes with built-in drivers to connect to major PLCs.

Using our Smart Client technology, you can quickly and easily remotely access real-time plant data on your office PC, analyse it directly and then create a variety of reports.

Compact HMI 6.1.1-1 released.

Compact HMI version 6.1.1-1 reinforces ABB’s commitment to providing safe and reliable operation. To extend the lifecycle of new and existing installations, Compact HMI 6.1.1-1 was released with the following news:

-OPC UA Connect support.

-OPC UA Client Connect service

-Event History

-Windows operating system support

Compact HMI 6.1.1.1 supports Windows 10 LTSC 2021/Server 2022 in addition to Windows 10 2016 LTSC, Windows Server 2016. Windows 10 2019 LTSC and Windows Server 2019.

Compact HMI 6.1.1-1 is now available!

Compact HMI 6.1.1-1 Release Highlights:

OPC UA Connectivity

This OPC UA Client enables external OPC UA-Servers (e.g. PLCs) to be connected and integrated into the Compact HMI, so that the Compact HMI can read data from these OPC UA-Servers or write data to these OPC UA-Servers.OPC UA Connect is currently only supported for OPC UA-Data Access (DA).

OPC UA Client Connect Service

The new OPC UA servers enable external OPC UA-clients to connect to the Compact HMI to read and write OPC data.The OPC UA Client Connection Service is typically used to exchange data between the Compact HMI and third-party software applications for reporting and data analysis.OPC UA Connect currently supports only OPC UA-Data Access (DA).

Event History

Event History is intended to be an optional replacement for the previous Event Storage Service and provides essentially the same functionality for processing messages from services, connected systems, and workspace clients. Like the Event Storage Service, the Event History Service handles short-term storage of events and offers the following benefits:

Supports redundancy without the limitations of two service providers

Supports events for three months and the current month Approximately 5 million events can be stored with no limit per category.

Windows operating system support

Compact HMI 6.1.1-1 supports Windows 10 LTSC 2021/Server 2022 in addition to Windows 10 2016 LTSC, Windows Server 2016. Windows 10 2019 LTSC and Windows Server 2019.

Pros.

One-click information that instantly displays all information related to the object through an intuitive point-and-click style

High-performance pre-built, reusable graphics libraries based on industry best-practice principles for rapid creation and use of graphics displays

Embedded CAD viewer for object-centric CAD drawing

Direct interface to a wide range of OPC-compatible www.abb-drive.com controllers, including built-in drivers for connecting to major PLCs

Batch data tool for configuring data with minimum engineering effort

Smart Client for intelligent data access and viewing for fast, informed decisions and improved performance

Flexible alarm management with alarm hold and alarm analysis for easy alarm monitoring and analysis

Real-time alarm notification via email or SMS

General Purpose and Explosion Proof

Easy Measurement

This is a precision instrument It is a precision instrument using state-of-the-art electronics and laser technology.

Installation and maintenance The instrument requires care and preparation for installation and maintenance. Failure to do so may damage the instrument and void the warranty.

1.2 Measurement principle

The analyser is an optical instrument based on tunable diode laser absorption spectroscopy (TDLAS).

The analyser is an optical instrument based on tunable diode laser absorption spectroscopy (TDLAS) and is used for continuous on-site monitoring of gases in chimneys, pipelines, process chambers or similar.

The analyser measures the average gas concentration along the line-of-sight path using a transmitter/receiver configuration (mounted in a relative diameter installation).

The measurement principle is infrared single line absorption spectroscopy, based on the fact that each gas has a different absorption line at a specific wavelength.

The measurement principle is shown in Figure 1-1. The laser wavelength is scanned over the selected absorption lines of the gas to be measured.

The absorption lines are carefully selected to avoid cross-interference from other (background) gases. Cross interference from other (background) gases.

The detected light intensity varies with the wavelength of the laser. In the optical path between the transmitter and receiver, the target gas molecules absorb the laser wavelength.

Absorption of target gas molecules in the optical path between the transmitter and receiver. In order to improve the sensitivity, wavelength modulation technique is used.

In order to increase the sensitivity, a wavelength modulation www.abb-drive.com technique is used: the laser wavelength is slightly modulated while scanning the absorption line.

The detector signal is spectrally decomposed into harmonic frequency components of the laser modulation frequency.

The second harmonic of the signal is used to measure the concentration of the absorbed gas. Both line amplitude and line width are Both line amplitude and line width are extracted from the second harmonic line shape.

Therefore the measured concentration is not sensitive to changes in the line shape (line amplitude and line width). The measured concentration is not sensitive to line shape changes (line width and line width) caused by background gases.

Note: The analyser measures only the concentration of free molecules in a given gas and is therefore not sensitive to molecules bound to other molecules in complexes and molecules attached to or dissolved in particles and droplets.

Care should be taken when comparing results with those obtained by other measurement techniques.

1.3 Instrument Description

The analyser consists of 3 separate units (see Figure 1-2):

 Transmitter unit with decontamination

 Receiver unit with decontamination

 Power supply unit

The transmitter unit consists of the laser module, the temperature stabilised diode laser, the collimating optics and the main electronics in a coated aluminium case.

The receiver unit contains a focusing lens, photodetector and receiver electronics in a coated aluminium case.

Both the transmitter and receiver have an environmental protection rating of IP66. The standard optical window is pressure resistant up to 5 bar (absolute pressure).

The monitor is mounted by assembling the transmitter and receiver with the supplied purge and calibration unit and mounting to a DN50 process flange (see Figure 3-1).

Optical alignment is both simple and reliable, and the purge device prevents dust and other contaminants from being deposited on the optical window.

A block diagram of the AO2000-LS25 is shown in Figure 1-3.

The power supply unit converts 100-240 volts AC to 24 volts DC (24 volts DC can be supplied directly to the transmitter unit if available).

The power supply box is connected to the transmitter box by a cable. 4-20 mA input signal from external gas temperature/pressure sensor

can be connected to the screw terminals in the power supply box or directly to the cable connector on the transmitter unit.

The receiver electronics are connected to the transmitter electronics via a cable.

The absorbed signals detected from the photodetector are amplified and transmitted via this cable to the transmitter unit.

The same cable transmits the required power supply from the transmitter unit to the receiver unit.

The transmitter Al box contains the main electronic components. The central processor board performs all instrument control and gas concentration calculations.

The main board contains all the electronics required for the operation of the instrument, such as the diode laser current and temperature control as well as the analogue to digital signal conversion.

The display (LCD) continuously shows the gas concentration, laser beam transmission and instrument status. an RS-232 port is available for direct serial communication with a PC.

An optional Ethernet board provides TCP/IP communication over a local area network (LAN) as an alternative to serial communication.

All cable connectors are Phoenix VARIOSUB type and are waterproof.

3ASC25H215E-DATX131 is an intelligent communication adapter for connecting and managing industrial automation devices.

It can convert and integrate multiple communication protocols, such as Modbus, Profinet, etc., which facilitates the communication and control between different devices.

In addition, the adapter has powerful data processing and transmission functions, which can process and transmit various data signals quickly and accurately, improving the performance and stability of the whole system.

Description:

3ASC25H215E-DATX131 is an intelligent communication adapter for connecting and managing industrial automation devices.

It can convert and integrate multiple communication protocols, such as Modbus, Profinet, etc., which facilitates the communication and control between different devices.

In addition, the adapter has powerful data processing and transmission functions, which can process and transmit various data signals quickly and accurately, improving the performance and stability of the whole system.

In practical applications, 3ASC25H215E-DATX131 intelligent communication adapter is usually used with PLC, DCS and other control systems to realise data transmission and processing of the whole industrial automation system.

At the same time, the adapter can also be used with various industrial automation devices, such as sensors, actuators, etc., to achieve communication and control between different devices.

In short, the 3ASC25H215E-DATX131 is a powerful and stable intelligent communication adapter for a wide range of industrial automation applications that require high-precision and high-stability data transmission and processing.

The 3ASC25H215E-DATX131 is an intelligent communication adapter for connecting and managing industrial automation devices.

It enables the conversion and integration of multiple www.abb-drive.com communication protocols, such as Modbus, Profinet, etc., to facilitate communication and control between different devices.

Therefore, it is suitable for the following scenarios:

Scenarios that require communication and data transmission between different devices.

Scenarios that require connection and management of industrial automation devices.

Scenarios that require high-precision and high-stability data transmission and processing.

In summary, the 3ASC25H215E-DATX131 is suitable for a variety of industrial automation applications that require high-precision and high-stability data transmission and processing.

The advantages of 3ASC25H215E-DATX131 intelligent communication adapter mainly include:

Powerful Protocol Conversion and Integration Capability: The adapter enables the conversion and integration of a variety of communication protocols, such as Modbus, Profinet, etc., which facilitates the communication and control between different devices.

High-speed data processing and transmission: The adapter has powerful data processing and transmission functions, which can quickly and accurately process and transmit a variety of data signals to improve the performance and stability of the entire system.

Easy to use and configure: the adapter has an easy-to-use configuration interface and a variety of communication interfaces, which is convenient for users to set parameters and operations.

High reliability and stability: the adapter adopts high-quality electronic components and materials with long service life and low failure rate, which can ensure long-term stable operation.

3ASC25H215E-DATX131 intelligent communication adapter also has some disadvantages:

High cost: since the adapter uses advanced technology and materials, the cost is relatively high, which may increase the input of the whole system.

High environmental requirements: the adapters are environmentally demanding and need to be kept in a dry and clean working environment, otherwise their performance and lifespan may be affected.

Requires professional maintenance: If more in-depth customisation or maintenance is required, professional technical support and operational experience is needed, which may increase maintenance costs.

Overall, the 3ASC25H215E-DATX131 is a powerful and stable intelligent communication adapter for a wide range of industrial automation applications that require high-precision and high-stability data transmission and processing.

More product recommendations:

celesco pt801-0005-611-1212

DEIF CSQ-3

Bently 3500/72M 176449-08 Large Card

Bently 3500/70M 176449-09 card

GE PQMII-T20-C

SUMITOMO UMC552000-01

ABB REF615 HBFNAEAGNEA6BCA1XG

ABB UAD155A0111 3BHE029110R0111

ABB PCD230A 3BHE022291R0101

ABB GFD233A 3BHE022294R0101

ABB s-073n 3bhb009884r0021

ABB GHR9010100R0002

ABB NBIO-31 3BSE011337R1

ABB kuc321Ae hiee300698r1

ABB ufc760be01 3bhb007030r0001

ABB nocr-01c 3afe64300245

ABB ufc760be43 3bhe004573r1043

ABB DCF506-0140-51

ABB afp9075355 3bhs537443

ABB UNITROL1020 UNS0119A-Z,V1 3BHE030579R0001

ABB DSTXW110

ABB RED670 1MRK000028-CAR01

ABB ci854a 3bse030221r1

3ASC25H705-7 is an ABB motor control board, mainly used for controlling and monitoring the operation status and parameters of the motor.

The board has a variety of control algorithms, such as vector control, direct torque control, etc., which can achieve high-precision motor position and speed control.

The board also has a variety of sensor interfaces that can be connected to various types of sensors to monitor the motor’s operating status and parameters.

In practical applications, the 3ASC25H705-7 board is usually used in conjunction with motors, encoders and other devices to monitor and control the motor’s operating status and parameters in real time by receiving signals from sensors.

At the same time, the board can also be used with PLC and www.abb-drive.com other control systems to achieve high-precision motor motion control and production line automation monitoring.

ABB 3ASC25H705/-7 high performance digital control system

◆ 5 Gigabit Ethernet interfaces, equipped with two 1000Base-X full duplex singlemode/multimode fibre interfaces (SC/ST/FC interfaces optional) and three 10Base-T/100Base-TX/1000Base-T adaptive Gigabit Ethernet ports.

◆ Data processing type is store-and-forward switching mode; ◆ Data processing type is store-and-forward switching mode.

◆ DC power input range: DC9~24V, double diode anti-reverse connection, double thyristor protection.

◆ Conforms to IEEE802.3. IEEE802.3u, IEEE802.3x standards.

◆ Operating temperature -40°C~70°C, meet the requirements of harsh industrial environment applications.

Product Description

Structure: Low power consumption, fanless design, stainless steel case, aluminium alloy panel, standard 6U architecture, pinhole connectors, shock and vibration resistant, suitable for harsh environments.

Port: Front-end dual USB 2.0. single RS232/RS422/RS485 interface.

Rear-end dual USB 2.0. dual RS232. dual Ethernet ports, keyboard/mouse, VGA, parallel port.

Membrane keyboard: 60 input keys, including 10 definable function keys

Display: High-brightness 12.1-inch TFT LVDS LCD screen (touchscreen optional);.

Expandability: 21-slot motherboard, expandable with up to 15 user IO templates;

AT96 bus: open architecture, convenient for user to customise the templates;

Power supply: AT power supply, 60W, +5V/+12V/-12V output.

Overall Dimension: 445(W)×266(H)×245(D)mm.

Weight: 6.0Kg.

Operating Temperature: -5~55°C; Relative Humidity: 90% (55 °C) max. System Parameters:

Structure type: low-power, high-performance dual-core Gigabit six-port embedded motherboards

Processor: Intel dual-core technology processor packaged in Socket 479 FCPGA

Core Duo processors have a large 2MB L2 cache and range from 1.66GHz to 2.33GHz.

Core single processors with 2MB of large L2 cache from 1.66GHz to 1.83GHz

Low-voltage Core Duo processors with 2MB of large L2 cache from 1.50GHz to 1.83GHz

System Front Side Bus: 667MHz

Chipset: Intel Mobile Series 945GM+ICH7M chipset

Memory: Equipped with 2 DDR2 memory expansion slots, supports up to 4GB (2GB X 2 slots) DDR2 (DDR2-400/533/667/) memory, dual-channel.

BIOS: AMI 4M-bit, plug-and-play BIOS; supports APM1.2. DMI2.1. and ACPI2.0 specifications.

IDE: 2 IDE channels, support 4 IDE devices, up to support DMA-100/133 transfer mode;

SATA: 4 SATA channels, supports 4 SATA-150/300 drives, supports AHCI and (RAID 0/1) array modes

E-Hard Drive: 1 Compact Flash card slot on board (CF card as IDE device)

Watchdog: Supports 1-255 second software-programmable watchdog timer

Hardware monitoring: processor temperature and voltage monitoring; system ambient temperature monitoring; fan speed monitoring; system voltage monitoring, etc.

I/O interface:

Serial port: 2xRS-232 interface

Parallel port: 1 parallel port, support SPP/EPP/ECP mode

IrDA: SIR IrAD 1.1 compatible

USB: 2 x USB 2.0 ports

Keyboard/Mouse: 1 x PS/2 keyboard/mouse interface

Expansion Bus: 1 x 32bit PCI bus interface

REC670 – Interval Control

For optimal control and reliable operation of your switching station, the REC670 is the best choice for transmission applications.

The REC670 IED (Intelligent Electronic Device) provides control solutions for any type of switchgear and for different switchgear configurations.

The customised REC670 gives you the freedom to choose the functions exactly according to your needs.

The pre-configured REC670 models simplify operation, as the basic functions are already included and pre-configured.

If required, you can add optional features to easily increase the functionality of the REC670 IED to meet the specific requirements of your switching station.

The REC670 integrates advanced voltage control for substation transformers in a single IED.

The IED features a large HMI for local control and instant access to important data such as settings, events and disturbance information.

The REC670 has excellent I/O capabilities, allowing multiple bays to be controlled and measurements to be made with just one IED.

For example, one REC670 IED can handle the control of all devices across the entire diameter in a 1 1/2 breaker arrangement, including breaker fault protection for all breakers.

Applications

The REC670 interval level measurement, control and protection device is suitable for the control, protection and monitoring of different types of electrical intervals in power grids, and is particularly suited to distributed control systems where high reliability is required.

The REC670 is suitable for the highest voltage classes and can control primary equipment of any wiring method.

The REC670 can be realised remotely via a communication bus.

(SCADA station level) via the communication bus or locally via a single line diagram displayed on the unit’s front panel Human Machine Interface (HMI).

Different control modes are possible: for example, one measurement and protection device can control one electrical interval or several electrical intervals at the same time.

It is electrically interlocked and can be used for all common wiring methods. The control functions are based on the principle of selection before execution to ensure maximum reliability.

The simultaneous check function closes the switch for fault recording and fault closing in the event of a single fault in the primary system. The ranging function allows independent post-fault analyses.

Bidirectional transmission of 6×32 far jump and switching signals between selected measurement and control protection devices within the station or between neighbouring substations.

Powerful protection functions can be flexibly applied to different substations and different busbar wiring methods.

Single-phase, two-phase and three-phase reclosers include priority circuits for multi-breaker wiring, which together with the simultaneous detection function allow fast or slow reclosers.

The unit includes multiple circuit breaker failure protection functions that provide protection from circuit breaker failure independent of the protective device, even for a complete string of half-breaker wiring.

Graphical advanced logic programming features enable special user logic, such as automatic tripping operation of disconnecting switches in multi-breaker wiring, circuit breaker closing loops, load switching, and more.

Graphical tools ensure simple and fast checking and commissioning of these logics.

Instantaneous phase and earth overcurrent protection, four-segment time-delayed phase and earth overcurrent protection with or without direction of

A powerful library of protection functions, such as thermal overload and two-segment undervoltage and overvoltage protection, fully satisfies the user’s application requirements.

Serial data communication is provided by a fibre optic connection, ensuring that the unit is protected from electromagnetic interference.

The flexibility of application makes the REC670 an excellent choice for both new plant construction and retrofitting of old stations.

Features

. Intelligent electronic equipment integrating control, protection and monitoring, with powerful protection functions, flexible protection configurations and scalable hardware design to meet user-specific requirements.

. Can be used in a variety of busbar wiring methods

-Can be used for control and protection with up to 6 feeder intervals.

. Control of up to 30 controllable devices .

. Typical type-tested electrical interlocks for single breaker, www.abb-drive.com double breaker, one and a half breaker configurations .

. High impedance differential protection for T-wiring or busbar systems .

. Directional power protection

-Power reversal, positive phase low power, excess active and reactive power protection .

-With phase angle compensation

-Two-stage exit (alarm/trip) .

. Synchronisation, simultaneous detection and no-voltage checking functions for single or multiple circuit breakers: .

-Selectable charging direction

-Two function blocks with built-in simultaneous voltage selection

-Automatic or manual synchronisation and simultaneous checking with different setting values.

-Settable breaker closing time (simultaneous function).

. Single-phase/two-phase/three-phase automatic reclosing function: two function blocks with priority circuits for multi-breaker wiring.

-With synchronisation and simultaneous detection function

-Function can be activated or deactivated via remote communication or local switching inputs.

-Optional additional functions such as circuit breaker failure protection, voltage protection, thermal overload protection, control and monitoring.

.IEC61850-8-1 station level bus data communication

. Station Bus Data Communication Module IEC60870-5103.TCP/IP or EIA-485 DNP3.0.LON and SPA

.C37.94 Remote communication modules

-Contains 192 switching signals

-Short, medium and long distance fibre optic modems

-G.703 and G.703E1 external MODEM (short distance fibre optic MODEM support, mounted on communication bracket) .

. Integrated fault recording and event logging (40 analogue signals, 96 switching signals) .

. Energy metering and demand processing functions

-The output values of the measuring module (MMXU) can be used to calculate the electrical energy and the maximum electrical energy demand. Active and reactive power are calculated at the inlet and outlet, respectively, and the values can be read or generated in the form of pulses.