Welcome to the official website of CNIACS Automation Technology Co., Ltd!

ABB 560BOR01 The binary outputs utilize relay contacts

Binary outputs

The binary outputs utilize relay contacts.

The 16 outputs are divided into two groups. Each of the 8 outputs has a common circuit. The groups are isolated from each other and from the internal electronics.

The relay coil supply voltage (24 VDC) is switched by an internal relay (R17).

The relay coil supply voltage (24 VDC) is monitored internally before and during the command output.

Command outputs to the process equipment can be executed either directly or in conjunction with the command output monitoring module.

The command output monitoring module is responsible for checking the output circuits (1 out of n times). For more details, refer to the Command Output Monitor datasheet.

The following modules with command output monitoring functions are supported:

– 23BA23 (60 VDC maximum)

The 1.5-pole command output can only be used in conjunction with the command output monitoring module. When using the 1.5-pole command output, the

One of the output relays of the 560BOR01 switches the command to the intermediate relay. Process voltage of the intermediate relay

The process voltage of the intermediate relay is switched by the command output monitoring module.

For 2-pole commands, two output relays are required for each command.

Alternatively, using additional booster relays connected to the command output monitoring module 23BA23.

Direct switching of process relays with high switching capacity on electrical devices (disconnectors, circuit breakers) (see data sheet 23BA23).

The module 560BOR01 performs several command monitoring functions before and during command output.

These tests ensure correct output. These tests can be further refined with the Command Output Monitoring module.

If the command monitoring reveals a fault, the command is canceled. Release relay R17 will only energize the output relay if the test is successful.

A faulty drive or a faulty release relay R17 will result in a complete failure of the command output module.

ABB AC 800PEC Built to control power – in industry, utilities and traction

Built to control power – in industry, utilities and traction

ABB is a globally active company with full process know-how

in a wide field of industrial, utility, traction, marine and other

applications. As a result, the AC 800PEC is a key controller

for ABB’s own range of industrial applications, and also for

third party products and systems.

The AC 800PEC is an efficient and flexible controller family.

Thanks to its short cycle times, fast I/O, high processing

power and advanced control using MATLAB® / Simulink®, the

AC 800PEC:

− Increases process quality and output

− Saves development and engineering costs

− Reduces the energy consumption of your products

− Shortens time-to-market for your development project

− Saves headcount and resources in engineering and

software development

− Enhances Return on Assets (ROA)

The modular structure of the AC 800PEC control system

means it can adapt to any application size, from the largest

industrial plants and propulsion systems down to very

compact products where space and cost are critical.

All over the world, many thousands of processors are now

proving their worth in a wide variety of extremely demanding applications.

ABB The AC 800PEC, the ultimate approach for high demands

The AC 800PEC, the ultimate approach for high demands

The AC 800PEC provides the unique combination of features

required in demanding applications:

− Short cycle times down to 100 μs

− High processing power

− Fast communication and I/O

− Programming tools:

− System engineering with IEC61131-3 languages using

ABB’s Control Builder, either as Compact or Profes sional version

− Product & control development using MATLAB® /

Simulink® for model-based design, easily bridging the

gap from simulation to implementation

− Full integration into ABB’s System 800xA

− Innovative and flexible use of FPGAs to include protocols

and application functionality in the devices without

creating additional processor load

− Optical communication

− Industrial grade hardware with no moving parts

− Long life cycle, easy upgrading

ABB AC 800PEC The high-performance control system for model-based design

Can you imagine a process with a cycle time of less than 100 μs?

We can – and we’ve built the AC 800PEC to achieve it

High-performance applications with extremely fast control

algorithms – cycle times that range from 100 microseconds

for fast control loops to seconds for long-term operational

transients – require specialized control devices.

That is why we have designed the AC 800PEC, extending the

capabilities of ABB’s well-known ControlIT automation

technology to handle the very high-speed algorithms of

processes such as power electronics applications. We’ve

even gone a step further: now, a single processor unit

combines these high-speed controls with the low-speed

process control tasks usually carried out by separate PLC units.

To facilitate the implementation of control algorithms, the AC

800PEC can be programmed using MATLAB® / Simulink® –

the code is automatically generated from the model and can

be downloaded without manual interaction.

Embedded into a robust and flexible system structure with

integrated standard communication, the AC 800PEC is

unique in the field of industrial process controllers.

Alstom RPH3/PS125b Controlled Switching Device,CT1VT220/TCR

This new Alstom Grids point-on-wave switching controller, RPH 3.

offers an electronic alternative to conventional solutions with increased security

and protection of the electrical equipment.

It can be used for configuration, monitoring, data logging and diagnostics.

It provides a more reliable way of stopping transient over voltages from damaging networks than traditional devices.

Traditionally, circuit breakers have been equipped with closing resistors to

minimize the level of over voltage generated during closing or re-closing operations.

This solution is expensive because a lot of equipment has to be installed and secondly

it is inherently less reliable since its mechanical parts can be affected by external

disturbance such as severe climatic conditions.

RPH 3 reduces the stress create by switching operations caused by lightning strikes and transient surges.

It is suitable for protecting circuit breakers and transmission circuits from 362 kV power networks

and above and can be applied to closing and auto-reclosing of

uncompensated or shuntcompensated transmission lines as well as

dual switching of high voltage lines and transformers.

RPH 3 uses sophisticated algorithms and fast digital signal processing

to close contacts in under a millisecond, when the voltage across the breaker is close to zero.

It increases reliability, requires less maintenance, is very easy to install and is smart grid ready

(fully IEC 61850 compliant) with its integrated web server.

RPH 3 fully supports the optimization of the customers network design,

operation and maintenance and reduces the total cost of ownership.

Vibro-Meter RLC16 Relay card Relay card Description

Description of the RLC16 Relay Card

The RLC16 relay card is designed for use in Meggitt Sensing Systems’ VM600 Series 

Vibrometer® product line for mechanical protection systems as well as condition and performance

monitoring systems.

It is an optional card for use when the four relays on the IOC4T I/O card

are insufficient for the application and additional relays are required.

The RLC16 is mounted on the rear of the VM600 (ABE04x) rack and connects directly to the rack

backplane via a connector.

The RLC16 contains 16 relays with changeover contacts.

Each relay is associated with 3 terminals on the screw terminal strip at the rear of the VM600 rack.

The relays are controlled by software-controlled open collector actuators.

Jumpers on the RLC16 card allow selection of either Normal Energized (NE) or Normal De-energized

(NDE) relays.

Storage

– Temperature : -40 to +85°C (-40 to +185°F) -40 to +85°C (-40 to +185°F)

– Humidity: 0 to 95% non-condensing

Vibration and shock: See general specifications for VM600 racks

Physical Dimensions

Height: 6U (262 mm, 10.3 inches)

Width: 20 mm (0.8 in)

Depth: 125 mm (4.9 in)

Weight: 0.30 kg (0.66 lbs)

Translated with DeepL.com (free version)

Vibro-Meter RLC16 Relay card Relay card Relay Characteristics

Relay Characteristics

Relay Name: RL1 to RL16

Type: PE014005

Contact Arrangement: 1 COM, 1 NC, and 1 NO contact/relay.

All relay contacts are on J1. J2 and J3.

Rated voltage: 250 VAC

Current Rating: 5 AAC

Maximum breaking capacity (no contact protection): 1250 VA

Description of the RLC16 Relay Card

The RLC16 relay card is designed for use in Meggitt Sensing Systems’ VM600 Series 

Vibrometer® product line for mechanical protection systems as well as condition and performance

monitoring systems.

It is an optional card for use when the four relays on the IOC4T I/O card

are insufficient for the application and additional relays are required.

The RLC16 is mounted on the rear of the VM600 (ABE04x) rack and connects directly to the rack

backplane via a connector.

The RLC16 contains 16 relays with changeover contacts.

Each relay is associated with 3 terminals on the screw terminal strip at the rear of the VM600 rack.

The relays are controlled by software-controlled open collector actuators.

Jumpers on the RLC16 card allow selection of either Normal Energized (NE) or Normal De-energized

(NDE) relays.

IBA ibaLink-SM-128V-i-2o VMEbus Interface Card Scope of delivery

Relevant specifications (VITA standards):

 VMEbus

 IEEE 1014-1987

 VME64

 ANSI VITA 1-1994 VME64X; VITA 1.1-19

Remarks Since an analog channel always corresponds to a digital channel in the iba bus concept,

an analog value and a digital value are referred to as a channel or a signal for simplicity of description.

Scope of delivery

The goods are checked for completeness and integrity after unpacking.

The scope of delivery includes

 Device ibaLink-SM-128V-i-2o

 Manual

Safety instructions

Specified use

The device is an electrical device. It can only be used for the following applications:

 Automation of industrial systems

 Measurement data logging and analysis

 Application of ibaSoftware products (ibaPDA, ibaLogic, etc.)

IBA ibaLink-SM-128V-i-2o VMEbus Interface Card Relevant specifications

The following non-privileged modes of VME access are possible:

 A24 and A32 in the following VMEbus data formats

 D08 (E0)

 D16

 D32

 A40 MD32 (on special request)

The BLT and MBLT modes as well as the auto-configuration and geo-addressing functions are being prepared, but are not available at this time.

The 2eVME mode has not yet been implemented. Access is only allowed in unprivileged data access mode.

The SM128V is a passive board on the VMEbus, i.e., it will not be actively accessed or interacted with on the VMEbus.

The board uses 256 kbytes of address space on the VMEbus.

Relevant specifications (VITA standards):

 VMEbus

 IEEE 1014-1987

 VME64

 ANSI VITA 1-1994 VME64X; VITA 1.1-19

Remarks Since an analog channel always corresponds to a digital channel in the iba bus concept,

an analog value and a digital value are referred to as a channel or a signal for simplicity of description.

Vibro-Meter VM600Mk2/VM600 ABE056 Slimline Racks SPECIFICATIONS

SPECIFICATIONS

OVERVIEW

Housing: Painted galvanized steel sheet

Color: Off-white (RAL 9002)

Power supply: Integrated RPS1U power supply for VM600Mk2/VM600

The integrated RPS1U power supply provides +5 VDC and ±12 VDC for the VM600Mk2/VM600 and all installed modules (cards).

See also AC Input Power on page 3 and DC Input Power on page 3.

Power Input: The power input has an AC or DC connector (with RFI filter) and an on/off switch.

See Ordering Information on page 6 for information on the main power cord (power strip).

Backplane: Proprietary VM600Mk2/VM600 rack bus (open collector (OC) bus) for data/signal sharing between modules (cards)

Rack Slots (module (card) locations):

Front of rack:

– 1 × slot – module (card) position 01 – for handling modules (cards) such as MPC4Mk2. XMx16. MPC4. or AMC8.

Rear of rack:

– 1 × Slot – Module (Card) Position 01 – For associated input/output modules (cards) such as IOC4Mk2. XIO16T, IOC4T or IOC8T.

– 1 × slot – module (card) position 00 – for the relevant relay module (card), e.g. RLC16Mk2 or RLC16.

Search for products

Back to Top
Product has been added to your cart