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PCH Engineering External Bidirectional Low Frequency Accelerometer CHB 1101

The CHB 1101 transmitter is an external bi-directional low frequency accelerometer for use with the PCH 1026 mk2 wind turbine and structural vibration monitor.

The external bi-directional accelerometer is used for advanced nacelle monitoring with distributed pick-up points.

Separate cables with integrated D-Sub and M12 connectors make installation and connection of the vibration monitor very simple.

Easy to install

The CHB 1101 has an internal www.cniacs.com memory chip which stores factory information: serial number, model number, sensitivity and self-test parameters.

When the CHB 1101 is connected, the monitor reads the information in the memory chip and automatically adapts to the settings of the particular sensor.

This means that the accelerometer can be freely replaced without having to manually change the parameters.

The monitor reads the chip every 30 seconds to verify that the accelerometer is still connected and recognised.

The monitor will stabilise for 20 seconds after power is applied.

The stabilisation time after disconnecting/connecting the CHB 1101 is 3 seconds. During settling, the PCH 1026 Mk2 will perform a self-test of the internal and external accelerometers.

Self-Test

The monitor will issue a system error message if the self-test fails or the accelerometer is disconnected.

Accelerometers must be specified in the PCH 1026 Vibration Monitor setup to use this feature.

The CHB 1101 accelerometer is an optional feature of the PCH 1026 Mk2 Wind Turbine and Structural Vibration Monitor.

IC694CEE001 Single Slot RX3i Carrier/Expansion Module

The IC694CEE001 protects critical applications where any single point of failure affecting more than one I/O module is unacceptable.

The RX3i IO is designed for mission-critical discrete and process applications.

With advanced diagnostics and outstanding flexibility, this rack-based IO offers a wide range of standard and advanced IOs.

The IC694CEE001 carrier connects a remote node consisting of an RX3i I/O module to a PROFINET I/O local area network (LAN).

and connects it to the RX3i CEP001 carrier. This allows you to add another RX3i IC694 I/O module to the remote node.

The main remote I/O functions of the www.cniacs.com IC694CEE001 carrier include: scanning of all modules within the remote node (input and output scanning).

Publishing data to PROFINET IO controllers on the PROFINET network during a user-specified production cycle.

Receiving data from PROFINET IO controllers on the PROFINET network according to the production timeframe defined by the customer; and

Monitoring PROFINET communication and module configuration between PROFINET I/O controllers and modules in remote nodes.

Manage the status of the I/O in the event of a communication outage; and issue fault messages (such as alarms and diagnostics), alarms and diagnostics) to the controller.

NOTE: The USB port is for firmware upgrades only and should not be used for permanent connections. The CEP Carrier requires a user-supplied +24 VDC power supply.

Functions

Scans all modules within a remote node (input and output scanning)

Publish data to the PROFINE IO controller on the PROFINET network during a user-specified production cycle

Receives data from PROFINET IO controllers on the PROFINET network during a user-specified production cycle

Manage PROFINET communications and module configuration between PROFINET IO controllers and modules within remote nodes.

Manage the status of I/O in the event of a communication outage

Publishing fault messages (alarms, diagnostics, etc.) to PROFINET IO controllers

Comprehensive programming and configuration services for all supported RX3i IO modules using Proficy Machine Edition

Supports daisy-chained/linear, star or ring (redundant media) network topologies

Two switched Ethernet ports: two eight-core RJ-45 shielded twisted-pair 10/100 Mbps copper interfaces

One USB port for field updating firmware using WinLoader

IS220YDIAS1A Discrete Contact Input/Output Module

Product Description.

The IS220YDIAS1A is a discrete contact input/output module from General Electric.

This module is designed for gas and steam industrial control in the Mark VIe Speedtronic control system.

The Mark VIe was the last Speedtronic system designed by GE and was one of a series of industrial control systems marketed under the Speedtonic name.

The IS220YDIAS1A is part of the Mark IVe control system or Mark VIeS functional safety system.

As an I/O block, it is designed to be plugged into specific terminal blocks such as the IS200STCIS1A and 2A, IS400STCIS1A or 2A or IS400TBCIS2C.

The IS220YDIAS1A has an on-board power www.cniacs.com supply with a nominal voltage of 28.0 VDC.

The contact inputs and contact wetted outputs have a maximum nominal voltage of 32 VDC.

The IS220YDIAS1A has both UL and CE approvals. It can be used in both hazardous and non-hazardous locations.

Hazardous location use ratings can be found in documents such as GE’s GEH-6725.

This I/O module is designed for use in ambient conditions from -35 to 65 degrees Celsius.

The IS220YDIAS1A is a well-designed module that can be easily mounted on the IS230 terminal board.

The simplicity of installation and availability of documentation make this module ideal for most applications.

Numerous indicator LEDs on the front of the module allow the user to read the status of the IS220YDIAS1A discrete input module.

VMIVME-2120 64-bit High Voltage Digital Output Module

Features

– 64-bit high voltage output

– High current driver (600 mA sink current)

– Inrush current auto shutdown protection option

– Thermal shutdown protection www.cniacs.com option for driving incandescent lamps or inductive loads

– High breakdown voltage (55 V)

– Output clamp diode for inductive flyback protection

– Compatible with intelligent I/O controllers

– Built-in test logic for fault isolation

– Highly reliable DIN-type I/O connectors

– 8-, 16-, or 32-bit transmission

– Dual Eurocard form factor

– Separate board address decoding for control and data registers

– Optional pull-up resistors for electronic switch outputs

– Optional TTL outputs

– Front Panel with Fault LED

Functional Features

Compatibility: Compatible with VMEbus specification.

Double height form factor.

Output Connector Type: Dual 64-pin connector DIN 41612.

Output Organisation Eight ports, eight bits wide.

Addressable to any address within the Short-Circuit Monitor or Short-Circuit Unprivileged I/O map. Control and Status Register (CSR) addresses are independently selectable.

Address Modifier Codes: Short-circuit supervisory or short-circuit unprivileged I/O access can be selected via jumpers.

Factory configured for short-supervised I/O access.

Addressing Scheme: Eight ports can be individually addressed on 8-bit, 16-bit, or 32-bit boundaries.

CSR’s separate board address decoder allows hardware control addresses to be grouped for software efficiency.

Data Transfer Bus: A16: D8. D16. D32

Built-in Test: This product supports offline and real-time fault detection and isolation. Offline mode can be enabled by writing the CSR Set Test Mode bit.

When test mode is enabled, all outputs are off. When test mode is enabled, all outputs are off.

Emerson A6500-UM Universal Measurement Card

The A6500-UM Universal Measurement Card is an integral part of the AMS 6500 ATG machine protection system.

The card is equipped with 2 sensor input channels (independent or combined, depending on the selected measurement mode).

The most common sensors can be used, such as eddy current, piezoelectric (accelerometers or velocimeters), seismic (electrodynamic),

LF (Low Frequency Bearing Vibration), Hall Effect and LVDT (in combination with A6500-LC) sensors.

In addition, the card contains five digital inputs and six digital outputs.

Measurement signals are transferred to the A6500-CC Com card via the internal RS 485 bus and converted to Modbus RTU and

The measurement signals are transferred to the A6500-CC Com Card via the internal RS 485 bus and converted to the Modbus RTU and Modbus TCP/IP protocols for further transmission to a host computer or analysis system.

Additionally, the Com Card can communicate www.cniacs.com with a PC/laptop connection via the USB interface on the panel, allowing the card to be configured and measurements to be displayed.

This allows the card to be configured and the measurement results to be displayed. Measurement results can also be output via 0/4 – 20 mA analogue outputs.

These outputs have a common ground and are electrically isolated from the system power supply.

The A6500-UM Universal Measurement Card operates in the A6500-SR system rack, which also provides the supply voltage and signal connections.

The A6500-UM Universal Measurement Card provides the following functions:

Absolute shaft vibration

Relative shaft vibration

Shaft eccentricity

Housing piezoelectric vibration

Thrust and rod position, differential and shell expansion, valve position

Velocity and keys

Honeywell FC-PSU-UNI2450U Safety Management System Power Supplies

Humidity

Humidity levels should be maintained between 40% and 60%, with a variation of less than 6% per hour.

If humidity levels are high, it may be necessary to condition the air inside the cabinet and monitor humidity.

During maintenance, look for signs of condensation inside the cabinet, which is a sign that the climate control is beginning to fail.

Corrosion

Look for visible signs of corrosion on paint and bare metal surfaces inside the cabinet.

Keep cabinet doors closed to prevent corrosive salts and chemicals from entering the cabinet. Watch for metal fragments, such as zinc in the air.

Watch for metal debris such as airborne zinc from the underside of raised floor tiles commonly used in computer rooms or from any nearby hardware assembly or construction activities.

If deterioration occurs that you can see, then even further damage can occur in components you can’t see, so steps should be taken to further minimise contaminants.

Dust

Check the surface of the PSU and the bottom of the cabinet for dust, if you find a high concentration of dust, remove the dust using a soft anti-static brush and vacuum inside the cabinet.

Replace the cabinet fan dust filter periodically. The specific www.cniacs.com filter varies depending on the cabinet installed.

Cabinet Fans and Seals

Ensure that the cabinet fans are working properly, filters are clean and free of obstructions, protective plates and covers are secure, and all cabinet penetrations are sealed.

This is critical to avoid premature PSU failure.

New fan assemblies can be ordered with Honeywell part number FC-FANWR-24R.

Honeywell recommends replacing the fan every 8 years of operation.

Replace Power Supplies Before Failure

Improve System Reliability

Even with proper maintenance and environment, power supplies should be replaced before they fail.

For redundant systems, a phased approach may be helpful, where one power supply in each pair is replaced early and then the other is replaced at the next maintenance cycle.

Reliability can vary greatly depending on the load and temperature of the power supply.

Normal temperatures are kept at 35 degrees Celsius and a fully loaded PSU may have a shorter life depending on the temperature, reflecting the importance of keeping the fans running.

Many security systems use redundant power supplies so that each unit can carry 50% of the load during normal operation.

It is also common to specify spare capacity for PSU loads.

For example, with at least 25% spare capacity, each PSU can only carry 40% of the load in a worst-case scenario.

In this configuration, temperature and load do not limit PSU reliability.

Other factors, such as dust and humidity, are limiting, although these environmental conditions vary widely, making the exact life expectancy unknown.

VME-3122A High Performance 16-bit Analogue to Digital Converter (ADC) Board

Features

– 64 different or single-ended inputs

– 16-bit analogue-to-digital conversion (A/D)

– Software selectable conversion rate (up to 100 kHz)

– Programmable selection of scanning 1. 8. 16. 32 or 64 channels

– Continuous digitisation of selected www.cniacs.com input channels and storage of results

– Three trigger modes

– Software triggered

– External trigger

– Interval timer trigger

Three scanning modes

-Automatic scanning

-Single scan

-Random access

– Programmed VME interrupts

– User programmable interval timer

– Software programmable gains of 1 and 10

– External trigger synchronises multiple boards simultaneously

– Jumper-selectable A/D ranges of 0 to +5V, 0 to +10V, ±2.5V, ±5V, and ±10V

– Optional low-pass filter

– Overvoltage protection input

– 1.024 word data buffer (16 word depth buffer x 64 channels)

– Optional output coding

– Power up in auto-scan mode with a gain of 1

APPLICATIONS

– Factory automation

– Process control

– Laboratory Instrumentation

– Machine monitoring

– Data Acquisition

Functional Characteristics

At +25°C and rated power supply conditions (unless otherwise noted)

VMIVME-2120 64-bit High Voltage Digital Output Module

Features

– 64-bit high voltage output

– High current driver (600 mA sink current)

– Inrush current auto shutdown protection option

– Thermal shutdown protection option for driving incandescent lamps or inductive loads

– High breakdown voltage (55 V)

– Output clamp diode for inductive flyback protection

– Compatible with intelligent I/O controllers

– Built-in test logic for fault isolation

– Highly reliable DIN-type I/O connectors

– 8-, 16-, or 32-bit transmission

– Dual Eurocard form factor

– Separate board address decoding for control and data registers

– Optional pull-up resistors for electronic switch outputs

– Optional TTL outputs

– Front Panel with Fault LED

Functional Features

Compatibility: Compatible with VMEbus specification.

Double height form factor.

Output Connector Type: Dual 64-pin connector DIN 41612.

Output Organisation Eight ports, eight bits wide.

Addressable to any address within the Short-Circuit Monitor or Short-Circuit Unprivileged I/O map. Control and Status Register (CSR) addresses are independently selectable.

Address Modifier Codes: Short-circuit supervisory or short-circuit unprivileged I/O access can be selected via jumpers.

Factory configured for short-supervised I/O access.

Addressing Scheme: Eight ports can be individually addressed on 8-bit, 16-bit, or 32-bit boundaries.

CSR’s separate board address decoder allows hardware control addresses to be grouped for software efficiency.

Data Transfer Bus: A16: D8. D16. D32

Built-in Test: This product supports offline and real-time fault detection and isolation. Offline mode can be enabled by writing the CSR Set Test Mode bit.

When test mode is enabled, all outputs are off. When test mode is enabled, all outputs are off.

Fault LED: The Fault LED is illuminated at power-up and extinguished under program control after a successful diagnostic.

Output Functions: High current driver (600 mA sink current) outputs designed to drive incandescent lamps and inductive loads.

No external current limiting or warm-up resistors are required. Due to the presence of cold filament inrush currents, it is recommended that the output driver drive only one lamp.

However, if a single wire must drive more than one lamp, another driver must be connected in parallel.

If a single output must drive more than one bulb, it is recommended that the VMIVME-2131 (current source/sink)

or VMIVME-2130 (current source only) if the application allows.

Emerson A6500-UM Universal Measurement Card

The A6500-UM Universal Measurement Card is an integral part of the AMS 6500 ATG machine protection system.

The card is equipped with 2 sensor input channels (independent or combined, depending on the selected measurement mode).

The most common sensors can be used, such as eddy current, piezoelectric (accelerometers or velocimeters), seismic (electrodynamic),

LF (Low Frequency Bearing Vibration), Hall Effect and LVDT (in combination with A6500-LC) sensors.

In addition, the card contains five digital inputs and six digital outputs.

Measurement signals are transferred to the A6500-CC Com card via the internal RS 485 bus and converted to Modbus RTU and

The measurement signals are transferred to the A6500-CC Com Card via the internal RS 485 bus and converted to the Modbus RTU and Modbus TCP/IP protocols for further transmission to a host computer or analysis system.

Additionally, the Com Card can communicate with a PC/laptop connection via the USB interface on the panel, allowing the card to be configured and measurements to be displayed.

This allows the card to be configured and the measurement results to be displayed. Measurement results can also be output via 0/4 – 20 mA analogue outputs.

These outputs have a common ground and are electrically isolated from the system power supply.

The A6500-UM Universal Measurement Card operates in the A6500-SR system rack, which also provides the supply voltage and signal connections.

The A6500-UM Universal Measurement Card provides the following functions:

Absolute shaft vibration

Relative shaft vibration

Shaft eccentricity

Housing piezoelectric vibration

Thrust and rod position, differential and shell expansion, valve position

Velocity and keys

Honeywell FC-PSU-UNI2450U Safety Management System Power Supplies

Humidity

Humidity levels should be maintained between 40% and 60%, with a variation of less than 6% per hour.

If humidity levels are high, it may be necessary to condition the air inside the cabinet and monitor humidity.

During maintenance, look for signs of condensation inside the cabinet, which is a sign that the climate control is beginning to fail.

Corrosion

Look for visible signs of corrosion on paint and bare metal surfaces inside the cabinet.

Keep cabinet doors closed to prevent corrosive salts and chemicals from entering the cabinet. Watch for metal fragments, such as zinc in the air.

Watch for metal debris such as airborne zinc from the underside of raised floor tiles commonly used in computer rooms or from any nearby hardware assembly or construction activities.

If deterioration occurs that you can see, then even further damage can occur in components you can’t see, so steps should be taken to further minimise contaminants.

Dust

Check the surface of the PSU and the bottom of the cabinet for dust, if you find a high concentration of dust, remove the dust using a soft anti-static brush and vacuum inside the cabinet.

Replace the cabinet fan dust filter periodically. The specific filter varies depending on the cabinet installed.

Cabinet Fans and Seals

Ensure that the cabinet fans are working properly, filters are clean and free of obstructions, protective plates and covers are secure, and all cabinet penetrations are sealed.

This is critical to avoid premature PSU failure.

New fan assemblies can be ordered with Honeywell part number FC-FANWR-24R.

Honeywell recommends replacing the fan every 8 years of operation.

Replace Power Supplies Before Failure

Improve System Reliability

Even with proper maintenance and environment, power supplies should be replaced before they fail.

For redundant systems, a phased approach may be helpful, where one power supply in each pair is replaced early and then the other is replaced at the next maintenance cycle.

Reliability can vary greatly depending on the load and temperature of the power supply.

Normal temperatures are kept at 35 degrees Celsius and a fully loaded PSU may have a shorter life depending on the temperature, reflecting the importance of keeping the fans running.

Many security systems use redundant power supplies so that each unit can carry 50% of the load during normal operation.

It is also common to specify spare capacity for PSU loads.

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