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ABB PGC5000B Smart Oven PGC5000 Series gas chromatographs

PGC5000B Oven:

— Simpler analytical methods

— Creates simple applications with a fixed set of features

— Using multiple ovens creates maximum

application flexibility

— Optimized for maximum analytical capability with

minimal hardware

— All hardware component access points are from the front

of the analyzer

— Flexible platform for product expansion and future

enhancements

— Multiple oven capability

— EPC standard

— Distributed analyzer architecture

— Oven isolation for maintenance and upgrades

— Different oven sizes for application designs

— Analyzer densification for reduction in shelter size

— Industry standard CANopen protocol

— Unlimited application configurations

— Local diagnostic capability

— Controlled and phased analyzer upgrades

— Factory engineered reapplications

— Simple application expansion

Application

Usage

The PGC5000B Smart OvenTM targets simple applications or complex applications that can be made simple. Smart OvenTM

technology can be single or multiple ovens allowing application design flexibility, producing simpler analyses which are easier to

maintain with higher reliability. PGC5000B Smart OvenTM smaller footprint minimizes space and utility requirements, while

increasing analyzer density in shelters.

ABB PGC5000A Controller PGC5000 Series gas chromatographs

PGC5000A. Control your Process GC with the

touch of a finger. Measurement made easy.

The new PGC5000A Master Controller features an easy to use touchscreen that

delivers unmatched control of your process gas chromatograph. As part of the unique

ABB multi-oven platform, the PGC analyzer system is suitable for virtually all

measurements in the hydrocarbon processing industry. The new HMI enables quick

and simple integration and commissioning of the ABB GC analyzer system, plus, easy

day-to-day control and plant optimization. Like all ABB GC analyzers, the PGC5000A

delivers high-reliability and precision while minimizing the overall cost of ownership.

Application

Usage

The PGC5000A Controller provides all of the analyzer system

control functions and coordinates internal and external data

activities for the PGC5000B and PGC5000C Smart OvensTM.

The PGC5000A Controller supports Multiple Smart OvensTM

configurations to maximize application flexibility while

minimizing space and utility requirements. Analyzer and

control systems communicate via intrinsically safe (IS) Fiber

Optic with Redundant Ethernet, Modbus or Modbus RTU.

Advantest R3671 Signal Analyzers communication bandwidths

 The R3671 and R3681 also have unique noise correction functions that enhances

their dynamic range (–84 dBc [typical]) for W-CDMA

adjacent leakage power (ACLP) measurements.

The R3671 and R3681 come standard with broadband

modulation analysis functions (bandwidth 25 MHz) as

well as RF measurement functions. By adding the

dedicated signal analysis options for the respective

communication systems to the R3671/3681, you can

expand the functionality of transmitter testers.

Furthermore, with an optional RF signal generator

that supports digital modulation, the R3671 and R3681

provide ease of implementation of the optimum testing

systems for evaluating high-frequency devices.

●Series Models Designed to Enable Selection of Optimum

Frequency Range

R3671 (20 Hz to 13 GHz):

Used for mobile communication bandwidths

R3681 (20 Hz to 32 GHz):

Used for various methods of research and development

●High-Performance Spectrum Analysis

●Flexible Digital Modulation Analysis

3GPP/cdma2000/GSM/Bluetooth®/W-LAN

●Digital Modulation RF SG That Can Be Mounted Inside

R3671: 50 MHz to 3 GHz

R3681: 50 MHz to 6 GHz

●Stable Measurement with More Digital Circuits

●Variety of User Interfaces and I/O Interfaces Supported

Large 12-inch TFT display (touch screen)

Mouse, keyboard, USB, LAN, GP-IB, VGA, and FDD interfaces

Advantest R3671 Signal Analyzers

With growing data communications traffic, broadband

radio communication systems such as radio-LANs, are

being developed that employ various modulation formats.

For example, IMT-2000 and other mobile communication

systems already use multicarrier methods.

Broadband radio signals are already being used in the

RF band. To push this envelope for higher quality data

transmissions, researchers and developers are studying

higher frequency/broader band carriers. In this kind of

radio communications environment, new measuring

instruments are needed that are not only more efficient

than ever, but also more flexible to support new

test requirements and communication standards.

The R3671 and R3681 are one of these new measuring

instruments for this new era of test and measurement

requirements. The R3671 and R3681 are high performance

signal analyzers. Employing our unique RF technology,

the R3671 and R3681 achieve an Average

Display Noise Level of –158 dBm*1), a Third-Order

Intercept Point (TOI) specification of +26 dBm*2), and a

signal purity of –122 dBc/Hz*3) to enable measurements

over a wide dynamic range.

Advantest Q8326 Optical Wavelength Meter Wide Bandwidth

High Accuracy Measurements

Use of a He-Ne laser for the reference wavelength enables high

accuracy measurements of up to 2 ppm. In addition, since the

He-Ne laser oscillates with high stability, a 2 ppm measurement

accuracy is guaranteed over a long time period without recalibration.

Wide Bandwidth

The measurement range covers short wavelengths of 480 to

1000 nm and long wavelengths of 1000 to 1650 nm and is

selectable via a single switch operation.

High-speed Sampling

The Q8326 can measure wavelengths at a sampling speed of

five per second so that wavelength fluctuations caused by temperature

variations can be captured precisely.

Frequency and Deviation Displays

The Q8326 can not only display the wavelength but can also

be switched to display the frequency of the beam under measurement,

which is convenient for adjusting the oscillation

wavelength to the ITU-T grid. Since the deviation is displayed

using the keyed entry as the reference, wavelength fluctuations

of the LD caused by temperature variations can be viewed with

high resolution and high precision.

GPIB Provided as Standard

Standard provision of GPIB allows the Q8326 to be used as a

component for an automated measuring system utilizing fast sampling.

Advantest Q8326 Optical Wavelength Meter Applications

Applications

•Optimum for LD wavelength adjustment for DWDM due to

fast sampling measurement.

•Can be used as a wavelength standard for spectroscope calibration

due to high accuracy.

•Can be automated to measure the LD wavelength temperature

characteristics and wavelength current characteristics.

High Resolution

The Michelson interference method allows high resolution

measurements of up to 0.001 nm/100 MHz.

High Accuracy Measurements

Use of a He-Ne laser for the reference wavelength enables high

accuracy measurements of up to 2 ppm. In addition, since the

He-Ne laser oscillates with high stability, a 2 ppm measurement

accuracy is guaranteed over a long time period without recalibration.

Wide Bandwidth

The measurement range covers short wavelengths of 480 to

1000 nm and long wavelengths of 1000 to 1650 nm and is

selectable via a single switch operation.

Advantest Q8326 Optical Wavelength Meter

Measures Optical Wavelength with High Accuracy of 2 ppm

and High Resolution of 0.001 nm.

● Fast sampling: Five measurements/sec.

● Frequency and deviation displays

Wavelength Meter Using He-Ne Laser as Reference Wavelength

The Q8326 is an optical wavelength meter that

measures an emission center wavelength with high resolution.

The Q8326 uses a He-Ne laser for the reference

wavelength and uses the Michelson interference

method to enable high accuracy measurement.

This wavelength meter achieves

fast sampling (five per second) which is optimum

for oscillation wavelength adjustment of

LD for DWDM. With the deviation display

function, wavelength fluctuations can also be

measured with high resolution and accuracy.

Advantest 6243/6244 DC Voltage/Current Source/Monitor Synchronized operation

For Characteristic Test for Transistor and FET

Synchronized operation

of the two units of the

6243/6244 allows characteristic

test of a transistor or FET. Id and Ig can be

measured simultaneously,

as controlling the source

timings of drain voltage

and gate voltage to protect

a device from stress.

● Linear, log and random

sweep functions

● Pulse measurement with

a minimum pulse of 1ms

● Me a s u r eme n t d e l a y

function for measurement timing control

● Source delay function

for source timing control

For Battery Charge/Discharge Test

The 6243/6244 is available for battery charge and discharge test at constant

current (CC) or constant voltage (CV) by DC or pulse application.

In a pulse charge and discharge test, measurement must be done at

the time of and after the pulse application.

Using two units will allow measurement at the two points above and

increase the current capacity up to 20A.

● Source sink current up to ±20A (7V)

● 20A (6244) and 4A (6243) by two-unit parallel operation

● Measurement at pulse HI/LO points

● Selectable from voltage measurement or current measurement

Advantest 6243/6244 DC Voltage/Current Source/Monitor

DC voltage/current source monitor ideal for

electronic circuit/component evaluation

by flexible source and measurement

l Wide ranging source/measurement

6243 Voltage: 0 to ±110V Current: 0 to ±2A

6244 Voltage: 0 to ±20V Current: 0 to ±10A

l 5½-digit display with 1μV/100pA (6243), 1μV/1nA (6244)

resolution in measurement

l Pulse measurement with a minimum pulse width of 1ms

l Sink-enabled bipolar output

The 6243/6244 is a DC voltage and current source/monitor

that offers wide ranging source and measurement as follows:

6243 Voltage: 0 to ±110V Current: 0 to ±2A

6244 Voltage: 0 to ±20V Current: 0 to ±10A

The 6243/6244 provides high accuracy with 4½-digit

source resolution and 5½-digit measurement resolution, a

variety of sweep functions, and a pulse measuring function

with a minimum pulse width of 1ms. Thus, it can be

used for a wide range of applications as a power source for

evaluation in research and development of semiconductors

and other electronic components or for characteristic test

systems in a production line.

Aerotech Automation1 Industrial Ethernet Support EtherCAT

Automation1

Automation1 Industrial Ethernet support is part of the user-friendly

Automation1 motion control platform, which includes the following:

• Development Software

• Controls

• Motor Drives

• Fiber-Optic HyperWire® Communication Bus

Modbus TCP/IP

Modbus TCP/IP is an extension of the Modbus family of vendor-neutral communication

protocols used for supervision and control of automation equipment.

Specifically, it provides a network and transport layer in an Internet environment

over the TCP/IP protocols for the Modbus application layer.

The most common use of the protocol is for communication with Ethernet-based PLCs,

I/O modules and other simple field buses or I/O networks. 

The Modbus TCP/IP protocol is an automation standard.

EtherCAT

EtherCAT stands for Ethernet for Control Automation Technology.

It is a real-time communication protocol over standard Ethernet hardware / networks.

In EtherCAT, the network topology has one central controller that manages

the communication of up to N (65.535) other devices.

EtherCAT devices transfer data “on the fly,” enabling high speed,

high throughput communication over the Ethernet physical layer.

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