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ABB Advant Controller 400 series Smarter solution

These make your new controllers able

to use ABB’s new S800 I⁄O system and

easily able to communicate, with other

external controllers, with ABB’s variable

speed motor drives and with smart

motor-control centers.

• More backup redundancy available,e.g.:

– Smarter solution to CPU redundancy,

eliminating critical, common, components,

– Full dual redundancy, covering,

media and communication in interfaces,

for S100 I/O and Advant Fieldbus 100.

• A self-tuning, adaptive process controller

(AC 450) that makes short work out

of setting up control loops accurately

and responsively, even in difficult applications.

• Fuzzy logic control, a control method

based on degrees of truths as opposed

to conventional binary logic that only

recognizes two states: true or false.

A control strategy that is often able to

untangle elegantly control problems

that are difficult to solve in other ways.

• Windows NT-based engineering tool,

You save money; StepUp includes:

• attractive prices on controller cabinets

with all the hardware and software required.

ABB Advant Controller 400 series

StepUp is program of ABB’s for upgrading

older process control equipment to the

latest Advant OCS solutions at particularly

favorable terms. The theme of the program

varies from time to time; this time the turn

has come to users of MasterPiece 200⁄1

controllers to upgrade to the latest Advant

Controller 400 series process controllers, at

substantially reduced prices.

You gain performance; Count on three to

five times the speed of your current

machine(s) (vs. Advant Controller 450) and

multiple amounts of more memory.

Higher processing speed and more

memory means more work done faster, as

well as more space for trend data storage.

You gain functionality; Advant Controller

400 series offers a number of important

functional improvements, e.g.:

• Support for a number of new, popular

communication protocols, e.g. Advant

Fieldbus 100, Profibus DP, LONWorks

and Allen-Bradley’s DF1.

A-B 1747-SN Remote I/O Scanner RIO Link Wiring

Required Tools and Equipment

Have the following tools and equipment ready:

• medium blade screwdriver

• termination kit (the package, containing resistors and a ring lug, which was

included with the scanner)

• approximately 38 cm (15 inches) of #20 AWG wire for grounding the drain

shield to the SLC chassis (for Series A retrofits)

• adequate length of RIO communication cable (Belden™ 9463) for your

specific application

RIO Link Wiring

The scanner is connected to other devices on the RIO link in a daisy-chain (serial)

configuration. There are no restrictions governing the space between each device,

provided the maximum cable distance (Belden 9463) is not exceeded. A 1/2 watt

terminating resistor (included with the module) must be attached across line 1 and

line 2 of the connectors at each end (scanner and last physical device) of the RIO

link. The size of the resistor depends on the baud rate and extended node

capability, as shown in the table below.

Note: To use extended node, all devices on the RIO link must support it. Refer to

each device’s user manual.

A-B 1747-SN Remote I/O Scanner Overview

Overview

The Remote I/O (RIO) Scanner, 1747-SN, enables communication between an

SLC™ processor and remotely located 1746 I/O chassis and other RIO-compatible

Allen-Bradley operator interface and control devices. The 1747-SN scanner

communicates with remote devices using the A-B Remote I/O link. The RIO link

consists of a single master (scanner) and multiple slaves (adapters). Communication

between devices occurs over twisted-pair cable with the devices daisy-chained

together. Maximum distance for remote communication is 3,048m (10,000 ft.). The

scanner is compatible with any standard RIO adapter device.

The SLC processor transfers a maximum of 4 logical racks (32 input and 32 output

image words) of discrete remote I/O data into the SLC input and output image files.

You can adjust the size of the scanner image files during configuration of your SLC

system so that the scanner only transfers the discrete I/O data required by your

application program. The 1747-SN Series B or later RIO Scanner can be configured

to transfer up to 64 words of data to a remote device via block transfer. Refer to

publication 1747-6.6, Remote I/O Scanner User Manual, for information on

configuration, programming, and block transfers.

The SLC 500™ processor (SLC 5/02 or higher) supports multiple scanners in its local

I/O chassis. The maximum number is dependent on the following:

• backplane power requirements (power supply dependent)

• SLC 500 processor I/O data table limit (4,096 input and output bits)

• processor memory to support the application (SLC processor dependent)

Bently Nevada 3500/93 System Display Asset Condition Monitoring Applications

Applications that require a cable longer than 100 feet must use the External

Power Supply and Cable Adapter. Applications that use the back lighted Display

Unit must use the External Power Supply. There are two External Power Supplies:

one for connection to 115 Vac and the other for connection to 230 Vac.

The External Power/Terminal Strip Mounting Kit eases installation of External

Power Supplies. The External Power/Terminal Strip Mounting Kit is designed to fit

in the Independent Mount Housing. The Kit streamlines installation of an External

Power Supply in both the Independent Mount Housing or a user supplied housing.

Independent Mounting – display is mounted flush against a wall or

panel and located up to 100 feet away from the 3500 System. (Up to

4000 feet away from the 3500 System when using the External Power Supply). 

Up to two displays can be connected to each 3500 rack and each display

requires one empty 3500 rack slot for insertion of its corresponding DIM. When

the display is not face-mounted, the cable connection between the DIM and the

Display can be made from the front of the 3500 rack or from the I/O module at

the rear of the rack.

Bently Nevada 3500/93 System Display Asset Condition Monitoring Module data

19-inch EIA Rack Mounting – display is mounted on 19-inch EIA rails and

located up to 100 feet away from the 3500 System. (Up to 4000 feet

away from the 3500 System when using the External Power Supply).

3. Panel Mounting – display is mounted in a panel cutout located in the

same cabinet or up to 100 feet away from the 3500 System. (Up to 4000

feet away from the 3500 System when using the External Power Supply).

Independent Mounting – display is mounted flush against a wall or

panel and located up to 100 feet away from the 3500 System. (Up to

4000 feet away from the 3500 System when using the External Power Supply). 

Up to two displays can be connected to each 3500 rack and each display

requires one empty 3500 rack slot for insertion of its corresponding DIM. When

the display is not face-mounted, the cable connection between the DIM and the

Display can be made from the front of the 3500 rack or from the I/O module at

the rear of the rack.

Bently Nevada 3500/93 System Display Asset Condition Monitoring Description

Description

The 3500/93 System Display is designed to meet the requirements of American

Petroleum Institute (API) Standard 670 and provide local or remote visual

indication of all 3500 Machinery Protection System information residing in the

rack including:

 System Event List

 Alarm Event Lists

 All Channel, Monitor, Relay Module, Keyphasor* Module or Tachometer

Module data

The 3500/93 System Display is configured using 3500 Rack Configuration

Software. The display can be mounted in any of four ways:

1. Face Mounting – display installs directly over the front panel of any full

size 3500 rack using a special hinged support. This permits access to the

rack’s buffered output connectors and user-interface buttons and

switches without disconnecting or disabling the display.

Note: For this mounting option only, the Display Interface Module (DIM)

must be installed in slot 15 (right-most slot) of the rack. The Face

Mounting option is not compatible with the 3500 Mini-rack.

Advantest R3681 Signal Analyzer New Signal Analyzer Key Features

Key Features

●Automatically detects BPSK, QPSK, 16QAM, or 64QAM.

WLAN signal analysis with different modulations for each subcarrier

●W-LAN signal analysis without leading codes

●Signal analysis by specified number of valid symbols

●I/Q baseband analysis

●Detailed modulated signal analysis using different graphical displays

Comparative analysis of different display formats using four simultaneous displays

●Enhanced operability with a large 12-inch screen and touch panel

Broadband measurement using OFDM modulation analysis function (OPT.68)

With the addition of Option 68 (Wideband OFDM Modulation Analysis Function), the R3681 can analyse

and measure IEEE802.11a, HiperLAN/2 and HiSWANa modulated signals.

The R3681 can analyse RF inputs, I/Q baseband inputs and wideband WLAN signals.

Advantest R3681 Signal Analyzer New Signal Analyzer Extensive Analysis Functions

Extensive Analysis Functions

Equipped with a wealth of standard analysis functions

The R3681 comes standard with the fine measurement functions of ADVANTEST’s conventional spectrum analysers.

The fine measurement functions of a conventional spectrum analyser:

Marker function (multi-marker, triangle marker, peak search, etc.)

Various detection functions required for communication standard measurements Normal value, positive peak, negative peak, sample, RMS value, video average and average voltage.

Other one-touch measurement functions commonly used in RF measurements

Power Measurement Mode

Power measurement (channel power/average power/total power), wideband CCDF measurement, Occupied Bandwidth (OBW) measurement, Adjacent Channel Leakage Power (ACP) measurement, multicarrier measurement, etc.

General Measurement Modes

Spectrum emission mask, spurious measurement, noise/frequency conversion, IM measurement, frequency counter (0.01 Hz resolution), etc.

WLAN modulation analysis

Broadband measurement using OFDM modulation analysis function (OPT.68)

With the addition of Option 68 (Wideband OFDM Modulation Analysis Function), the R3681 can analyse and measure IEEE802.11a, HiperLAN/2 and HiSWANa modulated signals.

The R3681 can analyse RF inputs, I/Q baseband inputs and wideband WLAN signals.

Advantest R3681 Signal Analyzer New Signal Analyzer for the Ubiquitous Networking Era

High-performance spectrum analysis

By taking full advantage of the latest RF technology, the R3681 can make measurements over a wide dynamic range.

Measurements are performed over a wide dynamic range:

●Average display noise level: -158 dBm (typical 1 GHz)

●Built-in preamplifier on: -168 dBm (RBW = 1 Hz, 1 GHz)

●1 dB compression point: +10 dBm (typical 200 MHz to 3.5 GHz)

●Third-order intercept (TOI): +26 dBm (typical 2 to 3.5 GHz)

●Signal purity (at 800 MHz)

10 kHz Offset: -120 dBc/Hz or more

1 MHz Offset: -140 dBc/Hz or more

10 MHz Offset: -155 dBc/Hz or higher

Built-in attenuator, 5 dB level (standard)

1 dB level attenuator (OPT.14)

●Resolution bandwidth (RBW): 1 Hz to 10 MHz (Sequences 1. 2. 3. and 5)

Display dynamic range: 10 dB/fixed

0.1 to 1 dB/div. (0.1 dB steps)

1 to 20 dB/div. (1 dB steps)

Steepness shape factor

Approximately 3 times the conventional value. This reduces the resolution of carrier near-field measurements.

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